M51516 12W- Lautsprecherverstärker Pinbelegung: 1 : Input A 2 : Gnd Kleinsignalseite 3 : Muting 4 : Feedback 1 = Inv Input A 5 : Feedback 2 = Inv Input B 6 : Gnd 7 : Output B 8 : Output A 9 : Vcc = +9 bis +16 V, max 18V, max 25V ohne NF-Ansteuerung Lastwiderstand 4 Ohm zwischen Pin 7 und 8, interne Kurzschlußsicherung. Ruhestrom bei 13,5 V : typ 80 mA, max 200 mA bei 18V : typ 105 mA __________________________________
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M5230L Variable output voltage regulator, dual tracking type, current limiting, thermal shutdown. From a MITSUBISHI datasheet: Pins : Single In Line 1 : Gnd 2 : Balance adjustment (R to Pin6 and R to Pin3 ) 3 : (-) output 4 : (-) input 5 : Voltage adjustment (R to Pin6 and R to Pin1 ) 6 : (+) 0utput 7 : (+) input 8 : Output control If pin 8 is connected via 1 MOhm to + V in : both outputs are switched off. If pin 8 is shorted to Gnd via a NPN Transistor or if left open (not connected): Regulators ON. Absolute Maximum Ratings : Vin = +/-35 V I load = +/- 30 mA Vin - Vout voltage difference : +/- 32 V Pd = 800 mW T op = -20 to 75 grdC. Characteristics : Input Voltage : min +/- 8 V, max +/- 35 V Output Voltage: min +/- 3 V, max +/- 30 V Min. Vin - Vout Drop at I load =10 mA : typ 2.5 V, max 3 V Current Limiting to 55mA Bias Current (without load , without resistor current): typ 1.3, max 3 mA Reference Voltage between Pin 5 and Pin1 : min 1.66V, typ 1.8V, max 1.95V Pin 5 is an Input of a Diff. Ampl. having the other Base connected to the internal reference. Therefore one can measure the 1.8V only if the regulator works well. Often the problems are caused by the electrolyte capacitors. The IC must see 10 uF to Gnd at each input and output. If a capacitor is too old, the IC becomes instabile and the reference comparator detects the peak amplitude instead of dc output. _________________________________
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M54462P 1/64, 1/256 ECL Divider, TTL- Output Pins for the Plastic Dual In Line Case: 1 : Vcc 2 : Vcc 3 : nc = no connecion 4 : Output 5 : nc 6 : Gnd 7 : Gnd 8 : nc 9 : nc 10: Input 11: nc 12: nc 13: Vref Input 14: Divider Selection Input: high for 1/64, low for 1/256 For the L- case I don't possess the pinning. Maximum Ratings: Vcc = 7 V Vin = 2.5 V Top = -10...75 grdC. Characteristics at Vcc=5 V, 25 grdC. : Supply Current : min 30 mA, typ 50 mA, max 80 mA Input Sensitivity at 80...950 MHz : max 100 mV peak-peak Recommended Input Voltage : max 600 mV pp Divider Selection Input : Vih = max Vcc - 0.3 V Vil = max 0.5 V _________________________________
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M54475P 2- Modulus ECL Divider with ECL Output
1/64, 1/65, 1/128, 1/129
Pins :
1 : Vcc
2 : Input 1)
3 : NC
4 : Gnd
5 : Output
6 : Divide Select 64-/128
7 : Modulus Control Input
8 : Vref 1)
1) Pins 2 and 8: Bases of a differential input amplifier. Both having
internal 250 Ohm resistors to the internal Vref- generator. Pin 8 with
internal (Cap.-) diodes to Vcc and from Gnd (external 1 nF recommended)
Truth Table:
64-/128 Modulus selected div.ratio
H H 1/64
H L 1/65
L H 1/128
L L 1/129
Absolute Maximum Ratings:
Vcc : -0.5 to +7 V
Inputs: -0.5 to Vcc
Output Current : -10 mA
Pd at 75 grdC. : 400 mW
Top : -20 to +75 grdC.
Tstg : -55 to +125 grdC.
Recommendet Operating Conditions :
Vcc : min 4.5, typ 5, max 5.5 V
Input Frequency at Vin=400mV pp : min 100 MHz, max 1000 MHz
Input Amplitude: min 0.4 V pp, max 1.2 V pp (Peak-Peak)
Io : max 5 mA
Output Load Cap.: max 15 pF
Characteristics:
Pin 7 (Modulus): Vih : min 2 V, max Vcc
Vil : min 0, max 0.8 V
Iih at Vin=Vcc=5.5V : max 30 uA
Iil at Vin = 0 : min -20 uA
Set up time at Fin=1000MHz : max 20 ns
Output Aplitude at C load=15 pF (including the probe):
min 0.9 V, typ 1.2 V
Supply Current at Vcc=5.5V : typ 40 mA, max 60 mA
I think the prescaler will oscillate at ~900MHz if without input signal.
For this frequency the sensitivity- diagram has a peak.
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M54530P 7 unit 400mA NPN Darlington Transistor Array. From the Input Pin to Base: 20 kOhm From each Base to Gnd : 20 kOhm There is a Diode ( max Vr=40V, max If=400mA ) from each open Collector Output to pin 9. Pins: 1 ...7 : Inputs 8 : Gnd 9 : COM 10: Out 7 ... 16: Out 1 Maximum Ratings: Vceo : -50... +40 V Ic : 400 mA Vi : 40 V Pd : 1.47 W Top : -20... 75 grdC. _________________________________
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M54959P PLL frequency synthesizer From a 7- page datasheet by Mitsubishi 1988. Pins : 1 : f in (max 500MHz) 2 : Reference Bias for f in (100 pF to Gnd) 3 : Reset for the data transfer 21-pulse counter 4 : /CPS = Clock Pulse Input 5 : SI Data Input for shift register 6 : SW1 Open Collector Output 7 : SW2 8 : Gnd 9 : PD = Phase detector output, Three-state 10: /LOCK, low when PLL locked 11: P/N Phase detector polarity switching 12: not connected 13: Test input 14: X out Chrysal Oszillator 12.8 MHz 15: X in 16: Vcc Data Input at Pin 5 is read by the falling edge of /CPS. The Pulse 22.. is ignored. The FIRST pulse is for D21, MSB of Shift Register. ( I don't know if it is usually) Shift Register location 1 (LSB) to 7 : A0 to A6 of the Swallow Counter Division Ratio. Shift Register location 8 to 17 : N0 to N9 of the Main Counter Division Ratio. Total Division Ratio = A + 128 N Shift Register location 18, 19: DA, DB Reference Frequency Selection: L L = 50 kHz for a 12.8 MHz crystal H L = 15 kHz L H = 12.5 kHz L L = 6.25 kHz Location 20 : SW1 Location 21 : SW2 The data must be stable min 10 us before the negative going /CPS impulse and 10 us Hold-Time. Enable Time from RST to /CPS : min 20 us _________________________________
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MAB8442 Microcontroller
The MAB8442 is hidden on the datasheet of the MAB8422.
For the MAB8422/8442 8bit Microcontroller with 2k/4kx8 ROM
and 64/128 bytes RAM I have an 18 page datasheet in the
PHILIPS Databook 1988.
Replacement in your heater is difficult, because of the
special software in the ROM of the Microcontroller.
Pins:
1 to 8: 8 bit quasi bidirectional I/O Port
9 : T0,/INT : external Interrupt Input, Test Input for
JTO or JNT0 instructions.
10: Gnd
11: T1 (as T0)
12: XTAL1
13: XTAL2
14: RESET
15 to 17: Quasi bidirectional port
18: SCL for I2C-bus or as Pin 15
19: SDA for I2C-bus or as Pin 15
20: Vcc
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MB3614 Quad Operational Amplifier From the 3- page datasheet in the FUJITSU databook LINEAR 1997 The MB3614 is very similar to the LM 324 ( available from many Second-Sources ) Pins: 1 : OutA 2 : -InA 3 : +InA 4 : Vcc 5 : +InB 6 : -InB 7 : OutB 8 : OutC 9 : -InC 10: +InC 11: Gnd 12: +InD 13: -InD 14: OutD Absolute Maximum Ratings: Vcc : 36V Differential Input Voltage : 36 V Input Common Mode Voltage : -0.3 to 36 V Pd = 570 mW Top = -20 to 75 grdC. ( LM 324 has 0 to 70 grdC.! ) Tstg = -55 to 125 grdC. Characteristics: Input Offset Voltage : typ 2 mV, max 7 mV Input Offset Current : typ 5 nA, max 50 nA Input Bias Current : typ 45 nA, max 250 nA Icc = typ 0.8 mA, max 2 mA Input Common Mode Voltage : min 0, max Vcc-1.5V Voltage Gain at Rl=>2kOhm: min 25V/mV, typ 100V/mV Common Mode Rejection Ratio : min 65 dB, typ 85 dB Power Supply Voltage Rejaction Ratio: min 65 dB, typ 100 dB Output source current at Vcc=15V : min 20 mA, typ 40 mA sink current : min 10 mA, typ 20 mA _________________________________
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MB7053 2 kbit TTL PROM I possess a shortform only: Organization: 512 x 4 bits Technology: Gold doped TTL P-N junction memory cell Power consumption: max 735 mW Access Time max 70 ns Chip enable Time: typ 22 ns Pins: 1 : A6 2 : A5 3 : A4 4 : A3 5 : A0 6 : A1 7 : A2 8 : Gnd 9 : O4 10: O3 11: O2 12: O1 13: /CE 14: A8 15: A7 16: Vcc That's all. The Block Diagram is as usual, the Chip Enable activates the output buffers only. _________________________________
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MB88211 Microcomputer From the Fujitsu Databook 4-Bit Microcontrollers 1989 CMOS SINGLE-CHIP 4-BIT MICROCOMPUTER WITH A/D CONVERTER PROGRAMM-MEMORY: 1k x 8bit mask ROM RAM : 32 x 4bit I/O: 10 lines + 1 analog input A/D: 8bit successive Approx. Clock Generator ( 4MHz) Instruction set: Subset MB8850-series Temp.: 0 to 70 C Package: 20 pin plastic DIP Pins: 1 : R7 2 : R8 3 : R9 4 : pos.Ref. = Analog-Vcc +5 V DC 5 : neg.Ref. = Analog-Vss Gnd 6 : AN = Analog input to the A/D Converter 7 : R6 8 : X = Oszillator output 9 : EX = Oszillator input 10: Vss 11: R0 12: R1 13: R2 14: R3 15: R4 16: R5 17: Vss 18: TEST 19: /Reset 20: Vcc R- Port: two 4-bit and one 2-bit parallel input(non-latched)-/ output(latched)- ports, or 10 individual lines, depending on instructions. R7, R8, and R9 have hysteresis inputs. _________________________________
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MB8852 CMOS 4bit Microcomputer, 2048 x 8 ROM, 128 x 4 RAM Pins: 1 : EX, Quarz nach Pin 2 oder Eingang von EXternem Oszillator 2 : X = Oszillator output 3 : /RESET 4 : O0 ... 10: O6 11: R7, soll wohl O7 heißen, denn R7 ist auf Pin20 12: R0 13: R1 14: Vss 15: R2 .... 21: R8 22: R9, /TC (Timer-Counter input) 23: R10, /IRQ (Interrupt Request Input) 24: K0 ... 27: K3 28: Vcc 1)Either of X or /STBY is selected using the Mask Option Standby scheint dann also nur mit externem Oszillator realisierbar zu sein, nicht mit Quarz. Der K- Port ist ein non-latched Input Port. Der O- Port ist ein komplexer latched Output Port. Der R-Port ist ein komplexer I/O Port. ..sehr komplex, wie mir scheint. Selbst die Kurzform in der Pin-Tabelle ist zwei Seiten lang. Die genaue Beschreibung hinten im Datenblatt ist noch viel länger. _____________________________________
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MC1010 MECL II series Quad 2-input NOR Gates Pins: 1 : In A 2 : In A 3 : Out A 4 : In B 5 : In B 6 : Out B 7 : - Vee 8 : Out C 9 : In C 10: In C 11: Out D 12: In D 13: In D 14: + Vcc = Gnd _________________________________
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MC10116 Triple Line Receiver (ECL 10k- series) ...sensing differential signals over long lines. The bias supply Vbb is made available to make the device useful as a Schmitt trigger, or in other applications where a stable reference voltage is necessary. Pins (DIL-Gehäuse) 1 : Vcc1 2 : Inv Out A 3 : N.I.Out A 4 : Inv Inp A 5 : N.I.Inp A 6 : Inv Out B 7 : N.I.Out B 8 : Vee 9 : Inv Inp B 10: N.I.Inp B 11: Vbb 12: Inv Inp C 13: N.I.Inp C 14: Inv Out C 15: N.I.Out C 16: Vcc2 Characteristics at 25 grdC. Power Supply Drain Current Ie : max 21 mA Input Current I in (H) : max 95 uA dc Icbo : max 1 uA dc Reference Voltage Vbb: min -1.35 V, max -1.23 V Switching Times: Propagation Delay: min 1 ns, max 2.9 ns Rise = Fall Time (20% to 80%): min 1.1 ns, max 3.3 ns Typischer Gesamtleistungsverbrauch 85 mW ohne Last. Unbenutzte Eingänge müssen mit Vbb verbunden werden. __________________________________
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MC1468 Dual +/- 15 V Regulator Metal Package TO 100 Pins : 1 : Compens (+), 1500 pF to Gnd 2 : Sense (+) 3 : Output (+), Current Sense Resistor to Pin2 4 : + Vcc 5 : - Vee 6 : Output (-), Current Sense resistor to pin7 7 : Sense (-) 8 : Compens (-), 1500 pF to Gnd 9 : Voltage Adjust, 1) 10: Gnd 1) zu einem externen Spannungsteiler zwischen Pin4 und Gnd, der dem internen parallelgeschaltet ist, und ihn überbieten kann, wenn er niederohmig genug ist. Der Anschluß Balance Adjust ist nur beim DIL-Gehäuse herausgeführt. _____________________________________
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MC1545L Breitbandverstärker mit umschaltbarem Eingang Das DIL Gehäuse hat folgende Anschlüsse: 1 : neg. Output 2 : Gate 3 : Non Inv. Input B 4 : Inv.Input B 5 : Non Inv.Input A 6 : Inv.Input A 7 : pos. Output 8 : Vee 9 : Vcc 10 bis 14 : not connected A und B sind Differenzverstärker, deren Collectoren parallel- geschaltet und über Emitterfolger zu den Ausgängen geführt sind. Die gemeinsamen Emitter der Differenzverstärker- Tansistoren sind mit den Collectoren eines dritten Differenz- verstärkers verbunden, der vom Gate- Eingang gesteuert wird. Es ist im Grunde dieselbe Schaltung wie bei Mischer- ICs und Multiplizierern. Hier ist die Anwendung allerdings für Breitbandverstärker mit umschaltbarem Eingang. Maximum Ratings: Vcc : +12V Vee : -12V Input Differential Voltage : +/- 5 V Load Current : 25 mA Power Dissipation : 625 mW Operating Temp. : -55 to 125 grdC. Characteristics at Vcc=5V, Vee = -5V, 25 grdC.: Single ended Voltage Gain: min 16 dB, max 23 dB Bandwidth : min 40 MHz, typ 50 MHz ( Cout = 15 pF, Leerlauf?, Ab 20 MHz Delle von 4 dB) Input Impedance at 50 kHz : min 4 kOhm, typ 10 kOhm Output Impedance at 50 kHz : typ 25 Ohm Output Differential Voltage Range at Rout = 1 kOhm : min 1.5Vpp, typ 2.5Vpp Input Offset Voltage max 5 mV Common Mode Rejection Ratio at 50kHz : typ 85 dB Input Common Mode Voltage Range : typ 2.5V Gate Low-State Voltage : min 0.4V,typ 0.7V ( A = aus, B = an) Gate High-State Voltage : typ 1.5V, max 2.2V (A = an, B =aus) Gate Input Current at Low-State . max 2.5 mA Gate Input Current at High-State: max 2 uA Channel Select Time : typ 20 ns Step Response at e=20mV: Turn On Delay : max 10ns Rise Time : max 15 ns Turn Off Delay : max 10 ns Fall Time : max 15 ns Wideband Input Noise, Rs=50Ohm, 5 Hz to 10 MHz: e = typ 25 uV (rms) DC Power Consumption: max 110 mW _____________________________________
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MC3446 Quad GPIB Transceiver Von einem 3- seitigen Motorola Datenblatt. Pins: 1 : Receiver Output Busbit A 2 : Bus A 3 : Driver Input A 4 : Enable für A, B, und C 5 : Driver Inp B 6 : Bus B 7 : Rec Out B 8 : Gnd 9 : Rec Out C 10: Bus C 11: Driver In C 12: Enable für D 13: Driver In D 14: Bus D 15: Rec Out D 16: Vcc = +5 V Der GPIB Meßgerätebus wird hier nicht genauer beschrieben. Die Treiber sind mit Offenem Collector an die Busleitung angeschlossen. Die Receiver haben ähnliche Schaltschwelle wie TTL, aber größere Hysterese. _____________________________________
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MC3447 Oktal Bidirectional Bus Transceiver with Termination Networks Pins: 1 : S, /R for Transc.0 2 : D0 3 : D1 4 : D2 5 : D3 6 : D4 7 : D5 8 : /S, R for Transc.5 ( Achtung , invertiert) 9 : D6 10: D7 11: S, /R for Transc.6 12: Logic Gnd 13: Bus Gnd 14: S, /R for Transc.7 15: Bus7 16: Bus6 17: S, /R for Transc.1 to 4 18: Bus5 19: Bus4 20: Bus3 21: Bus2 22: Bus1 23: Bus0 24: Vcc Die Bus Anschlüsse haben interne Widerstände nach Gnd und Vcc. Interface zwischen TTL (oder MOS) und IEEE Standard Instrumentation Bus (488, GPIB ). _____________________________________
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MC4044 Phasen-/ Frequenz- Detektor Gut, daß Sie vom MC4044 keine Datenblattkopie wünschen. Ich stelle nämlich gerade fest, daß ich auch nur eine unvollständige Kopie habe. Aber die Anschlüsse kann ich Ihnen heraussuchen: 1 : R Eingang für beide Phasen- Frequenz- Detektoren 2 : D1 Ausgang von Detektor 1 3 : V Eingang für beide Ph.-Fr.-Det. 4 : PU = Kathode einer separaten internen Diode 5 : UF = Anode der Diode. 6 : D2 Ausgang von Det.2 7 : Gnd 8 : Collector NPN- Darlington Transistors mit Emitter an Gnd 9 : Basis dieses Darlingtons. 10: DF = Emitterfolger-Ausgang Charge Pump. 11 : PD = TTL-ähnlicher Eingang Charge Pump. 12 : U2 Ausgang von Det2. 14 : U1 Ausgang von Det1. 14 : Vcc _____________________________________
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MC5280 Hybrid IC for Chopper and quarter or half step drive For the MC5280 I don't possess a full datasheet, only some preliminary informations: This hybrid IC was manufactured by NEC, but developed by JANOME, DYNASYN Stepping Motor Drivers. Hybrid IC for Chopper and quarter or half step drive. It maintains an average phase current level through the use of a current sensor which turns off whenever the current exceeds a predetermined high level and turns on whenever the current falls below a predetermined low level. It is also possible to step the motor 400 or 800 steps per revolution to obtain 0.9 or 0.45 degree step from 1.8 degree step motor. Pins : 1 : Gnd (Vcc- side) 2 : sawtooth in, 100mV fast turn on, 50us negative falling ramp 3 : PB0 4 : PA0 5 : PA1 6 : Vcc 7 : 1.5 Ohm,2Watt to Gnd ( I think for the current sensor) 8 : Motor Coil A 9 : 22 uF to Gnd 10: Vb 11: Motor Coil /A 12: Gnd (Vb- side) 13: Gnd (Vcc- side) 14: see pin 2 15: PB1 16: PA2 17: PA3 18: Vcc 19: 1.5 Ohm, 2 Watt to Gnd 20: Motor Coil B 21: 22uF to Gnd 22: Vb 23: Motor Coil /B 24: Gnd (Vb- side) Half Step PB0 = PB1 = 0: Clockwise steps: PA0 PA1 PA2 PA3 Motor Coils 1 0 1 0 A . B 1 0 0 0 A 1) 1 0 0 1 A . /B 0 0 0 1 /B 1) 0 1 0 1 /A. /B 0 1 0 0 /A 1) 0 1 1 0 /A . B 0 0 1 0 B 1) 1) I think this is for full step Quarter Step using PB0 and PB1: PA0 PA1 PA2 PA3 PB0 PB1 Motor Coils 1 0 1 0 0 0 A . B as for half steps 1 0 1 0 0 1 A . 41% of B 1 0 0 0 0 0 A as for half steps 1 0 0 1 0 1 A . 41% of /B 1 0 0 1 0 0 A . /B as for half steps 1 0 0 1 1 0 41% of A . /B 0 0 0 1 0 0 /B as for half steps and so on (PB0 reduces A or /A and PB1 reduces B or /B) PA0, PA1 = 1 . 1 prohibited PA2, PA3 = 1 . 1 prohibited From the application: Vcc = + 5 V Vb = + 24V or + 30 V Rated Current 0.65 A In the table means A and B current from Pin /A to A and /B to B. /A and /B current from Pin A to /A and B to /B. All PA and PB- inputs connected to open collector logic ICs or Microcomputer outputs. Specifications: Max Vcc = 10 V Max Vb = 70 V Max Current = 1 A T op = -20 grdC to 80 grdC tstg = -40 to 100 grdC. _________________________________
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MC5809 UHF power amplifier From a Datasheet in the databook NEC 1989/1990. It has little datas only: MC5809 : 903 to 905 MHz MC5809L: 800 to 870 MHz MC5809M: 860 to 920 MHz MC5809N: 900 to 960 MHz Pin 1 : RF Input 3,3,4 : Gnd Pin 5 : Vcc1 6,7,8 : Gnd Pin 9 : Vcc2 Pin 10: Gnd Pin 11: Output Absolute Maximum Ratings at 25 grdC.: Vcc = 12 V Icc = 0.4 A ( Pin 5 + Pin 9 ??? ) Operating Case Temp.: -30 to 80 grdC. Storage Temp.: -40 to 125 grdC. Characteristics at 25 grdC., Zin=Zout=50 Ohm : Power Output at Vcc1=Vcc2=7.2V, f=800 to 960 MHz, Pin=1mW : min 120mW, typ 150mW 2nd and 3nd Harmonic : max -30 dB Input VSWR at f=800 to 960 MHz : max 2.5 Output VSWR at f=800 to 960 MHz : typ 1.5 Load Mismatch at f=905MHz, Vcc1=Vcc2=7.2V, Pout=120mW : min 10:1 That's all. The datasheet has 1 diagram: Output Power vs. Input Power ( very nonlinear !!) at f=904 MHz, Vcc1=Vcc2=7.2 V: 100mW at 0.3 mW; 150mW at 0.8mW; 170mW at 1.4mW, 185mW (=max) at 2.5mW, 180mW at 3mW. __________________________________________
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MC663 Dual J-K Flip-Flop The MOTOROLA MC663 is a member of the MC660 High Threshold Logic Family. ( Threshold Voltage = 7.5V for Vcc = 15 V ) Pins : 1 : /QA 2 : KA 3 : /RA 4 : /ClA 5 : JA 6 : QA 7 : Gnd 8 : QB 9 : JB 10: /ClB 11: /RB 12: KB 13: /QB 14 Vcc = max 18 V Output Current max 28 mA Input Voltage max between -1 V and + 18 V Input Loading Factor : /R : 2 /Cl: 1.5 other: 1 Output Loading Factor for Vcc=15V : 9 Ptot = typ 200 mW Toggle Frequency : typ 3 MHz Truth Table for /R = high (/R=low >Q=0,/Q=1): T(n) T(n+1) J K Q /Q 0 0 Qn /Qn 1 0 1 0 0 1 0 1 1 1 /Qn Qn __________________________________________
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MC6800 8 bit Microprocessor
Motorola
From an AMI datasheet S 6800:
Pins :
1 : Gnd
2 : /Halt
3 : Phase1
4 : /IRQ
5 : VMA
6 : /NMI
7 : BA
8 : Vcc
9 : A0
to
20 : A11
21 : Gnd
22 : A12
to
25 : A15
26 : D7
to
33 : D0
34 : R/W
35 : n.c.
36 : DBE
37 : Phase2
38 : n.c.
39 : TSC
40 : /RESET
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MC6802 Microprocessor with Clock and RAM 128 x 8bit
Motorola
from an AMI datasheet S6802
Pins:
3 : MR
35 : Vcc standby
36 : RE
37 : E
38 : XTAL
39 : EXTAL
all other pins are identical to S6800
This datasheet has no detailed declarations for the pins. But
I think you will find the well known 6800- Family in the
Internet.
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MC890 P dual JK flipflops Member of the MOTOROLA MRTL Family from the databook 1968 !! Pins: plastic DIL package: - for the ceramic flat pac there is an other pinning! 1 : Clear 1 (clocked) 2 : T 1 (negative transition clock) 3 : Set 1 (clocked) 4 : Gnd 5 : Set 2 6 : T 2 7 : Clear 2 8 : /Q 2 9 : Q 2 10 : direct clear 2 ( active high ) 11 : Vcc 12 : direct clear 1 13 : Q 1 14 : /Q 1 Toggle Frequency 4 MHz Loading factor for Q and /Q : 3 for all inputs = 1 except for T: 2 S C after clock 1 1 no change 1 0 Q=1, /Q=0 0 1 Q=0 /Q=1 0 0 both change __________________________________________
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MHW1224 Broadband Amplifier From the databook Motorola RF Dev.1986: Pins: 3 : Gnd 4 : deleted (space) 5 : Vcc 6 : deleted (space) 7 : Gnd 8 : Gnd 9 : Output Maximum Ratings: RF Input Voltage : +65 dBmV DC Supply Voltage: 28V Operating Case Temp.: -20 to 100 grdC. Characteristics at Vcc=24V, 75 Ohm-system : Power Gain at 10 MHz: 22 dB Frequ.Range : 5 to 200 MHz Gain Flatness: max +/- 0.2 dB Input/ Output Return Loss: min 18 dB Cross Modulation Distortion, 12 Channels @ 50 dBmV: typ -67 dB Composite triple beat Distortion, 26 channels @ 50dBmV : max -68.5 dB Second Order Distortion @ 50dBmV per channel, High Split (5-175MHz)CH2,CHA@176.5MHz: max -72 dB Noise Figure High Split : max 5.5 dB DC Current . typ 210mA, max 240 mA __________________________________________
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MHW4524 Broadband Amplifier
From the Motorola databook 1986
Pins :
1 : B+
2 : Gnd
3 : RF In
4 : Gnd
5 : Loop
6 : Loop
7 : Gnd
8 : RF Out
9 : Gnd
10: B+
Absolute Maximum Ratings:
RF Voltage Input ( Single Tone ) max +55 dBmV
DC Supply Voltage : max 28 V
Operating Case Temp.: -20 to 90 grdC.
Storage Temp.: -40 to 90 grdC.
Characteristics at Vcc=24V,Tc=35 grdC., 75 Ohm system :
Frequency Range : 40 to 450 MHz
Power Gain at 50 MHz : min 23.3 dB, typ 24 dB, max 24.7 dB
Slope : min 0, max 1.5 dB
Gain Flatness : max +/- 0.3 dB
Return Loss Input/Output : min 18 dB
Second Order Distortion at Vout=50dBmV : IMD max -80 dB
Cross Modulation Distortion at Vout=+46 dBmV ,
60-Channel FLAT : max -75 dB
Composite Triple Beat at the same conds.:
at 35 grdC : max -80 dB
at -20 to 90 grdC.: max -75 dB
Noise Figure at f=450MHz : typ 8 dB, max 8.5 dB
DC Current at Tc=30mA : max 650 mA
FEEDFORWARD AMPLIFIER BLOCK DIAGRAMM:
Main Loop Delay Line --- Coupler ---- Error Amplifier
| | |
Power Divider Resistor ? Power Combiner--->
| | |
Main Amplifier --------- Coupler -- Error Loop Delay Line
I think the exact circuit is very interesting, but it is not
in the datasheet, sorry.
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW5382A 450 MHz CATV Amplifier From MOTOROLA databook RF DEVICE 1994 Case 714, Style 1 : RF-Input (left) Gnd Gnd - Vcc - Gnd Gnd RF-Output Absolute Maximum Ratings: RF Input Voltage (single Tone) : +55 dBmV DC Supply Voltage : 28 V Operating Case Temp.: -20 to 100 grdC. Storage Temp.: -40 to 100 grdC. Characteristics at Vcc=24V, Tc=30grdC., 75 Ohm- system: Frequency Range : 40 to 450 MHz Power Gain at 50 MHz : min 37 dB, typ 38 dB, max 39,5 dB at 450 MHz : min 38 dB, typ 39 dB, max 40 dB Slope : min 0 dB, typ + 1 dB, max + 2.5 dB Gain Flatness: typ 0.3 dB, max 0.6 dB Return Loss Input/Output : min 18 dB Second Order Intermodulation Distortion at Vout = +46 dBmV per Channel : Channel 2, M6, M15 : typ -78 dB Channel 2, M13, M22: typ -72 dB, max -64 dB Cross Modulation Distortion and Composite Triple Beat at Vout = +46 dBmV : 53 Channel FLAT: typ -63 dB 60 Channel FLAT: typ -61 dB, max -59 dB DIN Tests: DIN 1 , 300 MHz : typ 125 dBuV DIN 2 , 400 MHz : typ 124 dBuV DIN 3 , 450 MHz : typ 123 dBuV Noise Figure at 450 MHz : typ 4 dB, max 5 dB DC Current : typ 310 mA, max 340 mA __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW559 Wideband Amplifier I have an 1-page-datasheet of this very old Module in the MOTOROLA Databook 1974. Pins: 1 ( left) = RF Input 2 = Gnd 3 = +V DC 4 = Gnd 5 = RF-Output Characteristics: V DC = 24V DC-Current at Tc=30grdC: I DC = typ 190 mA, max 230 mA Frequency Range BW = 40 to 300 MHz Power Gain: Gp = 15.5 to 17.5 dB Slope S = max 1 dB Gain Flatness = +/- 0.2 dB Input Return Loss at Zo=75Ohm: Zin = min 18 dB, typ 20 dB Output return Loss at Zo=75Ohm: Zout = min 18 dB, typ 20 dB 21-Channel Crossmodulation Distortion at Pout= +50dBmV : XMD = max -54 dB Second Order Intermodulation ( Ch2 + Ch13 = ChReceive ) IMD = max -64dB Triple Beat (Ch3+Ch4+ChA=250MHz) TB = typ -78 dB, max -74 dB Noise Figure at f=300MHz: NF = max 8.5 dB There are no maximum ratings and no diagrams. __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW560 Low Distortion Wideband Amplifier Module I have an 1-page-datasheet of this very old Module in the MOTOROLA Databook 1974. Pins: Bottom View, Flange toward you: 1 ( left) = RF Input 2 = Gnd 3 = +V DC 4 = Gnd 5 = RF-Output The datasheet has no maximum ratings, characteristics only: V DC = 24V DC-Current at Tc=30grdC: I DC = typ 200mA, max 230mA Frequency Range BW = 40 to 300 MHz Power Gain: Gp = 15.5 to 17.5 dB Slope S = max 1 dB Gain Flatness = +/- 0.2 dB Input Return Loss at Zo=75Ohm: Zin = min 16 dB Output return Loss at Zo=75Ohm: Zout = min 16 dB Crossmodulation = -51 dB Intermodulation = -60 dB Triple Beat = -72 dB Noise Figure = 8.5 dB __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW561 Low Distortion Wideband Amplifier Module From the MOTOROLA Databook 1974: Pins: Bottom View, Flange toward you: 1 ( left) = RF Input 2 = Gnd 3 = +V DC 4 = Gnd 5 = RF-Output The datasheet has no maximum ratings, characteristics only: V DC = 24V DC-Current at Tc=30grdC: I DC = typ 200mA, max 230mA Frequency Range BW = 40 to 300 MHz Power Gain: Gp = 15.5 to 17.5 dB Slope S = max 1 dB Gain Flatness = +/- 0.2 dB Input Return Loss at Zo=75Ohm: Zin = min 16 dB Output return Loss at Zo=75Ohm: Zout = min 16 dB 21-Channel Crossmodulation Distortion at Pout= +50dBmV : XMD = max -54 dB Second Order Intermodulation ( Ch2 + Ch13 = ChReceive) IMD = max -66dB Triple Beat (Ch3+Ch4+ChA=250MHz) TB = typ -78 dB Noise Figure at f=300MHz: NF = max 12dB __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW591 Broadband Amplifier
Pins:
1 = RF-Input (left)
2 = Gnd
3 = Gnd
(4 = space)
5 = Vdc
(6 = space)
7 = Gnd
8 = Gnd
9 = RF-Output
Maximum Ratings:
Vdc = max 16V
Input Power = max 3.0 dBm
Operating Case Temp.:-20 to 90 grdC
Characteristics at Vdc=13.6V, Zo=50Ohm:
Frequency Range: 1 to 250 MHz
Power Gain = min 34.5dB, typ 36.5dB, max 38dB
Gain Flatness max +/-1.5 dB
VSWR in/out, f= 1 to 30MHz: typ 1.5:1
f=30 to 250MHz: typ 2:1
1dB Compression at f=30MHz: min 650mW, typ 800mW
f= 100MHz: typ 700mW
f= 250MHz: typ 250mW
Peak Envelope Power (PEP) for IMD3=-30dB, f=30MHz: min 700mW
f= 100MHz: typ 600mW
f= 250MHz : typ 300mW
Noise Figure at f=30MHz: typ 3.8, max 5dB
f=100MHz: typ 3.7dB
f=250MHz: typ 4.5dB
DC Current: typ300mA, max 340mA
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW592 Broadband Amplifier
Pins:
1 = RF-Input (left)
2 = Gnd
3 = Gnd
(4 = space)
5 = Vdc
(6 = space)
7 = Gnd
8 = Gnd
9 = RF-Output
Maximum Ratings:
Vdc = max 28V
Input Power = max 5.0 dBm
Operating Case Temp.:-20 to 90 grdC
Characteristics at Vdc=24V, Zo=50Ohm:
Frequency Range: 1 to 250 MHz
Power Gain = min 33.5dB, typ 35dB, max 36.5dB
Gain Flatness max +/-1.0dB
VSWR in/out, f= 1 to 30MHz: typ 1.5:1
f=30 to 250MHz: typ 2:1
1dB Compression at f=30MHz: min 750mW, typ 900mW
f= 100MHz: typ 900mW
f= 250MHz: typ 750mW
Peak Envelope Power (PEP) for IMD3=-30dB, f=30MHz: min 700mW
f= 100MHz: typ 850mW
f= 250MHz : typ 600mW
Noise Figure at f=30MHz: typ 3.8, max 5dB
f=100MHz: typ 3.7dB
f=250MHz: typ 3.9dB
DC Current: typ300mA, max 340mA
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW 607-2 VHF Power Amplifier From the databook MOTOROLA RF Dev 94: Pins: 1 : Input 2 : Vs1 (+7.5V ) 3 : Control Voltage (+7V, typ 250mA) 4 : Vs2 (+7.5V, Is1+Is2=typ 145 mA) 5 : Vs3 (7.5V, typ 1.75 A ) 6 : Output Maximum Ratings: Vs1, Vs2, Vs3 : 9 V Control V. : 9 V RF Input Power : 5 mW RF Output Power ; 10 W Operating Temp.: -30 to 100 grdC. Characteristics: Frequ.Range: 146 to 174 MHz Control Voltage : 0 to 7 V Quiescent Current Is1+Is2 = max 160 mA Power Gain at Vcont=7V, Pout = 7W : min 38.5 dB Efficiency at Pin=1mW, Pout=7W : min 40% Harmonics at ... : 2fo max -40dB, 3fo max -45 dB Input VSWR at ...: max 2:1 Load Mismatch at Pin=5mW, Pout=8W, VSWR=20:1 : No de- gradation in power output. __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW720 UHF Power Amplifier
From the Motorola databook RF dev. 1986:
Pins:
1 : RF Output (left)
2 : Gnd
3 : Vs2 (2. and 3. Ampl.)
4 : Gnd
5 : Vs1 (1. Amplifier)
6 : Gnd
7 : RF Input
Maximum Ratings :
Vs1, Vs2 = 15.5 V
RF Input Power : 250 mW
RF Output Power at Vs1=Vs2=12.5V : 25 W
Operating Case Temp.: -30 to 100 grdC.
Characteristics at Vs1=Vs2=12.5V, 25 grdC, 50 Ohm :
Frequency Range: A1 -Type : 400 to 440 MHz
A2 -Type : 440 to 470 MHz
Input Power fot Pout=20W : max 150 mW
Power Gain at Pout=20W : min 21 dB
Efficiency at Pout=20W : min 35 %
Harmonics : -40 dB
Input Impedance : max 2:1 VSWR
Load Mismatch: No degradation in Pout for VSWR=infinite,
Vs1=Vs2=15.5V,Pout=30W
Stability: All spourious outputs more than 60dB below
desired signal: Pin=0 to 250mW, Vs1=Vs2= 10 to 15.5V,
Load VSWR = 4:1 or Source VSWR = 2:1
Quiescent Current = 200 mA
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MHW806 UHF Power Amplifier
From the databook MOTOROLA RF DEVICE 1986:
Pins:
1 : RF In
2 : DC Supply 1.st.
3 : DC Supply 2.st.
space
4 : RF Out
Maximum Ratings:
DC Supply Voltage : 16 V
RF Input Power : 400 mW
RF Output Power: 9 W
Operating Case Temperature: -40 ... 100 grdC
Characteristics:
Frequency Range at Vs=12.5V:
MHW806-1 : 820 ... 850 MHz
-2 : 806 ... 870 MHz
-3 : 890 ... 915 MHz
-4 : 870 ... 960 MHz !
Input Power for Pout=6W , Vs=12.5V:
-1 : typ 200, max 250 mW
-2 : typ 200, max 250 mW
-3 : typ 300, max 350 mW
-4 : typ 300, max 350 mW
Power Gain at Pout=6W, Vs=12.5V:
-1 : min 13.8, typ 14.7 dB
-2 : min 13.8, typ 14.7 dB
-3 : min 12.3, typ 13 dB
-4 : min 12.3, typ 13 dB
Efficiency Vs=12.5V: min 30%, typ 38%
Harmonic Output : -45 dB to Reference Pout=6W
Input VSWR (50 Ohm- Reference) : 2 : 1
Power Degradation at Vs=12.5V,Pout=6W for -30 to 80grdC :
1.2 dB (Reference = 25 grdC)
Load Mismatch Stress:
No degradation in Power Output for Vs=16V,Pout=7.5W,
VSWR=30:1, all phase angles
Stability:
All spurious outputs >= 70 dB below the desired output
signal level for Vs = 10 to 16V, Pout = 0 to 7.5W,
Load VSWR = 4:1
Quiescent Current: max 125 mA
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MK4116P 16384 x 1 bit dynamic RAM von einem MOSTEK Datenblatt Pins: 1 : Vbb = -5V 2 : Din 3 : /WRITE 4 : /RAS 5 : A0 6 : A2 7 : A1 8 : Vdd = +12V 9 : Vcc = +5V 10: A5 11: A4 12: A3 13: A6 14: Dout 15: /CAS 16: Vss = Gnd __________________________________________
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MK50395 Six Decade Couter/ Display Decoder Pins: 1 : Vss 2 : /SET (Scan counter to MSD) 3 : /LZB (leading zeros blanking) 4 : a segment ... 10 : g segment 11 : A BCD output (LSB) 12 : B 13 : C 14 : D 15 : STORE 16 : Cd Couter BCD Input (MSB) 17 : Cc 18 : Cb 19 : Ca 20 : CLEAR 21 : SCAN ( Capacitor for Scan oszillator ) 22 : Vdd 23 : EQUAL output 24 : D1 Digit Strobe Output (LSD) .... 29 : D6 30 : LOAD REGISTER 31 : LOAD COUNTER 32 : Rd Register BCD Inputs (MSB) 33 : Rc 34 : Rb 35 : Ra 36 : COUNT (Zählereingangsimpulse) 37 : COUNT INHIBIT 38 : CARRY output 39 : ZERO output 40 : UP/DOWN __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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ML4817 From an ADVANCE INFORMATION only in the ML databook 1991: Pins : 1 : Inv Input to the Error Amp. 2 : Noninv. Inp. to the Error Amp. 3 : Error Amp. Output = inv Input of PWM Comp. 4 : Clock Output (perhaps Input too) 5 : Irc Output R(C) of Osc. 6 : C(T) Osc. 7 : R(D) Osc. 8 : Soft Start, internal Switch to Gnd 1) 9 : I(LIM)/Shutdown noninv Inp. of the Comparator 2) 10: RAMP = Noninv Input of PWM Comp. minus 1.25V 11: Gnd 12: Power Output 13: Power Gnd 14: Vcc 15: 5.1 V Vref 16: RC(Reset) 3) 1) at Reset or Under Voltage 2) The comparator has 1.4V at the inverted Input. 3) The Output of the comparator near pin9 sets a flipflop. The Q-Output of the flipflop switches on a current to the RC at Pin 16. The voltage at Pin16 is compared with 1.1V or 2.3V (trigger levels). The Output of the Reset Comparator is ORed with the ouput of the Undervoltage Lockout and to the Base of the NPN Transister (Collector = Pin8). Compared with the well known UC1823 Family I find differences for Pin11 because the UC1823 has a separate I(lim) Comparator. Futher differences for Pin7, Pin 10 until 14 for pinning only. Internal it seems to have the same functions. In the Text for the ML4817 features I find little datas: Fabricated on a 40 V bipolar process. Switching Frequencies to 1 MHz. High Current (2A peak) Totem Pole Output. Under Voltage Lockout circuit with 3.6 V hysteresis. __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MM4204/5204 512 x 8 UV EPROM
I have a copy of a copy only, not suitable for a scan.
I try to identify the most important values:
Silicon Gate Technology to achieve bipolar compatibility.
Programming by applying a -50 V pulse.
TriState controled by /CS.
Pins :
1 : Vbb
2 : Power Saver
3 : /CS
4 : PROGRAM
5 : A0
6 : A1
7 : A2
8 : A3
9 : A4
10 : A5
11 : A6
12 : Vss
13 : A7 ? (copy partial destroid)
14 : A8 ?
15 : D0 ?
16 : D1 ?
17 : D2 ?
18 : D3 ?
19 : D4
20 : D5
21 : D6
22 : D7
23 : Vdd
24 : VLL ?
Absolute Maximum Ratings :
All Input or Output Voltages with Respect to Vbb
except during programming : +0.3 V to -20 V
Power Dissipation : 750 mW
Operating Temp.: MM4204 : -55 to 85 grdC
MM5204 : 0 to 70 grdC.
T stg = -65 to 125 grdC.
Characteristics
at VLL = 0 V, Vbb = PROGRAM = Vss = 5V, Vdd = -12V
(Tolerances MM4204:+/-10%, MM5204: +/-5%) :
V IL : min Vss-14 V, max Vss-4.2 V
V IH : min Vss-1.5V, max Vss+0.3 V
V OL at I OL =1.6mA: max 0.4 V
V OH at I OH =0.8mA: min 2.4 V
Power Supply Current at /CS=V IH
Idd at Power Saver = V IL : max 50 mA
Idd at Power Saver = V IH : max 10 mA
Iss at Power Saver = V IL : max 52 mA
Iss at Power Saver = V IH : max 12 mA
Access Time : typ 0.75 us, max 1 us (MM4204 max 1.25 us)
Power Saver Setup Time: max 2 us
Chip Select Delay : max 500 ns (MM4204 max 600 ns)
Data Hold Time:min 30 ns, typ 50 ns
Chip Deselect Time = Power Saver Deselect
Time : min 30 ns, typ 300 ns, max 600 ns
The datasheet has no declarations for the progamming rules
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MM5318 TV digital clock
From a National Semiconductor 3-page datasheet:
Pins:
1 : Vdd = 0 V
2 : /BCD8 Multiplexed BCD Outputs (negative logic)
3 : /BCD4
4 : /BCD2
5 : /BCD1
6 : a \
7 : b |
8 : c \
9 : d 1)
10 : e /
11 : f |
12 : g /
13 : 12/24 hour select
14 : 50/60 Hz select
15 : Vss = 14 V
16 : HOLD for the prescale counter
17 : SLOW SET (for the seconds counter)
18 : FAST SET (for the minute counter)
19 : 50/60 Hz input
20 : S10 Digit Enable Outputs (Sec.)
21 : S1
22 : H10 (Hour)
23 : H1
24 : M10 (Minute)
25 : M1
26 : DX Digit select Lines inputs 2)
27 : DY
28 : DZ
1) multiplexed 7 segment outputs, open drain from +VSS via
internal P-channel MOSFETs.
2) from MM5841 TV display on screen controller.
Digit Digit Displayed
Select
Lines S1 S10 * M1 M10 * H1 H10
DX 1 0 0 1 1 0 0 1
DY 1 1 0 0 0 0 1 1
DZ 0 0 0 0 1 1 1 1
* = Output blanked
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MM5832 + MM5833 chromatic frequency generator Zu diesen Orgel- ICs habe ich ein Datenblatt von NATIONAL SEMICONDUCTOR mit nur 3 Seiten. Aber das Wichtigste steht wohl drin. Anscheinend braucht man immer beide ICs in Kombination, um alle 13 Halbtöne einer Oktave zu erzeugen. Pins MM5832: 1 : Gnd 2 : Trigger = Takt 2,00024MHz 3 : not connected 4 : Reset ( an Gnd) 5 : Vgg = -27V, typ 3,5 mA 6 : Vdd = -14V, typ 34 mA 7 : Vss = -10V, typ 25 mA (no output loads) 8 : Output G8 = 6270,34 Hz 9 : Output G#8= 6645,32 Hz 10 : Output A8 = 7043,10 Hz 11 : Output A#8= 7463,58 Hz 12 : Output B8 = 7906,09 Hz 13 : Output C9 = 8369,21 Hz 14 : Output C8 = 4184,61 Hz Pins MM5833: 1 bis 7 wie oben, 8 : Output C#8= 4435,12 Hz 9 : Output D8 = 4695,40 Hz 10 : Output D#8= 4975,72 Hz 11 : Output E8 = 5277,68 Hz 12 : Output F8 = 5587,26 Hz 13 : Output F#8= 5917,87 Hz 14 : not connected Diese ICs sind in einer auch damals unüblichen MOS-Technologie hergestellt, die drei verschiedene negative Versorgungsspannungen benötigt: Absolute Maximum Ratings: Clock Generator Voltage Vgg : max -33V Logic Supply Voltage Vdd : max -25V Buffer Supply Voltage Vbb : max -18V Trigger Input Voltage : max -18V Power Dissipation max 800mW Temp: 0 to 70 grdC Characteristics: Buffer Outputs loaded 20kOhm to Gnd and 20kOhm to Vbb: High Level: -2V to 0 V Low Level: -Vbb to -8 V Ebenso auch Takteingang Im Applikationsschaltbild sind alle Ausgänge mit je einem MM5824 an Pin 6 verbunden. Diese Teiler- ICs liefern dann die Oktaven Nr 2 bis 7. Wenn Sie eine nostalgische Orgel reaktivieren möchten, kann ich Ihnen nur wünschen, daß diese ICs noch in Ordnung sind. Denn Ersatzteile zu bekommen, dürfte selbst über das Internet schwierig sein. Damals waren die Plastikgehäuse noch nicht besonders zuverlässig. Es gab Fälle, da sind alle ICs eines Produktionsjahrgangs nach 8 bis 10 Jahren ausgefallen, egal ob sie eingebaut und in Betrieb waren, oder auf dem Ersatzteillager herumgelegen haben. Und diese MM- Typen von NS wurden meines Wissens ca. 1975 zuletzt produziert. _____________________________________
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MMI53511024 x 4bit PROM Dazu habe ich leider kein vollständiges Datenblatt sondern nur eine Kurzinformation aus der Anfangszeit. In späteren Datenbüchern von MMI war er dann wohl schon wieder herausgefallen. 1024 x 4bit PROM ,3-State, nichrome fusible link, (kompatibel zu ROM 5250 ) Anlieferungszustand ist mit allen Ausgängen H, programmiert wird nach L. Pins: 1 : Address A9 2 : A6 3 : A5 4 : A4 5 : A3 6 : A0 7 : A1 8 : A2 9 : Gnd 10: Output O4 11: O3 12: O2 13: O1 14: /E1 Enable und Programm 1) 15: A8 16: A7 17: E2 1) 18: Vcc 1)To enable the device /E1 must be low and E2 must be high Absolute Maximum Ratings: Vcc = 0.5 to 7 V Input Voltage: 1 to 5.5 V Output Current : 100 mA Input Current : -20 to 5 mA Pin6 Voltage during Vol Checks : 13 V Program Pin Voltage (Pin14) during programming : 35 V Output Voltage during programming : 27 V Programming Duty Cycle : max 25 % Storage Temp.: -65 to 150 grdC. Characteristics: Input Load Current: typ -60 uA, max -250 uA Versorgungsstrom : typ 105 mA, max 175 mA folgende Werte für Typ 6351, 0 bis 75grdC: Address Access Time : min 10ns, max 60ns Enable Access Time : min 5 ns, max 30 ns Enable Recovery Time : min 5ns, max 30ns Chip Enable to Low Impedance Delay : min 5 ns ...to high Imped. : max 30 ns Mittlere Programmierzeit 1 ms/bit Das ist leider schon alles. Das interessanteste ist der Preis anno 1975: 212,40 DM das Stück! _____________________________________
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MMI 6301-1 256 x 4bit PROM Three-State NiCr fusible links Schottky PROM Pins: 1 : A6 2 : A5 3 : A4 4 : A3 5 : A0 6 : A1 7 : A2 8 : Gnd 9 : O4 10: O3 11: O2 12: O1 13: P, /E1 14: /E2 15: A7 16: Vcc For Programming apply min 27V, max 33V to the Program Pin, then apply min 20V, max 26V to the Output to be programmed. Pulse width of Vout : min 10us, max 40us __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MMI6336 Pins: 1 : A7 2 : A6 3 : A5 4 : A4 5 : A3 6 : A2 7 : A1 8 : A0 9 : O1 10: O2 11: O3 12: Gnd 13: O4 14: O5 15: O6 16: O7 17: O8 18: E4 19: E3 20: P, /E2 21: /E1 22: (n.c.) 23: (n.c.) 24: Vcc Programming: Adressen anlegen, dann Vcc auf 5.5V, dann 27...33V an P, dann (nach 0...20us) 20...26V an Output pin für 10 ... 40us, dann (nach 0...1us) auch P wieder auf 0. Das für alle Output Pins einzeln wiederholen! __________________________________________
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MMI6389 2048 x 4 bit bipolar PROM (NiCr-Fuses) aus einem MMI-Datenbuch von 1982: Three-state Outputs : Output short-circuit pulse current, Vo=0V, Vcc=5V : max -90mA, min -20mA. ( Mit diesen alten Stromfressern konnte man noch Leistungstransistoren direkt ansteuern!) Supply Current max 155 mA. Eingänge TTL-kompatibel. Adress Access Time max 55 ns Enable Access and Recovery Time max 30 ns Pins: 1 : A6 2 : A5 3 : A4 4 : A3 5 : A0 6 : A1 7 : A2 8 : A10 9 : Gnd 10 : P = /E 11 : Q4 12 : Q3 13 : Q2 14 : Q1 15 : A9 16 : A8 17 : A7 18 : Vcc __________________________________________
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MP7521 12 bit Monolithic Muliplying D/A Converter
From a 3- page Micro Power Systems datasheet:
Replaces AD7521
Pin compatible with MP7621
Recommended for new designs: MP7623
Comparison with the AD7521 datasheet:
Nearly all the same, even the Suffixes for the
Temperature Classes.
Differences : MP AD
Nonlinearity Tempco : 0.2 ppm 2 ppm
Gain Error Tempco : 2 ppm 10 ppm
Capacitances, typical
All Inputs high
I out 1 : 52 pF 120 pF
I out 2 : 13 pF 37 pF
All inputs low
I out 1 : 26 pF 37 pF
I out 2 : 45 pF 120 pF
The typical performace curves are identical.
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MPC508A Single Ended 8 Channel CMOS Analog Multiplexer Aus dem Burr-Brown Datenbuch Data Conv.95: Pins: 1 : A0 (für Kanal 1 : A0 = A1 = A2 = Low) 2 : Enable ( Low: alle Kanäle aus) 3 : -Vsupply 4 : In1 5 : In2 6 : In3 7 : In4 8 : Out 9 : In8 10 : In7 11 : In6 12 : In5 13 : +Vsupply 14 : Gnd 15 : A2 16 : A1 Single Ended ist hier im Gegensatz zu Differential oder Stereo zu interpretieren, nicht bezüglich der Betriebsspannung. Das IC ist für +15V und -15V Versorgung, und das ist dann auch der Bereich für Eingangs- und Ausgangspegel. Pegel der Digitalsignale: Low unter 0,8V, High über 4V. Power Dissipation typ 7.5 mW Absolute Maximum Ratings: V+ to Gnd : 22V V- to Gnd : 25V V+ to V- : 44V Digital Input Overvoltage to V+ or V- : 4 V or max 20mA, whichever occurs first. Analog Input Overvoltage to V+ or V- : 20V Continuous Current S or D : 20mA Peak, pulsed 1ms : 40 mA Pd = 1.28W Temp.: -40 to 85 grdC. __________________________________________
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MS88128 128k x 8 CMOS Static RAM Modul Pins: 1 : NC 2 : A16 3 : A14 4 : A12 5 : A7 6 : A6 7 : A5 8 : A4 9 : A3 10: A2 11: A1 12: A0 13: DQ0 14: DQ1 15: DQ2 16: Gnd 17: DQ3 18: DQ4 19: DQ5 20: DQ6 21: DQ7 22: /E = Chip Enable 23: A10 24: /G = Output Enable 25: A11 26: A9 27: A8 28: A13 29: /W 30: NC 31: A15 32: Vcc = +5V TTL-compatible, Three state outputs Operating Power Supply Current : typ 50 mA, max 95 mA Standby for /E > Vih : typ 2 mA, max 15 mA Power Down for /E > Vcc-0.2V : typ 50 uA, max 500 uA 1) Vcc for Data Retention at /E = /G > Vcc-0.2V : min 2 V 1) Current at data retention : typ 20 uA, max 100 uA 1) 1) Vin < 0.2V or > Vcc-0.2V Im vorläufigen Datenblatt gibt es Typen für Read Access Time 100ns und 120 ns, 70ns ist angekündigt. __________________________________________
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MSM514400 1 048 576 Word x 4 bit dynamic RAM OKI Fast Page Mode Type Der Typ ...D kommt in meinem Datenblatt nicht vor. Deshalb nehme ich das Pinning vom Typ ...RS (20pin Dual In Line) und vom ZIP- Typ : DIL ZIP 1 : D1 6 2 : D2 7 3 : /WE 8 4 : /RAS 9 5 : A9 10 6 : A0 11 7 : A1 12 8 : A2 13 9 : A3 14 10: Vcc 15 11: A4 16 12: A5 17 13: A6 18 14: A7 19 15: A8 20 16: /OE 1 17: /CAS 2 18: D3 3 19: D4 4 20: Vss 5 Das SOJ-Gehäuse hat dieselbe Reihenfolge. Beim ZIP-Gehäuse gelten die rechts hinzugeschriebenen Pinnummern. __________________________________________
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MSM5219BGS 48 Dot Static LCD Driver 48bit Shift Register/Latch/Driver Pins : 1 : SEG33 ... 16: SEG48 (corner) 17: LOAD 18: CLOCK1 for shift register 19: DATA IN 20: DATA OUT 32 21: DATA OUT 48 22: SELF/External ( SELF= oscillator with 1/8 division) 23: Vdd 24: OSC ( for LCD, external R to Vcc, C to Gnd) 25: Gnd 26: ALL ON (priority) 27: BLANK (subpriority) 28: COM (common side of LCD) 29: SEG 1 30: SEG 2 (corner) 31: SEG 3 ... 40: SEG18 (corner) 41: SEG19 .... 60: SEG32 __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MSM5807 PLL frequency synthesizer 1976 hat OKI noch keine englischen Datenblätter gehabt. Wir hatten das Glück, daß uns ein Kontaktmann in Japan das Datenblatt vom MSM5807 übersetzt hat. Ich versuche, das handschriftliche Blatt zu entziffern: Pins: 1 : P5 Programmiereingang 2 : P6 3 : P7 4 : P8 5 : Select Low: 5kHz-Raster, High: 10kHz-Raster 1) 6 : Quarz nach 7, + C nach Gnd 7 : Quarz + C nach Gnd 8 : Gnd 9 : Ausgang zum Loop-Filter 10 : Lock-Detector Ausgang 11 : Eingang Einstellteiler 12 : P1 13 : P2 14 : P3 15 : P4 16 : Vdd= 5V 1) bei Quarzfrequenz = 5,12 MHz Die Programmiereingänge haben (unüblich!) interne 10kOhm- Widerstände nach Gnd. Der Taktoszillator eignet sich für max. 10,24 MHz für 10kHz/20kHz- Raster. Es folgt ein 10- stufiger Festteiler. Die maximale Einstellteilerfrequenz ist 5 MHz. Der programmierbare 8 bit- Teiler kann von 3 bis 255 eingestellt werden. Hier ist im Text ein Ausgang Namens N Count Out erwähnt, den es im Pinning aber nicht gibt. Das läßt darauf schließen, daß der Text allgemein für die ganze Familie verfasst worden ist. Der 5807 hat einen Tristate MOS-Ausgang, der also nur positive oder negative Stromimpulse liefert, wenn es eine Phasenabweichung gibt. Vereinfachend für den Bastler ist es jedenfalls, daß die Programmierung damals immer parallel erfolgte, üblicherweise von Programmierschaltern, die direkt den Binärcode lieferten. __________________________________________
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MT42C4256 256K x 4 DRAM with 512 x 4 SAM Das Datenblatt von MICRON hat 36 Seiten. Pins: SOJ ZIP 1 : SC 8 2 : SDQ1 9 3 : SDQ2 10 4 : /TR, /OE 11 5 : D1 12 6 : D2 13 7 : /ME,/WE 14 8 : NC 15 9 : /RAS 16 10 : A8 17 11 : A6 18 12 : A5 19 13 : A4 20 14 : Vcc 21 15 : A7 22 16 : A3 23 17 : A2 24 18 : A1 25 19 : A0 26 20 : QSF 27 21 : /CAS 28 22 : DSF 1 23 : D3 2 24 : D4 3 25 : /SE 4 26 : SDQ3 5 27 : SDQ4 6 28 : Vss 7 __________________________________________
Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MUX1600 -I 18- Channel Analog Multiplexer
From a GENERAL INSTRUMENT datasheet:
N-channel-Technology
5-bit Latch-register with Address Strobe Input
5-bit to 18 Decoder and 18 Switches with common output.
Case 28 Lead Dual In Line.
Pins:
1 : Gnd
2 : /Chip Select
3 : Address Strobe
4 : A0
5 : A1
6 : A2
7 : A3
8 : A4
9 : +Vdd (+12V)
10 : In1
11 : In2
12 : In3
13 : In4
14 : In5
15 : In6
16 : In7
17 : In8
18 : In9
19 : In10
20 : In11
21 : In12
22 : In13
23 : In14
24 : In15
25 : In16
26 : In17
27 : In18
28 : Analog Output
Maximum Ratings:
Vdd and all other input/output : to Gnd -0.3 to +18V .
Operating Temp: 0 to 70 GrdC .
Standard Conditions Vdd = 12V +-5%
Power Supply Current max 8mA .
Input Low Voltage : -0.5 ...+0.8 V .
Input High Voltage : min 2.2V .
Analog Input Voltage : 0 to 6V .
Channel ON Resistance : max 600 Ohm .
Source to Drain Capacitance max 5pF .
Analog Input Capacitance : max 5pF .
Analog Output Capacitance : max 20pF .
Each Channel Leakage (Vin - Vout = 6V) : max 5nA .
Leakage Vdd to Output( Vdd -Vout = 17V) : max 10nA .
Substrate Leakage (Vout = 6V) : max 410nA .
Total Leakage (18 Inputs + L.toVdd + SubstLeak) : max 500nA
Address Strobe Delay : min 50ns after Address Stabilisation
Address Strobe Pulse : min 200ns
Address Hold Time : min 50ns after the end of the
Address Strobe Pulse
Analog Switch Stabilisation typ 3us after the End of the
Address Strobe Pulse
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MWA5121 Wideband Hybrid Amplifier
From a 4-page datasheet in the MOTOROLA databook 1986:
Pins :
1 : Output
7 : +Vcc
11: Input
all others : Gnd
Absolute Maximum Ratings :
Vcc : 24 V
Vin = Vout : +/- 25 V DC
Icc : 50 mA
RF Input Voltage : 0.5 V
Pt = 1.2 W
Top = -30 to 65 grdC.
Tstg = -30 to 85 grdC.
Recommended:
Vcc = 18 to 22 V
Source and Load 50 to 75 Ohm
Top = -10 to 40 grdC.
Characteristics :
Icc : min 35 mA, typ 40 mA, max 45 mA
Gain at 100 MHz : min 25 dB, typ 27 dB, max 30 dB
Gain Flatness f=30 to 890 MHz : typ 2 dB, max 5 dB
Input VSWR f=30to890MHz, Zs=Zl=50Ohm: typ 2.1, max 3
Output VSWR ..... : typ 1.5, max 3
Isolation .... : typ 50 dB
Noise Figure 30 to 300 MHz : typ 3.5dB, max 7 dB
300 to 890 MHz : typ 4 dB, max 8 dB
From a diagram : The best NF is typ 3 dB for 500 MHz
From a diagram: The maximum available output power is 8 dBm
for Vcc=24V, 1 dB Gain Compression.
From a diagram: Second Order Intermodulation Distortion
for f1=55.25MHz, f2=211.25 MHz, Vce=20V, Dist=f1+f2:
-60 dB for Pout=-20 dBm, -37 dB for -5 dBm.
Third Order: 199.25MHz, 211.25MHz, Dist = 2 f2 - f1 :
-80dB for -20dBm, -53 dBm for -5 dBm.
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Without guaranty! Mistakes are possible. Please ask via email if you find a strange value!
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MX12 Class C rugged RF power Module Pins von links nach rechts, wenn die Beinchen nach unten zeigen: 1 : RF Out 2 : Gnd 3 : +B 4 : Gnd 5 : Gain 6 : Gnd 7 : RF In TRW scheint allerdings bei RF In, also rechts, mit Pin 1 zu zählen zu beginnen. Absolute Maximum Ratings: Supply Voltage : 16 V Total Current : 4 A Power Input : 250 mW Power Output : 14 W Tstg = Top = -30 ... 100 grdC. Characteristics: Frequency Ranges : 400 - 430 MHz / 430 - 470 MHz / 470 - 512 MHz Supply Voltage : 12.5 V Power Gain at P in = 150 mW : 12 W ( sollte wohl Output Power heißen ) Efficiency at rated power : 35 % Harmonic Content : min -30 dB ( sollte wohl maximal sein, oder minimale Dämpfung) Load VSWR at 14 V, 14 W, low frequency : unendlich zu 1 Power derating at -30 to 70 grdC.: max 2 dB Stability at any frequency, 0 - 16 V DC, 0 - 250mW, max 14 W Bei anderen Typen war mit der variablen Spannung nur die Vorstufe gemeint, also Anschluss Gain... Input Impedance : 50 Ohm Return Loss : max - 10 dB Output Impedance : 50 Ohm Gain Control Range at ??? : min 10 dB typ 4 grdC./W JF , ich denke Junction to Flange, Wärmewiderstand. __________________________________________
Alle Angaben ohne Garantie. Fehler beim Abschreiben sind möglich. Wenn Sie seltsame Werte entdecken, scheuen Sie sich nicht, per email nachzufragen!