1) Mechanical Simulations – Via various solid modeling tools and cad
programs; tooling, moving mechanisms, end-effectors… are designed with
3D visualizations, connecting the modules to prevent interference, check
mass before actual machining…
2) Electronics Simulations – This type of simulations are either related to the manufacturers of "specific instrumentations" used in automation industry (ultrasonic welders, laser marking systems,…) or the designers of circuit boards.
3) Electrical & Controls Simulations.
2) Electronics Simulations – This type of simulations are either related to the manufacturers of "specific instrumentations" used in automation industry (ultrasonic welders, laser marking systems,…) or the designers of circuit boards.
3) Electrical & Controls Simulations.
If you look back over history you will find how things started out from the early engineers and scientists looking at materials and developing systems that would meet their transmission goals. I recall when drives (essentially ac/dc/ac converters) had an upper limit around 200 to 230 volts).
A 1:1 ratio transformer is primarily used to isolate the primary from the secondary. In small scale electronics it isolates the noise / interference collected from the primary from being transmitted to the secondary. In critical care facilities it can be used as an isolation transformer to isolate the primary grounding of the supply from the critical grounding system of the load (secondary).
Grounding (or Earthing) - intentionally connecting something to the ground. This is typically done to assist in dissipating static charge and lightning energy since the earth is a poor conductor of electricity unless you get a high voltage and high current.
SCADA will have a set of KPI's that are used by the PLCs/PACs/RTUs as standards to compare to the readings coming from the intelligent devices they are connected to such as flowmeters, sensors, pressure guages, etc.
HMI is a graphical representation of your process system that is provided both the KPI data and receives the readings from the various devices through the PLC/PAC/RTUs.
You know standards for the electronic industry have been around for decades, so each of the interfaces we have discussed does have a standard. Those standards may be revised but will still be used by all segments of our respective engineering disciplines.
The concept of home automation on a global scale is a good concept. How to implement such a technology on a global scale is an interesting problem, or I should say issues to be resolved. Before global approval can be accomplished the product of home automation may need a strategy that starts with a look at companies that have succeeded in getting global approval of their products.
A few years back, I had a devil of time getting some OPC Modbus TCP drivers to work with Modbus RTU to TCP converts. The OPC drivers could not handle the 5 digit RTU addressing. You need to make sure your OPC driver that you try actually works with your equipment.
You already know from your engineering that higher voltages results to less operational losses for the same amount of power delivered. The bulk capacity of 3000MW has a great influence on the investment costs obviously, that determines the voltage level and the required number of parallel circuit.
The generator designers will have to determine the winding cross section area and specific current/mm2 to satisfy the required current, and they will have to determine the
required total flux and flux variation per unit of time per winding to
satisfy the voltage requirement.
We got by testing 3 different machines under no-load condition.
The 50 HP and 3 HP are the ones which behave abnormally when we apply 10% overvoltage. The third machine (7.5 HP) is a machine that reacts normally under the same condition.
What we mean by abnormal behavior is the input power of the machine that will increase dramatically under only 10% overvoltage which is not the case with most of the induction machines. This can be seen by the numbers given below.
Equivalent active power losses during electrical motor's testing in no-load conditions contain next losses:
1. active power losses in the copper of stator's winding which are in direct relation with square of no-load current value: Pcus=3*Rs*I0s*I0s,
Gozuk Blog: all about electric motor control & drives industries development in energy saving applications.
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The max current of this motor?
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Paralleling converters - Design Methods?
The max current of this motor?
Connecting to feeder conductors to Emergency generator
Is wondering why Ohio is slow in solar?
Why it's 50 or 60 Hz, not 85 or 25hz
Measuring the yellow phase of distribution transform
centum 3000 and new PCs problems