auch eine Platine > auflegen. Aber so..., was möchtest du denn für die Platine haben? Nachdem er 10 Stück hat: Itead 10 St. mit Versand = 28$ = 22€ / 10 St. = 2,20€ + Versand
lief ohne Fehler. An der Therme Max.KW abgefragt kommt 5KW. > über EBUSD abgefragt (immer mit r -f ) auch wieder 5. Über EBUSD 10 > übermittelt, über EBUSD abgefragt 10. An der Therme abgefragt 5, dann > über EBUSD auch 5. Manuell auf 10KW, EBUSD auch 10 angezeigt. EBUSD auf > 20 gestellt, 10
voltage C = 2 mA; VCE= 5 V; note 2 580 660 700 mV C = 10 mA; VCE= 5 V − − 770 mV C collector capacitance I = i = 0; V = 10 V; f = 1 MHz − 1.5 − pF c E e CB Ce emitter capacitance C = c = 0;EB = 0.5 V; f = 1 MHz− 11 − pF T transition frequency C = 10mA; VCE = 5 V; f = 100 MHz 100 − − MHz F noise figure I = 200 A; V = 5 V; − 2 10 dB C CE RS= 2 k ; f = 1 kHz; B = 200 Hz Notes 1. V BEsatecreases by about 1.7 mV/K with increasing temperature. 2. V BEdecreases by about
60 A GSS gate leakage current VDS = 0; GS= ±20 V − − ±100 nA R drain-source on-state resistance = 10 V; I = 400 mA − 4.5 6 DSon GS D yfs forward transfer admittance D = 400 mA; DS = 25 V 140 350 − mS Ciss input capacitance VDS = 25 V;GS = 0; f = 1 MHz − 45 − pF C output capacitance V = 25 V; V = 0; f = 1 MHz − 15 − pF oss DS GS Crss reverse transfer capacitance VDS = 25 V;GS = 0; f = 1 MHz − 3.5 − pF Switching times (see Figs 2 and 3) on turn-on time VGS = 0 to 10 VDDV= 50 V; − 5 − ns D = 250 mA
Nachtrag, Du warst zu schnell ... X7R in 0805 gibts bei Darisus: CVUF010K0805 - SMD-Vs-Ko. 10uF 6,3V 10% X7R 0805 0,36€ Rudi
Nachtrag, Du warst zu schnell ... > > X7R in 0805 gibts bei Darisus: > CVUF010K0805 - SMD-Vs-Ko. 10uF 6,3V 10% X7R 0805 0,36€ > > Rudi Ja, wenn die jetzt noch den Micrel hätten, das wäre nicht zum Aushalten ;-))) Old-Papa
mV Cc collector capacitance E = e = 0;CB = 10 V; f = 1 MHz − − 1.5 pF Ce emitter capacitance C = c = 0;EB = 500 mV; f = 1 MHz − 11 − pF f transition frequency I = 10 mA; V = 5 V; f = 100 MHz100 − − MHz T C CE Note 1. Pulse test: t 300 s; δ ≤ 0.02
landscape pages to be ... 1 T P 9 E h 8 T w 7 0 p A A h s r N W e 7 + VP D d m 100 2200 A a i c 4700 F nF F P g g n C1− C1+ VP1 VP2 L n h u 3 5 9 10 C s e t T t fi r CLASS-B O c c s status I/O6 CLASS-H TEMPERATURE LOAD DUMP N f e FAST MUTE SENSOR PROTECTION N c n F i c O t y mode 4 STANDBY disableLIFT-SUPPLY
landscape pages to be ... 1 T P 9 E h 8 T w 7 0 p A A h s r N W e 7 + VP D d m 100 2200 A a i c 4700 F nF F P g g n C1− C1+ VP1 VP2 L n h u 3 5 9 10 C s e t T t fi r CLASS-B O c c s status I/O6 CLASS-H TEMPERATURE LOAD DUMP N f e FAST MUTE SENSOR PROTECTION N c n F i c O t y mode 4 STANDBY disableLIFT-SUPPLY
ground separated on the PCB. Table 8. Component values for typical application Component Value C1 100 F C2 100 nF CA 1 nF CB 1 nF C 220 nF BOOT C 10 nF P C 5.6 nF ENA CENB 5.6 nF C REFA 68 nF C REFB 68 nF D1 1N4148 D2 1N4148 RA 39 K RB 39 K RENA 100 K RENB 100 K R 100 P R 0.3 SENSEA R 0.3 SENSEB
ground separated on the PCB. Table 8. Component values for typical application Component Value C1 100 F C2 100 nF CA 1 nF CB 1 nF C 220 nF BOOT C 10 nF P C 5.6 nF ENA C ENB 5.6 nF CREFA 68 nF CREFB 68 nF D1 1N4148 D2 1N4148 RA 39 K RB 39 K R ENA 100 K R ENB 100 K R 100 P R 0.3 SENSEA R 0.3 SENSEB
Im Anhang ein BLDC Servo Motor Controller fuer 50V, 10A. Mit PIC18F4431 uC. RS232, Encoder Interface
klassisch mit CU-blank verlege 0,6 / 0,8 mm wird, die Masse ist dabei immer ziemlich fett ausgelegt, 100nF an jedem IC und kleine Elkos(10-100 uF) über die gesamte Schaltung verteilt, was ich gerade so zur Hand habe.
One No. 3-350 (size “D”) 34.20 1.346 Jacket: Plastic Label 57.00 2.244 Shelf Life: 7 years 57.80 2.276 59.50 2.343 Temperature Effects 61.50 2.421 10000 Typical Service to 0.8 Volts 1000 45 C o 20 C r o 100 H e i r 10 S o -10 C 1 0.1 0.1 1 10 100 1000 Discharge Resistance, Ohms Constant Resistance Discharge
collector current (DC) − 800 mA Ptot total power dissipation Tamb≤ 25 °C − 500 mW hFE DC current gain C = 10 mA; CE = 10 V 75 − T transition frequency C = 20 mA; CE = 20 V; f = 100 MHz 2N2222 250 − MHz 2N2222A 300 − MHz off turn-off time Con= 150 mA; Bon= 15 mA; Boff −15 mA − 250 ns 1997 May 29 2 Philips Semiconductors
collector current (DC) − 800 mA Ptot total power dissipation Tamb≤ 25 °C − 500 mW hFE DC current gain C = 10 mA; CE = 10 V 75 − T transition frequency C = 20 mA; CE = 20 V; f = 100 MHz 2N2222 250 − MHz 2N2222A 300 − MHz off turn-off time Con= 150 mA; Bon= 15 mA; Boff −15 mA − 250 ns 1997 May 29 2 Philips Semiconductors
collector current (DC) − 800 mA Ptot total power dissipation Tamb≤ 25 °C − 500 mW hFE DC current gain C = 10 mA; CE = 10 V 75 − T transition frequency C = 20 mA; CE = 20 V; f = 100 MHz 2N2222 250 − MHz 2N2222A 300 − MHz off turn-off time Con= 150 mA; Bon= 15 mA; Boff −15 mA − 250 ns 1997 May 29 2 Philips Semiconductors
voltage I = −10 mA; I = −0.5 mA − −300 mV CEsat C B C = −100 mA; B = −5 mA − −650 mV VBE base-emitter voltage C = −2 mA; VCE= −5 V −500 −750 mV C collector capacitance I = i = 0; V = −10V; f = 1 MHz − 5 pF c E e CB T transition frequency C = −5 mA; VCE= −5 V; 100 − MHz f = 100 MHz F noise figure C = −0.2 mA; CE = −5 V; − 4 dB RS= 2 k ; f = 1 kHz; B = 200 Hz 1999 Apr 27 3 Philips Semiconductors Product specification PNP general purpose transistor ED1602 PACKAGE OUTLINE
B e r n d W. schrieb im Beitrag #3384299: > Ist dieser 50 nF und 10 Ohm vom Ausgang gegen GND dran? Du meinst die 100 nF und 10 Ohm vom Ausgang gegen GND? Die sind dran. 470n parallel dazu bringt keine Besserung, das gleiche gilt für die Elkos. > Parallel
> verändert das Zuschalten von 2pF zum Drehko die Frequenz um ca. 140Hz. Dann benötigt Rit einen Kapazitätsbereich von ca. 4-20 pF mit einer Mittelstellung bei ca. 10pF. Bei Tx wird eine Festkapazität von 10pF parallel geschaltet,
base-emitter voltage I = 500 mA; V = 1 V; note 1 − − 1.2 V BE C CE Cc collector capacitance E = e = 0;CB = 10 V; f = 1 MHz − 5 − pF T transition frequency C = 10 mA; VCE= 5 V; f = 100 MHz100 − − MHz Note 1. V BEdecreases by about 2 mV/K with increasing temperature. 1999 Apr 15 3 Philips Semiconductors Product
base-emitter voltage I = 500 mA; V = 1 V; note 1 − − 1.2 V BE C CE Cc collector capacitance E = e = 0;CB = 10 V; f = 1 MHz − 5 − pF T transition frequency C = 10 mA; VCE= 5 V; f = 100 MHz100 − − MHz Note 1. V BEdecreases by about 2 mV/K with increasing temperature. 1999 Apr 15 3 Philips Semiconductors Product
base-emitter voltage I = 500 mA; V = 1 V; note 1 − − 1.2 V BE C CE Cc collector capacitance E = e = 0;CB = 10 V; f = 1 MHz − 5 − pF T transition frequency C = 10 mA; VCE= 5 V; f = 100 MHz100 − − MHz Note 1. V BEdecreases by about 2 mV/K with increasing temperature. 1999 Apr 15 3 Philips Semiconductors Product
emitter-base cut-off current VEB= 5 V;CI = 0 − − 1 mA hFE DC current gain VCE= 5 V;CI = 5 A; see Fig.10 15 − − V = 5 V; I = 100 mA; 20 50 100 CE C see Fig.10 f transition frequency V = 10 V; I = 200 mA; − 20 − MHz T CE C f = 1 MHz 1997 Aug 14 2 Philips Semiconductors Product specification Silicon diffused
saturation voltaIC= 2 A; B = 0.2 A − − 0.5 V VBE base-emitter voltage IC= 5 mA; V CE = 10 V − 0.6 − V IC = 2 A; CE = 1 V − − 1.2 V T transition frequency IC= 50 mA; V CE = 5 V; f = 100 MHz − 130 − MHz hFE1 DC current gain ratio of the IC = 0.5 A; CE = 1 V − − 1.6 ---------- complementary pairs hFE2 MGD844 handbook, full pagewidth hFE 250 200 150 100 50 0 10−1 1 10 102 10 104 IC(mA) VCE= 1 V. Fig.2 DC current gain; typical values. 1997 Mar 07 4 Philips Semiconductors Product specification NPN power transistor BD329 PACKAGE OUTLINE Plastic single-ended leaded
data setup time tDS6 40 — Write data hold time tDH6 20 — D[7:0] Read data access time tACC6 CL = 16 pF — 140 Read data output disable time tOH6 CL = 16 pF 10 100 Ver 1.2a 60/77 2016/12/06 ST7567A (VDD1 = 1.8V , Ta =25 C) Item Signal Symbol Condition Min. Max. Unit Address setup time tAW6 0 — A0 Address
to 70°C 200 V/ s V S= ±5V, AVCL=–2, (Note 3) 150 250 V/ s 0°C to 70°C 130 V/ s Full Power Bandwidth 10V Peak, (Note 4) 6.4 MHz GBW Gain-Bandwidth V S= ±15V, f = 1MHz 45 MHz V S ±5V, f = 1MHz 34 MHz tr ft Rise Time, Fall Time V S ±15V, A VCL= 1, 10%to 90%, 0.1V 5 ns V S ±5V, A VCL = 1, 10%to 90%, 0.1V
UNIT CBO collector cut-off current E = 0; CB = −32 V − − −100 nA I = 0; V = −32 V; T = 150 °C − − −10 A E CB j EBO emitter cut-off current C = 0; EB = −5 V − − −100 nA hFE DC current gain C = −5 mA; VCE= −10 V 50 − − I = −0.5 A; V = −1 V; see Fig.2 85 − 375 C CE C = −2 A; CE = −1 V; see Fig.2 40 − −
: bad instruction `dcd TIM1_UP_TIM10_IRQHandler' libraries/CMSIS/Device/ST/STM32F4xx/Source/Templates/arm/startup_stm32f429_439xx.s:112: Error: bad instruction `tim1 Update and TIM10' libraries/CMSIS/Device/ST/STM32F4xx/Source/Templates
C CE BC639-10 63 160 BC635-16; BC637-16; BC639-16 100 250 V collector-emitter saturation voltI = 500 mA; I = 50 mA − 500 mV CEsat C B VBE base-emitter voltage C = 500 mA; VCE= 2 V − 1 V T transition frequency C =
BD135-10; BD137-10; BD139-10 (see Fig.2) 63 − 160 BD135-16; BD137-16; BD139-16 100 − 250 V collector-emitter saturation volI = 500 mA; I = 50 mA − − 0.5 V CEsat C B VBE base-emitter voltage IC= 500 mA; VCE =
BD135-10; BD137-10; BD139-10 (see Fig.2) 63 − 160 BD135-16; BD137-16; BD139-16 100 − 250 V collector-emitter saturation volI = 500 mA; I = 50 mA − − 0.5 V CEsat C B VBE base-emitter voltage IC= 500 mA; VCE =
y, and z- axes measurements are stored in FIFO. 3.7 Auxiliary ADC The LIS3DH contains an auxiliary 10 bit ADC with 3 separate dedicated inputs. Doc ID 17530 Rev 1 17/42 Application hints LIS3DH 4 Application hints Figure 5. LIS3DH electrical connection ADC1 ADC2 Vdd 10µF 16 14 Vdd_IO 1 13 ADC3 TOP VIEW
y, and z- axes measurements are stored in FIFO. 3.7 Auxiliary ADC The LIS3DH contains an auxiliary 10 bit ADC with 3 separate dedicated inputs. Doc ID 17530 Rev 1 17/42 Application hints LIS3DH 4 Application hints Figure 5. LIS3DH electrical connection ADC1 ADC2 Vdd 10µF 16 14 Vdd_IO 1 13 ADC3 TOP VIEW
15 25 50 15 25 50 mA Output Connected to GND 10 10 mA en Output Voltage Noise 10Hz ≤ f ≤1kHz 2.5 4 2.5 4 ppm(RMS) (Note 9) 0.1Hz ≤ f ≤ 10Hz 2.5 2.5 ppm(P-P) The denotes specifications which apply over the full operating Note 6: Thermal regulation
