Operating Manual ACOM-600S
... The transceiver switches the amplifier from receive mode into transmit mode (RX/TX) via grounding of the KEYIN input. Connect a shielded cable from the respective control output of your transceiver, providing “ground on transmit” (PTT), to the KEY-IN input on the amplifier rear panel (RCA PHONO jack ...
... The transceiver switches the amplifier from receive mode into transmit mode (RX/TX) via grounding of the KEYIN input. Connect a shielded cable from the respective control output of your transceiver, providing “ground on transmit” (PTT), to the KEY-IN input on the amplifier rear panel (RCA PHONO jack ...
600 W Halfbridge LLC evaluation board with 600 V CoolMOS™ C7
... the square wave converter is optimized at maximum duty cycle, which is only achieved at low line condition. Hence, to provide operational capability with typical PFC front ends, and some converter hold up time capability, they will typically need to be optimized for DC input as low as 325 V or 300 V ...
... the square wave converter is optimized at maximum duty cycle, which is only achieved at low line condition. Hence, to provide operational capability with typical PFC front ends, and some converter hold up time capability, they will typically need to be optimized for DC input as low as 325 V or 300 V ...
5596
... Any electrical or electronic equipment in the normal course of its operation generates electromagnetic fields (EMFs), or radiated emissions, and undesired signal artifacts, or conducted emissions, on cables, wires, and its metal parts. Intentional emission sources (e.g., wireless networks, mobile ph ...
... Any electrical or electronic equipment in the normal course of its operation generates electromagnetic fields (EMFs), or radiated emissions, and undesired signal artifacts, or conducted emissions, on cables, wires, and its metal parts. Intentional emission sources (e.g., wireless networks, mobile ph ...
TPA2035D1 数据资料 dataSheet 下载
... Electro-Static Discharge Tolerance - Human Body Model (HBM) for all pins (2) ...
... Electro-Static Discharge Tolerance - Human Body Model (HBM) for all pins (2) ...
Date:- 12 December 2011
... Consistent with GB Grid Code (CC.6.1.4) Consistent with GB Grid Code (CC.6.3.2 and CC.6.3.8). For Small Power Stations N/A. GB Grid Code requirements (CC.6.3.15) are slightly different (see Table 2 below). In summary, the differences from the GB Code as against the ENTSO-E RfG are:i) Voltage profile ...
... Consistent with GB Grid Code (CC.6.1.4) Consistent with GB Grid Code (CC.6.3.2 and CC.6.3.8). For Small Power Stations N/A. GB Grid Code requirements (CC.6.3.15) are slightly different (see Table 2 below). In summary, the differences from the GB Code as against the ENTSO-E RfG are:i) Voltage profile ...
Burst Mode Switch Mode Power Supply (SMPS) for 320W (peak) Class D
... (ensure to do this at the lowest Vin) *…No slope compensation needed: This is also a bigger advantage than at first sight, because when slope compensation is added, the primary source current sense resistor usually needs downsizing in order to make “room” for the added ramp….such downsizing of the s ...
... (ensure to do this at the lowest Vin) *…No slope compensation needed: This is also a bigger advantage than at first sight, because when slope compensation is added, the primary source current sense resistor usually needs downsizing in order to make “room” for the added ramp….such downsizing of the s ...
Virtex-4 PCB 设计指南
... any license under its patents, copyrights, or maskwork rights or any rights of others. Xilinx, Inc. reserves the right to make changes, at any time, in order to improve reliability, function or design and to supply the best product possible. Xilinx, Inc. will not assume responsibility for the use of ...
... any license under its patents, copyrights, or maskwork rights or any rights of others. Xilinx, Inc. reserves the right to make changes, at any time, in order to improve reliability, function or design and to supply the best product possible. Xilinx, Inc. will not assume responsibility for the use of ...
Fast fault detection for power distribution systems
... necessary, power system faults and their consequences are briefly discussed. The consequences of a fault are dependent of a number of different factors, one of the factors being the duration of the fault. The importance of the speed of the fault detection depends on the type of equipment used to clear ...
... necessary, power system faults and their consequences are briefly discussed. The consequences of a fault are dependent of a number of different factors, one of the factors being the duration of the fault. The importance of the speed of the fault detection depends on the type of equipment used to clear ...
... supports reliable power production. While off-site power is not required to meet any safety function, and physical independence is obviated by this lack of safety function and by the certified design’s partial exemption to GDC 17 granted by the NRC, multiple, reliable transmission circuits are provi ...
Appendix-A-Large-Penetration-Small
... In Figure 9, the expanded view of three different operation stages, of the diagram in Figure 8, is reported for evidencing few operation points. For every numbered point Figure 10 illustrates the relevant main characteristic current harmonic spectrum. Figure 9 and Figure 10 show that the laser print ...
... In Figure 9, the expanded view of three different operation stages, of the diagram in Figure 8, is reported for evidencing few operation points. For every numbered point Figure 10 illustrates the relevant main characteristic current harmonic spectrum. Figure 9 and Figure 10 show that the laser print ...
69 kV to 500 kV INTERCONNECTION REQUIREMENTS FOR
... BC Hydro has responsibility for the interconnection of facilities to the Transmission System including technical and operation criteria and processes. In certain cases (such as installation of revenue metering equipment), a review of plans and specifications by BC Hydro may also be required. BC Hydr ...
... BC Hydro has responsibility for the interconnection of facilities to the Transmission System including technical and operation criteria and processes. In certain cases (such as installation of revenue metering equipment), a review of plans and specifications by BC Hydro may also be required. BC Hydr ...
An introduction to LLC resonant half
... but only fifteen can be used in practice with a voltage source input. One of these, commonly called LCC because it uses one inductor and two capacitors, with the load connected in parallel to one C, generates the LCC resonant inverter commonly used in electronic lamp ballast for gas-discharge lamps. ...
... but only fifteen can be used in practice with a voltage source input. One of these, commonly called LCC because it uses one inductor and two capacitors, with the load connected in parallel to one C, generates the LCC resonant inverter commonly used in electronic lamp ballast for gas-discharge lamps. ...
System clocks
... Device stays in reset mode until voltage is higher than the upper threshold (VB_IT+): • BOR takes 2 msec to be inactive and allow the program execution by CPU; When voltage falls below the lower threshold (VB_IT-): • BOR circuit will generate a reset signal; • Suspends processor operation until ...
... Device stays in reset mode until voltage is higher than the upper threshold (VB_IT+): • BOR takes 2 msec to be inactive and allow the program execution by CPU; When voltage falls below the lower threshold (VB_IT-): • BOR circuit will generate a reset signal; • Suspends processor operation until ...
Utility frequency
The utility frequency, (power) line frequency (American English) or mains frequency (British English) is the frequency of the oscillations of alternating current (AC) in an electric power grid transmitted from a power plant to the end-user. In large parts of the world this is 50 Hz, although in the Americas and parts of Asia it is typically 60 Hz. Current usage by country or region is given in the list of mains power around the world.During the development of commercial electric power systems in the late 19th and early 20th centuries, many different frequencies (and voltages) had been used. Large investment in equipment at one frequency made standardization a slow process. However, as of the turn of the 21st century, places that now use the 50 Hz frequency tend to use 220–240 V, and those that now use 60 Hz tend to use 100–127 V. Both frequencies coexist today (Japan uses both) with no great technical reason to prefer one over the other and no apparent desire for complete worldwide standardization.Unless specified by the manufacturer to operate on both 50 and 60 Hz, appliances may not operate efficiently or even safely if used on anything other than the intended frequency.