Kroll, Mark W.
Mark W. Kroll
Kroll, Mark W., 19..-....
VIAF ID: 12476332 (Personal)
Permalink: http://viaf.org/viaf/12476332
Preferred Forms
- 200 _ | ‡a Kroll ‡b Mark W.
- 100 1 _ ‡a Kroll, Mark W.
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- 100 1 0 ‡a Kroll, Mark W.
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- 100 1 _ ‡a Kroll, Mark W.
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- 100 1 _ ‡a Kroll, Mark W., ‡d 19..-....
- 100 0 _ ‡a Mark W. Kroll
4xx's: Alternate Name Forms (2)
Works
Title | Sources |
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Atlas of conducted electrical weapon wounds and forensic analysis | |
Cardiac Bioelectric Therapy : Mechanisms and Practical Implications | |
Coronary blood flow produced by muscle contractions induced by intracardiac electrical CPR during ventricular fibrillation | |
Current distribution in tissues with conducted electrical weapons operated in drive-stun mode | |
Defibrillation success rates for electrically-induced fibrillation: hair of the dog. | |
Defibrillation testing at ICD implantation: are we asking the wrong question? | |
Defibrillation thresholds are lower with smaller storage capacitors. | |
Do TASER Electrical Weapons Actually Electrocute? | |
Does an SVC electrode further reduce DFT in a hot-can ICD system? | |
Dual level sensing significantly improves automatic threshold control for R wave sensing in implantable defibrillators. The Angeion Corporation | |
Efficacy of tuned waveforms based on different membrane time constants on defibrillation thresholds: primary results from the POWER trial | |
Electric fence standards comport with human data and AC limits | |
Electrical characteristics of an electronic control device under a physiologic load: a brief report | |
Electrical Weapon Charge Delivery With Arcing | |
Electrical weapons and excited delirium: shocks, stress, and serum serotonin | |
Electrical weapons, hematocytes, and ischemic cardiovascular accidents | |
Energy steering of biphasic waveforms using a transvenous three electrode system | |
Essentials of low-power electrocution: established and speculated mechanisms | |
Eye injury from electrical weapon probes: Mechanisms and treatment | |
Fatal traumatic brain injury with electrical weapon falls | |
Finite element modeling of electric field effects of TASER devices on nerve and muscle | |
High Impedance Electrical Accidents: Importance of Source and Subject Impedance | |
ICD lead failure detection through high frequency impedance. | |
Impedance changes on defibrillation coils after atrial fibrillation ablation: lead damage or electromechanical interference? | |
Impedance in the Diagnosis of Lead Malfunction | |
Implantable cardioverter defibrillator therapy | |
Incapacitation recovery times from a conductive electrical weapon exposure | |
Infection Risk From Conducted Electrical Weapon Probes: What Do We Know? | |
Innovative engineering solutions. “Lessons learned from medical systems development“ workshop--32nd Annual International Conference of the IEEE Engineering in Medicine and Biology Society (EMBS). | |
Large change in voltage at phase reversal improves biphasic defibrillation thresholds. Parallel-series mode switching | |
Limitations of animal electrical cardiac safety models | |
Low voltage shocks have a significantly higher tilt of the internal electric field than do high voltage shocks | |
Mechanisms of pain associated with internal defibrillation shocks: results of a randomized study of shock waveform. | |
Medical device design process | |
“Medical device development: An Industry-Academia joint venture?” | |
Medium voltage therapy for preventing and treating asystole and PEA in ICDs | |
New conducted electrical weapons: Electrical safety relative to relevant standards | |
New conducted electrical weapons: Thoracic cage shielding effects | |
A novel mechanism for electrical currents inducing ventricular fibrillation: The three-fold way to fibrillation | |
On positional asphyxia and death in custody | |
Optimization of superior vena cava coil position and usage for transvenous defibrillation | |
Optimized first phase tilt in "parallel-series" biphasic waveform | |
Optimizing defibrillation waveforms for ICDs | |
Perceived electrical shock and Bayesian inference with multisensory stimuli | |
Plateau waveform shape allows a much higher patient shock energy tolerance in AF patients | |
Preliminary clinical results of a biphasic waveform and an RV lead system | |
Present understanding of shock polarity for internal defibrillation: the obvious and non-obvious clinical implications | |
Prolonging the Prone Postulate | |
Realities of biomedical product liability suits and the role of junk science: from breast implants to TASER weapons | |
Reducing ICD Test Shocks with a Simplified Upper Limit of Vulnerability | |
Response | |
Safety of a High-Efficiency Electrical Fence Energizer | |
Sawtooth first phase biphasic defibrillation waveform: a comparison with standard waveform in clinical devices | |
Slope filtered pointwise correlation dimension algorithm and its evaluation with prefibrillation heart rate data | |
Smaller capacitors improve the biphasic waveform | |
Stepped defibrillation waveform is substantially more efficient than the 50/50% tilt biphasic | |
The sternum as an electrical shield. | |
TASER electronic control devices and eye injuries | |
TASER(́P) Conducted Electrical Weapons: Physiology, Pathology, and Law | |
TASER safety | |
Theoretical possibility of ventricular fibrillation during use of TASER neuromuscular incapacitation devices | |
To the editor: End of the apex era? | |
Transthoracic application of electrical cardiopulmonary resuscitation for treatment of cardiac arrest | |
Transthoracic cardiac stimulation thresholds for short pulses. | |
Validity of the small swine model for human electrical safety risks | |
Ventricular fibrillation: are swine a sensitive species? | |
Ventricular fibrillation risk estimation for conducted electrical weapons: critical convolutions | |
Ventricular fibrillation threshold of rapid short pulses | |
A very interesting case study involving a TASER Conducted Electrical Weapon | |
Why low-voltage shock impedance measurements fail to reliably detect insulation breaches in transvenous defibrillation leads | |
Woven wire patches are superior to solid disks for subcutaneous electrodes: implications for active can defibrillation | |
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