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A.V.

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Future DRDO projects

Future Projects

The Tenth Five Year Plan of the DRDO has been prepared with a high degree of ‘User focus’ and thrust on ‘deliverable-to-Users’. Some of the highlights include the upgraded 45 km range of the PINAKA system, 100 km range multiple barrel rocket and fuel-air explosive reactive armour, Air -to- Air Missile ASTRA and vertically launched TRISHUL and the longer range Sonar system.

Thrust will be given to develop a high power propulsion system, high speed torpedo system, underwater ranges, naval stealth technology and self -propelled mine and mobile decoys. Due emphasis will be given to developing protective equipment for the Army at high altitude, anti-G suit, aircrew ensemble for nuclear, biological and chemical protection and ready-to- eat food.

Feature
 

nitesh

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The Hindu Business Line : DRDO identifies 20 technology gaps

DRDO identifies 20 technology gaps

To tie up with varsities for research in these areas.

Our Bureau

Bangalore, Feb. 14 The Defence Research and Development Organisation has zeroed-in on 20 technology gaps which it will address in order to develop futuristic products for the Armed Forces, according to top officials of the organisation. These would go into products 15 years from now.

DRDO plans to kick-start research in these areas by collaborating with top institutions like the IISc, IITs and universities, DRDO’s Secretary, Mr M. Natarajan, who is also the Scientific Adviser to the Defence Minister, said at a news conference at the ongoing Aero India 2009.

For self-reliance in military products and technologies, DRDO realises that “(The country) has not invested enough in basic sciences and are weak in propulsion, stealth and some materials. Collaborations are on” to bridge the gaps, he said. DRDO was also enlisting industry support and hoped to get the technologies in ten years.

The defence R&D establishment is driving this research through 40-50 higher education institutes. The 20 themes include superior aerodynamics, hypersonic flight technologies, new-generation antennae, stealth, lasers, tank protection, nanotech, auto take-off and landing, aerostats and high-energy microwave and network centric operations, said Dr Prahalada, Chief Controller (R&D).

A two-seater trainer version of the indigenous light combat aircraft (LCA) is planned to be test-flown in two months. The LCA itself is under development. The IAF recently acquired the Hawk advanced jet trainers to train its fighter pilots.

supersonic fighter

Mr Natarajan said the LCA trainer would be a supersonic leading fighter comparable to the South Korean jet trainer 350. “We are also configuring a twin-engine medium combat aircraft on the LCA platform. Preliminary discussions have started with the IAF. The MCA will be equipped with stealth features, advanced avionics, electronic warfare, radars and features to carry weapons,” he said.

The same LCA platform is also used to develop an unmanned combat aerial vehicle.
 

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domain-b.com : AeroIndia 2009: DRDO has developed extreme technologies, says Dr Prahlad

DRDO has developed extreme technologies, says Dr Prahlad news

In a wide ranging,comprehensive interview on DRDO's capabilties and development programme, Dr Prahalad, chief controller R&D (SI), points out that the gap between users needs and DRDO's capabilities is reducing. The organisation is now fully capable of working out a road map with the army, navy and air force to develop weapon systems needed over the next 5-7 years.

Dr Prahalad,
Distinguished scientist and chief controller, R&D (SI), DRDO

1. Could you speak about the Akash and Nag missiles? How do they fare with comparable technologies and how far away are they from induction?

The Akash and Nag missiles were part of the Integrated Guided Missile Development Programme begun in 1984 under Dr Abdul Kalam as the chairman. We then took a purposeful decision that Akash and Nag would be the most complex and sophisticated missile systems in the IGMDP.

So, it was given the maximum time also, as compared to Prithvi, Trishul and Agni and others. Akash and Nag were given nearly 15 years. So, we knew at that time it was a very complex system and taking up the challenge we began developing these two systems.

In case of Akash, it has been uniquely configured and customised for our own Indian Army and air force. During the initial discussions with the army and the air force, they gave some requirements like it should be mobile, it should have a 30 km range, a very effective high kill probability, it should be integrated with the automatic command and control system, it cannot be manually operated, should have multiple target handling capability, which means that several targets could be engaged with several missiles simultaneously.

In most missile systems you have boost and coast – that is you boost the missile for some time and allow it to coast, or, boost, sustain and coast. The requirement here, however, was continuous thrust, or, all the way thrust. Once you start coasting, the maneuverability of the missile comes down. This was not acceptable to the services. They felt it should be continuously maneuverable till it intercepts the target, which meant the requirement was that the power/thrust had to be continuously on.

These were a unique set of requirements –such a missile doesn't exist anywhere in the world and it meant that we had to uniquely configure the missiles. That's how Akash was realised, We took 5 years more than what we promised to the army and air force, but when tested in the last development phase the results were 9/9 –that is out of the 9 missiles tested all them met the guidance and accuracy control requirements. Based on these tests the Indian Air Force has placed orders for 2 squadrons and the army is expected to follow suit.

Bharat Electronics will be the nodal production agency along with Bharat Dynamics and there will be at least 40 industries from the public and private sectors that will be involved with the manufacture of these missiles in large numbers.

So, this is one story and we expect that based on the expenditure of Rs600 crore that we have invested in the Akash missile, business worth about Rs7,000 crore should result for radars, missiles, launchers and control systems all put together within the next 5 years.

So, this is the story for Akash.

Coming to Nag, similarly, this missile is meant for the army, which wanted a missile with a 4-km range and fire-and-forget capability. That means we launch the missile from a tank and leave the place - this is also called the shoot-and-scoot technique. The Nag was specifically designed with a fire-and-forget capability.

The missile has what is called a tandem warhead. The warhead will have two stages – in the first stage the missile will make a hole in an enemy tank and in the second stage it will go inside and blow it up. This is a very special technology and we had to perfect it.

So this is the Nag- a tandem warhead, 4-km, tank-mounted, fire-and-forget, and very accurate, missile.

The last flight test has been successfully completed in day and night desert conditions in short range and long range test firings and we expect the army to place an order over the next couple of months.

2. The 'Shaurya' was a surprise development – where does it fit into the Indian missile spectrum?

If you look at our long-range strategic missiles you know we have Prithvi and Agni for ballistic or near-ballistic systems. Prithvi is a liquid fuel system and Agni is a solid fuel system.

Now the Agni has certain mobility, certain freedom to move from place to place. The Prithvi has its own certain requirements - it requires preparation time because of its liquid engines.

So we had to configure a unique third missile called 'Shaurya' which can be canisterised. Once sealed in a canister, it can be taken to any place giving it great tactical and operational advantage. It canbe deployed anywhere - in hilly terrain, desert etc. It is a relatively light, highly mobile, solid propellant fuelled missile. There is no preparation required.

So it has its own USP - and as per the requirement of the services we will be taking up the production of Shaurya.

3. The country's BMD technology would appear to be moving apace – could you dwell on aspects of the technologies that are being brought into play for the whole programme?

Ballistic Missile Defence or missile defence systems, are developed based on the threat perceptions as presented to us by the armed forces, which take into consideration threats from our neighbours, their plans etc. Based on these inputs we are developing certain critical technologies against ballistic missiles.

For this we need some unique technologies, such as high-speed propulsion, which can take missiles to hypersonic speeds. You need a high burning rate, solid propellants, which can take the missile quickly to high Mach number.

We need very high accuracy guidance so that the missile can even physically obliterate a hostile missile – what is called a hit-to-kill capability. For this we need not only radio gadgets but also thermal infra-red gadgets. So for this we need a combined dual-guidance –not only radar but also imaging guidance. This requires very high accuracy algorithms.

Also we need very quick reaction systems. When somebody launches a ballistic missile the time available to react to the threat is very short - a few seconds. So, the instant you know a missile has been launched you have to launch the defence system within seconds, fly at a much higher speed than the attacking missile and intercept very accurately at very high altitudes. So this requires what is known as extreme technologies. These have now been developed and we are trying to integrate these technologies and produce a weapon that can be used by the armed forces.

4. How do you look at an era of increased international cooperation in the development of technologies in the defence sector?

This is the new era of 2000+. In the 80s when we started our major system programmes like Arjun or Sonar or IGMDP or torpedo or radar, we never had the opportunity of international co-operation.

We were buying some components and making everything in-house. We built the computer from scratch from circuit boards. That was an era where we had to do everything in-house and within our industries and everything was a long drawn out and hard process.

Whereas in 2000, fortunately, the whole world has recognised our capability by seeing our LCA, main battle tank Arjun, radars, torpedoes, missiles and small arms that are in production. Our capabilities in prototyping, developing, testing and fielding our own weapons have been recognised.

So now they know that they cannot take us for granted. If they want business, they have to work together. Many countries have come forward for collaborative research and joint development. We have projects now with USA, Israel, Russia, Italy, Germany, Belarus, Brazil, France, UK among others.

In the 80s era what used to take 15 years to make we can now make in 5 years to 7 years. So, we have cut down the development time by almost 1/3rd because of the immense opportunities for international collaboration.

continued in next post.............
 

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continued..........

5. With respect to the areas of missiles could you dwell on two aspects:

b)One being the development of technology in this sector
c)The level of operationalisation that such technology has attained
Missile technologies are front-end technologies - very challenging and display characteristics such as high speed, high lethality, high maneuverability and quick reaction. So all this require the limits of technology whether you take materials, propulsion or control.

So of the technologies for this kind of technology for eg propulsion: solid propulsion, liquid propulsion and ramjet propulsion or if you take flight control systems and autocontrol systems, we need computers, electro actuation systems, lot of software intelligence for making the control system work and then we have navigation and guidance, we have to take the missile to long distances and guide it accurately to intercept the target.

When we take the warheads, each missile requires a different type of warhead Nag requires a tandem warhead, Akash requires a fragmentation warhead, Prithvi requires a runway penetration warhead.

We also have the C4I - command, control communication and intelligence integration. How do we do it? The missile is the part of network centric operation. We have to also develop guidance on how to use radar gadgets and imaging infrared technology to recognise targets using its thermal characteristics by getting a thermal picture to reach the tank and finding out its centre of gravity to hit it at the centre of the tank. This type of technology is the imaging infrared technology and you need millimeter wave technology for very accurate guidance and infrared imaging for imaging of a target.

So these technologies are required to be simultaneously developed for the missiles India has developed.

For operationalisation, these technologies go into the missiles eg: the Akash missile the ram jet propulsion is inside; the pre-fragmented warhead technology inside, very accurate radio or radar guidance is used in the missile system and auto pilot with a very powerful computer to make the missile maneuver to hit a maneuvering target, so you can out-maneuver a maneuvering target, at low, medium and high altitudes under any conditions rain, dust, summer, winter night etc.

So, these technologies get imbibed into the missile system, the ground system, the launcher system, and is integrated into the command control network. So the technology gets operationalised in the missile systems when they get fielded.

Now how we get these technologies? We have three strategies to develop: some of it is got from academic institutions. We go to the university professors, work with them on how to develop new science and technology.

Secondly, DRDO can jointly develop new technologies with industrial partners. For example, an actuation system, which we have mostly done in DRDO-industry collaboration.

Then comes foreign collaboration. Sometimes we develop technologies with foreign collaboration with our partner countries.

If none of this works, then the final strategy is in-house development within our laboratories and we have developed many technologies in-house.

So this is how we develop new technology, new science, perfect it and incorporate it into weapon systems

6. Obviously there exists 'dynamic tension' between the need to develop indigenous technologies and the need for the
services to be in a state of readiness, armed with contemporary technologies. How do you harmonise such tensions?


Fortunately this harmonisation is already taking place. Probably there was some gap in the capabilities of DRDO and the requirements of the armed forces. They require it fast and the latest to be made available. Since things were always available to them on their tables they always were bombarded with temptations to purchase but today two things are happening - arms research development and marketing has slowed down tremendously worldwide in comparison to the '80s. They are no more developing things just like that but develop it only on demand.

Secondly the armed forces have realised that a homegrown weapon system, sonar or radar etc has many advantages to them. They will be able to get life support very easily, product up-gradation, software and customisation. So, many things are possible and finally both cost of ownership, maintenance will be much lower if it is indigenously based and the things are available at your fingertips. So the armed forces are also trying to tap DRDO's capabilities to the maximum.

The gap between the user's needs and DRDO's capabilities is reducing. Today we are able to sit down with the army, navy air force to work out a road map on the kind of weapons they would need in the next 5-7 years. What new technologies they think we should develop and how to realise these technologies?

Thus we have generated 2 road maps - one for technology and the other for products. We have had extensive discussions on these even up to how they should look. For example Rustum, a medium altitude, long endurance unmanned vehicle where we have combined QRs (qualitative requirements) where the order rate is above 100 for all forces combined. When the services say that if you can develop this within the next 4 years within our requirements, at least an order of x number will be placed. The services are ready today how much they will order called MOQ (minimum order quantity).

When we have such a guarantee from the buyers, then it is easy to go the industry which can work with us to expedite the development because the industry will make the prototype, assemble it immediately and production time or realisation time will come down. Some of the industry partners are ready to fund the development cost also, even if it is 15 per cent or 20 per cent. When they fund the development cost they become the stakeholders and then responsibility increases and then it is produced according to specifications within the stipulated time and assemble and market it as well.

So, we are tying up the industry, the MOD, the three services and DRDO – we are converging, synergising, harmonising so we work together and see that the systems are developed for the good of the country, to meet our own a la carte service - customised to the taste, schedule, performance, quality, upgradation.

Plus this is also good for the health of the Indian economy as employment opportunities increase and industry capabilities increase, even drawing orders from other countries. Based on these technologies, I have observed that many of our SME and small-scale industries getting export orders.

So you see how the level of the economy goes up, the employment potential increases, our knowledge expands, university research level goes up, and our own departments of science and technology, their own understanding and knowledge goes up. So, as a country we can see an elevation of status technologically and economically.

With this harmony we see many good things happening
 

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http://pib.nic.in/release/release.asp?relid=47954

Bullet Proof Jackets made by DRDO
17:44 IST
RAJYA SABHA

In the knowledge of the Government, no Bullet Proof Jacket (Body Armour Jackets) designed and developed by Defence Research and Development Organisation (DRDO) has been subjected to a test at Meerut and Azamgarh.

The Bullet Proof Jackets developed by DRDO met the Qualitative Requirements (QRs) given by the Users. These are available in different configurations and provide different levels of protection. These have been designed to ensure proper fitting to enable the wearer to perform his operational tasks without any hindrance as per QRs given.

This information was given by Defence Minister Shri AK Antony in a written reply to Shri N K Singh in Rajya Sabha today.

DM/PK/HS
 

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http://pib.nic.in/release/release.asp?relid=47952

CAG’s observation regarding functioning of OFBs
17:43 IST
RAJYA SABHA

Ordnance Factory Board (OFB) have created production capacity based on the requirement of Armed Forces. However, the annual requirement of stores fluctuates due to various reasons. While annual supply of 30 mm ammunition conformed to the requirement of the user, annual supply of 23 mm Schilka ammunition suffered disruptions on account of certain drawbacks in design. The design has been suitably modified by OFB and DGQA. The supply of the ammunition as per modified design has been planned from next financial year.

The tank ammunition was produced as per approved technology and the supply was affected only after proof and acceptance by the designated agency. The indigenous technology of propellant was not available for 125 mm HE/HEAT Ammunition and a decision was taken to use triple base propellant developed by DRDO. For 125 mm FSAPDS ammunition, a decision was taken to use Russian technology due to limited capacity of indigenous sources. Subsequently, quality problem were noticed in these ammunition and a decision was taken in the Ministry of Defence in consultation with all stakeholders to – replace triple base propellant by single base propellant in 125 HE/HEAT Ammunition ; replace combustible cartridge case of Russian design with combustible cartridge case of DRDO technology in 125 FSAPDS ammunition.

This information was given by Defence Minister Shri AK Antony in a written reply to Shri Nandi Yellaiah in Rajya Sabha today.

DM/PK/HS
 

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Copying from other thread:

http://www.hindustantimes.com/Story...Railways+to+use+bacteria+to+treat+human+waste


Darpan Singh, Hindustan Times
Email Author
Lucknow, February 25, 2009
First Published: 23:50 IST(25/2/2009)
Last Updated: 23:53 IST(25/2/2009)
Very soon, the sight of dirty railway tracks at platforms may become a thing of the past.

The Research Designs and Standards Organisation (RDSO), Lucknow, has developed “aerobic bio-toilets” which will use bacteria to biodegrade human waste into gas and water, which may be released later on.

One thousand of these “eco-friendly, zero-discharge” toilets will be installed on trains this financial year.

The RDSO is the only body of its kind in the country and the biggest in Asia, which looks after preparation of designs, standards and specifications for materials used by the railways.

Praveen Kumar Tiwary, director of the Carriage Unit (RDSO), said: “The technology was imported from a US-based company, Microphor, and Aikon Industries of Delhi has Indianised it. These toilets have been tried out in one rake of Delhi-Rewa Express and the results have been encouraging.”

While the RDSO and the IIT-Kanpur are responsible for the design of these toilets, Urbane Industries of Chennai will do the manufacturing part.

“Biodegraded material can be stored for 15 days in a tank to be emptied at the destination point. The odorless solid waste could also yield revenue as it can be turned into excellent manure after being dried up,” said an official.

According to Tiwary, the Defense Research and Design Establishment, Gwalior, has also developed a similar technology called “anaerobic bio-toilets” for stationary use. He said, “The technology, being tried out for its suitability in mobile use, is in the initial stages of development.” The Railways have planned to fit 20 rakes with bio-toilets in 2009-10.

IIT-Kanpur has also designed a similar toilet system, which works on solid-liquid separation. “Water is recycled for flushing purpose and the solid is taken out from toilet tanks periodically for composting in pits,” said an IIT-Kanpur official. He said prototype toilets had been installed in Chennai- Lucknow Express.
 

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CAE, HAL To Build Helo Training Center in India

BANGALORE - High-fidelity helicopter training will soon come to Bangalore with a new joint venture from CAE and Hindustan Aeronautics Limited (HAL).

Contracts have been signed and formal announcement is expected in days on the Helicopter Academy to Train by Simulation of Flying (HATSOFF), a comprehensive civil and military training facility. The Bangalore training center is slated to be operational in the second half of 2010.

HATSOFF will house a full-mission simulation system featuring CAE's roll-on/roll-off cockpit design, which allows for an infinite number of cockpits to be used in the common full-motion simulator. The facility will initially house cockpit modules for four helicopter types: Bell 412, Eurocopter Dauphin, and one military and one civil variant of the HAV Dhruv. When the cockpits are not in full-mission use, they can be used as fixed-based flight training devices.

The facility will be certified at the highest level under Federal Aviation Administration and Joint Aviation Authority standards and will be India's first Level D simulation facility.

Canada-based CAE has a nearly 30-year relationship with India, though most of that work has been in civil aerospace training and simulation.
http://www.defensenews.com/osd_story.php?sh=VSDI&i=3945027
 

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project-samyukta-detailed



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

http://trishulgroup.blogspot.com/2009/02/project-samyukta-detailed.html
 

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http://www.business-standard.com/in...fence-sector-for-next-25-years/18/47/55857/on

No slowdown in defence sector for next 25 years'
BS Reporter / New Delhi February 27, 2009, 16:21 IST

The global financial crisis might have cast dark clouds over many industries but not the defence sector in India. This is because India's armed forces have a demand for new equipment and technology for the next 20-25 years and liberalisation of India's defence procurement policy offers a unique opportunity for Indian companies to provide services for the armed forces.

With the 34 per cent increase in the annual defence budget to Rs 1,41,703 crore, or 2.4 per cent of the GDP, there is an opportunity for Indian industry, especially the capital goods sector, to provide sub-contracting services to the armed forces, said S Rajan, joint secretary (exports), Ministry of Defence, at a CII seminar on opportunities for the capital goods industries in the capital today.

Currently, most of the sub-contracting services are being provided by the IT/ITeS sector, but the capital goods industries must step up its efforts to provide such services for the defence sector, he said.

By 2013, nearly $35 billion would be spent on defence in India, said Rajan.

An amount of Rs 3,000 crore has been earmarked for defence forces modernisation in the next three years, Rs 2,000 crore to build naval shipyards and Rs 2,000 crore earmarked for defence PSUs. All this money would be spent on imports if entrepreneurship is not encouraged in India's capital goods industries, said Rajan.

The defence offset policy, which requires a foreign vendor to spend a minimum of 30 per cent of its investment in building capability of Indian R&D, has led to many joint ventures between Indian and foreign vendors and this advantage must be leveraged at such a time, he added.
 

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http://www.sindhtoday.net/south-asia/68943.htm


Manganese plenty in ocean off Goa

Panaji, Feb 27 (IANS) Researchers with the National Institute of Oceanography (NIO) claim to have discovered a large presence of manganese modules off Goa’s shore.

Speaking to reporters on the sidelines of a Science Fiesta organised by the Goa government Friday, Vineesh T.C., a senior researcher with the NIO, said India was preparing to harvest these minerals from the ocean.

“The International Seabed Authority (ISA) has been kind enough to have licenced India to explore these polymetallic modules spread over an area of nearly 75,000 sq km in the sea,” he said.

Based in Jamaica, the ISA is an autonomous international body established under a 1982 UN Convention to organise and control activities in the seabed area. The convention considers the international seabed as common property of all human beings.

Describing manganese modules as an example of the generation next of mineral resources, Vineesh said research was on globally to make harvesting these marine mineral resources a financially viable option.

“These modules are polymetallic in nature. They have a component of copper and zinc,” he said. “With our existing conventional mineral stockpile steadily depleting, the ocean’s vast bed is the future of mineral harvesting.”

The seabed accounts for nearly 49 percent of the earth’s surface and covers an area in excess of 250 million sq km.
 

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http://www.hindu.com/2009/03/02/stories/2009030255611400.htm

Seabed array system prototype tested

S. Anandan

Kochi: Just when coastal India broods over measures to counter seaborne threats, the Defence Research and Development Organisation (DRDO) is in the process of developing an integrated costal defence system under its Project Nayan.

“The development of seabed array system, forming its pivot, is making steadfast progress and we have tested the prototype successfully,” a top source told The Hindu.

“The idea is to get alerted when objects traverse the waters. The echo emanating from various objects like fish, various types of ships, submarines and the like have been calibrated and identified for the purpose. Now that the prototype is ready, we need to test it as a system with multiple layers and at various depths,” said the source.

Water medium

The array would transmit the ricocheted signal to the top water medium, maybe a sonobuoy, which in turn would be transmitted to the shore-based command and control centre by way of an unmanned aerial vehicle (UAV) or a satellite.

“Once the capability is unambiguously demonstrated, it will be installed initially at Karwar under Project Seabird. However, for the entire system to come into being, we require an exclusive ocean satellite. That, however, has not come so far,” said the source

Another project

In progress, however, is another ambitious programme that will augment the DRDO’s underwater detection capabilities. Oceanic waves are photographed, in multiple pixels, using a remote sensing satellite.

As in the seabed array system, various types of waves created by movement of different objects are standardised and using signal processing, the cause of a definite kind of wave is recognised.

Encouraging

“In its nascent stage, initial trials pertaining to wave-identification have been highly encouraging. At present, we are developing the method of signal processing but we need to demonstrate it at the system level and in real-time to call it a full-fledged programme,” the source said.
 

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http://timesofindia.indiatimes.com/...sed-version-of-Pinaka/articleshow/4214800.cms

ARDE working on improvised version of Pinaka
3 Mar 2009, 0251 hrs IST, TNN


PUNE: A precision guided munition, which is being developed by the city-based Armament Research and Development Establishment (ARDE) for army battle tanks, will go for maiden field trials in December, said ARDE director A M Datar on Monday.

The ARDE is also working on an advanced version of the Pinaka multi-barrel rocket launcher system (MBRLS), which will have an improved trajectory for the missile, he added.

Datar was speaking at a joint press conference addressed by the directors of five premier defence research and development organisation (DRDO) laboratories, which are part of a cluster group for development of armament products for induction into armed forces.

The occasion was the centenary celebrations of the High Energy Materials Research Laboratory (HEMRL), which coincided with the golden jubilee of the DRDO on Monday.

A two-day exhibition of the armament products developed by the five cluster labs was inaugurated on the occasion. Apart from HEMRL and ARDE, the other three labs are: Proof and Experimental Establishment (PXE), Centre for Fire, Explosives and Environment Safety (CFEES) and Terminial Ballistic Research Laboratory (TBRL).

Datar said, "The gun-fired guided munition can be fitted to battle tanks like T-72, T-90 and Arjun and will provide greater accuracy in terms of hitting the targets."

Referring to Pinaka, he said, the army was already in the processing of raising two regiments of the Pinaka MBRLS after the same was successfully tested and cleared for induction in the armed forces the process is now on. "We are now improvising on the Pinaka's trajectory and demonstrations for the same are scheduled for 2011," he added.

Earlier, HEMRL director A Subhananda Rao said developing cutting edge technology of low vulnerable and insensitive munitions for futuristic missions was one of the top priorities of the HEMRL.

"Nowadays, low intensity warfare or asymmetrical warfare has assumed significance in the wake of the proxy war or militant attacks. This has prompted a shift in focus to newer areas," Rao said.

Rao pointed out that the HEMRL's low-cost explosive detection kit, which is used for instant identification of explosives used in blast and also for suspicious chemicals seized, had drawn significant demand from the military, para-military and police forces. "We have now got express of interest even from a couple of European countries, who want to use the detection kit," he said. The kit was among the 10 fast-track technologies identified for transfer under the DRDO-FICCI programme, which focuses on technology transfer for 300 technologies developed by the DRDO labs, he said.
 

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http://www.indianexpress.com/news/what-went-wrong-with-lca-arjun-tank-akash-missile/429935/1

What went wrong with LCA, Arjun Tank, Akash missile

New Delhi: Poor planning, over-optimistic timelines and a lack of coordination with the Armed Forces led to cost and time overruns of major defence projects taken up by the Defence Research and Development Organisation (DRDO), says the first external review of the research body.

The P Rama Rao committee, which was formed to revamp the organisation, has said that the major cause for delays and failures of indigenous defence products is DRDO’s tendency to over-estimate its capabilities. The inability of the research body to involve the Armed Forces in developmental projects

from the start has been identified as a major area of concern.

In all of the major projects reviewed by the committee — the Light Combat Aircraft, the Arjun Tank, Kaveri engine and the Akash Surface to Air Missile — it cracked down on the DRDO for the same problems of “over-optimism” and poor planning.

The LCA project has come under a lot of flak from the committee, which says the delays resulted in a “substantive” setback to the Air Force and reduced its war-fighting potential. Even now, when 48 of the fighters are set to be inducted into the Air Force, five major problems areas remain unresolved, reducing the capability of the fighter, the review reveals.


Similarly, DRDO scientists’ “over-enthusiasm” about the capability of the organisation has been identified as the main reason behind delays in the Arjun Tank project. While the committee has said that the tank be inducted in the present form, it has directed DRDO to immediately work on a new more acceptable version of the tank.

The committee has now recommended to the Government that DRDO should undertake all projects in the future on a joint developmental basis and involve foreign partners to imbibe global standards. DRDO’s tendency of overstretching itself to reinvent the wheel has also been noted and the committee has said that foreign help should be taken “without any reservations” in future projects.

The committee has taken a look at some major projects and has recommended the road ahead on each one of them.

Light Combat Aircraft (LCA)

StatuS: The fighter may even miss the revised deadline of December 2010 by “one-two years” as DRDO has not been able to generate enough test flights. The present fighter fails to meet requirements set by the Air Force in 1985. Some major requirements that will not be met even after induction include mismatch of aircraft weight to power available from its engines, inadequate turn rates, low supersonic acceleration and achieving maximum angle of attack. The Kaveri engine being developed is nowhere near completion. LCA’s weight has increased 900 kg over the original 9 ton.


Way Ahead

•Accepting LCA in its “sub-optimal performance” as LCA Mk I, IAF to induct 48 of these underpowered fighters.

•However, new teams to be formed immediately to develop a Mk II version that will meet the original requirements identified in 1985.

•The laboratory behind the project — the Aeronautic Development Agency (ADA) — be merged with Hindustan Aeronautics Limited (HAL).

•Take up any future military aerospace programme as a joint venture with foreign aircraft design organisations.

•Kaveri engine project to be taken up as a co-design programme with foreign collaborator.


Arjun Main Battle Tank

StatuS: The original requirements were drawn up by the Army in 1972. The Army has placed orders for 124 tanks but these are still undergoing trials. The committee says while two changes in requirements by the Army in 1982 and 1985 contributed to the delay, the main reason was “over-optimism” of “inexperienced” developers who under-estimated the time needed for making weapon systems.


Pulling up the DRDO for the inordinate delay, the committee says:

•Too much time and effort spent in developing engine for tank without meeting success.

•DRDO looked at outsourcing turret control systems only in mid-’80s after failing to develop it in-house.

•DRDO did not hand over blueprints and specifications to the manufacturing facility on time.

•Tank suffered from poor product quality and sub-optimal performance during development, testing and production stage.


Way Ahead

•DRDO should immediately start work on a Mk II version of the tank to meet the Army’s requirements.

•Advanced version to be built on a joint development model and foreign collaborators should be roped in to gain expertise.

•DRDO needs to work on indigenisation of engine, turret and sight and fire control system that it has completely failed to develop.


Akash Medium Range Surface-to-Air Missile

StatuS: The work started in 1983, but the system failed to meet all deadlines set for development. While the Air Force will be inducting the system shortly, it is yet to meet the Army’s requirements. The missile system has failed mobility tests in the deserts, where it was too heavy and got stuck in the sand during trials. Cannot negotiate steep sand dunes. Developers over-estimated own capabilities, set unrealistic targets and did not involve the Armed Forces during the development, says the committee.

•Should immediately start work on a new Mk II version of the missile.

•DRDO has to make all out effort to involve the Army and Air Force in the development of the new system to meet all their requirements.

•DRDO to take up a joint development approach with foreign collaborator.
 

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