NEWS
- Ms. Rashi Dutt, a research scholar guided by Dr. Amit Acharyya won Intel India Research fellowship.
|
|
- Advanced Embedded Systems and IC Design Laboratory, members, IIT Hyderabad researchers fundamental research on Nanomagnetic Logic - Featured in IRDS™ 2020: Beyond CMOS.
Scholarly contribution from the researchers of AESICD Laboratory, Dept of Electrical Engineering, IIT Hyderabad in the domain of Magnetic Quantum-dot Cellular Automata (MQCA) based Nanomagnetic Logic (NML) has been recognized and featured in the International Roadmap for Devices and Systems 2020 Beyond CMOS focus group report. This is one of the significant contributions from Indian academia/industry which is by data 0.1% of the global contributions towards the International Roadmap initiative by IEEE and other international bodies. The work featured in the IRDS™ 2020: Beyond CMOS, revisits the fundamental understanding of three input majority gate designed using nanomagnets working under the principles of MQCA. The team comprises Dr. Santhosh Sivasubramani, Dr. Chandrajit Pal, Mr. Venkat Mattela and Supervised by Dr. Amit Acharyya. The work appeared in the Institute of Physics (IOP) Nanotechnology journal. While speaking about this contribution Dr. Santhosh Sivasubramani says, "We are glad that our work has been featured in the International Roadmap. International recognition to this scholarly contribution in the emerging field of Rebooting Computing motivates us further to perform translational research from fundamentals to its applications. Energy efficient computing is the need of the hour and this work will certainly pave way towards it". Speaking about this contribution Dr. Amit Acharyya says "This is the first step towards futuristic computation. We are proud to be in the 0.1% of contribution from Indian Academia towards the global contribution for IRDS". This research performs the Boolean Optimizations on the unexplored configuration of three input nanomagnetic majority gate. In addition, the researchers have achieved area efficient and high-speed architecture design methodology for binary adder using this proposed majority gate. The results show promising aspects of its envisaged applications in next generation low power magnetic computing devices. Doi: 10.1088/1361-6528/ab295a
[Ref: 1. International Roadmap for Devices and Systems (IRDS) 2020 Edition "Beyond CMOS" International Focus Group Report
]
|
- Are Medical Device Parks Helpful for Indian Innovators?
The government has approved setting up four medical device parks to boost Make in India initiative and produce affordable and high-quality medical equipment. According to news reports, the four parks will be set up in Andhra Pradesh, Telangana, Tamil Nadu and Kerala. Can this help the Indian healthcare sector handle existential challenge- Importing Medical Devices? A HE report.
This is the story of a few health tech startups, their experience with med-tech parks, investors, their life cycle and challenges.
India doesn't have stringent laws about patient data and privacy, which in turn is a gold mine for technology and medical device firms. However, we don't detect many companies offering the right solutions or surviving the Indian market stipulations.
Why?
Long Gestation Period?
Take the case of the Indian Institute of Technology Hyderabad. IIT Hyderabad researchers have developed a low-power device that can monitor electrocardiogram (ECG) and alert patients and doctors in real-time about the risk of cardiovascular diseases (CVD).
CVD tops the list of public health concerns compared to other diseases and has almost become the primary cause of human deaths, as per a survey of the World Health Organization (WHO). The leading causes include changings trend in lifestyle, unhealthy eating habits, tobacco usage, low fruit and vegetable intake and lack of physical activity and lot of stress. These factors necessitate developing a personalised CVD monitoring device powered by battery backup and with a very low form factor to achieve unobtrusiveness that works under the emerging cyber-physical system setup.
This area was researched by a team comprising Vemishetty Naresh. PhD. Research Scholar, Advanced Embedded Systems and IC Design Laboratory, Department of Electrical Engineering, IIT Hyderabad and Dr Amit Acharyya, Associate Professor, Department of Electrical Engineering, IIT Hyderabad.
"India needs affordable and indigenous devices. That was the vision behind developing this tiny non-obtrusive cardiovascular healthcare assistant. The ratio of doctors compared to patients is below average; technology is the solution for healthcare. That's why we developed this intelligent device. It's not just an ECG device. Our algorithm recreates the diagnosis of the doctor based on ECG data points," says Dr Amit Acharyya.
What does he think about government initiatives like Make-in-India? "Sustainability is the biggest problem in the startup world. It is nice to see that the government has set up these initiatives. But sustainability is the biggest issue," he adds. Interestingly, the government has recently announced setting up of more medical device parks. Will it help Indian companies?
MTaI Chairman and Director General Pavan Choudary points out that Andhra Pradesh Medical Device Zone (AMTZ) is coming up very well and if successful, could become a torchbearer for other Medtech parks. "Setting up of Medtech parks should surely increase the production of medical devices in India, but the type of parks needed and their locations should be decided by what category of medical devices are we looking at producing, what type of investors we wish to attract and whether the regulatory entry barriers are commensurate with our ambitions. Medtech parks alone won't lead to an increase in FDI. FDI fell from $439 million in 2016 to $66 million in 2018. Jan-June 2019 figure of $108 million could be signalling a recovery. Let's ensure through well thought out policies and incentives that this time the growth endures." Many innovators think that government doesn't understand the needs of med-tech startups.
[Ref: 1. "Healthcare Executive Dec 17 2019 ]
|
- Medical Devices Market Size Is Anticipated To Reach USD 6170.72 Million at a CAGR of 22% By 2025 | Share Analysis, Future Insights, Growth Estimation and Industry Trends
Medical Devices Industry News
December 2019: Researchers at IIT Hyderabad have created a low-power device that can help to monitor ECG (electrocardiogram) and alert doctors and patients regarding the risk of cardiovascular disorders in real-time.
[Ref: 1. "MedGadget Jan 15 2020 ]
|
- IIT-Hyderabad designs low-power ECG data in realtime - Media Coverage:
The ECG device has intelligent processing within it, which will be in a position to monitor the condition of the heart in real-time and can set an alarm when the heart condition deviates from normal.
Dr Amit Acharyya, Associate Professor, Department of Electrical Engineering, IIT Hyderabad, is one of the members of the research group. He spoke to Anjali Jha about the low-power device that can monitor Electrocardiogram (ECG) and can alert patients and doctors in real-time about the risk of Cardio-Vascular Diseases (CVD).
Tell us about the new device and how is it going to help patients?
This machine is a one-stop solution for the patients and doctors who have been using various types of ECG machines in the hospital, clinic, home, Holter and ambulances. This is a very tiny device and can be used as standard 12 lead ECG, reduced lead or single lead. This also has intelligent processing within it, which can monitor the condition of the heart in real-time and can set an alarm when the condition deviates from normal. Furthermore, it can also predict the probable disease that the patient is about to suffer. Currently, there are different types of devices available to address the aforementioned issues. Hence the proposed single stop solution is going to be very appealing to the doctors as well as the patients.
Who will be most benefited by this device?
The doctors and patients both will find this discovery to be beneficial along with the care-givers and care-takers of the patients who are in tremendous anxiety when their family members are admitted in the hospital. As CVD is one of the leading causes of mortality and can be prevented to an extent with early diagnosis, therapy and prognosis, the ECG device brought by us is going to be of immense help to the society. The device can detect various ECG abnormalities and comes with a prototype board that looks similar to a smartphone.
How did you come up with the idea to develop a machine like this?
It is connected with several incidents that happened with the near and dear ones in the family. However, in my opinion, the ultimate aim of the technology that we develop should be to translate into a product which will eventually help the society. With that thought, we started the work five years back and bit by bit the problem statements have been designed, challenges have been identified, the market has been studied and that's how the device was developed.
What was the most interesting part for the team during the entire research?
Every bit of this research was interesting and very difficult to distinguish. Having said that, I can tell you when we manufactured the device based on our design and our algorithm, it was a wonderful experience. Furthermore, it was adventurous when the field trials were being conducted.
[Ref: 1. "IIT-Hyderabad designs low-power ECG data in realtime" ET Helath World 20 December 2019. ]
|
- IIT Hyderabad Researchers Design Device To Diagnose Medical Conditions From ECG Data - Media Coverage:
Researchers from Indian Institute of Technology (IIT), Hyderabad have developed a low-power device that can monitor electrocardiogram (ECG) and alert patients and doctors in real-time about the risk of cardiovascular diseases (CVD).
This area was researched by a team comprising Mr. Vemishetty Naresh. Ph.D. Research Scholar at IIT Hyderabad and Dr. Amit Acharyya, Associate Professor, Department of Electrical Engineering, IIT Hyderabad.
As a proof of concept demonstration, the researchers have taken healthy and various unhealthy cases from the Physionet database to validate the proposed method.
Their research was published recently in the peer-reviewed international journal Scientific Reports, an online open access, scientific journal published by prestigious Nature Research.
Speaking about the importance of this Research, Dr. Amit Acharyya said, "CVD is one of the deadliest disease and irrespective of the economy of the country people are getting affected by it. It is manifested in different forms necessitating the early diagnosis, therapy and prognosis. Hence the proposed work on the classification is going to be of immense help for the society."
Speaking about their plans to take this Research to benefit the society at large, Mr. Vemishetty Naresh said, "There is an exponential increment in human mortality rate, due to the delayed diagnosis, lack of proper distribution of health care facilities and prognosis centers in the vicinity. There is a need of a robust automated device for the early detection of the vital abnormal ECG signals in chronic CVD patients."
This work was partly supported by Department of Science and Technology (DST), Government of India under the 'Internet of Things (IoT) Research of Interdisciplinary Cyber Physical Systems (ICPS) Programme,'with the Project entitled 'IOT Based Holistic Prevention and Prediction of CVD (i-PREACT).'
[Ref: 1. Hindustan Times. "New research on ECG data in realtime by IIT-H" 04 December 2019.
2. Deccan Chronicle . "IIT-H device can scan ECG for heart disease" 04 December 2019.
3. Telangana Today. "Device monitors heart in real time" 04 December 2019.
4. The New Indian Express . "IIT-H team develops device to monitor ECG data in real time" 04 December 2019.
5. Gadgets Now . "IIT-Hyderabad develops device to monitor ECG data in real time" 04 December 2019.
6. The Hans India. "IIT Hyderabad develops device to monitor ECG data in real time" 04 December 2019.
7. NDTV . "IIT Hyderabad Researchers Design Device To Diagnose Medical Conditions From ECG Data" 04 December 2019.
8. NDTV . "IIT-Hyderabad designs low-power ECG data in realtime" ET Helath World 20 December 2019.
]
|
|
|
- IIT Hyderabad Researchers develop Low Power Chips for Artificial Intelligence devices - Media Coverage:
Researchers of the Indian Institute of Technology Hyderabad have developed low power chips that can be used in Artificial Intelligence-powered devices. They have developed Magnetic quantum-dot cellular automata (MQCA) based on nanomagnetic logic architectural design methodology of approximate arithmetic circuits. The researchers are working towards a vision of realizing resource-constrained Magnetic Chips for Ultra low power portable Artificial Intelligent applications.
The need for High-Performance Computing data centres is rapidly growing in order to cater to the growing demand in processing and storing Big Data arising due to Digital India and other initiatives.
Speaking about the outcomes and benefits of this Research, Amit Acharyya said, "We have computationally modelled, designed and implemented an arithmetic adder, subtractor and add/sub using nanomagnets which are the basic building blocks of performing AI computing. We are aware that the emerging edge computing devices are handy in size as well as requiring low-power computation and are also tolerant to feeble decrease in precision. The reported work of ours' targets such devices, where there is a significant investment in the research towards making it low power without compromising on accuracy too much. Performing AI computing on edge with approximate nanomagnetic logic deployed on the magnetic ICs is an attempt towards the futuristic computations. I hope this work paves the way towards achieving such a vision."
Speaking about this research, Santhosh Sivasubramani said, "The proposed design methodology of performing approximate arithmetic computation using nanomagnets yields 50%-80% reduction in the number of nanomagnets and clock cycles without much degradation in the accuracy leading to area and energy efficiency in comparison to the traditional implementation of accurate nanomagnetic logic design. We achieved a 1-bit approximate full adder / subtractor implementation using only 4 individual nanomagnets which offers supremacy over existing designs contributing towards Rebooting Computing. With these becoming successful, we now aim for a bigger goal by porting some power-hungry AI applications on such indigenously developed ultra-low-power computing platform."
The study results were published in journal Nanotechnology.
[Ref: 1. IIT-H develops low-power chip for Al devices, Publication: The Times of India, Edition: Hyderabad; Page No: 5, Date: 23rd October 2019
2. Telangana Today, IIT-H chips to power Al devices, Edition: Hyderabad, Page No: 6
3. IIT-H develops low-power chips for AI devices, Date: 23rd October 2019, Publication: The New Indian Express, Edition: Hyderabad, Page No: 4
4. IIT Hyderabad Researchers develop Low Power Chips for Artificial Intelligence devices, Date: 23rd October 2019, Publication: India Today
5. IIT Hyderabad researchers develop low power chips, Date: 23rd October 2019, Publication: The Economic Times,
Edition: Online, Journalist: Prachi Verma
6. IIT-H develops low power chip for AI-enabled devices, Date: 23rd October 2019,
Publication: The Times of India,
Edition: Online,
Journalist: Preeti Biswas
7. IIT Hyderabad develops low-power chip for artificial intelligence devices, Date: 23rd October 2019,
Publication: The Economic Times CIO,
Edition: Online
8. IIT Hyderabad researchers develop low power chips for AI devices, Date: 23rd October 2019,
Publication: Analytics India Magazine,
Edition: Online,
Journalist: Prajakta Hebbar
8. IIT Hyderabad researchers develop low power chips, Date: 23rd October 2019,
Publication: Business Daylight,
Edition: Online
9. Low power chips for AI devices, Date: 30th October 2019,
Publication: Hindustan Times,
Edition: Online
10. Quantum Dot Chips to AI’s rescue, Date: 22nd October 2019,
Publication: Medium,
Edition: Online
]
|
- Nanomagnet assembly to make up efficient logic gate: These solutions can complement CMOS devices - Media Coverage:
A group at Indian Institute of Technology (IIT) Hyderabad has proposed a novel design methodology for constructing an adder logic gate using nanomagnets from magnetic quantum dot cellular automata. At a stage when conventional CMOS (Complementary metal oxide semiconductor) devices are approaching a saturation in terms of power efficiency, this comes as an effective step towards a complementary approach. AI applications such as speech and face recognition, used for instance in self-driving cars, require 3D cameras and real-time processing. These are computation-intensive and in dire need of efficient solutions. This technology is a complementary solution to CMOS devices in this, being both power efficient and non-volatile. In a paper published in IEEE Transactions in Nanotechnology, the group shows how modifying the shape and alignment of the nanomagnet assembly can improve earlier models of such adders.
[Ref: The Hindu. "Nanomagnet assembly to make up efficient logic gate" 30 March 2019. ]
|
|
|
- Hyderabad scientists make magnetic graphene for Next Gen digital devices - Media Coverage:
The growing popularity of digital devices has spurred the need for integrated circuits that are light weight, consume ultra-low power and are highly efficient. Technology companies are increasingly focusing on nano electronics for developing such devices but using nano material like graphene is still challenging as there is little evidence of it showing intrinsic magnetism.Now researchers from the Indian Institute of Technology (IIT), Hyderabad and University of Hyderabad have shown that graphene can be made magnetic with the control on electric field and temperature. They have shown this in single layer zigzag graphene nanoribbons. “ Graphene, a carbon material, is the thinnest and strongest material known. It came into the limelight after its exceptional quantum properties fetched Andre Geim and Konstantin Novoselov the 2010 Nobel Prize in Physics. " In order to make ‘graphene processors’ a reality, the key issue to be addressed is thermal management. To achieve this, we need a mechanism which could harness excess heat generated in the operation of gadgets to induce magnetism. Our group envisaged a processor application using a single-layer zigzag graphene nanoribbon which could potentially harness heat generated in the system, to reduce the voltage requirement and to perform computations (information propagation) using spins. The research team included Santhosh Sivasubramani, Sanghamitra Debroy, Amit Acharyya (IIT Hyderabad); Swati Ghosh Acharyya (University of Hyderabad). The study results were published in journal Nanotechnology.
[Ref: 1. India Science Wire, "Hyderabad scientists make magnetic graphene for Next Gen digital devices" March 11 2019.
2. The Hans India. "Use of nano material is a major challenge in present times" 12 March 2019.
3. Telangana Today. "Hyderabad researchers make magnetic graphene for digital devices" March 12 2019
4. The Hindu BusinessLine. "Hyderabad scientists make magnetic graphene for Next Gen digital devices" March 11 2019
5. Research Stash. "Scientists Make Magnetic Graphene for Next Gen Digital Devices" March 11 2019
6. DowntoEarth. "Indian scientists make magnetic graphene for NextGen digital devices" 11 MArch 2019
7. millenniumpost. "Ushering in magnetic graphene" 11 March 2019
8. indusscrolls. "Hyderabad scientists make magnetic graphene for Next Gen digital devices"
9. techexplorist. "Scientists developed magnetic graphene for next gen digital devices"
10. TECH2 FirstPost. "SCIENTISTS AT IIT HYDERABAD MAKE IC CHIPS OFF GRAPHENE FOR NEXT GEN DIGITAL DEVICES"
]
|
|
- Now, a device to monitor rehab of stroke victims.- Media Coverage:
Chip embedded in wrist watch or mobile phone can record movements. A device to monitor stroke patients undergoing rehabilitation has been developed by researchers at IIT-Hyderabad. Trials on both versions have been done. The advantage of this IoT (Internet of Things) device is that it is simple and convenient to operate and saves patients visits to a rehabilitation centre, clinic or hospital, said the research team of Madhuri Panwar, doctorate student, and Amit Acharya, Associate Professor, Department of Electrical Engineering. The ultimate objective, the developers told BusinessLine, is to make a low-power device that will work like a 24x7 caretaker for stroke survivors who are in rehabilitation. The data gathered over a period can help in monitoring arm rehabilitation in neuro-degenerative diseases (stroke or cerebral palsy), the researchers said.
[Ref: The Hindu Bussiness Line. "Now, a device to monitor rehab of stroke victims." 24 January 2019. ]
|
|
|
- New technique may help deploy neural networks on portable devices - Media Coverage:
IIT Hyderabad researchers develop new technique to compress artificial neural networks for deployment in portable devices. A team of researchers at the Indian Institute of Technology, Hyderabad has developed a new technique that promises to help deploy high volume artificial neural networks (ANNs) on mobile phones and portable devices. Artificial neural networks work the same way as human nervous systems and are based on interconnected processing elements working together to solve specific problems. But they need large amount of computations and huge storage space. Compressing these networks to adjust to available space on devices may compromise with the quality of output. " This has helped us generate repetitions of unique bit patterns of certain frequencies. We have achieved a compression of up to 64 per cent and a minimum single module decompression time of 0.33 seconds " : Amit Acharyya. “The technique can be implemented in individual cores of multi-core mobile platforms. This has been achieved without stopping on-going process of other memory core modules. This obviated the need to place the entire decompressed file on a single on-chip memory. The technique can also be used to increase memory storage capacity for using intelligent algorithms in stand alone as well as distributed environment”, he added. The research team included Chandrajit Pal, Sunil Pankaj, Wasim Akram of IIT, Hyderabad and Dwaipayan Biswas of IMEC, Belgium, besides Dr.Acharyya. The research finding wasrecently at the International Symposium on Circuits and Systems held at Florence, Italy. The work was partially funded by the Science and Engineering Research Board (SERB).
This design has been patented and is currently being used by industries.
[Ref1: Vigyanprasar "New technique may help deploy neural networks on portable devices" India Science Wire, 21 January 2019. ]
[Ref2: "New technique may help deploy neural networks on portable devices" The hindu Bussiness Line, 21 January 2019. ]
[Ref3: "Neural networks on portable devices could be a reality soon" DownToEarth, 21 January 2019. ]
[Ref4: "New technique may help deploy neural networks on portable devices" Research Stash, 21 January 2019. ]
[Ref4: "New technique may help deploy neural networks on portable devices" Tech Explorist, 21 January 2019. ]
|
|
|
- Arvind Gautam PhD Scholar guided by Dr. Amit Acharyya is selected as “International Scholar” at IMEC Belgium through the KU Leuven University
|
|
- Single-Layered Graphene as Potential Artificial Robotic Skin - Media Coverage:
The ability of graphene to self-heal any vacancy defects and other toplogical cracks has been recorded when metal doping has been applied. Until recently, the self-healing properties of graphene without the aid of any external stimulus have not been recorded. A group of researchers located in Hyderabad, India have studied these self-healing properties of graphene, and have confirmed the phenomena of this material to auto-correct ‘in-situ’ cracks present within a single layer of the material, without the assistance from any other processes3. The team of researchers led by Amit Acharyya simulated defects onto the graphene through a tensile test.In their proposal, Acharyya’s team hopes that a sub-nano sensor composed of graphene could potentially sense a crack as soon as it begins nucleation, which could allow researchers and developers to immediately address a crack or rupture before it spreads. [Ref: AZoRoboticsMar 29 2017 ]
|
- Self-healing graphene holds promise for artificial skin in future robots - Media Coverage:
A new study offers a novel solution where a sub-nano sensor uses graphene to sense a crack as soon as it starts nucleation, or after the crack has spread a certain distance. This technology could quickly become viable for use in the next generation of electronics.With the first ever documented observation of the self-healing phenomena of graphene, researchers from Hyderabad, India, hint at future applications for its use in artificial skin. "We wanted to observe the self-healing behavior of both pristine and defected single layer graphene and its application in sub-nano sensors for crack spotting by using molecular dynamic simulation." Says Dr. Swati Ghosh Acharyya,She continues: "We were able to document the self-healing of cracks in graphene without the presence of any external stimulus and at room temperature." [Ref: De Gruyter Open. "Self-healing graphene holds promise for artificial skin in future robots." ScienceDaily. ScienceDaily, 21 March 2017. ]
|
|
|
- Madhuri Panwar PhD Scholar guided by Dr. Amit Acharyya is selected as “International Scholar” at IMEC Belgium through the KU Leuven University
|
- VY Gudur PhD Scholar guided by Dr. Amit Acharyya got a fellowship from the University of Newcastle, UK to carry out his research work for three months
|
|
|
- Sanghamitra Debroy PhD Scholar guided by Dr. Amit Acharyya has been selected for the prestigious Newton - Bhabha PhD Placement Fellowship program
|
- Young Faculty Fellowship Award 2015-16:
Amit Acharyya Recipient of Visvesvaraya Young Faculty Fellowship Award from the Department of Electronics and Information Technology, Ministry of Communications and Information Technology, Government of India.
| |
|
- IIT-Hyderabad develops ‘pendant’ that can monitor heart rhythm - media coverage:
"It requires a trained medical professional to interpret ECG signals for any abnormality in heartbeat. Now, a 5mm chipset that can be worn as a pendant, though connected to ECG leads on the chest, can do that job and minimise hospital stay.The chipset developed at Indian Institute of Technology-Hyderabad can monitor heartbeat and send an alert to the user and the doctor on variations in heart rhythm if it requires medical attention.The technology, which has shown close to 95% accuracy during initial tests, will soon undergo field trials." “The technology has novelties, including an 'embedded intelligence' that can interpret the difference between ECG abnormalities that may or may not require medical attention.There are several wearable devices that can keep track of the heart rhythm. But they are all connected to a central server to which the ECG signals are transmitted and later interpreted by a professional. Our chip does all of this, yet consuming as little as one milliwatt battery power, When compared to a chip that can store five hours of data, our chip can save 35 hours of data in a compressed format.” says Amit Acharyya, Asst prof of IIT Hyderabad and incharge Advanced Embedded System and IC Design Laboratory. [Ref 1. : Date: 27th January 2016 ; Publication: The Times of India ; Edition: Delhi; Journalist: U Tejonmayam ; Page-9] [Ref 2.: The Times of India on Chennai 27th January 2016 03.38 AM IST] [Ref 3.: Economic Times by U Tejonmayam on 27 January 2016, 2:44 PM IST] [Ref 4.: All India Roundup by Swarna on 28 January,2016]
|
|
|
- Wear a Battery Chip as New ECG Device - media coverage:
"A small chip the size of a guitar pick, easily slipped into your pocket, could now act as your personal ECG! What more, if it could detect an Arrhythmia, myocardial infarction (heart attack), asthma and complicated arterial blocks only your doctor could otherwise. The Indian Institute of Technology - Hyderabad and the Union Ministry of Information Technology have come out with a technology that promises to do just this - at low power and low cost, running on a simple battery." “We got overwhelming results. The low-cost, low power utility and ease of use might be at the core of this technology,” says Amit Acharyya, Asst prof of IIT Hyderabad, the brainchild behind the wearable technology that runs on the Internet of Things - allowing data from the chip to be sent to an internet enabled device and in this case, a phone. The Institute is currently in talks with start-ups across the country to expedite the process of bringing it on to the market. [Ref: The New Indian Express on Chennai 17th January 2016 04:17 AM] |
|
- Healthcare innovation and incubation meet - media coverage:
"For the first time in as many years key people from medical-device companies, policymakers, hospital administrators, doctors, IIT Hyderabad Professors, BITS Hyderabad Professors, Young Biomedical Engineers, Employers and company founders from across the spectrum of health, assembled at Golkonda Hotel recently in the Evening." Amit Acharyya, Asst prof of IIT Hyderabad was describing the facilities available at the IIT for such innovations. The key group led by Naresh who was the key instrument to have the MedTech incubation centre in Hyderabad was of the view that the State of Telangana has the largest potential to develop as the Innovation Hub and Start up Hub for medical devices. [Ref: Metro India News Online on December 02, 2015 16:40:40 PM]
|
|
|
- Young Engineers award 2015-16:
Amit Acharyya won Institution of Engineers (India) - Young Engineers award 2015-16 in the Electronics and Telecommunication Engineering. |
- Cadence Design Contest 2015: Runner-up
Institute Name |
Indian Institute Technology, Hyderabad |
Project Title |
Portable and Self-Sustainable Ultra-Low Power ECG SoC for Preliminary Prognosis of Cardiovascular Diseases (CVDs) in Rural Healthcare |
Team Members |
Kunal Yadav, Jairaj Naik, Nandini Bollam and Charan Vala |
Guide/s |
Dr. Ashudeb Dutta and Dr. Amit Acharya |
- India Budding Innovators award 2012 by NRDC :
Sidharth Maheswari under the supervision of Dr. Amit Acharyya won India Budding Innovotors award by National Research and Development Corporation (NRDC govt of india 2012).
- Microsoft Fellowship award 2012:
Sidharth Maheswari under the supervision of Dr. Amit Acharyya won Microsoft Fellowship award 2012.
|