Warfare Hevc 'link' 〈VERIFIED ◆〉
Beyond the front lines, HEVC enables . Systems like the U.S. Army’s ARGUS-IS (Autonomous Real-Time Ground Ubiquit Surveillance Imaging) capture gigapixel-scale video of entire cities. Without HEVC, storing and transmitting such massive data streams would require physical hard drives shipped by courier. With HEVC, analysts can remotely review, annotate, and disseminate relevant clips across global command centers in near real-time.
HEVC solves this by offering of its predecessor, H.264, while maintaining the same visual quality. In practical terms, a 10 Mbps video stream under H.264 can be reduced to approximately 5 Mbps under HEVC with no perceptible loss of detail. This halving of data requirements allows military networks to carry twice as many video feeds, operate at longer ranges, or function effectively through lower-bandwidth encrypted channels. warfare hevc
More critically, HEVC does not inherently protect against . While it compresses data, it does not encrypt it. Military implementations must layer cryptographic protocols (such as AES-256) on top of HEVC, adding latency. Additionally, if an adversary captures the encoding parameters, they could potentially decode intercepted video, turning friendly surveillance into enemy intelligence. Beyond the front lines, HEVC enables
Looking ahead, HEVC will be foundational for . As drones transition from “human-in-the-loop” to fully autonomous targeting, they will need to process and share high-fidelity video for collaborative swarm tactics. HEVC allows a swarm of 50 drones to share compressed video feeds among themselves via low-bandwidth mesh networks, enabling distributed perception—each drone seeing what all others see. Combined with edge AI, this could allow a swarm to identify, track, and engage targets without a central command node. Without HEVC, storing and transmitting such massive data
Traditional warfare communication relies on radio frequencies, satellite links, and tactical data networks. These channels are often congested, subject to electronic warfare (jamming), and limited in capacity. Uncompressed or lightly compressed video (using older standards like H.264 or MPEG-2) consumes enormous bandwidth—a single Full HD drone feed can saturate a platoon’s entire communication channel. In a contested environment where a commander needs feeds from a dozen drones, helmet cameras, and ground sensors, the network collapses.
In the 21st century, warfare is no longer defined solely by troop numbers, tank armor, or air superiority. Instead, it is increasingly defined by data : the collection, transmission, and analysis of high-resolution video. From drone feeds over Gaza to satellite surveillance of troop movements in Ukraine, the modern commander’s greatest asset is visual intelligence—and their greatest enemy is bandwidth. Enter High Efficiency Video Coding (HEVC) , also known as H.265. While it is commonly associated with streaming Netflix or YouTube, HEVC has quietly become a silent force multiplier on the battlefield, enabling a revolution in real-time situational awareness, remote operations, and strategic communication.
Warfare has entered the age of the , where victory goes to the force that can see most clearly and share that sight most efficiently. HEVC (H.265) is not a weapon, but it is a critical enabler —the compression algorithm that turns limited satellite bandwidth into a flood of actionable intelligence, that makes every drone feed count, and that connects the frontline soldier to the strategic commander without interruption. As conflicts in Ukraine, Gaza, and the South China Sea demonstrate, the next decisive battle may not be for a hill or a city, but for the bandwidth to transmit a single, crystal-clear frame. In that battle, HEVC is the silent champion of modern warfare.
For USB to micro conversion, I use these inserts:
http://www.ebay.co.uk/itm/DM-OTG-Adapter-Micro-USB-Male-to-USB-Female-For-Samsung-Android-Phone-Tablet-PC-/391313051444?hash=item5b1c134f34:g:ax4AAOSwT6pV6lM3
The only problem, due to their size, is that they are easy to lose.
LikeLike
Wow, that’s a cool tip! I even did not know that something like this exists, very cool!
LikeLike
Pingback: Installing openHAB Home Automation on Raspberry Pi | MCU on Eclipse
Hi Erich,
Raspberry Pi, DMA read and write functions similar to ARM?
read (SPI, SCI, GPIO) and write (SPI, SCI, GPIO).
has pin ( trigger_request ).
I looked info in the manual but it was not clear to me.
thanks
Carlos.
LikeLike
Hi Carlos,
I’m sure it has that, but I have not used anything like this on that low level as on other ARM. With using a Linux a lot of the hardware is hidden behind the device drivers.
Erich
LikeLike
You can use two usb port ??
power use 5v pulled on usb equipment
LikeLike
You can use it as a USB Gadget, see https://learn.adafruit.com/turning-your-raspberry-pi-zero-into-a-usb-gadget/overview
LikeLike