エンベデッドテクノロジー Product Lineup

The "MPC104-ISOADC16-P-V1" is a 16-bit isolated AD converter board for the PC104 bus, while the "MPC104-ISOADC16-U-V1" features a USB interface. It has 8 channels of AD input signals and also includes isolated input/output ports (8-bit input / 8-bit output). This is a successor to the MPC104-ISOADC16 and is backward compatible with the MPC104-ISOADC16-x-V1. It is RoHS compliant. The 12-bit version "MPC104-ISOADC12 ¥27,800 (excluding tax)" is also available and well-received! (For more details, please visit our website.)

• Embedded Board Computers
• converter

The MPC104-ISODAC16 is a 16-bit resolution, isolated DA converter board. It has 8 channels of analog output signals. It is RoHS compliant. ◆ Features The DAC control signals are isolated using optocouplers, and an isolated DC-DC converter is used for the analog power supply, ensuring isolation between analog and digital components. The DAC interface is serial (SPI/QSPI or MICROWIRE compatible), but it has been designed for ease of use with FPGA adoption, allowing control via memory access. The analog output section uses operational amplifiers, enabling adjustment of offset and gain. ○ The 12-bit version 'MPC104-ISODAC12 ¥35,800 (excluding tax)' is also available and well-received! (For more details, please visit our website.)

• converter

The MPC104-ISO32T-PW is a 32-bit optical isolated digital output board compatible with the PC/104 bus. The use of phototransistor isolation reduces malfunctions caused by external noise and power supply coupling, making it suitable for applications that require high reliability, such as factory automation equipment and industrial devices. The output section employs N-channel FET output, supporting high voltage and high current output of up to 30V and 3A. Additionally, the sink output configuration allows for control of inductive loads such as solenoids, relays, and small motors.

• Other FA equipment
• controller
• Expansion Boards

ADio is a high-performance USB measurement and control unit equipped with a 20-bit ADC × 16 channels, a 16-bit DAC × 8 channels, GPIO, PWM, and encoder counter functions. With FPGA-based high-speed processing and FTDI D2XX communication, it achieves high-speed, high-precision, and low-latency data acquisition. It can be easily controlled using ASCII commands from languages like Python, making it suitable for a wide range of applications from research and development to industrial equipment development. Additionally, it can accommodate customization and feature additions according to specific needs.

• Data Logger
• controller
• Other measurement, recording and measuring instruments

The I9603-IF-01 is an interface board developed with technical cooperation from the Japan Agency for Marine-Earth Science and Technology (JAMSTEC) specifically for the Iridium satellite communication terminal SBD9603N. It supports dual power input of DC 6V to 32V or DC 5V, allowing the signals from the SBD9603N to be connected to external devices via connectors. It is ideal for use in locations without established communication infrastructure, such as in space or at sea. ◆ Features ◎ Wide input voltage range of 6V to 32V and direct supply of 5V power (5V power takes priority when both power sources are supplied simultaneously) ◎ Compact size of 60mm x 45mm ◎ External power ON/OFF control is possible ◎ Converts the RF connector (u.FL) of the SBD9603N to an SMA connector ◎ Allows external access to the SBD9603N serial signals via connectors (supports 3-wire and D-Sub9) ◎ Implements overvoltage protection circuit for 5V input at 5.6V or higher ◎ Communication signals with the SBD9603N can be selected as either 3.3V logic signals or RS232C signals * The 'MPCIRI-2014' with built-in control functions is also available for sale! For more details, please visit our website.

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By using Iridium satellite communication, data collection and control can be performed in locations such as polar regions where public radio waves do not reach. You can choose to use either Raspberry Pi or ARDUINO-UNO. ◎ Equipped with battery charging function It charges excess power through the battery charging controller. ◎ Can charge the battery from the solar panel ◎ Equipped with GPS The GPS module uses the u-blox NEO-M8, which can simultaneously receive up to three GNSS (Galileo, GLONASS, BeiDou). Additionally, by using u-blox's application (u-center), you can configure settings such as GNSS selection, baud rate, and NMEA. * If using the application (u-center), a separate optional cable MPC-RASAR-GPS03100P: ¥1,500 is required. ◎ Equipped with RTC By using the RTC function, you can turn the power ON/OFF at alarm times, preventing unnecessary power consumption. ◎ Compliant with RoHS.

• antenna

The MPC-RAS-ST is an expansion board that converts the UART signals of the Raspberry Pi to RS232C driver receiver. Optionally, an isolated DC-DC converter with a 5V output and an input range of 9V to 36V can be added. By stacking it on top of the Raspberry Pi, it further connects the BUS signals to a higher level. It is RoHS compliant. ◆ Features - Converts the UART signals of the Raspberry Pi to RS232C levels. - Allows for the installation of additional expansion boards on the upper level through vertical connection connectors on the Raspberry Pi's bus connector. - Enables power input of 9V to 36V through the addition of power options. ◎ Board Size Same size as Raspberry Pi 3 MODEL-B and Raspberry Pi 2 MODEL-B ◎ Connection with Raspberry Pi Connects to the GPIO 40-pin expansion connector of the Raspberry Pi.

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In the telecommunications industry and the field of network monitoring, stable system operation and accurate data collection are required. In particular, external noise and ground level fluctuations can cause equipment malfunctions and electrical damage, which can undermine the reliability of monitoring systems. In response to these challenges, our isolated 16-input 16-output board for Raspberry Pi reduces electrical interference with external circuits through phototransistor isolation, achieving stable operation that is resistant to noise. This enables more reliable monitoring of network equipment status, signal input from various sensors, and output of control signals. 【Usage Scenarios】 - Monitoring the status of network equipment - Collecting and aggregating sensor data - Remote control of equipment - Recording log data 【Benefits of Implementation】 - Improved reliability of monitoring systems - Reduced risk of malfunctions and failures - Efficient data collection and management

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

In the aquaculture industry, water quality management requires the accurate acquisition of information from various sensors, such as water temperature, pH, and dissolved oxygen levels, to maintain a stable environment. Particularly, fluctuations in water quality directly affect the growth of farmed fish, making the reliable collection of sensor data and the rapid response of control systems when necessary crucial. External noise and ground level fluctuations can lead to misreading of sensor data and malfunctions in control systems, which can undermine the reliability of water quality management systems. Our product helps reduce the impact of these noises through phototransistor isolation, supporting the establishment of a stable water quality management system. 【Usage Scenarios】 - Collection of water quality sensor data at aquaculture farms - Construction of water quality monitoring systems - Integration with automatic feeding devices and water flow control devices - Data integration with remote monitoring systems 【Benefits of Implementation】 - Improved reliability of sensor data - Rapid response to water quality fluctuations - Stable operation of the entire system - Reduction of human errors and increased efficiency

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• Embedded Board Computers

In the food industry, quality control requires stability in the manufacturing process and accurate data collection. In particular, accurately understanding environmental factors such as temperature, humidity, and pressure, as well as the operating conditions of the production line, is essential for maintaining product quality and improving yield. External noise and fluctuations at the ground level can lead to misreading sensor data and equipment malfunctions, potentially reducing the accuracy of quality control. Our isolated 16-input 16-output board for Raspberry Pi mitigates the impact of these noises through optocoupler isolation, enabling reliable data collection and control. This supports the establishment of a rigorous quality control system in food manufacturing. 【Usage Scenarios】 - Monitoring the operating conditions of the production line - Collecting and recording sensor data - Controlling automated equipment - Building abnormality detection systems 【Benefits of Implementation】 - Improved accuracy of quality control - Stabilization of the manufacturing process - Reduction of human errors - Promotion of data-driven improvement activities

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

In logistics warehouses, accurate and stable data collection and control are required in various situations, such as shipment management, inventory management automation, and equipment condition monitoring. In particular, external noise and fluctuations at the ground level can lead to system malfunctions and equipment failures, making reliable operation essential. Our isolated 16-input 16-output board for Raspberry Pi reduces these risks through phototransistor isolation, supporting the construction of stable systems. 【Usage Scenarios】 - Detection of passage through shipping gates - Confirmation of inventory status during stocktaking - Control of transport robots - Data collection from temperature and humidity sensors - Control of automatic shutters and conveyors 【Benefits of Implementation】 - Improved work efficiency within the warehouse - Reduction of human errors - Visualization of equipment operating status - Quick decision-making based on real-time data

• Other FA equipment
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• Embedded Board Computers

In the field of research and development, experimental automation requires reliable signal exchange with external devices and a reduction in malfunctions caused by noise and ground level fluctuations. Particularly in precise experiments and long-duration automation processes, stable operation and electrical protection are essential. This product supports the construction of a reliable experimental automation system by preventing noise interference with external circuits through phototransistor isolation. 【Usage Scenarios】 - Construction of automatic measurement systems - Control of robotic arms - Collection and processing of sensor data - Automatic dispensing and control of reagents - Environmental monitoring devices 【Benefits of Implementation】 - Improved efficiency through automation of experiments - Reduction of human errors - Acquisition of highly reproducible experimental data - Prevention of malfunctions due to protection from external noise - Control of various devices through high-voltage output

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• Embedded Board Computers

In the building automation industry, the collection of information from numerous sensors and the control of equipment are required. Especially as the size of the building increases, the risks of malfunction due to noise interference and fluctuations in ground levels, as well as the risk of electrical damage, also rise. To address these challenges and achieve stable system operation, reliable insulation from external circuits is essential. Our isolated 16-input 16-output board for Raspberry Pi reduces these risks through phototransistor isolation, supporting the construction of a reliable building automation system. 【Usage Scenarios】 - Data collection from various sensors within the building (temperature, humidity, illumination, etc.) - Control of HVAC systems, lighting, elevators, etc. - Integration with security systems - Development of remote monitoring and control systems 【Benefits of Implementation】 - Reduction of malfunctions caused by noise and ground level fluctuations - Increased longevity of equipment due to reduced risk of electrical damage - Lower maintenance costs due to stable system operation - Improved development efficiency through flexible system integration with Raspberry Pi

• Other FA equipment
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• Embedded Board Computers

In the energy industry, particularly in the field of smart grids, the collection of information from numerous sensors and the reliable output of signals to control devices are essential. External noise and fluctuations at the ground level can lead to system malfunctions and equipment damage, making reliable insulation of input and output circuits crucial for stable operation. Our isolated 16-input 16-output board for Raspberry Pi reduces these risks through phototransistor isolation, supporting the construction of reliable systems. 【Use Cases】 - Monitoring systems for renewable energy power plants - Demand response control for power systems - Data collection from smart meters - Integrated management of distributed energy resources (DER) 【Benefits of Implementation】 - Reduction of malfunctions caused by noise and ground level fluctuations - Equipment protection by mitigating the risk of electrical destruction - Improved development efficiency through flexible system integration with Raspberry Pi - Compatibility with various control devices through high-voltage FET output

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• Expansion Boards
• Embedded Board Computers

In traffic signal control, stable operation is required to be resilient against noise from the external environment and power fluctuations. In particular, malfunctions and electrical damage are directly related to the safety of traffic systems, making high reliability essential. Our isolated 16-input 16-output board for Raspberry Pi reduces these risks through phototransistor isolation, achieving stable signal control. The collaboration with Raspberry Pi enables flexible and efficient system construction. 【Use Cases】 - Control of traffic lights at intersections - Switching signal patterns according to road conditions - Priority control for emergency vehicles 【Benefits of Implementation】 - Reduction of malfunctions due to noise and ground level fluctuations - Improved system reliability by mitigating the risk of electrical damage - Increased efficiency in system construction through easy integration with Raspberry Pi

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

In the medical field, especially in patient monitoring, it is essential to prevent malfunctions and electrical damage caused by external noise and ground level fluctuations, ensuring stable data acquisition and control at all times. To accurately understand the patient's condition and provide appropriate treatment, building a reliable system is indispensable. Our isolated 16-input 16-output board for Raspberry Pi reduces electrical interference from external circuits through optocoupler isolation, achieving stable operation in noise-resistant environments. This contributes to improving the reliability of patient monitoring systems. 【Use Cases】 - Real-time collection of vital signs - Data input from various sensors - Output control for alert systems - Data logging for research and development purposes 【Benefits of Implementation】 - Reduction of malfunctions due to noise - Improved reliability of patient data - Increased flexibility in system construction - Reduced risk of electrical damage

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

In manufacturing equipment monitoring, stable data acquisition and control are required, unaffected by external noise or ground level fluctuations. Particularly, ensuring reliable insulation of input and output circuits is crucial to prevent equipment malfunctions and electrical damage. Our isolated 16-input 16-output board for Raspberry Pi addresses these challenges through phototransistor isolation, supporting the construction of a reliable equipment monitoring system. 【Usage Scenarios】 - Data collection from various sensors within the factory - Monitoring the operational status of production line equipment - Anomaly detection and alert issuance - Remote confirmation of equipment status 【Benefits of Implementation】 - Reduction of malfunctions due to noise and ground level fluctuations - Protection of equipment by mitigating electrical damage risks - High-precision monitoring through stable data acquisition - Flexible system integration with Raspberry Pi

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

The output signal and input signal are isolated by a phot coupler, and the withstand voltage of the external power supply for output is a maximum of 36V. The communication protocol can be selected between I2C or SPI. The input signal is turned on/off by the current flowing through the phot coupler. ◆ Features Input Section ◎ Wide Input Voltage Range The voltage of the input signal can be specified as 5V, 12V, 24V, or 36V, which will be set at the time of shipment. Output Section ◎ High Voltage and High Output Current The output section covers a wide range of voltages from 5V to 36V using FETs. The power supply is provided externally. Common Section ◎ Isolation from External Sources The internal circuit is electrically isolated from the external circuit by the phot coupler, preventing malfunctions or electrical damage caused by abnormal voltages, noise, or ground level fluctuations from outside. ◎ Board Size Same size as Raspberry Pi 3 MODEL-B and Raspberry Pi 2 MODEL-B. ◎ Connection with Raspberry Pi Connect to the 40-pin (GPIO) of the Raspberry Pi and communicate via I2C or SPI. ◎ When connecting to the 40-pin connector of the Raspberry Pi, an MPC-RASST may be required as an intermediary board.

• Other FA equipment
• Expansion Boards
• Embedded Board Computers

◎Board size: 65mm x 56mm ◎Connection with Raspberry Pi: Connect to the 40-pin expansion connector of the Raspberry Pi and communicate via SPI.

• converter

The MPC-RASSIO4 is a serial communication expansion board developed for the Raspberry Pi. It allows for the addition of 4 channels of UART/RS232C serial communication via SPI/I2C interface with the Raspberry Pi. (RoHS compliant.) ◆ Features 〇 Connection with Raspberry Pi Connects to the 40-pin expansion connector of the Raspberry Pi and communicates via I2C or SPI. 〇 SPI Mode Supports SPI clock rate of up to 26MHz (max). SPI Mode 0 〇 I2C Mode Our product operates at a data transfer speed of 1MHz frequency (SCL). I2C slave mode supports 7-bit addressing. *The default data transfer speed for I2C on the Raspberry Pi is 100kHz. Please change the data transfer speed setting on the Raspberry Pi to 1MHz for use. 〇 Others ◎ Each channel is equipped with a 128-byte FIFO buffer (for both transmitter and receiver). Supports baud rates for serial communication up to 115200bps. ◎ Automatic hardware flow control using RTS/CTS is possible with configuration.

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At Embedded Technology Co., Ltd., we provide comprehensive support from electronic circuit design, FPGA design, embedded device development, to prototyping, evaluation, and small-lot manufacturing. We have a diverse range of development achievements, including measurement and control devices using ADC/DAC/DIO, industrial equipment, research and development devices, and custom electronic devices. You can consult with us even at stages such as "the specifications are not yet finalized," "I want to replace existing equipment," or "I want to manufacture in small lots." We are also involved in the electronic circuit development of space-related equipment.

• Other CAD related software

RoHS compliant Shape: Straight Pitch: 2.54mm

• Board to Board Connectors

The RAS64DIO is an expansion I/O board developed for the Raspberry Pi. The input and output signals are bidirectional buses, and can be set to input or output on a per-port basis via commands, totaling 64 bits for input and output. It is RoHS compliant. ◆ Features Input Section ◎ Input voltage range: 3.3V to 5V, CMOS logic signals All input signals can be selected as +5V pull-up or GND pull-down. (All ports are pull-up by default) Output Section ◎ Equipped with SN74HC574PWR Outputs a voltage of 5V and a current of 20mA (short circuit). Common Section ◎ Board size Same size as Raspberry Pi 3 MODEL-B and Raspberry Pi 2 MODEL-B ◎ Connection with Raspberry Pi Connects to the Raspberry Pi's expansion connector and communicates via I2C or SPI. ◎ When connecting to the Raspberry Pi's expansion connector, an intermediate board such as MPC-RASST may be required.

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◎ The DAC section adopts Analog Devices' AD7237. ◎ Space-saving board size of 90.1mm x 95.8mm. ◎ An operational amplifier (AD713 or OP482) is placed in the final stage of the analog output section. ◎ Equipped with a DC-DC converter, it can be used with a single 5V power supply. (The 4-20mA current source is supplied externally.) ◎ Can be connected to PC/104-CPU and our product MPCZ-16EX (Z80).

• converter

The MPC-RASAR-ADSENSOR is an expansion board for Raspberry Pi equipped with a 9-axis sensor for acceleration, angular velocity, and geomagnetism, a barometric pressure and temperature sensor, and an 8-channel 12-bit SAR-type ADC. It supports I²C and SPI communication, making it ideal for building a multimodal sensing environment. The ADC is user-friendly with 8 channels, a multiplexer, 12 bits, 1 MSPS, and is of the SAR (Successive Approximation Register) type. The 9-axis sensor boasts the world's smallest power consumption for a 9-axis motion tracking device. The barometer is a compact digital pressure sensor with high precision and low current consumption. *It can also be modified for Arduino connectors; please contact us separately for details. Features: It connects to the 40-pin expansion connector of the Raspberry Pi, communicating with the ADC via SPI and other sensors via I2C. The ADC can be configured to operate independently with 8 analog input channels. The sensors include a 3-axis accelerometer, a 3-axis gyroscope, a 3-axis compass, and a digital motion processor (DMP) packaged together. The barometer can measure both pressure and temperature.

• converter

◎ The programming and usage of the μPD658815GB is compatible with the μPD71055GB. ◎ Implements 96-bit digital input/output on a board size of 90.1mm × 95.8mm. ◎ Pull-down or pull-up resistors are attached to the external interface line (standard attachment 10KΩ). (3.3KΩ to 10KΩ can be selected. Additionally, implementation is available for free.) ◎ By implementing an overvoltage protection diode array (optional) on the external interface line, it prevents IC damage due to overvoltage input. (Optional: 242 yen (tax included) for one unit (8-bit)) ◎ The PC/104 bus is standard, but it can also be connected to our Z80 (MPCZ-16EX).

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The AD input signal is fundamentally 8CH, with an additional option for 8CH expansion available. It also features isolated input/output ports (8-bit input / 8-bit output). RoHS compliant. ◆ Features The signal is isolated by a photocoupler, and an isolated DC-DC converter is used for the power supply. The ADC chip is a serial ADC, but it has been designed for ease of use with PLD adoption, allowing control via port access. In the input section, the OP-AMP has feedback and grounding resistors arranged in a 2016 size chip resistor pattern. At the time of shipment, the feedback resistor is 0Ω and the grounding resistor is not installed, but customers can adjust the amplification rate of the OP-AMP by replacing the resistors. However, since they are fixed resistors, fine adjustments to the amplification rate are not possible. There is an option to expand the input channels by 8CH.

• converter

◆Features ◎CTC: The μPD71054 is a timer counter compatible with the 8254. ◎PIO: The μPD71055 is a 24-bit parallel input/output chip compatible with the 8255. ◎Space-saving board size of 90.1mm x 95.8mm. ◎An operational amplifier is placed at the front end of the analog input section. ◎Equipped with a DC-DC converter, it can be used with a single 5V power supply. RoHS compliant.

• converter

The DAC control signal is isolated by a photocoupler, and an isolated DC-DC converter is used for the analog power supply, ensuring that the analog and digital signals are isolated. The DAC interface is serial (SPI/QSPI or MICROWIRE compatible), but it has been designed for ease of use with CPLD adoption, allowing control via port access. The DAC device mounted has a 4-channel output, so the 8CH specification board (basic configuration) implements 2 devices for a total of 16CH, while the 4-device implementation is available as an expansion option. The analog output is routed through an operational amplifier, and the output voltage range can be switched for each channel by setting the jumper pins.

• converter

◆ Input Section ◎ Wide Input Voltage Range A resistor of 2.2KΩ/4.7KΩ (selectable) is implemented in the input section, allowing for input voltages from 5V to 24V. ◎ Abnormal Voltage Protection The internal circuit is protected by a diode even if an abnormal voltage is applied to the input signal. ◆ Output Section ◎ High Voltage and High Output Current By using the output Darlington driver TD62083AF, a withstand voltage of 30V (maximum) and an output current of 500mA (maximum) are achieved. However, the recommended output current value is up to 20mA/ch. ◎ Clamp-On Diode The TD62083AF has a built-in clamp-on diode, allowing direct connection of small magnets or plungers to the load. ◎ Output resistors can also be implemented instead of output transistors; please specify this when placing your order. ◆ Common Section ◎ Electrical Isolation from External Sources The external circuit and internal circuit are electrically isolated by a photocoupler, preventing malfunctions or electrical damage caused by abnormal voltages, noise, or ground level fluctuations from outside. ◎ Space Saving An isolated input/output circuit with a size of 90.1mm x 95.8mm is implemented on a circuit board.

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In the entertainment industry and event control, collaboration with various devices utilizing RS232C communication, such as production equipment, lighting, and sound systems, is essential. In particular, accurate real-time control is crucial for the success of an event. Improper communication or connections can lead to delays or malfunctions in the production. Our product, 'MPC-RAS-ST', converts the UART signal from the Raspberry Pi to RS232C levels, enabling smooth connections with these devices. 【Usage Scenarios】 - Control of lighting and sound equipment at live events - Control of interactive content at exhibitions - Control of attractions in theme parks - Collaboration with special effects equipment in stage productions 【Benefits of Implementation】 - Building a flexible event production system utilizing Raspberry Pi - Easy connection with existing RS232C devices - Improved stability and reliability of event productions

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In research and development applications, collaboration with various devices and flexible system construction during the prototyping stage are required. In particular, when connecting to existing industrial equipment and measuring instruments, compatibility with different communication standards becomes crucial. Our product 'MPC-RAS-ST' addresses these challenges by converting the UART signals from the Raspberry Pi to RS232C levels, thereby supporting smooth prototyping. 【Usage Scenarios】 - Connection with various measuring instruments and PLCs - Interface development with industrial equipment - Prototyping of IoT devices 【Benefits of Implementation】 - Easy integration with existing RS232C devices - Expands the scope of system development using Raspberry Pi - Contributes to shortening the prototyping period

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• Embedded Board Computers
• Expansion Boards

In the logistics industry, inventory management requires integration with existing devices that have RS232C interfaces. In particular, to grasp the inventory status in the warehouse in real-time and carry out efficient management, it is essential to have a solution that can connect these devices with versatile computers like the Raspberry Pi. Insufficient connectivity and compatibility issues can lead to delays in data collection and management errors. Our product "MPC-RAS-ST" addresses these challenges by converting the Raspberry Pi's UART signals to RS232C levels. 【Use Cases】 - Connection with barcode readers and inventory management terminals within the warehouse - Data collection from PLCs and sensors - Control of existing RS232C-compatible devices with Raspberry Pi 【Benefits of Implementation】 - Building an inventory management system utilizing existing RS232C devices - Real-time collection and analysis of inventory data - Reduction of system construction costs

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• Embedded Board Computers
• Expansion Boards

In the field of home automation, integration with existing appliances and control systems is essential. Particularly when controlling devices with an RS232C interface using a Raspberry Pi, signal level conversion is crucial. Improper conversion can lead to device malfunctions or failures in integration. Our product 'MPC-RAS-ST' converts the UART signal from the Raspberry Pi to RS232C levels, enabling connection with various devices that utilize RS232C communication. 【Use Cases】 - Smart home integration of older appliances - Building custom control systems - Integration of IoT devices with existing equipment 【Benefits of Implementation】 - System construction utilizing existing devices - Flexible system scalability - Easy realization of IoT integration

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• Embedded Board Computers
• Expansion Boards

In the field of security, particularly in access management, reliable integration with existing devices that have RS232C interfaces is essential. To prevent unauthorized access and maintain stable system operation, high-reliability communication is indispensable. Our product 'MPC-RAS-ST' enables connection with various security devices and control systems by converting the UART signals of the Raspberry Pi to RS232C levels. This supports the construction of a flexible and robust access management system utilizing the Raspberry Pi. 【Usage Scenarios】 - Integration of existing RS232C-compatible access control systems with Raspberry Pi - Data collection and monitoring of industrial security devices - Development of access control systems using IoT devices 【Benefits of Implementation】 - Low-cost system expansion utilizing existing equipment - Realization of custom security solutions leveraging the flexibility of Raspberry Pi - Stable access management through reliable RS232C communication

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• Embedded Board Computers
• Expansion Boards

In the field of robotics, collaboration with various sensors and control devices is required. In particular, when incorporating existing industrial equipment and measuring instruments with an RS232C interface into a robotic system, compatibility with the UART signals of the Raspberry Pi can be a challenge. Improper connections can lead to data delays or malfunctions, potentially compromising the performance and safety of the robot. Our product, 'MPC-RAS-ST', addresses these challenges by converting the Raspberry Pi's UART signals to RS232C levels, enabling smooth sensor integration. 【Usage Scenarios】 - Collaboration between industrial robotic arms and RS232C connected sensors - Data collection from RS232C compatible measuring instruments by autonomous mobile robots - Connection of external devices to research and development robotic platforms 【Benefits of Implementation】 - Easy integration of existing RS232C devices into Raspberry Pi-based robotic systems - Stable acquisition of sensor data and improved control accuracy - Reduction in development time and system construction costs

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In the energy industry, meter reading requires collaboration with existing devices that use RS232C communication. Particularly in environments where older equipment and devices from various manufacturers coexist, it is crucial to efficiently collect and manage data from these devices. If devices compatible with RS232C communication cannot be connected to a Raspberry Pi, automating data collection and real-time monitoring may become difficult. Our product 'MPC-RAS-ST' addresses these challenges by converting the UART signals of the Raspberry Pi to RS232C levels, thereby supporting the efficient collection of meter data. 【Usage Scenarios】 - Connecting the RS232C port of energy meters to a Raspberry Pi - Collecting and monitoring meter data from remote locations - Data integration with existing industrial equipment - Streamlining meter management through IoT implementation 【Benefits of Implementation】 - Easy connection with RS232C compatible devices - Reduced workload through automated data collection - Real-time understanding of meter status - Facilitating data integration into IoT platforms

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• Embedded Board Computers
• Expansion Boards

In educational settings and practical training materials, connectivity with various devices is crucial for enhancing learning outcomes. Particularly, communication with older industrial equipment and measuring instruments often utilizes RS232C, and signal level conversion is essential for handling these devices with a Raspberry Pi. Our product, 'MPC-RAS-ST', converts the UART signals of the Raspberry Pi to RS232C levels, supporting its use in educational training and research applications. 【Usage Scenarios】 - Introductory IoT training using Raspberry Pi - Data communication training with PLCs and industrial equipment - Fundamental learning in embedded system development - Promoting understanding of serial communication in electronics projects 【Benefits of Implementation】 - Enables connection with RS232C compatible devices, broadening the scope of practical training - Increases the versatility of the Raspberry Pi, allowing for more hands-on learning - Provides students with opportunities to engage with technologies used in actual industrial settings

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In manufacturing equipment monitoring, reliable data integration with existing industrial devices and control systems is essential. In particular, many devices utilize RS232C communication, and obtaining data from these devices for real-time monitoring and analysis can lead to improved production efficiency and predictive maintenance. However, since Raspberry Pi does not come with a standard RS232C interface, direct connection to these devices can be challenging. The product 'MPC-RAS-ST' addresses these issues by converting the Raspberry Pi's UART signals to RS232C levels, enabling smooth integration with existing equipment. 【Usage Scenarios】 - Data collection from PLCs and sensors on the manufacturing line - Condition monitoring through connection with industrial measuring instruments - Interface expansion with existing control devices 【Benefits of Implementation】 - Establishment of a low-cost equipment monitoring system utilizing Raspberry Pi - Easy connection with various RS232C-compatible devices - Rapid situational awareness through real-time data acquisition

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In the field of agriculture, environmental measurement requires accurate understanding of a wide range of information, including soil conditions, weather data, and the operational status of irrigation systems. Particularly when integrating sensors and measuring instruments with existing RS232C interfaces with the latest Raspberry Pi, signal level conversion is essential. Improper connections can lead to data acquisition failures or equipment malfunctions. Our UART/RS232C conversion board for Raspberry Pi, 'MPC-RAS-ST', reliably converts Raspberry Pi's UART signals to RS232C levels, addressing these challenges. 【Use Cases】 - Collection of weather observation data from farms - Data acquisition from soil sensors - Integration with irrigation system control devices - Connection with various agricultural measuring instruments 【Benefits of Implementation】 - Establishment of a low-cost environmental monitoring system utilizing Raspberry Pi - Effective use of existing RS232C devices - Automation and efficiency of data collection - Support for the realization of precision agriculture (smart agriculture)

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• Embedded Board Computers
• Expansion Boards

In the field of transportation systems, particularly in signal control, reliable data integration with existing control devices and sensors is essential. Many devices utilize RS232C communication, and when connecting these devices to versatile computers like the Raspberry Pi, communication level conversion becomes indispensable. Improper connections or conversions can lead to signal delays or malfunctions, potentially affecting the stable operation of transportation systems. Our UART/RS232C conversion board for Raspberry Pi, 'MPC-RAS-ST', converts the UART signals of the Raspberry Pi to RS232C levels, addressing these challenges. 【Usage Scenarios】 - Data collection and analysis in traffic signal control systems - RS232C communication with road sensors and surveillance cameras - Building systems that integrate existing traffic infrastructure with Raspberry Pi 【Benefits of Implementation】 - Enables easy connection with RS232C compatible devices - Flexible expansion of signal control systems utilizing Raspberry Pi - Reliable communication suitable for industrial applications

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In the field of medical devices, accurate and continuous data collection regarding the patient's condition and the operational status of the equipment is required. Particularly in collaboration with existing measuring instruments and control devices, a stable communication interface is crucial. Data loss or delays can potentially impact the accuracy of diagnosis and treatment. Our product "MPC-RAS-ST" converts the UART signals from the Raspberry Pi to RS232C levels, facilitating connection with existing medical devices. 【Usage Scenarios】 - Data collection from medical measuring instruments - Collaboration with patient monitoring devices - Information acquisition from control equipment 【Benefits of Implementation】 - Easy connection with existing RS232C devices - Improved flexibility in data collection and analysis using Raspberry Pi - Reliability suitable for industrial applications

• Other FA equipment
• Embedded Board Computers
• Expansion Boards

In industrial robot control systems, precise operation and high reliability are required. In particular, advanced design of electronic circuits and FPGAs is essential to achieve high-speed and precise control. Inadequate design can lead to malfunctions or performance degradation of the robot. Our company provides solutions to optimize the control systems of industrial robots through electronic circuit design, FPGA design, and embedded device development. 【Usage Scenarios】 - Precise control of robotic arms - Positioning and motion sequence control - Collaboration with various sensors 【Benefits of Implementation】 - Improved operational accuracy of robots - Enhanced system reliability - Reduced development time

• Other CAD related software

In the telecommunications industry, especially in base stations, advanced signal processing capabilities and high reliability are required. The radio wave environment is constantly changing, and it is essential to accommodate various communication standards. Poor electronic circuit design or insufficient FPGA performance can lead to a decline in communication quality or system failures. Our company provides a comprehensive response from electronic circuit design, FPGA design, embedded device development, to prototyping, evaluation, and small-lot manufacturing, offering optimal solutions tailored to our customers' needs. 【Application Scenarios】 - Development of signal processing units for base stations - Development of wireless communication interfaces - Performance enhancement of existing base station systems - Development of 5G/6G compatible devices 【Benefits of Implementation】 - Improvement in communication quality - Enhancement of system stability - Reduction in development time - Cost savings

• Other CAD related software

In the field of space and satellites, high reliability under harsh conditions and precise operation for mission success are required. In particular, durability against factors such as temperature changes, radiation, and vibration is crucial. In the design and manufacturing of electronic circuits, advanced technology and a strict quality control system are essential to meet these demands. Embedded Technology Co., Ltd. has a proven track record in the development of electronic circuits for space-related equipment and provides optimal solutions tailored to customer needs. 【Application Scenarios】 - Electronic devices for satellites - Electronic circuits for space probes - Satellite control systems - Measurement and control equipment for space experiments 【Benefits of Implementation】 - Realization of high-reliability electronic circuits suitable for space environments - Increased mission success rates - Reduced development time - Cost savings

• Other CAD related software