0x51 Value of 0x48 = 0x79 Value of 0x49 = 0x00 Value of 0x4A = 0x00 Value of 0x4B = 0x00 Value of 0x4C = 0x00 Value of 0x4D = 0x04 Value of 0x4E = 0x00 Value of 0x4F = 0x40 Value of 0x50 = 0x34 Value of 0x51 = 0x0C Value of 0x52 =
e r tio n lo s s ss th a n L e ss th a n L e ss th a n L ess th ari w ith in th e 1.5 dB 1.5 dB 1.5 dB 1.5 dB p ass b an d A tte n u a tio n M ore than 20 dB M ore than 35 dB M ore than 35 dB M ore than
Wiring and Grounding Guidelines, publication 1770-4.1. Rockwell Automation Publication 2080-UM001F-EN-E - November 2016 49 Appendix A Specifications Non-isolated AC Inputs (2080-LC10-12AWA) Attribute Value On-state voltage, nom 120/240V AC On-state voltage, min 79V AC On-state voltage, max 265V AC Off-state
Spannungsversorgung LM2575HVS-5.0 +5V IC11 +5V +3V3 4 FB IN 1 U6 D L1 D D D C17 2 IN OUT 4 2 Out N N N 100yF E G G + 5 1 330yF +330yH 5 3 6 SD ERR U1 +5V C18 D39 1N5819 51 64 MIC29201X/TO220 50 PA0/AD0 AVCC 49 PA1/AD1 21 48 PA2/AD2 VCC 52 Ein & Ausgänge PA3/AD3 VCC 47 PA4/AD4 46 PA5/AD5 AREF 62 45 PA6/AD6 LM2575HVS
T T T T T 9 P P P P P P P P P 0 - - - - - - - - - R1 - C C C C C C C C C V 2 P P P P P P P P P + A E 2 V 6 2 S GND 5 7 C + 8 C 1 C 1 GND I 0 C 2 VCC D C 3 CONTR 1 4 RS C 5 x 6 R/W 1 7 E Y IC1 GND 8 D0 L R5 D1 S R 20 RESET (AD7)PA7 44 9 D2 D _ 10k (AD6)PA6 45 GND 10 D3 D X 23 XTAL2 (AD5)PA5 46 11 D4 L 6 (AD4)PA4 47 12 D5 _ 24 48 13 R 3 XTAL1 (AD3)PA3 49 14 D6 G C 62 (AD2)PA2 50 15 D7 U 64 AREF (AD1)PA1 51 16 NC T AVCC (AD0)PA0 NC 63 GND (OC2/OC1C)PB7 17 5 52 VCC (OC1B)PB6 16 + C4 21 VCC (OC1A)PB5 15 22 14 53 GND (OC0)PB4 13 GND (MISO)PB3 12 IC5 18 (
NPN transistor with a breakdown voltage, LDAA #$38 ;SS, SCK, MOSI = OUTPUTS STAA DDRD ;SEND DATA DIRECTION INFO BV CEO , greater than 32 V can be used as shown in Figure 12. LDAA #$50 ;DABL INTRPTS, SPI IS MASTER & ON STAA SPCR ;CPOL=0, CPHA=0,1MHZBAUDRATE
s n d h g f o a 9 1 6 4 8 3 J1301 e t M w 7 2 G s 4 4 3 8 8 3 R1314 R1315 10R/1W 10R/1W V1302A 5 5 V1303A KT88 KT88 - R1344 R1356 m n 1K 10k49 10k50 1K r u s e P1301 P1302 e s R1345 10k -80V 10k R1354 u i 100k 100k R e C1303 R1307 +420V
Hi, ich habe hier noch einen alten x121e mit E-350, den ich wegen seiner Größe gerne für pickit-Einsätze benutzen würde. https://thinkwiki.de/X121e Leider ist die Mühle seit Windows 7 zu langsam für normale Tätigkeiten. Also kam mir der
Marcello E. schrieb im Beitrag #6776417: > Im Gegensatz zu dir hat Nur_ein_Typ sehr versöhnliche Worte > angeschlagen. Er hätte nach "900ss D" Kommentar einfach die Klappe halten können. Siehe: https:/
read from unless lock bits have been activated. 0401F–MICRO–11/03 1 Pin Configurations TQFP PDIP ) ) E 0 1 2 3 ) (T2) P1.0 1 40 VCC S 2 2) D D D D (T2 EX) P1.1 2 39 P0.0 (AD0) ( ( T( ( A(A(A ( . 3.2.1 . . C C . 1.2.3 . P1.2 3 38 P0.1 (AD1) P P P P P N V P P P P 0 0 P1.3 4 37 P0.2 (AD2) (SS) P1.4 5 36
read from unless lock bits have been activated. 0401F–MICRO–11/03 1 Pin Configurations TQFP PDIP ) ) E 0 1 2 3 ) (T2) P1.0 1 40 VCC S 2 2) D D D D (T2 EX) P1.1 2 39 P0.0 (AD0) ( ( T( ( A(A(A ( . 3.2.1 . . C C . 1.2.3 . P1.2 3 38 P0.1 (AD1) P P P P P N V P P P P 0 0 P1.3 4 37 P0.2 (AD2) (SS) P1.4 5 36
read from unless lock bits have been activated. 0401F–MICRO–11/03 1 Pin Configurations TQFP PDIP ) ) E 0 1 2 3 ) (T2) P1.0 1 40 VCC S 2 2) D D D D (T2 EX) P1.1 2 39 P0.0 (AD0) ( ( T( ( A(A(A ( . 3.2.1 . . C C . 1.2.3 . P1.2 3 38 P0.1 (AD1) P P P P P N V P P P P 0 0 P1.3 4 37 P0.2 (AD2) (SS) P1.4 5 36
read from unless lock bits have been activated. 0401F–MICRO–11/03 1 Pin Configurations TQFP PDIP ) ) E 0 1 2 3 ) (T2) P1.0 1 40 VCC S 2 2) D D D D (T2 EX) P1.1 2 39 P0.0 (AD0) ( ( T( ( A(A(A ( . 3.2.1 . . C C . 1.2.3 . P1.2 3 38 P0.1 (AD1) P P P P P N V P P P P 0 0 P1.3 4 37 P0.2 (AD2) (SS) P1.4 5 36
PIP203 - PIU101 PIU105 SWDIO PIP204 - PIU104 PC3 PH0-OSC_IN(PH0) PIU106 nRST PIP205 P P LED_GREEN RE E N 25 PC4 PH1-OSC_OUT(PH1) SWO 6 B D P LED_RED 0 R E D TSN PI3705 PC5 PIP206 6 W RSM PI3807 PC6 60 B S PIU108 PC7 BOOT0 PIU060 PXPI3 GND PIU109 PC8 NRST PIU107 GND nRST PIU100 PC9 PC X2X P EN_GATE G A
Factor 90 95 85 90 80 85 ) ) ( 75 V I (80 VI y 90 V y 190 V n 70 130 V n75 220 V i i i 110 V f 250 V E 65 E70 60 65 60 55 50 55 0 2 4 6 8 10 12 0 2 4 6 8 10 12 Output Current (A) Output Current (A) Fig. 5 Operating Efficiency; Low AC-Line Fig. 6 Operating Efficiency; High AC-Line 1 1 Range Range 7.2 Typical
PB7 10 19 PB5 (SCK) (T1) PD5 11 18 PB4 (MISO) (AIN0) PD6 12 17 PB3 (MOSI/OC2) (AIN1) PD7 13 16 PB2 (SS/OC1B) (ICP1) PB0 14 15 PB1 (OC1A) TQFP Top View ) ) L A ) S S ) ) ) E /5 4 3 2 ) T D D S C C C C I T R R A A A A D 2 1 0 6 5 4 3 2 ( ( D D D C C C C C P P P P P P P P 3 3 3 2 2 2 2 2 (INT1) PD3 1 24
(Figure4.b)reducestheθ JAto64°C/W.Evenfurther, increasing the copper area of pad to 70mm (Figure 4.e) reduces the θJA to 49°C/W. DS8279-01 December 2011 www.richtek.com 11 RT8279 The maximum power dissipation depends on operating ambient temperature for fixed T and thermal J (MAX) resistance θJA For
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
o t r P O n n r t r P R P p a p c 2 e / / / r S a L e C A S r u l s F l I I A f p m R T E U M t o u B m P R C o S E I M P L i i C a - F r 8 1 y RA0 7 AN0 DACOUT CPS0 C1IN+ — — P1B (1) TX (1) SDO (1) IOC MDOUT Y ICSPDAT CK (1) SS(1) ICDDAT
– Data – – t * Connect unused control pins and data bus pinsor VVata Data DB[8]=SDAn DB[0]=SCK DD SS. e Disable Init bus CInit bus init color Init bus init color Interface state state mapping fstate mapping 16-bit ✓ – – ✓ n ✓ ✓ 8-bit ✓ – – ✓ ✓ ✓ S8uc ✓ – – ✓ o ✓ ✓ • CS disable bus interface – CS can
CBUS2 OSCI 11CBUS3 3.3V 9CBUS4 D B B R10 3k3 1 PIO4 D D D ND A T OSCO 28 1 2 R9 3k3 2 PIO3 N N N G H E R8 3k3 3 PIO6 G G G A T T R7 3k3 4 PIO7 2 1 4 2 3 2 S1 R18 R15 300k 300k A A J3 O O SPI_MISO 0 1 1 2 SPI_MOSI 3 SPI_SCK 4 SPI_SS R17 R16 5 3.3V 100k 100k 6 SPI Host 2021 Microchip Technology Inc. DS50002328B-page
900ss D. schrieb im Beitrag #6444912: > Ufff ist das schon wieder so lange her? :-))
, ist die aufgedruckte Typenbezeichnung falsch rum (steht dann auf dem Kopf). SWCLK an PA14 (Pin49) SWDIO an PA13 (Pin46) Kann das hinkommen? https://www.mouser.de/datasheet/2/389/stm32f103c8-1851025.pdf
D D D D D D D E E E E P P P P P P P P P P P P 48 47 46 45 44 43 42 41 40 39 38 37 NRST 1 36 PG1 OSCIN/PA1 2 35 PG0 OSCOUT/PA2 3 34 PC7 (HS/SPI_MISO 4 33 VSSIO_1 PC6 (HS/SPI_MOSI VSS 5 32 VDDIO_2 VCAP 6 31 VSSIO_2 VDD
Systemtechnik Region : Süddeutschland (Angebote verteilen sich da) Verschiedene Angebote: 58kE @ 40Std. mit Überstundenvergütung 30 Tage Urlaub + Benefits, 1000MA 62kE @ Vertrauensarbeitszeit ohne Überstundenvergütung 26 Tage Urlaub, + Bonus 1000MA 58kE @ 40Std. mit Überstundenvergütung 30 Tage Urlaub + Benefits 100MA 69kE @ 35Std. mit Überstundenvergütung 30 Tage Urlaub, 1000MA 50kE @ 39Std. öffentlicher Dienst Merke: Die Streuung der Angebote ist erheblich! Vergleichen lohnt!
P P Note: For full details on pinout and pin functions refer to “Pinout and Pin Functions” on page 49. 3 8067I–AVR–04/09 XMEGA A1 Figure 2-2. CBGA-pinout Top view Bottom view 1 2 3 4 5 6 7 8 9 10 10 9 8 7 6 5 4 3 2 1 A A B B C C D D E E F F G G H H J J K K Table 2-1. CBGA-pinout 1 2 3 4 5 6 7 8 9 10
be turn ON by the port value. 4-4 KS51840/51850 MICROCONTROLLER DEVELOPME NT TOOLS J101 1 24 VSS V SS XIN 2 23 X IN 3 22 X OUT 2 X OUT P2.6 4 - 21 P2.6 5 D 20 P0.0 P P0.0 P0.1 6 O 19 P0.1 7 C 18 P0.2 E P0.2 P0.3 8 T 17 P0.3 9 16 P1.0 P1.0 P1.1 10 15 P1.1 P1.2 11 14 P1.2 P1.3 12 13 P1.3 Figue 4-3. 24
CLS Microprocessor Interface I/O Buffer CS A0 RD WR RES IM0 IM1 IM2 D7 D6 D5 D4 D3 D2 D1 D0 (SA0) (E) (R/W) (SI/SDA) (SCL) 2 V0.1 SH1106 Pad Configuration (TBD) 10 SS SS 1 7 3 2 6 M M M M C C C C Chip Outline Dimensions Item Pad No. Size (µm) X Y Chip boundary - 5060 814 Chip height All pads 300 I/O
E.D.A. 9.0.4 Id: 1/3 F F 1 2 3 4 5 6 7 8 1 2 3 4 5 6 7 8 3 A A J206 1 SW_{DIO}2 C208 10u 5U206 SW_{CLK}3 100n C216 g C 1 4 b 4 3 5 e C209 100n 6 D V_{RTC} C 4 6 8 B 6 } } 7 C S D X C210 100n 1 ~{CS} C
. Service Modes and Fault Finding 31 6. Alignments 39 7. Circuit Descriptions 43 8. IC Data Sheets 49 1. TPN15.1E LA Revision List evision List nual xxxx xxx xxxx.0 10.19 AL 715G7004 Ambilight Board and 10.20 AL First release. 715G6981 Ambilight Board. Chapter 11: Added styling sheets 11.8 6300 series
through the pdf in the Acrobat reader. white to force landscape pages to be ... a P u B p y C s 1 D e 5 o c 7 n s u g o m s e n a c h d c o e / r v 3 r P H d F c 4 p M 1 c S c Fig.5 Logic diagram; for one latch see Fig.6. I B i n Philips Semiconductors Product specification HEF4511B BCD to 7-segment latch
