Atnaujinkite slapukų nuostatas

El. knyga: Essentials of Evidence-Based Practice of Neuroanesthesia and Neurocritical Care

Edited by (Department of Neuroanaesthesiology and Critical Care, Neurosciences Center, AIIMS, New Delhi, India)
  • Formatas: PDF+DRM
  • Išleidimo metai: 18-Nov-2021
  • Leidėjas: Academic Press Inc
  • Kalba: eng
  • ISBN-13: 9780128218280
Kitos knygos pagal šią temą:
  • Formatas: PDF+DRM
  • Išleidimo metai: 18-Nov-2021
  • Leidėjas: Academic Press Inc
  • Kalba: eng
  • ISBN-13: 9780128218280
Kitos knygos pagal šią temą:

DRM apribojimai

  • Kopijuoti:

    neleidžiama

  • Spausdinti:

    neleidžiama

  • El. knygos naudojimas:

    Skaitmeninių teisių valdymas (DRM)
    Leidykla pateikė šią knygą šifruota forma, o tai reiškia, kad norint ją atrakinti ir perskaityti reikia įdiegti nemokamą programinę įrangą. Norint skaityti šią el. knygą, turite susikurti Adobe ID . Daugiau informacijos  čia. El. knygą galima atsisiųsti į 6 įrenginius (vienas vartotojas su tuo pačiu Adobe ID).

    Reikalinga programinė įranga
    Norint skaityti šią el. knygą mobiliajame įrenginyje (telefone ar planšetiniame kompiuteryje), turite įdiegti šią nemokamą programėlę: PocketBook Reader (iOS / Android)

    Norint skaityti šią el. knygą asmeniniame arba „Mac“ kompiuteryje, Jums reikalinga  Adobe Digital Editions “ (tai nemokama programa, specialiai sukurta el. knygoms. Tai nėra tas pats, kas „Adobe Reader“, kurią tikriausiai jau turite savo kompiuteryje.)

    Negalite skaityti šios el. knygos naudodami „Amazon Kindle“.

The current practice of medicine is largely moving toward applying an evidence-based approach. Evidence-based medicine is the integration of best research evidence using systematic reviews of the medical literature and then translating it into practice by selecting treatment options for specific cases based on the best research. Clinicians rely on the availability of evidence and accordingly take decisions to provide best treatment to their patients. Clinical management of neurologically compromised patients is challenging and varied; for this reason, treating physicians including neuroanesthesiologists are always in search of best available evidence for patient management and care.

Essentials of Evidence-Based Practice of Neuroanesthesia and Neurocritical Care highlights the various controversies that exist in the practice of neuroanesthesia and provides conclusive evidence-based solutions. This comprehensive resource succinctly discusses evidence-based practice of neuroanesthesia based on systematic reviews in clinical neuroscience research. Topics include neurophysiology: ICP or CPP thresholds; neuropharmacology: intravenous or inhalational anesthetics; and neuromonitoring: ICP monitoring. Evidence-based practice is now an integral part of neuroscience, and this book will help residents and trainees gain knowledge to apply it to their practice.

Endorsements/Reviews:

"Evidence based practice is facilitating changes at a rapid pace in neuroanesthesia and neurocritical care practice. Its practice is exceedingly crucial in neuroanesthesia and neurocritical care considering the criticality of the neurologically sick patients, which leaves little or no room for error for an acceptable outcome in them. Patient management in Neuroanesthesia and neurocritical care has many contentious issues because of rapidly evolving changes in their management which require treatment guided by the latest available evidence in literature. Dr. Hemanshu Prabhakar is a strong proponent of evidence based practice for the management of neurologically ill patients both for surgical procedures and their management in neurointensive care unit. Undoubtedly, this book will be of enormous benefits to the students as well as teachers of neuroanesthesia and neurocritical care sub-specialties." -- Parmod Bithal, Editor-In-Chief, Journal of Neuroanaesthesiology and Critical Care (JNACC)

Recenzijos

"This book is a great addition to the clinical decision making in neuroanesthesiology and neurocritical care, as evidence-based practice continues to reveal its importance in clinical scenarios. This book provides up-to-date evidence in a concise manner, with the help of comparison charts, algorithms, and consensus guidelines, which otherwise would require large amounts of time to cover in the vast literature. This book is unique as it is geared toward answering specific, hard clinical management questions with the most up-to-date evidence for the question or controversy at hand. In a few specific chapters, it is unable to give a strong consensus recommendation due to the lack of evidence currently available, but still presents sources of evidence for clinicians to individualize care for their patients. It does not provide textbook-type chapters that cover the whole management of a specific pathology, which makes it a great resource for advanced residents or practicing clinicians as it does require some basic knowledge to maximize its value. The book Problem Based Learning Discussions in Neuroanesthesia and Neurocritical Care, Prabhakar et al. (Springer, 2020), which shares multiple authors with this book including the editor, might be a more comprehensive and excellent addition to this book." --© Doodys Review Service, 2021, Andres R Brenes Bastos, MD, reviewer, expert opinion

"Evidence based practice is facilitating changes at a rapid pace in neuroanesthesia and neurocritical care practice. Its practice is exceedingly crucial in neuroanesthesia and neurocritical care considering the criticality of the neurologically sick patients, which leaves little or no room for error for an acceptable outcome in them. Patient management in Neuroanesthesia and neurocritical care has many contentious issues because of rapidly evolving changes in their management which require treatment guided by the latest available evidence in literature. Dr. Hemanshu Prabhakar is a strong proponent of evidence based practice for the management of neurologically ill patients both for surgical procedures and their management in neurointensive care unit. Undoubtedly, this book will be of enormous benefits to the students as well as teachers of neuroanesthesia and neurocritical care sub-specialties." --Parmod Bithal, Editor-In-Chief, Journal of Neuroanaesthesiology and Critical Care (JNACC)

Contributors xv
Acknowledgments xix
Section A Introduction
1 Introduction to evidence-based practice
Indu Kapoor
Charu Mahajan
Hemanshu Prabhakar
Introduction
3(1)
Evidence-based practice in neuroanesthesia
3(1)
References
4(5)
Section B Neurophysiology
2 ICP or CPP thresholds
Judith Dinsmore
Mazen Elwishi
Introduction
9(1)
Question
10(1)
What ICP threshold should we target and what is the-optimal CPP range?
10(1)
Controversy
10(1)
Should ICP and CPP thresholds be protocolized according to consensus guidelines or individualized to achieve better outcomes?
10(1)
Evidence
10(3)
Consensus
13(1)
Conclusion
13(1)
References
13(2)
3 Role of hypothermia
Franziska Herpich
Theresa Human
Mehrnaz Pajoumand
Introduction
15(1)
What disease states should target temperature management be considered?
16(1)
Cardiac arrest
16(1)
Acute ischemic stroke
16(1)
Intracerebral hemorrhage
16(1)
Aneurysmal subarachnoid hemorrhage
16(1)
Traumatic brain injury
17(1)
Spinal cord injury
17(1)
Status epilepticus
18(1)
Bacterial meningitis
18(1)
Acute liver failure
18(1)
Is one method of cooling superior?
18(1)
What is the optimal target temperature?
18(1)
Cardiac arrest
18(3)
Traumatic brain injury
21(1)
Does time to TTM implementation change outcomes?
21(1)
What is the optimal duration of TTM to improve outcomes?
21(1)
What is the optimal rate of rewarming to improve patient outcomes and prevent complications?
22(1)
Is there an optimal method/protocol to detect and treat shivering?
22(1)
The Columbia antishivering protocol
22(1)
Non-pharmacologic management of shivering
23(1)
Pharmacologic management of shivering
23(1)
What are the important complications to evaluate during TTM?
24(1)
Cardiovascular
24(1)
Infections
25(1)
Bleeding
25(1)
Laboratory
25(1)
Skin integrity
25(1)
Consensus statement
25(1)
What disease states should target temperature management be considered?
25(1)
Is one method of cooling superior?
25(1)
What is the optimal target temperature?
26(1)
Does time to TTM implementation change outcomes?
26(1)
What is the optimal duration of TTM to improve outcomes?
26(1)
What is the optimal rate of rewarming to improve patient outcomes and prevent complications?
26(1)
Is there an optimal method/protocol to detect and treat shivering associated with TTM?
26(1)
What are the important complications to evaluate during TTM?
26(1)
Conclusion
26(1)
References
26(7)
4 Mechanical ventilation ---PEEP
Chiara Riforgiato
Denise Battaglini
Chiara Robba
Paolo Pelosi
Introduction
33(1)
The questions/controversy: The brain-lung crosstalk
33(1)
From the brain to the lung
34(1)
From the lung to the brain
34(1)
PEEP effects on lung, cardiovascular, and brain pathophysiology
35(1)
PEEP and oxygenation improvement
35(1)
PEEP, intrathoracic pressure, and cerebral blood flow (CBF)
36(1)
PEEP and arterial RaCO2 increase, from dynamic hyperinflation to alveolar overdistension
36(1)
Laboratory evidence
37(1)
Clinical evidence
37(1)
Mechanical ventilation strategies in ABI patients
37(2)
Consensus statement
39(1)
Conclusions
39(1)
References
40(5)
Section C Neuropharmacology
5 Intravenous or inhalational anesthetics?
Rajeeb Kumar Mishra
Introduction
45(1)
Controversies
45(1)
Intracranial pressure and cerebral perfusion pressure
46(1)
Cerebral blood flow and cerebrovascular resistance
46(1)
The cerebral metabolic rate of oxygen consumption
46(1)
Brain volume and relaxation
46(1)
Cerebral autoregulation
46(1)
Cerebral oxygenation
47(1)
Neuroprotection
47(1)
Epileptogenesis
47(1)
Intraoperative neurophysiologic monitoring and anesthesia
48(1)
Systemic hemodynamics
48(1)
Recovery and emergence and postoperative complications
48(1)
Consensus statement
49(1)
Cerebral hemodynamics
49(1)
Intraoperative brain relaxation
49(1)
Cerebrovascular resistance
49(1)
Cerebral metabolic rate of oxygen consumption
49(1)
Cerebral autoregulation
49(1)
Cerebral oxygenation
49(1)
Neuroprotection
50(1)
Epileptogenesis
50(1)
Intraoperative neurophysiologic monitoring and anesthesia
50(1)
Systemic hemodynamics
50(1)
Recovery and emergence and postoperative complications
50(1)
Conclusion
50(1)
References
50(3)
6 Hyperosmolar therapy
Tomer Kotek
Alexander Zlotnik
Irene Rozet
Introduction
53(1)
Effect of intravenous hyperosmolar fluids on the brain
53(1)
Background, mechanism, dosing, clinical use, and adverse effects of common hyperosmotic fluids
54(4)
The question/controversy
58(1)
Comparison between mannitol and hypertonic saline
58(1)
Clinical and practical considerations
58(1)
General practical considerations
58(1)
Mannitol
59(1)
Hypertonic saline (HTS)
59(1)
Consensus statement
60(1)
TBI guidelines 4th edition
60(1)
Review of recent literature
60(1)
Neuroanesthesia: Elective supratentorial tumors
60(1)
Traumatic brain injury (TBI)
61(1)
Intracerebral hemorrhage (ICH) and acute ischemic stroke (AIS)
62(1)
Subarachnoid hemorrhage (SAH)
62(1)
Conclusion
63(1)
References
63(4)
7 Role of nitrous oxide
Indu Kapoor
Charu Mahajan
Hemanshu Prabhakar
Introduction
67(1)
The question: Is it safe to use N2O in neurosurgical cases?
67(1)
Laboratory evidence
67(1)
Clinical evidence
68(2)
The question: Is it safe to use N2O in spine surgeries?
70(1)
Laboratory evidence
70(1)
Clinical evidence
71(1)
The question: Is N2O safe to be used in interventional neuroradiology?
71(1)
Laboratory evidence
71(1)
Clinical evidence
71(1)
The question: What is the current status of the use of N2O in pediatric patients undergoing neurosurgical procedures under general anesthesia?
72(1)
Laboratory evidence
72(1)
Clinical evidence
72(1)
The question: Is it safe to use N2O in the geriatric patient population who are scheduled for neurosurgical procedures under general anesthesia?
72(1)
Laboratory evidence
72(1)
Clinical evidence
73(1)
Conclusion
73(1)
References
73(4)
8 Antimicrobial prophylaxis
Jason M. Makii
Jessica Traeger
Justin Delic
Introduction/background
77(1)
Clinical evidence
78(1)
Classification of neurosurgical procedures and evidence
78(2)
Pharmacotherapy
80(1)
General principles
80(1)
Drug classes
81(4)
Conclusion/consensus statement
85(1)
References
85(4)
9 Role of antiepileptics
Rohan Mathur
Jose I. Suarez
Introduction
89(1)
Questions and controversies
89(1)
Laboratory evidence
90(1)
Clinical evidence
90(1)
What is the definition of and recommended early management strategy for SE?
90(3)
Does administration of benzodiazepines early in the course of SE, increase the risk of intubation?
93(1)
If SE resolves with early benzodiazepine treatment, should an ASD be started to prevent recurrence of seizures?
93(1)
If SE does not resolve with benzodiazepines, what is the next line of antiseizure drugs? Is there any evidence to support the use of a particular ASD over another?
93(1)
What is the role of newer ASDs in the management of SE?
93(1)
When is SE considered refractory and what ASDs should be used in the management of refractory SE?
94(1)
What treatment strategy should be pursued in the management of super-refractory SE? What treatment strategy should be pursued in the management of new-onset refractory SE (NORSE)?
94(1)
What is the role of ASDs in the prevention of seizures after spontaneous ICH?
94(1)
What is the role of ASDs in the prevention of seizures after SAH?
95(1)
What is the role of ASDs in the prevention of seizures after TBI?
95(1)
What is the role of ASDs in the prevention of seizures in postcraniotomy patients?
95(1)
What is the role of ASDs in the prevention of seizures after HII?
96(1)
Consensus statements
96(1)
Conclusion
96(1)
References
97(2)
10 Treatment of hypertension
Ashish Khanna
Abhay Tyagi
Introduction
99(1)
Definition and classification
99(1)
Secondary hypertension
100(1)
Hypertension and cerebral autoregulation
100(1)
Clinical evidence
101(1)
Hypertensive crises
101(3)
Traumatic brain injury
104(1)
Intracerebral hemorrhage
105(1)
Acute ischemic stroke
105(1)
Subarachnoid hemorrhage (SAH)
105(2)
Postoperative hypertension
107(1)
Conclusion
108(1)
References
108(3)
11 Role of statins for neuroprotection
Micheal Strein
Megan Barra
Veronica Taylor
Gretchen Brophy
Introduction
111(1)
Traumatic brain injury
112(1)
Laboratory evidence
112(4)
Clinical evidence
116(8)
Acute ischemic stroke
124(1)
Laboratory evidence
124(1)
Clinical evidence
125(11)
Intracerebral hemorrhage
136(1)
Laboratory evidence
136(1)
Clinical evidence
136(1)
Aneurysmal subarachnoid hemorrhage
137(1)
Laboratory evidence
137(9)
Clinical evidence
146(9)
Summary of on-going trials
155(1)
Conclusion
155(1)
References
155(8)
12 Role of stem cell therapy in neurosciences
Shilpa Sharma
Madhan Jeyaraman
Sathish Muthu
Introduction
163(1)
Properties, sources, and characterization of stem cells
164(1)
Immunomodulation by stem cells
164(1)
Lymphocyte system
164(1)
HLA-G5 system
165(1)
Neurogenic signaling of stem cells
165(1)
Wnt pathway
166(1)
Notch pathway
166(1)
Sonic Hedgehog (SHH) pathway
166(1)
Neurotrophic factors
166(1)
Growth factors
166(1)
Bone morphogenetic factors (BMPs)
167(1)
Neurotransmitters
167(1)
Transcription factors
167(1)
Epigenetic regulators
168(1)
Role in neurological disorders
168(1)
Alzheimer's disease
168(1)
Parkinson's disease
169(1)
Huntington's disease
170(1)
Cerebral palsy
170(1)
Stroke
170(1)
Traumatic spinal cord injury
171(1)
Multiple sclerosis
171(1)
Amyotrophic lateral sclerosis
172(1)
Polio
172(1)
Meningomyelocele
173(1)
Conclusion
174(1)
References
174(9)
Section D Neuromonitoring
13 ICP monitoring
Matthew A. Kirkman
Introduction
183(1)
Intracranial pressure
183(1)
ICP monitoring techniques (covered in detail in
Chapter 14)
183(1)
Question: What are the indications for ICP monitoring?
184(1)
Clinical evidence
184(1)
Consensus statement
185(1)
Question: What is the ICP threshold for treatment?
185(1)
Clinical evidence
185(1)
Consensus statement
186(1)
Question: How should raised intracranial pressure be managed?
186(1)
Sedation
187(1)
Hyperventilation
187(1)
Osmotic therapy
187(1)
Targeted temperature management
187(1)
Barbiturates
188(1)
Surgery
188(1)
Question: Does ICP monitoring improve outcomes?
188(1)
Clinical evidence
188(1)
Consensus statement
189(1)
Question: What is the optimal cerebral perfusion pressure target?
189(1)
Laboratory evidence
189(1)
Clinical evidence
189(1)
Consensus statement
190(1)
Conclusion
190(1)
References
190(3)
14 Type of ICP monitor
Pasquale Anania
Denise Battaglini
Paolo Pelosi
Chiara Robba
Introduction
193(1)
The controversy
193(1)
Laboratory and clinical evidence
194(1)
Consensus statement
194(1)
Type of invasive ICP monitoring
194(1)
Intraventricular device
194(1)
Intraparenchymal, subdural and epidural device
195(1)
Non-invasive ICP monitoring
196(1)
Transcranial doppler
197(1)
Optic nerve sheath diameter
198(1)
Pupillometry
198(1)
Conclusion
199(1)
References
199(4)
15 Newer brain monitoring techniques
Nuno Veloso Gomes
Patrick Mark Wanner
Nicolai Goettel
Introduction
203(1)
Why do we need new neuromonitoring technologies?
204(1)
The move from reactive to proactive medicine and from protocolized to individualized medicine
204(1)
The need for noninvasive neuromonitoring modalities in patients with or at risk for acute brain injury
204(1)
The need for invasive neuromonitoring modalities in patients with or at risk for acute brain injury
204(1)
Novel neuromonitoring technologies
204(1)
Automated infrared pupillometry
204(3)
Optic nerve sheath ultrasound
207(1)
Cerebrovascular reactivity monitoring and personalized medicine
208(4)
Multimodal neuromonitoring and future directions
212(1)
Conclusion
213(1)
References
213(4)
16 Intraoperative neuromonitoring
Laura Hemmer
Amanda Katherine Knutson
Jamie Uejima
Introduction
217(1)
Somatosensory evoked potential
217(1)
Motor evoked potentials
217(1)
Evoked potential assessment
218(1)
Electromyography
218(1)
The question/controversy
218(1)
Laboratory evidence
218(1)
Clinical evidence
219(1)
Spine deformity correction
219(1)
Intramedullary spinal cord tumor resection
220(1)
EMG/pedicle screw placement
220(1)
Cervical spine surgery
221(1)
Minimally invasive surgery
221(1)
Tethered cord surgery
221(1)
Non-surgical applications
221(1)
Cost-effectiveness
222(1)
Consensus statement
222(1)
Conclusion
222(1)
References
223(6)
Section E Neuromonitoring
17 Blood transfusion triggers
Maria J. Colomina
Laura Contreras
Laura Pariente
Key points
229(1)
Introduction
229(1)
Red blood cells transfusion. Optimal transfusion trigger
230(1)
What are the transfusion requirements for red blood cells in neurosurgery?
230(1)
Can the presence of preoperative anemia influence the need for red blood cells transfusion?
230(1)
Red blood cells transfusion trigger
231(1)
Transfusion and coagulation factors. Optimal transfusion trigger
231(1)
Should a standard coagulation test be performed before any surgery?
231(1)
To neurosurgery, what are the minimum acceptable values of the standard coagulation tests?
232(2)
When would it be indicated the administration of coagulation factors? Recommended triggers
234(1)
Platelet transfusion. Optimal transfusion trigger
234(1)
Do we still think that the minimum platelet count for neurosurgery is 100×109/L?
234(1)
In the pediatric population, do we need to consider the same values to indicate a platelet transfusion?
235(1)
Conclusion
236(1)
References
236(3)
18 Reversal of anticoagulation in neurosurgical and neurocritical care settings
Massimo Lamperti
Amit Jain
Vinay Byrappa
Introduction
239(1)
Questions/controversy
240(1)
What are the common indications for chronic anticoagulation therapy?
240(1)
What are the common therapeutic agents used for chronic anticoagulation therapy?
240(2)
What is the bleeding risk involved with chronic anticoagulation therapy?
242(1)
What medical factors are associated with higher bleeding risk?
243(4)
What is the incidence and outcome of spontaneous intracranial hemorrhage in patients on chronic anticoagulation therapy?
247(1)
Do we have multivariate composite bleeding risk prediction models?
248(1)
Are there any specific factors for intracranial bleeding?
248(3)
What neurosurgical or neurocritical care situations warrant urgent reversal of anticoagulation?
251(1)
What are the general considerations while managing critical intracranial bleeding in patients on anticoagulation therapy?
251(5)
Laboratory tests for the measurement of anticoagulation activity
256(2)
What are the risks of interruptions of chronic anticoagulation therapy?
258(1)
Composite scores predicting the risk of thromboembolic complications and the need for long-term anticoagulation therapy
258(1)
What are the key considerations for restarting anticoagulation following neurosurgical procedure or spontaneous intracranial hemorrhage?
259(1)
Evidence-based recommendations
260(1)
Conclusion
261(1)
References
261(6)
19 Role of decompressive craniectomy
Mayank Tyagi
Charu Mahajan
Indu Kapoor
Introduction
267(1)
Controversy
268(1)
DC in TBI
268(1)
DC in stroke
269(1)
DC in aSAH
269(1)
Controversies related to cranioplasty
269(1)
Laboratory evidence
269(1)
Clinical evidence
270(1)
DC for patients having TBI
270(1)
DC for patients having a stroke
271(1)
DC in other conditions
272(1)
Consensus statement
272(1)
DC in TBI
272(1)
DC in AIS
273(1)
Conclusion
274(1)
References
274(5)
20 Strategies for brain protection
Hossam El Beheiry
Introduction
279(1)
Question/controversy
279(1)
Laboratory evidence
280(1)
Preconditioning
280(1)
Postconditioning
280(1)
Clinical evidence
281(2)
Consensus statement
283(1)
Conclusion
283(1)
References
283(2)
Further reading
285(2)
21 Anesthesia for carotid endarterectomy
Nidhi Gupta
Introduction
287(1)
Anesthetic considerations during carotid endarterectomy
287(1)
Neuromonitoring during carotid endarterectomy
288(1)
The controversy
289(1)
Clinical evidence
289(1)
Local or regional anesthesia
289(1)
General anesthesia
290(1)
Evidence-based literature on anesthesia for carotid endarterectomy
291(4)
Conclusion
295(1)
References
295(2)
Further reading
297(2)
22 Anesthesia for acute stroke
Sarang Biel
Ines P. Koerner
Introduction
299(1)
The controversy
300(1)
Preclinical evidence
300(1)
Clinical evidence
301(1)
Early retrospective reports
301(1)
2014 SNACC consensus statement
302(1)
Randomized controlled trials
303(1)
SIESTA
303(1)
AnStroke
303(1)
GOLIATH
303(1)
Comparison
304(1)
Consensus statement
305(1)
Conclusion
305(1)
References
306(3)
23 Anesthesia for spine surgery
Andres Zorrilla-Vaca
Overview
309(1)
Questions/controversies
309(1)
Preoperative phase
309(3)
Intraoperative phase
312(3)
Evidence-based anesthetic approach for spine surgeries
315(1)
Conclusions
316(1)
References
316(5)
Section F Neurointensive care
24 Choice of sedation in neurointensive care
Hugues Marechal
Aline Defresne
Javier Montupil
Vincent Bonhomme
Introduction
321(1)
The question/controversy
322(5)
Laboratory evidence
327(1)
Propofol
327(2)
Benzodiazepines
329(2)
Alpha2-adrenergic agonists
331(2)
Inhaled anesthetic agents
333(3)
Opioids
336(2)
Barbiturates
338(1)
Ketamine
339(2)
Other agents
341(1)
Clinical evidence
341(1)
Propofol
341(1)
Benzodiazepines
342(1)
AIpha2-adrenergic agonists
343(1)
Inhaled anesthetic agents
344(1)
Opioids
345(1)
Barbiturates
345(1)
Ketamine
346(1)
Consensus statement and conclusions
346(2)
References
348(11)
25 DVT prophylaxis
Ritesh Lamsal
Navindra R. Bista
Introduction/background
359(1)
Causes
359(1)
Clinical presentation
360(1)
Diagnosis
360(1)
Imaging
360(1)
Controversy
361(1)
Specific disease conditions
361(1)
Brain tumors
361(1)
Traumatic brain injury
362(1)
Aneurysmal subarachnoid hemorrhage
362(1)
Acute ischemic stroke
362(1)
Spinal cord injury
363(1)
Miscellaneous neuromuscular diseases
363(1)
Conclusion
363(1)
References
364(3)
26 Role of steroids
Walter Videtta
Gustavo Domeniconi
Introduction
367(1)
Controversy
367(1)
Laboratory evidence
367(1)
Clinical evidence
368(1)
Traumatic brain injury (TBI)
368(1)
Chronic subdural hematoma (CSDH)
369(1)
Central nervous system infections
369(1)
Bacterial meningitis (BM)
369(1)
Tuberculous meningitis (TB)
370(1)
Intracerebral hemorrhage (ICH)
370(1)
Consensus statement
371(1)
Conclusions
371(1)
References
371(4)
27 Initiation of nutrition
Swagata Tripathy
Dona Saha
Introduction
375(1)
The question/controversy
376(1)
How important is timely, appropriate initiation of nutrition in the critically ill patients?
376(1)
Is it possible to overnourish a patient?
376(1)
Nutrition-risk stratification---Why and how?
376(1)
Estimating calorie requirement while initiating nutrition in the ICU
376(1)
What should be the caloric goal, best route, and time to initiate nutrition?
377(1)
Ancillary controversies in initiating nutrition in the ICU
377(1)
Laboratory evidence
377(1)
How important is timely, appropriate initiation of nutrition in a critically ill patient?
377(1)
Is it possible to overnourish a patient?
377(1)
Nutrition-risk stratification---Why and how?
378(1)
Clinical evidence
379(1)
How important is timely, appropriate initiation of nutrition in a critically ill patient?
379(1)
Is it possible to overnourish a patient?
379(1)
Nutrition-risk stratification---Why and how?
379(1)
Estimating calorie requirement while initiating nutrition in the ICU
379(1)
What should be the caloric goal, best route, and time to initiate nutrition
380(1)
Ancillary controversies in initiating nutrition in the ICU
380(1)
Consensus statement
381(1)
How important is timely, appropriate initiation of nutrition in a critically ill patient?
381(1)
Is it possible to overnourish a patient?
381(1)
Nutrition-risk stratification---Why and how?
381(1)
Estimating calorie requirement while initiating nutrition in the ICU
381(1)
What should be the caloric goal, best route, and time to initiate nutrition
382(1)
Ancillary controversies in initiating nutrition in the ICU
383(1)
Special consideration in neurological patients
383(1)
Conclusion
384(1)
References
385(4)
28 Glycemic control
Shaun E. Gruenbaum
Raphael A.O. Bertasi
Tais G.O. Bertasi
Benjamin F. Gruenbaum
Federico Bilotta
Introduction
389(1)
Pathophysiology
389(1)
Controversy
390(1)
Clinical evidence
391(1)
Subarachnoid hemorrhage
391(1)
Acute ischemic stroke
392(1)
Traumatic brain injury
392(1)
Consensus statement
392(1)
Conclusion
393(1)
References
393(2)
29 Anesthetics for status epilepticus
Mariangela Panebianco
Introduction
395(1)
The question/controversy
395(1)
Clinical evidence
396(3)
Consensus statement
399(1)
Conclusions
399(1)
References
400(3)
Section G Ethical issues
30 Diagnosing brain death
Christopher R. Barnes
Michael J. Souter
Introduction
403(1)
The controversy
403(1)
Clinical evidence for diagnosing death by neurologic criteria
404(1)
Consensus statement
405(1)
Prerequisites of clinical testing
405(3)
Conclusion with clinical scenarios
408(3)
References
411(6)
Section H Recent advances
31 Simulations in clinical neurosciences
Ljuba Stojiljkovic
Kan Ma
Jamie Uejima
Introduction
417(1)
The question/controversy
417(1)
Evidence from simulation education research
418(1)
Simulation education research evidence: Assessment tools and debriefing techniques to improve education
418(1)
Evidence from clinical sciences
419(1)
Simulation skill training in neurosurgical anesthesia
419(2)
Basics in neurophysiological monitoring simulation training
421(1)
High-fidelity simulation in management of critical events
422(1)
Training in anesthesia nontechnical skills
423(1)
Consensus statement
424(1)
Conclusion
424(1)
References
424(9)
Section I Webliography
32 Webliography
Vanitha Rajagopalan
Hemanshu Prabhakar
Index 433
Dr. Hemanshu Prabhakar, MD, PhD, FSNCC, is a Professor at the Department of Neuroanaesthesiology and Critical Care at the All India Institute of Medical Sciences (AIIMS), New Delhi, India. He is a recipient of the AIIMS Excellence Award 2012 for his notable contribution to academia and has published over 350 papers in peer-reviewed national and international journals. Dr. Prabhakar is a Reviewer for various national and international journals and is also a Review Author for the Cochrane Collaboration. He has a special interest in the evidence-based practice of neuroanesthesia and ERAS. Dr. Prabhakar is a Member of various national and international neuroanesthesia societies and is the Past Secretary of the Indian Society of Neuroanesthesia and Critical Care (ISNACC) and the Society of Neurocritical Care (SNCC). He is also the Immediate Past President of the SNCC. To date, he has published more than 25 books on neuroanesthesia and neurocritical care. He is featured in the Limca Book of Records as a prolific Writer in the field of neuroanesthesiology. He actively collaborates on research activities among the low-income and middle-income countries.