富士ソフト Product Lineup

In the telecommunications industry, the risk of decryption by quantum computers threatens the security of highly confidential data communications. Particularly in areas that require advanced security, such as financial transactions, sharing of confidential information, and communications within government agencies, it is essential to protect communication data from attacks by quantum computers. Quantum-resistant cryptographic IP cores provide a hardware-level security solution that uses algorithms selected by NIST and CNSA to protect data and hardware from quantum computer attacks. 【Use Cases】 - Highly confidential data communications - Communications in financial transactions - Communications within government agencies 【Benefits of Implementation】 - Protection from the risk of decryption by quantum computers - Achievement of advanced security - Maintenance of data confidentiality

In government agencies, advanced security measures are essential to protect national secrets and important information assets of the citizens. The development of quantum computers poses a threat to traditional encryption technologies, increasing the risk of information leakage. Therefore, solutions that can protect data from attacks by quantum computers and ensure security are in demand. 【Use Cases】 * Protection of confidential data in government agencies * Strengthening the security of critical infrastructure * Ensuring the confidentiality of communications 【Benefits of Implementation】 * Reduction of risks associated with decryption by quantum computers * Prevention of national losses due to information leakage * Establishment of a secure information communication environment

In the healthcare industry, protecting patients' confidential information and medical data is the top priority. The advancement of quantum computers threatens traditional encryption technologies, increasing the risk of unauthorized access and data breaches for these critical data. To protect patient privacy and maintain the reliability of healthcare institutions, the implementation of quantum-resistant encryption technology is essential. 【Use Cases】 * Electronic medical record systems * Telemedicine platforms * Data management in research institutions * Communication of medical devices 【Benefits of Implementation】 * Protection of data from attacks by quantum computers * Maintenance of patient data confidentiality * Strengthening the security of medical information systems * Compliance with regulations

In the smart grid industry, ensuring the stability and security of power supply is essential. Particularly, with the advancement of quantum computers, the risk of traditional encryption methods being compromised is increasing. This raises the possibility of unauthorized access to control data of power systems and customer information, which could have serious implications for the entire social infrastructure. Our "Post-Quantum Cryptography IP Core" utilizes algorithms selected by NIST and CNSA to protect data and hardware from quantum computer attacks, thereby supporting the secure operation of smart grids. 【Use Cases】 * Smart meters * Power control systems * Data communication in transmission networks 【Benefits of Implementation】 * Protection from attacks by quantum computers * Improved reliability of power systems * Maintenance of confidentiality for critical data

In the manufacturing supply chain, highly confidential information such as product design data, manufacturing process data, and customer information is handled. Since this data is shared throughout the supply chain, measures against the risk of decryption by quantum computers are essential. In the event of a data breach, it could lead to a decline in the company's competitiveness or issues related to damages. Our "Quantum-Resistant Cryptography IP Core" uses algorithms selected by NIST and CNSA to protect data and hardware from quantum computer attacks. 【Use Cases】 - Strengthening the security of data transmission and reception in the supply chain - Security measures in manufacturing equipment control systems - Information protection throughout the entire product lifecycle 【Benefits of Implementation】 - Improved security levels across the entire supply chain - Reduced risk of data breaches - Enhanced reliability of the company

In the satellite communication industry, the confidentiality of data and the security of communications are the top priorities. The advancement of quantum computers threatens current encryption technologies and increases the risk of data interception and tampering in satellite communications. This product provides a hardware-level security solution that uses algorithms selected by NIST and CNSA to protect data and hardware from quantum computer attacks. 【Use Cases】 * Satellite data communication * Communication with space stations * Military satellite communication 【Benefits of Implementation】 * Protection from attacks by quantum computers * Secure transmission and reception of confidential data * Assurance of long-term security

In the military field, the protection of confidential information and secure communication are essential. The advancement of quantum computers poses a threat to traditional encryption technologies, making the introduction of quantum-resistant cryptographic techniques an urgent necessity to prevent data leaks and unauthorized access. This product provides a hardware-level security solution that uses algorithms selected by NIST and CNSA to protect data and hardware from attacks by quantum computers. 【Use Cases】 - Encryption of highly confidential communications - Protection of important data - Strengthening the security of military systems 【Benefits of Implementation】 - Reduction of risks associated with decryption by quantum computers - Maintenance of data confidentiality - Improvement of system security levels

In the field of IoT device authentication, secure identification of devices and protection of data are essential. With the advancement of quantum computers, traditional encryption methods are under threat, increasing the security risks for IoT devices. This product uses algorithms selected by NIST and CNSA to protect devices and data from quantum computer attacks. 【Use Cases】 - Authentication of IoT devices - Secure data communication - Protection of firmware 【Benefits of Implementation】 - Prevention of device impersonation - Maintenance of data confidentiality - Assurance of long-term security

In online examinations at educational institutions, the confidentiality of exam data and the protection of candidates' privacy are essential. With the advancement of quantum computers, the risk of traditional encryption methods being compromised is increasing, making it urgent to implement measures to prevent unauthorized access to and tampering with exam results. Our quantum-resistant cryptographic IP core adopts algorithms selected by NIST and CNSA, protecting exam data and hardware from attacks by quantum computers. 【Use Cases】 - Online exam platforms - Encryption and decryption of exam data - Measures against unauthorized access 【Benefits of Implementation】 - Secure protection of exam data - Deterrence of cheating - Establishment of a reliable exam environment

In the retail industry's payment systems, highly confidential data such as customers' credit card information and transaction histories are handled. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of payment data leaks and fraudulent use. Therefore, the introduction of quantum-resistant cryptographic technology is essential to achieve secure payment processing. 【Use Cases】 * Online payment systems * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensures the safety of payment data * Increases customer trust * Reduces the risk of damage from unauthorized access

In e-commerce sites, highly confidential information such as customers' credit card information and transaction data is handled. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of information leaks and unauthorized use. To achieve secure transactions, the introduction of quantum-resistant cryptography is essential. 【Usage Scenarios】 * Online payment systems * Mobile payment apps 【Benefits of Implementation】 * Ensuring the safety of payment data * Increasing customer trust * Reducing the risk of damage from unauthorized access

In POS systems, highly confidential data such as customers' credit card information and transaction histories are handled. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of authentication information leakage and misuse. Therefore, the introduction of quantum-resistant cryptographic technology is essential to achieve secure authentication processing. 【Usage Scenarios】 * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensures the safety of payment data * Enhances customer trust * Reduces the risk of damage from unauthorized access

In the credit card industry, highly confidential data such as customer credit card information and transaction history is handled. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of payment data leaks and fraudulent use. Therefore, the introduction of quantum-resistant cryptographic technology is essential to ensure secure payment processing. 【Use Cases】 * Online payment systems * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensuring the safety of payment data * Enhancing customer trust * Reducing the risk of damage from unauthorized access

In the banking industry, ensuring the security of remittance data is the most important issue. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, heightening the danger of remittance data leakage and misuse. Tampering with remittance data can lead to a loss of trust from customers and potentially cause significant damage. Our quantum-resistant cryptographic IP core enables secure remittance processing, protecting your assets and trust from these risks. 【Use Cases】 * Online remittance systems * ATM networks * Mobile banking apps 【Benefits of Implementation】 * Ensures the security of remittance data * Enhances customer trust * Reduces the risk of damage from unauthorized access

In cryptocurrency exchanges, the most important challenge is to manage customer assets securely. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of unauthorized asset outflows. To achieve secure asset management, the introduction of quantum-resistant cryptographic technology is essential. 【Usage Scenarios】 * Cryptocurrency wallets * Trading platforms * Cold wallets 【Effects of Implementation】 * Ensuring the safety of customer assets * Enhancing the reliability of the exchange * Reducing the risk of asset loss due to unauthorized access

In the electronic money industry, the most important challenge is to securely protect customers' payment information. With the advancement of quantum computers, the risk of traditional encryption methods being compromised has increased, leading to potential damages from fraudulent use and a loss of trust from customers. To achieve secure payment processing, the introduction of quantum-resistant cryptography technology is essential. 【Usage Scenarios】 * Online payment systems * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensuring the security of payment data * Enhancing reliability from customers * Reducing the risk of damage from unauthorized access

In the mobile payment industry, it is essential to securely protect highly confidential data such as customers' credit card information and transaction history. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of payment data leaks and fraudulent use. To achieve secure mobile payments, the implementation of quantum-resistant cryptographic technology is crucial. 【Usage Scenarios】 * Online payment systems * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensuring the safety of payment data * Increasing customer trust * Reducing the risk of damage from unauthorized access

In the vending machine industry, ensuring the security of payment data in remote management systems is crucial. In particular, it is necessary to prevent information leaks due to unauthorized access from remote locations and the tampering of payment data. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, making the adoption of quantum-resistant cryptographic technology essential for achieving secure payment processing. 【Usage Scenarios】 * Online payment systems * POS systems * Mobile payment apps 【Benefits of Implementation】 * Ensures the safety of payment data * Increases customer trust * Reduces the risk of damage from unauthorized access

In the ticket sales industry, fraudulent use of counterfeit tickets has become a significant issue. With the advent of quantum computers, the risk of traditional encryption technologies being compromised has increased, threatening the security of tickets. Therefore, the introduction of quantum-resistant cryptographic technology is essential to achieve secure ticket issuance and management. 【Use Cases】 * Electronic ticket systems * Entrance gate systems * Ticket sales platforms 【Benefits of Implementation】 * Prevention of ticket counterfeiting * Increased trust from customers * Reduction of loss risk due to fraudulent use

In a points system, highly confidential data such as customers' personal information and points history is handled. With the advent of quantum computers, the risk of traditional encryption methods being broken is increasing, raising the danger of data leaks and unauthorized use. Therefore, the introduction of quantum-resistant cryptographic technology is essential to achieve secure data protection. 【Usage Scenarios】 * Online points systems * POS systems * Mobile points apps 【Benefits of Implementation】 * Ensures data security * Increases customer trust * Reduces the risk of damage from unauthorized access

In the supply chain industry, robust security is required to prevent data tampering and leakage in product tracking assurance. In particular, highly confidential data such as product movement history and quality information are exposed to risks of unauthorized access and decryption by quantum computers. By implementing quantum-resistant cryptography, the safety of data across the entire supply chain can be ensured, achieving reliable tracking assurance. 【Use Cases】 * Product tracking systems * Supply chain management systems * Quality management systems 【Benefits of Implementation】 * Prevention of data tampering * Improved traceability * Increased reliability from customers

In medical information systems, patient information is highly confidential data, and its leakage can not only violate patient privacy but also significantly undermine the trust in medical institutions. With the advent of quantum computers, the risk of traditional encryption methods being compromised has increased, raising the danger of patient information leakage and misuse. Therefore, the introduction of quantum-resistant cryptographic technology is essential to achieve secure patient information protection. 【Use Cases】 * Electronic medical record systems * Online consultation systems * Patient portal websites 【Benefits of Implementation】 * Ensures the safety of patient information * Enhances the reliability of medical institutions * Reduces the risk of information leakage due to unauthorized access

The D16950 is a soft core universal asynchronous receiver/transmitter (UART) that is functionally the same as the OX16C950. It supports serial transmission in two modes: UART and FIFO. In FIFO mode, an internal FIFO is activated, storing 128 bytes (up to 512) in both the receive and transmit directions (with 3 bits of error data per byte in the RCVR FIFO). Additionally, it features a programmable 16-bit baud generator that can divide the timing reference clock input by a divisor ranging from 1 to (2^16-1). 【Specifications (partial)】 ■ Software compatible with 16450, 16550, 16650, 16750, and 16950 UARTs ■ Configuration features ■ Isolated configurable BAUD clock line ■ Majority logic ■ Supports RS232 and RS485 *For more details, please download the PDF (English version) or feel free to contact us.

The "D16750" is a soft core universal asynchronous receiver/transmitter (UART) that is functionally the same as the TL16C750. It supports serial transmission in two modes: UART and FIFO. In FIFO mode, the transmitter and receiver are buffered with 64 (up to 512) bytes of FIFO each, reducing the number of interrupts to the CPU. In UART mode, the receiver and transmitter are double-buffered to eliminate the need for precise synchronization between the CPU and serial data. 【Specifications (partial)】 ■ Software compatible with 16450, 16550, and 16750 UARTs ■ Configuration features ■ Isolated configurable BAUD clock line ■ Majority logic ■ Supports RS232 and RS485 *For more details, please download the PDF (English version) or feel free to contact us.

The "D16450" is a soft core universal asynchronous receiver/transmitter (UART) that is functionally the same as the TL16C450. It also includes a programmable 16-bit baud generator, which can divide the timing reference clock input by a divisor ranging from 1 to (2^16-1). Supported devices/OS include Intel FPGA, Lattice FPGA, Xilinx FPGA, and ASIC. 【Specifications (partial)】 ■ Software compatible with 16450 UART ■ Configuration features ■ Isolated configurable BAUD clock line ■ Majority logic ■ Addition or removal of standard asynchronous communication bits (start, stop, parity) to serial data *For more details, please download the PDF (English version) or feel free to contact us.

"DUART" is a soft core of a Universal Asynchronous Receiver/Transmitter (UART). It enables serial transmission in UART mode and is a very simple and small UART IP core available on the market. Additionally, it features a programmable 16-bit baud rate generator that can divide the timing reference clock input by a divisor ranging from 1 to (2^16-1). 【Specifications (partial)】 ■ Majority logic ■ Addition or removal of standard asynchronous communication bits (start, stop, parity) to serial data ■ Supports UART mode ■ Independently controlled transmission, reception, line status, and data set interrupts *For more details, please download the PDF (English version) or feel free to contact us.

The "DI3CM" is an HCI controller that complies with the MIPI I3C Basic v1.1.1 specification and the Host Controller Interface v1.1 specification. I3C (Improved Inter-Integrated Circuit) is a bus that succeeds the I2C bus. I3C significantly improves usage, power, and performance while maintaining the assets inherited from I2C. The core uses two pins and has minimal power consumption, reducing cost and complexity while allowing easy interfacing with multiple sensors from various vendors to the controller or application processor. 【Specifications (partial)】 ■ Compliant with MIPI I3C Basic v1.1.1 specification and Host Controller Interface v1.1 specification ■ MIPI Manufacturer ID: 0x03B3 ■ Supports static and dynamic addresses for I2C devices ■ Support for Dynamic Address Assignment (DAA) *For more details, please download the PDF (English version) or feel free to contact us.

The "D32PRO" is an IP core for a 32-bit microcontroller based on the Harvard architecture. It supports dual and multi-core systems, making it suitable for embedded systems that require higher computational performance and system complexity by improving code density. It comes with various peripheral interfaces such as USB, SPI, LCD, HDLC, UART, Ethernet MAC, CAN, LIN, and RTC, allowing for easy system construction. 【Specifications (partial)】 ■ 32-bit Harvard architecture ■ Maximum performance of 1.52/2.67 DMIPS/MHz and 2.59 CoreMarks/MHz ■ Minimum ASIC gate area of 10.6k/6.8k ■ 15 32-bit general-purpose registers ■ ASIC silicon-proven architecture *For more details, please download the PDF (English version) or feel free to contact us.

The DQ80251 is an IP core for a 16-bit/32-bit embedded microcontroller that is 100% binary compatible with the 16-bit 80C251 and the 8-bit 80C51 microcontrollers. It features a built-in DoCD-JTAG on-chip debugger and supports debugging software from Keil DK251 and DoCD. The Dhrystone 2.1 benchmark program runs at 75 times the speed of the original 80C51 and 6 times the speed of the original 80C251 under the same frequency conditions. Furthermore, due to its high instruction efficiency, the size of the code compiled for SOURCE mode is approximately half that of the equivalent standard 8051 code. 【Specifications (partial)】 ■ 100% binary compatible with 80C251 ■ Implements BINARY and SOURCE modes ■ Most instructions execute in 1 clock cycle ■ Quad pipeline architecture allows operation at the same frequency, 75 times faster than the original 80C51 and 6 times faster than the 80C251 *For more details, please download the PDF (English version) or feel free to contact us.

The "DQ8051CPU" is an IP core for a single-chip 8-bit embedded microcontroller designed to operate with both high-speed (on-chip) and low-speed (off-chip) memory. It is 100% binary compatible with the 8051 8-bit microcontroller and is specifically designed with a focus on performance-to-power consumption ratio, featuring an advanced Power Management Unit (PMU). Additionally, it includes a built-in DoCD-JTAG on-chip debugger and supports the Keil μVision development platform as well as standalone DoCD debugging software. 【Specifications (partial)】 ■ 100% compatibility with 8051 ■ Capable of executing 28.40 times faster than the original 80C51 at the same frequency due to a quad-pipeline architecture ■ Up to 26.721 VAX MIPS at 100MHz ■ 24 times faster multiplication ■ 12 times faster division *For more details, please download the PDF (English version) or feel free to contact us.

"DoCD" is a complete debugging system for the DCD DQ80251/DQ8051/DT8051/DP8051x/DP80390x microcontroller cores. It offers several features, including real-time non-intrusive debugging capabilities, enabling pre-silicon validation, post-silicon, and on-chip software debugging. This allows for hardware breakpoints, tracing, variable monitoring, and multi-C source debugging. 【Key Blocks】 ■ Debugging features of the IP core ■ Hardware debugger ■ Debugging software *For more details, please download the PDF (English version) or feel free to contact us.

In the telecommunications industry, the demand for increased data volume and real-time processing is rising, making high-speed data processing capabilities essential. Particularly in next-generation communication systems such as 5G and 6G, high-speed signal processing using FPGAs becomes a crucial factor that influences system performance. FPGA/board contract development is proposed as a one-stop solution that includes not only logical design such as RTL design but also software development and custom implementation for board development. 【Use Cases】 - 5G/6G base stations - High-speed network equipment - Data centers 【Benefits of Implementation】 - High-speed data processing - Real-time processing realization - Overall system performance improvement

In the field of medical imaging, high resolution, real-time processing, and low latency are required. In particular, fast and accurate image processing is essential to improve diagnostic accuracy. FPGAs are the optimal solution to meet these demands. Our FPGA/board contract development provides one-stop support from RTL design to board development and software development, assisting in the development of medical imaging systems. 【Application Scenarios】 - Endoscopic image processing - X-ray image processing - MRI image processing - Ultrasound image processing - Ophthalmic image processing 【Benefits of Implementation】 - Reduced diagnosis time through high-speed image processing - Improved diagnostic accuracy through high-resolution image processing - Surgical support through real-time image processing - Enhanced operability through low-latency processing

In the development of autonomous driving systems, advanced computational processing capabilities and real-time performance are required. FPGAs are a key technological element to meet these demands. In particular, the flexibility and parallel processing capabilities of FPGAs are essential for high-speed processing of sensor data and the implementation of complex algorithms. Our company leverages its extensive knowledge in FPGA-based hardware design to support our customers in solving challenges in autonomous driving system development. We offer a one-stop solution from logical design such as RTL design to software development, board development, and custom implementation. 【Application Scenarios】 - Processing of sensor data from LiDAR, cameras, and radar - Development of Electronic Control Units (ECUs) - Implementation of autonomous driving algorithms - Prototyping of in-vehicle systems 【Benefits of Implementation】 - Achieving safer autonomous driving through high-performance computational processing - Shortening development time and reducing costs - Adaptation to the latest FPGA technologies - Improved flexibility of the system

In the aerospace industry, data analysis requires real-time capabilities and high-precision processing power. Particularly in the analysis of flight data and sensor data, it is crucial to process vast amounts of data quickly and obtain accurate results. FPGAs contribute to the acceleration of data analysis due to their high parallel processing capabilities. Our FPGA/board contract development supports solving challenges in data analysis within the aerospace field. 【Use Cases】 - Flight data analysis - Sensor data processing - Real-time data analysis 【Benefits of Implementation】 - Acceleration of data analysis - Improvement of real-time capabilities - High-precision data processing

In the field of defense signal processing, advanced data processing capabilities and real-time performance are required. Particularly in radar systems and communication systems, high-speed signal processing is essential, making the use of FPGAs important. FPGAs allow for custom designs and can build hardware optimized for specific signal processing algorithms. Our FPGA/board contract development service provides a one-stop solution from RTL design to board development and software development to meet these demands. We also address semiconductor supply shortages and provide optimal FPGA solutions. 【Application Scenarios】 - Radar systems - Communication systems - Image processing systems - Data collection systems - Electronic warfare systems 【Benefits of Implementation】 - Realization of high-speed signal processing - Miniaturization and lightweight of systems - High reliability and durability - Optimization through customization - Assurance of long-term stable supply

In the industrial equipment industry, advanced control and real-time processing are required. Particularly in the automation of manufacturing lines and robot control, fast data processing and high reliability are essential. FPGAs are the optimal solution to meet these demands. Our FPGA/board contract development service provides a one-stop solution from RTL design to board development and software development, contributing to the performance enhancement of our customers' industrial equipment. 【Application Scenarios】 - Control systems for manufacturing lines - Robot control - Image processing systems - Measurement instruments - Communication devices 【Benefits of Implementation】 - Real-time control achieved through fast data processing - High reliability and stability - Miniaturization and energy efficiency of systems - Optimal system construction through customization - Response to semiconductor supply shortages

In the broadcasting and video transmission industry, there is a demand for the real-time transmission of high-quality video. Particularly with the spread of high-resolution video such as 4K/8K, high-speed processing and stable transmission of video data have become crucial. FPGAs provide the flexibility and high processing power needed to meet these demands. Our FPGA/board contract development services offer optimal solutions tailored to our customers' needs in the development of video transmission systems. 【Use Cases】 - Video encoders/decoders - Video switchers - Video transmission devices - Broadcasting equipment 【Benefits of Implementation】 - Achieving high-quality video transmission - Reducing latency through real-time processing - Improving system flexibility and scalability

In the financial industry, the speed of transactions is a crucial factor that determines competitive advantage. Delays measured in milliseconds can lead to significant losses. FPGAs contribute to the acceleration of trading systems due to their high processing power and flexibility. Our FPGA/board contract development services are essential for minimizing latency in trading systems of financial institutions and improving transaction processing speed. 【Usage Scenarios】 - High-frequency trading platforms - Market data processing - Risk management systems 【Benefits of Implementation】 - Improved transaction speed - Enhanced overall system performance - Strengthened competitiveness

In the energy industry, particularly in power control systems, the reliability and real-time performance of the system are the most critical issues. For stable power supply, high-speed data processing and accurate control are essential, and FPGAs are the optimal choice to meet these requirements. FPGA/board contract development provides a one-stop solution from logical design such as RTL design to board development and software development, contributing to the reduction of development time and improvement of performance in power control systems. 【Application Scenarios】 - Smart Grid - Renewable Energy Control - Power System Protection - Power Quality Monitoring 【Benefits of Implementation】 - Increased system speed - Improved real-time performance - Stabilization of power supply - Reduction of development costs

In the robotics industry, precise motion control of robots is required. Particularly in fields where real-time performance and high reliability are demanded, high-speed processing capabilities using FPGAs and optimization at the board level are crucial. Improper control can lead to malfunctions or performance degradation of the robot. Our FPGA/board contract development offers a one-stop solution from RTL design to board development and software development, providing strong support for your robot development. 【Application Scenarios】 - Precision control of robotic arms - Motion control of autonomous robots - High-speed processing for industrial robots 【Benefits of Implementation】 - Improved motion performance of robots - Reduced development time - Cost savings

In the security industry, the implementation of advanced encryption technologies is required. In particular, high-speed and secure encryption processing is essential to reduce the risk of information leakage and achieve secure data communication. FPGAs are ideal for hardware implementation of encryption algorithms due to their flexibility and high processing capability. Our FPGA/board contract development services provide custom solutions tailored to our customers' needs, contributing to the enhancement of security systems. 【Use Cases】 - Secure communication systems - Encryption acceleration - Data protection 【Benefits of Implementation】 - High-speed encryption processing - Achievement of high security levels - Optimization through customization

In the measurement industry, data collection requires fast and accurate data acquisition. Particularly in fields where real-time performance is demanded, the processing capability of FPGAs becomes crucial. FPGA/board contract development provides a one-stop solution from RTL design and other logical designs to board development and software development, offering custom solutions tailored to customer needs. This enables improvements in the performance of data collection systems and shortens development periods. 【Usage Scenarios】 - Data collection from various sensors - High-speed data logging - Real-time data processing 【Benefits of Implementation】 - Improved real-time performance through high-speed data processing - Optimal system construction through custom design - Enhanced development efficiency through one-stop solutions

In the field of ADAS (Advanced Driver Assistance Systems), real-time processing capability and high reliability are required. In particular, high-speed processing of sensor data and ensuring safety are crucial. FPGA is one of the optimal choices to meet these demands. Our company supports customers in solving challenges in ADAS development by providing extensive knowledge in FPGA-based hardware design and a one-stop solution that includes software development and board development. 【Application Scenarios】 - Prototype development of ADAS systems - Implementation of various sensor interfaces - Image processing, radar signal processing - ECU development 【Benefits of Implementation】 - Shortened development time - Realization of high-performance ADAS systems - Cost reduction - Ensured high reliability

In the aerospace industry, control systems require high reliability and safety. FPGAs are ideal for control systems that demand real-time processing and high reliability. Our FPGA/board contract development service provides a one-stop solution from RTL design and other logical designs to board development and software development, offering custom solutions tailored to our customers' needs. With extensive knowledge in hardware design centered around FPGAs, we can accommodate a wide range of FPGA development from small to large scale. We have formed alliances with various chip vendors, enabling us to support not only major FPGA vendors but also new FPGA vendors that have gained attention due to the recent semiconductor supply shortages. 【Use Cases】 - Aircraft flight control systems - Satellite-mounted data processing systems - Rocket attitude control systems 【Benefits of Implementation】 - Improved system reliability - Reduced development time - Cost savings