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|Year : 2015 | Volume
| Issue : 2 | Page : 142-154
Distribution of neurologists and neurosurgeons in India and its relevance to the adoption of telemedicine
Apollo Telemedicine Networking Foundation, Apollo Hospitals, Chennai, Tamil Nadu, India
|Date of Web Publication||5-May-2015|
Dr. Krishnan Ganapathy
Apollo Telemedicine Networking Foundation, Apollo Main Hospital, 21 Greames Lane, Chennai - 600 006, Tamil Nadu
Source of Support: None, Conflict of Interest: None
Majority of Indians have no access to centres of neurological excellence in the country. A detailed analysis of 3666 members of the Neurological Society of India and the Indian Academy of Neurology revealed that not a single member lived in a geographical area covering 934.8 million people. 30.09% live in the four major metropolitan cities, 29.54% in the state capitals, 30.58% in Tier 2 cities, 7.12% in tier 3 cities and 2.67% in rural areas covering a population of 84.59 million. Building additional neurological centres cannot be the only answer, given the acute shortage of funds and trained personnel. In 1999, the author among others, foresaw that it could be possible, to extend the reach of urban specialists to suburban and rural India, by virtual means. The neurological community has been slow to use Information and Communication Technology (ICT) as an integral part of their health care delivery system. This article analyses the distribution of neurologists and neurosurgeons in India and suggests that providing additional virtual neurological care can be the only answer to offset the lop sided distribution of clinical care givers in neurosciences. In this article, the authors' considerable experience in introducing and developing telehealth in India over the last 15 years is being shared with specific emphasis on its relevance to neurosciences. A review of the global literature on telemedicine and neurosciences will substantiate the plea that telemedicine must be deployed by neurologists and neurosurgeons in India to extend their reach to patients particularly those residing in rural areas.
Keywords: Telemedicine and neurosciences; distribution of neurologists and neurosurgeons in India; telemedicine in India
|How to cite this article:|
Ganapathy K. Distribution of neurologists and neurosurgeons in India and its relevance to the adoption of telemedicine. Neurol India 2015;63:142-54
| » Introduction|| |
The term "Telemedicine" encompasses the entire spectrum of technology, armamentarium and processes that are required to enable history taking, conduct a clinical examination, perform investigations and manage a patient, with the consultant and the patient physically at different locations. It presupposes the availability of a personal computer (PC)/laptop/tablet/smart phone, a good video conferencing system/digital camera, adequate connectivity, and software to capture, store, transfer, visualise data, and enable the teleconsultant at the remote end to view reports and digitally manipulate images. ,,,,,,,,, Peripheral medical devices, for example, a blood pressure apparatus or an ophthalmoscope need to be connected to the internet to enable remote monitoring. The role of telemedicine lies in rendering the concept of "distance" and "terrain" meaningless. The role of telemedicine in developing countries is different from that in the developed countries, and this has been adequately highlighted. [11.12] Once the "virtual" presence of a specialist is acknowledged, a patient can access resources existing in a tertiary referral centre without the constraints imposed by distance [Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5]. It is easier to set up a telecommunication infrastructure in suburban and rural areas than to make specialists available there. In developing countries, most citizens do not have immediate access to an appropriate specialist. Incentives to entice specialists to practice in suburban and rural areas have failed. Making necessary infrastructure available is as important as providing monetary compensation. Traditionally, it was believed that communities most likely to benefit from telemedicine are those least likely to be able to afford it and also those least likely to have the requisite communication infrastructure. With exponential growth of ICT, this no longer holds true.
|Figure 2: Teleneurological evaluation from Chennai of a Tanzanian in Muscat followed by radiosurgery at Chennai|
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|Figure 3: Tele CME programme (originating from Chennai) attendees in 39 countries in Africa under the Pan African eNetwork project|
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|Figure 5: An unconscious head injury patient at Port Blair, Andaman and Nicobar Islands, being managed from Chennai|
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Introduction to the neurological scenario in India
The WHO initiated "Global Burden of Disease Study" in 2013  has confirmed that worldwide, neurological disorders are priority health problems. Neurologic disorders, including stroke, dementia, epilepsy, migraine, Parkinson's disease, central nervous system (CNS) infections and neoplasms, account for 8.7% of premature deaths and disability across the world. This excludes traumatic brain injury which itself is a harbinger of major disability. With increasing life expectancy, the burden of neurological diseases is also increasing. According to Gourie Devi, , the prevalence of neurological disorders (more in rural areas) in India ranges from 967-4,070 with a mean of 2394 patients per 100,000 population. This figure of 30 million people with neurological disorders does not include neuro-trauma and neuro-infections. The 6-8 million epileptics and 27-42% of stroke fatalities themselves call for urgent strategies to establish outreach neurology services to cater to rural areas. Policymakers and administrators concentrate on allocation of funds, human resources and infrastructure, to provide secondary and tertiary care. Using ICT to provide virtual specialists is unfortunately, seldom considered. Today, the latter is far more cost effective and eminently doable rather than providing "brick and mortar" specialist centres. Clinical neurology can be provided from a distance offering a sophisticated tele-triage.
In Odisha, 20% of posts of specialists and assistant surgeons in peripheral hospitals are vacant. Specialists are not available in two of the three government medical colleges. In Karnataka, 30% of posts of generalists and 65% of specialists and super specialists in the government hospitals are vacant. Often, one has to travel more than 20 km to reach the nearest Primary Health Centre in Karnataka.  Seven thousand patients visit speciality and super speciality OPD's at AIIMS New Delhi every day from various states. The waiting time for elective neurosurgery is at least 7 months.
Eighty percent of India's specialist doctors live in urban India. 700 million people living in rural India have to travel a distance of 75 to 100 km for a tertiary consultation. In January 2015, the Indian Academy of Neurology had approximately 1312 members (including associate members) [Figure 6] and the Neurological Society of India, approximately 2500 members [including associate members] [Figure 6]. An analysis of the confirmed addresses from both societies revealed that 30.9% of the members lived in the four major metropolitan cities (1103 for 38.72 million population), 29.54% in the state capitals (1083 for 48.80 million population), 30.58% in tier 2 cities (1121 for 158 million population), and, 7.12% in tier 3 cities (261 for 69.6 million population) [Figure 7], [Figure 8], [Figure 9], [Figure 10]. 2.67% members lived in rural areas covering a population of 84.59 million. There was not a single member living in a geographical area covering nearly 934.88 million people [Table 1], [Table 2], [Table 3], [Table 4]. The purist would argue that extrapolating membership of neurological societies to the availability of neurologists and neurosurgeons might not be scientifically valid. However, the small numbers clearly reveal that even if 20% specialists are not society members and even if there is a 10% error in analysis due to wrong information and some inaccuracy in the census data, considering that the denominator is 1250 million, the differences would not be statistically significant.
|Figure 6: Distribution of NSI and IAN members in the major metropolitan cities|
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|Figure 9: Distribution of neurologists and neurosurgeons in state capitals|
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|Table 2: Details of distribution of IAN and NSI members in tier 2 cities |
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Indian Universities only train 387 new postgraduates annually in neurology and neurosurgery [Figure 10]. While Southern India has 205 seats and Northern India 126, North Eastern India with a population of 260 million has only 4 seats. The National Board of Examination produces an additional 44 specialists per year (some of whom have already cleared their qualifying examination earlier) [Figure 10]. Neurologists located in the districts see about 80 patients daily leaving little time for academics and research.  Indian neurologists examine four times the number of patients seen in USA and UK. Greater involvement of primary physicians and internists in the neurological care of patients is, therefore, necessary. 
Distribution of neurological specialists worldwide
Neurological expertise is not available in several areas of the world. [19-26] 20% of the US population has no direct access to neurological services. In a World Federation of Neurology survey  of 63/84 WHO member countries (excluding China), in 31/63 countries, most neurologists worked in large cities. One neurologist served 6,240 to 4,750,000 members of the population. Similar ratios were reported for psychiatrists and neurosurgeons. Ironically, developing countries with the highest burden of neurological disease are those with fewer neurologists, or none at all. In 45/63 (71%) countries, only a small proportion (0-25%) of neurologists worked full time in academic centers. 75-100% of neurologists worked in private practice in 17/63 countries. In 31/63 countries, most neurologists practiced in larger cities.  88.6% of U.S. physicians practiced in urban areas catering to 80.8% of the 2004 U.S. population compared to 11.4% catering to 19.2% people living in rural America.  In 2008, there was one active neurosurgeon for 70,000 people  and 200 pediatric neurosurgeons in USA.  It is estimated that in 2025, there could be a gap of 64,800 speciality physicians and an equal number of primary physicians. In USA, the waiting time for the first appointment with a neurologist is at least 4 weeks. Interstate availability of neurologists varies from 2.6 per 100,000 in Nevada and Wyoming to 12.1 in Massachusetts. Many patients have to travel to academic centres, the travelling time to which may be hours away.  Only 15 of 72 medical colleges in Pakistan have a faculty in neurology. A neurologist does not teach most of the medical students. There are only 15 programs in 7 cities offering postgraduate training with 1 neurologist per 1 million people.  A report in 2005, analyzing data from 50 of 53 African nations, revealed that 11 nations averaged 711,856 population per neurologist, five nations averaged 1,612,039, 23 nations averaged 5,099,908, and 12 nations with a total population of 25,939,273 had no neurologists. A survey of 23 African countries revealed that only 5 had pediatric neurology groups with Malawi, Uganda, and Mozambique having only one specialist each. Neurologic diseases affect 7% of children worldwide, and in some areas every fifth child admitted had a neurological condition, particularly acute seizures.  This survey clearly indicates that there will always be a perennial lack of neurological specialists worldwide.
Tele-neurology: Introduction to the global scenario
Deploying telemedicine would therefore partly resolve the acute "man power" shortage. Patients often travel far, at a considerable expense, when local treatment would have sufficed with teleconsultation. Smartphone apps in neurosurgery are increasingly being used. Zaki in Dec 2013 reviewed 111 apps.  Most publications based on telemedicine in neuroradiology, neuro-ophthalmology , stroke , neurotrauma, epileptology, movement disorders and pediatric neurology have been in the last five years. The author, in the last 15 years, conducted clinical examinations remotely in 1400 neurological patients [Figure 1], [Figure 2] and [Figure 5]. Patients were seen at peripheral telemedicine centers and also at their homes. Commercially available video conferencing (VC) systems were used. Laboratory reports and Digital Imaging and Communications in Medicine (DICOM) compatible images were uploaded in customised software, enabling remote digital manipulation by the teleconsultant. Histology slides were electronically sent to the neuropathologist when necessary. For complex arteriovenous malformations (AVMs), the author (a radiosurgery specialist) has had virtual joint meetings with other specialists with the patient physically located in another state or country.
Today's VC systems are so sophisticated that the body language of several groups of people can be viewed simultaneously on a screen. Acquiring high-quality video and transferring it with minimal loss of data is crucial in the assessment of gait and movement disorders. However, even low-cost cameras and email/chat are sufficient for the management of many neurological disorders. An ophthalmoscope may be connected directly to a PC/laptop at the remote end and the fundus seen by a teleconsultant. Remotely elicited reflexes may be viewed by the specialist. All tele-neurological examinations can be recorded. Replaying the video enables one to study clinical signs in greater details.
Neurological teleconsultations benefit family physicians, ultimately avoiding unnecessary investigations and consultations. The internet is changing the relationship of neurologists with other professionals and is positively influencing the management of stroke, movement disorders and seizures. In a large telemedicine project in the USA, transfer of patients could be avoided in 83% cases, reducing the cost by 50%. Eventually, the standard of neurological care in suburban and rural areas will increase. Preliminary trials have revealed a high levels of satisfaction amongst all stakeholders using the telemedicine facility.
Neurologists are increasingly using telemedicine in emergency stroke care. [37-48] A web-based telestroke system facilitates rapid treatment of patients suffering from acute ischemic stroke in the rural emergency departments.  Tele-rehabilitation is now a reality.  Community stroke tele-rehabilitation programs have improved balance and physical functioning of patients. Long-term effects of specialized stroke care with telemedicine support in community hospitals have been evaluated.  One also has to consider the liability policies in deploying telemedicine-based therapeutics, for example, the decision making regarding whether or not to administer thrombolysis for acute stroke is a prominent cause of malpractice claims. ,, More private insurers are starting to cover telemedicine based treatments including the management of tele-stroke. Twenty one states in the US and Washington, D.C. permit insurance coverage of the service and offer reimbursement on par with in-person visits. Necessity for access to high quality tele-stroke care has been emphasised.  The stroke expert at the hub hospital can interact with the patient and the bedside physician, and swiftly, accurately and remotely perform the National Institutes of Health (NIH) Stroke Scale assessment and review images.  The cost-effectiveness of "hub-and-spoke" telestroke networks for the management of acute ischemic stroke has been documented.  12% of acute care hospitals in Texas, by using telestroke care, covered an additional 2 million patient population.  Prehospital Utility of Rapid Stroke Evaluation Using In-Ambulance Telemedicine (PURSUIT) was a pilot feasibility study that used actors performing pre-scripted stroke scenarios of varying stroke severity to simulate live acute stroke assessments in the field and the ambulance. This served to check the reliability of using mobile telemedicine technology in the prehospital setting to help identify, triage, and evaluate acute ischemic stroke patients.  Studies have shown that a stroke center 'Vascular Neurology Nurse Practitioner' (VNNP) may administer an intravenous tissue plasminogen activator for stroke-in-evolution even if the patient is far away from a neurologist, provided telemedicine facilities are available.  VNNP in partnership with a vascular neurologist, could deliver timely telemedicine consultations, accurate diagnoses, and correct treatments in patients suffering from acute stroke, who presented to remotely located rural emergency departments within a 'hub and spoke' network. 
Advantages of deploying telemedicine in neurology
Seizures have been managed in rural communities , remotely with no difference in the frequency of consultation for repeated seizures, hospitalization or emergency room visits when compared to face-to-face management. Email triages by neurologists  of new referrals from general practitioners have reduced the physical visits by about half. In 2015, unfamiliarity with the use of email, video conferencing or non-availability of connectivity at the consultant's end are usually not the constraining issues. Occasionally, unfamiliarity of these techniques at the level of the patient/the peripheral hospital could be the factors that prevent the adequate use of this technology. The relative unwillingness of specialists to dispense with a face-to-face consultation is an important limiting factor. The belief that hands-on neurological examination is essential is more often a belief rather than a fact based on actual evidence. The author has carried out even a detailed sensory examination remotely, with the patient himself/herself touching different dermatomes. The medico legal implications (that are in fact virtually non-existent) are another concern. The American Telemedicine Association has listed the names of states that allow out-of-state teleconsults.  Globalization and outsourcing are now in the neurologist's telemedicine vocabulary.  Wound infections were monitored via cell phone images in a pediatric neurosurgery teleconsulting centre. 
International teleneuroradiology services
In 1998, a teleradiology system was established in Croatia connecting 34 computed tomograms (CT), magnetic resonance imaging (MRI) and digital subtraction angiogram (DSA) scanners in 29 hospitals to a referral neurosurgery center in Zagreb. In the first three years, the network saved 400,000 km of patient transportation (i.e., without a teleconsultation, all the patients included in this study would have had to be transported this overall distance).  In 1997, the national neurosurgical teleradiology system in Ireland connected six major referring hospitals to the only two neurosurgical departments serving a population of 3.5 million.  Of the 750 emergency CT scans transmitted, transmission failures occurred in 6% cases. As CT and MRI scanners were not DICOM compatible, the films were scanned and sent for teleconsultation. Poon  from Hong Kong has discussed the possibility of teleradiology improving inter-hospital management of head-injury. Apollo Telehealth Services, Telerad Solutions and other health consortiums now provide teleneuroradiology services in India.
Telemedicine is particularly useful in neurotrauma by helping in the institution of therapeutic measures before the transfer of patients, and, in reducing their unnecessary transfers. Successful use of telemedicine in the remote management of head trauma in India has been reported.  The author, in the last 15 years, remotely evaluated 335 patients with head trauma. Several serious head injuries were successfully managed. Tele-discussions of treatment options were conducted when transfer was recommended. Tele-consultation was used for the subsequent follow-up of these patients. A general surgeon, tele-mentored by the author remotely, operated upon three cases of compound depressed skull fractures. Interestingly, there was a subsequent drop in neurosurgical tele-referrals from telemedicine-enabled centers. The doctor at these remote center had acquired the confidence to manage most cases of simple head trauma without the need for further tele-consulting.
Telemedicine in neurosciences in India
Clinical telemedicine was formally initiated in South Asia when the world's first Very Small Aperture Terminal (VSAT; a two-way satellite ground station with a small dish antenna) was commissioned on March 24 th 2000 by the then US President Bill Clinton in a village hospital at Aragonda in Andhra Pradesh. A tele-neurological demonstration in February 2002 by the author convinced the then chairman of ISRO (Indian Space Research Organisation) to set up VSAT's in super speciality and peripheral hospitals. Published reports of the formal usage of telemedicine in neurosciences are few. ,,,,,,, Of the 400 virtual grand rounds carried out between the various tertiary Apollo Hospitals, using multi-point video conferencing, 95 were in neurosciences. 21% of teleconsultations (8840 out of 42,127) at Apollo Hospitals, Chennai, till Oct 31 st 2014 were in neurology and neurosurgery [Table 5]. Two hundred of the 2500 CME lectures delivered for doctors in 45 countries under the Government of India Pan African e-Network project have been in neurosciences [Figure 3].  Misra has pointed out that the use of telemedicine in the treatment of status epilepticus and stroke have a high potential for improving patient management.  The impact of telemedicine in the postoperative care of 3000 neurosurgery patients in a virtual Outpatient Clinic has been reported from Bengaluru.  Awareness of the value of telemedicine in neurosciences in India is slowly increasing.  More than 500 tele-consultations were given in neurosciences from the year 2000 to 2002 from Aragonda. Video clippings are available of pseudo-seizures, involuntary movements, Parkinsonism More Details, myopathy, etc., In all these cases, the teleconsultant was able to carry out a neurological examination that was in sufficient details to assist the local doctor. The quality of CT images received were adequate to give an expert opinion.
Patient empowerment in rural India: Relevance to neurosciences
Promoting health literacy is critical in improving health outcomes. By deploying multi-point video-conferencing, the author has initiated a knowledge empowerment programme at the internet enabled Village Resource Centers of the MS Swaminathan Research Foundation in rural Tamilnadu. , Over a 19 month period, consultants spoke on forty-four topics and interacted with 9800 villagers in 18 villages. The lectures were based on different topics including "Recognising the dangerous headache," "Management of head injuries," "Management of brain tumours," etc., Many neurological conditions are eminently preventable and e-Lectures by specialists go a long way in providing necessary awareness quickly and cost effectively.
The information and communication technology scenario in India
In an interview with the Wharton School of Business  and at other forums, ,, the author has argued that deployment of ICT alone will make available, secondary and tertiary health care to suburban and rural India. Rural tele-density is currently estimated at 65%. The Ministry of Health, Government of India has linked 150 government medical colleges through a high-speed optical fibre National Medical College Network (NMCN). A bandwidth of up to 1 Gigabyte per second is available. , Super-specialists will thus be virtually available in smaller medical colleges. The health implications as a result of the rise of internet usage in India have been documented. As rural India will soon be internet ready, a mandatory "Virtual Rural Postings" has been advocated for doctors. Urban doctors would thus gain an insight into the problems occurring in rural areas. Incentives and disincentives have to be introduced. The implications of proper implementation of this project for the delivery of neurosciences to the remotest corners of India would be considerable.
| » Conclusion|| |
Neurologists and neurosurgeons need to embrace telemedicine to extend their reach to their patients. Deployment of ICT can make neurological services available in regions where proper medical facilities do not exist. Our services should be universally available to anyone, anytime and anywhere.
| » Acknowledgment|| |
I am grateful to Ms. R Geethanjali Asst Manager ATNF for her role as a Research Assistant and for her secretarial help in compiling this article. The then Secretary NSI, Dr RC Mishra, the Secretary IAN, Dr Gagandeep Singh, and Dr Bipin Batra, Executive Director NBE provided raw data for the analysis.
| » References|| |
Ganapathy K. Medical Informatics Around the World Universal Publishers: Barnes and Noble. Editor A. Steele. Chapter on India; 2002. Available from: http://www.upublish.com/books/steele3.htm
. [Last accessed on 2015 Mar 03].
Ganapathy K. Telemedicine in the Indian context. An overview P 178-181 in "Establishing telemedicine in developing countries: From inception to implementation. In: Latifi R, editor. Studies in Health Technology and Informatics. Vol 104. IOS Press Series Studies in Health Technology and Informatics; 2004.
Ganapathy K. Telemedicine in India. In: Steele A, editor. Medical Informatics Around the World. Universal Publishers; 2002.
Ganapathy K. Interview - Asian Hospital and Healthcare Management. 4 th
ed. Healthcare and IT; 2009. p. 60-2.
Ganapathy K. Guest Lecture "Telemedicine in India; an Overview" at the Special Interest Group at the Annual Conference of the American Telemedicine Association Tampa, Florida, USA; May, 1 st
2011. Available from: http://www.youtube.com/watch?v=BKndp1MhodU
. [Last accessed on 2015 Mar 03].
Ganapathy K. Telemedicine in the Indian context: An overview. Stud Health Technol Inform 2004;104:178-81.
Ganapathy K. Review Article Telehealth in India: The Apollo Contribution and an overview Apollo Med 2014;11:201-7.
Edworthy SM. Telemedicine in developing countries. BMJ 2001;323:524-5.
Vassallo DJ, Hoque F, Roberts MF, Patterson V, Swinfen P, Swinfen R. An evaluation of the first year′s experience with a low-cost telemedicine link in Bangladesh. J Telemed Telecare 2001;7:125-38.
Gourie-Devi M. Epidemiology of neurological disorders in India: Review of background, prevalence and incidence of epilepsy, stroke, Parkinson′s disease and tremors. Neurol India 2014;62:588-98.
Gourie-Devi M. Organization of neurology services in India: Unmet needs and the way forward. Neurol India 2008;56:4-12.
Khadilkar SV. Neurology in India. Ann Indian Acad Neurol 2013;16:465-6.
Khadilkar SV, Wagh S. Practice patterns of neurology in India: Fewer hands, more work. Neurol India 2007;55:27-30.
Singh K, Mishra SK, Misra R, Gujral RB, Gupta RK, Misra UK, et al
. Strengthening Postgraduate Medical Education in Peripheral Medical Colleges through Telemedicine. Telemed J E Health 2004;10:S 55-6.
Bower JH, Zenebe G. Neurologic services in the nations of Africa. Neurology 2005;64:412-5.
Fordyce MA, Chen FM, Doescher MP, Hart LG. Physician Supply and Distribution in Rural Areas of the United States Final Report #116; 2005.
Wasay M, Khatri IA. Neurology in Pakistan: Growing burden, low on priority, and a hope to keep alive. Neurology 2013;80:581-2.
Wasay M, Ali S. Growing burden of neurological diseases in Pakistan - Need for a national health survey. J Pak Med Assoc 2010;60:249-50.
Wang XP, Zhang WF, Huang HY, Preter M. Neurology in the People′s Republic of China - An update. Eur Neurol 2010;64:320-4.
Bergen DC, World Federation of Neurology Task Force on Neurological Services. Training and distribution of neurologists worldwide. J Neurol Sci 2002;198:3-7.
Durham SR, Lane JR, Shipman SA. The pediatric neurosurgical workforce: Defining the current supply. Clinical article. J Neurosurg Pediatr 2009;3:1-10.
Wilmshurst JM, Badoe E, Wammanda RD, Mallewa M, Kakooza-Mwesige A, Venter A, et al
. Child neurology services in Africa. J Child Neurol 2011;26:1555-63.
Zaki M, Drazin D. Smartphone use in neurosurgery? APP-solutely! Surg Neurol Int 2014;5:113.
Adams RJ, Debenham E, Chalela J, Chimowitz M, Hays A, Hill C, et al.
REACH MUSC: A Telemedicine Facilitated Network for Stroke: Initial Operational Experience. Front Neurol 2012;3:33.
Albright KC, Branas CC, Meyer BC, Matherne-Meyer DE, Zivin JA, Lyden PD, et al.
ACCESS: Acute cerebrovascular care in emergency stroke systems. Arch Neurol 2010;67:1210-8.
Audebert HJ, Schenkel J, Heuschmann PU, Bogdahn U, Haberl RL, Telemedic Pilot Project for Integrative Stroke Care Group. Effects of the implementation of a telemedical stroke network: The Telemedic Pilot Project for Integrative Stroke Care (TEMPiS) in Bavaria, Germany. Lancet Neurol 2006;5:742-8.
Ramanujam P, Castillo E, Patel E, Vilke G, Wilson MP, Dunford JV. Prehospital transport time intervals for acute stroke patients. J Emerg Med 2009;37:40-5.
Switzer JA, Hall C, Gross H, Waller J, Nichols FT, Wang S, et al.
A web-based telestroke system facilitates rapid treatment of acute ischemic stroke patients in rural emergency departments. J Emerg Med 2009;36:12-8.
Saler M, Switzer JA, Hess DC. Use of telemedicine and helicopter transport to improve stroke care in remote locations. Curr Treat Options Cardiovasc Med 2011;13:215-24.
Kazley AS, Wilkerson RC, Jauch E, Adams RJ. Access to Expert Stroke Care with Telemedicine: REACH MUSC. Front Neurol 2012;3:44.
Demaerschalk BM, Miley ML, Kiernan TE, Bobrow BJ, Corday DA, Wellik KE, et al.
Stroke telemedicine. Mayo Clin Proc 2009;84:53-64.
Demaerschalk BM, Bobrow BJ, Raman R, Kiernan TE, Aguilar MI, Ingall TJ, et al.
Stroke team remote evaluation using a digital observation camera in Arizona: The initial Mayo clinic experience trial. Stroke 2010;41:1251-8.
Meyer BC, Raman R, Hemmen T, Obler R, Zivin JA, Rao R, et al.
Efficacy of site-independent telemedicine in the STRokE DOC trial: A randomised, blinded, prospective study. Lancet Neurol 2008;7:787-95.
Schwamm LH, Rosenthal ES, Hirshberg A, Schaefer PW, Little EA, Kvedar JC, et al.
Virtual TeleStroke support for the emergency department evaluation of acute stroke. Acad Emerg Med 2004;11:1193-7.
Van Hooff RJ, Cambron M, Van Dyck R, De Smedt A, Moens M, Espinoza AV, et al.
Prehospital unassisted assessment of stroke severity using telemedicine: A feasibility study. Stroke 2013;44:2907-9.
Lai JC, Woo J, Hui E, Chan WM. Telerehabilitation - A new model for community-based stroke rehabilitation. J Telemed Telecare 2004;10:199-205.
Audebert HJ, Schultes K, Tietz V, Heuschmann PU, Bogdahn U, Haberl RL, et al.
Long-term effects of specialized stroke care with telemedicine support in community hospitals on behalf of the Telemedical Project for Integrative Stroke Care (TEMPiS). Stroke 2009;40:902-8.
Audebert HJ, Kukla C, Clarmann von Claranau S, Kühn J, Vatankhah B, Schenkel J, et al.
Telemedicine for safe and extended use of thrombolysis in stroke: The Telemedic Pilot Project for Integrative Stroke Care (TEMPiS) in Bavaria. Stroke 2005;36:287-91.
Choi JY, Porche NA, Albright KC, Khaja AM, Ho VS, Grotta JC. Using telemedicine to facilitate thrombolytic therapy for patients with acute stroke. Jt Comm J Qual Patient Saf 2006;32:199-205.
Weber JE, Ebinger M, Rozanski M, Waldschmidt C, Wendt M, Winter B, et al.
Prehospital thrombolysis in acute stroke: Results of the PHANTOM-S pilot study. Neurology 2013;80:163-8.
Schwamm LH, Holloway RG, Amarenco P, Audebert HJ, Bakas T, Chumbler NR, et al.
A review of the evidence for the use of telemedicine within stroke systems of care: A scientific statement from the American Heart Association/American Stroke Association. Stroke 2009;40:2616-34.
Switzer JA, Demaerschalk BM, Xie J, Fan L, Villa KF, Wu EQ. Cost-effectiveness of hub-and-spoke telestroke networks for the management of acute ischemic stroke from the hospitals′ perspectives. Circ Cardiovasc Qual Outcomes 2013;6:18-26.
Wu TC, Lyerly MJ, Albright KC, Ward E, Hassler A, Messier J, et al.
Impact of Telemedicine on Access to Acute Stroke Care in the State of Texas. Ann Clin Transl Neurol 2014;1:27-33.
Wu TC, Nguyen C, Ankrom C, Yang J, Persse D, Vahidy F, et al
. Prehospital utility of rapid stroke evaluation using in-ambulance telemedicine: A pilot feasibility study. Stroke 2014;45:2342-7.
Grotta JC, Savitz SI, Persse D. Stroke severity as well as time should determine stroke patient triage. Stroke 2013;44:555-7.
Demaerschalk BM, Kiernan TE, Investigators S. Vascular neurology nurse practitioner provision of telemedicine consultations. Int J Telemed Appl 2010; 2010.
Megan Brooks, High Satisfaction with Telemedicine in Pediatric Epilepsy, Medscape Medical News from the: Child Neurology Society (CNS). Annual Meeting; 2013. Available from: http://www.medscape.com/viewarticle/814365
. [Last accessed on 2015 Mar 03].
Patterson V, Humphreys J, Chua R. Email triage of new neurological outpatient referrals from general practice. J Neurol Neurosurg Psychiatry 2004;75:617-20.
Rasmusson KA, Hartshorn JC. A comparison of epilepsy patients in a traditional ambulatory clinic and a telemedicine clinic. Epilepsia 2005;46:767-70.
Patterson V, Wootton R. How can teleneurology improve patient care? Nat Clin Pract Neurol 2006;2:346-7.
Pirris SM, Monaco EA 3 rd
, Tyler-Kabara EC. Telemedicine through the use of digital cell phone technology in pediatric neurosurgery: A case series. Neurosurgery 2010;66:999-1004.
Gray WP, Somers J, Buckley TF. Report of a national neurosurgical teleradiology system. J Telemed Telecare 1997;3 Suppl 1:36-7.
Poon WS, Goh KY. The impact of teleradiology on the inter-hospital transfer of neurosurgical patients and their outcome. Hong Kong Med J 1998;4:293-95.
Ganapathy K. Telemedicine in the management of head trauma: An overview. Indian J Neurotraumatol 2004;1:1-7.
Ganapathy K. Telemedicine and neurosciences in developing countries. Surg Neurol 2002;58:388-94.
Ganapathy K. Role of telemedicine in neurosciences In: Progress in Clinical Neurosciences. Vol. 17, 2002; p. 1-10.
Ganapathy K. Management and prevention of Head injuries in India using telemedicine in "ICRAN 2002. In: Bali, Wirjomartani BA, Monduzzi, editors. International Conference on Recent Advances in Neurotraumatology. International Proceedings Division; August, 2002.
Ganapathy K. Role of telemedicine in neurosciences. In: Latifi R, editor. Establishing Telemedicine in Developing Countries: From Inception to Implementation. Studies in health technology and Informatics. Vol. 104. IOS Press; 2004. p. 116-24.
Ganapathy K. Telemedicine and neurosciences. J Clin Neurosci 2005;12:851-62.
Ganapathy K. Telemedicine in neurology: Underutilized potential. Neurol India 2005;53:242.
Ganapathy. K, Aditi R. Telemedicine in Neurosciences. In: Latifi R, editor. Current Principles and Practices of Telemedicine. IOS Press; 2008. p. 149-69.
Misra UK, Kalita J, Mishra SK, Yadav RK. Telemedicine in neurology: Underutilized potential. Neurol India 2005;53:27-31.
Dadlani R, Mani S, A U JG, Mohan D, Rajgopalan N, Thakar S, et al
. The impact of telemedicine in the postoperative care of the neurosurgery patient in an outpatient clinic: A unique perspective of this valuable resource in the developing world - An experience of more than 3000 teleconsultations. World Neurosurg 2014;82:270-83.
Sinha VD, Tiwari RN, Kataria R. Telemedicine in neurosurgical emergency: Indian perspective. Asian J Neurosurg 2012;7:75-7.
Available from: http://www.telemedicineindia.com/mssrf.html.
Ganapathy K. Guest lecture "Telemedicine in India; An Overview" at the Special Interest Group at the Annual Conference of the American Telemedicine Association Tampa Florida USA. May 1 st
2011. Available from: http://www.youtube.com/watch?v=BKndp1MhodU
. [Last accessed on 2015 Mar 03].
Ganapathy K. Invited faculty. mLearning: The future is now. In: National Workshop for Sensitization and Awareness on National Medical College Network Project Ministry of Health and Family Welfare, Govt. of India. Lucknow: School of Telemedicine and Biomedical Informatics, SGPGIMS; 2013. p. 21-2. Available from: http://www.nrct.in/nmcnworkshop.php
. [Last accessed on 2015 Mar 03].
[Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5], [Figure 6], [Figure 7], [Figure 8], [Figure 9], [Figure 10]
[Table 1], [Table 2], [Table 3], [Table 4], [Table 5]
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