The high-bandwidth isolation amplifier developed by Startorus Fusion is designed for high-speed analog signal isolation. It supports ±2.5 V input, with a bandwidth ranging from DC to 50 MHz and an isolation voltage of 1500 VDC. It features 8 independent and mutually isolated channels. With a 1 MΩ input impedance, errors caused by the internal resistance of signal sources can be reduced. It also incorporates noise suppression measures to minimize system noise impact. The isolation amplifier is housed in a compact and portable aluminum alloy casing, making it easy to operate and use.

The general isolation amplifier developed by Startorus Fusion is designed for analog signal isolation. The isolation amplifier supports ±10 V input, with a bandwidth ranging from DC to 200 kHz and an isolation voltage of up to 3000 VDC. It offers multiple gain settings such as ×1, ×5, ×10, equivalent to an input range of ±1 V to ±10 V, eliminating the need for external attenuators or gain stages. With a 1 MΩ input impedance, errors caused by the internal resistance of signal sources can be reduced. It also features an internal low-pass filter to suppress signal noise. The output load capacity can reach 250 mA, ensuring reliability and signal-to-noise ratio in long-distance signal transmission. Additionally, the isolation amplifier adopts a 2U panel lock form, providing flexible multi-channel expansion capabilities.

The analog integrator developed by Startorus Fusion is designed for monitoring magnetic fields and currents, where the output signal is the integral of the input signal over time. It features adjustable integration constants of 0.1/1/10/100 ms to meet the requirements of various application scenarios. Moreover, the analog integrator is equipped with automatic discharge functionality for the integration capacitor to prevent residual voltage from affecting the integration results. It also includes an automatic calibration feature to effectively reduce the impact of drift. The external signal triggering function facilitates automated testing for users. The integrator adopts a 2U panel lock form, providing flexible expansion and combination capabilities, offering high application flexibility.

Laser Induced Breakdown Spectroscopy (LIBS) is a technique that involves focusing ultrashort-pulse laser beams onto a material surface to generate a plasma. The material emits characteristic spectral lines by which the elemental composition of the sample can be identified. This technique can be used for material identification, classification, and quantitative analysis.

Ion Doppler Spectroscopy (IDS) is system an ion temperature diagnostic for fusion plasma that does not rely on beam injection. The characteristic spectral lines generated by the electronic transitions of specific ions in the plasma are subject to thermal motion broadening (Doppler broadening). By measuring the Doppler broadening and frequency shift of these ion characteristic spectral lines, ion temperature and flow velocity can be analyzed. Our IDS diagnostic and automated data analysis system can measure the temperature and flow velocity distribution of background plasma without beam injection, providing cm level spatial resolution and ms level temporal resolution.

Vacuum spark spectroscopy system involves placing detection electrodes inside a vacuum chamber and applying high-voltage pulses to generate electric sparks that ablate solid surfaces. By collecting and analyzing the plasma spectra, information on the compositional changes of the solid surface can be obtained, enabling in-situ real-time diagnosis of the vacuum chamber surface. This technology complements Laser Induced Breakdown Spectroscopy (LIBS). Compared to LIBS, it offers advantages such as lightweight equipment, not limited by viewing angles, and not affected by window transmittance.

Our Electrostatic Probe Controller is for Langmuir probe diagnostics in fusion plasma. The Electrostatic Probe Controller can provide a bias excitation of up to ±200 V and 4 A. The Electrostatic Probe Controller is equipped with an Arbitrary Waveform Generator, which allows users to set the form, frequency, offset, and amplitude of the excitation signal as needed. The Electrostatic Probe Controller can complete isolated detection of probe voltage and current signals.

The Extreme Physics Instrument for Comprehensive Measurement (EPIC), developed by Startorus Fusion, serves as a precise multi-physics monitoring system for high-temperature superconducting magnets and as a versatile measurement tool for various physical fields in fusion and other physics experiments. The system features a compact 2U chassis equipped with hot-swappable, high-precision acquisition cards capable of real-time monitoring of multiple experimental signals, including temperature, magnetic field, voltage, current, and stress. Its modular design supports flexible configurations, offering a range of subcards tailored to specific experimental needs, such as temperature, voltage, current, magnetic field, and stress measurement. Leveraging FPGA-based hardware-synchronized acquisition technology, EPIC ensures parallel data collection of physical parameters with microsecond-level time synchronization. It supports a master-slave operation mode, enabling multiple units to work collabora

The CoaxLink Nano is a compact, high-speed, precision-synchronized data acquisition device designed to convert analog signals into Ethernet data streams. It combines inherent isolation, high sampling rates, high conversion accuracy, precise synchronization, simplified connectivity, a compact size, robust network communication, and strong expandability and management capabilities. This highly integrated, flexible, and reliable signal acquisition solution is tailored for applications such as nuclear fusion plasma diagnostics, monitoring of fusion devices and high-temperature superconducting magnets, and industrial testing. Equipped with a core sampling rate of 2 MS/s and 16-bit resolution, the device can accurately capture fine details of rapidly changing voltage signals. Its Ethernet interface fully integrates the IEEE-1588 Precision Time Protocol (PTP), enabling multiple devices in distributed systems to achieve microsecond- or even nanosecond-level time synchronization, thus forming a fully synchronized measurement network. Users can flexibly initiate acquisition via precision time-synchronized triggering, making it ideal for complex experimental and industrial environments (with the CoaxLink Pro offering enhanced nanosecond-precision hardware triggering, supporting optocoupler isolation, wireless commands, and isolated 485 commands).The device supports multiple acquisition modes (real-time streaming / fixed-length mode) and data transmission modes (continuous streaming / burst mode), all configurable via software to intelligently adapt to different network conditions and testing requirements. This configurability ensures data integrity while maximizing transmission efficiency. Acquired data can be streamed in real time to a host computer via UDP for monitoring and analysis, or temporarily stored in the local buffer to prevent data loss.

This product utilizes a supercapacitor module for energy storage, integrating a power conversion unit, a storage unit, and a controller. It boasts significant advantages such as compact size and high power density. The product supports both offline LCD screen control and online remote control modes. Online communication is compatible with multiple industrial communication protocols, including RS485, Ethernet, and EtherCAT. Additionally, the product can serve as a basic unit for flexible series and parallel expansion. The output voltage can reach up to ±3kV, with no restrictions on the output current. With its modular architecture, the system can be easily expanded based on actual application requirements, ensuring efficient operation and maintenance.