25-Mar-2022: Manufacture of Microprocessors

Government has notified Production Linked Incentive schemes for Large Scale Electronics Manufacturing and IT Hardware which do not cover manufacturing of microprocessors.

However, Government is focused on its important objective of building the overall semiconductor ecosystem and ensure that, it in-turn catalyses India’s rapidly expanding electronics manufacturing and innovation ecosystem. This vision of AtmaNirbhar Bharat in electronics & semiconductors was given further momentum by the Union Cabinet, chaired by the Hon’ble Prime Minister, approving the Semicon India programme with a total outlay of INR 76,000 crore for the development of semiconductor and display manufacturing ecosystem in our country. The programme aims to provide financial support to companies investing in semiconductors, display manufacturing and design ecosystem. This will serve to pave the way for India’s growing presence in the global electronics value chains.

Following four schemes have been introduced under the aforesaid programme:

  1. Scheme for setting up of Semiconductor Fabs in India provides fiscal support to eligible applicants for setting up of Semiconductor Fabs which is aimed at attracting large investments for setting up semiconductor wafer fabrication facilities in the country. Following fiscal support has been approved under the scheme:
    • 28nm or Lower - Up to 50% of the Project Cost
    • Above 28 nm to 45nm - Up to 40% of the Project Cost
    • Above 45 nm to 65nm - Up to 30% of the Project Cost
  2. Scheme for setting up of Display Fabs in India provides fiscal support to eligible applicants for setting up of Display Fabs which is aimed at attracting large investments for setting up TFT LCD / AMOLED based display fabrication facilities in the country. The Scheme provides fiscal support of up to 50% of Project Cost subject to a ceiling of INR 12,000 crore per Fab.
  3. Scheme for setting up of Compound Semiconductors / Silicon Photonics / Sensors Fab and Semiconductor Assembly, Testing, Marking and Packaging (ATMP) / OSAT facilities in India: The Scheme provides a fiscal support of 30% of the Capital Expenditure to the eligible applicants for setting up of Compound Semiconductors / Silicon Photonics (SiPh) / Sensors (including MEMS) Fab and Semiconductor ATMP / OSAT facilities in India.
  4. Design Linked Incentive (DLI) Scheme offers financial incentives, design infrastructure support across various stages of development and deployment of semiconductor design for Integrated Circuits (ICs), Chipsets, System on Chips (SoCs), Systems & IP Cores and semiconductor linked design. The scheme provides “Product Design Linked Incentive” of up to 50% of the eligible expenditure subject to a ceiling of ₹15 Crore per application and “Deployment Linked Incentive” of 6% to 4% of net sales turnover over 5 years subject to a ceiling of ₹30 Crore per application.

In addition to the above schemes, Government has also approved modernisation of Semi-Conductor Laboratory, Mohali as a brownfield Fab.

Government has received three applications under Semicon India Programme for setting up of Semiconductor Fabs in India for manufacturing of semiconductor chips, including microprocessors chips. Incentive may be extended upto two eligible applicants with approval of the Union Cabinet.

The applications received under the Semicon India Programme for manufacturing of chips are yet to be approved subject to the recommendation of India Semiconductor Mission (ISM). Further, Semiconductors manufacturing is a very complex and technology-intensive sector with huge capital investments, high risk, long gestation and payback periods, and rapid changes in technology which require significant and sustained investments. Presently, India is at formative stage of developing its semiconductor supply chain ecosystem. The manufacturing of semiconductor chips, including microprocessors in semiconductor fab units will depend on technology, capacity and availability of semiconductor supply chain ecosystem.

31-Dec-2021: Swarna Jayanti Fellow developing doping agents for efficient next-generation low-cost semiconductor materials

Pabitra K. Nayak, reader at Tata Institute of Fundamental Research-Hyderabad and Swarnajayanti fellow for the year 2020-21, is leading a research group for the development of efficient next-generation low-cost semiconductor materials which can contribute to India’s technological leadership in this area.

India has recently announced incentives of INR 2,30,000 crore to position India as global hub for electronics manufacturing with semiconductors as the foundational building block and efficient next-generation low-cost semiconductor materials could pave the path towards positioning India as the global hub for Electronic System Design and Manufacturing as per the vision of Aatmanirbhar Bharat.

Large-scale commercially viable electronic applications can be realized by low-energy processible materials like metal halide perovskite and organic semiconductors. However, in competing with traditional inorganic semiconductors, organic materials and halide perovskites still lag in electrical conductivity. This lag can be addressed through doping to introduce more numbers of free electrons (or holes) increase conductivity, or to control the charge injection /extraction properties at the interface of other semiconductors or metals, thus affecting the performance of devices.

Most of the attention of the research community has been in developing electronic dopants systems that are based on highly complex and reactive organic or organometallic complexes, which are largely inefficient and leave behind side products which affects the long-term stability of devices. Thus there is a need to look beyond these approaches and beyond the state-of-the-art research in electronic doping.

In a paper published in Nature Materials, Dr. Nayak has shown the very first example of an adduct-based dopant system (impurities that can change the electrical conductivity of semiconductors) for organic semiconductors, where the dopants do not leave behind any side products and work better than the existing class of dopants. He has also made seminal contributions towards the understanding of crystallization and doping in halide perovskites, a class of materials that are driving the progress of emerging solar cell technologies. 

Dr. Nayak, who won the Swarnajayanti fellowship of the Department of Science and Technology (DST), now aims to develop new doping agents based on molecular adducts (a molecular species formed out of a combination of multiple distinct molecules) and radicals for efficient and clean electronic doping of different types of semiconductors. He hopes that this will help in coming up with new systems which will have better performance.

His group will investigate the mechanism of p-type and n-type electronic doping of organic and metal halide perovskite semiconductors. Processes will be developed to neutralize electronic defects, which are often responsible for poor device performances. New doping methods and materials developed by the group will be used to realize the state-of-the-art perovskite and organic-based solar cells, light-emitting devices, and transistors and heterostructures. The new doping methods and dopants are expected to cause a paradigm shift in the doping of soft semiconductors as they will end our dependency on highly expensive dopant molecules. The new generation of dopants will drive the next revolution in displays, solar cells, and bio-electronics by improving their efficiency and stability. This will enable the wider application of low-cost and printable electronics.

Dr Nayak pointed out that all these possibilities will improve India’s competitiveness in semiconductor materials research and development, which is essential for sustainable socio-economic growth driven by the usage of clean energy.

14-Mar-2022: Touch-less touch screen technology developed can restrain viruses spreading through contact

Indian Scientists have provided an affordable solution to develop a low-cost touch-cum-proximity sensor popularly called touchless touch sensor through a printing technique.

The coronavirus pandemic has triggered efforts to make our lifestyle more adaptable to pandemic scenarios. Actions are naturally driven to strategies to reduce the risk of viruses spreading, particularly in public places where touchscreens on self-service kiosks, ATMs, and vending machines are nearly inevitable.

Recently Bengaluru based scientists from the Centre for Nano and Soft Matter Sciences (CeNS), and Jawaharlal Nehru Centre for Advanced and Scientific Research (JNCASR), autonomous institutes of the Department of Science & Technology (DST), Government of India, has set up a semi-automated production plant for the production of printing-aided patterned (resolution of around 300 µm) transparent electrodes, which has the potential for being utilized in advanced touchless screen technologies.

This work by the team led by Prof. G U Kulkarni and co-workers and funded by DST-Nano mission at CeNS has been published recently in the journal ‘Materials Letters’ recently. Dr. Ashutosh K Singh, a scientist working on this project, said, “We have fabricated a touch sensor which senses a proximal or hover touch even from a distance of 9 cm from the device”.

“We are making a few more prototypes using our patterned electrodes to prove their feasibility for other smart electronic applications. These patterned electrodes can be made available to interested industries and R&D labs on a request basis to explore collaborative projects,” said Dr. Indrajit  Mondal, another co-author in the research.

The novel low-cost patterned transparent electrodes have tremendous potential to be used in advanced smart electronic devices like touchless screens and sensors. This touchless touch sensor technology could assist in preventing the spread of viruses that spread through contact.

30-Jul-2021: Divya Nayan-a personal reading machine for visually impaired is easily available to the needy across the country through online registration

Union Minister of State (Independent Charge) Science & Technology; Minister of State (Independent Charge) Earth Sciences; MoS PMO, Personnel, Public Grievances, Pensions, Atomic Energy and Space, Dr Jitendra Singh today Divya Nayan is a personal reading machine for visually impaired developed by CSIR-Central Scientific Instruments Organisation (CSIO), Chandigarh where any printed or digital document can be accessed in the form of speech output. The device is available to the visually impaired individuals and institutions through an online registration and booking portal https://divyanayan.csio.res.in/registration.php on its website.

In a written reply to a question in the Lok Sabha, the Minister said that based on the principle of contact scanning, it can analyse a multi column document and provide seamless reading. User can place the device over the document to be read and manually scan it. The reading device uses language dependent optical character recognition to convert the image into text and a text to speech converter, further converts the text into audio. Audio files are stored in the machine and can be listened back. The device is handheld, standalone, portable, completely wireless and IoT enabled. It is currently available in Hindi, English, Bengali, Telugu, Tamil, Kannada, and Punjabi but is further compatible for other Indian and foreign languages. It has interfaces such as USB, Bluetooth, Wi-Fi, LAN, Headphone etc. The salient features of the device are as below:

Feature/s:

  1. Wireless and Portable - standalone, completely wireless and IoT enabled;
  2. Multifunctional – read printed, e-books, e-news, recording and reading speech;
  3. Multilanguage - currently supports Hindi, English, Bengali, Tamil, Telugu, Kannada and Punjabi;
  4. Online Processing – document batch processing organisation;
  5. Document Storage – sync document;
  6. Page orientation detection and correction;
  7. Capable of reading Multi-Column document;
  8. Rechargeable lithium ion battery; and
  9. Internal memory of 32 GB for document storage

Some of the such other significant devices developed by CSIR for the benefit of the common man are as below:

  1. Myoelectric Hand for the persons having below elbow amputation;
  2. Electronic Knee for the persons having above knee amputation;
  3. Electronic Control Module for powered wheelchair; and
  4. 3D Printed Orthosis for children with congenital hemiparesis.