Prehospital Care

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape Medical News series telling these stories.

I had worked a normal 7:00 a.m. to 3:00 p.m. shift in our emergency department. It was a nice day out, so I put my headphones in and started walking home through the Capitol Hill neighborhood in Denver. I passed a couple of buildings and reached an alleyway. At that moment, I glanced over.

Two guys were standing over a third person who was down on the ground. One of the people standing was on the phone. I paused for a second and thought, that doesn’t look right.

The guy on the ground was clearly out. And the other two were looking concerned like they didn’t know what to do.

I walked up the alley and asked, “What’s going on? Can I help?” One of the guys explained that they had just found this man lying here and had already called 911. They sounded a little bit out of their element. They certainly weren’t medically trained.

I leaned down next to the man on the ground. He was probably in his mid-to-late 40s. Unconscious. I always start with, “Hello? Can you hear me?” No response.

I felt for a pulse and he had one, but he didn’t appear to be breathing. I thought, I know what this is. I said, “Sir, I’m going to open your eyes.” I opened his eyes, and his pupils were tiny. It was almost certainly an opioid overdose.

And I had naloxone in my bag.

I got it out and started to assemble it. I didn’t have Narcan, which is the easy one. I had to put this kit together, draw up the medication, and put on the little nasal atomizer.

The two other guys were standing there watching. Then the one on the phone walked down to the end of the alley to where the ambulance was probably going to arrive so he could wave them down.

I gave the man the 4 mg of naloxone, two in each nostril.

He still wasn’t breathing. I did a basic maneuver where you lift his jaw a little bit to help open up the airway.

Suddenly, he started breathing again. I couldn’t do any meaningful measurements of his oxygen saturation or anything like that. I just kind of looked at him and thought, Okay, he has a pulse. He’s breathing now. That’s good.

Luckily, the cavalry arrived soon after that. Our Denver Health paramedics pulled up into the alley, and one of them recognized me from the ER. I explained that I had already given the guy naloxone. They did their assessment, and he still wasn’t breathing well, so they gave him some breaths with a mask and a bag.

We got him onto the gurney and into the back of the ambulance. They started an IV. He seemed to be breathing okay by then, and his numbers looked okay. But he wasn’t awake yet by any means.

I handed off care to them and disposed of my sharp in the ambulance. Then they took him into the ER that I had just left moments ago.

The two other guys had already disappeared. I think they saw the ambulance and thought, our job is done. So, I didn’t end up talking to them at all.

So, just like that ... I started walking home again.

I like to think of myself as a cool, calm, collected person working in the ER. But my heart was definitely going fast at that point. I called my wife to tell her about the crazy thing that just happened, and she could hear in my voice how amped up I was.

In the ER, it’s very common to see patients who need naloxone, have opioid toxicity, or have received Narcan in the community. Luckily, this man was found right away. He had likely overdosed only a few minutes earlier. Those scenarios can go bad very quickly. If there’s no one there, people often die.

That’s why I started carrying naloxone.

There are a lot of programs to get free naloxone out into the community. So, about 2 years earlier, I got some and threw one in my ER bag, one in my office bag, and another in my car. Then I essentially forgot about it. Until I needed it.

Now, I encourage all my friends to have some, and I suggest all medical professionals to keep some with them. Just be prepared. Put it in your backpack, your purse, keep it in the house, in the car, wherever. The nasal autoinjectors are incredibly easy. Like, stick it up the nose, push the big red button. Done.

When we train lay people to administer Narcan, we try to keep it simple. If you see someone, and they’re not responsive, not breathing, just give it. It’s not that there’s no possible harm if you’re wrong. But the benefits so vastly outweigh the risks that we are very aggressive to say, go ahead and give it.

I think we all have a responsibility to care for our communities. Obviously, that can take a lot of different forms. I had the privilege of being in the right place at the right time with the right tool to potentially save a life. That was the form it took for me that day.

Later, I followed up with a friend who took care of the man in the ER. He went through our standard procedure, being monitored to make sure the opioids didn’t outlast the naloxone. We have a lot of resources and next steps for people that have opioid use disorder. He was made aware of those. And then he walked out. I never saw him again.

It’s not the sexy part of our job in emergency medicine, not the super high–intensity adrenaline rush–type work, but a lot of what we do is talk to people like this guy. We counsel them. We think about their longer-term health and not just the overdose. This is an incredibly high-risk population in terms of their mortality risk from the opioid use disorder. It’s astronomical.

I obviously believed in this work before, but that day changed something for me. It added a layer of urgency. Now, when I have a moment in the emergency room to connect with someone, I know the reality — this person sitting in front of me could die in an alley. Maybe not today, but next week or next month.

I have the naloxone in my bag. Just in case.

Patrick Joynt, MD, is an emergency medicine physician with Denver Health in Denver.

Are you a medical professional with a dramatic story outside the clinic? Medscape Medical News would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary to access@webmd.net.

A version of this article appeared on Medscape.com .

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape Medical News series telling these stories.

I had worked a normal 7:00 a.m. to 3:00 p.m. shift in our emergency department. It was a nice day out, so I put my headphones in and started walking home through the Capitol Hill neighborhood in Denver. I passed a couple of buildings and reached an alleyway. At that moment, I glanced over.

Two guys were standing over a third person who was down on the ground. One of the people standing was on the phone. I paused for a second and thought, that doesn’t look right.

The guy on the ground was clearly out. And the other two were looking concerned like they didn’t know what to do.

I walked up the alley and asked, “What’s going on? Can I help?” One of the guys explained that they had just found this man lying here and had already called 911. They sounded a little bit out of their element. They certainly weren’t medically trained.

I leaned down next to the man on the ground. He was probably in his mid-to-late 40s. Unconscious. I always start with, “Hello? Can you hear me?” No response.

I felt for a pulse and he had one, but he didn’t appear to be breathing. I thought, I know what this is. I said, “Sir, I’m going to open your eyes.” I opened his eyes, and his pupils were tiny. It was almost certainly an opioid overdose.

And I had naloxone in my bag.

I got it out and started to assemble it. I didn’t have Narcan, which is the easy one. I had to put this kit together, draw up the medication, and put on the little nasal atomizer.

The two other guys were standing there watching. Then the one on the phone walked down to the end of the alley to where the ambulance was probably going to arrive so he could wave them down.

I gave the man the 4 mg of naloxone, two in each nostril.

He still wasn’t breathing. I did a basic maneuver where you lift his jaw a little bit to help open up the airway.

Suddenly, he started breathing again. I couldn’t do any meaningful measurements of his oxygen saturation or anything like that. I just kind of looked at him and thought, Okay, he has a pulse. He’s breathing now. That’s good.

Luckily, the cavalry arrived soon after that. Our Denver Health paramedics pulled up into the alley, and one of them recognized me from the ER. I explained that I had already given the guy naloxone. They did their assessment, and he still wasn’t breathing well, so they gave him some breaths with a mask and a bag.

We got him onto the gurney and into the back of the ambulance. They started an IV. He seemed to be breathing okay by then, and his numbers looked okay. But he wasn’t awake yet by any means.

I handed off care to them and disposed of my sharp in the ambulance. Then they took him into the ER that I had just left moments ago.

The two other guys had already disappeared. I think they saw the ambulance and thought, our job is done. So, I didn’t end up talking to them at all.

So, just like that ... I started walking home again.

I like to think of myself as a cool, calm, collected person working in the ER. But my heart was definitely going fast at that point. I called my wife to tell her about the crazy thing that just happened, and she could hear in my voice how amped up I was.

In the ER, it’s very common to see patients who need naloxone, have opioid toxicity, or have received Narcan in the community. Luckily, this man was found right away. He had likely overdosed only a few minutes earlier. Those scenarios can go bad very quickly. If there’s no one there, people often die.

That’s why I started carrying naloxone.

There are a lot of programs to get free naloxone out into the community. So, about 2 years earlier, I got some and threw one in my ER bag, one in my office bag, and another in my car. Then I essentially forgot about it. Until I needed it.

Now, I encourage all my friends to have some, and I suggest all medical professionals to keep some with them. Just be prepared. Put it in your backpack, your purse, keep it in the house, in the car, wherever. The nasal autoinjectors are incredibly easy. Like, stick it up the nose, push the big red button. Done.

When we train lay people to administer Narcan, we try to keep it simple. If you see someone, and they’re not responsive, not breathing, just give it. It’s not that there’s no possible harm if you’re wrong. But the benefits so vastly outweigh the risks that we are very aggressive to say, go ahead and give it.

I think we all have a responsibility to care for our communities. Obviously, that can take a lot of different forms. I had the privilege of being in the right place at the right time with the right tool to potentially save a life. That was the form it took for me that day.

Later, I followed up with a friend who took care of the man in the ER. He went through our standard procedure, being monitored to make sure the opioids didn’t outlast the naloxone. We have a lot of resources and next steps for people that have opioid use disorder. He was made aware of those. And then he walked out. I never saw him again.

It’s not the sexy part of our job in emergency medicine, not the super high–intensity adrenaline rush–type work, but a lot of what we do is talk to people like this guy. We counsel them. We think about their longer-term health and not just the overdose. This is an incredibly high-risk population in terms of their mortality risk from the opioid use disorder. It’s astronomical.

I obviously believed in this work before, but that day changed something for me. It added a layer of urgency. Now, when I have a moment in the emergency room to connect with someone, I know the reality — this person sitting in front of me could die in an alley. Maybe not today, but next week or next month.

I have the naloxone in my bag. Just in case.

Patrick Joynt, MD, is an emergency medicine physician with Denver Health in Denver.

Are you a medical professional with a dramatic story outside the clinic? Medscape Medical News would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary to access@webmd.net.

A version of this article appeared on Medscape.com .

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape Medical News series telling these stories.

I had worked a normal 7:00 a.m. to 3:00 p.m. shift in our emergency department. It was a nice day out, so I put my headphones in and started walking home through the Capitol Hill neighborhood in Denver. I passed a couple of buildings and reached an alleyway. At that moment, I glanced over.

Two guys were standing over a third person who was down on the ground. One of the people standing was on the phone. I paused for a second and thought, that doesn’t look right.

The guy on the ground was clearly out. And the other two were looking concerned like they didn’t know what to do.

I walked up the alley and asked, “What’s going on? Can I help?” One of the guys explained that they had just found this man lying here and had already called 911. They sounded a little bit out of their element. They certainly weren’t medically trained.

I leaned down next to the man on the ground. He was probably in his mid-to-late 40s. Unconscious. I always start with, “Hello? Can you hear me?” No response.

I felt for a pulse and he had one, but he didn’t appear to be breathing. I thought, I know what this is. I said, “Sir, I’m going to open your eyes.” I opened his eyes, and his pupils were tiny. It was almost certainly an opioid overdose.

And I had naloxone in my bag.

I got it out and started to assemble it. I didn’t have Narcan, which is the easy one. I had to put this kit together, draw up the medication, and put on the little nasal atomizer.

The two other guys were standing there watching. Then the one on the phone walked down to the end of the alley to where the ambulance was probably going to arrive so he could wave them down.

I gave the man the 4 mg of naloxone, two in each nostril.

He still wasn’t breathing. I did a basic maneuver where you lift his jaw a little bit to help open up the airway.

Suddenly, he started breathing again. I couldn’t do any meaningful measurements of his oxygen saturation or anything like that. I just kind of looked at him and thought, Okay, he has a pulse. He’s breathing now. That’s good.

Luckily, the cavalry arrived soon after that. Our Denver Health paramedics pulled up into the alley, and one of them recognized me from the ER. I explained that I had already given the guy naloxone. They did their assessment, and he still wasn’t breathing well, so they gave him some breaths with a mask and a bag.

We got him onto the gurney and into the back of the ambulance. They started an IV. He seemed to be breathing okay by then, and his numbers looked okay. But he wasn’t awake yet by any means.

I handed off care to them and disposed of my sharp in the ambulance. Then they took him into the ER that I had just left moments ago.

The two other guys had already disappeared. I think they saw the ambulance and thought, our job is done. So, I didn’t end up talking to them at all.

So, just like that ... I started walking home again.

I like to think of myself as a cool, calm, collected person working in the ER. But my heart was definitely going fast at that point. I called my wife to tell her about the crazy thing that just happened, and she could hear in my voice how amped up I was.

In the ER, it’s very common to see patients who need naloxone, have opioid toxicity, or have received Narcan in the community. Luckily, this man was found right away. He had likely overdosed only a few minutes earlier. Those scenarios can go bad very quickly. If there’s no one there, people often die.

That’s why I started carrying naloxone.

There are a lot of programs to get free naloxone out into the community. So, about 2 years earlier, I got some and threw one in my ER bag, one in my office bag, and another in my car. Then I essentially forgot about it. Until I needed it.

Now, I encourage all my friends to have some, and I suggest all medical professionals to keep some with them. Just be prepared. Put it in your backpack, your purse, keep it in the house, in the car, wherever. The nasal autoinjectors are incredibly easy. Like, stick it up the nose, push the big red button. Done.

When we train lay people to administer Narcan, we try to keep it simple. If you see someone, and they’re not responsive, not breathing, just give it. It’s not that there’s no possible harm if you’re wrong. But the benefits so vastly outweigh the risks that we are very aggressive to say, go ahead and give it.

I think we all have a responsibility to care for our communities. Obviously, that can take a lot of different forms. I had the privilege of being in the right place at the right time with the right tool to potentially save a life. That was the form it took for me that day.

Later, I followed up with a friend who took care of the man in the ER. He went through our standard procedure, being monitored to make sure the opioids didn’t outlast the naloxone. We have a lot of resources and next steps for people that have opioid use disorder. He was made aware of those. And then he walked out. I never saw him again.

It’s not the sexy part of our job in emergency medicine, not the super high–intensity adrenaline rush–type work, but a lot of what we do is talk to people like this guy. We counsel them. We think about their longer-term health and not just the overdose. This is an incredibly high-risk population in terms of their mortality risk from the opioid use disorder. It’s astronomical.

I obviously believed in this work before, but that day changed something for me. It added a layer of urgency. Now, when I have a moment in the emergency room to connect with someone, I know the reality — this person sitting in front of me could die in an alley. Maybe not today, but next week or next month.

I have the naloxone in my bag. Just in case.

Patrick Joynt, MD, is an emergency medicine physician with Denver Health in Denver.

Are you a medical professional with a dramatic story outside the clinic? Medscape Medical News would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary to access@webmd.net.

A version of this article appeared on Medscape.com .

When combined with clinical scores, a “game-changing” blood test can expedite the diagnosis and treatment of large vessel occlusion (LVO) stroke, potentially saving many lives, new data suggested.

Using cutoff levels of two blood biomarkers, glial fibrillary acidic protein (GFAP; 213 pg/mL) and D-dimer (600 ng/mL), and the field assessment stroke triage for emergency destination (FAST-ED) (score, > 2), investigators were able to detect LVOs with 81% sensitivity and 93% specificity less than 6 hours from the onset of symptoms.

GFAP has previously been linked to brain bleeds and traumatic brain injury.

The test also ruled out all patients with brain bleeds, and investigators noted that it could also be used to detect intracerebral hemorrhage.

“We have developed a game-changing, accessible tool that could help ensure that more people suffering from stroke are in the right place at the right time to receive critical, life-restoring care,” senior author Joshua Bernstock, MD, PhD, MPH, a clinical fellow in the department of neurosurgery at Brigham and Women’s Hospital in Boston, said in a press release.

The findings were published online on May 17 in Stroke: Vascular and Interventional Neurology.
 

Early Identification Crucial

Acute LVO stroke is one of the most treatable stroke types because of the availability of endovascular thrombectomy (EVT). However, EVT requires specialized equipment and teams that represent a small subset of accredited stroke centers and an even smaller subset of emergency medical facilities, so early identification of LVO is crucial, the investigators noted.

Dr. Bernstock and his team developed the TIME trial to assess the sensitivity and specificity of the blood biomarkers and scale cutoff values for identifying LVO vs non-LVO stroke.

As part of the observational prospective cohort trial, investigators included consecutive patients admitted to the Brandon Regional Hospital Emergency Department in Brandon, Florida, between May 2021 and August 2022 if they were referred for a suspected stroke and the time from symptom onset was under 18 hours.

Patients were excluded if they received thrombolytic therapy before blood was collected or if it was anticipated that blood collection would be difficult.

Investigators gathered information on patients’ clinical data, hematology results, time since last known well, and imaging findings to construct a clinical diagnosis (LVO, non-LVO, ischemic stroke, hemorrhagic stroke, or transient ischemic attack [TIA]).

In addition to the National Institutes of Health Stroke Scale, patients were assessed with the FAST-ED, the Rapid Arterial oCclusion Evaluation (RACE), the Cincinnati Stroke Triage Assessment Tool, and the Emergency Medical Stroke Assessment.

Of 323 patients in the final study sample, 29 (9%) had LVO ischemic stroke, and 48 (15%) had non-LVO ischemic stroke. Another 13 (4%) had hemorrhagic stroke, 12 had TIA (3.7%), and the largest proportion of patients had stroke mimic (n = 220; 68%), which included encephalopathy, hyperglycemia, hypertensive emergency, migraine, posterior reversible encephalopathy syndrome, and undetermined.
 

The Case for Biomarkers

When investigators looked at those with LVO ischemic stroke, they found the concentration of plasma D-dimer was significantly higher than that in patients with non-LVO suspected stroke (LVO suspected stroke, 1213 ng/mL; interquartile range [IQR], 733-1609 vs non-LVO suspected stroke, 617 ng/mL; IQR, 377-1345; P < .001).

In addition, GFAP was significantly increased in the plasma of patients with hemorrhagic stroke vs all other patients with suspected stroke (hemorrhagic stroke, 1464 pg/mL; IQR, 292-2580 vs nonhemorrhagic suspected stroke, 48 pg/mL; IQR, 12-98; P < .005).

Combinations of the blood biomarkers with the scales FAST-ED or RACE showed the best performance for LVO detection, with a specificity of 94% (for either scale combination) and a sensitivity of 71% for both scales.

When investigators analyzed data for just those patients identified within 6 hours of symptom onset, the combination of biomarkers plus FAST-ED resulted in a specificity of 93% and a sensitivity of 81%.

Given that clinical stroke scales in patients with hemorrhagic stroke frequently suggest LVO and that these patients are not candidates for EVT, a tool capable of ruling out hemorrhage and identifying only nonhemorrhagic ischemic LVO is essential, the investigators noted.

“In stroke care, time is brain,” Dr. Bernstock said. “The sooner a patient is put on the right care pathway, the better they are going to do. Whether that means ruling out bleeds or ruling in something that needs an intervention, being able to do this in a prehospital setting with the technology that we built is going to be truly transformative.”

The study was funded by the Innovate UK grant and private funding. Dr. Bernstock has positions and equity in Pockit Diagnostics Ltd. and Treovir Inc. and is on the boards of Centile Bio and NeuroX1. Other disclosures are noted in the original article.
 

A version of this article appeared on Medscape.com.

When combined with clinical scores, a “game-changing” blood test can expedite the diagnosis and treatment of large vessel occlusion (LVO) stroke, potentially saving many lives, new data suggested.

Using cutoff levels of two blood biomarkers, glial fibrillary acidic protein (GFAP; 213 pg/mL) and D-dimer (600 ng/mL), and the field assessment stroke triage for emergency destination (FAST-ED) (score, > 2), investigators were able to detect LVOs with 81% sensitivity and 93% specificity less than 6 hours from the onset of symptoms.

GFAP has previously been linked to brain bleeds and traumatic brain injury.

The test also ruled out all patients with brain bleeds, and investigators noted that it could also be used to detect intracerebral hemorrhage.

“We have developed a game-changing, accessible tool that could help ensure that more people suffering from stroke are in the right place at the right time to receive critical, life-restoring care,” senior author Joshua Bernstock, MD, PhD, MPH, a clinical fellow in the department of neurosurgery at Brigham and Women’s Hospital in Boston, said in a press release.

The findings were published online on May 17 in Stroke: Vascular and Interventional Neurology.
 

Early Identification Crucial

Acute LVO stroke is one of the most treatable stroke types because of the availability of endovascular thrombectomy (EVT). However, EVT requires specialized equipment and teams that represent a small subset of accredited stroke centers and an even smaller subset of emergency medical facilities, so early identification of LVO is crucial, the investigators noted.

Dr. Bernstock and his team developed the TIME trial to assess the sensitivity and specificity of the blood biomarkers and scale cutoff values for identifying LVO vs non-LVO stroke.

As part of the observational prospective cohort trial, investigators included consecutive patients admitted to the Brandon Regional Hospital Emergency Department in Brandon, Florida, between May 2021 and August 2022 if they were referred for a suspected stroke and the time from symptom onset was under 18 hours.

Patients were excluded if they received thrombolytic therapy before blood was collected or if it was anticipated that blood collection would be difficult.

Investigators gathered information on patients’ clinical data, hematology results, time since last known well, and imaging findings to construct a clinical diagnosis (LVO, non-LVO, ischemic stroke, hemorrhagic stroke, or transient ischemic attack [TIA]).

In addition to the National Institutes of Health Stroke Scale, patients were assessed with the FAST-ED, the Rapid Arterial oCclusion Evaluation (RACE), the Cincinnati Stroke Triage Assessment Tool, and the Emergency Medical Stroke Assessment.

Of 323 patients in the final study sample, 29 (9%) had LVO ischemic stroke, and 48 (15%) had non-LVO ischemic stroke. Another 13 (4%) had hemorrhagic stroke, 12 had TIA (3.7%), and the largest proportion of patients had stroke mimic (n = 220; 68%), which included encephalopathy, hyperglycemia, hypertensive emergency, migraine, posterior reversible encephalopathy syndrome, and undetermined.
 

The Case for Biomarkers

When investigators looked at those with LVO ischemic stroke, they found the concentration of plasma D-dimer was significantly higher than that in patients with non-LVO suspected stroke (LVO suspected stroke, 1213 ng/mL; interquartile range [IQR], 733-1609 vs non-LVO suspected stroke, 617 ng/mL; IQR, 377-1345; P < .001).

In addition, GFAP was significantly increased in the plasma of patients with hemorrhagic stroke vs all other patients with suspected stroke (hemorrhagic stroke, 1464 pg/mL; IQR, 292-2580 vs nonhemorrhagic suspected stroke, 48 pg/mL; IQR, 12-98; P < .005).

Combinations of the blood biomarkers with the scales FAST-ED or RACE showed the best performance for LVO detection, with a specificity of 94% (for either scale combination) and a sensitivity of 71% for both scales.

When investigators analyzed data for just those patients identified within 6 hours of symptom onset, the combination of biomarkers plus FAST-ED resulted in a specificity of 93% and a sensitivity of 81%.

Given that clinical stroke scales in patients with hemorrhagic stroke frequently suggest LVO and that these patients are not candidates for EVT, a tool capable of ruling out hemorrhage and identifying only nonhemorrhagic ischemic LVO is essential, the investigators noted.

“In stroke care, time is brain,” Dr. Bernstock said. “The sooner a patient is put on the right care pathway, the better they are going to do. Whether that means ruling out bleeds or ruling in something that needs an intervention, being able to do this in a prehospital setting with the technology that we built is going to be truly transformative.”

The study was funded by the Innovate UK grant and private funding. Dr. Bernstock has positions and equity in Pockit Diagnostics Ltd. and Treovir Inc. and is on the boards of Centile Bio and NeuroX1. Other disclosures are noted in the original article.
 

A version of this article appeared on Medscape.com.

When combined with clinical scores, a “game-changing” blood test can expedite the diagnosis and treatment of large vessel occlusion (LVO) stroke, potentially saving many lives, new data suggested.

Using cutoff levels of two blood biomarkers, glial fibrillary acidic protein (GFAP; 213 pg/mL) and D-dimer (600 ng/mL), and the field assessment stroke triage for emergency destination (FAST-ED) (score, > 2), investigators were able to detect LVOs with 81% sensitivity and 93% specificity less than 6 hours from the onset of symptoms.

GFAP has previously been linked to brain bleeds and traumatic brain injury.

The test also ruled out all patients with brain bleeds, and investigators noted that it could also be used to detect intracerebral hemorrhage.

“We have developed a game-changing, accessible tool that could help ensure that more people suffering from stroke are in the right place at the right time to receive critical, life-restoring care,” senior author Joshua Bernstock, MD, PhD, MPH, a clinical fellow in the department of neurosurgery at Brigham and Women’s Hospital in Boston, said in a press release.

The findings were published online on May 17 in Stroke: Vascular and Interventional Neurology.
 

Early Identification Crucial

Acute LVO stroke is one of the most treatable stroke types because of the availability of endovascular thrombectomy (EVT). However, EVT requires specialized equipment and teams that represent a small subset of accredited stroke centers and an even smaller subset of emergency medical facilities, so early identification of LVO is crucial, the investigators noted.

Dr. Bernstock and his team developed the TIME trial to assess the sensitivity and specificity of the blood biomarkers and scale cutoff values for identifying LVO vs non-LVO stroke.

As part of the observational prospective cohort trial, investigators included consecutive patients admitted to the Brandon Regional Hospital Emergency Department in Brandon, Florida, between May 2021 and August 2022 if they were referred for a suspected stroke and the time from symptom onset was under 18 hours.

Patients were excluded if they received thrombolytic therapy before blood was collected or if it was anticipated that blood collection would be difficult.

Investigators gathered information on patients’ clinical data, hematology results, time since last known well, and imaging findings to construct a clinical diagnosis (LVO, non-LVO, ischemic stroke, hemorrhagic stroke, or transient ischemic attack [TIA]).

In addition to the National Institutes of Health Stroke Scale, patients were assessed with the FAST-ED, the Rapid Arterial oCclusion Evaluation (RACE), the Cincinnati Stroke Triage Assessment Tool, and the Emergency Medical Stroke Assessment.

Of 323 patients in the final study sample, 29 (9%) had LVO ischemic stroke, and 48 (15%) had non-LVO ischemic stroke. Another 13 (4%) had hemorrhagic stroke, 12 had TIA (3.7%), and the largest proportion of patients had stroke mimic (n = 220; 68%), which included encephalopathy, hyperglycemia, hypertensive emergency, migraine, posterior reversible encephalopathy syndrome, and undetermined.
 

The Case for Biomarkers

When investigators looked at those with LVO ischemic stroke, they found the concentration of plasma D-dimer was significantly higher than that in patients with non-LVO suspected stroke (LVO suspected stroke, 1213 ng/mL; interquartile range [IQR], 733-1609 vs non-LVO suspected stroke, 617 ng/mL; IQR, 377-1345; P < .001).

In addition, GFAP was significantly increased in the plasma of patients with hemorrhagic stroke vs all other patients with suspected stroke (hemorrhagic stroke, 1464 pg/mL; IQR, 292-2580 vs nonhemorrhagic suspected stroke, 48 pg/mL; IQR, 12-98; P < .005).

Combinations of the blood biomarkers with the scales FAST-ED or RACE showed the best performance for LVO detection, with a specificity of 94% (for either scale combination) and a sensitivity of 71% for both scales.

When investigators analyzed data for just those patients identified within 6 hours of symptom onset, the combination of biomarkers plus FAST-ED resulted in a specificity of 93% and a sensitivity of 81%.

Given that clinical stroke scales in patients with hemorrhagic stroke frequently suggest LVO and that these patients are not candidates for EVT, a tool capable of ruling out hemorrhage and identifying only nonhemorrhagic ischemic LVO is essential, the investigators noted.

“In stroke care, time is brain,” Dr. Bernstock said. “The sooner a patient is put on the right care pathway, the better they are going to do. Whether that means ruling out bleeds or ruling in something that needs an intervention, being able to do this in a prehospital setting with the technology that we built is going to be truly transformative.”

The study was funded by the Innovate UK grant and private funding. Dr. Bernstock has positions and equity in Pockit Diagnostics Ltd. and Treovir Inc. and is on the boards of Centile Bio and NeuroX1. Other disclosures are noted in the original article.
 

A version of this article appeared on Medscape.com.

This transcript has been edited for clarity. 

They call it the “golden hour”: 60 minutes, give or take, when the chance to save the life of a trauma victim is at its greatest. If the patient can be resuscitated and stabilized in that time window, they stand a good chance of surviving. If not, well, they don’t.

But resuscitation is complicated. It requires blood products, fluids, vasopressors — all given in precise doses in response to rapidly changing hemodynamics. To do it right takes specialized training, advanced life support (ALS). If the patient is in a remote area or an area without ALS-certified emergency medical services, or is far from the nearest trauma center, that golden hour is lost. And the patient may be as well.

But we live in the future. We have robots in factories, self-driving cars, autonomous drones. Why not an autonomous trauma doctor? If you are in a life-threatening accident, would you want to be treated ... by a robot?

Enter “resuscitation based on functional hemodynamic monitoring,” or “ReFit,” introduced in this article appearing in the journal Intensive Care Medicine Experimental.

The idea behind ReFit is straightforward. Resuscitation after trauma should be based on hitting key hemodynamic targets using the tools we have available in the field: blood, fluids, pressors. The researchers wanted to develop a closed-loop system, something that could be used by minimally trained personnel. The input to the system? Hemodynamic data, provided through a single measurement device, an arterial catheter. The output: blood, fluids, and pressors, delivered intravenously.

The body (a prototype) of the system looks like this. You can see various pumps labeled with various fluids, electronic controllers, and so forth.

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switapaphilophelasloslephefrupikaswawroludalostebrishichephoprojeclikiveslemefrupistinuwidoch

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Dr. Wilson is associate professor of medicine and public health and director of the Clinical and Translational Research Accelerator at Yale University, New Haven, Connecticut. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

This transcript has been edited for clarity. 

They call it the “golden hour”: 60 minutes, give or take, when the chance to save the life of a trauma victim is at its greatest. If the patient can be resuscitated and stabilized in that time window, they stand a good chance of surviving. If not, well, they don’t.

But resuscitation is complicated. It requires blood products, fluids, vasopressors — all given in precise doses in response to rapidly changing hemodynamics. To do it right takes specialized training, advanced life support (ALS). If the patient is in a remote area or an area without ALS-certified emergency medical services, or is far from the nearest trauma center, that golden hour is lost. And the patient may be as well.

But we live in the future. We have robots in factories, self-driving cars, autonomous drones. Why not an autonomous trauma doctor? If you are in a life-threatening accident, would you want to be treated ... by a robot?

Enter “resuscitation based on functional hemodynamic monitoring,” or “ReFit,” introduced in this article appearing in the journal Intensive Care Medicine Experimental.

The idea behind ReFit is straightforward. Resuscitation after trauma should be based on hitting key hemodynamic targets using the tools we have available in the field: blood, fluids, pressors. The researchers wanted to develop a closed-loop system, something that could be used by minimally trained personnel. The input to the system? Hemodynamic data, provided through a single measurement device, an arterial catheter. The output: blood, fluids, and pressors, delivered intravenously.

The body (a prototype) of the system looks like this. You can see various pumps labeled with various fluids, electronic controllers, and so forth.

jopochajadrubrothochoc

swislipuruwochibroshirujamidususpacravep

wrisladoclocrashowrathusajuthajabajithireswudecluslivobrislidipukesosohuclishestucliswowiprishugoswovacuvateshucoslislutrolecropheseclethouefrishospakokouuuidrimaphukunonagokopabranosturecocrovakib

switapaphilophelasloslephefrupikaswawroludalostebrishichephoprojeclikiveslemefrupistinuwidoch

caswitromuducokotreswitrasuteprovadiguna

Dr. Wilson is associate professor of medicine and public health and director of the Clinical and Translational Research Accelerator at Yale University, New Haven, Connecticut. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

This transcript has been edited for clarity. 

They call it the “golden hour”: 60 minutes, give or take, when the chance to save the life of a trauma victim is at its greatest. If the patient can be resuscitated and stabilized in that time window, they stand a good chance of surviving. If not, well, they don’t.

But resuscitation is complicated. It requires blood products, fluids, vasopressors — all given in precise doses in response to rapidly changing hemodynamics. To do it right takes specialized training, advanced life support (ALS). If the patient is in a remote area or an area without ALS-certified emergency medical services, or is far from the nearest trauma center, that golden hour is lost. And the patient may be as well.

But we live in the future. We have robots in factories, self-driving cars, autonomous drones. Why not an autonomous trauma doctor? If you are in a life-threatening accident, would you want to be treated ... by a robot?

Enter “resuscitation based on functional hemodynamic monitoring,” or “ReFit,” introduced in this article appearing in the journal Intensive Care Medicine Experimental.

The idea behind ReFit is straightforward. Resuscitation after trauma should be based on hitting key hemodynamic targets using the tools we have available in the field: blood, fluids, pressors. The researchers wanted to develop a closed-loop system, something that could be used by minimally trained personnel. The input to the system? Hemodynamic data, provided through a single measurement device, an arterial catheter. The output: blood, fluids, and pressors, delivered intravenously.

The body (a prototype) of the system looks like this. You can see various pumps labeled with various fluids, electronic controllers, and so forth.

jopochajadrubrothochoc

swislipuruwochibroshirujamidususpacravep

wrisladoclocrashowrathusajuthajabajithireswudecluslivobrislidipukesosohuclishestucliswowiprishugoswovacuvateshucoslislutrolecropheseclethouefrishospakokouuuidrimaphukunonagokopabranosturecocrovakib

switapaphilophelasloslephefrupikaswawroludalostebrishichephoprojeclikiveslemefrupistinuwidoch

caswitromuducokotreswitrasuteprovadiguna

Dr. Wilson is associate professor of medicine and public health and director of the Clinical and Translational Research Accelerator at Yale University, New Haven, Connecticut. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a series by this news organization that tells these stories.

It was my first night off after 12 days. It was a Friday night, and I went to a bar in Naples to get a beer with some friends. As it turned out, it wasn’t a night off after all.

As soon as we got inside, we heard over the speaker that they needed medical personnel and to please go to the left side of the bar. I thought it would be syncope or something like that.

I went over there and saw a woman holding up a man. He was basically leaning all over her. The light was low, and the music was pounding. I started to assess him and tried to get him to answer me. No response. I checked for pulses — nothing.

Now, I’m in a bar, right? It’s a cardiac arrest. The first thing you think is overdose or alcohol. I asked the woman if the man was doing any drugs. She said she didn’t know. Turns out they were both employees. He was a bouncer and a DJ.

The woman helped me lower him to the floor. I checked again for a pulse. Still nothing. I said, “Call 911,” and started compressions.

The difficult part was the place was completely dark. I knew where his body was on the floor. I could see his chest. But I couldn’t see his face at all.

It was also extremely loud with the music thumping. After a while, they finally shut it off.

Pretty soon, the security personnel from the bar brought me an automated external defibrillator, and it showed the man was having V-fib arrest. I shocked him. Still no pulse. I continued with cardiopulmonary resuscitation (CPR).

I hadn’t noticed, but lots of people were crowding around us. Somebody came up and said, “He’s my friend. He has a 9-year-old daughter. He can’t die. Let me help with the compressions.” I was like, “Go for it.”

The guy started kind of pushing on the man’s abdomen. He had no idea how to do compressions. I said, “Okay, let me take over again.”

Out of the crowd, nobody else volunteered to help. No one asked me, “Hey, what can I do?” Meanwhile, I found out later that someone was filming the whole thing on their phone.

But what the guy said about the man’s young daughter stayed in my brain. I thought, we need to keep going.

I did more compressions and shocked him again. Still no pulse. At that point, the police and emergency medical services showed up. They checked, nothing had changed, so they got him into the ambulance.

I asked one of the paramedics, “Where are you taking him? I can call ahead.”

But he said, “That’s HIPAA. We can’t tell you.” They also wouldn’t let me go with him in the ambulance.

“I have an active Florida license, and I work in the ICU [intensive care unit],” I said.

“No, we need to follow our protocol,” he replied.

I understood that, but I just wanted to help.

It was around 10:30 PM by then, and I was drenched in sweat. I had to go home. The first thing I did after taking a shower was open the computer and check my system. I needed to find out what happened to the guy.

I was looking for admissions, and I didn’t see him. I called the main hospital downtown and the one in North Naples. I couldn’t find him anywhere. I stayed up until almost 1:00 AM checking for his name. At that point I thought, okay, maybe he died.

The next night, Saturday, I was home and got a call from one of my colleagues. “Hey, were you in a bar yesterday? Did you do CPR on somebody?”

“How did you know?” I said.

He said the paramedics had described me — “a tall doctor with glasses who was a nice guy.” It was funny that he knew that was me.

He told me, “The guy’s alive. He’s sick and needs to be put on dialysis, but he’s alive.”

Apparently, the guy had gone to the emergency department at North Naples, and the doctors in the emergency room (ER) worked on him for over an hour. They did continuous CPR and shocked him for close to 40 minutes. They finally got his pulse back, and after that, he was transferred to the main hospital ICU. They didn’t admit him at the ER, which was why I couldn’t find his name.

On Sunday, I was checking my patients’ charts for the ICU that coming week. And there he was. I saw his name and the documentation by the ED that CPR was provided by a critical care doctor in the field. He was still alive. That gave me so much joy.

So, the man I had helped became my patient. When I saw him on Monday, he was intubated and needed dialysis. I finally saw his face and thought, Oh, so that’s what you look like. I hadn’t realized he was only 39 years old.

When he was awake, I explained to him I was the doctor that provided CPR at the bar. He was very grateful, but of course, he didn’t remember anything.

Eventually, I met his daughter, and she just said, “Thank you for allowing me to have my dad.”

The funny part is that he broke his leg. Well, that’s not funny, but no one had any idea how it happened. That was his only complaint. He was asking me, “Doctor, how did you break my leg?”

“Hey, I have no idea how you broke your leg,” I replied. “I was trying to save your life.”

He was in the hospital for almost a month but made a full recovery. The amazing part: After all the evaluations, he has no neurological deficits. He’s back to a normal life now.

They never found a cause for the cardiac arrest. I mean, he had an ejection fraction of 10%. All my money was on something drug related, but that wasn’t the case. They’d done a cardiac cut, and there was no obstruction. They couldn’t find a reason.

We’ve become friends. He still works as a DJ at the bar. He changed his name to “DJ the Survivor” or something like that.

Sometimes, he’ll text me: “Doctor, what are you doing? You want to come down to the bar?”

I’m like, “No. I don’t.”

It’s been more than a year, but I remember every detail. When you go into medicine, you dream that one day you’ll be able to say, “I saved somebody.”

He texted me a year later and told me he’s celebrating two birthdays now. He said, “I’m turning 1 year old today!”

I think about the value of life. How we can take it for granted. We think, I’m young, nothing is going to happen to me. But this guy was 39. He went to work and died that night.

I was able to help bring him back. That makes me thankful for every day.

Jose Valle Giler, MD, is a pulmonary, critical care, and sleep medicine physician at NCH Healthcare System in Naples, Florida.

A version of this article appeared on Medscape.com .

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a series by this news organization that tells these stories.

It was my first night off after 12 days. It was a Friday night, and I went to a bar in Naples to get a beer with some friends. As it turned out, it wasn’t a night off after all.

As soon as we got inside, we heard over the speaker that they needed medical personnel and to please go to the left side of the bar. I thought it would be syncope or something like that.

I went over there and saw a woman holding up a man. He was basically leaning all over her. The light was low, and the music was pounding. I started to assess him and tried to get him to answer me. No response. I checked for pulses — nothing.

Now, I’m in a bar, right? It’s a cardiac arrest. The first thing you think is overdose or alcohol. I asked the woman if the man was doing any drugs. She said she didn’t know. Turns out they were both employees. He was a bouncer and a DJ.

The woman helped me lower him to the floor. I checked again for a pulse. Still nothing. I said, “Call 911,” and started compressions.

The difficult part was the place was completely dark. I knew where his body was on the floor. I could see his chest. But I couldn’t see his face at all.

It was also extremely loud with the music thumping. After a while, they finally shut it off.

Pretty soon, the security personnel from the bar brought me an automated external defibrillator, and it showed the man was having V-fib arrest. I shocked him. Still no pulse. I continued with cardiopulmonary resuscitation (CPR).

I hadn’t noticed, but lots of people were crowding around us. Somebody came up and said, “He’s my friend. He has a 9-year-old daughter. He can’t die. Let me help with the compressions.” I was like, “Go for it.”

The guy started kind of pushing on the man’s abdomen. He had no idea how to do compressions. I said, “Okay, let me take over again.”

Out of the crowd, nobody else volunteered to help. No one asked me, “Hey, what can I do?” Meanwhile, I found out later that someone was filming the whole thing on their phone.

But what the guy said about the man’s young daughter stayed in my brain. I thought, we need to keep going.

I did more compressions and shocked him again. Still no pulse. At that point, the police and emergency medical services showed up. They checked, nothing had changed, so they got him into the ambulance.

I asked one of the paramedics, “Where are you taking him? I can call ahead.”

But he said, “That’s HIPAA. We can’t tell you.” They also wouldn’t let me go with him in the ambulance.

“I have an active Florida license, and I work in the ICU [intensive care unit],” I said.

“No, we need to follow our protocol,” he replied.

I understood that, but I just wanted to help.

It was around 10:30 PM by then, and I was drenched in sweat. I had to go home. The first thing I did after taking a shower was open the computer and check my system. I needed to find out what happened to the guy.

I was looking for admissions, and I didn’t see him. I called the main hospital downtown and the one in North Naples. I couldn’t find him anywhere. I stayed up until almost 1:00 AM checking for his name. At that point I thought, okay, maybe he died.

The next night, Saturday, I was home and got a call from one of my colleagues. “Hey, were you in a bar yesterday? Did you do CPR on somebody?”

“How did you know?” I said.

He said the paramedics had described me — “a tall doctor with glasses who was a nice guy.” It was funny that he knew that was me.

He told me, “The guy’s alive. He’s sick and needs to be put on dialysis, but he’s alive.”

Apparently, the guy had gone to the emergency department at North Naples, and the doctors in the emergency room (ER) worked on him for over an hour. They did continuous CPR and shocked him for close to 40 minutes. They finally got his pulse back, and after that, he was transferred to the main hospital ICU. They didn’t admit him at the ER, which was why I couldn’t find his name.

On Sunday, I was checking my patients’ charts for the ICU that coming week. And there he was. I saw his name and the documentation by the ED that CPR was provided by a critical care doctor in the field. He was still alive. That gave me so much joy.

So, the man I had helped became my patient. When I saw him on Monday, he was intubated and needed dialysis. I finally saw his face and thought, Oh, so that’s what you look like. I hadn’t realized he was only 39 years old.

When he was awake, I explained to him I was the doctor that provided CPR at the bar. He was very grateful, but of course, he didn’t remember anything.

Eventually, I met his daughter, and she just said, “Thank you for allowing me to have my dad.”

The funny part is that he broke his leg. Well, that’s not funny, but no one had any idea how it happened. That was his only complaint. He was asking me, “Doctor, how did you break my leg?”

“Hey, I have no idea how you broke your leg,” I replied. “I was trying to save your life.”

He was in the hospital for almost a month but made a full recovery. The amazing part: After all the evaluations, he has no neurological deficits. He’s back to a normal life now.

They never found a cause for the cardiac arrest. I mean, he had an ejection fraction of 10%. All my money was on something drug related, but that wasn’t the case. They’d done a cardiac cut, and there was no obstruction. They couldn’t find a reason.

We’ve become friends. He still works as a DJ at the bar. He changed his name to “DJ the Survivor” or something like that.

Sometimes, he’ll text me: “Doctor, what are you doing? You want to come down to the bar?”

I’m like, “No. I don’t.”

It’s been more than a year, but I remember every detail. When you go into medicine, you dream that one day you’ll be able to say, “I saved somebody.”

He texted me a year later and told me he’s celebrating two birthdays now. He said, “I’m turning 1 year old today!”

I think about the value of life. How we can take it for granted. We think, I’m young, nothing is going to happen to me. But this guy was 39. He went to work and died that night.

I was able to help bring him back. That makes me thankful for every day.

Jose Valle Giler, MD, is a pulmonary, critical care, and sleep medicine physician at NCH Healthcare System in Naples, Florida.

A version of this article appeared on Medscape.com .

Emergencies happen anywhere, anytime, and sometimes, medical professionals find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a series by this news organization that tells these stories.

It was my first night off after 12 days. It was a Friday night, and I went to a bar in Naples to get a beer with some friends. As it turned out, it wasn’t a night off after all.

As soon as we got inside, we heard over the speaker that they needed medical personnel and to please go to the left side of the bar. I thought it would be syncope or something like that.

I went over there and saw a woman holding up a man. He was basically leaning all over her. The light was low, and the music was pounding. I started to assess him and tried to get him to answer me. No response. I checked for pulses — nothing.

Now, I’m in a bar, right? It’s a cardiac arrest. The first thing you think is overdose or alcohol. I asked the woman if the man was doing any drugs. She said she didn’t know. Turns out they were both employees. He was a bouncer and a DJ.

The woman helped me lower him to the floor. I checked again for a pulse. Still nothing. I said, “Call 911,” and started compressions.

The difficult part was the place was completely dark. I knew where his body was on the floor. I could see his chest. But I couldn’t see his face at all.

It was also extremely loud with the music thumping. After a while, they finally shut it off.

Pretty soon, the security personnel from the bar brought me an automated external defibrillator, and it showed the man was having V-fib arrest. I shocked him. Still no pulse. I continued with cardiopulmonary resuscitation (CPR).

I hadn’t noticed, but lots of people were crowding around us. Somebody came up and said, “He’s my friend. He has a 9-year-old daughter. He can’t die. Let me help with the compressions.” I was like, “Go for it.”

The guy started kind of pushing on the man’s abdomen. He had no idea how to do compressions. I said, “Okay, let me take over again.”

Out of the crowd, nobody else volunteered to help. No one asked me, “Hey, what can I do?” Meanwhile, I found out later that someone was filming the whole thing on their phone.

But what the guy said about the man’s young daughter stayed in my brain. I thought, we need to keep going.

I did more compressions and shocked him again. Still no pulse. At that point, the police and emergency medical services showed up. They checked, nothing had changed, so they got him into the ambulance.

I asked one of the paramedics, “Where are you taking him? I can call ahead.”

But he said, “That’s HIPAA. We can’t tell you.” They also wouldn’t let me go with him in the ambulance.

“I have an active Florida license, and I work in the ICU [intensive care unit],” I said.

“No, we need to follow our protocol,” he replied.

I understood that, but I just wanted to help.

It was around 10:30 PM by then, and I was drenched in sweat. I had to go home. The first thing I did after taking a shower was open the computer and check my system. I needed to find out what happened to the guy.

I was looking for admissions, and I didn’t see him. I called the main hospital downtown and the one in North Naples. I couldn’t find him anywhere. I stayed up until almost 1:00 AM checking for his name. At that point I thought, okay, maybe he died.

The next night, Saturday, I was home and got a call from one of my colleagues. “Hey, were you in a bar yesterday? Did you do CPR on somebody?”

“How did you know?” I said.

He said the paramedics had described me — “a tall doctor with glasses who was a nice guy.” It was funny that he knew that was me.

He told me, “The guy’s alive. He’s sick and needs to be put on dialysis, but he’s alive.”

Apparently, the guy had gone to the emergency department at North Naples, and the doctors in the emergency room (ER) worked on him for over an hour. They did continuous CPR and shocked him for close to 40 minutes. They finally got his pulse back, and after that, he was transferred to the main hospital ICU. They didn’t admit him at the ER, which was why I couldn’t find his name.

On Sunday, I was checking my patients’ charts for the ICU that coming week. And there he was. I saw his name and the documentation by the ED that CPR was provided by a critical care doctor in the field. He was still alive. That gave me so much joy.

So, the man I had helped became my patient. When I saw him on Monday, he was intubated and needed dialysis. I finally saw his face and thought, Oh, so that’s what you look like. I hadn’t realized he was only 39 years old.

When he was awake, I explained to him I was the doctor that provided CPR at the bar. He was very grateful, but of course, he didn’t remember anything.

Eventually, I met his daughter, and she just said, “Thank you for allowing me to have my dad.”

The funny part is that he broke his leg. Well, that’s not funny, but no one had any idea how it happened. That was his only complaint. He was asking me, “Doctor, how did you break my leg?”

“Hey, I have no idea how you broke your leg,” I replied. “I was trying to save your life.”

He was in the hospital for almost a month but made a full recovery. The amazing part: After all the evaluations, he has no neurological deficits. He’s back to a normal life now.

They never found a cause for the cardiac arrest. I mean, he had an ejection fraction of 10%. All my money was on something drug related, but that wasn’t the case. They’d done a cardiac cut, and there was no obstruction. They couldn’t find a reason.

We’ve become friends. He still works as a DJ at the bar. He changed his name to “DJ the Survivor” or something like that.

Sometimes, he’ll text me: “Doctor, what are you doing? You want to come down to the bar?”

I’m like, “No. I don’t.”

It’s been more than a year, but I remember every detail. When you go into medicine, you dream that one day you’ll be able to say, “I saved somebody.”

He texted me a year later and told me he’s celebrating two birthdays now. He said, “I’m turning 1 year old today!”

I think about the value of life. How we can take it for granted. We think, I’m young, nothing is going to happen to me. But this guy was 39. He went to work and died that night.

I was able to help bring him back. That makes me thankful for every day.

Jose Valle Giler, MD, is a pulmonary, critical care, and sleep medicine physician at NCH Healthcare System in Naples, Florida.

A version of this article appeared on Medscape.com .

As emergency medicine doctors, we regularly give medical advice to family and close friends when they get sick or are injured and don’t know what to do. In a matter of moments, we triage, diagnose, and assemble a logical plan, whatever the issue may be. This skill comes from our training and years of experience in treating emergencies and also routine medical matters. The value proposition is clear.

Frankly, it’s a service everyone should have. Think about the potential time and money saved if this option for medical care and triage was broadly available. Overtriage would plummet. That’s when people run to the emergency department (ED) and wait endless hours, only to be reassured or receive limited treatment. Undertriage would also decline. That’s when people should go to the ED but, unwisely, wait. For example, this may occur when symptoms of dizziness end up being a stroke.

Why doesn’t everyone have an ED doctor they can call? The primary reason is that the current system mostly doesn’t support it. The most common scenario is that insurance companies pay us to see patients in an expensive box called the ED. Most EDs are situated within an even more expensive box, called a hospital.

Here’s the good news: Better access to emergency care and people who are formally trained in emergency medicine and routine matters of urgent care is increasing.

One example is telemedicine, where a remote doctor — either your own or a doctor through an app — conducts a visit. Telemedicine is more common since the pandemic, now that insurance pays for it. In emergency situations, it’s rare that your own doctor can see you immediately by telemedicine. By contrast, direct-to-consumer telemedicine (eg, Teladoc, Doctor On Demand, and others) connects you with a random doctor.

In many apps, it’s unclear not only who the doctor is, but more importantly, what their specific medical specialty or training is. It may be an ED doctor evaluating your child’s fever, or it may be a retired general surgeon or an adult rheumatology specialist in the midst of their fellowship, making an extra buck, who may have no pediatric training.
 

Training Matters

Clinical training and whether the doctor knows you matters. A recent JAMA study from Ontario, Canada, found that patients with virtual visits who saw outside family physicians (whom they had never met) compared with their own family physicians were 66% more likely to visit an ED within 7 days after the visit. This illustrates the importance of understanding your personal history in assessing acute symptoms.

Some healthcare systems do use ED physicians for on-demand telehealth services, such as Thomas Jefferson’s JeffConnect. Amazon Clinic recently entered this space, providing condition-specific acute or chronic care to adults aged 18-64 years for a fee that is, notably, not covered by insurance.

A second innovative approach, albeit not specifically in the realm of a personal emergency medicine doctor, is artificial intelligence (AI)–powered kiosks. A concierge medicine company known as Forward recently unveiled an innovative concept known as CarePods that are now available in Sacramento, California; Chandler, Arizona; and Chicago. For a membership fee, you swipe into what looks like an oversize, space-age porta-potty. You sit in a chair and run through a series of health apps, which includes a biometric body scan along with mental health screenings. It even takes your blood (without a needle) and sequences your DNA. Results are reviewed by a doctor (not yours) who talks to you by video. They advertise that AI helps make the diagnosis. Although diagnostic AI is emerging and exciting, its benefit is not clear in emergency conditions. Yet, one clear value in a kiosk over telemedicine is the ability to obtain vital signs and lab results, which are useful for diagnosis.

Another approach is the telehealth offerings used in integrated systems of care, such as Kaiser Permanente. Kaiser is both an insurance company and a deliverer of healthcare services. Kaiser maintains a nurse call center and can handle urgent e-visits. Integrated systems not only help triage patients’ acute issues but also have access to their personal health histories. They can also provide a definitive plan for in-person treatment or a specific referral. A downside of integrated care is that it often limits your choice of provider.

Insurance companies also maintain call-in lines such as HumanaFirst, which is also staffed by nurses. We have not seen data on the calls such services receive, but we doubt people that want to call their insurance company when sick or injured, knowing that the insurer benefits when you receive less care. Additionally, studies have found that nurse-only triage is not as effective as physician triage and results in higher ED referral rates.
 

The Concierge Option

Probably the closest thing to having your own personal emergency medicine doctor is concierge medicine, which combines personalized care and accessibility. Concierge doctors come in many forms, but they usually charge a fixed fee for 24/7 availability and same-day appointments. A downside of concierge medicine is its expense ($2000–$3500 per year), and that many don’t take insurance. Concierge medicine is also criticized because, as doctors gravitate toward it, people in the community often lose their physician if they can’t afford the fees.

Ultimately, remote medical advice for emergency care is clearly evolving in new ways. The inability of traditional care models to achieve this goal will lead to innovation to improve the available options that have led us to think outside of the proverbial “box” we refer to as the ED-in-the-case.

At this time, will any option come close to having a personal emergency medicine physician willing to answer your questions, real-time, as with family and close friends? We think not.

But the future certainly holds promise for alternatives that will hopefully make payers and the Centers for Medicare & Medicaid Services take notice. Innovations in personalized care that reduce costs will be critical in our current healthcare landscape.
 

Dr. Pines is clinical professor of emergency medicine at George Washington University in Washington, DC, and chief of clinical innovation at US Acute Care Solutions in Canton, Ohio. He disclosed ties with CSL Behring and Abbott Point-of-Care. Dr. Glatter is assistant professor of emergency medicine at Zucker School of Medicine at Hofstra/Northwell in Hempstead, New York. He is a medical advisor for Medscape and hosts the Hot Topics in EM series. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

As emergency medicine doctors, we regularly give medical advice to family and close friends when they get sick or are injured and don’t know what to do. In a matter of moments, we triage, diagnose, and assemble a logical plan, whatever the issue may be. This skill comes from our training and years of experience in treating emergencies and also routine medical matters. The value proposition is clear.

Frankly, it’s a service everyone should have. Think about the potential time and money saved if this option for medical care and triage was broadly available. Overtriage would plummet. That’s when people run to the emergency department (ED) and wait endless hours, only to be reassured or receive limited treatment. Undertriage would also decline. That’s when people should go to the ED but, unwisely, wait. For example, this may occur when symptoms of dizziness end up being a stroke.

Why doesn’t everyone have an ED doctor they can call? The primary reason is that the current system mostly doesn’t support it. The most common scenario is that insurance companies pay us to see patients in an expensive box called the ED. Most EDs are situated within an even more expensive box, called a hospital.

Here’s the good news: Better access to emergency care and people who are formally trained in emergency medicine and routine matters of urgent care is increasing.

One example is telemedicine, where a remote doctor — either your own or a doctor through an app — conducts a visit. Telemedicine is more common since the pandemic, now that insurance pays for it. In emergency situations, it’s rare that your own doctor can see you immediately by telemedicine. By contrast, direct-to-consumer telemedicine (eg, Teladoc, Doctor On Demand, and others) connects you with a random doctor.

In many apps, it’s unclear not only who the doctor is, but more importantly, what their specific medical specialty or training is. It may be an ED doctor evaluating your child’s fever, or it may be a retired general surgeon or an adult rheumatology specialist in the midst of their fellowship, making an extra buck, who may have no pediatric training.
 

Training Matters

Clinical training and whether the doctor knows you matters. A recent JAMA study from Ontario, Canada, found that patients with virtual visits who saw outside family physicians (whom they had never met) compared with their own family physicians were 66% more likely to visit an ED within 7 days after the visit. This illustrates the importance of understanding your personal history in assessing acute symptoms.

Some healthcare systems do use ED physicians for on-demand telehealth services, such as Thomas Jefferson’s JeffConnect. Amazon Clinic recently entered this space, providing condition-specific acute or chronic care to adults aged 18-64 years for a fee that is, notably, not covered by insurance.

A second innovative approach, albeit not specifically in the realm of a personal emergency medicine doctor, is artificial intelligence (AI)–powered kiosks. A concierge medicine company known as Forward recently unveiled an innovative concept known as CarePods that are now available in Sacramento, California; Chandler, Arizona; and Chicago. For a membership fee, you swipe into what looks like an oversize, space-age porta-potty. You sit in a chair and run through a series of health apps, which includes a biometric body scan along with mental health screenings. It even takes your blood (without a needle) and sequences your DNA. Results are reviewed by a doctor (not yours) who talks to you by video. They advertise that AI helps make the diagnosis. Although diagnostic AI is emerging and exciting, its benefit is not clear in emergency conditions. Yet, one clear value in a kiosk over telemedicine is the ability to obtain vital signs and lab results, which are useful for diagnosis.

Another approach is the telehealth offerings used in integrated systems of care, such as Kaiser Permanente. Kaiser is both an insurance company and a deliverer of healthcare services. Kaiser maintains a nurse call center and can handle urgent e-visits. Integrated systems not only help triage patients’ acute issues but also have access to their personal health histories. They can also provide a definitive plan for in-person treatment or a specific referral. A downside of integrated care is that it often limits your choice of provider.

Insurance companies also maintain call-in lines such as HumanaFirst, which is also staffed by nurses. We have not seen data on the calls such services receive, but we doubt people that want to call their insurance company when sick or injured, knowing that the insurer benefits when you receive less care. Additionally, studies have found that nurse-only triage is not as effective as physician triage and results in higher ED referral rates.
 

The Concierge Option

Probably the closest thing to having your own personal emergency medicine doctor is concierge medicine, which combines personalized care and accessibility. Concierge doctors come in many forms, but they usually charge a fixed fee for 24/7 availability and same-day appointments. A downside of concierge medicine is its expense ($2000–$3500 per year), and that many don’t take insurance. Concierge medicine is also criticized because, as doctors gravitate toward it, people in the community often lose their physician if they can’t afford the fees.

Ultimately, remote medical advice for emergency care is clearly evolving in new ways. The inability of traditional care models to achieve this goal will lead to innovation to improve the available options that have led us to think outside of the proverbial “box” we refer to as the ED-in-the-case.

At this time, will any option come close to having a personal emergency medicine physician willing to answer your questions, real-time, as with family and close friends? We think not.

But the future certainly holds promise for alternatives that will hopefully make payers and the Centers for Medicare & Medicaid Services take notice. Innovations in personalized care that reduce costs will be critical in our current healthcare landscape.
 

Dr. Pines is clinical professor of emergency medicine at George Washington University in Washington, DC, and chief of clinical innovation at US Acute Care Solutions in Canton, Ohio. He disclosed ties with CSL Behring and Abbott Point-of-Care. Dr. Glatter is assistant professor of emergency medicine at Zucker School of Medicine at Hofstra/Northwell in Hempstead, New York. He is a medical advisor for Medscape and hosts the Hot Topics in EM series. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

As emergency medicine doctors, we regularly give medical advice to family and close friends when they get sick or are injured and don’t know what to do. In a matter of moments, we triage, diagnose, and assemble a logical plan, whatever the issue may be. This skill comes from our training and years of experience in treating emergencies and also routine medical matters. The value proposition is clear.

Frankly, it’s a service everyone should have. Think about the potential time and money saved if this option for medical care and triage was broadly available. Overtriage would plummet. That’s when people run to the emergency department (ED) and wait endless hours, only to be reassured or receive limited treatment. Undertriage would also decline. That’s when people should go to the ED but, unwisely, wait. For example, this may occur when symptoms of dizziness end up being a stroke.

Why doesn’t everyone have an ED doctor they can call? The primary reason is that the current system mostly doesn’t support it. The most common scenario is that insurance companies pay us to see patients in an expensive box called the ED. Most EDs are situated within an even more expensive box, called a hospital.

Here’s the good news: Better access to emergency care and people who are formally trained in emergency medicine and routine matters of urgent care is increasing.

One example is telemedicine, where a remote doctor — either your own or a doctor through an app — conducts a visit. Telemedicine is more common since the pandemic, now that insurance pays for it. In emergency situations, it’s rare that your own doctor can see you immediately by telemedicine. By contrast, direct-to-consumer telemedicine (eg, Teladoc, Doctor On Demand, and others) connects you with a random doctor.

In many apps, it’s unclear not only who the doctor is, but more importantly, what their specific medical specialty or training is. It may be an ED doctor evaluating your child’s fever, or it may be a retired general surgeon or an adult rheumatology specialist in the midst of their fellowship, making an extra buck, who may have no pediatric training.
 

Training Matters

Clinical training and whether the doctor knows you matters. A recent JAMA study from Ontario, Canada, found that patients with virtual visits who saw outside family physicians (whom they had never met) compared with their own family physicians were 66% more likely to visit an ED within 7 days after the visit. This illustrates the importance of understanding your personal history in assessing acute symptoms.

Some healthcare systems do use ED physicians for on-demand telehealth services, such as Thomas Jefferson’s JeffConnect. Amazon Clinic recently entered this space, providing condition-specific acute or chronic care to adults aged 18-64 years for a fee that is, notably, not covered by insurance.

A second innovative approach, albeit not specifically in the realm of a personal emergency medicine doctor, is artificial intelligence (AI)–powered kiosks. A concierge medicine company known as Forward recently unveiled an innovative concept known as CarePods that are now available in Sacramento, California; Chandler, Arizona; and Chicago. For a membership fee, you swipe into what looks like an oversize, space-age porta-potty. You sit in a chair and run through a series of health apps, which includes a biometric body scan along with mental health screenings. It even takes your blood (without a needle) and sequences your DNA. Results are reviewed by a doctor (not yours) who talks to you by video. They advertise that AI helps make the diagnosis. Although diagnostic AI is emerging and exciting, its benefit is not clear in emergency conditions. Yet, one clear value in a kiosk over telemedicine is the ability to obtain vital signs and lab results, which are useful for diagnosis.

Another approach is the telehealth offerings used in integrated systems of care, such as Kaiser Permanente. Kaiser is both an insurance company and a deliverer of healthcare services. Kaiser maintains a nurse call center and can handle urgent e-visits. Integrated systems not only help triage patients’ acute issues but also have access to their personal health histories. They can also provide a definitive plan for in-person treatment or a specific referral. A downside of integrated care is that it often limits your choice of provider.

Insurance companies also maintain call-in lines such as HumanaFirst, which is also staffed by nurses. We have not seen data on the calls such services receive, but we doubt people that want to call their insurance company when sick or injured, knowing that the insurer benefits when you receive less care. Additionally, studies have found that nurse-only triage is not as effective as physician triage and results in higher ED referral rates.
 

The Concierge Option

Probably the closest thing to having your own personal emergency medicine doctor is concierge medicine, which combines personalized care and accessibility. Concierge doctors come in many forms, but they usually charge a fixed fee for 24/7 availability and same-day appointments. A downside of concierge medicine is its expense ($2000–$3500 per year), and that many don’t take insurance. Concierge medicine is also criticized because, as doctors gravitate toward it, people in the community often lose their physician if they can’t afford the fees.

Ultimately, remote medical advice for emergency care is clearly evolving in new ways. The inability of traditional care models to achieve this goal will lead to innovation to improve the available options that have led us to think outside of the proverbial “box” we refer to as the ED-in-the-case.

At this time, will any option come close to having a personal emergency medicine physician willing to answer your questions, real-time, as with family and close friends? We think not.

But the future certainly holds promise for alternatives that will hopefully make payers and the Centers for Medicare & Medicaid Services take notice. Innovations in personalized care that reduce costs will be critical in our current healthcare landscape.
 

Dr. Pines is clinical professor of emergency medicine at George Washington University in Washington, DC, and chief of clinical innovation at US Acute Care Solutions in Canton, Ohio. He disclosed ties with CSL Behring and Abbott Point-of-Care. Dr. Glatter is assistant professor of emergency medicine at Zucker School of Medicine at Hofstra/Northwell in Hempstead, New York. He is a medical advisor for Medscape and hosts the Hot Topics in EM series. He has disclosed no relevant financial relationships.

A version of this article appeared on Medscape.com.

Initiation of buprenorphine in hospitals in the United States has plateaued since 2018, with low retention rates of less than 25%, based on data from more than 3 million individuals who began buprenorphine between January 2016 and October 2022.

Chua_KaoPing_MI_web.jpg

Opioid overdose deaths are at a record high in the United States, and many of these deaths can be prevented with medications such as buprenorphine, said lead author Kao-Ping Chua, MD, of the University of Michigan, Ann Arbor, in an interview. “However, buprenorphine cannot prevent opioid overdose deaths if patients are never started on the medication or only stay on the medication for a short time. For that reason, rates of buprenorphine initiation and retention are critical metrics for measuring how well the U.S. health care system is responding to the opioid epidemic,” he said.

“At the time we started our study, several other research groups had evaluated U.S. rates of buprenorphine initiation and retention using data through 2020. However, more recent national data were lacking,” Dr. Chua told this news organization. “We felt that this was an important knowledge gap given the many changes in society that have occurred since 2020,” he noted. “For example, it was possible that the relaxation of social distancing measures during 2021 and 2022 might have reduced barriers to health care visits, thereby increasing opportunities to initiate treatment for opioid addiction with buprenorphine,” he said.

Dr. Chua and colleagues used data from the IQVIA Longitudinal Prescription Database, which reports 92% of prescriptions dispensed from retail pharmacies in the United States. “Buprenorphine products included immediate-release and extended-release formulations approved for opioid use disorder but not formulations primarily used to treat pain,” they write.

Monthly buprenorphine initiation was defined as the number of patients initiating therapy per 100,000 individuals. For retention, the researchers used a National Quality Forum-endorsed quality measure that defined retention as continuous use of buprenorphine for at least 180 days.

A total of 3,006,629 patients began buprenorphine therapy during the study period; approximately 43% were female.

During the first years of the study period, from January 2016 through September 2018, the monthly buprenorphine initiation rate increased from 12.5 per 100,000 to 15.9 per 100,000, with a statistically significant monthly percentage change of 0.62% (P < .001).

However, from October 2018 through October 2022, the monthly percentage remained essentially the same (P = .62) with a monthly percentage change of −0.03%.

From March 2020 through December 2020, the median monthly buprenorphine initiation rate was 14.4 per 100,000, only slightly lower than the rates from January 2019 through February 2020 and from January 2021 through October 2022 (15.5 per 100,000 and 15.0 per 100,000, respectively).

Over the entire study period from January 2016 through October 2022, the median monthly retention rate for buprenorphine use was 22.2%. This rate increased minimally, with no significant changes in slope and a monthly percentage change of 0.08% (P = .04).

The study findings were limited by several factors, including a lack of data on race and ethnicity, in-clinic administration of buprenorphine, and buprenorphine dispensing through methadone outpatient programs, the researchers note. Also, data did not indicate whether some patients began buprenorphine to treat pain, they say. The timing of the flattening of buprenorphine use also suggests the influence of factors beyond the COVID-19 pandemic, they write.

However, the results were strengthened by the large sample size and suggest that efforts to date to increase buprenorphine use have been unsuccessful, the researchers write. “A comprehensive approach is needed to eliminate barriers to buprenorphine initiation and retention, such as stigma and uneven access to prescribers,” they conclude.
 

Study highlights underuse of buprenorphine option

“Our study shows that buprenorphine initiation rates have been flat since the end of 2018 and that rates of 180-day retention in buprenorphine therapy have remained low throughout 2016-2022,” Dr. Chua told this news organization. “Neither of these findings are particularly surprising, but they are disappointing,” he said. “There were a lot of policy and clinical efforts to maintain and expand access to buprenorphine during the COVID-19 pandemic, such as allowing buprenorphine to be prescribed via telehealth without an in-person visit and eliminating training requirements for the waiver that previously was required to prescribe buprenorphine.

“The fact that buprenorphine initiation and retention did not rise after these efforts were implemented suggests that they were insufficient to meet the rising need for this medication,” he said.

The current study “adds to a growing body of research suggesting that clinicians are not maximizing opportunities to initiate buprenorphine treatment among patients with opioid addiction,” Dr. Chua said. He cited another of his recent studies in which 1 in 12 patients were prescribed buprenorphine within 30 days of an emergency department visit for opioid overdose from August 2019 to April 2021, but half of patients with emergency department visits with anaphylaxis were prescribed anepinephrine auto-injector.

“My hope is that our new study will further underscore to clinicians how much the health care system is underusing a critical tool to prevent opioid overdose deaths,” he said.

The federal government’s recent elimination of the waiver needed to prescribe buprenorphine may move the needle, but to what degree remains to be seen, Dr. Chua added. “It is possible this intervention will be insufficient to overcome the many other barriers to buprenorphine initiation and retention, such as stigma about the drug among clinicians, patients, and pharmacists,” he said.
 

Lack of education remains a barrier to buprenorphine use

The current study is important to determine whether attempts to increase buprenorphine initiation and treatment retention are working, said Reuben J. Strayer, MD, director of addiction medicine in the emergency medicine department at Maimonides Medical Center, New York, in an interview.

Dr. Strayer was not involved in the current study, but said he was surprised that initiation of buprenorphine didn’t decrease more dramatically during the pandemic, given the significant barriers to accessing care during that time.

However, “efforts to increase buprenorphine initiation and retention have not been sufficiently effective,” Dr. Strayer said. “The rise of fentanyl as a primary street opioid, replacing heroin, has dissuaded both patients and providers from initiating buprenorphine for fear of precipitated withdrawal.”

The elimination of the DATA 2000 (X) waiver was the removal of a potential barrier to increased buprenorphine use, said Dr. Strayer. “Now that the DATA 2000 (X) waiver has been eliminated, the focus of buprenorphine access is educating primary care and inpatient providers on its use, so that patients with OUD [opioid use disorder] can be treated, regardless of the venue at which they seek care,” he said.

Looking ahead, “The priority in buprenorphine research is determining the most effective way to initiate buprenorphine without the risk of precipitated withdrawal,” Dr. Strayer added.

The study was supported in part by the Benter Foundation, the Michigan Department of Health and Human Services, and the Susan B. Meister Child Health Evaluation and Research Center in the department of pediatrics at the University of Michigan. Dr. Chua was supported by the National Institute on Drug Abuse. Dr. Strayer has disclosed no relevant financial relationships.

A version of this article first appeared on Medscape.com.

Initiation of buprenorphine in hospitals in the United States has plateaued since 2018, with low retention rates of less than 25%, based on data from more than 3 million individuals who began buprenorphine between January 2016 and October 2022.

Chua_KaoPing_MI_web.jpg

Opioid overdose deaths are at a record high in the United States, and many of these deaths can be prevented with medications such as buprenorphine, said lead author Kao-Ping Chua, MD, of the University of Michigan, Ann Arbor, in an interview. “However, buprenorphine cannot prevent opioid overdose deaths if patients are never started on the medication or only stay on the medication for a short time. For that reason, rates of buprenorphine initiation and retention are critical metrics for measuring how well the U.S. health care system is responding to the opioid epidemic,” he said.

“At the time we started our study, several other research groups had evaluated U.S. rates of buprenorphine initiation and retention using data through 2020. However, more recent national data were lacking,” Dr. Chua told this news organization. “We felt that this was an important knowledge gap given the many changes in society that have occurred since 2020,” he noted. “For example, it was possible that the relaxation of social distancing measures during 2021 and 2022 might have reduced barriers to health care visits, thereby increasing opportunities to initiate treatment for opioid addiction with buprenorphine,” he said.

Dr. Chua and colleagues used data from the IQVIA Longitudinal Prescription Database, which reports 92% of prescriptions dispensed from retail pharmacies in the United States. “Buprenorphine products included immediate-release and extended-release formulations approved for opioid use disorder but not formulations primarily used to treat pain,” they write.

Monthly buprenorphine initiation was defined as the number of patients initiating therapy per 100,000 individuals. For retention, the researchers used a National Quality Forum-endorsed quality measure that defined retention as continuous use of buprenorphine for at least 180 days.

A total of 3,006,629 patients began buprenorphine therapy during the study period; approximately 43% were female.

During the first years of the study period, from January 2016 through September 2018, the monthly buprenorphine initiation rate increased from 12.5 per 100,000 to 15.9 per 100,000, with a statistically significant monthly percentage change of 0.62% (P < .001).

However, from October 2018 through October 2022, the monthly percentage remained essentially the same (P = .62) with a monthly percentage change of −0.03%.

From March 2020 through December 2020, the median monthly buprenorphine initiation rate was 14.4 per 100,000, only slightly lower than the rates from January 2019 through February 2020 and from January 2021 through October 2022 (15.5 per 100,000 and 15.0 per 100,000, respectively).

Over the entire study period from January 2016 through October 2022, the median monthly retention rate for buprenorphine use was 22.2%. This rate increased minimally, with no significant changes in slope and a monthly percentage change of 0.08% (P = .04).

The study findings were limited by several factors, including a lack of data on race and ethnicity, in-clinic administration of buprenorphine, and buprenorphine dispensing through methadone outpatient programs, the researchers note. Also, data did not indicate whether some patients began buprenorphine to treat pain, they say. The timing of the flattening of buprenorphine use also suggests the influence of factors beyond the COVID-19 pandemic, they write.

However, the results were strengthened by the large sample size and suggest that efforts to date to increase buprenorphine use have been unsuccessful, the researchers write. “A comprehensive approach is needed to eliminate barriers to buprenorphine initiation and retention, such as stigma and uneven access to prescribers,” they conclude.
 

Study highlights underuse of buprenorphine option

“Our study shows that buprenorphine initiation rates have been flat since the end of 2018 and that rates of 180-day retention in buprenorphine therapy have remained low throughout 2016-2022,” Dr. Chua told this news organization. “Neither of these findings are particularly surprising, but they are disappointing,” he said. “There were a lot of policy and clinical efforts to maintain and expand access to buprenorphine during the COVID-19 pandemic, such as allowing buprenorphine to be prescribed via telehealth without an in-person visit and eliminating training requirements for the waiver that previously was required to prescribe buprenorphine.

“The fact that buprenorphine initiation and retention did not rise after these efforts were implemented suggests that they were insufficient to meet the rising need for this medication,” he said.

The current study “adds to a growing body of research suggesting that clinicians are not maximizing opportunities to initiate buprenorphine treatment among patients with opioid addiction,” Dr. Chua said. He cited another of his recent studies in which 1 in 12 patients were prescribed buprenorphine within 30 days of an emergency department visit for opioid overdose from August 2019 to April 2021, but half of patients with emergency department visits with anaphylaxis were prescribed anepinephrine auto-injector.

“My hope is that our new study will further underscore to clinicians how much the health care system is underusing a critical tool to prevent opioid overdose deaths,” he said.

The federal government’s recent elimination of the waiver needed to prescribe buprenorphine may move the needle, but to what degree remains to be seen, Dr. Chua added. “It is possible this intervention will be insufficient to overcome the many other barriers to buprenorphine initiation and retention, such as stigma about the drug among clinicians, patients, and pharmacists,” he said.
 

Lack of education remains a barrier to buprenorphine use

The current study is important to determine whether attempts to increase buprenorphine initiation and treatment retention are working, said Reuben J. Strayer, MD, director of addiction medicine in the emergency medicine department at Maimonides Medical Center, New York, in an interview.

Dr. Strayer was not involved in the current study, but said he was surprised that initiation of buprenorphine didn’t decrease more dramatically during the pandemic, given the significant barriers to accessing care during that time.

However, “efforts to increase buprenorphine initiation and retention have not been sufficiently effective,” Dr. Strayer said. “The rise of fentanyl as a primary street opioid, replacing heroin, has dissuaded both patients and providers from initiating buprenorphine for fear of precipitated withdrawal.”

The elimination of the DATA 2000 (X) waiver was the removal of a potential barrier to increased buprenorphine use, said Dr. Strayer. “Now that the DATA 2000 (X) waiver has been eliminated, the focus of buprenorphine access is educating primary care and inpatient providers on its use, so that patients with OUD [opioid use disorder] can be treated, regardless of the venue at which they seek care,” he said.

Looking ahead, “The priority in buprenorphine research is determining the most effective way to initiate buprenorphine without the risk of precipitated withdrawal,” Dr. Strayer added.

The study was supported in part by the Benter Foundation, the Michigan Department of Health and Human Services, and the Susan B. Meister Child Health Evaluation and Research Center in the department of pediatrics at the University of Michigan. Dr. Chua was supported by the National Institute on Drug Abuse. Dr. Strayer has disclosed no relevant financial relationships.

A version of this article first appeared on Medscape.com.

Initiation of buprenorphine in hospitals in the United States has plateaued since 2018, with low retention rates of less than 25%, based on data from more than 3 million individuals who began buprenorphine between January 2016 and October 2022.

Chua_KaoPing_MI_web.jpg

Opioid overdose deaths are at a record high in the United States, and many of these deaths can be prevented with medications such as buprenorphine, said lead author Kao-Ping Chua, MD, of the University of Michigan, Ann Arbor, in an interview. “However, buprenorphine cannot prevent opioid overdose deaths if patients are never started on the medication or only stay on the medication for a short time. For that reason, rates of buprenorphine initiation and retention are critical metrics for measuring how well the U.S. health care system is responding to the opioid epidemic,” he said.

“At the time we started our study, several other research groups had evaluated U.S. rates of buprenorphine initiation and retention using data through 2020. However, more recent national data were lacking,” Dr. Chua told this news organization. “We felt that this was an important knowledge gap given the many changes in society that have occurred since 2020,” he noted. “For example, it was possible that the relaxation of social distancing measures during 2021 and 2022 might have reduced barriers to health care visits, thereby increasing opportunities to initiate treatment for opioid addiction with buprenorphine,” he said.

Dr. Chua and colleagues used data from the IQVIA Longitudinal Prescription Database, which reports 92% of prescriptions dispensed from retail pharmacies in the United States. “Buprenorphine products included immediate-release and extended-release formulations approved for opioid use disorder but not formulations primarily used to treat pain,” they write.

Monthly buprenorphine initiation was defined as the number of patients initiating therapy per 100,000 individuals. For retention, the researchers used a National Quality Forum-endorsed quality measure that defined retention as continuous use of buprenorphine for at least 180 days.

A total of 3,006,629 patients began buprenorphine therapy during the study period; approximately 43% were female.

During the first years of the study period, from January 2016 through September 2018, the monthly buprenorphine initiation rate increased from 12.5 per 100,000 to 15.9 per 100,000, with a statistically significant monthly percentage change of 0.62% (P < .001).

However, from October 2018 through October 2022, the monthly percentage remained essentially the same (P = .62) with a monthly percentage change of −0.03%.

From March 2020 through December 2020, the median monthly buprenorphine initiation rate was 14.4 per 100,000, only slightly lower than the rates from January 2019 through February 2020 and from January 2021 through October 2022 (15.5 per 100,000 and 15.0 per 100,000, respectively).

Over the entire study period from January 2016 through October 2022, the median monthly retention rate for buprenorphine use was 22.2%. This rate increased minimally, with no significant changes in slope and a monthly percentage change of 0.08% (P = .04).

The study findings were limited by several factors, including a lack of data on race and ethnicity, in-clinic administration of buprenorphine, and buprenorphine dispensing through methadone outpatient programs, the researchers note. Also, data did not indicate whether some patients began buprenorphine to treat pain, they say. The timing of the flattening of buprenorphine use also suggests the influence of factors beyond the COVID-19 pandemic, they write.

However, the results were strengthened by the large sample size and suggest that efforts to date to increase buprenorphine use have been unsuccessful, the researchers write. “A comprehensive approach is needed to eliminate barriers to buprenorphine initiation and retention, such as stigma and uneven access to prescribers,” they conclude.
 

Study highlights underuse of buprenorphine option

“Our study shows that buprenorphine initiation rates have been flat since the end of 2018 and that rates of 180-day retention in buprenorphine therapy have remained low throughout 2016-2022,” Dr. Chua told this news organization. “Neither of these findings are particularly surprising, but they are disappointing,” he said. “There were a lot of policy and clinical efforts to maintain and expand access to buprenorphine during the COVID-19 pandemic, such as allowing buprenorphine to be prescribed via telehealth without an in-person visit and eliminating training requirements for the waiver that previously was required to prescribe buprenorphine.

“The fact that buprenorphine initiation and retention did not rise after these efforts were implemented suggests that they were insufficient to meet the rising need for this medication,” he said.

The current study “adds to a growing body of research suggesting that clinicians are not maximizing opportunities to initiate buprenorphine treatment among patients with opioid addiction,” Dr. Chua said. He cited another of his recent studies in which 1 in 12 patients were prescribed buprenorphine within 30 days of an emergency department visit for opioid overdose from August 2019 to April 2021, but half of patients with emergency department visits with anaphylaxis were prescribed anepinephrine auto-injector.

“My hope is that our new study will further underscore to clinicians how much the health care system is underusing a critical tool to prevent opioid overdose deaths,” he said.

The federal government’s recent elimination of the waiver needed to prescribe buprenorphine may move the needle, but to what degree remains to be seen, Dr. Chua added. “It is possible this intervention will be insufficient to overcome the many other barriers to buprenorphine initiation and retention, such as stigma about the drug among clinicians, patients, and pharmacists,” he said.
 

Lack of education remains a barrier to buprenorphine use

The current study is important to determine whether attempts to increase buprenorphine initiation and treatment retention are working, said Reuben J. Strayer, MD, director of addiction medicine in the emergency medicine department at Maimonides Medical Center, New York, in an interview.

Dr. Strayer was not involved in the current study, but said he was surprised that initiation of buprenorphine didn’t decrease more dramatically during the pandemic, given the significant barriers to accessing care during that time.

However, “efforts to increase buprenorphine initiation and retention have not been sufficiently effective,” Dr. Strayer said. “The rise of fentanyl as a primary street opioid, replacing heroin, has dissuaded both patients and providers from initiating buprenorphine for fear of precipitated withdrawal.”

The elimination of the DATA 2000 (X) waiver was the removal of a potential barrier to increased buprenorphine use, said Dr. Strayer. “Now that the DATA 2000 (X) waiver has been eliminated, the focus of buprenorphine access is educating primary care and inpatient providers on its use, so that patients with OUD [opioid use disorder] can be treated, regardless of the venue at which they seek care,” he said.

Looking ahead, “The priority in buprenorphine research is determining the most effective way to initiate buprenorphine without the risk of precipitated withdrawal,” Dr. Strayer added.

The study was supported in part by the Benter Foundation, the Michigan Department of Health and Human Services, and the Susan B. Meister Child Health Evaluation and Research Center in the department of pediatrics at the University of Michigan. Dr. Chua was supported by the National Institute on Drug Abuse. Dr. Strayer has disclosed no relevant financial relationships.

A version of this article first appeared on Medscape.com.

Emergencies happen anywhere, anytime, and sometimes physicians find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape series telling these stories.

I was coming off a 48-hour shift plus a day of doing outpatient sedation at Sparrow Hospital in Lansing. It was December and Michigan-cold. The roads were fine – no snow – but I noticed an unusual amount of traffic on the freeway. Then I saw smoke coming from an overpass up ahead.

I drove on the side of the road where I wasn’t really supposed to and got closer. An SUV had crashed into one of the big concrete structures under the bridge. I saw people running around but wasn’t able to spot EMS or any health care workers. From where I was, I could identify four kids who had already been extricated and one adult still in the driver’s seat. I estimated the kids’ ages were around 7, 5, 3, and an infant who was a few months old. I left my car and went to help.

I was able to peg the ages correctly because I’m a pediatric critical care physician. As a specialty, we’re not commonly known. We oversee patient care in intensive care units, except the patients are children. Part of the job is that we’re experts at triaging. We recognize what’s life-threatening and less so.

The kids were with some adults who kept them warm with blankets. I examined each of them. The infant was asleep but arousable and acting like a normal baby. The 3-year-old boy was vomiting and appeared very fatigued. The 5-year-old boy had a forehead laceration and was in and out of consciousness. The 7-year-old girl was screaming because of different injuries.

While all of the children were concerning to me, I identified one in particular: the 5-year-old boy. It was obvious he needed serious medical attention and fast. So, I kept that little guy in mind. The others had sustained significant injuries, but my best guess was they could get to a hospital and be stabilized.

That said, I’m a trauma instructor, and one of the things I always tell trainees is: Trauma is a black box. On the outside, it may seem like a patient doesn’t have a lot of injuries. But underneath, there might be something worse, like a brain injury. Or the chest might have taken a blunt impact affecting the heart. There may be internal bleeding somewhere in the belly. It’s really hard to tease out what exactly is going on without equipment and testing.

I didn’t even have a pulse oximeter or heart rate monitor. I pretty much just went by the appearance of the child: pulse, heart rate, awareness, things like that.

After the kids, I moved to look at the man in the car. The front end had already caught fire. I could see the driver – the kids’ father, I guessed – unconscious and hunched over. I was wondering, Why hasn’t this guy been extricated?

I approached the car on the front passenger side. And then I just had this feeling. I knew I needed to step back. Immediately.

I did. And a few seconds later, the whole car exploded in flames.

I believe God is in control of everything. I tried to get to that man. But the scene was unsafe. Later I learned that several people, including a young nurse at the scene, had tried to get to him as well.

When EMS came, I identified myself. Obviously, these people do very, very important work. But they may be more used to the 60-year-old heart attack, the 25-year-old gunshot wound, the occasional ill child. I thought that four kids – each with possible critical poly-traumatic injuries – posed a challenge to anyone.

I told them, “This is what I do on a daily basis, and this is the kid I’m worried about the most. The other kids are definitely worrisome, but I would prioritize getting this kid to the hospital first. Can I ride with you?” They agreed.

We got that boy and his older sister into the first ambulance (she was in a lot of pain, the result of a femur fracture). The two other kids rode in the second ambulance. The hospital where I had just left was 10 minutes away. I called the other pediatric critical care doctor there, my partner. He thought I was calling for a routine issue – no such luck. I said, “I’m with four kids who are level-1 traumas in two ambulances and I’m heading to the hospital right now, ETA 10 minutes.”

En route, I thought the little boy might lose consciousness at any moment. He needed a breathing tube, and I debated whether it should be done in the ambulance vs. waiting until we got to the emergency room. Based on my judgment and his vital signs, I elected to wait to have it done it in a more controlled environment. Had I felt like he was in immediate need of an airway, I would’ve attempted it. But those are the tough calls that you must make.

My partner had alerted the trauma and emergency medicine teams at the hospital. By the time we arrived, my partner was down in the ER with the trauma team and ER staff. Everyone was ready. Then it was like divide and conquer. He attended to one of the kids. The ER team and I were with the little guy I was really worried about. We had his breathing tube in within minutes. The trauma team attended to the other two.

All the kids were stabilized and then admitted to the pediatric intensive care unit. I’m happy to say that all of them did well in the end. Even the little guy I was worried about the most.

I must say this incident gave me perspective on what EMS goes through. The field medicine we do in the United States is still in its infancy in a lot of ways. One of the things I would love to see in the future is a mobile ICU. After a critical illness hits, sometimes you only have seconds, minutes, maybe hours if you’re lucky. The earlier you can get patients the treatment they need, the better the outcomes.

I like taking care of critically ill children and their families. It fits my personality. And it’s a wonderful cause. But you have to be ready for tragic cases like this one. Yes, the children came out alive, but the accident claimed a life in a horrible way. And there was nothing I could do about it.

Critical care takes an emotional, psychological, and physical toll. It’s a roller coaster: Some kids do well; some kids don’t do well. All I can do is hold myself accountable. I keep my emotions in check, whether the outcome is positive or negative. And I do my best.
 

Mohamed Hani Farhat, MD, is a pediatric critical care physician at the University of Michigan C.S. Mott Children’s Hospital in Ann Arbor and Sparrow Hospital in Lansing, Mich. Are you a physician with a dramatic medical story outside the clinic? Medscape would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary of your story to access@webmd.net . A version of this article appeared on Medscape.com.

Emergencies happen anywhere, anytime, and sometimes physicians find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape series telling these stories.

I was coming off a 48-hour shift plus a day of doing outpatient sedation at Sparrow Hospital in Lansing. It was December and Michigan-cold. The roads were fine – no snow – but I noticed an unusual amount of traffic on the freeway. Then I saw smoke coming from an overpass up ahead.

I drove on the side of the road where I wasn’t really supposed to and got closer. An SUV had crashed into one of the big concrete structures under the bridge. I saw people running around but wasn’t able to spot EMS or any health care workers. From where I was, I could identify four kids who had already been extricated and one adult still in the driver’s seat. I estimated the kids’ ages were around 7, 5, 3, and an infant who was a few months old. I left my car and went to help.

I was able to peg the ages correctly because I’m a pediatric critical care physician. As a specialty, we’re not commonly known. We oversee patient care in intensive care units, except the patients are children. Part of the job is that we’re experts at triaging. We recognize what’s life-threatening and less so.

The kids were with some adults who kept them warm with blankets. I examined each of them. The infant was asleep but arousable and acting like a normal baby. The 3-year-old boy was vomiting and appeared very fatigued. The 5-year-old boy had a forehead laceration and was in and out of consciousness. The 7-year-old girl was screaming because of different injuries.

While all of the children were concerning to me, I identified one in particular: the 5-year-old boy. It was obvious he needed serious medical attention and fast. So, I kept that little guy in mind. The others had sustained significant injuries, but my best guess was they could get to a hospital and be stabilized.

That said, I’m a trauma instructor, and one of the things I always tell trainees is: Trauma is a black box. On the outside, it may seem like a patient doesn’t have a lot of injuries. But underneath, there might be something worse, like a brain injury. Or the chest might have taken a blunt impact affecting the heart. There may be internal bleeding somewhere in the belly. It’s really hard to tease out what exactly is going on without equipment and testing.

I didn’t even have a pulse oximeter or heart rate monitor. I pretty much just went by the appearance of the child: pulse, heart rate, awareness, things like that.

After the kids, I moved to look at the man in the car. The front end had already caught fire. I could see the driver – the kids’ father, I guessed – unconscious and hunched over. I was wondering, Why hasn’t this guy been extricated?

I approached the car on the front passenger side. And then I just had this feeling. I knew I needed to step back. Immediately.

I did. And a few seconds later, the whole car exploded in flames.

I believe God is in control of everything. I tried to get to that man. But the scene was unsafe. Later I learned that several people, including a young nurse at the scene, had tried to get to him as well.

When EMS came, I identified myself. Obviously, these people do very, very important work. But they may be more used to the 60-year-old heart attack, the 25-year-old gunshot wound, the occasional ill child. I thought that four kids – each with possible critical poly-traumatic injuries – posed a challenge to anyone.

I told them, “This is what I do on a daily basis, and this is the kid I’m worried about the most. The other kids are definitely worrisome, but I would prioritize getting this kid to the hospital first. Can I ride with you?” They agreed.

We got that boy and his older sister into the first ambulance (she was in a lot of pain, the result of a femur fracture). The two other kids rode in the second ambulance. The hospital where I had just left was 10 minutes away. I called the other pediatric critical care doctor there, my partner. He thought I was calling for a routine issue – no such luck. I said, “I’m with four kids who are level-1 traumas in two ambulances and I’m heading to the hospital right now, ETA 10 minutes.”

En route, I thought the little boy might lose consciousness at any moment. He needed a breathing tube, and I debated whether it should be done in the ambulance vs. waiting until we got to the emergency room. Based on my judgment and his vital signs, I elected to wait to have it done it in a more controlled environment. Had I felt like he was in immediate need of an airway, I would’ve attempted it. But those are the tough calls that you must make.

My partner had alerted the trauma and emergency medicine teams at the hospital. By the time we arrived, my partner was down in the ER with the trauma team and ER staff. Everyone was ready. Then it was like divide and conquer. He attended to one of the kids. The ER team and I were with the little guy I was really worried about. We had his breathing tube in within minutes. The trauma team attended to the other two.

All the kids were stabilized and then admitted to the pediatric intensive care unit. I’m happy to say that all of them did well in the end. Even the little guy I was worried about the most.

I must say this incident gave me perspective on what EMS goes through. The field medicine we do in the United States is still in its infancy in a lot of ways. One of the things I would love to see in the future is a mobile ICU. After a critical illness hits, sometimes you only have seconds, minutes, maybe hours if you’re lucky. The earlier you can get patients the treatment they need, the better the outcomes.

I like taking care of critically ill children and their families. It fits my personality. And it’s a wonderful cause. But you have to be ready for tragic cases like this one. Yes, the children came out alive, but the accident claimed a life in a horrible way. And there was nothing I could do about it.

Critical care takes an emotional, psychological, and physical toll. It’s a roller coaster: Some kids do well; some kids don’t do well. All I can do is hold myself accountable. I keep my emotions in check, whether the outcome is positive or negative. And I do my best.
 

Mohamed Hani Farhat, MD, is a pediatric critical care physician at the University of Michigan C.S. Mott Children’s Hospital in Ann Arbor and Sparrow Hospital in Lansing, Mich. Are you a physician with a dramatic medical story outside the clinic? Medscape would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary of your story to access@webmd.net . A version of this article appeared on Medscape.com.

Emergencies happen anywhere, anytime, and sometimes physicians find themselves in situations where they are the only ones who can help. Is There a Doctor in the House? is a Medscape series telling these stories.

I was coming off a 48-hour shift plus a day of doing outpatient sedation at Sparrow Hospital in Lansing. It was December and Michigan-cold. The roads were fine – no snow – but I noticed an unusual amount of traffic on the freeway. Then I saw smoke coming from an overpass up ahead.

I drove on the side of the road where I wasn’t really supposed to and got closer. An SUV had crashed into one of the big concrete structures under the bridge. I saw people running around but wasn’t able to spot EMS or any health care workers. From where I was, I could identify four kids who had already been extricated and one adult still in the driver’s seat. I estimated the kids’ ages were around 7, 5, 3, and an infant who was a few months old. I left my car and went to help.

I was able to peg the ages correctly because I’m a pediatric critical care physician. As a specialty, we’re not commonly known. We oversee patient care in intensive care units, except the patients are children. Part of the job is that we’re experts at triaging. We recognize what’s life-threatening and less so.

The kids were with some adults who kept them warm with blankets. I examined each of them. The infant was asleep but arousable and acting like a normal baby. The 3-year-old boy was vomiting and appeared very fatigued. The 5-year-old boy had a forehead laceration and was in and out of consciousness. The 7-year-old girl was screaming because of different injuries.

While all of the children were concerning to me, I identified one in particular: the 5-year-old boy. It was obvious he needed serious medical attention and fast. So, I kept that little guy in mind. The others had sustained significant injuries, but my best guess was they could get to a hospital and be stabilized.

That said, I’m a trauma instructor, and one of the things I always tell trainees is: Trauma is a black box. On the outside, it may seem like a patient doesn’t have a lot of injuries. But underneath, there might be something worse, like a brain injury. Or the chest might have taken a blunt impact affecting the heart. There may be internal bleeding somewhere in the belly. It’s really hard to tease out what exactly is going on without equipment and testing.

I didn’t even have a pulse oximeter or heart rate monitor. I pretty much just went by the appearance of the child: pulse, heart rate, awareness, things like that.

After the kids, I moved to look at the man in the car. The front end had already caught fire. I could see the driver – the kids’ father, I guessed – unconscious and hunched over. I was wondering, Why hasn’t this guy been extricated?

I approached the car on the front passenger side. And then I just had this feeling. I knew I needed to step back. Immediately.

I did. And a few seconds later, the whole car exploded in flames.

I believe God is in control of everything. I tried to get to that man. But the scene was unsafe. Later I learned that several people, including a young nurse at the scene, had tried to get to him as well.

When EMS came, I identified myself. Obviously, these people do very, very important work. But they may be more used to the 60-year-old heart attack, the 25-year-old gunshot wound, the occasional ill child. I thought that four kids – each with possible critical poly-traumatic injuries – posed a challenge to anyone.

I told them, “This is what I do on a daily basis, and this is the kid I’m worried about the most. The other kids are definitely worrisome, but I would prioritize getting this kid to the hospital first. Can I ride with you?” They agreed.

We got that boy and his older sister into the first ambulance (she was in a lot of pain, the result of a femur fracture). The two other kids rode in the second ambulance. The hospital where I had just left was 10 minutes away. I called the other pediatric critical care doctor there, my partner. He thought I was calling for a routine issue – no such luck. I said, “I’m with four kids who are level-1 traumas in two ambulances and I’m heading to the hospital right now, ETA 10 minutes.”

En route, I thought the little boy might lose consciousness at any moment. He needed a breathing tube, and I debated whether it should be done in the ambulance vs. waiting until we got to the emergency room. Based on my judgment and his vital signs, I elected to wait to have it done it in a more controlled environment. Had I felt like he was in immediate need of an airway, I would’ve attempted it. But those are the tough calls that you must make.

My partner had alerted the trauma and emergency medicine teams at the hospital. By the time we arrived, my partner was down in the ER with the trauma team and ER staff. Everyone was ready. Then it was like divide and conquer. He attended to one of the kids. The ER team and I were with the little guy I was really worried about. We had his breathing tube in within minutes. The trauma team attended to the other two.

All the kids were stabilized and then admitted to the pediatric intensive care unit. I’m happy to say that all of them did well in the end. Even the little guy I was worried about the most.

I must say this incident gave me perspective on what EMS goes through. The field medicine we do in the United States is still in its infancy in a lot of ways. One of the things I would love to see in the future is a mobile ICU. After a critical illness hits, sometimes you only have seconds, minutes, maybe hours if you’re lucky. The earlier you can get patients the treatment they need, the better the outcomes.

I like taking care of critically ill children and their families. It fits my personality. And it’s a wonderful cause. But you have to be ready for tragic cases like this one. Yes, the children came out alive, but the accident claimed a life in a horrible way. And there was nothing I could do about it.

Critical care takes an emotional, psychological, and physical toll. It’s a roller coaster: Some kids do well; some kids don’t do well. All I can do is hold myself accountable. I keep my emotions in check, whether the outcome is positive or negative. And I do my best.
 

Mohamed Hani Farhat, MD, is a pediatric critical care physician at the University of Michigan C.S. Mott Children’s Hospital in Ann Arbor and Sparrow Hospital in Lansing, Mich. Are you a physician with a dramatic medical story outside the clinic? Medscape would love to consider your story for Is There a Doctor in the House? Please email your contact information and a short summary of your story to access@webmd.net . A version of this article appeared on Medscape.com.

In 2002, two landmark trials found that targeted temperature management (TTM) after out-of-hospital cardiac arrest led to improvements in neurologic outcomes. The larger of the two trials found a reduction in mortality. Such treatment benefits are hard to come by in critical care in general and in out-of-hospital cardiac arrest in particular. With the therapeutic overconfidence typical of our profession, my institution embraced TTM quickly and completely soon after these trials were published. Remember, this was “back in the day” when sepsis management included drotrecogin alfa, Cortrosyn stim tests, tight glucose control (90-120 mg/dL), and horrible over-resuscitation via the early goal-directed therapy paradigm.

If you’ve been practicing critical care medicine for more than a few years, you already know where I’m going. Most of the interventions in the preceding paragraph were adopted but discarded before 2010. Though TTM has managed to stand the test of time, our confidence in its benefit has waned since 2002. Hypothermia – temperature management with a goal of 32-36° C – has been struggling to stay relevant ever since the publication of the TTM randomized controlled trial (RCT) in 2013. Then came the HYPERION trial, which brought the 32-36° C target back from the dead (pun definitely intended) in 2019. This is critical care medicine: Today’s life-saving intervention proves harmful tomorrow, but withholding it may constitute malpractice a few months down the road.

So where are we now? Good question. I’ve had seasoned neurointensivists insist that 33° C remains the standard of care and others who’ve endorsed normothermia. So much for finding an answer via my more specialized colleagues.

Let’s go to the guidelines then. Prompted largely by HYPERION, a temperature target of 32-36° C was endorsed in 2020 and 2021. Then came publication of the TTM2 trial, the largest temperature management RCT to date, which found no benefit to targeting 33° C. A network meta-analysis published in 2021 reached a similar conclusion. A recently released update by the same international guideline group now recommends targeting normothermia (< 37.7° C) and avoiding fever, and it specifically says that there is insufficient evidence to support a 32-36° C target. Okay, everyone tracking all that?

Lest I sound overly catty and nihilistic, I see all this in a positive light. Huge credit goes to the critical care medicine academic community for putting together so many RCTs. The scientific reality is that it takes “a lotta” sample size to clarify the effects of an intervention. Throw in the inevitable bevy of confounders (in- vs. out-of-hospital cardiac arrest, resuscitation time, initial rhythm, and so on), and you get a feel for the work required to understand a treatment’s true effects.

Advances in guideline science and the hard, often unpaid work of panels are also important. The guideline panel I’ve been citing came out for aggressive temperature control (32-36° C) a few months before the TTM2 RCT was published. In the past, they updated their recommendations every 5 years, but this time, they were out with a new manuscript that incorporated TTM2 in less than a year. If you’ve been involved at any level with producing guidelines, you can appreciate this achievement. Assuming that aggressive hypothermia is truly harmful, waiting 5 years to incorporate TTM2 could have led to significant morbidity.

I do take issue with you early adopters, though. Given the litany of failed therapies that have shown initial promise, and the well-documented human tendency to underestimate the impact of sample size, your rapid implementation of major interventions is puzzling. One might think you’d learned your lessons after seeing drotrecogin alfa, Cortrosyn stim tests, tight glucose control, early goal-directed therapy, and aggressive TTM come and go. Your recent enthusiasm for vitamin C after publication of a single before-after study suggests that you haven’t.

Aaron B. Holley, MD, is an associate professor of medicine at Uniformed Services University and program director of pulmonary and critical care medicine at Walter Reed National Military Medical Center, Bethesda, Md. He has received a research grant from Fisher-Paykel.

A version of this article first appeared on Medscape.com.

In 2002, two landmark trials found that targeted temperature management (TTM) after out-of-hospital cardiac arrest led to improvements in neurologic outcomes. The larger of the two trials found a reduction in mortality. Such treatment benefits are hard to come by in critical care in general and in out-of-hospital cardiac arrest in particular. With the therapeutic overconfidence typical of our profession, my institution embraced TTM quickly and completely soon after these trials were published. Remember, this was “back in the day” when sepsis management included drotrecogin alfa, Cortrosyn stim tests, tight glucose control (90-120 mg/dL), and horrible over-resuscitation via the early goal-directed therapy paradigm.

If you’ve been practicing critical care medicine for more than a few years, you already know where I’m going. Most of the interventions in the preceding paragraph were adopted but discarded before 2010. Though TTM has managed to stand the test of time, our confidence in its benefit has waned since 2002. Hypothermia – temperature management with a goal of 32-36° C – has been struggling to stay relevant ever since the publication of the TTM randomized controlled trial (RCT) in 2013. Then came the HYPERION trial, which brought the 32-36° C target back from the dead (pun definitely intended) in 2019. This is critical care medicine: Today’s life-saving intervention proves harmful tomorrow, but withholding it may constitute malpractice a few months down the road.

So where are we now? Good question. I’ve had seasoned neurointensivists insist that 33° C remains the standard of care and others who’ve endorsed normothermia. So much for finding an answer via my more specialized colleagues.

Let’s go to the guidelines then. Prompted largely by HYPERION, a temperature target of 32-36° C was endorsed in 2020 and 2021. Then came publication of the TTM2 trial, the largest temperature management RCT to date, which found no benefit to targeting 33° C. A network meta-analysis published in 2021 reached a similar conclusion. A recently released update by the same international guideline group now recommends targeting normothermia (< 37.7° C) and avoiding fever, and it specifically says that there is insufficient evidence to support a 32-36° C target. Okay, everyone tracking all that?

Lest I sound overly catty and nihilistic, I see all this in a positive light. Huge credit goes to the critical care medicine academic community for putting together so many RCTs. The scientific reality is that it takes “a lotta” sample size to clarify the effects of an intervention. Throw in the inevitable bevy of confounders (in- vs. out-of-hospital cardiac arrest, resuscitation time, initial rhythm, and so on), and you get a feel for the work required to understand a treatment’s true effects.

Advances in guideline science and the hard, often unpaid work of panels are also important. The guideline panel I’ve been citing came out for aggressive temperature control (32-36° C) a few months before the TTM2 RCT was published. In the past, they updated their recommendations every 5 years, but this time, they were out with a new manuscript that incorporated TTM2 in less than a year. If you’ve been involved at any level with producing guidelines, you can appreciate this achievement. Assuming that aggressive hypothermia is truly harmful, waiting 5 years to incorporate TTM2 could have led to significant morbidity.

I do take issue with you early adopters, though. Given the litany of failed therapies that have shown initial promise, and the well-documented human tendency to underestimate the impact of sample size, your rapid implementation of major interventions is puzzling. One might think you’d learned your lessons after seeing drotrecogin alfa, Cortrosyn stim tests, tight glucose control, early goal-directed therapy, and aggressive TTM come and go. Your recent enthusiasm for vitamin C after publication of a single before-after study suggests that you haven’t.

Aaron B. Holley, MD, is an associate professor of medicine at Uniformed Services University and program director of pulmonary and critical care medicine at Walter Reed National Military Medical Center, Bethesda, Md. He has received a research grant from Fisher-Paykel.

A version of this article first appeared on Medscape.com.

In 2002, two landmark trials found that targeted temperature management (TTM) after out-of-hospital cardiac arrest led to improvements in neurologic outcomes. The larger of the two trials found a reduction in mortality. Such treatment benefits are hard to come by in critical care in general and in out-of-hospital cardiac arrest in particular. With the therapeutic overconfidence typical of our profession, my institution embraced TTM quickly and completely soon after these trials were published. Remember, this was “back in the day” when sepsis management included drotrecogin alfa, Cortrosyn stim tests, tight glucose control (90-120 mg/dL), and horrible over-resuscitation via the early goal-directed therapy paradigm.

If you’ve been practicing critical care medicine for more than a few years, you already know where I’m going. Most of the interventions in the preceding paragraph were adopted but discarded before 2010. Though TTM has managed to stand the test of time, our confidence in its benefit has waned since 2002. Hypothermia – temperature management with a goal of 32-36° C – has been struggling to stay relevant ever since the publication of the TTM randomized controlled trial (RCT) in 2013. Then came the HYPERION trial, which brought the 32-36° C target back from the dead (pun definitely intended) in 2019. This is critical care medicine: Today’s life-saving intervention proves harmful tomorrow, but withholding it may constitute malpractice a few months down the road.

So where are we now? Good question. I’ve had seasoned neurointensivists insist that 33° C remains the standard of care and others who’ve endorsed normothermia. So much for finding an answer via my more specialized colleagues.

Let’s go to the guidelines then. Prompted largely by HYPERION, a temperature target of 32-36° C was endorsed in 2020 and 2021. Then came publication of the TTM2 trial, the largest temperature management RCT to date, which found no benefit to targeting 33° C. A network meta-analysis published in 2021 reached a similar conclusion. A recently released update by the same international guideline group now recommends targeting normothermia (< 37.7° C) and avoiding fever, and it specifically says that there is insufficient evidence to support a 32-36° C target. Okay, everyone tracking all that?

Lest I sound overly catty and nihilistic, I see all this in a positive light. Huge credit goes to the critical care medicine academic community for putting together so many RCTs. The scientific reality is that it takes “a lotta” sample size to clarify the effects of an intervention. Throw in the inevitable bevy of confounders (in- vs. out-of-hospital cardiac arrest, resuscitation time, initial rhythm, and so on), and you get a feel for the work required to understand a treatment’s true effects.

Advances in guideline science and the hard, often unpaid work of panels are also important. The guideline panel I’ve been citing came out for aggressive temperature control (32-36° C) a few months before the TTM2 RCT was published. In the past, they updated their recommendations every 5 years, but this time, they were out with a new manuscript that incorporated TTM2 in less than a year. If you’ve been involved at any level with producing guidelines, you can appreciate this achievement. Assuming that aggressive hypothermia is truly harmful, waiting 5 years to incorporate TTM2 could have led to significant morbidity.

I do take issue with you early adopters, though. Given the litany of failed therapies that have shown initial promise, and the well-documented human tendency to underestimate the impact of sample size, your rapid implementation of major interventions is puzzling. One might think you’d learned your lessons after seeing drotrecogin alfa, Cortrosyn stim tests, tight glucose control, early goal-directed therapy, and aggressive TTM come and go. Your recent enthusiasm for vitamin C after publication of a single before-after study suggests that you haven’t.

Aaron B. Holley, MD, is an associate professor of medicine at Uniformed Services University and program director of pulmonary and critical care medicine at Walter Reed National Military Medical Center, Bethesda, Md. He has received a research grant from Fisher-Paykel.

A version of this article first appeared on Medscape.com.

After more than a week of record-breaking temperatures across much of the country, public health experts are cautioning that children are more susceptible to heat illness than adults are – even more so when they’re on the athletic field, living without air conditioning, or waiting in a parked car.

Cases of heat-related illness are rising with average air temperatures, and experts say almost half of those getting sick are children. The reason is twofold: Children’s bodies have more trouble regulating temperature than do those of adults, and they rely on adults to help protect them from overheating.

Parents, coaches, and other caretakers, who can experience the same heat very differently from the way children do, may struggle to identify a dangerous situation or catch the early symptoms of heat-related illness in children.

“Children are not little adults,” said Dr. Aaron Bernstein, a pediatric hospitalist at Boston Children’s Hospital. 

Jan Null, a meteorologist in California, recalled being surprised at the effect of heat in a car. It was 86 degrees on a July afternoon more than 2 decades ago when an infant in San Jose was forgotten in a parked car and died of heatstroke.

Mr. Null said a reporter asked him after the death, “How hot could it have gotten in that car?”

Mr. Null’s research with two emergency doctors at Stanford University eventually produced a startling answer. Within an hour, the temperature in that car could have exceeded 120 degrees Fahrenheit. Their work revealed that a quick errand can be dangerous for a child left behind in the car – even for less than 15 minutes, even with the windows cracked, and even on a mild day.

As record heat becomes more frequent, posing serious risks even to healthy adults, the number of cases of heat-related illnesses has gone up, including among children. Those most at risk are young children in parked vehicles and adolescents returning to school and participating in sports during the hottest days of the year.

More than 9,000 high school athletes are treated for heat-related illnesses every year.

Heat-related illnesses occur when exposure to high temperatures and humidity, which can be intensified by physical exertion, overwhelms the body’s ability to cool itself. Cases range from mild, like benign heat rashes in infants, to more serious, when the body’s core temperature increases. That can lead to life-threatening instances of heatstroke, diagnosed once the body temperature rises above 104 degrees, potentially causing organ failure.

Prevention is key. Experts emphasize that drinking plenty of water, avoiding the outdoors during the hot midday and afternoon hours, and taking it slow when adjusting to exercise are the most effective ways to avoid getting sick.

Children’s bodies take longer to increase sweat production and otherwise acclimatize in a warm environment than adults’ do, research shows. Young children are more susceptible to dehydration because a larger percentage of their body weight is water.

Infants and younger children have more trouble regulating their body temperature, in part because they often don’t recognize when they should drink more water or remove clothing to cool down. A 1995 study showed that young children who spent 30 minutes in a 95-degree room saw their core temperatures rise significantly higher and faster than their mothers’ – even though they sweat more than adults do relative to their size.

Pediatricians advise caretakers to monitor how much water children consume and encourage them to drink before they ask for it. Thirst indicates the body is already dehydrated.

They should dress children in light-colored, lightweight clothes; limit outdoor time during the hottest hours; and look for ways to cool down, such as by visiting an air-conditioned place like a library, taking a cool bath, or going for a swim.

To address the risks to student athletes, the National Athletic Trainers’ Association recommends that high school athletes acclimatize by gradually building their activity over the course of 2 weeks when returning to their sport for a new season – including by slowly stepping up the amount of any protective equipment they wear.

“You’re gradually increasing that intensity over a week to 2 weeks so your body can get used to the heat,” said Kathy Dieringer, president of NATA.
 

Warning signs and solutions

Experts note a flushed face, fatigue, muscle cramps, headache, dizziness, vomiting, and a lot of sweating are among the symptoms of heat exhaustion, which can develop into heatstroke if untreated. A doctor should be notified if symptoms worsen, such as if the child seems disoriented or cannot drink.

Taking immediate steps to cool a child experiencing heat exhaustion or heatstroke is critical. The child should be taken to a shaded or cool area; be given cool fluids with salt, like sports drinks; and have any sweaty or heavy garments removed.

For adolescents, being submerged in an ice bath is the most effective way to cool the body, while younger children can be wrapped in cold, wet towels or misted with lukewarm water and placed in front of a fan.

Although children’s deaths in parked cars have been well documented, the tragic incidents continue to occur. According to federal statistics, 23 children died of vehicular heatstroke in 2021. Mr. Null, who collects his own data, said 13 children have died so far this year.

Caretakers should never leave children alone in a parked car, Mr. Null said. Take steps to prevent young children from entering the car themselves and becoming trapped, including locking the car while it’s parked at home.

More than half of cases of vehicular pediatric heatstroke occur because a caretaker accidentally left a child behind, he said. While in-car technology reminding adults to check their back seats has become more common, only a fraction of vehicles have it, requiring parents to come up with their own methods, like leaving a stuffed animal in the front seat.

The good news, Mr. Null said, is that simple behavioral changes can protect youngsters. “This is preventable in 100% of the cases,” he said.
 

A lopsided risk

People living in low-income areas fare worse when temperatures climb. Access to air conditioning, which includes the ability to afford the electricity bill, is a serious health concern.

A study of heat in urban areas released last year showed that low-income neighborhoods and communities of color experience much higher temperatures than those of wealthier, White residents. In more impoverished areas during the summer, temperatures can be as much as 7 degrees Fahrenheit warmer.

The study’s authors said their findings in the United States reflect that “the legacy of redlining looms large,” referring to a federal housing policy that refused to insure mortgages in or near predominantly Black neighborhoods.

“These areas have less tree canopy, more streets, and higher building densities, meaning that in addition to their other racist outcomes, redlining policies directly codified into law existing disparity in urban land use and reinforced urban design choices that magnify urban heating into the present,” they concluded.

Dr. Bernstein, who leads Harvard’s Center for Climate, Health, and the Global Environment, coauthored a commentary in JAMA arguing that advancing health equity is critical to action on climate change.

The center works with front-line health clinics to help their predominantly low-income patients respond to the health impacts of climate change. Federally backed clinics alone provide care to about 30 million Americans, including many children, he said.

Dr. Bernstein also recently led a nationwide study that found that from May through September, days with higher temperatures are associated with more visits to children’s hospital emergency rooms. Many visits were more directly linked to heat, although the study also pointed to how high temperatures can exacerbate existing health conditions such as neurological disorders.

“Children are more vulnerable to climate change through how these climate shocks reshape the world in which they grow up,” Dr. Bernstein said.

Helping people better understand the health risks of extreme heat and how to protect themselves and their families are among the public health system’s major challenges, experts said.

The National Weather Service’s heat alert system is mainly based on the heat index, a measure of how hot it feels when relative humidity is factored in with air temperature.

But the alerts are not related to effects on health, said Kathy Baughman McLeod, director of the Adrienne Arsht-Rockefeller Foundation Resilience Center. By the time temperatures rise to the level that a weather alert is issued, many vulnerable people – like children, pregnant women, and the elderly – may already be experiencing heat exhaustion or heatstroke.

The center developed a new heat alert system, which is being tested in Seville, Spain, historically one of the hottest cities in Europe.

The system marries metrics such as air temperature and humidity with public health data to categorize heat waves and, when they are serious enough, give them names – making it easier for people to understand heat as an environmental threat that requires prevention measures.

The categories are determined through a metric known as excess deaths, which compares how many people died on a day with the forecast temperature versus an average day. That may help health officials understand how severe a heat wave is expected to be and make informed recommendations to the public based on risk factors such as age or medical history.

The health-based alert system would also allow officials to target caretakers of children and seniors through school systems, preschools, and senior centers, Ms. Baughman McLeod said.

Giving people better ways to conceptualize heat is critical, she said.

“It’s not dramatic. It doesn’t rip the roof off of your house,” Ms. Baughman McLeod said. “It’s silent and invisible.”

KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

After more than a week of record-breaking temperatures across much of the country, public health experts are cautioning that children are more susceptible to heat illness than adults are – even more so when they’re on the athletic field, living without air conditioning, or waiting in a parked car.

Cases of heat-related illness are rising with average air temperatures, and experts say almost half of those getting sick are children. The reason is twofold: Children’s bodies have more trouble regulating temperature than do those of adults, and they rely on adults to help protect them from overheating.

Parents, coaches, and other caretakers, who can experience the same heat very differently from the way children do, may struggle to identify a dangerous situation or catch the early symptoms of heat-related illness in children.

“Children are not little adults,” said Dr. Aaron Bernstein, a pediatric hospitalist at Boston Children’s Hospital. 

Jan Null, a meteorologist in California, recalled being surprised at the effect of heat in a car. It was 86 degrees on a July afternoon more than 2 decades ago when an infant in San Jose was forgotten in a parked car and died of heatstroke.

Mr. Null said a reporter asked him after the death, “How hot could it have gotten in that car?”

Mr. Null’s research with two emergency doctors at Stanford University eventually produced a startling answer. Within an hour, the temperature in that car could have exceeded 120 degrees Fahrenheit. Their work revealed that a quick errand can be dangerous for a child left behind in the car – even for less than 15 minutes, even with the windows cracked, and even on a mild day.

As record heat becomes more frequent, posing serious risks even to healthy adults, the number of cases of heat-related illnesses has gone up, including among children. Those most at risk are young children in parked vehicles and adolescents returning to school and participating in sports during the hottest days of the year.

More than 9,000 high school athletes are treated for heat-related illnesses every year.

Heat-related illnesses occur when exposure to high temperatures and humidity, which can be intensified by physical exertion, overwhelms the body’s ability to cool itself. Cases range from mild, like benign heat rashes in infants, to more serious, when the body’s core temperature increases. That can lead to life-threatening instances of heatstroke, diagnosed once the body temperature rises above 104 degrees, potentially causing organ failure.

Prevention is key. Experts emphasize that drinking plenty of water, avoiding the outdoors during the hot midday and afternoon hours, and taking it slow when adjusting to exercise are the most effective ways to avoid getting sick.

Children’s bodies take longer to increase sweat production and otherwise acclimatize in a warm environment than adults’ do, research shows. Young children are more susceptible to dehydration because a larger percentage of their body weight is water.

Infants and younger children have more trouble regulating their body temperature, in part because they often don’t recognize when they should drink more water or remove clothing to cool down. A 1995 study showed that young children who spent 30 minutes in a 95-degree room saw their core temperatures rise significantly higher and faster than their mothers’ – even though they sweat more than adults do relative to their size.

Pediatricians advise caretakers to monitor how much water children consume and encourage them to drink before they ask for it. Thirst indicates the body is already dehydrated.

They should dress children in light-colored, lightweight clothes; limit outdoor time during the hottest hours; and look for ways to cool down, such as by visiting an air-conditioned place like a library, taking a cool bath, or going for a swim.

To address the risks to student athletes, the National Athletic Trainers’ Association recommends that high school athletes acclimatize by gradually building their activity over the course of 2 weeks when returning to their sport for a new season – including by slowly stepping up the amount of any protective equipment they wear.

“You’re gradually increasing that intensity over a week to 2 weeks so your body can get used to the heat,” said Kathy Dieringer, president of NATA.
 

Warning signs and solutions

Experts note a flushed face, fatigue, muscle cramps, headache, dizziness, vomiting, and a lot of sweating are among the symptoms of heat exhaustion, which can develop into heatstroke if untreated. A doctor should be notified if symptoms worsen, such as if the child seems disoriented or cannot drink.

Taking immediate steps to cool a child experiencing heat exhaustion or heatstroke is critical. The child should be taken to a shaded or cool area; be given cool fluids with salt, like sports drinks; and have any sweaty or heavy garments removed.

For adolescents, being submerged in an ice bath is the most effective way to cool the body, while younger children can be wrapped in cold, wet towels or misted with lukewarm water and placed in front of a fan.

Although children’s deaths in parked cars have been well documented, the tragic incidents continue to occur. According to federal statistics, 23 children died of vehicular heatstroke in 2021. Mr. Null, who collects his own data, said 13 children have died so far this year.

Caretakers should never leave children alone in a parked car, Mr. Null said. Take steps to prevent young children from entering the car themselves and becoming trapped, including locking the car while it’s parked at home.

More than half of cases of vehicular pediatric heatstroke occur because a caretaker accidentally left a child behind, he said. While in-car technology reminding adults to check their back seats has become more common, only a fraction of vehicles have it, requiring parents to come up with their own methods, like leaving a stuffed animal in the front seat.

The good news, Mr. Null said, is that simple behavioral changes can protect youngsters. “This is preventable in 100% of the cases,” he said.
 

A lopsided risk

People living in low-income areas fare worse when temperatures climb. Access to air conditioning, which includes the ability to afford the electricity bill, is a serious health concern.

A study of heat in urban areas released last year showed that low-income neighborhoods and communities of color experience much higher temperatures than those of wealthier, White residents. In more impoverished areas during the summer, temperatures can be as much as 7 degrees Fahrenheit warmer.

The study’s authors said their findings in the United States reflect that “the legacy of redlining looms large,” referring to a federal housing policy that refused to insure mortgages in or near predominantly Black neighborhoods.

“These areas have less tree canopy, more streets, and higher building densities, meaning that in addition to their other racist outcomes, redlining policies directly codified into law existing disparity in urban land use and reinforced urban design choices that magnify urban heating into the present,” they concluded.

Dr. Bernstein, who leads Harvard’s Center for Climate, Health, and the Global Environment, coauthored a commentary in JAMA arguing that advancing health equity is critical to action on climate change.

The center works with front-line health clinics to help their predominantly low-income patients respond to the health impacts of climate change. Federally backed clinics alone provide care to about 30 million Americans, including many children, he said.

Dr. Bernstein also recently led a nationwide study that found that from May through September, days with higher temperatures are associated with more visits to children’s hospital emergency rooms. Many visits were more directly linked to heat, although the study also pointed to how high temperatures can exacerbate existing health conditions such as neurological disorders.

“Children are more vulnerable to climate change through how these climate shocks reshape the world in which they grow up,” Dr. Bernstein said.

Helping people better understand the health risks of extreme heat and how to protect themselves and their families are among the public health system’s major challenges, experts said.

The National Weather Service’s heat alert system is mainly based on the heat index, a measure of how hot it feels when relative humidity is factored in with air temperature.

But the alerts are not related to effects on health, said Kathy Baughman McLeod, director of the Adrienne Arsht-Rockefeller Foundation Resilience Center. By the time temperatures rise to the level that a weather alert is issued, many vulnerable people – like children, pregnant women, and the elderly – may already be experiencing heat exhaustion or heatstroke.

The center developed a new heat alert system, which is being tested in Seville, Spain, historically one of the hottest cities in Europe.

The system marries metrics such as air temperature and humidity with public health data to categorize heat waves and, when they are serious enough, give them names – making it easier for people to understand heat as an environmental threat that requires prevention measures.

The categories are determined through a metric known as excess deaths, which compares how many people died on a day with the forecast temperature versus an average day. That may help health officials understand how severe a heat wave is expected to be and make informed recommendations to the public based on risk factors such as age or medical history.

The health-based alert system would also allow officials to target caretakers of children and seniors through school systems, preschools, and senior centers, Ms. Baughman McLeod said.

Giving people better ways to conceptualize heat is critical, she said.

“It’s not dramatic. It doesn’t rip the roof off of your house,” Ms. Baughman McLeod said. “It’s silent and invisible.”

KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

After more than a week of record-breaking temperatures across much of the country, public health experts are cautioning that children are more susceptible to heat illness than adults are – even more so when they’re on the athletic field, living without air conditioning, or waiting in a parked car.

Cases of heat-related illness are rising with average air temperatures, and experts say almost half of those getting sick are children. The reason is twofold: Children’s bodies have more trouble regulating temperature than do those of adults, and they rely on adults to help protect them from overheating.

Parents, coaches, and other caretakers, who can experience the same heat very differently from the way children do, may struggle to identify a dangerous situation or catch the early symptoms of heat-related illness in children.

“Children are not little adults,” said Dr. Aaron Bernstein, a pediatric hospitalist at Boston Children’s Hospital. 

Jan Null, a meteorologist in California, recalled being surprised at the effect of heat in a car. It was 86 degrees on a July afternoon more than 2 decades ago when an infant in San Jose was forgotten in a parked car and died of heatstroke.

Mr. Null said a reporter asked him after the death, “How hot could it have gotten in that car?”

Mr. Null’s research with two emergency doctors at Stanford University eventually produced a startling answer. Within an hour, the temperature in that car could have exceeded 120 degrees Fahrenheit. Their work revealed that a quick errand can be dangerous for a child left behind in the car – even for less than 15 minutes, even with the windows cracked, and even on a mild day.

As record heat becomes more frequent, posing serious risks even to healthy adults, the number of cases of heat-related illnesses has gone up, including among children. Those most at risk are young children in parked vehicles and adolescents returning to school and participating in sports during the hottest days of the year.

More than 9,000 high school athletes are treated for heat-related illnesses every year.

Heat-related illnesses occur when exposure to high temperatures and humidity, which can be intensified by physical exertion, overwhelms the body’s ability to cool itself. Cases range from mild, like benign heat rashes in infants, to more serious, when the body’s core temperature increases. That can lead to life-threatening instances of heatstroke, diagnosed once the body temperature rises above 104 degrees, potentially causing organ failure.

Prevention is key. Experts emphasize that drinking plenty of water, avoiding the outdoors during the hot midday and afternoon hours, and taking it slow when adjusting to exercise are the most effective ways to avoid getting sick.

Children’s bodies take longer to increase sweat production and otherwise acclimatize in a warm environment than adults’ do, research shows. Young children are more susceptible to dehydration because a larger percentage of their body weight is water.

Infants and younger children have more trouble regulating their body temperature, in part because they often don’t recognize when they should drink more water or remove clothing to cool down. A 1995 study showed that young children who spent 30 minutes in a 95-degree room saw their core temperatures rise significantly higher and faster than their mothers’ – even though they sweat more than adults do relative to their size.

Pediatricians advise caretakers to monitor how much water children consume and encourage them to drink before they ask for it. Thirst indicates the body is already dehydrated.

They should dress children in light-colored, lightweight clothes; limit outdoor time during the hottest hours; and look for ways to cool down, such as by visiting an air-conditioned place like a library, taking a cool bath, or going for a swim.

To address the risks to student athletes, the National Athletic Trainers’ Association recommends that high school athletes acclimatize by gradually building their activity over the course of 2 weeks when returning to their sport for a new season – including by slowly stepping up the amount of any protective equipment they wear.

“You’re gradually increasing that intensity over a week to 2 weeks so your body can get used to the heat,” said Kathy Dieringer, president of NATA.
 

Warning signs and solutions

Experts note a flushed face, fatigue, muscle cramps, headache, dizziness, vomiting, and a lot of sweating are among the symptoms of heat exhaustion, which can develop into heatstroke if untreated. A doctor should be notified if symptoms worsen, such as if the child seems disoriented or cannot drink.

Taking immediate steps to cool a child experiencing heat exhaustion or heatstroke is critical. The child should be taken to a shaded or cool area; be given cool fluids with salt, like sports drinks; and have any sweaty or heavy garments removed.

For adolescents, being submerged in an ice bath is the most effective way to cool the body, while younger children can be wrapped in cold, wet towels or misted with lukewarm water and placed in front of a fan.

Although children’s deaths in parked cars have been well documented, the tragic incidents continue to occur. According to federal statistics, 23 children died of vehicular heatstroke in 2021. Mr. Null, who collects his own data, said 13 children have died so far this year.

Caretakers should never leave children alone in a parked car, Mr. Null said. Take steps to prevent young children from entering the car themselves and becoming trapped, including locking the car while it’s parked at home.

More than half of cases of vehicular pediatric heatstroke occur because a caretaker accidentally left a child behind, he said. While in-car technology reminding adults to check their back seats has become more common, only a fraction of vehicles have it, requiring parents to come up with their own methods, like leaving a stuffed animal in the front seat.

The good news, Mr. Null said, is that simple behavioral changes can protect youngsters. “This is preventable in 100% of the cases,” he said.
 

A lopsided risk

People living in low-income areas fare worse when temperatures climb. Access to air conditioning, which includes the ability to afford the electricity bill, is a serious health concern.

A study of heat in urban areas released last year showed that low-income neighborhoods and communities of color experience much higher temperatures than those of wealthier, White residents. In more impoverished areas during the summer, temperatures can be as much as 7 degrees Fahrenheit warmer.

The study’s authors said their findings in the United States reflect that “the legacy of redlining looms large,” referring to a federal housing policy that refused to insure mortgages in or near predominantly Black neighborhoods.

“These areas have less tree canopy, more streets, and higher building densities, meaning that in addition to their other racist outcomes, redlining policies directly codified into law existing disparity in urban land use and reinforced urban design choices that magnify urban heating into the present,” they concluded.

Dr. Bernstein, who leads Harvard’s Center for Climate, Health, and the Global Environment, coauthored a commentary in JAMA arguing that advancing health equity is critical to action on climate change.

The center works with front-line health clinics to help their predominantly low-income patients respond to the health impacts of climate change. Federally backed clinics alone provide care to about 30 million Americans, including many children, he said.

Dr. Bernstein also recently led a nationwide study that found that from May through September, days with higher temperatures are associated with more visits to children’s hospital emergency rooms. Many visits were more directly linked to heat, although the study also pointed to how high temperatures can exacerbate existing health conditions such as neurological disorders.

“Children are more vulnerable to climate change through how these climate shocks reshape the world in which they grow up,” Dr. Bernstein said.

Helping people better understand the health risks of extreme heat and how to protect themselves and their families are among the public health system’s major challenges, experts said.

The National Weather Service’s heat alert system is mainly based on the heat index, a measure of how hot it feels when relative humidity is factored in with air temperature.

But the alerts are not related to effects on health, said Kathy Baughman McLeod, director of the Adrienne Arsht-Rockefeller Foundation Resilience Center. By the time temperatures rise to the level that a weather alert is issued, many vulnerable people – like children, pregnant women, and the elderly – may already be experiencing heat exhaustion or heatstroke.

The center developed a new heat alert system, which is being tested in Seville, Spain, historically one of the hottest cities in Europe.

The system marries metrics such as air temperature and humidity with public health data to categorize heat waves and, when they are serious enough, give them names – making it easier for people to understand heat as an environmental threat that requires prevention measures.

The categories are determined through a metric known as excess deaths, which compares how many people died on a day with the forecast temperature versus an average day. That may help health officials understand how severe a heat wave is expected to be and make informed recommendations to the public based on risk factors such as age or medical history.

The health-based alert system would also allow officials to target caretakers of children and seniors through school systems, preschools, and senior centers, Ms. Baughman McLeod said.

Giving people better ways to conceptualize heat is critical, she said.

“It’s not dramatic. It doesn’t rip the roof off of your house,” Ms. Baughman McLeod said. “It’s silent and invisible.”

KHN (Kaiser Health News) is a national newsroom that produces in-depth journalism about health issues. Together with Policy Analysis and Polling, KHN is one of the three major operating programs at KFF (Kaiser Family Foundation). KFF is an endowed nonprofit organization providing information on health issues to the nation.

Severe airway injuries are a “not infrequent” consequence after children swallow button batteries, which are commonly found in many household electronics, according to a systematic review published online in JAMA Otolaryngology–Head & Neck Surgery.

Most literature has focused on esophageal injury, but “the direct apposition of the esophagus to the trachea and recurrent laryngeal nerves also places these children at risk of airway injury, such as tracheoesophageal fistula (TEF) (a life-threatening complication), vocal cord paresis and paralysis, tracheal stenosis, and tracheomalacia,” the researchers wrote.

Led by Justine Philteos, MD, of the department of otolaryngology–head and neck surgery at the University of Toronto, the researchers found that tracheoesophageal fistula and vocal cord paralyses were the two most common airway injuries and often required tracheostomy.

The review included 195 children pulled from the National Capital Poison Center (NCPC) database – more often young children – who had ingested the batteries. The average age at ingestion was 17.8 months and the average time between ingestion and removal was 5.8 days.

Of the 195 children, 29 (15%) underwent tracheostomy, and 11 of the 29 children (38%) ultimately had decannulation. There were 14 deaths from swallowing the batteries. All 14 patients had a TEF. The cause of death was identified for 12 of the patients: Four died of pneumonia or respiratory failure; three of massive hematemesis; three of sepsis; one of multiorgan failure, and one of anoxic encephalopathy.

Vocal cord injury occurred after a shorter button battery exposure than other airway injuries.

The authors concluded that prioritizing quick button battery removal is essential “to decrease the devastating consequences of these injuries.”

In an invited commentary, Hannah Gibbs, and Kris R. Jatana, MD, of The Ohio State University in Columbus, described what’s being done to prevent and treat these injuries and what’s next.

They noted that ingestion is often unseen so diagnosis is difficult. Therefore, they wrote, a novel coin-battery metal detector could be a radiation-free, quick screening tool. They noted a patent-pending technology has been developed at Ohio State and Nationwide Children’s Hospital.

Honey can help slow injury

Some measures can be taken at home or in the hospital if battery swallowing is discovered, the editorialists noted.

In the home or in transport to the hospital, caregivers can give 10 mL of honey every 10 minutes until arrival if the child is older than 12 months.

At the hospital, 10 mL of either honey or sucralfate may be given every 10 minutes to slow the rate of injury until the battery can be surgically removed.

“The current NCPC guidelines suggest up to six doses may be given in the prehospital setting, with three additional doses administered in the hospital,” they wrote.

“These strategies should be considered earlier than 12 hours from ingestion, when there is no clinical concern for mediastinitis or sepsis. A child with an esophageal button battery should proceed to the operating room immediately regardless of whether he or she has recently eaten,” Ms. Gibbs and Dr. Jatana wrote.
 

App adds convenience to boost physician reporting

Foreign body ingestions are also severely underreported, they noted. They cited a survey of more than 400 physicians who directly manage foreign body ingestions that found only 11% of button battery injuries and 4% of all foreign body ingestion or aspiration events were reported. The great majority (92%) of respondents said they would report the events if that were more convenient.

To that end, the Global Injury Research Collaborative (GIRC) has created and released a free smartphone application, the GIRC App. It is available free on the iOS system (through App Store) and soon will be available on the Android system (through Google Play), they wrote.

Ms. Gibbs and Dr. Jatana urge other measures, including safer battery compartments and battery design, to reduce the likelihood of ingestion.

They pointed out that a bill was introduced in Congress that would require the Consumer Product Safety Commission to mandate a new standard for child-resistant compartments on products containing button batteries. The act, called Reese’s Law, has been referred to the Committee on Energy and Commerce and is under review.

Dr. Jatana reported having a patent pending for a coin or battery metal detector device under development; being a shareholder in Zotarix, Landsdowne Labs, and Tivic Health Systems; serving in a leadership position on the National Button Battery Task Force; and being a board member of the Global Injury Research Collaborative, which is a U.S. Internal Revenue Service–designated, 501(c)(3) nonprofit research organization. No other relevant disclosures were reported.

Severe airway injuries are a “not infrequent” consequence after children swallow button batteries, which are commonly found in many household electronics, according to a systematic review published online in JAMA Otolaryngology–Head & Neck Surgery.

Most literature has focused on esophageal injury, but “the direct apposition of the esophagus to the trachea and recurrent laryngeal nerves also places these children at risk of airway injury, such as tracheoesophageal fistula (TEF) (a life-threatening complication), vocal cord paresis and paralysis, tracheal stenosis, and tracheomalacia,” the researchers wrote.

Led by Justine Philteos, MD, of the department of otolaryngology–head and neck surgery at the University of Toronto, the researchers found that tracheoesophageal fistula and vocal cord paralyses were the two most common airway injuries and often required tracheostomy.

The review included 195 children pulled from the National Capital Poison Center (NCPC) database – more often young children – who had ingested the batteries. The average age at ingestion was 17.8 months and the average time between ingestion and removal was 5.8 days.

Of the 195 children, 29 (15%) underwent tracheostomy, and 11 of the 29 children (38%) ultimately had decannulation. There were 14 deaths from swallowing the batteries. All 14 patients had a TEF. The cause of death was identified for 12 of the patients: Four died of pneumonia or respiratory failure; three of massive hematemesis; three of sepsis; one of multiorgan failure, and one of anoxic encephalopathy.

Vocal cord injury occurred after a shorter button battery exposure than other airway injuries.

The authors concluded that prioritizing quick button battery removal is essential “to decrease the devastating consequences of these injuries.”

In an invited commentary, Hannah Gibbs, and Kris R. Jatana, MD, of The Ohio State University in Columbus, described what’s being done to prevent and treat these injuries and what’s next.

They noted that ingestion is often unseen so diagnosis is difficult. Therefore, they wrote, a novel coin-battery metal detector could be a radiation-free, quick screening tool. They noted a patent-pending technology has been developed at Ohio State and Nationwide Children’s Hospital.

Honey can help slow injury

Some measures can be taken at home or in the hospital if battery swallowing is discovered, the editorialists noted.

In the home or in transport to the hospital, caregivers can give 10 mL of honey every 10 minutes until arrival if the child is older than 12 months.

At the hospital, 10 mL of either honey or sucralfate may be given every 10 minutes to slow the rate of injury until the battery can be surgically removed.

“The current NCPC guidelines suggest up to six doses may be given in the prehospital setting, with three additional doses administered in the hospital,” they wrote.

“These strategies should be considered earlier than 12 hours from ingestion, when there is no clinical concern for mediastinitis or sepsis. A child with an esophageal button battery should proceed to the operating room immediately regardless of whether he or she has recently eaten,” Ms. Gibbs and Dr. Jatana wrote.
 

App adds convenience to boost physician reporting

Foreign body ingestions are also severely underreported, they noted. They cited a survey of more than 400 physicians who directly manage foreign body ingestions that found only 11% of button battery injuries and 4% of all foreign body ingestion or aspiration events were reported. The great majority (92%) of respondents said they would report the events if that were more convenient.

To that end, the Global Injury Research Collaborative (GIRC) has created and released a free smartphone application, the GIRC App. It is available free on the iOS system (through App Store) and soon will be available on the Android system (through Google Play), they wrote.

Ms. Gibbs and Dr. Jatana urge other measures, including safer battery compartments and battery design, to reduce the likelihood of ingestion.

They pointed out that a bill was introduced in Congress that would require the Consumer Product Safety Commission to mandate a new standard for child-resistant compartments on products containing button batteries. The act, called Reese’s Law, has been referred to the Committee on Energy and Commerce and is under review.

Dr. Jatana reported having a patent pending for a coin or battery metal detector device under development; being a shareholder in Zotarix, Landsdowne Labs, and Tivic Health Systems; serving in a leadership position on the National Button Battery Task Force; and being a board member of the Global Injury Research Collaborative, which is a U.S. Internal Revenue Service–designated, 501(c)(3) nonprofit research organization. No other relevant disclosures were reported.

Severe airway injuries are a “not infrequent” consequence after children swallow button batteries, which are commonly found in many household electronics, according to a systematic review published online in JAMA Otolaryngology–Head & Neck Surgery.

Most literature has focused on esophageal injury, but “the direct apposition of the esophagus to the trachea and recurrent laryngeal nerves also places these children at risk of airway injury, such as tracheoesophageal fistula (TEF) (a life-threatening complication), vocal cord paresis and paralysis, tracheal stenosis, and tracheomalacia,” the researchers wrote.

Led by Justine Philteos, MD, of the department of otolaryngology–head and neck surgery at the University of Toronto, the researchers found that tracheoesophageal fistula and vocal cord paralyses were the two most common airway injuries and often required tracheostomy.

The review included 195 children pulled from the National Capital Poison Center (NCPC) database – more often young children – who had ingested the batteries. The average age at ingestion was 17.8 months and the average time between ingestion and removal was 5.8 days.

Of the 195 children, 29 (15%) underwent tracheostomy, and 11 of the 29 children (38%) ultimately had decannulation. There were 14 deaths from swallowing the batteries. All 14 patients had a TEF. The cause of death was identified for 12 of the patients: Four died of pneumonia or respiratory failure; three of massive hematemesis; three of sepsis; one of multiorgan failure, and one of anoxic encephalopathy.

Vocal cord injury occurred after a shorter button battery exposure than other airway injuries.

The authors concluded that prioritizing quick button battery removal is essential “to decrease the devastating consequences of these injuries.”

In an invited commentary, Hannah Gibbs, and Kris R. Jatana, MD, of The Ohio State University in Columbus, described what’s being done to prevent and treat these injuries and what’s next.

They noted that ingestion is often unseen so diagnosis is difficult. Therefore, they wrote, a novel coin-battery metal detector could be a radiation-free, quick screening tool. They noted a patent-pending technology has been developed at Ohio State and Nationwide Children’s Hospital.

Honey can help slow injury

Some measures can be taken at home or in the hospital if battery swallowing is discovered, the editorialists noted.

In the home or in transport to the hospital, caregivers can give 10 mL of honey every 10 minutes until arrival if the child is older than 12 months.

At the hospital, 10 mL of either honey or sucralfate may be given every 10 minutes to slow the rate of injury until the battery can be surgically removed.

“The current NCPC guidelines suggest up to six doses may be given in the prehospital setting, with three additional doses administered in the hospital,” they wrote.

“These strategies should be considered earlier than 12 hours from ingestion, when there is no clinical concern for mediastinitis or sepsis. A child with an esophageal button battery should proceed to the operating room immediately regardless of whether he or she has recently eaten,” Ms. Gibbs and Dr. Jatana wrote.
 

App adds convenience to boost physician reporting

Foreign body ingestions are also severely underreported, they noted. They cited a survey of more than 400 physicians who directly manage foreign body ingestions that found only 11% of button battery injuries and 4% of all foreign body ingestion or aspiration events were reported. The great majority (92%) of respondents said they would report the events if that were more convenient.

To that end, the Global Injury Research Collaborative (GIRC) has created and released a free smartphone application, the GIRC App. It is available free on the iOS system (through App Store) and soon will be available on the Android system (through Google Play), they wrote.

Ms. Gibbs and Dr. Jatana urge other measures, including safer battery compartments and battery design, to reduce the likelihood of ingestion.

They pointed out that a bill was introduced in Congress that would require the Consumer Product Safety Commission to mandate a new standard for child-resistant compartments on products containing button batteries. The act, called Reese’s Law, has been referred to the Committee on Energy and Commerce and is under review.

Dr. Jatana reported having a patent pending for a coin or battery metal detector device under development; being a shareholder in Zotarix, Landsdowne Labs, and Tivic Health Systems; serving in a leadership position on the National Button Battery Task Force; and being a board member of the Global Injury Research Collaborative, which is a U.S. Internal Revenue Service–designated, 501(c)(3) nonprofit research organization. No other relevant disclosures were reported.