Russia Is Readying For Robot Wars

Support SouthFront

DEAR FRIENDS. IF YOU LIKE THIS TYPE OF CONTENT, SUPPORT SOUTHFRONT WORK:

PayPal: southfront@internet.ru

Donation alerts: https://donationalerts.com/r/southfront

Gumroad: https://gumroad.com/southfront

Or via: http://southfront.org/donate/ or via: https://www.patreon.com/southfront,

BTC: 3Gbs4rjcVUtQd8p3CiFUCxPLZwRqurezRZ,

BCH ABC: qpf2cphc5dkuclkqur7lhj2yuqq9pk3hmukle77vhq,

ETH: 0x9f4cda013e354b8fc285bf4b9a60460cee7f7ea9

The Russian Armed Forces continue preparations for future conflicts involving large quantities of unmanned aerial and ground vehicles, as well as with other robotized platforms.

On November 10, the Russian Defense Ministry’s Zvezda TV channel revealed the military autonomous robotic complex “Kungas”, which is currently undergoing tests in the 12th Central Research Institute of the Russian Defense Ministry. The institute was created in the early 1950s for testing military equipment resistance to various damaging factors, including those arising from a nuclear explosion. The experimental base allows for the simulation of a super powerful shock wave and strong electromagnetic fields.

The “Kungas” includes 5 unmanned ground vehicles: a “man-portable” robot, a “light” robot, a “transportable” robot, a Nerekhta combat robot, and a robotic version of the BTR-MDM Shell armoured personnel carrier.

The Russian military did not provide extensive details on the project. However, data from open sources and released videos allows us to get a general look at the “Kungas” complex of robots. Included robots are as follows:

• A “man-portable” reconnaissance UGV with a manipulator. Its weight is 12 kg.
• A “light” UGV. It can carry an engineering manipulator or a combat module. The combat module may include one of the following: an anti-tank missile package of up to 4 missiles, a PKTM 7.62 mm machine gun, a grenade launcher, or a flamethrower system (i.e. Rocket-propelled Infantry Flamethrower). It’s weight is 200 kg.
• A “transportable” fire support and reconnaissance combat UGV. The combat module includes a 300-round Kord 12.7 mm heavy machine gun and a 90-round AG-30 automatic grenade launcher. Its weight is 2t. There are various configurations of this AGV.
• The combat robot Nerekhta. The combat module, in various options, is equipped with a 300-round Kord 12.7 mm machine-gun or a Kalashnikov 7.62 mm tank machine-gun. Additionally the module can be equipped with the 90-round automatic grenade launcher AG-30M. In addition to these weapons, the combat robot can carry 500 kg of ammunition and equipment. Nerekhta comes in various configurations, including reconnaissance, medical, transport, electronic warfare and other variants.
• A robotic version of the BTR-MDM Shell armoured personnel carrier. There are various configurations. The robot is armed with a Kord 12.7 mm machine gun or a PKTM 7.62 mm machine gun, and a 300-round automatic grenade launcher AG-30. Its main purpose is that of a transport module and fire support vehicle. The weight of the robot is 17t.

According to the report by Zvezda TV, all of these combat robots can be controlled remotely from a single command post. This means that they are controlled by a unified control system within a single intelligent network. In this case, the concept is that any combat robot, or a group of combat robots, can be controlled remotely from a single control center. The composition and number of controlled robots can differ depending on the situation and the task. Experts suggest that robots of the “Kungas” complex have the potential, after further development and improvement, to perform tasks autonomously, without direct control by an operator. In this case, the operator’s main task will be to oversee the autonomous task performance by Kungas robots and intervene in critical situations only.

The Kungas robotic system is a breakthrough development for the Russian Armed Forces. From the data revealed, it becomes clear that a platoon of combat robots has already been created within the Ground Forces. The unit is shaped in a manner which allows it to perform tasks on its own or interactively with other units of the armed forces or form flexible situational groups of different composition with the inclusion of other robotic systems.

Robots of the Kungas system can provide fire, reconnaissance and other types of support to more expensive systems, such as the Uran-9 tracked unmanned combat ground vehicle, which was tested in Syria in 2018 and entered service in January 2019. The Uran-9 is designed to deliver combined combat, reconnaissance and counter-terrorism units with remote reconnaissance and fire support. It weighs 10t and is armed with a 30 mm Shipunov 2A72 automatic cannon, 4 ready-to-launch 9M120-1 Ataka anti-tank guided missiles, 6 ready-to-launch Shmel-M reactive flamethrowers and a 7.62 mm Kalashnikov PKT/PKTM coaxial machine gun. Additionally, it can carry 4 Igla surface-to-air missiles. The combat robot is operated by a single service member and can be remotely controlled up to a maximum distance of 3,000 m. The road speed of the Uran-9 is 35km/h and the cross-country speed is 25km/h. The Uran-9 is equipped with a laser warning and target detection system, as well as identification and tracking equipment. The fitted day and night vision allows for detection of targets at a maximum distance of 6 km during the day and 3 km at night.

Therefore, the Russian military is aiming to gain capabilities allowing it to form offensive or defensive orders consisting of various robotic systems. For example, one can imagine an upcoming tactical unit consisting of several Uran 9 combat robots and various Kungas robots providing them with the needed support. The additional support will be provided by unmanned aerial vehicles and conventional units. The Russian Su-57 fighter jet and the Okhotnik stealth heavy unmanned combat aerial vehicle were developed in a manner to maximize their level of interaction by allowing them to operate as a team in the event of conflict.

It’s expected that the Russian military will continue to improve its robotic systems in this direction in order to increase the level of robotization and decrease the involvement of operators in tactical decision making during performance of tasks. The goal of this effort is to create a flexible and effective mix of robotized and non-robotized platforms -capable of performing various tasks on the battlefield.

Support SouthFront