DRDO and PSU's

[would be looking for good stuff from drdo thread on dfi]

project-samyukta-detailed


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Project Samyukta, a joint software/integration-intensive R & D programme of the DRDO, the TATA Group and the Indian Army’s Corps of Signals, reached fruition last April and was recently showcased by Bharat Electronics Ltd during Aero India 2009. The project, launched in May 1994, had called for the development and deployment of an integrated EW system covering the 1.5MHz–40GHz bandwidth. The system comprises both communications (com) and non-communications (non-com) segments and encompasses 145 wheeled vehicles for housing sensors for electronic surveillance, interception, monitoring, analysis and jamming of all communications and radar signals. The core system was successfully demonstrated to the Indian Army by late 2002 by the DRDO’s Defence Electronics Research Laboratory. The Army subsequently placed an order with state-owned Bharat Electronics Ltd for the production of three communications control centre (CC) blocks at a total cost of Rs4.25 billion. Two CC blocks with 46 vehicles were delivered in January 2004 to the Army after successful demonstration and user trials in early 2003. Demonstrations of the non-com core system, comprising a CC, electronic support measures sub-suite, and electronic countermeasures-low and high-frequency entities were successfully conducted in 2005, following which Army HQ ordered the first two non-com CC blocks at a cost of Rs5 billion. Work is now underway on a sub-project of Samyukta, called ‘Samrat’, under which the design and development of indigenous communications EW receivers for search, monitoring, direction-finding (single and multi-channel), analysis and decoding in the HF/VHF and UHF frequency ranges along with associated systems control/applications software development is now being undertaken. Thus far, technologies have been developed for compact low-noise, high-dynamic range HF (0.5-30MHz) and V/UHF (20-3,000MHz) search-cum-monitoring receivers for COMINT suites, as well as for new-generation narrow- band signals classifier, and the demodulator and decoder sub-system.

The com segment’s COMINT/ELINT sensors include those for detecting emissions from pulsed airborne synthetic aperture radars (SAR), from the active radars of air-to-surface precision guided-munitions and from radar altimeters, from airborne early warning & control radars, and from terrain-following radars while they are still 150km away. The three types of active jammers employed include those for wide-band jamming of hostile field artillery radio proximity fuzes over an area of 600,000 square metres, and for simultaneous jamming up to eight hostile X-band airborne radars in azimuth and elevation. SAR radars operating up to 80km away can be jammed, while the X-band monopulse pulse-Doppler airborne radars of combat aircraft can be jammed out to a distance of 50km. The efficient emitting power of the jammer is not less than 580kW. The jammers can be deployed in two patterns: 16 as a battalion, and 6 as a company.
Frequency detection sensitivity is 110-123dB/W, while the frequency measurement accuracy is 1MHz. Bearing accuracy is automatically achieved between 1-3 degrees. The measurement accuracy of temporal pulse parameters 0.05 milli-second at a pulsed length of 0-2-70 milli-seconds. The measurement accuracy of the pulsed repetition period is 0.05 milli-second for a minimal pulse duration of 1 milli-second. Measurement accuracy of the pulse string-repetition period is 0.1 second. The system’s internal database contains frequency libraries of up to 2,000 types of radars. Another type of jammer operates in the 13,333-17,554MHz frequency bandwidthand can process incoming signals like simple-pulse, quasi-continuous wave (CW) and CW, pulsed chirp-modulated, and phase code-shift keyed with pseudo-random frequency-tuning signals. The input sensitivity of a receiver fitted with frequency determination and reproduction sensors is minus 90, while the radiated power is 600 Watt. The frequency-accurate interference signals reproduction is +/-0.5MHz. Spectrum-matching of the reproduced interference signal is fully automated. Jamming signals emitted include MP-1, MP-2, MP-1 + noise, MP-2 + noise, quasi-CW noise, spot jamming in frequency and range deception signals. The system can also jam GPS signals out to a distance of 70km, and multi-frequency autodyne radio proximity fuzes.

The non-com component’s COMINT/ELINT suites can operate autonomously and are also available in man-portable versions with GIS and digital moving map overlays. They can undertake panoramic frequency-band surveillance and produce time-and-frequency analysis in three formats: gain-frequency panorama, time-and-frequency panorama, and frequency-intensity panorama. Frequencies are monitored in the 30-18,000MHz bandwidth, and the direction-finding error is not more than 3 degrees. The suites are thus optimised for providing search, intercept, analysis and monitoring capabilities of hostile communications emissions.--Prasun K. Sengupta

[originally posted by Shridhar]
 
DRDO Develops New 84mm Lightweight Anti-Tank System

LiveFist - The Best of Indian Defence: DRDO Develops New 84mm Lightweight Anti-Tank System


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Developed by the Armament Research & Development Establishment (ARDE), Pune, new 84mm Lightweight Lancher (LWL) is a new recoilless manportable, shoulder-fired weapon for the infantry anti-armour profile. According to DRDO, the barrel of the weapon built using indigenously developed hybrid composites.

[Originally posted by RPK]
 
The LRDE develops for the armed forces sensors meant for surveillance, tracking and weapons control.

Revathi, a 3D, medium-range surveillance radar, mounted on a naval vessel.

THE Electronics and Radar Development Establishment (LRDE) in Bangalore has been spearheading the development of radar systems and related technologies for the defence forces. A Ministry of Defence research laboratory under the Defence Research and Development Organisation (DRDO), the LRDE’s genealogy goes back to the Inspectorate of Scientific Stores set up in 1939 at Rawalpindi.

In 1946, it was re-designated as the Technical Development Establishment (Instruments and Electronics) and relocated in Dehradun. The electronics component was relocated to Bangalore in 1962 and the LRDE’s role was redefined to develop indigenous and state-of-the-art military radar and communication systems. Today the LRDE is a premier radar systems laboratory with a core competence to build advanced systems in the L to X bands.

According to S. Varadarajan, Director, LRDE, the laboratory develops a range of products from short- to long-range sensors for ground, air and sea surface surveillance, tracking, and weapons control. Besides this, the LRDE has developed advanced radar technologies, including transmit and receive (TR) modules, slotted waveguide array antenna, high-power transmitters, programmable signal and data processors, radar controllers and multi-beam antenna.

The LRDE was roundly criticised for not successfully developing, in collaboration with Hindustan Aeronautics Limited, the multi-mode radar for the Light Combat Aircraft Tejas. But the Israeli radar now being fitted on the Tejas has an antenna designed by the LRDE – the slotted waveguide array antenna. The LRDE is also undertaking the design and development of the active electronically scanned array (AESA) technology. The AESA technology allows ships and aircraft to broadcast powerful radar signals while they themselves remain under stealth. The AESA’s basic building block is the TR module, a self-contained, miniaturised transmitter and receiver that makes up one of the AESA antenna elements. In a bid to develop the AESA, the LRDE has developed L and S band TR modules.

According to B.V. Ramesh, project director of LRDE’s LSTAR programme, an LRDE-developed X-band AESA radar could be fitted on the Tejas by 2014. Two modules of the AESA radar have already been launched. Ramesh also disclosed that the LSTAR (Long-range Solid State Active Phase Array Radar), which is a sort of a forerunner to India’s Airborne Early Warning and Control System programme, has been approved by the Centre for Military Airworthiness and Certification, integrated and tested on ground-based systems, and qualified for airborne applications. And a production agency, Astra Microwave, has been identified for it.

Among the LRDE’s foremost products is Indra-1, a radar that works on the Doppler principle. It has a 50-km range and is integrated with the fire control radar. It is in deployment with the Army and the Indian Air Force (IAF) as part of their air defence network. Indira-2, an improvement over Indira-1, was designed as per the needs of the IAF, which wanted a radar that can identify dense-formation targets, such as a group of aircraft flying wing tip to wing tip, and can be used even at high altitudes.


Bharani, a portable, short-range, light-weight radar. It provides 2D surveillance, mainly in mountainous terrain, against aerial targets.

The LRDE’s portable Battle Field Surveillance Radar (BFSR) - Short Range was developed after the Kargil conflict, when the inadequacies of binoculars were felt. An all-weather, automated detection of intrusions system was needed. Over 1,400 BFSRs are now being used by the Army against moving surface targets. A BFSR radar that offers foliage penetration is under development. The LRDE has also developed a coherent, electronically scanned C-Band Doppler Weapon Locating Radar for use by the Artillery Corps. Rohini is a 3D, medium-range, vehicle-mounted surveillance radar that offers 360 degree coverage and has a range of 150 to 180 km, and is used against low-, medium- and high-flying targets. It can measure the range, azimuth and the height of the target. It is designed for the IAF and will also be part of the Akash missile system. The LRDE is also developing the Revathi, a 3D, medium-range surveillance radar that will give the Navy cover against air and sea targets.

An off-shoot of the Rohini is the Aslesha, a 3D low-level, light-weight radar designed for use in mountainous terrain and against aerial targets. The LRDE developed this radar when the Army wanted a system that could be transported by animals.
It has been evaluated at 15,000 feet (4,572 metres) and cleared for induction. The Bharani is another portable, short-range, low-level, light-weight radar. It provides 2D surveillance, mainly in mountainous terrain, against aerial targets such as unmanned aerial vehicles, helicopters and fixed-wing aircraft flying at low and medium altitudes.

The Rajendra, a multi-function, phased array radar, is the primary sensor at the battery level for the Akash weapon system, which is to be used for air defence by the IAF and the Army. It can perform extensive searches, track multiple targets and missiles, and command and guide multiple missiles concurrently.
Says Varadarajan: “It can be mounted on a T-52 tank bed or as per the IAF’s requirements on a low-bed trailer.”

Having realised the importance of timelines and technology obsolescence in the development of radar systems, the LRDE has decided to “knit the user with the programme at the design stage itself”. Says Varadarajan: “An early association of the user helps fasten the programme. As for production, we want to be involved only with critical design and system engineering, capturing the user’s requirements. It is for industry to realise the prototype, prove the concept and also be the lead integrator.”
 
Successful flight trials of laser-guided bombs

http://www.pib.nic.in/release/release.asp?relid=57175
http://www.pib.nic.in/release/release.asp?relid=57175http://www.pib.nic.in/release/release.asp?relid=57175

Two flight trials were conducted today at Integrated Test Range, Chandipur to test the effectiveness of the guidance and control systems of laser-guided bombs. On-board systems in both the trials worked satisfactorily and the mission objectives have been met. Aeronautics Development Establishment (ADE), Bangalore has developed the guidance kit for 1000 lb, laser guided bombs. These are designed to improve accuracy of air-to-ground bombing by Indian Air Force. A number of tests have been performed both through simulation and flight tests over the last few years to reach the required performance levels. The bomb, once released, by the mother aircraft at appropriate range, will seek the target and home on to it very accurately and with high reliability. All the necessary on-board components are sourced from Indian industry. Another DRDO Lab, Instruments Research and Development Establishment, Dehradun has partnered ADE in this project.

Indian Air Force officers flew the aircraft and released the bombs as per prescribed standard operating procedures.
 
Successful flight trials of laser-guided bombs

http://www.pib.nic.in/release/release.asp?relid=57175
http://www.pib.nic.in/release/release.asp?relid=57175http://www.pib.nic.in/release/release.asp?relid=57175

Two flight trials were conducted today at Integrated Test Range, Chandipur to test the effectiveness of the guidance and control systems of laser-guided bombs. On-board systems in both the trials worked satisfactorily and the mission objectives have been met. Aeronautics Development Establishment (ADE), Bangalore has developed the guidance kit for 1000 lb, laser guided bombs. These are designed to improve accuracy of air-to-ground bombing by Indian Air Force. A number of tests have been performed both through simulation and flight tests over the last few years to reach the required performance levels. The bomb, once released, by the mother aircraft at appropriate range, will seek the target and home on to it very accurately and with high reliability. All the necessary on-board components are sourced from Indian industry. Another DRDO Lab, Instruments Research and Development Establishment, Dehradun has partnered ADE in this project.

Indian Air Force officers flew the aircraft and released the bombs as per prescribed standard operating procedures.
If I recall correctly they are called sudarshan. Are they inducted?
 
‘US still denying us technology’

The Defence Research and Development Organisation (DRDO) is looking at providing technology for low-intensity conflicts such as terrorism and cyber warfare, as well as towards ensuring the security of Indian space assets, the DRDO chief and science adviser to the defence minister, Dr V.K. Saraswat, tells S. Raghotham in his first interview to the media since he assumed office in September 2009.

Q. The obvious first question — where are we on the missile roadmap?
A. We have two streams of missile programmes — strategic and tactical. There is a momentum, a certain push to achieve our requirements for strategic defence. Agni 3 is set for production in numbers. We have no doubt about the missile after three consecutive successful tests.
The 5,000-plus km range Agni 5 has moved out of the drawing board, developmental activities are on, subsystems work is in progress. We plan to do the first test flight by the end of the year.
After the successful test of Shourya, a canisterised missile with a range similar to Agni 1 — around 700 km— more and more of our missiles will go the canisterised way because then they can go on multiple platforms on land, air and sea. Next is a canisterised version of the 2,000-plus km range Agni 2.

Q. What about tactical missiles?

A. Nag, the anti-tank missile, will go in for repeat summer trials this year after we incorporated user (Indian Army) suggestions. It’s a third-generation anti-tank guided missile with infrared seeker. India will be only the third or fourth country to make such a missile.
We have led Akash, the air defence missile, to production. The Indian Air Force (IAF) has ordered eight squadrons of Akash missiles, the Army has ordered two batteries.
In new missiles, the Astra air-to-air beyond visual range missile has undergone four to five ground launch trials. We are now qualifying its infra-red seeker. Once ready, it will go on multiple platforms, including Tejas and Sukhoi fighters.
For the Navy, we are developing a canisterised anti-anti-ship missile, with a range of 70 km, and able to intercept manoeuvring targets. It is an advancement over the 15-km range Israeli Barak missile. We are developing the Long Range Surface-to-Air Missile (LRSAM) in collaboration with Israel Aircraft Industries. The first flight test will happen in mid-2010. We started developing a similar missile for the IAF in late 2009.

Q. What about Cruise missiles? Sub-launched missiles? K-15?
A. We are setting up a cruise missile development programme under Nirbhay. I won’t say more than that.

Q. What does the future look like for DRDO?

A. We have made a technology development plan for the next 25 years. It is dovetailed to projections made by the armed forces in their long-range plans, what they call the LTIPP (long-term integrated perspective plan), taking into account the changing nature of warfare and the threats that India is likely to face. It calls for directed basic research in technologies that are still in their infancy, customising technologies for different users and “productionising” the most mature technologies into platforms and systems. The focus is on improving the velocity of research. All research is now in mission mode.

Q. There has been criticism of the DRDO-military relationship.
A. Look, as I said, DRDO’s technology development plan is now dovetailed to the military’s LTIPP. Two, there is now increasing coordination between the services and DRDO. The military is now involved at every stage in our projects. Also, what we do now is, if a development project is estimated to take five years but the military wants the capability sooner, we say, go ahead and buy it from outside. So, the potential for conflict between DRDO and military does not arise.

Q. What is the status of the Rama Rao Committee report and DRDO reforms?

A. A panel headed by the defence secretary is looking into the issue of implementing the recommendations.

Q. What are the focus areas in the 25-year technology development plan?
A. There are three. The closest to our heart is low-intensity conflict (LIC). Many technologies that we have developed for the military have relevance for LICs. You will appreciate that many agencies in the country are today involved in LICs — the paramilitary forces, police forces, counter-insurgency and counter-terror organisations and so on. We have started a programme to customise DRDO technology for each of them. LIC is one of our key result areas now.
Another area is space security because future wars are going to be controlled from space as network-centric warfare becomes the new way of war-fighting. So, technologies that are relevant for space security such as ballistic missile defence, anti-satellite systems, are going to be part of our development process. Secondly, to be able to quickly launch satellites to regain space-based capabilities when existing assets are attacked or denied to our military during war. These are low-cost, quick reaction satellite launch systems and low-endurance satellites — they last just long enough to do their job. What will emerge through our programme are micro-satellites, mini-satellites etc. On the launch side, some of our missiles can be modified, a satellite put on top of them and launched.

Q. Can our current missiles be used for anti-satellite hits?
A. With modifications, yes. But that’s not our priority.


Q. What’s the third focus area?

A. Cyber security. As we move towards network-centric warfare, the security of the networks becomes a major requirement. DRDO already has a strong technological base in encryption and things like that. We want to enlarge that base to hardware and software to make our stand-alone systems impossible to penetrate, and harden for military usage those systems that have to work with commercial networks, such as the Internet. Cyber security will be most applicable in low-intensity conflicts. What we want is to be able to detect attacks on our systems and deny the attackers the pleasure.

Q. But much of the core electronics used in our defence equipment is imported.
A. So what we plan to do is to set up a facility to detect Trojans — viruses, hidden locks, killer switches — in the chips that we buy from outside before clearing them for usage in sensitive equipment.

Q. What are you doing to give a fillip to the private sector defence manufacturing base?

A. The DRDO has been partnering with industry for the last 25 years and has a network of 800 small and medium enterprises and large public and private enterprises working with us on various projects.
Now, we are starting a commercial arm of DRDO to transfer technology to industry. We already have a programme called ATAC (Technology Assessment and Commercialisation), with industry body Federation of Indian Chambers of Commerce and Industry (Ficci) as our partner which identifies potential technology buyers.
There are also technologies that have a larger relevance for the civilian market. For instance, what we do in our life sciences labs — high-altitude agriculture, biomedical engineering research, nuclear-biological-chemical technologies, etc. The ministry of home affairs requires them for disaster management. For DRDO, 2010 is the year of R&D collaboration with industry, universities and the military.

Q. Are we going to see the Hyperplane test flight happen any time soon?
A. We faced a problem in high-temperature materials for the scramjet engine. We needed to run the engine for 20 seconds, but could do it only up to three seconds. We were denied imports of the material required. So, we launched a separate programme and developed three materials. We have now been able to reach 20 seconds twice. We want to do five to six more ground tests. We expect to be able to do the first test flight by the end of the year.

Q. But hasn’t it become easier since the Indo-US nuclear deal to obtain technology?

A. No. We are still victims of US denial regimes. Our labs are still on the “Entity List”. Technology denial continues. There is a big gap between American talk and action towards us.
 
Inspired by BrahMos guru Sivathanu Pillai, Team BATL makes a mark in Indian aerospace, defense



AS+Pilla1.jpg


BrahMos Aerospace CEO Dr A. Sivathanu Pillai.

PIC_0137.JPG


BATL team members with ED Mr Vishnua Kartha (2nd from left) at the precision machine shop in front of 5-axis machine.

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The titanium gas bottle for pressurization system.

PIC_0140.JPG


The inspection team in the calibration lab.

PIC_0143.JPG


Vikas engine machining in progress.

PIC_0144.JPG


Three-piece manipulator for BARC.

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The L-40 propellant tank for GSLV.

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Drop-bottom furnace.

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Surface treatment lab.


Welcome to BrahMos Aerospace Thiruvananthapuram Ltd (BATL) – probably the next big ticket defense facility in India. The erstwhile KELTEC has travelled some distance ever since BrahMos Aerospace take over – promising an inspiring future. Today, BATL is slowly emerging as a force to reckon with in Indian aerospace and defense set-up. The beneficiaries are ISRO, BrahMos Aerospace and BARC. The list could grow bigger. BATL members credit the success to one man, who is probably the most accessible and appealing personalities in Indian defense – Dr A. Sivathanu Pillai, currently the CEO of BrahMos Aerospace. Like the success of BrahMos supersonic missile, Dr Pillai is channelizing all his energies and time to ensure that BATL will soon become the showpiece in Kerala. And, by 2011, the first fully-integrated BrahMos missile will be rolling out from the BATL facilities. I will continue to track BATL success very closely for Aviation Week and other publications. Congratulations Dr Pillai, Mr Vishnu Kartha (ED, BATL) and Team BATL. Great job.

http://tarmak007.blogspot.com/
 
‘US still denying us technology’

The Defence Research and Development Organisation (DRDO) is looking at providing technology for low-intensity conflicts such as terrorism and cyber warfare, as well as towards ensuring the security of Indian space assets, the DRDO chief and science adviser to the defence minister, Dr V.K. Saraswat, tells S. Raghotham in his first interview to the media since he assumed office in September 2009.

Q. The obvious first question — where are we on the missile roadmap?
A. We have two streams of missile programmes — strategic and tactical. There is a momentum, a certain push to achieve our requirements for strategic defence. Agni 3 is set for production in numbers. We have no doubt about the missile after three consecutive successful tests.
The 5,000-plus km range Agni 5 has moved out of the drawing board, developmental activities are on, subsystems work is in progress. We plan to do the first test flight by the end of the year.
After the successful test of Shourya, a canisterised missile with a range similar to Agni 1 — around 700 km— more and more of our missiles will go the canisterised way because then they can go on multiple platforms on land, air and sea. Next is a canisterised version of the 2,000-plus km range Agni 2.

Q. What about tactical missiles?

A. Nag, the anti-tank missile, will go in for repeat summer trials this year after we incorporated user (Indian Army) suggestions. It’s a third-generation anti-tank guided missile with infrared seeker. India will be only the third or fourth country to make such a missile.
We have led Akash, the air defence missile, to production. The Indian Air Force (IAF) has ordered eight squadrons of Akash missiles, the Army has ordered two batteries.
In new missiles, the Astra air-to-air beyond visual range missile has undergone four to five ground launch trials. We are now qualifying its infra-red seeker. Once ready, it will go on multiple platforms, including Tejas and Sukhoi fighters.
For the Navy, we are developing a canisterised anti-anti-ship missile, with a range of 70 km, and able to intercept manoeuvring targets. It is an advancement over the 15-km range Israeli Barak missile. We are developing the Long Range Surface-to-Air Missile (LRSAM) in collaboration with Israel Aircraft Industries. The first flight test will happen in mid-2010. We started developing a similar missile for the IAF in late 2009.

Q. What about Cruise missiles? Sub-launched missiles? K-15?
A. We are setting up a cruise missile development programme under Nirbhay. I won’t say more than that.

Q. What does the future look like for DRDO?

A. We have made a technology development plan for the next 25 years. It is dovetailed to projections made by the armed forces in their long-range plans, what they call the LTIPP (long-term integrated perspective plan), taking into account the changing nature of warfare and the threats that India is likely to face. It calls for directed basic research in technologies that are still in their infancy, customising technologies for different users and “productionising” the most mature technologies into platforms and systems. The focus is on improving the velocity of research. All research is now in mission mode.

Q. There has been criticism of the DRDO-military relationship.
A. Look, as I said, DRDO’s technology development plan is now dovetailed to the military’s LTIPP. Two, there is now increasing coordination between the services and DRDO. The military is now involved at every stage in our projects. Also, what we do now is, if a development project is estimated to take five years but the military wants the capability sooner, we say, go ahead and buy it from outside. So, the potential for conflict between DRDO and military does not arise.

Q. What is the status of the Rama Rao Committee report and DRDO reforms?

A. A panel headed by the defence secretary is looking into the issue of implementing the recommendations.

Q. What are the focus areas in the 25-year technology development plan?
A. There are three. The closest to our heart is low-intensity conflict (LIC). Many technologies that we have developed for the military have relevance for LICs. You will appreciate that many agencies in the country are today involved in LICs — the paramilitary forces, police forces, counter-insurgency and counter-terror organisations and so on. We have started a programme to customise DRDO technology for each of them. LIC is one of our key result areas now.
Another area is space security because future wars are going to be controlled from space as network-centric warfare becomes the new way of war-fighting. So, technologies that are relevant for space security such as ballistic missile defence, anti-satellite systems, are going to be part of our development process. Secondly, to be able to quickly launch satellites to regain space-based capabilities when existing assets are attacked or denied to our military during war. These are low-cost, quick reaction satellite launch systems and low-endurance satellites — they last just long enough to do their job. What will emerge through our programme are micro-satellites, mini-satellites etc. On the launch side, some of our missiles can be modified, a satellite put on top of them and launched.

Q. Can our current missiles be used for anti-satellite hits?
A. With modifications, yes. But that’s not our priority.


Q. What’s the third focus area?

A. Cyber security. As we move towards network-centric warfare, the security of the networks becomes a major requirement. DRDO already has a strong technological base in encryption and things like that. We want to enlarge that base to hardware and software to make our stand-alone systems impossible to penetrate, and harden for military usage those systems that have to work with commercial networks, such as the Internet. Cyber security will be most applicable in low-intensity conflicts. What we want is to be able to detect attacks on our systems and deny the attackers the pleasure.

Q. But much of the core electronics used in our defence equipment is imported.
A. So what we plan to do is to set up a facility to detect Trojans — viruses, hidden locks, killer switches — in the chips that we buy from outside before clearing them for usage in sensitive equipment.

Q. What are you doing to give a fillip to the private sector defence manufacturing base?

A. The DRDO has been partnering with industry for the last 25 years and has a network of 800 small and medium enterprises and large public and private enterprises working with us on various projects.
Now, we are starting a commercial arm of DRDO to transfer technology to industry. We already have a programme called ATAC (Technology Assessment and Commercialisation), with industry body Federation of Indian Chambers of Commerce and Industry (Ficci) as our partner which identifies potential technology buyers.
There are also technologies that have a larger relevance for the civilian market. For instance, what we do in our life sciences labs — high-altitude agriculture, biomedical engineering research, nuclear-biological-chemical technologies, etc. The ministry of home affairs requires them for disaster management. For DRDO, 2010 is the year of R&D collaboration with industry, universities and the military.

Q. Are we going to see the Hyperplane test flight happen any time soon?
A. We faced a problem in high-temperature materials for the scramjet engine. We needed to run the engine for 20 seconds, but could do it only up to three seconds. We were denied imports of the material required. So, we launched a separate programme and developed three materials. We have now been able to reach 20 seconds twice. We want to do five to six more ground tests. We expect to be able to do the first test flight by the end of the year.

Q. But hasn’t it become easier since the Indo-US nuclear deal to obtain technology?

A. No. We are still victims of US denial regimes. Our labs are still on the “Entity List”. Technology denial continues. There is a big gap between American talk and action towards us.
Pls link the article & make it a practice.
 
Anybody remember the last rfi for manpads by Indian army, it specifically asked for a tripod mounted system with two ready to launch missile as far as I remember, rationale being 2 missiles fired would ensure greater pk. And the type of launcher we are seeing is similar to Mistral manpads Untitled-1 - Google Chrome 05-07-2024 10_21_56.png

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And here is the stinger dual mount variant, anyways I hope it should be a simple addition to the current launcher config if asked by army.
 

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