8/5/11 (Item 6 from file: 155)
10261858
20091420
Virtual reality, robotics, and other
wizardry in 21st century trauma
care.
Maniscalco‑Theberge ME; Elliott DC
General Surgery Service, Walter Reed Army
Medical Center, Washington,
DC, USA.
Surg Clin North Am ( UNITED STATES ) Dec 1999 , 79 (6) p1241‑8 ,
ISSN 0039‑6109 Journal Code: VAN
Languages: ENGLISH
Document type: JOURNAL ARTICLE
Journal Announcement: 0004
Subfile:
AIM; INDEX MEDICUS
The former Special Assistant to the
Director on Biomedical Technology,
Defense Advanced Research Projects Agency
(DARPA), COL RM Satava, notes
"Predicting the future trends in any
profession jeopardizes the
credibility of the author." Thus, we
have attempted to outline current
systems and prototype models in testing
phases. Technologic advances will
enable enhanced care of trauma patients. In
the acute care setting, they
also will affect the educational system in
theory and practice.
Tags: Human
Descriptors: *Emergency Medical Services‑‑Trends‑‑TD;
*Robotics‑‑Trends‑‑TD;
*User‑Computer Interface; *Wounds and
Injuries‑‑Surgery‑‑SU
; Computer Simulation; Forecasting; Information
Systems; Internet; Microcomputers;
Monitoring,
Physiologic‑‑Instrumentation‑‑IS;
Technology, Medical‑‑Trends‑‑TD;
Telemedicine; Traumatology‑‑Education‑‑ED;
Traumatology‑‑Trends‑‑TD
MEDLINE(R)
(Dialog« File 155): (c) format only 2000 Dialog Corporation. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/17 (Item 12 from file: 155)
10219467
20061326
Practicing procedures on the recently
dead.
Denny CJ; Kollek D
McMaster University Medical School,
Hamilton, Ontario, Canada.
J Emerg Med ( UNITED STATES ) Nov‑Dec 1999 , 17 (6) p949‑52 , ISSN
0736‑4679 Journal Code: IBO
Languages: ENGLISH
Document type: JOURNAL ARTICLE
Journal Announcement: 0003
Subfile:
INDEX MEDICUS
We sought to measure the prevalence of
practicing procedures on the
recently dead in emergency departments.
Surveys were mailed to all
medical students, interns, residents in
Emergency Medicine, emergency
physicians, and trauma team leaders working
in the teaching hospitals of
a city with a population of 600,000. Of 447
distributed surveys, 222
(49%) were returned. Participants were
divided into learners and
teachers. Of the learners (n = 162), 6 (4%)
had practiced intubation and
4 (3%) had practiced pericardiocentesis on a
recently dead patient. Of
the teachers (n = 30), 8 (27%) had had
learners practice intubation and 4
(13%) had had learners practice
pericardiocentesis on a recently dead
patient. Of the students and teachers who
practiced procedures on
recently dead patients, none had obtained
consent. The prevalence of
practicing procedures on recently dead
patients appears to be less than
has been reported previously. Intubation is
the most commonly practiced
procedure on recently dead patients. None of
the participants obtained
consent before practicing a procedure.
Tags: Human; Support, Non‑U.S. Gov't
Descriptors: *Cadaver; *Emergency Medicine‑‑Education‑‑ED;
*Emergency
Service, Hospital; *Ethics, Medical ;
Informed Consent; Intubation,
Intratracheal; Ontario; Pericardiocentesis ‑‑Education‑‑ED;
Personnel,
Hospital; Prevalence; Questionnaires
MEDLINE(R)
(Dialog« File 155): (c) format only 2000 Dialog Corporation. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/38 (Item 33 from file: 155)
09947519
99258353
Paediatric resuscitation manikins.
Jevon P
Nurs Times ( ENGLAND ) Feb 17‑23 1999 , 95 (7) p55‑7 , ISSN
0954‑7762 Journal Code: O9U
Languages: ENGLISH
Document type: JOURNAL ARTICLE
Journal Announcement: 9907
Subfile:
NURSING
Tags: Female; Human
Descriptors: *Education, Nursing‑‑Methods‑‑MT;
*Life Support Care;
*Manikins; *Obstetrical Nursing‑‑Education‑‑ED;
*Pediatric
Nursing‑‑Education‑‑ED
; Airway Obstruction‑‑Nursing‑‑NU; Child;
Delivery‑‑Methods‑‑MT;
Infant, Newborn; Pregnancy
MEDLINE(R)
(Dialog« File 155): (c) format only 2000 Dialog Corporation. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/208 (Item 203 from file: 155)
06390231
90240613
Animal cadaveric models for advanced
trauma life support training.
Eaton BD; Messent DO; Haywood IR
Animal Care Unit, Royal College of Surgeons
of England, Downe, Kent.
Ann R Coll Surg Engl ( ENGLAND ) Mar 1990 , 72 (2) p135‑9 ,
ISSN
0035‑8843 Journal Code: 5VV
Languages: ENGLISH
Document type: JOURNAL ARTICLE
Journal Announcement: 9008
Subfile:
INDEX MEDICUS
'Hands on' practical workshop teaching is a
fundamental part of
advanced trauma life support training which
has now been introduced into
the United Kingdom. The use of live large
animals, which is standard for
the original courses developed in the United
States of America, is
prohibited in the United Kingdom and,
therefore, models for upper airway
bypass procedures and thoracic drainage have
been developed. Their
preparation and use is described, and
contrasted with alternatives.
Tags: Animal
Descriptors: *Cadaver; *Life Support Care‑‑Methods‑‑MT;
*Manikins;
*Models, Anatomic; *Traumatology‑‑Education‑‑ED
; Education, Medical,
Undergraduate; Great Britain; Sheep
MEDLINE(R)
(Dialog« File 155): (c) format only 2000 Dialog Corporation. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/277 (Item 5 from file: 73)
10549884
EMBASE No: 2000014937
'Full scale' simulation in practical
emergency medicine conception as
represented by the Wurzburg anaesthesia and
emergency medicine simulator
'FULL‑SCALE'‑SIMULATION IN DER
PRAKLINISCHEN NOTFALLMEDIZIN KONZEPTION
DES WURZBURGER ANASTHESIE‑ UND
NOTFALLSIMULATORS
Kuhnigk H.; Kuhnigk R.; Sefrin P.; Roewer N.
Dr. H. Kuhnigk, Klin. Anasthesiol. Univ.
Wurzburg,
Josef‑Schneider‑Strasse 2, D‑97080
Wurzburg Germany
Author Email: hkuhnigk@anaesthesie‑uni‑wuerzburg.de
Notarzt ( NOTARZT ) ( Germany ) 1999 , 15/6 (129‑133)
CODEN: NTRTE ISSN: 0177‑2309
Document Type: Journal ; Article
Language: GERMAN Summary Language: ENGLISH; GERMAN
Number Of References: 12
Simulation is growing more and more prominent
in medicine, since it
represents the closest possible approximation
to reality, inspired by
similar approaches which are quite common in
several branches of
technology such as in aeronautics. 'Full
Scale' simulators developed for
training and research in physiology and
imitating a real patient in
respect of physiological and anatomical
properties, enable further
development of and training in diagnostic and
therapeutic progress
without endangering the patient. If they are
placed in a realistic
environment they also enable individual
training in the management of
emergency situations and rare complications
or of special kinds of
anaesthesia or of teamwork. Several German
university hospitals are
already using such a simulator for the
training of anaesthesiologists.
Integration of these concepts and their
adaptation to emergency
requirements is one of the focal points of
the Wurzburg simulation
centre. Training in mastering complex
preclinical tasks in a real
environment makes great demands even on an
experienced emergency
physician; thus, young colleagues are now
being offered an opportunity to
gather experience in close approximation to
actual practice. Structured
subsequent discussions based on video
recordings support the efficiency
of such target‑oriented training. In
addition, this procedure enables not
only simulation in research activities and
developments but also to fit
them into the patterns of emergency medicine.
The future ranking of
simulation has not yet been sufficiently
assessed especially for
emergency medicine with particular regard to
it novelty in that
discipline. However, experiences from other
branches of technology show
that the systematic introduction of
simulation techniques has triggered
optimation processes in many structuries of
application and organisation.
In view of the high costs involved in
simulation technology it will be
necessary to discuss new modalitis of
financing, possibly with the
participation of statutory insurance bodies
and increased crosslinking
with university and non‑ university
institutions in training and
continued education, thus enabling a wider
use of simulation techniques.
EMBASE (Dialog« File 73): (c) 2000
Elsevier Science B.V. All rights
reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/396 (Item 3 from file: 5)
11682597
Biosis No.: 199800464328
MEDSIMM: Computer‑simulated training
for pediatric advanced life support
(a work in progress).
Author: San Juan Ronald; Lichenstein Richard;
Hisley K Calvin
Author Address: Dep. Pediatr., Univ. Md. Med.
Systems, Baltimore, MD, USA
Journal: Pediatrics 102 ( 3 PART 2 ): p 688 Sept., 1998
Conference/Meeting: Annual Meeting of the
American Academy of Pediatrics
San Francisco, California, USA October 16‑21, 1998
Sponsor: American Academy of Pediatrics
ISSN: 0031‑4005
Record Type: Citation
Language: English
Biosis Previews(R) (Dialog« File 5): (c) 2000
BIOSIS. All rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/9/441 (Item 16 from file: 6) 2090995 NTIS Accession Number:
ADA349567/XAB
Medical Simulation for Trauma Management
( Final rept. 30 Sep 94‑31 Mar 98 )
Merril, G. L.
HT Medical, Inc., Rockville, MD.
Corporate Source Codes: 113289000; 432378
Oct 97
32p
Language: English
Journal Announcement: GRAI9822
Product reproduced from digital image. Order
this product from NTIS by:
phone at 1‑800‑553‑NTIS
(U.S. customers); (703)605‑6000 (other
countries); fax at (703)605‑6900; and
email at orders@ntis.fedworld.gov.
NTIS is located at 5285 Port Royal Road,
Springfield, VA, 22161, USA.
NTIS Prices: PC A04/MF A01
Country of Publication: United States
Contract Number: DAMD17‑94‑J‑4470
This project involves the development of
surgical simulation technology
for training military and civilian personnel
in management of the
abdominal wound. In this context, a virtual
reality simulation is being
produced using new innovations in computer
graphics, physics‑based
modeling, medical visualization, and tactile
feedback robotics. The
objective of this effort is develop
technology which enables a degree of
training not possible using existing
technologies in trauma surgery in
the battlefield and emergency room. This
effort has produced significant
results in several areas. We have continued
to advance the computer
modeling technology necessary for medical
simulation. We have
demonstrated interactive models representing
both flexible and rigid
structures. We have developed techniques for
interactive volume rendering
of patient specific data. Patient specific
visualization technologies
will have a significant impact on medicine in
the near future. As greater
levels of realism are achieved in simulation
the computational
requirements of the system have expanded. We
have developed an expandable
architecture that allows for the assignment
of multiple processors to
each computational task of the simulation
system.
Descriptors: *Computerized simulation;
*Battlefields; *Military medicine;
*Medical services; *Surgery; *Virtual
reality; *Trauma; *Medical computer
applications; Simulation; Military personnel;
Robotics; Computations;
Emergencies; Computer graphics; Allocations;
Multiprocessors; Military
training; Civilian personnel; Patients;
Flexible structures
Identifiers: Surgical simulation; Trauma
training; Educational
technology; Medical visualization; NTISDODXA
Section Headings: 57E (Medicine and Biology‑‑Clinical
Medicine); 62GE
(Computers, Control, and Information Theory‑‑General);
74G (Military
Sciences‑‑Military Operations,
Strategy, and Tactics)
NTIS (Dialog« File 6): Comp&distr 2000
NTIS, Intl Copyright All Righ. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑
8209;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑
8/5/598 (Item 1 from file: 144)
14385853
PASCAL No.: 00‑0039606
Enhanced
training using the
Life Support for Trauma and
Transport (LSTAT)
Battlefield biomedical technologies :
Orlando FL, 6 April 1999
HANSON M E; TOTH L S; WHITE W H
PIEN Homer H, ed
Northrop Grumman Corporation, Pico Rivera,
CA 90660, United States
International Society for Optical
Engineering, Bellingham WA,
United
States.
Battlefield biomedical
technologies. Conference (Orlando
FL USA)
1999‑04‑06
Journal: SPIE proceedings series, 1999, 3712 94‑98
ISBN:
0‑8194‑3186‑9
ISSN: 1017‑2653 Availability: INIST‑21760;
354000084595970110
Document Type: P (Serial); C (Conference
Proceedings) ; A (Analytic)
Country of Publication: United States
Language: English
The
Life Support for Trauma and Transport (LSTAT) is an
intensive care
unit
(ICU) in a "stretcher<right single quotation
mark> only 5 inches
thick.
LSTAT is a
portable intensive care
system which integrates
state‑of‑the‑art,
commercial‑off‑the‑shelf, hospital grade ICU devices into
a
single patient resuscitation, stabilization, evacuation, and surgical
platform.
LSTAT's current and evolving
attributes include compact volume,
low
weight, integrated devices and subsystems, ergonomic patient‑caregiver
interface.
patient and system
information system, near‑universal
power
interface, patient‑caregiver hazardous
environment isolation, and extensive
evacuation
vehicle interface compatibility. Although the LSTAT system
architecture was established primarily to
support diagnosis, monitoring and
telemedicine
consulting, the information architecture and communications
suite
can also support
hosting training experiences and
scenarios. The
training scenario capabilities and features
include: 1) moving training out
to the field, 2) facilitating distributed
training, 3) off‑setting training
with
remote experts (or
potentially embedded expert
systems), and 4)
facilitating
training‑by‑simulation.
Equipping the caregiver
via such
enhanced
equipment and training
should ultimately translate into better
care for the patient.
English Descriptors: Intensive care unit;
Decision making; Telemedicine;
Educational software program; Monitoring;
Simulation; Portable equipment;
System architecture; Diagnosis
Broad Descriptors: Resuscitation;
Reanimation; Reanimacion
French Descriptors: Unite soin intensif;
Prise decision; Telemedecine;
Didacticiel; Monitorage; Simulation;
Appareil portatif; Architecture
systeme; Diagnostic
Classification Codes: 002B27B15
Copyright (c) 2000 INIST‑CNRS. All
rights reserved.
‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑̴
9;‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑‑&
#8209;‑‑‑‑‑‑
8/5/513 (Item 11 from file: 2)
5944858
INSPEC Abstract Number: C9807‑7330‑312
Title: Simulation and modeling of
penetrating wounds from small arms
Author Eisler, R.D.; Chatterjee, A.K.;
Burghart, G.H.
Author Affiliation: Mission Res. Corp.,
Fountain Valley, CA, USA
Conference Title: Medicine Meets Virtual
Reality. Health Care in the
Information Age. Proceedings of Medicine
Meets Virtual Reality 4 p.
511‑22
Editor Weghorst, S.J.; Sieburg, H.B.; Morgan,
K.S.
Publisher: IOS Press , Amsterdam, Netherlands
Publication Date: 1996 Country of Publication: Netherlands xvi+734 pp.
ISBN: 90 5199 250 5 Material Identity Number: XX96‑00632
Conference Title: Proceedings of Medicine
Meets Virtual Reality IV:
Healthcare in the Information Age ‑
Feature Tools for Transforming
Medicine
Conference Date: 17‑20 Jan. 1996 Conference Location: San Diego, CA,
USA
Language: English Document Type: Conference Paper (PA)
Treatment: Practical (P)
Abstract: The overwhelming source of
morbidity on the battlefield is
penetrating injuries to the musculoskeletal
system. We are providing an
integrated software package, applicable to
the extremities, that: (1)
simulates tissue damage from small arms
projectiles and fragments
penetrating the musculoskeletal system, (2)
performs a detailed
biomechanical assessment of residual physical
capability, and (3)
provides a high‑resolution graphical
interface for medical simulation and
training. The program consists of five tasks.
Task 1 develops models
describing soft tissue damage from a
penetrating wound. Task 2 describes
the interaction of bone tissue with the
missile, including the mode of
fracture produced. Task 3 consists of three
subtasks: (a) models to
describe coupling between the ballistic
response of the bone and the
surrounding soft tissue; (b) an interface
allowing visualization of the
wound; and (c) casualty selection from an
autopsy database for simulating
specific wounds. Task 4 integrates
biomechanical software which describes
the moment‑generating capability of
joints, given the initial and
deformed geometry of the bones, muscles and
tendons resulting from the
projectile interaction. Task 5 is an
administrative task related to
preparation of deliverables. The models from
this effort will eventually
be imported into a lower extremity
battlefield trauma simulator under
development by Musculographics Inc. for ARPA.
The simulator will be used
to train combat medics in the management of
lower extremity trauma. This
paper describes progress during the first
year which focuses on the first
two tasks.
( 4 Refs)
Copyright 1998, IEE
INSPEC (Dialog« File 2): (c) 2000 Institution
of Electrical Engineers. All
rights reserved.