DSDI 7 Search Results

dsdi 7-015 A

Abstract: DSDI 17-04 DSD 17-14 b DSDI 71-16 DSD 12-16 dsdi 7-015 DSDI DSDI 7-01 B DSDI 20-01 b DSDI 17-14 b
Contextual Info: A S E A BROUN/ABB SENICON Schnelle Dioden Diode DSD Vrrm Fast switching diodes If r m s Ki If a v i Tc - 100°C A °C A(°C) DSDI 5-04 A DSD1 5-06 A DSDI 5-08 A 400 600 800 10 DSDI 7-01 A DSDI 7-015 A DSDI 7-02 A 100 10 ft vF If Ir r m (10 ms) 10 ms T y j =• 45°C

diode DSDI 12

Abstract: MS 1307 DSDI
Contextual Info: DSDI 60 IFAVM = 63 A VRRM = 1400-1800 V trr = 40 ns Super Fast Recovery Diode VRSM VRRM V 1400 1600 1800 V 1400 1600 1800 Type A C DSDI 60-14A DSDI 60-16A DSDI 60-18A TO-247 AD C  C A A = Anode, C = Cathode Conditions IFRMS IFAVM  IFRM TVJ = TVJM TC = 60°C; rectangular, d = 0.5

DSdi 5

Abstract: DSDI
Contextual Info: Advanced Technical Information Super Fast Recovery Diode VRSM V 1400 1600 1800 VRRM DSDI 60 IFAVM = 63 A VRRM = 1400-1800 V = 40 ns trr Type C A TO-247 AD V 1400 1600 1800 DSDI 60-14A DSDI 60-16A DSDI 60-18A C TAB A Symbol Test Conditions I FRMS IFAVM ①

DSDI

Abstract: ixys dsei 60-12 60-18A
Contextual Info: DSDI 60 Super Fast Recovery Diode IFAVM = 63 A VRRM = 1400-1800 V trr = 40 ns Preliminary Data V 1400 1600 1800 VRRM Type C A TO-247 AD V 1400 1600 1800 C DSDI 60-14A DSDI 60-16A DSDI 60-18A A A = Anode, C = Cathode Symbol Test Conditions IFRMS IFAVM ÿÿ①

Contextual Info: DSDI 60 Super Fast Recovery Diode IFAVM = 63 A VRRM = 1400-1800 V = 40 ns trr Preliminary Data V 1400 1600 1800 VRRM Type C A TO-247 AD V 1400 1600 1800 C DSDI 60-14A DSDI 60-16A DSDI 60-18A A A = Anode, C = Cathode Symbol Test Conditions IFRMS IFAVM ¬

DSdi 5

Contextual Info: nixYS Advanced Technical Information Super Fast Recovery Diode DSDI 60 V RRM = 63 A = 1400-1800 V * t rr = 40 ns FAVM TO-247 AD 1400 1600 1800 1400 1600 1800 DSDI 60-14A DSDI 60-16A DSDI 60-18 A Symbol Test Conditions Maximum Ratings ^FRM TVj T/JM Tc = 60°C; rectangular, d = 0.5

ABB DSDI 17-04

Abstract: dsdi 7-015 DSDI 17-14 b DSDI 5-08 abb DSDi 110 DSDI 20-01 b DSDI 17-10 b dsdi 7-015 A DSD 35-12 dsdi 7 01A
Contextual Info: A S E A BROüJN/ABB A3 SENICON OG4ÔBOÔ Q O D D l t B D1 0 3 - 0 / T - Schnelle Dioden D iode V rr m D SD Fast switching diodes Ifrms DSOI Tc Ifavm Tc - lOCPC A(°C) A(°C) If a v i 8,3 ms DSDI 5-04 A DSD1 5 -0 6 A DSDI 5 -0 8 A DSDI 7-01 A DSDI 7-01 5 A

diode DSDI 12

Contextual Info: DSDI 60 IF AVM = 63 A VR R =M 1 4 00- 1 8 00 V trr = 4 0 ns Super Fast Recov ery Diode VRSM VRRM Type A C TO - 2 4 7 A D V V 1 4 00 1 4 00 DSDI 60- 1 4 A 1 600 1 600 DSDI 60- 1 6A 1 8 00 1 8 00 DSDI 60- 1 8 A C A C A = Anode, C = C athode Symbol IFRM S IFA VM

Contextual Info: □IXYS Advanced Technical Information Super Fast Recovery Diode DSDI60 IFAVM 63 A vr 1400-1800 V RRM trr v RSM v RRM V Type 1400 1600 1800 Symbol C TO-247 AD DSDI 60-14A DSDI 60-16A DSDI 60-18A Test Conditions Maximum Ratings A A A t = 10 ms 50 Hz , sine

diode DSDI 9

Abstract: 10N60A IXLN35N120AU1 diode DSDI 12 IXLH35N120A DSP8-12A a1931 DSP8-08AS 95-06DA IXln35N120A
Contextual Info: □IXYS Contents Insulated Gate Bipolar Transistors IGBT Package style CE(aat) Type Page Tc = 25°C V 1. TO-247 AD 2. TO-220 AB 3. TO-264 AA 500 48 2.3 IXGH24N50B IXGH24N50BU1 4-5 6-7 500 75 2.3 IXGH50N50B 8-9 600 20 3.0 IXSH 10N60A 10-11 600 48 2.5 IXGH24N60B

MPC555LF8MZP40

Abstract: MPC555 MPC56X reference manual MPC555LFMZP40 REV K3 MPC555LF4MZP40 5K83H mpc561 bdm MPC555lf8mzp MPC561MZP56 MPC565MZP56
Contextual Info: Freescale Semiconductor Application Note AN2000 Rev. 0, 9/2003 Freescale Semiconductor, Inc. MPC500 Family Background Debug Mode Randy Dees TECD Applications The MPC500 family of microcontrollers offers a dedicated port to allow the debug of software. It is similar to the Background Debug Mode BDM interface on previous Freescale

DSDX 452

Abstract: TU407 DSDX DSax 452 TU401 TU402 abb s800 3BSE037624 ABB/DSDX 452 TU406
Contextual Info: Industrial IT System 800xA Advant Master S400 I/O to S800 I/O Evolution Data Sheet Left: An example of an S400 I/O to S800 I/O termination unit. To the left of the I/O module termination units there is space for an optional fieldbus communication module. ABB’s S400 I/O system has been around

dsdi 7

Abstract: MPC823 hard reset DSdi 5
Contextual Info: SECTION 4 RESET The reset block of the MPC823 has a reset control logic that determines the cause of reset, synchronizes it if necessary, and resets the appropriate logic modules. The memory controller, system protection logic, interrupt controller, and parallel I/O pins are initialized

QF1Da512

Abstract: HBM 00-07H DSDI audio crossover filter Transistor FIR 3D 41 AEC-Q100-002D qf1d512 QF1D512-DK dr2m circuit for 7.1 home theatre system
Contextual Info: PRELIMINARY DATA SHEET QF1Da512 Simple and versatile FIR engine SavFIReTM APPLICATIONS • Audio Equalization, Crossovers, and 3D widening  Televisions Clk Gen CTRL Registers clk_sys  Docking Stations  Stereo Headsets (both wired and wireless)  Home Theatre Speakers

motorola 852

Abstract: 4E20
Contextual Info: SECTION 8 DEVELOPMENT SUPPORT Development tools are used by a microcomputer system developer to debug the hardware and software of a target system. These tools are used to give the developer some control over the execution of the target program. In-circuit emulators

abb s800

Abstract: TU407 DSDX DSax 452 DSDX 452 TU401 TU402 ABB/DSDX 452 TU403 abb s800 i/o
Contextual Info: Industrial IT System 800xA Advant Master S400 I/O to S800 I/O Evolution Data Sheet Left: An example of an S400 I/O to S800 I/O termination unit. To the left of the I/O module termination units there is space for an optional fieldbus communication module. ABB’s S400 I/O system has been around

LT 8215

Abstract: motorola ctc 4E20 MPC509
Contextual Info: SECTION 8 DEVELOPMENT SUPPORT Development tools are used by a microcomputer system developer to debug the hardware and software of a target system. These tools are used to give the developer some control over the execution of the target program. In-circuit emulators and bus

MPC823

Abstract: MPC821 PB-19 dsdi 7
Contextual Info: MPC823 Pin Functions Implemented From MPC821 This document is preliminary as is shown on each page; please treat this information as such. Updated copies of this file will be posted on the PPS Home Page associated with the MPC823 as it becomes available. http://www.mot.com/pps/

MPC821

Abstract: T7 M17
Contextual Info: MPC821 Pin List Rev A Pin Functions (spec name) ale_a ale_b/dsck/at1 a[0] a[10] a[11] a[12] a[13] a[14] a[15] a[16] a[17] a[18] a[19] a[1] a[20] a[21] a[22] a[23] a[24] a[25] a[26] a[27] a[28] a[29] a[2] a[30] a[31] a[3] a[4] a[5] a[6] a[7] a[8] a[9] bb*

MPC823

Abstract: dsdi 7 pb23 MPC821 DSdi 5 DSDI
Contextual Info: MPC823 Pin Functions Implemented From MPC821 Updated copies of this file will be posted on the PPS Home Page associated with the MPC823 as it becomes available. http://www.mot.com/pso/ MPC821 Pin Description MPC823 Pin Description 823 Pins PORT A PA15/RXD1

MPC860

Contextual Info: SECTION 18 DEVELOPMENT SUPPORT Emulators require a level of control and observation that are in sharp contrast to the trend of modern microcomputers and microprocessors in which many bus cycles are directed to internal resources and are not externally visible. The same is true for bus analyzers. To

visionice

Abstract: 10 pin FRC connector AN2048 MPC860 DSDI 20-01 b superTAP SIUMCR
Contextual Info: 07/99 Application Note AN2048 Emulator Considerations When Designing with the MPC8xx NCSD Applications Motorola, Austin, Texas When attaching an emulator to the MPC8xx, some emulator specific considerations are called for. These can in some cases be generic recommendations, but in certain cases will

MPC821

Contextual Info: SECTION 19 DEVELOPMENT SUPPORT Emulators require a level of control and observation that are in sharp contrast to the trend of modern microcomputers and microprocessors in which many bus cycles are directed to internal resources and are not externally visible. The same is true for bus analyzers. To

MPC566

Abstract: motorola 2239 MPC565 MSRR
Contextual Info: SECTION 22 DEVELOPMENT SUPPORT 22.1 Overview The visibility and controllability requirements of emulators and bus analyzers are in opposition to the trend of modern microcomputers and microprocessors where many bus cycles are directed to internal resources and are not visible externally.