This Control Actuation System (CAS) is a guidance system for unmanned flying objects. It consists of three MPS fin actuators that each independently position an aerodynamic fin. The maximum angle of incidence is ±8°, which allows the device to carry out highly precise dynamic manoeuvres. The miniature fin actuators that make up this Control Actuation System are manufactured by MPS Microsystems and were designed based on customer specifications. Designed to guide a very small object and disposing of an extremely limited space, these fin actuators meet strict requirements in terms of performance, weight - less than 100 g - and dimensions. To reduce the length of this actuator, MPS Microsystems used part of the screw length as the motor axis. This screw is equipped with a very compact 4-point contact bearing that simultaneously absorbs axial and radial loads. The angular play on the aileron axis is less than 0.1° rms. This actuator meets the storage and vibration requirements of military equipment.

Investigate the smallest of features with spatial resolution down to 600 nm – A state-of-the-art nano-focus x-ray source, precision stages, and high-quality detectors work together to deliver sub-micron resolution imaging. Perform true 4D imaging with Dynamic CT – High temporal resolution, continuous and uninterrupted scanning, and specialized 4D software tools bring synchrotron-like capabilities to the lab. Implement 3D in situ experiments – continuous sample rotation and scanning enable uninterrupted in situ experiments. Dedicated “no-cable-wrap” interfaces simplify experiment set-up. Accommodate a broad range of samples – UniTOM HR’s high power source (50W), multiple detector options (up to 3) and heavy load stage (45 kg) accommodates samples up to 500 mm diameter X 700 mm high. Maximize system utilization and throughput – A fast frame rate detector and a high flux x-ray source combine for high temporal resolution tomography giving you the ability to scan more samples and accommodate more users.

The RFcore Radar series are FMCW type radar and were developed to detect/track small air targets. The major difference between three models is detection performance. RX32B is fundamental model. RX128B have four times larger radar than RX32B. RX192A have six times larger radar then RX32B. The number of the product name means the number of antenna elements. All have compact and lightweight physical architecture that concentrates all the components required for radar, such as antenna, RF components and radar signal processor, in a small single housing. Transport can be carried in the carrier box and can be easily carried by one person. For installation, you can use a commercially available camera tripod. The weight is about 7.5kg (RX32B) and 15.9kg (RX128B), and the lower connection part is compatible with the tripod connection for the camera. Power supply requires 12VDC (RX32B) and 24VDC power (RX128B and RX192A). When using a battery, it is possible to connect a 12V battery or 24V battery to radars. Usage time may vary depending on the battery capacity. RFCORE recommended the constant power supply. Transfer of Status and BIT information and simple control of the RX32B, RX128B and RX192A are possible with a web browser using the Ethernet connection for authorized users. Using the terminal program provided with the radar, you can view the radar control and detected target information in real time. All RX Radar series’ Power Amp and Core Chip were designed using RFcore's own products.

Global Wideband Connectivity for Mission Success Honeywell’s JetWave MCX satellite communications system delivers the world’s most advanced high-speed SATCOM capabilities needed for the most demanding mission profiles. It enables global in-flight broadband data connectivity on nearly any Ka-band network – including Inmarsat’s Global Xpress (GX) network, Wideband Global SATCOM (WGS), and other commercial and military Ka-band networks – making it truly network-agnostic for the most extensive global coverage. Built on proven, high-speed JetWave technology, JetWave MCX utilizes a wider frequency band (29-31 GHz Tx and 19.2-21.2 GHz Rx), offering access to commercial and military Ka-bands globally. And the dual polarity configuration provides increased bandwidth in high-traffic areas while meeting high-data uplink requirements that military and government operators require. JetWave MCX is designed with “future-proofing” in mind, exceeding current connectivity requirements while enabling expanded customer connectivity needs in the future. For the unique requirements of military and government operators, JetWave MCX can enable a wide variety of mission-critical applications, such as en-route mission communications, real-time weather, in-flight video conferencing, large file transfer, in-flight mission planning and briefings, ISR video transmission, and secure communications. We offer specialized data packages for ISR missions, making use of the increased upload speed capabilities. Single-IP address network-switching capabilities enable seamless connectivity for users globally, while access to resilient modem waveforms offers additional security and jam-resistance in hostile environments. JetWave MCX’s high-bandwidth capabilities can transform the aircraft into an “airborne communications node” by receiving data simultaneously from multiple sources – such as UAVs or ground forces – then processing and amalgamating the data for airborne Command and Control or for transmission to ground control. No matter the mission profile, JetWave MCX offers the resiliency, bandwidth, and network-agnostic capabilities needed to enable mission success.

Developed and manufactured by MPS Microsystems based on customer specifications, this lens actuator forms an essential component of a laser guidance system for unmanned flying objects. It enables 2 lens groups to be displaced individually over a total range of 48 mm and makes it possible to focus a laser over a distance of several kilometres. The main technical difficulty inherent to this actuator lies in meeting very stringent requirements for alignment between the two lens groups (< 10 µm) and in maintaining a very small tilt of the lenses over their entire stroke (lateral deviation < 2 µm). The key part making it possible to ensure such specifications is a frame machined by milling from an aluminium block, into which the 2 drive systems are fastened. These systems each consist of a Ø16 mm brushless motor and a Ø4 mm ball screw with an axial play of less than 5 µm. Backlash-free and frictionless sliding of the lens holders is ensured by standard L306 linear ball bearings manufactured by MPS Microsystems.

SAR Radar Antenna Assembly Module Telecommunication Radar Antenna Assembly Module

BAE Systems' ground-launched APKWS® laser-guided rocket provides precision strike capabilities on the move. The hardware is compatible with existing turret r...

A sleeve in military or aerospace applications is a protective covering used for wiring harnesses and cables