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Safer Ventilation Strategies

28 Lug

Is This The End?

28 Giu

Do not move! Spinal immobilization or spinal motor restriction: the long-lasting debate from the Napoleonic Wars to 2024 SIMEU policy statement

Chest compressions in Traumatic CIRCULATORY Arrest

16 Giu
References

Time to trash proximal tibia and 15 mm IO needle in adult & paediatric cardiac arrest!

14 Mag

Reid C, Fogg T, Healy G. Deformation of a humeral intraosseous catheter due to positioning for thoracostomy. Clin Exp Emerg Med. 2018 Sep;5(3):208-209. doi: 10.15441/ceem.17.243. Epub 2018 Sep 30. PMID: 30269457; PMCID: PMC6166044.

Hamam MS, Klausner HA, France J, Tang A, Swor RA, Paxton JH, O’Neil BJ, Brent C, Neumar RW, Dunne RB, Reddi S, Miller JB. Prehospital Tibial Intraosseous Drug Administration is Associated with Reduced Survival Following Out of Hospital Cardiac Arrest: A study for the CARES Surveillance Group. Resuscitation. 2021 Oct;167:261-266. doi: 10.1016/j.resuscitation.2021.06.016. Epub 2021 Jul 5. PMID: 34237357.

Rayas EG, Winckler C, Bolleter S, Stringfellow M, Miramontes D, Shumaker J, Lewis A, Wampler D. Distal femur versus humeral or tibial IO, access in adult out of hospital cardiac resuscitation. Resuscitation. 2022 Jan;170:11-16. doi: 10.1016/j.resuscitation.2021.10.041. Epub 2021 Nov 5. PMID: 34748766.

Wang D, Deng L, Zhang R, Zhou Y, Zeng J, Jiang H. Efficacy of intraosseous access for trauma resuscitation: a systematic review and meta-analysis. World J Emerg Surg. 2023 Mar 14;18(1):17. doi: 10.1186/s13017-023-00487-7. PMID: 36918947; PMCID: PMC10012735.

Maxien D, Wirth S, Peschel O, Sterzik A, Kirchhoff S, Kreimeier U, Reiser MF, Mück FG. Intraosseous needles in pediatric cadavers: Rate of malposition. Resuscitation. 2019 Dec;145:1-7. doi: 10.1016/j.resuscitation.2019.09.028. Epub 2019 Oct 1. PMID: 31585187.

God save the King!

27 Giu

Matthew E. Prekker, M.D., M.P.H.,  Brian E. Driver, Video versus Direct Laryngoscopy for Tracheal Intubation of Critically Ill Adults

The DirEct versus VIdeo LaryngosCopE (DEVICE) trial is a prospective, multicentre, non-blinded, randomised trial being conducted in 7 EDs and 10 ICUs in the USA

Critically ill adults undergoing tracheal intubation randomly assigned to the video-laryngoscope group or the direct-laryngoscope group

The primary outcome was successful intubation on the first attempt.

The secondary outcome was the occurrence of severe complications during intubation: severe hypoxemia, severe hypotension, new or increased vasopressor use, cardiac arrest, or death.

The trial was stopped for efficacy at the time of the single preplanned interim analysis.

Conclusions: Among critically ill adults undergoing tracheal intubation in an emergency department or ICU, the use of a videolaryngoscope resulted in a higher incidence of successful intubation on the first attempt than the use of a direct laryngoscope.

Comment: This a long journey hopefully coming to an end. From 2022 we have clear evidences on the superiority of Video versus Direct laryngoscopy Hansel J, Rogers AM, Lewis SR, Cook TM, Smith AF. Videolaryngoscopy versus direct laryngoscopy for adults undergoing tracheal intubation. Cochrane Database Syst Rev. 2022 Apr 4;4(4):CD011136. doi: 10.1002/14651858.CD011136.pub3. PMID: 35373840; PMCID: PMC8978307.. Main airway management societies (Difficult Airway Society; Society for Airway Management; European Airway Management Society; All India Difficult Airway Society; Canadian Airway Focus Group; Safe Airway Society; and International Airway Management Society) recently updated their statements on preventing the accidental oesophageal intubation in that sense. Preventing unrecognised oesophageal intubation: a consensus guideline from the Project for Universal Management of Airways and international airway societies. The DEVICE trial is another brick in the wall of consciousness about superiority of VL vs DL despite some findings are not replicable ( ex. DL FPS 70,8%) in systems where airway management and expertise in DL is a longstanding tradition. But as said we didn’t need this trial to arrive at the conclusion of the journey.

Use the videolaryngoscope (VL) as first choice in emergent tracheal intubation to improve first passage success and prevent accidental oesophageal intubation.

Use direct laryngoscope (DL) just as rescue device in case of technical failure of the videolrayngoscope

All medical systems involved in airway management need to be aware of this. A videolaryngoscope is no longer an option but a standard equipment. The best choice is to have both, standard and hyperangulated geometry blades, in adult and paediatric sizes.

The first approach with a standard geometry blade permits to shift from VL to DL without changing device. The hyparangulated blade can be useful in selected cases even as first option..

We also consequently need to shift paradigm from classical way of teaching airway management, to a VL first approach as default method and simulating any tech failure during the practical training forcing the trainee to use the DL as rescue plan.

To let me know what is your opinion fill the survey at the link below:

VL first approach

Also read:

Don’t live me Breathless

28 Gen

Case presentation

You arrive on the scene of a motorbike accident. The driver, a 50 years old male, at your arrival is in “Pain” state with eyes closed and you can hear just a “snoring” sound coming from his mouth. His vitals are: NIMBP 80 over 50, HR 110, A quick primary survey reveal a low level of consciousness (eyes closed no finalised arms movement) with restored airway patency that after basic airway manoeuvres and O2 therapy (SaO2 goes to 95%) no signs of tension pneumo. A quick look to the pelvis and legs reveal a suspected “open book” lesion and a bilateral femoral fracture. No PMH is available at the moment.

Physiological response to shock

From the primary survey and vitals you can understand the patient is compensating a state of profound (hypovolemic) shock and consequent organ low perfusion with a sympathetic activation. Endogenous adrenergic mediators are trying to restore organ perfusion by vasoconstriction and increase in cardiac output.

First do not harm

Can we kill a patient destroying the physiologic response to shock?

The answer is YES! The need to protect airway performing a rapid pharmacological assisted airway management (RSI), can lead to bad consequences, destroying the physiological response to a state of profound shock.

All sedative, analgesic and anaesthetic drugs in fact antagonise and depress the sympathetic adrenergic response physiologically targeted to restore perfusion to vital organs.

First do not harm and choose minimal emodynamic impact type and dose of drugs to perform sedation. As we know (till now) the better choice are Ketamine and Etomidate with no clear evidences on which one is preferable. We for sure know that Ketamine can be dangerous in cathecolamine depleted patients and that this effect is dose dependent. So consider using a lower dose to reach dissociative threshold being conscious that can lead to a non ideal intubation condition.

Reanimate first intubate later (aka DSI)

After a dissociative dose of Ketamine, our next clinical target is to reanimate the patient form an oxygenation and/or an organ perfusion point of view.

So we shift from a concept of Rapid Sequence Intubation to a more comprehensive plan of Delayed Sequence Airway Management. Delayed (Ketamine/Etomidate induced) to get time and reanimate, Airway Management intended as any plan (tracheal intubation, supraglottic airway) we can apply in that specific patient in the middle of the road or in other prehospital scenarios.

A properly performed pre-oxygenation with the adjunct of apneic oxygenation can restore O2 levels giving us also a good reserve for following apnea times.

Cautelative fluid administration (avoid fluids in trauma, use BLOOD) and, push dose (Epinephrine, Phenilephrine) or continuous infusion (Norepinephrine) vasopressors, can restore perfusion to abdominal and extra abdominal organs by increasing circulating volume and cardiac performance (Alfa and Beta agonist ).

Delayed paralytic administration give us the time to perform a proper reanimation reanimation and to check the effects of our interventions.

If everything goes well and the patient’s oxygenation and emodynamic state is compensated, we can administer paralytic, and go straight to perform tracheal intubation.

But if the patient remains uncompensated despite all our efforts to correct the potentially lethal cause, our last weapon can be to preserve spontaneous breathing.

Don’t live me breathless

WHY? During inspiratory phase of respiratory cycle the negative intrathoracic pressure favourites venous return and increase the telediastolic volume of the left ventricle. The augmented left ventricle end diastolic pressure (LVEDP) according to Frank-Starling law improves myocardial performance increasing stroke volume and consequently cardiac output.

The refractory shocked patient is heavily preload dependent and suppressing the inspiratory drive risk to worsen the already dramatic emodynamic state taking him on the irreversible part of the shock curve.

We’ve got a plan

We need to have a plan for high difficult physiological airways. This is just a small residual percentage of the airways we manage in our clinical practice, but can be dramatically catastrophic when we deal with those patients without a precise plan.

We’ve got a backup plan

But when intubation fails we need to have a backup plan!

Case conclusion

You understand the need to protect patient’s airways but also the extreme physiologic difficulty of this airway.

After administering a dissociative dose of Ketamine, due to the failure of any try to restore perfusion, you decide to perform a DISSOCIATIVE INTUBATION using a videolaryngoscope with a hyperangulated blade and a bougie, AVOIDING PARALYSIS.

Then you put the patient on ACV mechanical ventilation targeting a TV of 6 ml/kg and considering a “zero PEEP” strategy.

Special Thanks to Scott Weingart and Jim DuCanto for the kindness and fundamental mentorship on inspiring and peer reviewing the algorithm

References

Brian E. Driver, Matthew E. Prekker, Robert F. Reardon, Benjamin J. Sandefur, Michael D. April, Ron M. Walls, Calvin A. Brown,
Success and Complications of the Ketamine-Only Intubation Method in the Emergency Department,
The Journal of Emergency Medicine

Weingart SD, Trueger NS, Wong N, Scofi J, Singh N, Rudolph SS. Delayed sequence intubation: a prospective observational study. Ann Emerg Med. 2015 Apr;65(4):349-55. doi: 10.1016/j.annemergmed.2014.09.025. Epub 2014 Oct 23. PMID: 25447559.

Merelman AH, Perlmutter MC, Strayer RJ. Alternatives to Rapid Sequence Intubation: Contemporary Airway Management with Ketamine. West J Emerg Med. 2019 May;20(3):466-471. doi: 10.5811/westjem.2019.4.42753. Epub 2019 Apr 26. PMID: 31123547; PMCID: PMC6526883.

Ko BS, Ahn R, Ryoo SM, et al. Prevalence and outcomes of endotracheal intubation–related cardiac arrest in the ED. Am J Emerg Med. 2015;33(11):1642-5.

Mort TC. Complications of emergency tracheal intubation: hemodynamic alterations – part I. J Intensive Care Med. 2007;22(3):157-65.

Jarvis JL, Gonzales J, Johns D, et al. Implementation of a clinical bundle to reduce out-of-pospital peri-intubation hypoxia. Ann Emerg Med.2018;72(3):272-279.e1.

Roantree RAG, Goldstein S. (2018). EMS, Facilitated Intubation Without 36.Paralytics. Treasure Island, Florida: StatPearls Publishing.

Braude D, Palomo O, Beamsley A. Sedation only intubation. EM:RAP. 39.2013.

Miller M, Kruit N, Heldreich C, et al. Hemodynamic response afterrapid sequence induction with ketamine in out-of-hospital patients 50. at risk of shock as defined by the shock index. Ann Emerg Med. 2016;68(2):181-8.e2.

Beyond Guidelines: what’s new in OCHA management

6 Set

Chest compressions alternate to abdominal compression–decompression technique

Background

The abdominal compression–decompression technique is based on an “abdominal pump” model, which induces pressure changes within the abdominal cavity and promotes the return of blood from the abdominal cavity to fill the heart and be eventually pumped to the brain. A combination of abdominal compression–decompression and chest compression was previously shown to increase the venous refilling of the heart, which could generate increased coronary perfusion pressure and increase blood flow to vital organs . With this combination method, chest release during abdominal compression leads to increased venous return to the thorax by negative intrathoracic pressure. Moreover, abdominal decompression during chest compression may lead to increased blood flow via decreased afterload. In myocardial blood flow, a better 48-h outcome was documented with the combination method compared with STD-CPR

The study

Evaluation of abdominal compression– decompression combined with chest compression CP9R performed by a new device: Is the prognosis improved after this combination CPR technique?

This study was performed in China. It’s a single center, randomised, not blinded study.

The study aimed to compare the outcomes of standard cardiopulmonary resuscitation (STD- CPR) and combined chest compression and abdominal compression–decompression cardiopulmonary resuscitation (CO-CPR) following out-of-hospital cardiac arrest (OHCA).

Primary outcome ROSC. Secondary outcome hospital admission, hospital discharge and neurological outcome at hospital discharge.

Results

ROSC and survival to hospital admission: no statistical benefit

Survival at hospital discharge and neurological outcome: CO-CPR had statistical significant better outcome respect STD-CPR

Limitations

Single center, small sample size, no evaluation of possible abdominal injuries.

Bottom line

For prehospital use of combined chest compression and abdominal compression–decompression cardiopulmonary resuscitation we have first of all to account the need of an additional rescuer to perform abdominal compression-decompression. By the way the alternate chest/abdominal compression-decompression method is promising even if we need larger multicenter randomised trial for a more consistent evaluation of its efficacy.

Head and thorax elevation during cardiopulmonary resuscitation

Background

Gradual elevation of the head and thorax enhances venous return from the head and neck to the thorax and further lowers intracranial pressure. This automated controlled elevation (ACE) CPR strategy consists of: (1) manual active compression decompression (ACD)-CPR and/or suction cup-based automated (LUCAS 3) CPR; (2) an impedance threshold device (ITD); and (3) an automated controlled head and thorax patient positioning device (APPD).

The study

Head and thorax elevation during cardiopulmonary resuscitation using circulatory adjuncts is associated with improved survival

Observational, prospective study. The Objectives of the study was to assess the probability of OHCA survival to hospital discharge after ACE-CPR versus C-CPR. ACE-CPR data were collected from a dedicated registry implemented by 10 EMS Agencies. Conventional (C) CPR data were collected from 3 large historical randomized controlled OHCA resuscitation trials.

NB: for ACE-CPR only 6/10 agencies data were evaluated.

The primary outcome was survival to hospital discharge. Secondary outcomes included ROSC at any time, and survival to hospital dis- charge with favorable neurological function.

Results

Cumulative results on primary and secondary outcome before taking into consideration the time from 911 call to ACE-CPR were not statistically significative differences. The statistical significance of ACE-CPR was reached only when time from 911 call to ACE-CPR initiation was considered.

Limitations

Observational study. Participating personnel form EMS agencies were highly motivated about ACE-CPR. 165 patients excluded with no clear explanation (generally didn’t meet inclusion criteria) from 4 EMS participating agencies. Statistical significance on primary and secondary outcome was reached after surrogate secondary analysis that considered time form 911 call to ACE-CPR start.

Bottom line

There are still insufficient historical data to understand the benefit of automated controlled elevation (ACE) CPR and this study doesn’t clear any doubt about it’s efficacies on clinical oriented outcomes.

Aortic occlusion during cardiac arrest. Mechanical adrenaline?

Background

Thoracic aortic occlusion during chest compressions limits the vascular bed for the generated cardiac output. This may increase the aortic pressure and subsequently the coronary perfusion pressure (CPP).

The coronary perfusion pressure (CPP), the pressure gradient between the aorta and right atrium, is a major determinant of the myocardial blood flow. Consequently, generating a high CPP by providing high-quality chest compression during CPR is one of the most critical factors for achieving ROSC in cardiac arrest patients.

It is uncontroversial to state that the desired effect of adrenaline in CPR is the potential increase in CPP. The potential detrimental effects of adrenaline, such as decreased cerebral blood flow, increased myocardial oxygen consumption or recurrent ventricular tachycardias after ROSC, is yet to be found with REBOA. However, adverse effects of REBOA are not reported in the limited human data published, nor has this been an endpoint in the studies conducted so far.

The study

Resuscitative endovascular occlusion of the aorta (REBOA) as a mechanical method for increasing the coronary perfusion pressure in non-traumatic out-of-hospital cardiac arrest patients

This is a pilot study. The aim of the study was to calculate the CPP before and after REBOA balloon inflation. EtCO2 and median aortic pressure before and after balloon inflating were also measured.

Results

CPP, MAP and EtCO2 significative increased after REBOA placement in Zone 1 and balloon inflation

Limitations

Single center, small numbers, need of a large number of operators to insert the REBOA and to obtain the measurements.

Bottom line

REBOA in Cardiac Arrest is potentially useful to increase CPP and less dangerous than epinephrine administration.

It’s feasibility in emergency (in-hospital and out of hospital) settings in a timely manner and with a small number of medical personnel needs to be demonstrated.

By Mario Rugna

In case of oesophageal intubation

19 Ago

Just published Preventing unrecognised oesophageal intubation: a consensus guideline from the Project for Universal Management of Airways and international airway societies

Thanks to a prestigious panel of international authors. Great job and definitely solid indication about how to prevent and recognise accidental oesophageal intubation.

Just some of the key recommendations

  • Exhaled carbon dioxide monitoring and pulse oximetry should be available and used for all episodes of airway management.
  • Routine use of a videolaryngoscope is recommended whenever feasible.
  • Inability to detect sustained exhaled carbon dioxide requires oesophageal intubation to be actively excluded.
  • Tube removal should be undertaken if any of the following are true:
    • Oesophageal placement cannot be excluded
    • Sustained exhaled carbon dioxide cannot be restored
    • Oxygen saturation deteriorates at any point before restoring sustained exhaled carbon dioxide

Refer to the full text guidelines for more.
Here is the link to Safe Airway Society livestream event.
Must read, must follow. Free open access.

Let’s go outside

The following are personal considerations on peculiar aspects about management of accidental oesophageal intubation in prehospital environment and come from my personal clinical experience.

Beware they are just personal considerations and practical tricks and tips and are not intended to substitute the above guidelines. 

They are intended to suggest an alternative mental and technical approach when dealing with oesophageal intubation on uncontrolled patients in difficult environment.

Some general considerations

  1. Prehospital uncontrolled patients are not on empty stomach so are at high risk of regurgitation/inhalation
  2. Even few ventilation efforts in case of oesophageal intubation pone the patient at high risk of regurgitation/inhalation 
  3. Suctioning in prehospital setting is not always ready avalliate (mind your environment) or maximally performant (mind your equipment) 
  4. First attempt in prehospital setting must be always the best one. Think before trying a second attempt in case of failure. Implement your plan or change plan.
  5. Apply the Indication, Suitability, Feasibility approach while supporting oxygenation, ventilation and protection.

DO NOT REMOVE THE OT TUBE STRAIGHT FORWARD IN CASE OF ACCIDENTAL OESOPHAGEAL INTUBATION IN PREHOSPITAL ENVIRONMENT.

The way I like it. The way I do it.

  1. Live the “oesophageal” OT tube in (overcuffed) and if it’s possible apply a continuous suctioning to exclude the oesophagus and protect the airways 
  2. Place a SGA to restore oxygenation and ventilation (trough BMV or NIV)
  3. After restoring oxygenation (SaO2 >94%) and ventilation (EtCO2 40 mmHg) if suitable and feasible (see below) proceed to a second attempt of tracheal intubation (must be videolaryngoscope+bougie)
  4. If the second attempt succeeds remove the “oesophageal” OT
  5. If the second attempt is not suitable or feasible transport to nearest hospital (patient is well oxygenated and ventilated via SGA and protected via oesophageal exclusion) for further stabilisation (you can replace the oesophageal OT tube with a large bore oro-gastric tube or insert the orogastric tube trough the SGA dedicated channel)
  6. If you can’t restore oxygenation and ventilation via SGA or you can’t place a SGA remove the oesophageal OT tube and try to oxygenate and ventilate (remember patient is not protected) via BVM and NC (double oxygenation) 
  7. If even BVM fails declare CICO 
Suitability 
  • Do I have a plan to implement regarding the  first attempt
  • Can I improve my environment (Setting) moving the patient to a more comfortable place/position 
  • Is the time to nearest hospital short/long 
Feasibility 
  • Am I in the right mental mood after 1st attempt (me) to try a better second one
  • Is my team ready for a second attempt (team) 
  • Do I have the right equipment to implement my second attempt (Equipment)

The visual algorithm

The Video

By Mario Rugna
Video

2 Minutes Advanced Airways

14 Feb

There is a crazy guy on the street!

10 Gen

An original post by Mario Rugna

With the peer review and determinant inspiration of Minh Le Cong

Prehospital professionals dealing with acute agitated patients are always challenging all their clinical and non clinical skills at maximum levels. You need to deal with the patient, the bystanders and the law enforcement people trying to manage in the best way possible a social and clinical emergency.

Understanding if the patient is acutely intoxicated, psychiatrically decompensated (or both) is the first quick challenge we face. Clinical history, physical examination are not always possible so mostly of the times we have to guess based on our gestalt, clinical and non clinical experience.

What kind of patient I expect to find? Basically there is the sociopath agitated but collaborative, the agitated non collaborative but not dangerous (for himself and the others) the agitated non collaborative and highly dangerous. This is not a schematic and alway applicable definition but can help to understand how to gradually approach those kind of emergencies.

Alternative diagnosis

Consider alternative diagnosis:

Infections

  • Lung 
  • Urinary
  • Brain
  • Sepsi

Metabolic/toxic

  • Ipoglicemia
  • Alcol
  • Drugs psychoactive substances
  • Electrolytes

Neurologic

  • Stroke or Tia
  • Seizure or post critical state
  • SAH
  • Intracranial
  • Brain tumor
  • Subdural emorrhage

Cardipulmonary

  • Cardiac
  • Ischemia
  • PE

Drug abuse

  • Anticholinergic
  • Sedatives
  • Opioids

Risk Score and patient assessment.

Grade and scale the level of agitation

Patient Category Risk Score

Consider the risk to administer a sedative to a morbid agitated patient

Mental Risk Assessment and Patient Risk Score

Consider the level of agitation and the sedative/anaesthetic administration risk

Surviving Sedation Guidelines 2017
Authorship : Dr Minh Le Cong, Dr Andy Buck, Dr George Douros, Dr Casey Parker, Dr Tim Leeuwenberg,

Agitated and collaborative

Use your non clinical skills, use humanity. Mostly of the times talking and trying to understand what is the problem is already a solution. Cigarettes and coffe helps more than police and drugs.

Agitated non collaborative non dangerous

You have time to de-escalate, it’s not an emergency. Try to enter behind the patients psychological self-defences. Here some tips on de-escalation techniques:

  • RESPECT PERSONAL SPACE
  • DO NOT BE PROVOCATIVE
  • ESTABILISH VERBAL CONTACT
  • BE CONCISE
  • IDENTIFY WANTS AND FEELINGS
  • LISTEN CLOSELY TO WHAT PATIENT SAYNG
  • AGREE OR AGREE TO DISAGREE
  • LAY DOWN THE LAW AND SET CLEAR LIMITS
  • OFFER CHOICES AND OPTIMISM
  • DEBRIEF THE PATIENT AND STAFF

Is not an emergency but you are an emergency medical service! Your time is precious and is non endless. When words and non clinical skills are not enough you need to use your pharmacological weapons.

IM (intramuscular) is the favourite route to administer drugs cause is fast, effective easily and widely accessible .

IN (intranasal) is fast effective but most of the times is not reliable and widely accessible.

Last chance is IV (intravenous) that need more time to be placed and put at great danger the rescuers and the patient himself.

My receipt is a combination of Benzodiazepines and Antipsychotics to reach all the possible receptors in assuefatte patients and to minimise the doses of each one to reduce possible side effects.

MIDAZOLAM 5 MG IV, 10 MG IM

DROPERIDOL

5 MG IV, 10 MG IM

HALOPERIDOL 10 MG IV/IM

Agitated non collaborative and dangerous

Is a social and medical emergency! You need to act fast to protect patient and others and most of the time law enforcement need to apply a strong contention.

Highly agitated patients are physically and psychologically stressed and mostly of the times present a strong metabolic acidosis. When restraining them applying hypoxic measures (supine position, chest ore neck pressure, airway closure) we add respiratory acidosis and highly elevates the risk of mortality.

10-36% mortality

Learn how to restrain safely!

  • Avoid prone position
  • Avoid pressure on the chest
  • Avoid covering the agitated patient’s mouth and/or nose with a gloved hand
  • Lay the patient down in supine position
  • Immobilise one arm above the head and the other below the waist.
  • Use an oxygen mask to prevent the patient from spitting on staff

Favourite drug for this kind of patient is the one that doesn’t impact hemodinamyc and respiratory drive

KETAMINE 1 MG/KG IV, 4 MG/KG IM

Associating Ketamine with low dose Midazolam (0,03 mg/Kg) is a viable option.

Special conditions

Elderly agitated patients

  • Avoid Benzo for increased risk of respiratory depression and delirium
  • Best choice is Haloperidol (0,5 mg IM stating dose)
  • Start without low doses, tritrate (slowly) to desired effect

Alcohol intoxication

  • Alcohol intoxication is a high risk sedation.
  • Avoid Midazolam
  • Haloperidol or Droperidol are safest options but work slow for emergency situations.
  • In emergency give half dose IM ketamine ( 2mg/kg) then Haloperidol or Droperidol if needed.

RSI in agitated patients

  • Avoid succinylcholine because of potential side effects such as hyperkalemia, hyperthermia and acidemia.

Take Home Points

  1. Consider alternative diagnosis
  2. Grade and scale the level of agitation
  3. Consider the risk to administer a sedative
  4. Cross match risk and level of agitation
  • What kind of patient you are dealing with?
    • Agitated collaborative
    • Agitated non collaborative non dangerous
    • Agitated non collaborative dangerous
  • Agitated collaborative
    • Understand patients needs
    • Be nice
  • Agitated non collaborative non dangerous
    • Take your time
    • De-escalate
    • If still agitated sedate
    • Choose the most reliable administration route
      1. IM
      2. IV
      3. IN route is most of the times unreliable in emergent agitated patient
    • Combine drugs for best result
      • Midazolam
      • Haloperidol/Droperidol
  • Agitated non collaborative dangerous
    • Act fast
    • Protect patient during physical restraining
    • Avoid asfittic stimuluses
    • Sedate
      • Ketamine IM
      • Midazolam IM

Treat and Think

Acute Agitated Patient Grade/Risk Assessment/Treatment Scheme

References

  1. American College of Emergency Physicians White Paper Report on Excited Delirium Syndrome September 2009
  2. Gill JR. The syndrome of excited delirium. Forensic Sci Med Pathol 2014; 10:223-228.
  3. Vilke GM, Bozeman WP, Dawes DM et al. Excited Delirium Syndrome (EXDS); Treatment Options and Considerations. Journal of Forensic and Legal Medicine 2012; 19:117-121.
  4. Vilke GM, Payne-James J, Karch SB. “Excited delirium (ExDS): Redefining an old diagnosis. Journal of Forensic and Legal Medicine 2012; 19:7-11
  5. Hick JL, Smith S, Lynch MT. Metabolic acidosis in restraint-associated cardiac arrest: a case series. Academic Emergency Medicine 1999; 6(3):239-243.
  6. Dimsdale JE, Hartley LH, Guiney T et al. Post exercise peril – plasma catecholamines and exercise. JAMA 1984; 251(5): 630-632.
  7. Green SM, Roback MG, Kennedy RM, Krauss B. Clinical practice guideline for emergency department ketamine dissociative sedation: 2011 update. Annals of Emergency Medicine 2011; 57(5): 449-461.
  8. Vilke GM, DEBard ML, Chan TC et al. Excited Delirium Syndrome (EXDS): Defining based on a review of the literature. Journal of Emergency Medicine 2012; 43(5): 897-905.
  9. Chan EW, Taylor DM, Knott JC et al. Intravenous droperidol or olanzapine as an adjunct to midazolam for the acutely agitated patient: a multicenter, randomised, double blind, placebo controlled clinical trial. Ann Emerg Med 2013; 61:72-81.
  10. Ibister GK, Calver LA, Page CB et al. Randomised controlled trial of intramuscular droperidol versus midazolam for violence and acute behavioral disturbance: The DORM study. Ann Emerg Med 2010; 56:392 – 401.
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این سایت را به آن دکتوران و محصلین طب که شب و روز برای رفاه نوع انسان فداکاری می کنند ، جوانی و لذایذ زندگی را بدون چشمداشت به امتیاز و نفرین و آفرین قربان خدمت به بشر می کنند و بار سنگین خدمت و اصلاح را بدوش می کشند ، اهداء می کنم This site is dedicated to all Doctors and students that aver the great responsibility of People’s well-being upon their shoulders and carry on their onerous task with utmost dedication and Devotionاولین سایت و ژورنال انتــرنتی علـــمی ،تخـصصی ، پــژوهشــی و آمــوزشــی طبـــی در افغــانســـتان

EmergencyPedia

Free Open Access Medical Education

Little Medic

Learning everything I can from everywhere I can. This is my little blog to keep track of new things medical, paramedical and pre-hospital from a student's perspective.

Prehospital Emergency Medicine Blog

All you want to know about prehospital emergency medicine

Italy Customized Tour Operator in Florence

Check out our updated blog posts at https://www.italycustomized.it/blog

GoogleFOAM/FOAMSearch

The FOAM Search Engine

EM Lyceum

where everything is up for debate . . .

Pediatric EM Morsels

Pediatric Emergency Medicine Education

AmboFOAM

Free Open Access Medical Education for Paramedics

Rural Doctors Net

useful resources for rural clinicians

Auckland HEMS

Unofficial site for prehospital care providers of the Auckland HEMS service

ECHOARTE

L'ECOGRAFIA: ENTROPIA DELL'IMMAGINE

MEDEST

Prehospital Emergency Medicine

EM Basic

Your Boot Camp Guide to Emergency Medicine

KI Doc

WE HAVE MOVED - VISIT WWW.KIDOCS.ORG FOR NEW CONTENT

Emergency Live

Prehospital Emergency Medicine

AMP EM

Academic Medicine Pearls in Emergency Medicine from THE Ohio State University Residency Program

Prehospital Emergency Medicine

 Academic Life in Emergency Medicine

Prehospital Emergency Medicine

Comments on: Homepage

Prehospital Emergency Medicine

Greater Sydney Area HEMS

The Pre-Hospital & Retrieval Medicine Team of NSW Ambulance