The process controllers of the DE-CP 34X-01 series are the perfect replacement controllers for our previous controller generations (from DE-PR 4008 series)! And the best thing about it?
Thanks to the integrated ECB bus, you can continue to use the existing control cabinet cut-outs for the DE-CP 342-01. Thanks to the innovative cooling concept, the operating temperature has been significantly reduced! In addition, the system is protected by an integrated UPS, which ensures a controlled shutdown in the event of a power failure.
The integrated ProfiBus module can be used to establish connections to ProfiBus-compatible hardware (master or slave possible)!
The user interface provides the user with a clear and intuitive visualization and operation of the processes on a 10-inch display with membrane keypad.
The system is driven by a processor that can also display complex visualizations smoothly.
The sequence programs are programmed using preconfigured process phases! The operator is automatically guided to the necessary input of variable data. Phase-dependent basic settings such as monitoring and safety functions are already stored in the system configuration.
Main and I/O with separate power supply
8-fold analog input card
Linearization is included in the scope of delivery for the following thermocouples.
DA 8: 8-fold analog output card
AD 4/DA 2: Analog combination card
Analog inputs (4):
Linearization is included in the scope of delivery for the following thermocouples:
Analog outputs (2):
AD 4/DA 2: Analog combination card with limit value switch
Analog inputs (4):
Linearization is included in the scope of delivery for the following thermocouples:
Analog outputs (2):
Comparator inputs (2):
IN 32: 32-fold digital input card
OUT 32/IO 32: 32-fold digital input/output card
IN 24/OUT 16: 24-fold IN/16-fold OUT card
(also activates the diffusion simulation in prosys/2)
Iron + carbon results in steel. At temperatures between 911°C and 1392°C, the lattice changes from body-centered cubic to face-centered cubic. Above this temperature, the lattice is again body-centered cubic, but the spacing is greater compared to temperatures below 911°C.
Carburization is used because mixing is not possible. Iron evaporates before carbon becomes liquid, hence the carburization process. The carbon diffuses into the still solid iron at high temperatures. This should happen without oxygen, so inert gases are used to prevent this.
This is a process for surface hardening of steel and other ferrous materials in which nitrogen is enriched in the metal surface.
Nitrocarburizing is a combination of nitriding and carburizing (i.e. carbon enrichment). The workpiece is exposed to ammonia in a furnace at temperatures of approx. 500°C to 600°C (in nitrocarburizing also with an additional gas containing carbon, e.g. carbon monoxide, carbon dioxide, propane, etc.). The ammonia or the additional gas partially splits on the surface of the workpiece; the resulting atomic nitrogen (or carbon) is embedded in the workpiece and forms a so-called hardening layer. The hydrogen released during nitriding escapes from the furnace together with the unsplit ammonia and is flared off.
A lambda sensor is a technical component for heating systems that measures the residual oxygen content of hot exhaust gases. This value can be used to create an optimum mixture of combustion air and flue gases in the combustion chamber, which leads to optimum combustion and reduces the formation of emissions.