Military actions today depend on effective use of the electromagnetic spectrum to surveil and assess the battlespace, to protect friendly forces and equipment, and to attack the enemy. That is today's Electronic Warfare (EW), and maintaining a technological advantage across the electromagnetic spectrum can mean the difference between whether or not you complete your missions and bring your forces home.

The First & Only Autonomous AI Pilot Deployed Since 2018

Similar to a human pilot, Hivemind reads and reacts to the battlefield, and does not require GPS, waypoints, or comms to make decisions. Hivemind enables intelligent teams to perform missions ranging from room clearance with Novas, penetrating air defense systems with V-BATs, to dogfighting F-16s.

Intelligent Teaming

Shield AI’s synthetic environments combined with human-machine tactics and behaviors. Testing and learning in real physics simulations reduces engineering cycle times and enables rapid real-world deployment. Welcome to the defense metaverse.

Edge Autonomy

The aircraft uses sensors to create a map or world-view, the computer then tells the aircraft or autopilot where to go and what to do to execute its mission. No GPS, no waypoints, and no comms are needed for aircraft to accomplish their missions.

It is a hybrid-powered(Engine + Generator) multicopter system that significantly overcomes the limitations of short flight times typically associated with battery-powered drones. It can carry up to 10 kg of mission equipment and perform operations for up to 2 hours, with the capability to autonomously land on moving vehicles and naval vessels. Its versatility is further enhanced through the development of various mission equipment, making it suitable for multipurpose applications.

Drone Hunter XD is a handheld anti-drone solution that can quickly detect, identify, and track drones, providing swift onsite responses to drone threats within a 360-degree range of over 2km. Drone Hunter XD effectively neutralizes the frequencies of either a single drone or multiple drones approaching the blind spots of a fixed-type jammer, due to its receiving real-time access to information on detected DJI Drones, including S/N, model number, frequency band, azimuth/altitude angle, speed, and location.

Large size - Shell size 15


The HXB15 Connectors, featuring expanded beam technology, hermaphroditic connection, rugged construction for field deployment and hybrid configurations, have been designed for harsh environment applications such as military tactical communications, avionics, offshore systems, outside broadcast, mining and plant.

The expanded beam technology uses expanded and collimated beams to couple optical fibers without any contact. It could allow for optics to be used in areas that have been quite restrictive due to presence of damage or contamination at the fiber end. Hermaphroditic connector design enables fast deployment by daisy-chaining multiple cable segments. HXB15 connectors also enable transfer of electrical signal or power using hybrid insert configuration.

FEATURES
·Advanced expanded beam technology
· Rugged field deployable fiber optic connector
· Hermaphroditic interconnection
· 2 to 10 Optical Channels for Singlemode or Multimode
· Optical / electrical hybrid variants
· Custom configurations available
· Environmental sealing (IPX8)
· Very high resistance to vibration, shock, environmental effects, dust, and debris

InspecX is a next-generation autonomous swarm inspection system for aircraft. It is addressing challenges in the $100B global aviation maintenance market. Airlines face a shortage of certified technicians, with Boeing projecting demand for over 700,000 by 2044. Aircraft-on-ground (AOG) incidents cost $10,000–$150,000 per hour, making downtime reduction critical. InspecX uses swarm coordination and LiDAR-based SLAM to perform safe inspections in GNSS-denied or indoor environments. It reduces required technicians from 9 to 3 and inspection time from 10 hours to 3, achieving over 50% cost savings for large aircraft. Beyond efficiency, InspecX helps airlines avoid AOG losses, accelerates maintenance cycles, and improves airworthiness. By maximizing fleet readiness and ensuring reliable operations, it provides a scalable, future-proof solution. InspecX is positioned to become the new global standard for aviation safety and maintenance in the era of intelligent mobility.

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.

This system product is a product that directly supplies and heats lubricant oil for smooth operation of the main engine cylinder’s metallic and mechanical movement. Lubricator, a product that supplies lubrication directly to the main engine cylinder liner, can control injection timing and consumption using an electronic control method that responds to the movement of the main engine piston. The alpha lubricator system is based on an algorithm controlling the cylinder oil dosage proportionally to the sulphur content in the fuel and, fuel consumption on particular load of engine. Minimum cylinder oil dosage is required to provide an adequate oil film and detergency properties. Everllence and WIN GD engines are currently applying the second generation Lubricator type, the Everllence type is Mk-I and the WIN GD type is Mk-ε (Epsilon).