T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001  decoding, and executing instructions. The central processing unit (CPU), as the computing and control core of a computer system, is the ultimate execution unit for information processing and program execution. Since its inception, CPU has made significant progress in logical structure, operational efficiency, and functional extension. CPU emerged in the era of large-scale integrated circuits, and the iterative updating of processor architecture design and the continuous improvement of integrated circuit technology have prompted its continuous development and improvement. CPU has been developing rapidly since its birth, from being dedicated to mathematical computing to being widely used in general computing, from 4-bit to 8-bit, 16 bit, 32-bit processors, and finally to 64 bit processors, from incompatibility among manufacturers to the emergence of different instruction set architecture specifications. Its main function is to interpret computer instructions and process data in computer software. The CPU is the core component in a computer responsible for reading, decoding, and executing instructions. The central processing unit mainly consists of two parts, namely a controller and an arithmetic unit, which also includes a high-speed buffer memory and the data and control bus that realizes the connection between them. The three core components of an electronic computer are the CPU, internal memory, and input/output devices. The main functions of the central processing unit are to process instructions,D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001 T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001  D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001  D136-002-005 D138-002-002execute operations, control time, and process data. Extended Information The classification of CPUs can also be divided into Reduced Instruction Set Computers (RISC) and Complex Instruction Set Computers (CISC) in terms of instruction sets. RISC is a chip designed based on integrated circuits, However, the difference is that it has improved the number of instructions and addressing methods, making implementation easier, the parallel execution of instructions better, and the efficiency of the compiler has also become increasingly high. Due to the underdeveloped integration technology in the early days, early computers often relied on CISC architecture, requiring fewer machine languages to complete the required computational tasks. Due to the increasing demand from people, more relatively complex instructions have been added to the instruction system, which can make computers more intelligent and greatly improve processing efficiency. This is also the reason for the formation of RISC. The main task of the excitation control system is to provide an adjustable DC current (voltage) to the excitation winding of the generator to meet the needs of normal power generation and safe operation of the power system. Whether in steady-state or transient operation, the operating state of synchronous generators is largely related to excitation. Adjusting and controlling the excitation of the generator not only ensures the reliability  D136-001-008a D136-001-008 D136-001-007 D136-001-001T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001  D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001safety, and stability of the generator and power system, but also improves the technical and economic indicators of the generator and power system. The main functions of the excitation system are as follows: 1. Control the terminal voltage. The ability of the excitation system to maintain a constant voltage at the generator terminal is represented by voltage accuracy. 2. Control reactive power distribution. When the generator is parallel to the power system for operation, its output active power is determined by the power input from the prime mover, while the reactive power output by the generator is related to the excitation current. Adjusting the excitation can change the reactive power output by the generator. In actual operation, changing the excitation will cause changes in both the terminal voltage and output reactive power, but the terminal voltage change is relatively small, while the output reactive power will have a significant change. Controlling the reactive power distribution between generators operating in parallel is an important function of the excitation system. 3. Improve the stability of parallel operation of synchronous generators. The basic requirement for the reliable operation of the power system is that all generators integrated into the system must maintain synchronous operation. During the operation of the system, it may be subject to various disturbances at any time, and may return to its original operating state, or transition from one equilibrium state to another. This situation is called the system is stable. The motion control card is an upper control unit based on PC and industrial PC, used in various motion control situations (including displacement, speed,   D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  D138-002-002  D138-002-001 D136E001-001  D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001T161-902A-00-B4-2-2A  M128-010  M128-010-A001B  G123-825-001  G122-824-002  acceleration, etc.). The motion control card is a high-performance stepper/servo motor motion control card based on PC bus, utilizing high-performance microprocessors (such as DSP) and large- scale programmable devices to achieve multi-axis coordinated control of multiple servo motors. It includes functions such as pulse output, pulse counting, digital input, digital output, D/A output, etc. It can emit continuous and high-frequency pulse trains, and control the speed of the motor by changing the frequency of the pulses emitted, Change the number of pulses emitted to control the position of the motor, and its pulse output mode includes pulse/direction and pulse/pulse mode. Product Description The fourth industrial revolution was brought on by the rise of automation technologies that succeeded conventional technologies that were not as efficient and productive. Industrial setups all over the globe were quick to adapt to the change and highly automated devices were soon a part of every high-end production unit, leading to a surge in production quality and profitability. Motion control was a field that evolved during this time period. It constitutes the development of motion systems that are integrated with control systems, which are capable of delivering precise motion and are based on closed loop feedback. Kollmorgen was one of the first to pioneer this field, developing a range of motion control products that defined the pathway for other companies and earned it a name in the marketD138-002-002  D138-002-001 D136E001-001  D136-002-005 D138-002-002  D136-001-008a D136-001-008 D136-001-007 D136-001-001