inferno
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ya! India is developing very cute techs now and will stand with major players of the world in coming years.
Indian Army considering "several Akash missile squadrons "
- Thread starter Ruag
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ya! India is developing very cute techs now and will stand with major players of the world in coming years.
vnomad
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my question remains unanswered.... what will india do between 2010-2017???? for long-range interception ?????
The S-300 is in service with the IAF. India may also go for the S-400.
Why u didn't shoot Mig 25 in May 1997 ?????????
sancho
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Talking about Spyder and Akash SAM, the Spyder SAM is a version of the Python 5 short range missile and also other SAM systems are converted versions of other a2a missiles. Could we use the Akash SAM tech for a short range a2a missile too, or is this a different kind of SAM system compared to Spyder?
vnomad
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Its actually the other way round. There are some proposals(I don't what stage its at) to induct a ground based version of the Astra into the IAF(presumably). Sort of like the the Surface Launched AMRAAM(SLAMRAAM).
AIM-120 AMRAAM - Wikipedia, the free encyclopedia
sudhir007
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AKASH
OPERATIONAL SCENARIOS
The Akash Group is extremely flexible in employment and deployment. It is best employed as a Group. However, Batteries can be employed on independent tasks if required. This is called the Autonomous Mode.
The four Batteries can be deployed in various geometric formations, as suited to the vulnerable area being protected and the extent desired to be sanitized from enemy air threat.
Similarly, the Battery can deploy its launchers in a way as to be optimal for target engagement as the threat is perceived ab-initio or as it evolves during combat. Mobility enables quick redeployment and the sensors can be so positioned as to achieve the optimum kill zone.
The Akash Group and Batteries can protect static, semi-mobile as well as mobile assets. These may be critical national assets in the hinterland or large armour formations thrusting into the enemy territory.
The GCC and the BCCs must be deployed in a manner, which will provide a clear line of sight (LOS) to the batteries, which may be placed upto a maximum of 30km away from it. This requires the mast of the communication antenna to be raised to the required appropriate height.
The 3D CAR antenna vehicle must be placed keeping in mind the screening constraints. The antenna vehicle needs to be aligned accurately by knowing its position and orientation with respect to the north. This information is made available to the CAR computer from ALNS. Care has been taken to align the antenna with the mounting of the ALNS and the system has been calibrated. The leveling of the antenna needs to be accurate in order to avoid any tilt, which would introduce a bias.
The BSR is also provided with ALNS to measure its latitude, longitude and orientation with respect to true north. This information is required by both GCC and the computer of the BSR.
The BLR is also provided with ALNS to measure its latitude and longitude and orientation with respect to the true north. This information is required by GCC, BCC and BLR computers.
The ASPL is a mobile launch system for missiles. It is based on a tracked vehicle and carries three prepared missiles for launch. The equipment operates fully automatically and is remotely controlled by the BCC (Battery Control Center) which may be upto 500m away. Control is effected via radio or line links. ALNS system of ASPL is also connected to its computer.
Akash has an advanced automated functioning capability. The 3D CAR automatically starts tracking targets at a distance of around 150 km providing early warning to the system and operators. The target track information is transferred to GCC. GCC automatically classifies the target. BSR starts tracking targets around a range of 100km. This data is transferred to GCC. The GCC performs multi-radar tracking and carries out track correlation and data fusion. Target position information is sent to the BLR which uses this information to acquire the targets.
The BCC which can engage a target(s) from the selected list at the earliest point of time is assigned the target in real time by the GCC. The availability of missiles and the health of the missiles are also taken into consideration during this process. Fresh targets are assigned as and when intercepts with assigned targets are completed. A single shot kill probability of 88% has been achieved by the system taking into consideration various parameters of the sensors, guidance command, missile capabilities and kill zone computations.
There are a number of possibilities for deploying Akash weapon system in autonomous mode and in group mode for neutralizing the threat profiles with defined multi-target engagement scenarios. In the Group mode we can have number of configurations to defend vulnerable areas depending upon nature and expected threat pattern, characteristics of threat. Similarly, multiple batteries in autonomous mode can be deployed to defend vulnerable areas/points.
Box configuration
Each battery is placed such that the four BCCs effectively cover the corner of a box of side 62 km. Each battery is defended by the other two adjacent batteries and the GCC is well within the coverage of all the four batteries. Full 360-degree radar coverage can be obtained without slewing the tracking radar. This deployment pattern can defend an area of 62km x 62km.
Linear array configuration
All the BCCs are arranged in a straight line. GCC can be placed such that the distance between GCC and each BCC never exceeds more than 30km. This type of pattern can defend a coverage zone with maximum length in any direction. It covers an area of 98km x 44km. This deployment pattern can act as air defense support to large extended moving columns.
Trapezoidal configuration
The placement of batteries is such that they are at the corner of a trapezoid. This pattern gives defense to the largest area as compared to any other pattern of deployment. This pattern can defend an area of size 5000 square km.
The Diamond and Semi-circles are other variations that can be adopted.
Trapezoidal configuration
Within each Battery the launchers can be sited in various configurations. Thus the battery can also adopt the Box, the Linear, the Trapezoid or other geometries
OPERATIONAL SCENARIOS
The Akash Group is extremely flexible in employment and deployment. It is best employed as a Group. However, Batteries can be employed on independent tasks if required. This is called the Autonomous Mode.
The four Batteries can be deployed in various geometric formations, as suited to the vulnerable area being protected and the extent desired to be sanitized from enemy air threat.
Similarly, the Battery can deploy its launchers in a way as to be optimal for target engagement as the threat is perceived ab-initio or as it evolves during combat. Mobility enables quick redeployment and the sensors can be so positioned as to achieve the optimum kill zone.
The Akash Group and Batteries can protect static, semi-mobile as well as mobile assets. These may be critical national assets in the hinterland or large armour formations thrusting into the enemy territory.
The GCC and the BCCs must be deployed in a manner, which will provide a clear line of sight (LOS) to the batteries, which may be placed upto a maximum of 30km away from it. This requires the mast of the communication antenna to be raised to the required appropriate height.
The 3D CAR antenna vehicle must be placed keeping in mind the screening constraints. The antenna vehicle needs to be aligned accurately by knowing its position and orientation with respect to the north. This information is made available to the CAR computer from ALNS. Care has been taken to align the antenna with the mounting of the ALNS and the system has been calibrated. The leveling of the antenna needs to be accurate in order to avoid any tilt, which would introduce a bias.
The BSR is also provided with ALNS to measure its latitude, longitude and orientation with respect to true north. This information is required by both GCC and the computer of the BSR.
The BLR is also provided with ALNS to measure its latitude and longitude and orientation with respect to the true north. This information is required by GCC, BCC and BLR computers.
The ASPL is a mobile launch system for missiles. It is based on a tracked vehicle and carries three prepared missiles for launch. The equipment operates fully automatically and is remotely controlled by the BCC (Battery Control Center) which may be upto 500m away. Control is effected via radio or line links. ALNS system of ASPL is also connected to its computer.
Akash has an advanced automated functioning capability. The 3D CAR automatically starts tracking targets at a distance of around 150 km providing early warning to the system and operators. The target track information is transferred to GCC. GCC automatically classifies the target. BSR starts tracking targets around a range of 100km. This data is transferred to GCC. The GCC performs multi-radar tracking and carries out track correlation and data fusion. Target position information is sent to the BLR which uses this information to acquire the targets.
The BCC which can engage a target(s) from the selected list at the earliest point of time is assigned the target in real time by the GCC. The availability of missiles and the health of the missiles are also taken into consideration during this process. Fresh targets are assigned as and when intercepts with assigned targets are completed. A single shot kill probability of 88% has been achieved by the system taking into consideration various parameters of the sensors, guidance command, missile capabilities and kill zone computations.
There are a number of possibilities for deploying Akash weapon system in autonomous mode and in group mode for neutralizing the threat profiles with defined multi-target engagement scenarios. In the Group mode we can have number of configurations to defend vulnerable areas depending upon nature and expected threat pattern, characteristics of threat. Similarly, multiple batteries in autonomous mode can be deployed to defend vulnerable areas/points.
Box configuration
Each battery is placed such that the four BCCs effectively cover the corner of a box of side 62 km. Each battery is defended by the other two adjacent batteries and the GCC is well within the coverage of all the four batteries. Full 360-degree radar coverage can be obtained without slewing the tracking radar. This deployment pattern can defend an area of 62km x 62km.
Linear array configuration
All the BCCs are arranged in a straight line. GCC can be placed such that the distance between GCC and each BCC never exceeds more than 30km. This type of pattern can defend a coverage zone with maximum length in any direction. It covers an area of 98km x 44km. This deployment pattern can act as air defense support to large extended moving columns.
Trapezoidal configuration
The placement of batteries is such that they are at the corner of a trapezoid. This pattern gives defense to the largest area as compared to any other pattern of deployment. This pattern can defend an area of size 5000 square km.
The Diamond and Semi-circles are other variations that can be adopted.
Trapezoidal configuration
Within each Battery the launchers can be sited in various configurations. Thus the battery can also adopt the Box, the Linear, the Trapezoid or other geometries
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