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ACLS Algorithms

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This graphic allows the provider to quickly get the appropriate information to intervene efficiently in a life-threatening emergency.
This algorithm outlines the steps guiding the clinician to efficiently assess and manage acute coronary syndrome (ACS).
This algorithm outlines the steps to guide the responder to efficiently assess the patient and manage bradycardia.
This algorithm outlines the steps to guide the team to efficiently assess the patient and manage cardiac arrest.
This algorithm outlines the steps to guide the team to efficiently assess and manage cardiac arrest due to an opioid overdose.
This algorithm outlines the steps to guide the lay rescuer to efficiently identify and manage cardiac arrest due to an opioid overdose.
This algorithm outlines the steps to efficiently assess patients and manage suspected stroke.
This algorithm outlines the steps to guide the team to efficiently assess the patient and manage tachycardia with a pulse.
This algorithm presents the systematic approach to reinforce that a responder uses a consistent and systematic approach to assessing an ill patient.
This graphic provides the potential causes, assessments and findings, as well as treatments and interventions for each of the Hs and Ts or reversible causes of cardiac arrest.
This algorithm outlines the steps for the rescuer to efficiently assess and manage cardiac arrest in a pregnant patient.
This checklist provides an efficient way for the resuscitation team to determine if a patient with ACS is a candidate for the administration of fibrinolytic therapy.
This algorithm presents the Cardiac Arrest Algorithm in a circular format to reinforce that cardiac arrest care does not end until ROSC occurs and Post - Cardiac Arrest Care begins.
This graphic provides the ideal positions when six members are available in a resuscitation effort.
The adult BLS algorithm ensures that an adult patient receives the appropriate care based on their condition.
This algorithm presents the immediate care of the patient following a cardiac arrest with ROSC.
The pediatric patient in cardiac arrest may be affected by shock after the return of spontaneous circulation.
This algorithm presents the Systematic Approach to reinforce that a consistent and systematic approach should be used to assess an ill child.
This algorithm outlines the steps guiding the provider to efficiently assess and manage a child in cardiac arrest. Cardiac arrest in children is rarely a primary cardiac event.
This checklist outlines the steps to guide the provider to efficiently manage a child following a cardiac arrest.
This algorithm outlines the steps to guide the provider to efficiently assess and manage a child with bradycardia.
This algorithm outlines the steps to guide the provider to assess and manage a child with tachycardia with a pulse.
This algorithm ensures that a pediatric patient receives the appropriate BLS care when only one rescuer is available.
This algorithm ensures that a pediatric patient receives the appropriate BLS care when more than one rescuer is available.
This algorithm outlines the steps for providers to efficiently assess and manage a child with cardiac arrest due to a suspected opioid overdose.
This algorithm guides the lay rescuer to efficiently identify and manage a person with cardiac arrest due to a suspected opioid overdose.
Sepsis is a frequent cause of shock in pediatric patients caused by an infectious agent or an inflammatory stimulus. Septic shock is the most common form of distributive shock, which causes the blood vessels to dilate and increases capillary permeability.
There is a single Neonatal Resuscitation algorithm that the clinician must understand. By following this algorithm, the team provides optimal care to the neonatal patient who requires resuscitation.