<--- Back to Details
First PageDocument Content
Antiarrhythmic agents / RTT / Benzofurans / Cardiac arrhythmia / Amiodarone / Pulmonary toxicity / Dronedarone / Lidocaine / Digoxin / Atrial fibrillation / Ventricular tachycardia / Cardiac arrest
Date: 2016-08-19 16:40:14
Antiarrhythmic agents
RTT
Benzofurans
Cardiac arrhythmia
Amiodarone
Pulmonary toxicity
Dronedarone
Lidocaine
Digoxin
Atrial fibrillation
Ventricular tachycardia
Cardiac arrest

monitoring amiodarone infusion amiodarone walmart. amiodarone halflife. pulmonary mass amiodarone amiodarone hydrochloride amiodarone foxglove poisoning amiodarone pulmonary toxicity risk factors. amiodarone lung disease

Add to Reading List

Source URL: observantnomad.com

Download Document from Source Website

File Size: 50,82 KB

Share Document on Facebook

Similar Documents

monitoring amiodarone infusion amiodarone walmart. amiodarone halflife. pulmonary mass amiodarone amiodarone hydrochloride amiodarone foxglove poisoning amiodarone pulmonary toxicity risk factors. amiodarone lung disease

monitoring amiodarone infusion amiodarone walmart. amiodarone halflife. pulmonary mass amiodarone amiodarone hydrochloride amiodarone foxglove poisoning amiodarone pulmonary toxicity risk factors. amiodarone lung disease

DocID: 1p3sm - View Document

Research Article  An In Vitro Method for Predicting Inhalation Toxicity of Impregnation Spray Products Jorid B. Sørli 1, Jitka S. Hansen 1, Asger W. Nørgaard 1, Marcus Levin 1,2 and Søren T. Larsen 1 1

Research Article An In Vitro Method for Predicting Inhalation Toxicity of Impregnation Spray Products Jorid B. Sørli 1, Jitka S. Hansen 1, Asger W. Nørgaard 1, Marcus Levin 1,2 and Søren T. Larsen 1 1

DocID: 1ahsq - View Document

Microsoft Word - SNURMW).docx

Microsoft Word - SNURMW).docx

DocID: 18J2g - View Document

Microsoft Word - SNURSW).docx

Microsoft Word - SNURSW).docx

DocID: 17yE9 - View Document

Derivation of occupational exposure levels (OELs) of Low-toxicity isometric biopersistent particles: how can the kinetic lung overload paradigm be used for improved inhalation toxicity study design and OEL-derivation?

Derivation of occupational exposure levels (OELs) of Low-toxicity isometric biopersistent particles: how can the kinetic lung overload paradigm be used for improved inhalation toxicity study design and OEL-derivation?

DocID: 178o0 - View Document