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Datei
nrf24.c
wl_module_CSN_lo; /* Send cmd to read rx payload */ spi_fast_shift( R_RX_PAYLOAD ); /* Read payload */ spi_transfer_sync(data,data,payload_len); /* Pull up chip select */ wl_module_CSN_hi; /* Reset status register */ nrf24_configRegister(STATUS,(1<<RX_DR)); } /* Returns the number of retransmissions occured for
in „nrf24l01 sendet nicht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
1-buz171.pdf
1 MHz - 750 1000 Output capacitance C oss V = 0 V, V = -25 V, f = 1 MHz - 270 400 GS DS Reverse transfer capacitance C rss V GS= 0 V, DS = -25 V, f = 1 MHz - 120 180 Turn-on delay time t ns d(on) V DD = -30 V,GS = -10 V,DI = -2.9 A R GS = 50 - 20 30 Rise time tr V = -30 V, V = -10 V, I = -2.9 A DD GS
in „IRF9Z34N als Ersatz für BUZ171“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
nrf24.c
wl_module_CSN_lo; /* Send cmd to read rx payload */ spi_fast_shift( R_RX_PAYLOAD ); /* Read payload */ spi_transfer_sync(data,data,payload_len); /* Pull up chip select */ wl_module_CSN_hi; /* Reset status register */ nrf24_configRegister(STATUS,(1<<RX_DR)); } /* Returns the number of retransmissions occured for
in „NRF24L01 und Atmega328P“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STP16NF_--_156110-da-01-en-PWRMOS_60V_16A_STP16NF06L_STM.pdf
Input Capacitance V DS= 25V, f = 1 MHz,GS= 0 345 pF C oss Output Capacitance 72 pF C rss Reverse Transfer 29 pF Capacitance 2/9 STP16NF06L/FP ELECTRICAL CHARACTERISTICS (continued) SWITCHING ON Symbol Parameter Test Conditions Min. Typ. Max. Unit td(on) Turn-on Delay Time V DD = 30 V ID= 8 A 10 ns tr
in „Fragen zu Vorwiderständen (?) und MOSFET-Auswahl bei 12V-Steuerung am Raspberry Pi“ · Mikrocontroller und Digitale Elektronik ·
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PDF
8205.pdf
3.3 - Input Capacitance C iss VDS10V - 595 - Output Capacitance C oss VGS0V - 140 - pF Reverse Transfer Capacitance C rss f=1MHz - 125 - Turn-On Time td(on) VDD10V - 3.5 7 r RL=10Ω - 13.5 25 Turn-Off Time td(off) D =1.0A - 32 58 nS T f VGEN=4.5V - 6.6 13 RG=6Ω NOTE: 1. Pulse test: pulse width <= 300us
in „Unbekannter IC "IP9001"“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
EMB20P03G.pdf
Capacitance C iss 1407 V = 0V, V = ‐15V, f = 1MHz Output Capacitance C oss GS DS 208 pF Reverse Transfer Capacitance C rss 164 Gate Resistance Rg V GS 15mV, V = 0DS f = 1MHz 4.5 Ω Total Gate Charge 1,2 Q gV GS0V) 20.3 Q g VGS4.5V ) V DS = ‐15V, V GS‐10V, 9.8 I = ‐10A nC Gate‐Source Charge 1,2 Q gs D
in „Logo & Bezeichnung von defektem IC gesucht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
gp1a038rck_e.pdf
CC CC Supply current CC V CC.7to5.5V,I F11mA,AandBlowlevel − − 5 mA DA Duty ratio D 35 50 65 % *1Transfer B V =2.7 to 5.5V, I =11mA, Phase difference θAB1 to 4 CC +0.7 45 90 135 ˚ charac- f=10kHz, Z=0.3 −0.mm teristics tr − 1.0 2.0 µs Response time t − 1.0 2.0 µs f +0.7 Response frequency fmax VCC2.7to5.5V, I =F1mA, Z=0.3 −0.mm − − 20 kHz *1 Refer to the measuring condition. The values of transfer characteristics do not include an error of linear scale. Z is the distance between scale face and holder on the detector side. Fig.1 Output Waveforms tAP tAH ___ A Output θAB1 θAB4 D A AP ×100 θAB2
in „Motorsteuerung HP Drucker "Strichband"“ · Mikrocontroller und Digitale Elektronik ·
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PDF
gp1a038rck_e.pdf
CC CC Supply current CC V CC.7to5.5V,I F11mA,AandBlowlevel − − 5 mA DA Duty ratio D 35 50 65 % *1Transfer B V =2.7 to 5.5V, I =11mA, Phase difference θAB1 to 4 CC +0.7 45 90 135 ˚ charac- f=10kHz, Z=0.3 −0.mm teristics tr − 1.0 2.0 µs Response time t − 1.0 2.0 µs f +0.7 Response frequency fmax VCC2.7to5.5V, I =F1mA, Z=0.3 −0.mm − − 20 kHz *1 Refer to the measuring condition. The values of transfer characteristics do not include an error of linear scale. Z is the distance between scale face and holder on the detector side. Fig.1 Output Waveforms tAP tAH ___ A Output θAB1 θAB4 D A AP ×100 θAB2
in „Gabellichtschranke (Drucker). Welche Ausgangsstufe?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
datasheet_ao3400.pdf
iss Input Capacitance 630 pF C oss Output Capacitance V GSV, V =DSV, f=1MHz 75 pF C rss Reverse Transfer Capacitance 50 pF R Gate resistance V =0V, V =0V, f=1MHz 1.5 3 4.5 g GS DS SWITCHING PARAMETERS Q g Total Gate Charge 6 7 nC Q gs Gate Source Charge V GS=4.5V, VDS15V, I D5.8A 1.3 nC Q Gate Drain
in „24v rgbww controller mosfets und ic's“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TXSTM-POWERMOSFET-STX-16NF06L_EN.pdf
Input Capacitance V DS= 25V, f = 1 MHz,GS= 0 345 pF C oss Output Capacitance 72 pF C rss Reverse Transfer 29 pF Capacitance 2/9 STP16NF06L/FP ELECTRICAL CHARACTERISTICS (continued) SWITCHING ON Symbol Parameter Test Conditions Min. Typ. Max. Unit td(on) Turn-on Delay Time V DD = 30 V ID= 8 A 10 ns tr
in „TLC5940 (Arduino Mega) flackert. Wie Kondensatoren einsetzen?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
1811081213_Alpha---Omega-Semicon-AO3400A_C20917.pdf
iss Input Capacitance 630 pF C oss Output Capacitance V GSV, V =DSV, f=1MHz 75 pF C rss Reverse Transfer Capacitance 50 pF R Gate resistance V =0V, V =0V, f=1MHz 1.5 3 4.5 g GS DS SWITCHING PARAMETERS Q g Total Gate Charge 6 7 nC Q gs Gate Source Charge V GS=4.5V, VDS15V, I D5.7A 1.3 nC Q Gate Drain
in „Suche Bauteil XOXL-3E“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AO3400A.pdf
iss Input Capacitance 630 pF C oss Output Capacitance V GSV, V =DSV, f=1MHz 75 pF C rss Reverse Transfer Capacitance 50 pF R Gate resistance V =0V, V =0V, f=1MHz 1.5 3 4.5 g GS DS SWITCHING PARAMETERS Q g Total Gate Charge 6 7 nC Q gs Gate Source Charge V GS=4.5V, VDS15V, I D5.7A 1.3 nC Q Gate Drain
in „Umsetzung eines 5V Output mit ESP32 und AQY Halbleiterrelais“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STR751FR0T6.pdf
the MCO. Figure 44. ADC accuracy characteristics Digital Result ADCDR EG (1) Example of an actual transfer curve 1023 (2) The ideal transfer curve 1022 VDDA – SSA (3) End point correlation line 1021 1LSB IDEAL= ------------------------- 1024 (2) E =Total Unadjusted Error: maximum deviation ET between the actual and the ideal transfer curves. 7 (3) E =Offset Error: deviation between the first actual (1) transition and the first ideal one. 6 EG=Gain Error: deviation between the last ideal 5 transition and the last actual one. EO
in „DAB Radio mit ARM Prozessor, HD44780 Display (BlueTinum BT-H1801)“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LTC1859.pdf
0V 1 FS/2 – 1LSB LSB INPUT VOLTAGE (V) INPUT VOLTAGE (V) 1859 F4a 1859 F4b Figure 4a. Unipolar Transfer Characteristics (UNI = 1) Figure 4b. Bipolar Transfer Characteristics (UNI = 0) 185789f 12 LTC1857/LTC1858/LTC1859 U U W U APPLICATIO S I FOR ATIO 1800 11 1111 1111 1111 for the LTC1858 and between
in „LTC1859 merkwürdige Messwerte“ · Mikrocontroller und Digitale Elektronik ·
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PDF
an-937_gateDrive.pdf
it has many limitations that must be overcome with additional components. A transformer can only transfer to Horiz: 500ns/div the secondary the AC component of the input signal. Consequently, their output voltage swings from negative to positive by an amount that changes with the duty cycle, as Figure
in „Gatekapazität (FET)“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
tlc59401.pdf
SIN, XLAT pin –1 1 μA I Input current V I GND; MODE pin –1 1 μA V I V CC; MODE pin 50 μA No data transfer, all output OFFO V = 1 V(IREF) 10 kΩ 0.9 6 mA No data transfer, all output OFFO V = 1 V(IREF) 1.3 kΩ 5.2 12 mA CC Supply current Data transfer 30 MHz, all output ON, V = 1 V, R = 1.3 kΩ 16 25 mA O (IREF) Data transfer 30 MHz, all output ON, V = 1 V, R = 640 Ω 30 60 mA O (IREF) O(LC) Constant output current All output ON, O = 1 V, (IREF) 640 Ω 54 61 69 mA lkg Leakage output current All output OFF, O = 15 V, (IREF
in „TLC59401 ansteuern“ · Mikrocontroller und Digitale Elektronik ·
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PDF
PS-ITG-3200-00-01.4.pdf
defined to be 8 bits long. There is no restriction to the number of bytes transmitted per data transfer. Each byte transferred must be followed by an acknowledge (ACK) signal. The clock for the acknowledge signal is generated by the master, while the receiver generates the actual acknowledge signal
in „STK600 / Atmega 2560 per TWI mit ITG-3200 verbinden“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MMC5633NJL.pdf
MEMSIC device should acknowledge th receipt of the address (9 SCL pulse, SDA pulled low). DATA TRANSFER 3rd cycle: The Master device writes to the Internal A data transfer is started with a “START” condition and Control Register 0 the code [00100001] (TM_M and ended with a “STOP” condition. A “START
in „Sensor Array ansprechen mit I2C - Unterschiede zu Mega2560 und Seeed RP2040“ · Mikrocontroller und Digitale Elektronik ·
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PDF
tlc5941.pdf
SCLK, SIN, XLAT pin –1 1 I Input current VI= GND; MODE pin –1 1 A V = V ; MODE pin 50 I CC No data transfer, all output OFFO V = 1 V,(IREF) 10 kΩ 0.9 6 No data transfer, all output OFFO V = 1 V,(IREF) 1.3 kΩ 5.2 12 CC Supply current mA Data transfer 30 MHz, all output ON,OV = 1 V, (IREF) 1.3 kΩ 16 25 Data transfer 30 MHz, all output ON, V = 1 V, R = 640 Ω 30 60 O (IREF) O(LC) Constant output current All output ON, O = 1 V, R(IREF) 640 Ω 54 61 69 mA lkg Leakage output current All output OFF, O = 15 V, R(IREF
in „TLC5941 Vorwiderstände und Spannungsversorgung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
focal.pdf
that GOTO always transfers control to the single statement number given to it, while JUMP and IF transfer to one of a number of possible statements based on a test. 5.1 The GOTO Command In the following example, the GOTO statement sends control back to a statement that counts the number of times it has
in „Object Oriented Forth“ · Mikrocontroller und Digitale Elektronik ·
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Datei
MJoy.asm
------------------ FinishReceiving: ;corrective actions for receive termination cpi bitcount,7 ;transfer to buffer also last not completed byte breq NoRemainingBits ;if were all bytes transfered, then nothing transfer inc bitcount ShiftRemainingBits: rol shiftbuf ;shift remaining not completed bits on
in „AVR Joystickprogrammierung“ · Mikrocontroller und Digitale Elektronik ·
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Datei
MJoy.asm
------------------ FinishReceiving: ;corrective actions for receive termination cpi bitcount,7 ;transfer to buffer also last not completed byte breq NoRemainingBits ;if were all bytes transfered, then nothing transfer inc bitcount ShiftRemainingBits: rol shiftbuf ;shift remaining not completed bits on
in „error: Operand 1 out of range:“ · Mikrocontroller und Digitale Elektronik ·
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PDF
esp32-c3_technical_reference_manual_en.pdf
Data Modes 591 27.5.2 FSPI Bus Signal Mapping 592 27.5.3 Bit Read/Write Order Control 594 27.5.4 Transfer Modes 594 27.5.5 CPU-Controlled Data Transfer 594 27.5.5.1 CPU-Controlled Master Mode 595 27.5.5.2 CPU-Controlled Slave Mode 596 27.5.6 DMA-Controlled Data Transfer 596 27.5.6.1 GDMA Configuration
in „Mit dem ESP32C3 laufen lernen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
esp32-c3_technical_reference_manual_en.pdf
Data Modes 591 27.5.2 FSPI Bus Signal Mapping 592 27.5.3 Bit Read/Write Order Control 594 27.5.4 Transfer Modes 594 27.5.5 CPU-Controlled Data Transfer 594 27.5.5.1 CPU-Controlled Master Mode 595 27.5.5.2 CPU-Controlled Slave Mode 596 27.5.6 DMA-Controlled Data Transfer 596 27.5.6.1 GDMA Configuration
in „ESP32C3 > PLL“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MLX90614ESF-BAA.pdf
...................................................................................15 8.4.5 Bit transfer..................................................................................................................................................................................16 8.4.6 Commands..
in „Wärmebildkamera für Arme“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DS_FT230X.pdf
UART Controller handles the transfer of data between the FIFO RX and FIFO TX buffers and the UART transmit and receive registers. It performs asynchronous 7 or 8 bit parallel to serial and serial to parallel conversion of the data on
in „FT230X-S kaufen“ · Markt ·
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PDF
AN1040-D.PDF
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „Welches Transistorgehäuse ist am besten zu kühlen?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AN1040-D.PDF
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „Wärmewiderstand Rthg - Rthgk“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN1040-D.PDF
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „Gibt es Alternativen zu Silikonpads?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AN1040-D.pdf
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „Kurzschluss durch Kühlörper?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN1040-D.PDF
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „Reicht das Eloxal als Isolierung?“ · Mechanik, Gehäuse, Werkzeug ·
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PDF
AN1040-D.pdf
http://onsemi.com 19 AN1040/D APPENDIX A THERMAL RESISTANCE CONCEPTS The basic equation for heat transfer under steady–state PD = power dissipation conditions is generally written as: R θJC = semiconductor thermal resistance (junction to case), q = hA T (1) where q = rate of heat transfer or power R θCS
in „MOSFET Power Dissipation“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Atmega128_doc2467.pdf
Transfer Master or Slave Operation LSB First or MSB First Data Transfer Seven Programmable Bit Rates End of Transmission Interrupt Flag Write Collision Flag Protection Wake-up from Idle Mode Double Speed (
in „ATMEGA128 Timer“ · Mikrocontroller und Digitale Elektronik ·
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Datei
xnutboot.c
first packet, cancel or end-of-transmission to arrive. * Continuously send NAKs to initiate the transfer. */ pn = 1; /* XMODEM starts with packet number one. */ for (;;) { ch = RecvPacket(pn, buff); if (ch != ASC_TMO && ch != ASC_ERR) { break; } SendOctet(ASC_NAK); } /* * We received a packet or a request to stop the transfer. */ ec = 0; bofs = 0; addr = 0; for (;;) { /* * Process a packet. */ if (ch == ASC_SOH) { #if XMODEM_PACKET_SIZE != SPM_PAGESIZE /* * If the packet size differs from the size of the flash write *
in „Bootloader auf Basis des xnutboot Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
xnutboot.c
first packet, cancel or end-of-transmission to arrive. * Continuously send NAKs to initiate the transfer. */ pn = 1; /* XMODEM starts with packet number one. */ for (;;) { ch = RecvPacket(pn, buff); if (ch != ASC_TMO && ch != ASC_ERR) { break; } SendOctet(ASC_NAK); } /* * We received a packet or a request to stop the transfer. */ ec = 0; bofs = 0; addr = 0; for (;;) { /* * Process a packet. */ if (ch == ASC_SOH) { #if XMODEM_PACKET_SIZE != SPM_PAGESIZE /* * If the packet size differs from the size of the flash write *
in „AVR Bootloader (Basis: xnutboot) Problem bei Programmübertragung“ · Mikrocontroller und Digitale Elektronik ·
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Datei
xnutboot.c
first packet, cancel or end-of-transmission to arrive. * Continuously send NAKs to initiate the transfer. */ pn = 1; /* XMODEM starts with packet number one. */ for (;;) { ch = RecvPacket(pn, buff); if (ch != ASC_TMO && ch != ASC_ERR) { break; } SendOctet(ASC_NAK); } /* * We received a packet or a request to stop the transfer. */ ec = 0; bofs = 0; addr = 0; for (;;) { /* * Process a packet. */ if (ch == ASC_SOH) { #if XMODEM_PACKET_SIZE != SPM_PAGESIZE /* * If the packet size differs from the size of the flash write *
in „CRC-16 Implementierung unverständlich“ · Mikrocontroller und Digitale Elektronik ·
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Datei
xnutboot.c
first packet, cancel or end-of-transmission to arrive. * Continuously send NAKs to initiate the transfer. */ pn = 1; /* XMODEM starts with packet number one. */ for (;;) { ch = RecvPacket(pn, buff); if (ch != ASC_TMO && ch != ASC_ERR) { break; } SendOctet(ASC_NAK); } /* * We received a packet or a request to stop the transfer. */ ec = 0; bofs = 0; addr = 0; for (;;) { /* * Process a packet. */ if (ch == ASC_SOH) { #if XMODEM_PACKET_SIZE != SPM_PAGESIZE /* * If the packet size differs from the size of the flash write *
in „Zeitproblem beim AVR-Flashen via XMODEM“ · Mikrocontroller und Digitale Elektronik ·
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Datei
xnutboot_1281.c
first packet, cancel or end-of-transmission to arrive. * Continuously send NAKs to initiate the transfer. */ pn = 1; /* XMODEM starts with packet number one. */ for (;;) { ch = RecvPacket(pn, buff); if (ch != ASC_TMO && ch != ASC_ERR) { break; } SendOctet(ASC_NAK); } /* * We received a packet or a request to stop the transfer. */ ec = 0; bofs = 0; addr = 0; for (;;) { /* * Process a packet. */ if (ch == ASC_SOH) { #if XMODEM_PACKET_SIZE != SPM_PAGESIZE /* * If the packet size differs from the size of the flash write *
in „Zeitproblem beim AVR-Flashen via XMODEM“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Simple__C-based_ADCs__Part_1_.pdf
open) 2. OUT = bn long enough to charge C; then OUT → hi-Z (open) 3. SW = 1 long enough for charge transfer between C1 and C2 to equalize 4. Decrement n. Go to 1. Another way to implement a simple DAC is to use a µC PWM output. Filter it through an RC integrator, where the RC time constant is much larger
in „Frage zu kapazitiven Sensoren“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
user_logic.vhd
to IP write chip enable -- IP2Bus_Data -- IP to Bus data bus -- IP2Bus_RdAck -- IP to Bus read transfer acknowledgement -- IP2Bus_WrAck -- IP to Bus write transfer acknowledgement -- IP2Bus_Error -- IP to Bus error response ----------------------------------------------------------------------------
in „Eigenen Code sauber in PLB Slave Template einbinden“ · FPGA, VHDL & Co. ·
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PDF
1-bsp171.pdf
f = 1 MHz - 720 960 Output capacitance C oss V GS= 0 V, DS = -25 V, f = 1 MHz - 290 435 Reverse transfer capacitance Crss V GS= 0 V, DS = -25 V, f = 1 MHz - 120 180 Turn-on delay time t ns d(on) V DD= -30 V, GS = -10 VD I = -0.3 A R GS = 50 - 16 25 Rise time r V DD= -30 V, GS = -10 VD I = -0.3 A R GS
in „High Side Switch“ · Mikrocontroller und Digitale Elektronik ·
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Datei
user_logic.vhd
to IP write chip enable -- IP2Bus_Data -- IP to Bus data bus -- IP2Bus_RdAck -- IP to Bus read transfer acknowledgement -- IP2Bus_WrAck -- IP to Bus write transfer acknowledgement -- IP2Bus_Error -- IP to Bus error response ----------------------------------------------------------------------------
in „startan 3e starte kit, DAC in C in SDK“ · FPGA, VHDL & Co. ·
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Datei
user_logic.vhd
to IP write chip enable -- IP2Bus_Data -- IP to Bus data bus -- IP2Bus_RdAck -- IP to Bus read transfer acknowledgement -- IP2Bus_WrAck -- IP to Bus write transfer acknowledgement -- IP2Bus_Error -- IP to Bus error response ----------------------------------------------------------------------------
in „spartan 3e starter kit, DAC in C in SDK“ · FPGA, VHDL & Co. ·
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Datei
user_logic.vhd
to IP write chip enable -- IP2Bus_Data -- IP to Bus data bus -- IP2Bus_RdAck -- IP to Bus read transfer acknowledgement -- IP2Bus_WrAck -- IP to Bus write transfer acknowledgement -- IP2Bus_Error -- IP to Bus error response ----------------------------------------------------------------------------
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PDF
datasheet.pdf
= 1 MHz - 400 530 Output capacitance Coss V = 0 V, V = 25 V, f = 1 MHz - 120 180 GS DS Reverse transfer capacitance Crss V GS= 0 V, DS = 25 V, f = 1 MHz - 70 105 Turn-on delay time t ns d(on) V DD= 30 V, GS = 10 V,DI = 3 A R GS = 50 - 10 15 Rise time r V = 30 V, V = 10 V, I = 3 A DD GS D R GS = 50 -
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Datei
LCD.asm
lcd_backlight_off: sbi CTRL2, lcd_backlight ret ;********************************** convert_and_transfer_px: lds txdata, px_24bit_ro ;konvertiert 24-Bit-Pixel zu 16-Bit-Pixel andi txdata, 0b11111000 lds tempA, px_24bit_gr swap tempA lsr tempA andi tempA, 0b0000111 or txdata, tempA rcall lcd_wrdata lds
in „ansteuerung für LDS176-controller (nokia 6610 lcd)“ · Projekte & Code ·
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Datei
i2c.c
I2C_ERROR; } if (bbs_u2smr) { return I2C_ERROR; } else { i2c_cnt = slen; //total number of bytes to transfer i2c_rlen = 0; //nothing to read i2c_sendbuf = senddata; i2c_res = res; *i2c_res = I2C_BUSY; // send a start condition, everything else is done by interrupts asm("fclr i"); stareq_u2smr4 = 1; stspsel_u2smr4
in „Ansteuerung EEPROM über I2C von M16C62P“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BSS169.pdf
capacitance C - 51 68 pF iss V GS=-10 V, VDS =25 V, Output capacitance C oss f=1 MHz - 9 13 Reverse transfer capacitance C rss - 4 7 Turn-on delay time td(on) - 2.9 4.2 ns V DD=50 V, Rise time tr - 2.7 4.0 V GS=-3…7 V, Turn-off delay time td(off) ID=0.12 A, R G6 Ω - 11 17 Fall time tf - 27 40 Gate Charge
in „Strombegrenzung mit Fet um Akku zu laden“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
CM300DY-24H.pdf
Capacitance Cies – – 60 nF Output Capacitance Coes V GE = 0V, CE = 10V, f = MHz – – 21 nF Reverse Transfer Capacitance C – – 12 nF res Resistive Turn-on Delay Time td(on) – – 250 ns Load Rise Time tr V CC = 600V,CI = 300A, – – 500 ns Switching Turn-off Delay Time td(off) VGE1 = VGE2 = 15V, RG= 1.0 – –
in „teslaspulenverzweiflung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
IRF7822.pdf
Input Capacitance Ciss – 5500 – Output Capacitance C – 1000 – pF V = 16V, V = 0 oss DS GS Reverse Transfer Capacitance C – 300 – rss Source-Drain Rating & Characteristics Parameter Min Typ Max Units Conditions Diode Forward V 1.0 V I = 15AR, V = 0V SD S GS Voltage* Reverse Recovery Q rr 120 nC di/dt ~
in „Falsches Ladegerät am Notebook :-(“ · Mikrocontroller und Digitale Elektronik ·