Description
IS420UCSBH4A Product Introduction
The specific application scope of the product
will depend on the needs of system integration and industrial application, but generally speaking, this type of embedded controller module can be applied to the following categories:
manufacturing processes, etc.
monitoring and control system.
of the controller module, as well as the specific needs of the customer.
designed to manage gas or steam turbines.
It has a CIMPLICITY graphical interface and an HMI with software suitable for running heavy-duty turbines.
be installed at the bottom of the cabinet. For a small setup that is easy to serve a triple redundant system, up to three components can be installed side by side.
he board can operate within a temperature range of 0 to 65 degrees Celsius without the need for a fan for cooling. NFPA Class 1. This board can be used for two applications.
How giants brought the robotics industry upAffected by the trend of China”s manufacturing transformation and upgrading, the “machine substitution” craze has arrived. Since 2013, China”s industrial robot market has begun to develop rapidly. Judging from the purchase volume of robots, China has become the world”s largest application market.However, more than half of the dividends generated by China”s huge market have been captured by the “four major families” of robots (Japan”s Yaskawa Electric, FANUC, Germany”s KUKA, and Switzerland”s ABB).According to Zhiyan Information, China”s industrial robot market is dominated by foreign brands, and the “four major families” accounted for 57% of the domestic market in 2017. In the field of high-end industrial robots, the share of the four major families of multi-jointed robots with six axes or above is 95%, the share of the four major families in the automotive industry with concentrated downstream high-end applications is 90%, and the share in the welding field is 84 % .It can be seen that the oligopoly competition pattern in the high-end field has basically been established. Correspondingly, the market share of domestic robots still needs to be improved. For independent brands to catch up with foreign brands, there is still a long way to go in terms of core technology and user services.On the other hand, the development of the “four major families” of robots to this day is world-renowned, which is inseparable from decades of intensive cultivation. The growth path behind them is worth learning and exploring by domestic ontology manufacturers.1. Build unique advantages with core technologiesFor robot manufacturing, the four major families firmly grasp the key technologies of core components.Especially when it comes to servo motors, Japan”s Yaskawa Electric Co., Ltd., which is dominated by servo drives, cannot be avoided. In the process of Yaskawa Electric”s development and growth, this critical step is inseparable, and it is also a pioneering work in the field of motors – the development of the world”s first DC servo motor Minertia .As the company that developed the world”s first servo motor, Yaskawa Electric, founded in 1915, has been leading the trend with ultra-high-speed, ultra-precision motion control technology for many years.The biggest advantage of its robot is its high stability, which can still maintain normal operation even under overload conditions. Therefore, Yaskawa Electric is very popular in heavy-load application fields such as the automotive industry.Combining market demand with concentration and investment in technology is the key to Yaskawa Electric achieving major breakthroughs. The development of servo motors is based on the urgent need to improve production efficiency by major Japanese manufacturers.At that time, the motor took a long time to start and stop, which made it impossible to further improve production efficiency. Undoubtedly, if this technical difficulty can be solved, huge market potential will be released.Yaskawa Electric keenly captures this market pain point and concentrates on research and development here. However, success does not come overnight. In the early stages of technological breakthroughs, there will always be countless experimental failures.Fortunately, hard work paid off. With the advantages of advance layout and technology accumulation, Yaskawa Electric was able to achieve this major innovation – Mitsuyuki Fukuda, an engineer at Yaskawa Electric at the time, used the method of attaching coils to the rotor surface. , to reduce the rotor diameter and control the motor “s moment of inertia to a minimum. It is understood that the response speed of this motor was almost 100 times that of ordinary motors at the time, which made Yaskawa Electric widely welcomed by the market.Of course, this landmark technological leap did not stop Yaskawa Electric. Since then, Yaskawa Electric has continued to polish its own technology with the spirit of craftsmanship, and has continued to innovate in order to develop products that better meet user needs. Every technological breakthrough means leading the entire industry to progress.According to reports, in 2018 (March-November), Yaskawa achieved revenue of 361.3 billion yen, a year-on-year increase of 6.3%. As of September 2015, the cumulative number of robots sold by Yaskawa Electric has exceeded 280,000 units, becoming the global robot sales champion.Similarly, FANUC, known as the “Microsoft of robotics”, its founder Seiemon Inaba is also very convinced of the power of technology. He believes that continuous experimentation and innovation through mistakes are the key to FANUC. A creed that has always been there.In order to stay ahead of its peers in technology, Inaba established a basic development research institute and a commodity research institute respectively. The former is mainly responsible for the products that the market will need in five or ten years; the latter is responsible for establishing commercialization goals and delivering results within one year. FANUC is always aware of crises, and the team atmosphere in its research institute is always full of fighting atmosphere.The most prominent competitive advantage of its industrial robots is its extremely high precision. It is reported that the repeated positioning accuracy of Fanuc”s multi-functional six-axis small robot can reach plus or minus 0.02mm. Therefore, the market is very popular in light-load, high-precision applications.
DS200TCQAG1A High performance processor module GE
IS2020RKPSG From General Electric in the United States
IS215WEPAH2BA Gas turbine system Mark VI
IS210AEBIH1B From General Electric in the United States
IS400TCASH1AEC GE power control board
IS220PPRFH1A Gas turbine system Mark VI
IS200RCSAG1ABB Gas turbine system Mark VI
IS200JPDMG1A Gas turbine system Mark VI
DS2020FEXAG4 GE power control board
IS410TRLYS2F Processor/Controller Mark VI System
IS200ERIOH1ACB GE power control board
DS200DSPCH1ADA GE power control board
IS215UCCAM03A I/O excitation redundant module GE
IS230STCIH6A Gas turbine system Mark VI
IS200EPCTG1A From General Electric in the United States
IS200TTPWH1A I/O excitation redundant module GE
IS200SSCAH2AGD High performance processor module GE
DS200RTBAG2AGL High performance processor module GE
IS220PDIOH1B GE power control board
IS200TVIBH2BCC GE power control board
IS200ICIAH1ABB Processor/Controller Mark VI System
IS200EISBH1A GE power control board
IS400AEBMH1AJD Gas turbine system Mark VI
IS200TDBSH2AAA Gas turbine system Mark VI
IS215UCVEH2AB From General Electric in the United States
DS200KLDBG1ABC Gas turbine system Mark VI
IS200TSVCH2AED Gas turbine system Mark VI
IS210AEBIH1BED Processor/Controller Mark VI System
IS230STAIH2A Processor/Controller Mark VI System
DS200SLCCG3A Processor/Controller Mark VI System
DS200FCGDH1BBA High performance processor module GE
DS200RTBAG3A From General Electric in the United States
IS200TNH1A From General Electric in the United States
IS200DSPXH1DBD From General Electric in the United States
IS220PVIBH1A Processor/Controller Mark VI System
IS200STCIH2A From General Electric in the United States
IS420UCSBH4A I/O excitation redundant module GE
IS215UCVEM09A I/O excitation redundant module GE
IS420USBH1A From General Electric in the United States
IS200EPDMG1ABA Gas turbine system Mark VI
IS215VCMIH2CC Processor/Controller Mark VI System
IS200ERIOH1AAA I/O excitation redundant module GE
DS200QTBAG1ADC Gas turbine system Mark VI
IS200EAUXH1A High performance processor module GE
IS210AEDBH4A Gas turbine system Mark VI
IS215VPROH1BD From General Electric in the United States
IS200ACLEH1A From General Electric in the United States
IS200TBA1H1C GE power control board
DS3800HRCA1D1B GE power control board
IS200TVBAH2ACC Processor/Controller Mark VI System
DS3800HFXA1D1B High performance processor module GE
IS415UCVGH1A Gas turbine system Mark VI
IS410JPDHG1A Gas turbine system Mark VI
IS400WPDFH1A From General Electric in the United States
IS220PDIOH1B Gas turbine system Mark VI
IS200BPIHH1A High performance processor module GE
DS200TCEBG1ACD GE power control board
DS3800DFXA1B1C From General Electric in the United States
IS210AEBIH3BED I/O excitation redundant module GE
IS200TRTDH1B Gas turbine system Mark VI
IS215PCMIH1A High performance processor module GE
IS220PPRFH1B Gas turbine system Mark VI
IS420UCECH1B High performance processor module GE
DS200FCRRG1A From General Electric in the United States
DS200SDCCG1AHD I/O excitation redundant module GE
IS210MVRAH2A Gas turbine system Mark VI
IS200EXHSG1A GE power control board
IS220PHRAH1BD GE power control board
IS200IGPAG2AED From General Electric in the United States