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Capabilities

Four disciplines and the integration that joins them.

Each capability below is stated together with the delivered specification that proves it. Where we cannot point to evidence, we have left the claim out.

Established
1992
Location
Yerevan, Armenia
Disciplines in house
Optics · Mechanics · Electronics · Software
Delivered systems
7 published

Optics

Optics and optoelectronics

Aragats designs and builds the optical channels of its systems in house — long-wave infrared objectives, wide-range zoom day channels and eye-safe rangefinder optics. Optical components are fabricated, centred, assembled and tested on the company's own benches.

An optical bench in a darkened laboratory: a collimated beam passing through a lens held in an adjustable mount, with mirrors and holders arranged around it on the breadboard.
Illustrative — beam alignment on an optical bench.

What we do

  • Optical and optoelectronic system design
  • Long-wave infrared (8–14 µm) objective design for uncooled microbolometer detectors
  • Wide-range zoom day-channel optics
  • Laser rangefinder transmit and receive optics
  • Optical component fabrication: grinding, polishing and centring
  • Optical assembly, alignment and boresighting of multi-channel heads
  • Optical test and verification on collimator benches

Evidence

  • Thermal objectives from 50 mm to 200 mm focal length across four networked systems and three binoculars.

  • A 6.8–504 mm day channel — 90× optical zoom — in the AR-040-01.

    AR-040-01
  • Eye-safe class-1 rangefinder optics measuring to 20 000 m with < 0.5 m accuracy.

    AR-014-05

Mechanics

Precision mechanics and manufacturing

Housings, optical barrels, pan-and-tilt mechanisms and structural parts are engineered and machined on site. The mechanical work is what holds a multi-channel optical system in alignment through ± 175° of travel and a −40 °C to +70 °C environment.

A machine-tool turret cutting a cylindrical metal part, with tooling and clamps closed around the workpiece.
Illustrative — a turned metal part under machining.

What we do

  • Mechanical engineering and design of optomechanical assemblies
  • Precision machining of housings, lens barrels and mounts
  • Pan-and-tilt mechanism design, manufacture and adjustment
  • Sealed enclosure design to IP67 and IP68
  • Mechanical fitting, adjustment and final assembly
  • Manufacture of structures, brackets and interface flanges

Evidence

  • Pan ± 175°, tilt ± 30°, positioning accuracy 0.06° — a mechanical result before it is an electronic one.

    AR-014-05
  • Enclosures built to IP67 and IP68, rated for continuous 24/7 duty from −30 °C to +60 °C.

  • Hand-held IP67 housings that carry three optical channels in a single moulded shell.

    AR-049-02

Electronics

Electronics hardware

Power sources, video receivers and transceivers, motor drive controllers and video interface conversion boards are all Aragats designs. A single sealed head runs two cameras, a rangefinder, two axes and a full network stack inside a 36 W budget — which is an electronics result before it is anything else.

Close view of a densely populated circuit board: a surface-mount integrated circuit surrounded by capacitors, inductors and fine signal routing.
Illustrative — a populated circuit board in close view.

What we do

  • Electronic hardware and PCB design
  • Power source design
  • Video receivers and transceivers
  • Motor drive controllers
  • Video interface conversion boards
  • Uncooled microbolometer and CMOS detector interfacing
  • Video acquisition, processing and H.265 / H.264 encoding hardware
  • Laser rangefinder drive and timing electronics
  • Power conditioning for 12 / 24 V DC and 220 V AC supplies, including solar input
  • Electronics assembly, inspection and test

Evidence

  • Simultaneous thermal and day video streams with independent main and sub streams, encoded on board.

    AR-014-05
  • Integrated GNSS and on-board 1 TB storage inside the sealed head.

  • < 36 W total consumption for a system driving two cameras, a rangefinder, two axes and a network stack.

Embedded software

Embedded systems and firmware

The software that makes the hardware usable is written in house — detector correction, tracking, coordinate solving, network control and a published SDK. Software engineers work alongside the physicists and electronics engineers rather than downstream of them.

A street scene in which people, cyclists and vehicles are each picked out by an object-recognition overlay drawn as coloured bounding boxes.
Illustrative — object recognition marking people and vehicles in a scene.

What we do

  • Embedded firmware for detector control and image correction
  • Object recognition and tracking
  • Automatic geographic coordinate solving in WGS84 and SK-42
  • Network control plane: HTTP, HTTPS, TCP, RTSP, UDP, SMTP
  • ONVIF conformance and the Aragats SDK for customer integration
  • Fault detection and health monitoring
  • Interoperation with external motion-detection sensors

Evidence

  • Automatic calculation of the geographic coordinates of observed objects, in WGS84 or SK-42.

    AR-040-01
  • An Aragats SDK published alongside ONVIF support, so integrators can drive the system directly.

  • Object recognition and tracking on every product in the range.

Integration

System integration and testing

The disciplines above meet in one place: a finished head where optics, mechanics, electronics and firmware have to agree with each other. Integration and test are treated as engineering stages in their own right, not as the end of assembly.

A gloved hand operating a tablet in front of industrial machinery, with connected control and monitoring icons overlaid on the view.
Illustrative — a finished system under control and monitoring.

What we do

  • Integration of optical, mechanical, electronic and software subsystems
  • Boresight alignment between thermal, day and rangefinder channels
  • Calibration of coordinate solving against the pan-and-tilt axes
  • Environmental and duty-cycle verification against the specification
  • Functional and network acceptance testing
  • Documentation and datasheet verification

Evidence

  • Three optical channels, two mechanical axes and a GNSS receiver resolved into one coordinate output.

    AR-014-05
  • Published detection, recognition and identification ranges for both channels of every system.

  • Specifications held across −40 °C to +70 °C storage and 24/7 operation.

Why it matters

The advantage is not any one discipline. It is that they share a corridor.

An optical change that costs mass, a mechanical change that costs power, a firmware change that needs a different detector clock — all of those get resolved between colleagues instead of between contracts.

Integration & test

One complete system

Four disciplines resolved into a single documented product — optical performance, mechanical accuracy, electronics and software verified against one specification.

How the work is ordered

From requirement to accepted system.

Nine stages, all of them inside the company. The stages are not a marketing sequence: they are the order in which the work actually happens.
  1. 01

    Requirements and concept

    Range, resolution, envelope, power and environment are turned into a set of engineering targets that the optical, mechanical and electronic designs are all held against.

    • Optics
    • Electronics
    • Integration
  2. 02

    Engineering

    Physicists, mechanical engineers, electronics engineers and software engineers work the same specification at the same time, so an optical decision is costed in mechanics and power immediately.

    • Optics
    • Mechanics
    • Electronics
    • Firmware
  3. 03

    Optical, mechanical and electronic design

    Detailed design of the objectives and channel layout, the housings, barrels and pan-and-tilt mechanism, and the detector, video, drive and power electronics.

    • Optics
    • Mechanics
    • Electronics
  4. 04

    Prototyping

    Parts are made in the company's own workshops, which keeps the loop between a drawing and a physical part short enough to iterate on.

    • Mechanics
    • Electronics
  5. 05

    Manufacturing

    Optical components are ground, polished and centred; housings, barrels and mechanism parts are machined; electronic assemblies are built and inspected.

    • Optics
    • Mechanics
    • Electronics
  6. 06

    Assembly

    Optical channels are assembled and aligned, mechanisms are fitted and adjusted, and the sealed head is closed up to its ingress-protection rating.

    • Optics
    • Mechanics
  7. 07

    Firmware and system integration

    Detector correction, tracking, coordinate solving and the network control plane are brought up on the real hardware, and the channels are boresighted to each other.

    • Firmware
    • Integration
  8. 08

    Testing

    Optical performance is verified on the bench, and the assembled system is tested against the ranges, accuracies and environmental limits published in its datasheet.

    • Optics
    • Integration
  9. 09

    Delivered system

    A complete, documented product — not a set of parts handed to somebody else to integrate.

    • Integration

Start a project

Bring us a requirement, not a drawing package.

Tell us what the system has to do and in what envelope. We will tell you which parts we would design, which we would make, and where the real constraints are.