Forward Assault Radar Hack

[Gualtar Pennington]

ForwardAssault MOD radar/anti ban/no recoil - Great military first-person shooter. Play against other players, earn a reputation participating in the storming of the city against terrorists, call your friends and get a charge of positive emotions together! The main feature is the excellent tactical layout of the maps, there are many places available for defense of the offensive or tactical bypass of the enemy. The mass of cool weapons, the ability to change the appearance and much more. Choose a battle with bots to hone your assault skills or an online game with live players to conduct excellent special operations to clean the territory from the enemy. Download this game and fight in a team against other players, and our mini-map radar mod will help you win in any battle.

Control and Reporting Post (CRP). The control and reporting post was an operational Air Force element directly under the CRC. The CRP would augment the radar coverage of the CRC's area of responsibility and would also have weapon control capability. One or more CRPs would be used to augment the CRC's radar coverage. The CRP was the link between the CRC and the forward air control posts (FACPs) and would pass pertinent information to the FACPs. With the exception of the identification and weapons assignment and ATRC functions, which are centralized at the CRC, the CRP would accomplish everything the CRC does. Because of the similarities in equipment and operational responsibilities between the CRC and the CRP, if tactically necessary, the CRP could assume the duties and functions of the CRC by adding a movements and identification section and an air traffic regulation section. Either a Squadron or a Flight.

Forward Air Control Post (FACP). The forward air control post was a radar element normally under the CRP. Its primary functions were to augment the CRC and CRP surveillance coverage within the forward combat areas and to provide control of tactical missions during all weather conditions. Handoff of aircraft to forward air controllers (FACs) for support missions was also an essential function of this element. When tactically required, the FACP had the capability for limited intercept and airspace control. Usually a Flight.

Mission. When deployed in the initial wave of an air assault operation, the FACP provided a minimum air control and surveillance capability pending follow-on deployment of a CRC/CRP. This means that the FACP could be deployed with the mobile radar and power plant only, and with a minimum number of personnel to man the location. In this configuration, the control of aircraft was accomplished by using only the equipment in the radar shelter. As the situation became stabilized, the communication equipment would be deployed to the site.

As part of a more complete air control and warning subsystem deployment, the FACP was deployed to provide low altitude or gap-filler coverage and to provide increased control and navigational assistance to aircraft on offensive or defensive missions.

Equipment. The FACP was designed for rapid deployment and mobility to meet various tactical situations in forward battle zones. All the basic equipment of the FACP was housed in transportable shelters or on equipment pallets, which (excluding the AN/TRC-97A equipment shelter) are designed specifically for dolly-wheel M-720 mobilizer attachment. Both shelters and pallets were also designed for transportation on M35A or M54 truck beds and could have been sited and operated:

Seven equipment pallets were included with the FACP. Each pallet had two eyes on each end for towing or lifting. The radar set antenna was mounted on one pallet and remained on the pallet in both the operating and the transport mode. Two of the pallets contained cable reels for equipment shelter interconnection, radio antennas and masts, and other ancillary components required for deployment. These pallets were stacked, in all configurations other than helilift, to reduce transport requirements. Each of the stacked pallets consisted of an AN/TSC-53 communications set equipment pallet and a combined radar set and AN/TSQ-61 operations central equipment pallet. The remaining pallets held the A/E24U-8 power plants with cables, reels, and power distribution and control boxes.

AN/TSQ-61 Operations Central

The AN/TSQ-61 operations central equipment shelter contained the radar PPI indicators, plotting facilities, and communications access equipment required for operational control of the FACP tactical mission. The radar indicators were supplied with video signals and trigger pulses from the radar set. Voice communication between control operators was provided within the operations central and from the operations central to the AN/TSC-53 communications set equipment shelter. Radio-telephone voice communication access and remote keying control was also provided from the control operator positions in the operations central to the HF, VHF, and UHF radio equipment in the AN/TSC-53 communications set equipment shelter, and radio-telephone voice communication access was provided to the AN/TRC-97A radio set equipment shelter.

AN/TSC-53 Communications Set

The AN/TSC-53 communications set equipment shelter house the VHF, UHF, and HF radio equipment, a telephone switchboard, teletype equipment, and cryptographic equipment required for the FACP communications.

The 355th Operations Group consists of five squadrons and over 300 personnel employing 83 A-10C aircraft and an AN/TPS-75 radar system. It provides war-fighters with forces for close air support, forward air control, combat search and rescue.

U.S. Air Force Senior Airman Alan Yeddo, 355th Operations Group knowledge operations manager, responds to emails on Davis-Monthan Air Force Base, Ariz., Feb 21, 2013. Knowledge operations management personnel deploy, sustain and manage data, information and knowledge-sharing services in a deployed environment. (U.S. Photo by Airman 1st Class Josh Slavin/Released)

U.S. Air Force Col Philip Wielhouwer, 355th Operations Group commander, signs documents in his office on Davis-Monthan Air Force Base, Ariz., Feb. 21, 2013. The 355th OG consists of five squadrons and over 300 personnel.(U.S. Photo by Airman 1st Class Josh Slavin/Released)

Paul Richard, 355th Operations Group Patriot Excalibur software administrator, reviews a folder on Davis-Monthan Air Force Base, Ariz., Feb 21, 2013. Patriot Excalibur software enables full-scale deployment of battle-ready units. (U.S. Photo by Airman 1st Class Josh Slavin/Released)

This mural is located in the 355th Operations Group conference room on Davis-Monthan Air Force Base, Ariz. The 355th OG provides war-fighters with forces for close air support, forward air control and combat search and rescue. It also conducts all formal course directed aircraft initial qualification/requalification training. (U.S. Photo by Airman 1st Class Josh Slavin/Released)

Poland has been looking at acquiring an aerostat surveillance system since at least 2017 as part of program known in the country as Barbara. Documents associated with Barbara that have emerged online in the past indicate that the main focus has been on detecting various tiers of drones, as well as helicopters and potentially other lower and slower-flying crewed aircraft. Secondary requirements to be able to spot and track targets on land and at sea have also been discussed.

While the sources of the particular elements are not mentioned by the DCSA, the notification does reveal that the principal contractors involved will be Raytheon Intelligence and Space, Elta North America (a subsidiary of the Israeli company), and Avantus Federal (a U.S. subsidiary of the British QinetiQ company).

Integrated within North American Aerospace Defense Command, JLENS was supposed to be a low-cost method of detecting and tracking low-flying cruise missiles and other threats, and had additional surveillance modes, as well. Cruise missiles have been recognized as a critical and growing threat by the U.S. military, especially in the Washington, D.C., area. This was the primary region that JLENS was supposed to keep watch over, at least at first.

As we have discussed in the past, the JLENS effort began in 1996, but was canceled two decades later after numerous cost overruns, delays, and other problems. Prototypes of JLENS were fitted with either a VHF-band surveillance radar or an X-band fire control radar.

Above all else, aerostats offer efficient persistence, being able to remain on station for many days at a time, even in poor weather. This also brings benefits in terms of cost-effectiveness and reduced maintenance and manning demands, especially compared with aircraft with similar capabilities.

However, while smaller sensor-equipped aerostats are a familiar feature of military operations around the world, typically providing localized surveillance for forward bases in conflict zones, border areas, or other points of interest. Larger balloons with radar payloads are far less common but they too exist and are operating daily.

Faced with an increasingly belligerent Russia to the east, defense against cruise missiles and drones is clearly of particular interest to Poland, especially bearing in mind how extensively these have been used against Ukraine. In 2022, a stray Ukrainian surface-to-air missile that had been fired in response to incoming Russian threats impacted a farm in Poland, killing two civilians, underscoring these concerns.

Even tracking ground targets, in particular the mass movement of vehicles, through ground-moving target indicator modes would be a welcome capability near the Russian border. Synthetic aperture ground mapping could also provide image-like intelligence products of distant areas. Tracking ships and sea, including small boats and other maritime targets would be possible, as well.

AESA arrays, which can provide all these functions and more, have become extremely capable multi-mission tools. They can scan so fast that, when paired with the right processing power, they are capable of executing aerial and ground surveillance at the same time. One could argue that an era of tethered lighter-than-air surveillance craft may come about in large part due to advanced AESA technology.

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