RC2 1 = SDO function is on RA4 bit 5 SSSEL: Pin Selection bit For 8 Pin Devices (PIC12F/LF1822): 0 = SS function is on RA3 1 = SS function is on RA0 For 14 Pin Devices (PIC16F/LF1823): 0 = SS function is on RC3 1 = SS function is on RA3 bit 4 Unimplemented: Read as ‘0’ bit 3 T1GSEL: Pin Selection bit 0
RC2 1 = SDO function is on RA4 bit 5 SSSEL: Pin Selection bit For 8 Pin Devices (PIC12F/LF1822): 0 = SS function is on RA3 1 = SS function is on RA0 For 14 Pin Devices (PIC16F/LF1823): 0 = SS function is on RC3 1 = SS function is on RA3 bit 4 Unimplemented: Read as ‘0’ bit 3 T1GSEL: Pin Selection bit 0
RC2 1 = SDO function is on RA4 bit 5 SSSEL: Pin Selection bit For 8 Pin Devices (PIC12F/LF1822): 0 = SS function is on RA3 1 = SS function is on RA0 For 14 Pin Devices (PIC16F/LF1823): 0 = SS function is on RC3 1 = SS function is on RA3 bit 4 Unimplemented: Read as ‘0’ bit 3 T1GSEL: Pin Selection bit 0
RC2 1 = SDO function is on RA4 bit 5 SSSEL: Pin Selection bit For 8 Pin Devices (PIC12F/LF1822): 0 = SS function is on RA3 1 = SS function is on RA0 For 14 Pin Devices (PIC16F/LF1823): 0 = SS function is on RC3 1 = SS function is on RA3 bit 4 Unimplemented: Read as ‘0’ bit 3 T1GSEL: Pin Selection bit 0
RC2 1 = SDO function is on RA4 bit 5 SSSEL: Pin Selection bit For 8 Pin Devices (PIC12F/LF1822): 0 = SS function is on RA3 1 = SS function is on RA0 For 14 Pin Devices (PIC16F/LF1823): 0 = SS function is on RC3 1 = SS function is on RA3 bit 4 Unimplemented: Read as ‘0’ bit 3 T1GSEL: Pin Selection bit 0
Gerät nichts einzuwenden. Dabei fiel mir dieses Gerät auf: http://www.ebay.de/itm/261205659646?ssPageName=STRK:MEWAX:IT&_trksid=p3984.m1423.l2649 HT-CS01 Es macht einen sehr hochwertigen Eindruck, scheint aber die 7-8-9 Heizungsstelle nicht zu haben. Gibt es möglichkeiten, dieses Gerät dennoch
Hi, hab eine Vaillant VC 110 Heiztherme, also ohne Warmwasserbereitung. Kann man zwei VRT-PZA Raumthermostate im wechsel an 789 betreiben ? Habe zwei Wohnzimmer und möchte immer nur das jeweilige Raumthermostat nutzen und
oscillator input, 50 Hz or event-pulse input OSCO 2 2 output oscillator output RESET 3 3 input reset V SS 4 4 supply ground supply voltage SDA 5 5 input/output serial data line SCL 6 6 input serial clock line INT 7 7 output open-drain interrupt output (active LOW) V DD 8 8 supply supply voltage PCF8593 All
unless otherwise specified) Item Symbol Absolute maximum rating Unit VIN pin voltage A, C, E types V V SS 0.3 to SS 12.0 V B, D, F types IN V SS 0.3 to SS 18.0 V VOUT pin voltage A, C, E types V V SS 0.3 to SS 12.0 V B, D, F types OUT V SS 0.3 to SS 18.0 V ______ A, C, E types V OFF___ V SS
circuit version of the E C 7 7 6 6 5 popular QT1080 sensor IC. The QT1081 is designed for low cost E YN SS NS N N N N appliance, mobile, and consumer electronics applications. D S V S S S S S 24 23 22 21 20 19 1817 QTouch™ technology is a type of patented charge-transfer sensing OUT_0 25 16 SNS5 method well
= 010xxxxxx + 00100000 = 011xxxxxx + 00100000 = 100xxxxxx + 00100000 = 101xxxxxx + 00100000 = 110xxxxxx + 00100000 = 111xxxxxx + 00100000 = 000xxxxxx + 00100000 = ... Die x-en bleiben dabei was auch immer sie sind.
Gepufferter Transmitter und Receiver - Flexiblere Baudrateneistellung durch UBRR - Die Problematik mit dem SS-PIN entfällt >Man benötigt doch nur einen SPI Bus. Es gibt aber 4 verschiedene SPI-Modes. Und es ist wesentlich entspannter dafür unterschiedliche Hardware zu nutzen. MfG Spess
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 34. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 32, the first SCK edge is the MSB capture strobe
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 65 4235D–8051–12/03 drive
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 16-6. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 16-4, the first SCK edge is the MSB capture strobe
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture Point Figure 16-6. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 16-4, the first SCK edge is the MSB capture strobe
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 64 AT89C51RD2/ED2 4235F–
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 64 AT89C51RD2/ED2 4235F–
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 64 AT89C51RD2/ED2 4235F–
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 64 AT89C51RD2/ED2 4235F–
Master for eight clock cycles which allows to exchange one Byte on the serial lines. Slave Select (SS) Each Slave peripheral is selected by one Slave Select pin (SS). This signal must stay low for any message for a Slave. It is obvious that only one Master (SS high level) can 64 AT89C51RD2/ED2 4235F–
bit1 LSB MISO (from Slave) MSB bit6 bit5 bit4 bit3 bit2 bit1 LSB SS (to Slave) Capture point Figure 19-6. CPHA/SS Timing MISO/MOSI Byte 1 Byte 2 Byte 3 Master SS Slave SS (CPHA = 0) Slave SS (CPHA = 1) As shown in Figure 19-5, the first SCK edge is the MSB capture strobe
------------- Connection Index : 0x09 (9) Length : 0x10 (16 bytes) SupportedUsbProtocols : 0x03 Usb110 : 1 (yes, port supports USB 1.1) Usb200 : 1 (yes, port supports USB 2.0) Usb300 : 0 (no, port not supports USB 3.0) ReservedMBZ : 0x00 Flags : 0x00 DevIsOpAtSsOrHigher : 0 (Device is not operating at SuperSpeed or higher) DevIsSsCapOrHigher : 0 (Device is not SuperSpeed capable or higher) DevIsOpAtSsPlusOrHigher : 0 (Device is not operating at SuperSpeedPlus or higher) DevIsSsPlusCapOrHigher : 0 (Device is not SuperSpeedPlus
reference pin.A resistor should be connected between this pin and V .Set the current at 10 A maximum. SS Voltage Output High Level for COM Signal 13 VCOMH O This pin is the input pin for the voltage output high level for COM signals. A capacitor should be connected between this pin aSS V Interface Chip
D D D D D CL S V A A V L L L L V S S V 8 7 6 5 4 3 2 1 0 9 8 7 4 4 4 4 4 4 4 4 4 3 3 3 VSS 1 36 V SS LED0 2 35 LED19 LED1 3 34 LED18 LED2 4 33 LED17 LED3 5 32 LED16 V 6 31 V SS PCA9626B SS VSS 7 30 V SS LED4 8 29 LED15 LED5 9 28 LED14 LED6 10 27 LED13 LED7 11 26 LED12 VSS 12 25 VSS 3 4 5 6 7 8 9 0 1
pin) VIN VSS –0.6 ≤V IN≤V DD+0.6 V Input/output clamp current (SS> Vi/Vo > VDD) IK OK ±15 mA Min. ESD protection (100 pF through 1.5 Ω ) ±2 kV Operating temperature range T -40 to +85 °C amb Storage temperature range T STG -40 to +125 °C Soldering temperature (t≤ 10s
1.48V, Umax=3.56V schwarz +12V Vbat K108 vio T101 R404 R405 R407 6 K109 braun D101 +4V F 1 F 2 n 3 +/ K110 C101 R105 5k6 1k8 500 1k8 T401 6 n 6 n 6 0 6 µ T100 SH_ON/OFF C 1 C 1 C 1 C 0 1K +12V D403 +4V_SW 1 BCW66 100nF IC400 IRLML6401 R106 a IC600 Lüften/Heizen i uD d o P6KE6V8CA C408 VL Vcc U600 680 + V
1.48V, Umax=3.56V schwarz +12V Vbat K108 vio T101 R404 R405 R407 6 K109 braun D101 +4V F 1 F 2 n 3 +/ K110 C101 R105 5k6 1k8 500 1k8 T401 6 n 6 n 6 0 6 µ T100 SH_ON/OFF C 1 C 1 C 1 C 0 1K +12V D403 +4V_SW 1 BCW66 100nF IC400 IRLML6401 R106 a IC600 Lüften/Heizen i uD d o P6KE6V8CA C408 VL Vcc U600 680 + V
package is§110, junction to ambient. Note 3: These specificationsSapp15V and Ground pin at grou55§C TAsa 12§ C, unless otherwise stated. With the LM211, however, all temperature specifications are §imited t§ C. The
B5 B4 B3 B2 B1 B0 SPCTL 85H name SSIG SPEN C DORD MSTR CPOL CPHA SPR1 SPR0 SSIG : Control whether SS pin is ignored or not. If SSIG=1, MSTR(SPCTL.4) decides whether the device is a master or slave. If SSIG=0,Tthe SS pin decides whether the device is a master or slave. SS pin can be used as I/O port.
function is enabled via the Enhanced Feature Register (EFR[6]) for hardware flow control operation. V SS 9 19 16 - ground V SS - - center pad - The center pad on the back side of the HVQFN24 package is metallic and should be connected to ground on the printed-circuit board. [1] Selectable with IOControl
DO Data Out CAS Column Address Strobe WE Read/Write Input VCC Power Supply (+ 5 V) V Ground (0 V) SS TF Test Function N.C. No Connection Semiconductor Group 34 HYB 511000BJ/BJL-50/-60/-70 1 M 1-DRAM Pin Configuration (top view) SOJ-26/20-1 Semiconductor Group 35 HYB 511000BJ/BJL-50/-60/-70 1 M 1-DRAM
Eingänge wie mosi und nss und sck. Was heißt "wie bei den anderen Eingängen"? Wenn du MOSI, SS und SCK als Eingänge bezeichnest, beziehst du dich offenbar auf den Slave. Beim Slave ist aber MISO ein *Ausgang*. Soweit aus deinen Posts zu entnehmen, betreibst du den Master mit 5V und den Slave mit
V RSTB, WRB, RDB and D15~D0 Low level input voltage at PS, C80, V IL RSTB, WRB, RDB and D15~D0 - V SS - 0.3V DD V V OH High level output voltage at D15~D0 IOH-0.1mA 0.85V DD - VDD V V OL Low level output voltage at D15~D0 IOL0.1mA V SS - 0.15VDD V IIL Input leakage voltage at PS, C80, V IN DD or VSS
V RSTB, WRB, RDB and D15~D0 Low level input voltage at PS, C80, V IL RSTB, WRB, RDB and D15~D0 - V SS - 0.3V DD V V OH High level output voltage at D15~D0 IOH-0.1mA 0.85V DD - VDD V V OL Low level output voltage at D15~D0 IOL0.1mA V SS - 0.15VDD V IIL Input leakage voltage at PS, C80, V IN DD or VSS
nachweisen, und zwar auch tagsüber; nach dem Ant.-Verstärker sieht es dann schon besser aus: Wenige zig mV-SS... :-) Die Ursache bei dir könnte im Antennen- bzw. Empfangsteil begründet sein, schätze ich. Der Zahn der Zeit (🦷⏳) schrieb im Beitrag #6703191: > für das, was er mit > "etwas jittern" ganz
lock über 2-3 Tage für höchste Genauigkeit! Bei mir hier ist der Bereich ca. 40-90kHz (wie auch 110-300kHz) tagsüber ein einziger Matsch, das ist der am meisten gestörte Frequenzbereich. - Ich muß meine eigenen Leuchtmittel auch entstören, 2 der zuletzt eingebauten machen sogar 11m und FM-Radio fast
300 Mio. Euro (2010) Mitarbeiter 2.600 weltweit (2010) Macht pro MA einen Umsatz von ca 110 k€/jahr. Mit Faktor 2,3 gibt das ein durchsch. Jahresbrutto von 47000€. Au weia schrieb im Beitrag #2443595: > Abgesehen davon solltest Du Dich mal informieren was Zeitarbeit ist. > > Schon
wer lesen kann… ach was du weißt schon. Übrigens ist das "weißt" im vorigen Satz mit Absicht mit "ß" geschrieben, somit hast du was zum Nachdenken. Ich bin mir sicher du löst das Rätsel, du bist doch wahrhaftig ein ganz heller. ;-)
1 = C2OUT function is on RA0/AN0/C12IN0-/C2OUT/SRnQ/SS/SEG12/V CAP bit 1 SSSEL: SS Input Pin Selection bit 0 = SS function is on RA5/AN4/C2OUT/SRNQ/SS/CPS7/SEG5/V CAP 1 = SS function is on RA0/AN0/C12IN0-/C2OUT/SRNQ/SS/SEG12/V CAP bit 0 CCP2SEL: CCP2 Input
ist etwas tricky, wie Rene schon schrieb, verliert man 1 Bit. Genauer: S XXX XXXX * S XXX XXXX = SS YY YYYY YYYY YYYY Wobei S das Vorzeichenbit ist, X und Y sind Wertebits. Probier mal folgendes (bisher ungetestet): [avrasm] //----------------------------------------------------------------
Programmspeicher (Flash) im ATXmega128 hat eine maximale Größe von 128 KByte. Meine Code- Größe lag bei 110 KByte. Durch das Anlegen eines großen String-Arrays im Flash und das Ändern von Optimierungs Flags von -OS (Standarteinstellung) auf -O1 in einigen Funktionen konnte ich die Code-Größe von 110 KByte
