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PDF
45890.pdf
3V 5V 5V 50mA 40MHz 300V/µs 36V AD847* BIP 500µV 3.3µA 0.7V 1.6V 1.4V 1.4V 20mA 50MHz 300V/µs 36V OP07* BIP 30µV 1nA 1V 1V 2V 2V 25mA 600KHz 0.3V/µs 44V OP113* BIP 150µV 600nA 1V 0V 1V 0.5V 20mA 3.4MHz 1.2V/µs 36V OP177* BIP 10µV 2nA 1V 1V 1V 1V 25mA 600KHz 300V/µs 44V OP183* BIP 100µV 300nA 1.5V 0V 0.75V 0.09V 5KHz 15V/µs 36V OP184* BIP 175µV 80nA 0V 0V 0.15V 0.15V 10mA 4.25MHz 4V/µs 36V OP193* BIP 150µV 20nA 1V 0V 0.86V 0.28V 10mA 35KHz 0.015V/µs 36V OP27* BIP 30µV 15nA 2.7V 2.7V 2.2V 2.2V 25mA 8MHz 2.8V/µs 44V OP77* BIP 50µV
in „Schaltung Spannungsverstärkung in -5 - 5V out -50 - 50V ??“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Bootstrapping_your_op_amp_yields_wide_Voltage_Swings.pdf
3V 5V 5V 50mA 40MHz 300V/µs 36V AD847* BIP 500µV 3.3µA 0.7V 1.6V 1.4V 1.4V 20mA 50MHz 300V/µs 36V OP07* BIP 30µV 1nA 1V 1V 2V 2V 25mA 600KHz 0.3V/µs 44V OP113* BIP 150µV 600nA 1V 0V 1V 0.5V 20mA 3.4MHz 1.2V/µs 36V OP177* BIP 10µV 2nA 1V 1V 1V 1V 25mA 600KHz 300V/µs 44V OP183* BIP 100µV 300nA 1.5V 0V 0.75V 0.09V 5KHz 15V/µs 36V OP184* BIP 175µV 80nA 0V 0V 0.15V 0.15V 10mA 4.25MHz 4V/µs 36V OP193* BIP 150µV 20nA 1V 0V 0.86V 0.28V 10mA 35KHz 0.015V/µs 36V OP27* BIP 30µV 15nA 2.7V 2.7V 2.2V 2.2V 25mA 8MHz 2.8V/µs 44V OP77* BIP 50µV
in „Frequenzgenerator für 200V Vss“ · Mikrocontroller und Digitale Elektronik ·
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PDF
op-amp_bootstrapping__high_output_voltage_.pdf
3V 5V 5V 50mA 40MHz 300V/µs 36V AD847* BIP 500µV 3.3µA 0.7V 1.6V 1.4V 1.4V 20mA 50MHz 300V/µs 36V OP07* BIP 30µV 1nA 1V 1V 2V 2V 25mA 600KHz 0.3V/µs 44V OP113* BIP 150µV 600nA 1V 0V 1V 0.5V 20mA 3.4MHz 1.2V/µs 36V OP177* BIP 10µV 2nA 1V 1V 1V 1V 25mA 600KHz 300V/µs 44V OP183* BIP 100µV 300nA 1.5V 0V 0.75V 0.09V 5KHz 15V/µs 36V OP184* BIP 175µV 80nA 0V 0V 0.15V 0.15V 10mA 4.25MHz 4V/µs 36V OP193* BIP 150µV 20nA 1V 0V 0.86V 0.28V 10mA 35KHz 0.015V/µs 36V OP27* BIP 30µV 15nA 2.7V 2.7V 2.2V 2.2V 25mA 8MHz 2.8V/µs 44V OP77* BIP 50µV
in „Hochspannungs OPV Fehler/Vorschlag?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TB12To5.pdf
...................................................................................................27 3.3.3 48V zu 5V / 1W.....................................................................................................................................27 3.3.4 12V zu 5V / 5W.......................
in „Diskreter DC/DC-Wandler in LtSpice“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ln_423_425_3005XIII_schaltplan.pdf
CON2 1 CK D Q1 4 R32 Q6 10k 3 D6 R14 5 2 R11 2 D 3 IC5A 1 10k 1N4148 C19 10k EN V Q0 10k 2 6 1 1 1 27k 1015 10k R66 C22 100p 120k D C B 4520 1N4148 OP07C 7 104 A A A 1 C14 R38 LM358 1 1 2 3 4 5 6 7 8 9 1 1 3.9k C36 8 IC11B 750 +8V +5V D5 R12 4066 LED +5V 104 10k 103 +8V 11 10 R18 C35 -5V C C T 3 C 2
in „Labornetzgerät LN-423/425, 3005XIII, McPower 2x30V/5A - Verbesserungen u. Änderungen“ · Analoge Elektronik und Schaltungstechnik ·
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an920-d.pdf
R2 R1 R sc 36 k 12 k 2.7 C T 220 pF 9 10 11 12 13 14 15 16 GND V CC C I T pk OSC S Q −Comp R + 170 Op 1.25 V − Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 μH * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA Δ = 16 mV or ± 0.16% Load Regulation Vin 24 V, out= 25
in „MC34063 als Step Up arbeitet nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D_MC34063_Theory_and_Applications_.pdf
V + 47 R2 R1 Rsc 36 k 12 k 2.7 CT 220 pF 9 10 11 12 13 14 15 16 GND V CC CT Ipk OSC S Q Comp – R + Op 170 – 1.25 V Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 H * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA = 16 mV or 〉 0.16% Load Regulation V = 24 V, I = 25
in „Schaltregler MC34063 - Wie berechnet man CT?!“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D.PDF
V + 47 R2 R1 Rsc 36 k 12 k 2.7 CT 220 pF 9 10 11 12 13 14 15 16 GND V CC CT Ipk OSC S Q Comp – R + Op 170 – 1.25 V Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 H * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA = 16 mV or 〉 0.16% Load Regulation V = 24 V, I = 25
in „Frage zu Schaltregler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MC34063_AN920-D.PDF
V + 47 R2 R1 Rsc 36 k 12 k 2.7 CT 220 pF 9 10 11 12 13 14 15 16 GND V CC CT Ipk OSC S Q Comp – R + Op 170 – 1.25 V Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 H * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA = 16 mV or 〉 0.16% Load Regulation V = 24 V, I = 25
in „Spule für Schaltnetzteil“ · Mikrocontroller und Digitale Elektronik ·
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AN920-D.pdf
R2 R1 R sc 36 k 12 k 2.7 C T 220 pF 9 10 11 12 13 14 15 16 GND V CC C I T pk OSC S Q −Comp R + 170 Op 1.25 V − Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 μH * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA Δ = 16 mV or ± 0.16% Load Regulation Vin 24 V, out= 25
in „Spannungsregelung mit Step-Up/Down Regler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D_MC34063_Theory_and_Applications_.pdf
V + 47 R2 R1 Rsc 36 k 12 k 2.7 CT 220 pF 9 10 11 12 13 14 15 16 GND V CC CT Ipk OSC S Q Comp – R + Op 170 – 1.25 V Amp Ref + D1 8 7 6 5 4 3 2 1 1N5819 853 H * V out L 5 V/50 mA Co + 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA = 16 mV or 〉 0.16% Load Regulation V = 24 V, I = 25
in „MC34063 Strombegrenzung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AN920-D.PDF
V + 47 R2 R1 Rsc 36 k 12 k 2.7 CT 220 pF 9 10 11 12 13 14 15 16 GND V CC CT Ipk OSC S Q −Comp R + Op 170 1.25 V − Amp Ref D1 + 8 7 6 5 4 3 2 1 1N5819 853 μH * V out L 5 V/50 mA C + o 27 Test Conditions Results Line Regulation Vin 18 to 30 V,out= 50 mA Δ = 16 mV or ± 0.16% Load Regulation Vin 24 V, out
in „Suche Buck-Boost für LiIon-Spannung auf 3,3V“ · Analoge Elektronik und Schaltungstechnik ·
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tl431book.pdf
on loop control abounds with design examples of compensators implementing an operational amplifier (op amp). If the op amp certainly represents a possible way to generate an error signal, the industry choice for this function has been different for many years: almost all consumer power supplies involve
in „Sperrwandler Dimensionierung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ti_aktiv_filter_sloa088.pdf
difficult. In these cases, active filters become important. Active filters are circuits that use an op- erational amplifier (op amp) as the active device in combination with some resistors and capacitors to provide an LRC-like filter performance at low frequencies (Figure 16–1). C 2 R R L R 1 2 VIN VOUT
in „OP-Schaltung: Rechteck zu Sinus“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TLE4945-2G_InfineonTechnologiesAG.pdf
switch min. max. min. max. min. max. min. max. Junction Temperature T = —40 °C j Turn-ON induction B OP 7.5 19 10 20 15 27 — 3 6 mT Turn-OFF induction B RP 5.5 17 — 20 — 10 — 27 — 15 — 6 3 mT Hysteresis (BOPBRP BHY 2 6.5 20 40 30 54 1 5 mT Junction Temperature T= 25 °C j Turn-ON induction B 7 18 10 20 14 26 — 3 6 mT OP Turn-OFF induction B RP 5 16 — 20 — 10 — 26 — 14 — 6 3 mT Hysteresis (BOPBRP BHY 2 6 20 40 28 52 1 5 mT Junction Temperature Tj= 85 °C Turn-ON induction B 6.5 17.5 10 20 13 26 — 3 6 mT OP Turn-OFF induction
in „Untersuchung defektes VW Türsteuergerät“ · Fahrzeugelektronik ·
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PDF
153802-da-01-en-Hall-Sensor_TLE4945L.pdf
3) and the turn-on magnetic induction B is exceeded, the output of the Hall-effect IC will conduct OP (Operate Point). When the current is reduced, the output of the IC turns off (Release Point; Figure 4). + BrandedSide Ι S V N Q + - VS AES01231 Figure 3 Sensor/Magnetic-Field Configuration B BOP BRP
in „Welchen Hall- Sensor für Magnetfeld/Strommessung?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Typen.pdf
MC10195P 25 MC3446AP 70 MC14503BCP 70 MC10212P 40 MC14526BCP 80 MC14024 1 LM1889N 30 LH2114 40 671AP 36 OP27G 15 NE532N 150 MC14066BCP 40 DG412 40 GAL20V8B 10 SN74S02N 140 SN74H54N 70 SN74HC373N 60 IH5012CPE 40 LF356N 17 LF357N 20 MC1458P 25 MC10H116 20 U143M 29 MOC3041 16 MC10137P 30 DS8831N 22 CY7C281 30
in „Riesensammlung IC Prozessoren Halbleiter - Was tun?“ · Markt ·
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PDF
Typen_sort.pdf
TYPE ANZAHL OP27G 15 ________________ 28C86 80 2N2905A 80 2N3227 NPN Metall 50 2N3771 3 2N3866 Transistor TO2 60 2N4416 FET 9 2N5884 1 2N5885-86 14 3400EVA 9217MV 4 40 673 FET HP Transistor 60 54LS192J 60 671AP 36
in „Riesensammlung IC Prozessoren Halbleiter - Was tun?“ · Markt ·
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PDF
Mikrophon__Invensense_.pdf
be added to the recommended Analog Devices, Inc., op amps. signal to match the dynamic range of the microphone with the dynamic range of the codec. 0.1µF MICBIAS SUPPORTINGDOCUMENTS ADAOR761 EvLluationBoardUserGuide ADMP411 MINIMUM ADAU1361 UG-Output MEMS
in „Ungewöhnliches SMD-Pad“ · Platinen ·
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Datei
tbasic.c
_t fn(int16_t a, int16_t b) { return a op b; } OP2(i_plus, +) OP2(i_minus, -) OP2(i_mul, *) OP2(i_eq, ==) OP2(i_neq, !=) OP2(i_lt, <) OP2(i_lte, <=) OP2(i_gt, >) OP2(i_gte, >=) OP2(i_and, &) OP2(i_or, |) OP2(i_xor, ^) #undef OP2 int16_t i_div
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Datei
8080int-jmp.asm
instr fetch_nop, op_nop, store_nop ;23 ;NOP instr fetch_nop, op_nop, store_nop ;24 ;NOP instr fetch_nop, op_nop, store_nop ;25 ;NOP instr fetch_nop, op_nop, store_nop ;26 ;NOP instr fetch_nop, op_nop, store_nop ;27 ;NOP
in „CP/M auf ATmega88“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Datasheet.pdf
$0F MUX1:8 $00-$07 MUX1:16 (linke Hälfte) 1x16(8+8) $40-$47 (rechte Hälfte) 1x20 $00-$13 1x40 $00-$27 2x8 $00-$07 $40-$47 2x12 $00-$0B $40-$4B 2x16 $00-$0F $40-$4F 2x20 $00-$13 $40-$53 2x24 $00-$17 $40-$57 2x40 $00-$27 $40-$67 4x16 $00-$0F $40-$4F $10-$1F $50-$5F $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 4x20 $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) 4x40 - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET The internal Power-On-Reset works only at following Standard Value Item Symbol
in „LCD Display - 80C537“ · Mikrocontroller und Digitale Elektronik ·
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PDF
EAS.pdf
$0F MUX1:8 $00-$07 MUX1:16 (linke Hälfte) 1x16(8+8) $40-$47 (rechte Hälfte) 1x20 $00-$13 1x40 $00-$27 2x8 $00-$07 $40-$47 2x12 $00-$0B $40-$4B 2x16 $00-$0F $40-$4F 2x20 $00-$13 $40-$53 2x24 $00-$17 $40-$57 2x40 $00-$27 $40-$67 4x16 $00-$0F $40-$4F $10-$1F $50-$5F $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 4x20 $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) 4x40 - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET The internal Power-On-Reset works only at following Standard Value Item Symbol
in „Probleme mit EA W162B-N3LW (LCD-Display 2x16)“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LCD162CBL.pdf
$0F MUX1:8 $00-$07 MUX1:16 (linke Hälfte) 1x16(8+8) $40-$47 (rechte Hälfte) 1x20 $00-$13 1x40 $00-$27 2x8 $00-$07 $40-$47 2x12 $00-$0B $40-$4B 2x16 $00-$0F $40-$4F 2x20 $00-$13 $40-$53 2x24 $00-$17 $40-$57 2x40 $00-$27 $40-$67 4x16 $00-$0F $40-$4F $10-$1F $50-$5F $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 4x20 $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) 4x40 - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET The internal Power-On-Reset works only at following Standard Value Item Symbol
in „[V] 5 mal LCD 2x16 Zeichen, blau (neu, originalverpackt)“ · Markt ·
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PDF
LCD.pdf
$0F MUX1:8 $00-$07 MUX1:16 (linke Hälfte) 1x16(8+8) $40-$47 (rechte Hälfte) 1x20 $00-$13 1x40 $00-$27 2x8 $00-$07 $40-$47 2x12 $00-$0B $40-$4B 2x16 $00-$0F $40-$4F 2x20 $00-$13 $40-$53 2x24 $00-$17 $40-$57 2x40 $00-$27 $40-$67 4x16 $00-$0F $40-$4F $10-$1F $50-$5F $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 4x20 $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) 4x40 - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET The internal Power-On-Reset works only at following Standard Value Item Symbol
in „Anfänger Problem mit der Beleuchtung vom LCD“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LCD-Blau_Weis.pdf
$0F MUX1:8 $00-$07 MUX1:16 (linke Hälfte) 1x16(8+8) $40-$47 (rechte Hälfte) 1x20 $00-$13 1x40 $00-$27 2x8 $00-$07 $40-$47 2x12 $00-$0B $40-$4B 2x16 $00-$0F $40-$4F 2x20 $00-$13 $40-$53 2x24 $00-$17 $40-$57 2x40 $00-$27 $40-$67 4x16 $00-$0F $40-$4F $10-$1F $50-$5F $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 4x20 $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) 4x40 - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET The internal Power-On-Reset works only at following Standard Value Item Symbol
in „Mega32 LCD geht nicht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
slod006b.pdf
correctly. The impedance and noise errors are calculated prior to completing the error budget. The op amp input impedance works against the transducer output impedance to act like a volt- age divider. The value of the voltage divider is calculated in Equation 12–27, and as Equa- tion 12–27 indicates, the output resistance of the transducer is negligible compared to the input resistance of the op amp. This is not always the case! R 6 V + V IN + V 10 [ V (12–27) D T rc) R IN T 13 ) 10 6 T The ADC input impedance works against the op amp output impedance to act like a volt- age divider. The value
in „Einfache Verstaerkerschaltung mit OP“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
OP_Amps_for_slod006b.pdf
correctly. The impedance and noise errors are calculated prior to completing the error budget. The op amp input impedance works against the transducer output impedance to act like a volt- age divider. The value of the voltage divider is calculated in Equation 12–27, and as Equa- tion 12–27 indicates, the output resistance of the transducer is negligible compared to the input resistance of the op amp. This is not always the case! R 6 V + V IN + V 10 [ V (12–27) D T rc) R IN T 13 ) 10 6 T The ADC input impedance works against the op amp output impedance to act like a volt- age divider. The value
in „Vor- und Nachteile: Unipolare vs. Bipolare Spannungsversorgung bei OpAmps“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
LM358_LM158_LM258dual_op_amp.pdf
operation 0 Application areas include transducer amplifiers, dc gainn Pin-out same as LM1558/LM1458 dual op amp 4 blocks and all the conventional op amp circuits which now L can be more easily implemented in single power supply Features o systems. For example, the LM158 series can be directly n Available in
in „PWM Effektivwert messung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LM358_APPNOTE.pdf
Advantages 3 The LM158 series consists of two independent, high gain,n Two internally compensated op amps 5 internally frequency compensated operational amplifiers n Eliminates need for dual supplies / power supply over a wide range of voltages. Operation fromGNDows direct sensing near GND and OUT also
in „unipolar zu bipolar converter“ · Analoge Elektronik und Schaltungstechnik ·
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21483b.pdf
Outputs TC9400 TC9401 TC9402 Output Voltage — V DD– 1 — — V DD– 1 — — VDD – 1 — V Voltage Range of Op (Note 9) Amp Output for Speci- fied Non-Linearity Output Loading 2 — — 2 — — 2 — — kΩ Resistive Loading at Output of Op Amp Supply Current TC9400 TC9401 TC9402 DD Quiescent — 1.5 6 — 1.5 6 — 3 10 mA
in „Frequenzen vervielfachen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ina105.pdf
–V ) 100k O 2 1 2 1 Range = ±300µV For low source impedance applications, an input stage using OPA27 op 10 ampswillgivethebestlownoise,offset,andtemperaturedriftperformance. –15V At source impedances above about 10k , the bias current noise of the OPA27 reacting with the input impedance begins to dominate
in „"Hallsonde für Oszilloskop" im Eigenbau?!“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MKP_B32651_658.pdf
at T = 20 °C, unless otherwise specified. Operating temperature range Max. operating temperature T op,max +110 °C Upper category temperature T max +100 °C Lower category temperature T min ▯55 °C Rated temperature T R +85 °C Dissipation factor tanδ(in10 ) at ≤27 nF 27 nF<C ≤0.1RμF 0.1 μF<C ≤1 μF C R1
in „Schleichender Leistungsverlust an Siemens Induktionskochfeld“ · Haus & Smart Home ·
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PDF
SAM3X.pdf
immediate offset, pre-indexed immediate offset, or post-indexed immediate offset. 12.12.2.1 Syntax op{type}{cond} Rt, [Rn {, #offset}] ; immediate offset op{type}{cond} Rt, [Rn, #offset]! ; pre-indexed op{type}{cond} Rt, [Rn], #offset ; post-indexed opD{cond} Rt, Rt2, [Rn {, #offset}] ; immediate offset, two words opD{cond} Rt, Rt2, [Rn, #offset]! ; pre-indexed, two words opD{cond} Rt, Rt2, [Rn], #offset ; post-indexed, two words where: op is one of: LDR Load Register. STR Store Register. type is one of: B unsigned
in „ARM SAM3x Zähleingang“ · Mikrocontroller und Digitale Elektronik ·
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PDF
SAM3X.pdf
immediate offset, pre-indexed immediate offset, or post-indexed immediate offset. 12.12.2.1 Syntax op{type}{cond} Rt, [Rn {, #offset}] ; immediate offset op{type}{cond} Rt, [Rn, #offset]! ; pre-indexed op{type}{cond} Rt, [Rn], #offset ; post-indexed opD{cond} Rt, Rt2, [Rn {, #offset}] ; immediate offset, two words opD{cond} Rt, Rt2, [Rn, #offset]! ; pre-indexed, two words opD{cond} Rt, Rt2, [Rn], #offset ; post-indexed, two words where: op is one of: LDR Load Register. STR Store Register. type is one of: B unsigned
in „Arduino Due: Programmierung ohne 16U2“ · Mikrocontroller und Digitale Elektronik ·
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PDF
en.DM00428288.pdf
S L O U H L O U H L O U H B O B O O O 6 V V V 1 SWD_IO PA13 OCCOMP OCCOMP 1 2 5 2 SWD_CLK 37 PA14 OP1P 24 OP1P 0 R PA15 38 PA15 OP1N 23 OP1N 8 E UART1_TX 39 PB6 A OP1O 22 OP1O 3 0 S UART1_RX 40 F 21 S 4 U 41 PB7 3 TESTMODE 20 42 BOOT0 I PB1 19 PB1 3 4 RESE RVED P PA7 GPIO_BEMF 43 GND T PA6 18 CURR ENT_REF OP3P 44 OP3P S PA5 17 OP3N 45 OP3N PA4 16 PA5 OP3O 46 OP3O PA3 15 PA4 D 47 14 PA3 D 48 VDD PA2 13 PA2 0 V 2 F F 1 P 1 0 2 2 2 0 1 E S D 0 1 O C 1 P P P F F R R M W D A A R L 1 O O O P P V N V S V P P 4
in „Problem mit ST-Board zur BLDC-Ansteuerung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
3003E.pdf
10k 10k C33 R12 471 3.9k B VR2 B +5V C15 C17 1K +5V R13 +5V C16 104 R8 C18 4.7K 7 330 104 104 104 OP07C 2 D3 6 1 40 R33 R14 3 IC7 V+ OSC1 R27 1 V+ OSC1 40 330 10k 8 1N4148 VD1 2 d1 OSC 39 R30 VR4 1 100k 22k AD1 2 39 R28 R32 10K 4 C27 VC1 3 38 C35 d1 OSC 100k 22k c1 OSC0 AC1 3 38 -5V 104 100p c1 OSC0
in „Suche Schaltplan Netzgerät QJ3003E“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
QJ3003E_S_netzteil.pdf
10k 10k C33 R12 471 3.9k B VR2 B +5V C15 C17 1K +5V R13 +5V C16 104 R8 C18 4.7K 7 330 104 104 104 OP07C 2 D3 6 1 40 R33 R14 3 IC7 V+ OSC1 R27 1 V+ OSC1 40 330 10k 8 1N4148 VD1 2 d1 OSC 39 R30 VR4 1 100k 22k AD1 2 39 R28 R32 10K 4 C27 VC1 3 38 C35 d1 OSC 100k 22k c1 OSC0 AC1 3 38 -5V 104 100p c1 OSC0
in „QJE 3005E III Schaltbild“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Filter_Design.pdf
1uF E12: 10% Capacitor OpAmp (Stage 2) 1 Standard Ideal OpAmp R1 (Stage 3) 1 Standard 15KΩ E12: 10% Resistor R2 (Stage 3) 1 Standard 27KΩ E12: 10% Resistor C1 (Stage 3) 1 Standard 270nF E12: 10% Capacitor C2 (Stage 3) 1 Standard
in „Tiefpass Design so OK?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
lcd-blueline-w.pdf
:8 e 1x16(8+8) $00-$07 MUX1:16 (linke Hälfte) r $40-$47 (rechte Hälfte) v 1x20 $00-$13 g 1x40 $00-$27 u 2x8 $00-$07 $40-$47 e 2x12 $00-$0B $40-$4B d 2x16 $00-$0F $40-$4F Ä 2x20 $00-$13 $40-$53 e 2x24 $00-$17 $40-$57 c 2x40 $00-$27 $40-$67 i 4x16 $00-$0F $40-$4F $10-$1F $50-$5F h 4x20 $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 e $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 T 4x40 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET
in „LCD +Bascom zeigt 1. Zeile Nix 2. Zeile voll“ · Mikrocontroller und Digitale Elektronik ·
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lcd-blueline-w.pdf
:8 e 1x16(8+8) $00-$07 MUX1:16 (linke Hälfte) r $40-$47 (rechte Hälfte) v 1x20 $00-$13 g 1x40 $00-$27 u 2x8 $00-$07 $40-$47 e 2x12 $00-$0B $40-$4B d 2x16 $00-$0F $40-$4F Ä 2x20 $00-$13 $40-$53 e 2x24 $00-$17 $40-$57 c 2x40 $00-$27 $40-$67 i 4x16 $00-$0F $40-$4F $10-$1F $50-$5F h 4x20 $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 e $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 T 4x40 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET
in „Problem beim init eines lcd in Bascom“ · Mikrocontroller und Digitale Elektronik ·
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EAS.pdf
:8 e 1x16(8+8) $00-$07 MUX1:16 (linke Hälfte) r $40-$47 (rechte Hälfte) v 1x20 $00-$13 g 1x40 $00-$27 u 2x8 $00-$07 $40-$47 e 2x12 $00-$0B $40-$4B d 2x16 $00-$0F $40-$4F Ä 2x20 $00-$13 $40-$53 e 2x24 $00-$17 $40-$57 c 2x40 $00-$27 $40-$67 i 4x16 $00-$0F $40-$4F $10-$1F $50-$5F h 4x20 $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 e $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 T 4x40 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET
in „LCD-Display (HD44780) keine Ausgabe“ · Mikrocontroller und Digitale Elektronik ·
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LCD204BBL_EAS.pdf
:8 e 1x16(8+8) $00-$07 MUX1:16 (linke Hälfte) r $40-$47 (rechte Hälfte) v 1x20 $00-$13 g 1x40 $00-$27 u 2x8 $00-$07 $40-$47 e 2x12 $00-$0B $40-$4B d 2x16 $00-$0F $40-$4F Ä 2x20 $00-$13 $40-$53 e 2x24 $00-$17 $40-$57 c 2x40 $00-$27 $40-$67 i 4x16 $00-$0F $40-$4F $10-$1F $50-$5F h 4x20 $00-$13 $40-$53 $14-$27 $54-$67 Kontroller HD44780 e $00-$13 $20-$33 $40-$53 $60-$73 Kontroller KS0073 T 4x40 $00-$27 $40-$67 - - 1. Kontroller (Enable 1) - - $00-$27 $40-$67 2. Kontroller (Enable 2) 3 DOTMA TRIX LCD´S POWER-ON-RESET
in „Benötige Hilfe bei 4x20 LCD Treiber von Peter Danegger“ · Mikrocontroller und Digitale Elektronik ·
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Disassembler8048_mc1981.pdf
DISASSEMBLER 110 A$="0123456789ABCDEF" 120 DIM H$(15):FOR I=1 TO 16:H$(I-1)=MID$(A$,I,1):NEXT:GOTO 630 130 OP$=H$(INT(OP/16))+H$(OP-16*INT(OP/16)) 140 RETURN 150 DATA 00,NOP,02,"OUTL BUS/A",05/EN I,07,DEC A 160 DATA 08,"INS A,BUS"09,"IN A,P1",OA,"IN A,P2" OC 170 DATA "MOVD A,P4fl,OD,flMOVD A/P5"/OE/"MOVD A,P6
in „80C48 MCS48 Assembler“ · Mikrocontroller und Digitale Elektronik ·
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op8k.c
STAB_SIZE) #define SIGNBIT 0x1000 #define INDMASK (SIGNBIT-1) #define OSIGN (SIGNBIT<<1) int16_t (* const op_ws_p[8])(op_prop_t *o_p) = { // operator function by wavesel op_ws0, op_ws1, op_ws2, op_ws3, op_ws4, op_ws5, op_ws6, op_ws7 }; /* Waveselect = 0 : Normal sine wave */ /* y = sin(x) [0 <= x < 2pi] */
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OM6206U_Z.pdf
System (xS ) LOW 0 0 0 1 0 BS 2 BS 1 BS0 Reserved do not use (reserved for testLOW 0 1 X X X X X X Set OP write OPxto register LOW 1 VOP6 V OP5 V OP4 VOP3 VOP2 VOP1 VOP0 Table 2 Explanations for symbols in Table 1 BIT BIT VALUE DESCRIPTION RESET STATE PD 0 chip is active 1 1 chip is in Power-down mode V
in „Display VG-G090651 von Pollin“ · Mikrocontroller und Digitale Elektronik ·
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Platinfuch_IIa_BOM_20210217.pdf
Female header Microm_2x8_90° MicroMatch 8-215460-6 Farnell 245-2487 1.200 1.200 36 1 J5 Male header 1,27mm_2x4_THT Header 2x03; 1,27mm, 0° Farnell 186-5283 0.179 0.179 37 1 J6 Spring Contact Harwin String Contact Harwin S1761-42R Farnell 228-9773 0.158 0.158 38 1 J7 Solder Point --- 0.000 0.000 39 1 L1
in „Platinfuchs IIa: Isolierter, bidirektionaler 45W DC/DC Wandler zum Laden/Entladen eines Liion-Akkus“ · Projekte & Code ·
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8742.pdf
the UPI is ready for data. protocol. 290256–5 Data Bus Buffer Interrupt Capability 290256–3 EN FLAGS Op Code: 0F5H 1 1 1 1 0 1 0 1 2. 8 Bits of Status D7 D 0 ST7 ST 6 ST5 ST 4 F1 F0 IBF OBF D D D D D D D D 5. P26 and P27 are port pins or DMA handshake pins 7 6 5 4 3 2 1 0 for use with a DMA controller.
in „Code auslesen mit Verify?“ · Mikrocontroller und Digitale Elektronik ·
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WBND-S-A0011794841-1.pdf
bit address to access the entire 256Mb memory. /CS Mode 3 0 1 2 3 4 5 6 7 8 9 10 21 22 23 24 25 26 27 CLK Mode 0 Instruction (BCh) 32-Bit Address M7-0 DI 30 28 26 4 2 0 6 4 2 0 (IO0) DO (IO1) 31 29 27 5 3 1 7 5 3 1 * * * = MSB /CS 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 CLK IOs switch from
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Schaltplan eines Operationsverstärker-Vergleicherschaltkreises
R_A1 27kR 270kR 0.3V R_A2 OP1A R_Sh 33kR OPA2328 OP1B R_L 100MR R_B2 270kR R_B1 27kR U(out)
in „OPV - Verstärkung kleiner Spannungen nicht wie berechnet“ · Analoge Elektronik und Schaltungstechnik · · Schaltpläne
