.58te...............................57 4.5 P4.5/ALE pin of STC89C51RC/RD+ series 90C version.L..................60 4.6 Typical transistor control circuit.....U.....................................................61 4.8 I/O drive LED application circuit....................................................
Switch Frequency L=100uH R=0.33ohm 90% 1000 80% 3LEDs 6LEDsLEDs )900 5LEDs z 70% 2LEDs 4LEDs k800 y700 l 60% c y 50% 1LED e600 C q500 t 40% e 2LEDs 4LEDs5LEDs 6LEDs D 30% F400 7LEDs h300 20% i 1LED 3LEDs w200 10% S100 0% 5 10 15 20 25 30 0 5 10 15 20 25 30 Supply Voltage Vin(V) Supply Voltage Vin(V) China
at 25°C 25 °C DERATINGCURVE Temperature Derating Curve (Natural Convection) 120 100 ) % ( 80 d o L 60 t p u 40 O 20 0 -40 -20 0 20 40 60 71 85 100 120 Ambient Temperature (°C) cui.com Additional ResourcProduct Page| 3D Model | PCB Footprint CUIInc│SERIES:PQME1-M │ DESCRIPTION:DC-DC CONVERTER date 05
second max. L P Max. Ramp Down Rate Liquidous Temperature T L 217 °C TL Time t Laintained above T L L 60 - 150 seconds L Peak package body temperature T see table below Ts max Preheat Area p e Time within 5°C of actual peak temperaure t p 20 - 30 seconds u t Ramp-down Rate (T toLT ) P 6 °C/ second max.
ELECTRO-OPTICAL CHARACTERISTICS (Ta=25℃) Items Symbol Min. Typ. Max. Unit Remark 2 Operating Luminance L 60 80 - cd /m All pixels ON Power Consumption P - 80 90 mW 30% pixels ON Frame Frequency Fr - 105 - Hz - CIE x 0.21 0.25 0.29 Color Coordinate White CIE1931 Darkroom CIE y 0.26 0.30 0.34 Rise Tr - - 0.02
voltage VIN 30 V Input Input reverse voltage VRIN 5 V Power dissipation P in 300 mW Load voltage (DC) V L 60 V 100 V 200 V 400 V Continuous load current (DC) I 3.6 A 2.3 A 1.1 A 0.6 A Output Peak load current Ieak 9.0 A 6.0 A 3.0 A 1.5 A 100 ms (1 shot), VL= DC Power dissipation Pout 1.35 W Total power dissipation
Ham mal in Datasheetarchive gewühlt. 93L60 ist ne low power 9300er TTL-Familie. Ich fand zur das nicht, aber hab was zu 9360 gefundet Baugleich mit TTL 74192, ne BCD-Zähler mit ab und rauf-Steuerung. https://www.datasheetarchive.com
Serie so besonders? > > Wurde doch schon gesagt: > > M. K. schrieb im Beitrag #6055859: >> 93L60 ist ne low power 9300er TTL-Familie > > Ein Standard TTL 74192 genehmigt sich 65mA (laut Datenbuch, geschätzt > hätte ich sogar 100mA). Das sind 325mW. Standardisierte low-Power Serien > wie
, und Solarthermie und g 100 100 g u u installierte elektrische i 80 80 i Leistung zentraler e e L 60 60 e netzgebundener KWK- r r Systeme. (BHKW = i 40 40 i l a kleinskalige BHKW bis 50 s s kW thBWK= Brennwert- i 20 20 i kessel, KWK-Netze = 0 0 große GUD- und BHKW- 80% 81% 82% 83% 84% 85% Anlagen mit
Slide Potentiometer w/LED Tapers Circuit A Series Tapers 100 B ( + ) 90 % 80 1 X 70 2 1 E ( - ) l l 60 L = DUMMY TERMINAL i n m m T e 50 r o 40 a c e e A)A t a 30 (3 A;5 How To Order o o (5 t t PTL 30 - 10 R 0 - 103 B2 t p 20 0A)A4 O I (2 5A)A 10 ( Model Number (1A);2 A1 (5A;) Designator PTL = Slide
Switch Frequency L=100uH R=0.33ohm 90% 1000 80% 3LEDs 6LEDsLEDs )900 5LEDs z 70% 2LEDs 4LEDs k800 y700 l 60% c y 50% 1LED e600 C q500 t 40% e 2LEDs 4LEDs5LEDs 6LEDs D 30% F400 7LEDs h300 20% i 1LED 3LEDs w200 10% S100 0% 5 10 15 20 25 30 0 5 10 15 20 25 30 Supply Voltage Vin(V) Supply Voltage Vin(V) China
Number Marking Part Number Marking Part Number Marking Part Number 6.0V Cm BD48K60 Ff BD49K60 Kb BD48L60 Np BD49L60 5.9V Ck BD48K59 Fe BD49K59 Ka BD48L59 Nn BD49L59 5.8V Ch BD48K58 Fd BD49K58 Hy BD48L58 Nm BD49L58 5.7V Cg BD48K57 Fc BD49K57 Hr BD48L57 Nk BD49L57 5.6V Cf BD48K56 Fb BD49K56 Hp BD48L56 Nh
vs Figure 23. Low Side Fall Time vs Temperature Temperature 0 14 E D −20 12 T L 10 P −40 A O E _ 8 L −60 T U 6 P V −80 4 T A E−100 2 N 0 −120 −40.0 −20.0 0.0 20.0 40.0 60.0 80.0 100.0 120.0140.0 0 100 200 300 400 500 600 TEMPERATURE (°C) NEGATIVE PULSE WIDTH (ns) Figure 24. High Side Fall Time vs Temperature
, power rating shall be derated in accordance )100 ERQ1 with the figure on the right. ( 80 ERQ2 a l 60 e ERQ14 150 °C a 40 ERQ12 R 20 130 °C 0 –60 –40 –20 0 20 40 60 80 100 120 140 160 180 200 220 Ambient temperature (°C) Performance Specifications Characteristics Specifications Test Methods Rated Res
Kurzes googeln liefert aber https://www.thinkmate.com/system/superstorage-server-6048r-e1cr60l 60 * 14 TB Kosten min. 35k Eur (wahrscheinlich + Steuer) Nano schrieb im Beitrag #5827373: > Blechbieger schrieb: >> Ich gebe Festplatten noch fünf, maximal 10 Jahre bis sie so tot sind wie >>
vs FREQUENCY 140 120 ) ) B120 B 100 ( ( i G = 500 o c100 c 80 G = 100 j G = 100 j G = 500 R R l 80 l 60 p G = 4 p u u r 60 G = 10 r 40 w w G = 10 o 40 o P P 20 G = 4 20 0 1 10 100 1k 10k 100k 1M 1 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE INPUT COMMON-MODE VOLTAGE vs
Average ramp-up rate (Tsmax to Tp) 3°C/second max. Liquidous temperature (TL) 217°C Time at liquidous (tL) 60-150 seconds Peak package body temperature (Tp)* Max 260°C Time (tp)** within 5°C of the specified Max 30 seconds classification temperature (Tc) Average ramp-down rate (Tp to Tsmax) 6°C/second max.
25 ° to Peak 8 min max. Reflow Phase Liquidus Temperature L 217°C Time over Liquidus Temperature L 60 – 150 sec Peak Temperature p 260°C Time within 5°C of actual Peak p 20 – 40 sec Temperature Cooling Phase Ramp-down rate 6°C/sec max. Notes: All temperatures refer to the top side of the package, measured
Eisen-Werkstücken wird der lose und grobe Rost mechanisch entfernt und der Rest dann mit Zitronenäure (ca. 55g/l, 60°C), Phosphorsäure (ca. 25%, auch 60°C) oder Salzsäure gelöst, danach mit reichlich Wasser gespült und dann gründlich geölt. Bei einer Kunstsoffwann sollte das genauso funktionieren - nur das anschließende
Item Symbol Condition Min Typ Max Unit Remark T 60 70 - View Angles B CR 10 50 60 - Degree Note 2 L 60 70 - R 60 70 - Contrast Ratio CR = 300 350 - Note1 Note3 Ton 25 Note1 Response Time Toff - 25 40 ms Note4 x 0.265 0.315 0.365 White y 0.277 0.327 0.377 x 0.534 0.584 0.634 Red y Backlight is0.297 0.347
Temperature Max (Tsmax) 200°C Time (ts) 60-180 seconds Time Maintained Temperature (TL) 217°C above Time (tL) 60-150 seconds Peak/Classification Temperature (Tp) 260°C Time within 5°C of Actual Peak Temperature (tp) 20-40 seconds Ramp-Down Rate 6 6°C/second max. Time 25°C to Peak Temperature 8 8 minutes max.
BLACK HA5W10B SCREW MACHINE M5x10mm BUTTON HEX- TRAY TO CHASSIS 8 SOCKET STEEL ZINC-PLATE BLACK HA6L60B SCREW MACHINE M6x60mm CAP HEX-SOCKET MODULE TO CHASSIS 7 STEEL ZINC-PLATE BLACK HC8A13A SCREW SELF-TAPPING NO8x13mm PAN SUPA FRONT PANEL TO CHASSIS 6 STEEL ZINC-PLATE CLEAR HF4V09B SCREW SELF-TAPPING-SEMS
3°C/sec maximum 3°C/sec maximum LiquidTemperature (T ) L 183°C 217°C TimeMaintainedAboveT (t ) L L 60 sec to 150 sec 60 sec to 150 sec PeakTemperature (T ) P 240 + 0/−5°C 260 + 0/−5°C Time of ActualT −P5°C (t ) P 10 sec to 30 sec 20 sec to 40 sec Ramp-Down Rate 6°C/sec maximum 6°C/sec maximum Time 25
3°C/s 3°C/s TIME MAINTAINED ABOVE LIQUIDOUS (T ) L LiquidousTemperature (T ) L 183°C 217°C Time (tL) 60 s − 150 s 60 s − 150 s PEAKTEMPERATURE (T ) P 240°C + 0°C/−5°C 260°C + 0°C/−5°C TIMEWITHIN 5°C OF ACTUAL PEAKTEMPERATURE (t ) P 10 s − 30 s 20 s − 40 s RAMP-DOWN RATE 6°C/s max 6°C/s max TIME 25°CTO
temperature rise (Tsmax to Tp) <3℃/S LIQUID REGION temperature (TL) 217℃ LIQUID REGION Holding Time (tL) 60-150 S Peak Temperature (Tp) 245 ℃ High Temperature Region(Tp=-5℃) Holding Time (tp) <10 S Cooling Rate <6℃/S Room Temperature to Peak Holding Time <6 min Remarks 1. This has to be baked for 48 hours
and V OUT = VS/ 2, unless otherwise noted. 100 140 ) 120 B ) ( 100 m 10 o e 0.01% a i a 80 T e n l 60 t e e 1 n S 0.1% h 40 C 20 0.1 0 1 10 100 10 100 1k 10k 100k 1M 10M 100M Closed-Loop Gain (V/V) Frequency (Hz) Figure 19. Settling Time vs Closed-Loop Gain Figure 20. Channel Separation vs Frequency
Oder TK100L60W von Toshiba? On-Widerstand 15 mOhm. Drainstrom Puls: 400 Ampere.
axelro schrieb im Beitrag #5287078: > TK100L60W - fettes Teil, aber auch stinklangsam. Im DB mit max. 1A Treiber (10V mit 10Ohm, Bild 6.2.1) - das ginge schon deutlich schneller als so. Bei FETs wäre - wie vielleicht bekannt - der Betrieb leicht
losses in the MOSFET ]70 Etot at 300V s Etot at 200VIGBT which is switching the diode. These losses l 60 Eoff at 3are influenced by the two reverse recovery E 50 Eon at 300V o Eon at 20parameters I RRM and t RR o 40 Eoff at 100V E30 Eon at 100VFrom a system design perspective, there are three 20 aspects
3 508 100 1.5 2.75 50 2 20 0.5 350/300 5 450 400 3 508 100 Electrical Specification Notes (15) R L 60 Ω for 0.8 A to10 A triacs; L = 30 Ω for 15 A to 35 A triacs (16) T = T for test conditions in off state (1) For either polarity of MT2 with reference to MT1 terminal C J (17) I = 300 mA for 25 A and
300Windungen, L=60cm, R=1cm >> L=1.256e-6*300*300*3.14e-4/(60e-2+0.9*1e-2) L = 5.8283e-005 75Windungen, L=15cm, R=5cm >> L=1.256e-6*75*75*(5*5*3.14e-4)/(15e-2+0.9*1e-2) L = 3.4881e-004 Fast 350uH ist
OutputBalanceErrorvs.Frequency Figure49.OutputImpedancevs.Frequency 10 0 c –10 d ( –20 M R –30 T E –40 P S D –50 Z L –60 A M –70 O N –80 –90 –100 5 80 85 90 95 100 105 110 115 120 5 1 FREQUENCY (Hz) 1 Figure48.100kHzIntermodulationDistortion Rev. B | Page 15 of 24 AD8476 Data Sheet TERMINOLOGY 10kΩ Common-Mode Voltage
temperature rise (Tsmax to Tp) <3℃/S LIQUID REGION temperature (TL) 217℃ LIQUID REGION Holding Time (tL) 60-150 S Peak Temperature (Tp) 245 ℃ High Temperature Region(Tp=-5℃) Holding Time (tp) <10 S Cooling Rate <6℃/S Room Temperature to Peak Holding Time <6 min Remarks 1. This has to be baked for 48 hours
Delay d(L),T – 50 – ns CAN Normal P_10.3.32 TXD LOW to bus dominant Mode C L= 100pF; R L= 60 Ω; V = 5 V; CAN Propagation Delay d(H),T – 50 – ns CAN Normal P_10.3.33 TXD HIGH to bus recessive Mode C L= 100 pF; R L= 60 Ω; V = 5 V; CAN Propagation Delay d(L),R – 100 – ns CAN Normal P_10.3.34 bus dominant to RXD LOW Mode C L= 100pF; R L= 60 Ω; V CAN= 5 V; C RXD= 15 pF Propagation Delay t – 100 – ns CAN Normal P_10.3.35 d(H),R bus recessive to RXD HIGH Mode C L= 100pF; R L= 60 Ω V CAN= 5 V; C = 15 pF RXD Recessive Bit Width on RXD bit(
Induktivität zu bestimmen, die die spezifizierte Stromwelligkeit garantiert. Das Maximum 100 90 80 H µ 70 / L 60 50 40 400 380 360 220 240 340 200 180 320 140 160 300 120 U Z V U DSK / V Abbildung 4.19: Induktivität L in Abhängigkeit von U DSK = 115V...240V und U BN = 290V...400V bei ∆i L,max=10 A und T =p0 µs
the sensor was moved slowly over white paper. Mean Shutter vs Z (White Paper) 120 100 t u 80 c e l 60 v e u 40 S Avg 20 Avg - 3sigma Avg + 3sigma 0 -1.0 -0.8 -0.6 -0.4 -0.2 0.0 0.2 0.4 0.6 0.8 1.0 Distance from Nominal Focus (mm) Figure28.Meanshuttervs.Z(whitepaper) The maximum value of the shutter
common cathode. für den negativen Zweig braucht man entsprechende dual anode Dioden wie die MBR20L60, die jedoch nicht überall erhältlich sind. "Wer braucht schon negative Spannungen (mit viel Strom)?"
//github.com/ChristianRinn/bare_metal_stm32f411xe/blob/master/src/STM32F411XE/gcc_startup_system.c#L60 Letzteres ist zwar für ein Nucleo F411 aber es sollte eins zu eins übertragbar sein.
800Hz M A S 0.10 -20 SAMPLE = 8kHz M 0.6 ( O UNIPOLAR MODE I ) R A 0.05 ( -40 - 0.5 N E A L U G O 0 L -60 E 0.4 L M N R -0.05 A -80 H 0.3 E - BIPOLAR MODE N - I E 0.2 -0.10 -100 N H 0.1 -0.15 -110 C -40 -15 10 35 60 85 0 819 1638 2457 3276 4095 0 800 1600 2400 3200 4000 TEMPERATURE (°C) DIGITAL CODE FREQUENCY
rise (Tsmax to Tp) <3℃/S <3℃/S LIQUID REGION temperature (TL) 183℃ 217℃ LIQUID REGION Holding Time (tL) 60-150 S 60-150 S Peak Temperature (Tp) 215 ℃ 245℃ High Temperature Region(Tp=-5℃) Holding Time (tp) <10 S <10 S Cooling Rate <6℃/S <6℃/S Room Temperature to Peak Holding Time <6 min <6 min Remarks
