DeTect specializes in advanced radar and other sensor technologies. The company is the leader in bird radar technologies for real-time aircraft bird strike avoidance, and industrial bird control with over 1100 of its MERLIN bird radars delivered to the US, Canada, Europe, Africa and Asia. DeTect’s MERLIN Bird Detection Radar (BDR) system, introduced in 2003, is the first production model bird strike radar system and is the most advanced and widely used technology available for aircraft-bird strike risk management providing for real-time detection, tracking and alerting of hazardous bird and drone activity at commercial airports, military airfields, and military training and bombing ranges. The bird radar is proven, operational technology with systems installed worldwide for aviation safety and environmental applications. The radar has a documented record in reducing bird strikes, increasing safety, and reducing aircraft damage at both military and commercial airfields MERLIN is also the only bird radar system to have been evaluated and certified for real-time, tactical flight safety use by the US government (NASA and the US Air Force) and is the only bird radar approved for and in use at a commercial airport control tower under national flight safety standards. The system is a full True3D™ radar and has the highest update rate of any BDR system (4+ times per second). MERLIN can optionally be delivered as a dual-function bird and drone detection radar (BDR-DDR), risk alerting and interdiction system. The counter-UAS DDR upgrade can be added to a MERLIN BDR at any time as an upgrade that includes the drone classification software and radiofrequency (RF) detectors to detect RF and WiFi controlled drones and locate their operators

Side shells, wing shells and fuselage structures are made of CFK, GFK, aluminium or organic sheets and get connected during production. Sealants are used to seal the connection surfaces. These are usually two-component polysulphides, which have to be applied in different geometries. Typical applications are: Fillet sealings, oversealings, interface sealings and seal caps. Due to their properties, polysulfides require very low pressure and shear handling. The compressibility of the fillers contained in the medium requires a high level of expertise and a coherent overall system from material removal to application. With manual application, long production times and high material ejection have a negative influence on the complete process. Complex quality standards are required due to the risk of human error. With the in-house developments of the vipro-DUOMIX from ViscoTec, this process can be depicted fully automatically. The individual nozzle design is also adapted to each application. The result is a controlled dosage in compliance with the specifications and at the same time the highest repeat accuracy.

ORSKOREA’s thread grinding machines are designed for high-precision machining of both internal and external threads, covering a wide range of thread profiles and dimensions. These machines are critical for producing aerospace fasteners, defense system parts, precision ball screws, and other components where accuracy and durability are vital. Key Advantages • CNC Control: 4-axis (SGTE) and 5-axis (SGTI) for complex thread profiles • High-rigidity structure minimizing vibration and thermal distortion • Built-in dressing and balancing units for consistent quality By shortening processes and improving efficiency, ORSKOREA’s thread grinders reduce costs while enabling high-value, high-accuracy production. They also serve as advanced domestic alternatives to imported machines, strengthening localization and export competitiveness.

It is an UAV recovery system that lands a fixed-wing UAV even in mountainous terrain where there is no sufficient runway for landing. The UAV is damping through a net mounted on the vehicle and lands on an air-cushion mat. It has the advantage of being easy to deploy in places where vehicles can enter and exit. But the type of the aircraft capable of stable landing is limited.

[Cutting by water jet] Micro water jet cutting: The micro water jet enables a refined process to be carried out in precision cutting. This high-precision technology reduces the jet diameter by a factor of 5 and makes water jet cutting more precise by a factor of 10. The micro water jet achieves a cutting accuracy of +/- 0.01 mm and a positioning accuracy of ±0.005 mm. The proven advantages of the cold cutting process remain unchanged. In the pure water process, the cutting width was reduced to 0.2 mm in the abrasive process for hard materials such as nickel-based alloys and titanium. The new technology controls the cutting process and manipulates the cutting path depending on the contour and speed enabling a highly precise cut. Standard waterjet cutting: Water jet cutting is highly efficient and at the same time less severe than other cutting techniques. Low process forces and thermal loads prevent bending or melting. We can cut filigree delicate contours from practically all nickel alloys and titanium alloys. Using our standard process we can cut a range of shapes and dimensions according to customer requirements and drawings and achieve tolerances of +/- 0.1 mm or +/- 0.2 mm.

We are recognized domestically and internationally for our technology and quality by supplying products manufactured based on our accumulated know-how and excellent technology to power generation equipment companies at home and abroad.

The NSP-8 is IMSAR’s most powerful radar. It is capable of advanced Synthetic Aperture Radar (SAR), Moving Target Indication (MTI), and Magnitude Change Detection (MCD). When paired with an airborne server, it can even produce SAR Motion Video (SMV). IMSAR adds value to its exceptional engineering with a production time much faster than industry standard. The NSP-8 is designed for durability and thoroughly tested with a Mean Time Before Failure (MTBF) of over 2,000 hours. Additionally, it’s weatherized for optimal performance over land and sea. With this sensor, IMSAR’s users can understand the bigger picture.

The KX2-2046 is an X-band high-power MMIC amplifier fabricated on the GaN-on-SiC process. It operates from 8.0 – 10.5 GHz and typically provides 20W saturated output power with power-added efficiency of 46%. The KX2-2046 can support military and commercial radar systems. It is matched to 50Ω with integrated DC blocking capacitors on both RF input and output ports. The KX2-2046 is 100% DC and RF tested on-wafer. It is available in chip form. **Key Features** - Frequency Range: 8.0-11.5GHz - Small Signal Gain: 26dB - High Pout: 20W - High PAE: 46% - DC bias: Vd=28V @Idq=0.3A - Pulsed Vg: PW=100µs, DC=10% - Chip size: 2.95x1.66x0.1mm