Datasheet LT1203, LT1205 (Analog Devices) - 4
| Manufacturer | Analog Devices |
| Description | 150MHz Video Multiplexers |
| Pages / Page | 16 / 4 — Note 2:. Note 3:. Note 9:. Note 4:. Note 5:. Note 10:. Note 6:. Note 11:. … |
| File Format / Size | PDF / 512 Kb |
| Document Language | English |
Note 2:. Note 3:. Note 9:. Note 4:. Note 5:. Note 10:. Note 6:. Note 11:. Note 7:. Note 8:. TRUTH TABLE. LOGIC. VOUT. W U
Model Line for this Datasheet
Text Version of Document
LT1203/LT1205
Note 2:
The digital inputs (pins 5, 6 for the LT1203, pins 9, 10, 13, 14 for to pin 1 and measure the time for disappearance of 0.5V at pin 7 when the LT1205) are protected against ESD and overvoltage with internal pin 5 goes from 0V to 5V. Apply 1VDC to pin 3 and measure the time for SCRs. For inputs ≤±6V the SCR will not fire. Voltages above 6V will fire the appearance of 0.5V at pin 7 when pin 5 goes from 0V to 5V. Apply the SCR and the DC current should be limited to 50mA. To turn off the 1VDC to pin 3 and measure the time for disappearance of 0.5V at pin 7 SCR the pin voltage must be reduced to less than 2V or the current when pin 5 goes from 5V to 0V. For the LT1205 the same test is reduced to less than 10mA. performed on both MUXs.
Note 3:
A heat sink may be required depending on the power supply
Note 9:
For the LT1203, apply 1VDC to pin 1 and measure the time for the voltage. appearance of 0.5V at pin 7 when pin 6 goes from 0V to 5V. Pin 5 voltage
Note 4:
Commercial grade parts are designed to operate over the = 0V. Apply 1VDC to pin 1 and measure the time for disappearance of 0.2V temperature range of – 40°C to 85°C but are neither tested nor guaranteed at pin 7 when pin 6 goes from 5V to 0V. Pin 5 voltage = 0V. Apply 1VDC beyond 0°C to 70°C. Industrial grade parts specified and tested over to pin 3 and measure the time for the appearance of 0.5V at pin 7 when – 40°C to 85°C are available on special request, consult factory. pin 6 goes from 0V to 5V. Pin 5 voltage = 5V. Apply 1VDC to pin 3 and
Note 5:
T measure the time for disappearance of 0.2V at pin 7 when pin 5 goes from J is calculated from the ambient temperature TA and the power dissipation P 5V to 0V. Pin 5 voltage = 5V. For the LT1205 the same test is performed D according to the following formulas: on both MUXs. LT1203CN8: TJ = TA + (PD × 100°C/W)
Note 10:
V LT1203CS8: T IN = 0dBm (0.223VRMS) at 10MHz on one input with the other J = TA + (PD × 150°C/ W) input selected and RS = 10Ω. For disable crosstalk all inputs are driven LT1205CS: TJ = TA + (PD × 100°C/W) simultaneously. In disable the output impedance is very high and signal
Note 6:
Slew rate is measured at ±2.0V on a ±2.5V output signal while couples across the package; the load impedance determines the crosstalk. operating on ±15V supplies, RL = 1k.
Note 11:
Differential gain and phase are measured using a Tektronix
Note 7:
Full power bandwidth is calculated from the slew rate TSG120 YC/NTSC signal generator and a Tektronix 1780R video measurement: measurement set. The resolution of this equipment is 0.1% and 0.1°. FPBW = SR/2πVPEAK Ten identical MUXs were cascaded giving an effective resolution of
Note 8:
For the LT1203, apply 1VDC to pin 1 and measure the time for the 0.01% and 0.01°. appearance of 0.5V at pin 7 when pin 5 goes from 5V to 0V. Apply 1VDC
TRUTH TABLE LOGIC EN VOUT
0 1 VIN0 1 1 VIN1 0 0* HIGH ZOUT 1 0 HIGH ZOUT *Must be ≤0.5V
W U TYPICAL PERFOR A CE CHARACTERISTICS
±
5V Frequency Response
±
15V Frequency Response
5 0 5 0 V V 4 S = ±5V –20 4 S = ±15V –20 T T A = 25°C A = 25°C 3 RL = ∞ –40 3 RL = ∞ –40 2 –60 2 –60 PHASE (DEG) PHASE (DEG) 1 –80 1 –80 0 –100 0 –100 GAIN (dB) GAIN (dB) –1 –120 –1 –120 –2 –140 –2 –140 –3 –160 –3 –160 –4 –180 –4 –180 –5 –200 –5 –200 1 10 100 1000 1 10 100 1000 FREQUENCY (MHz) FREQUENCY (MHz) LT1203/05 • TPC01 LT1203/05 • TPC02 4
Note 2:
The digital inputs (pins 5, 6 for the LT1203, pins 9, 10, 13, 14 for to pin 1 and measure the time for disappearance of 0.5V at pin 7 when the LT1205) are protected against ESD and overvoltage with internal pin 5 goes from 0V to 5V. Apply 1VDC to pin 3 and measure the time for SCRs. For inputs ≤±6V the SCR will not fire. Voltages above 6V will fire the appearance of 0.5V at pin 7 when pin 5 goes from 0V to 5V. Apply the SCR and the DC current should be limited to 50mA. To turn off the 1VDC to pin 3 and measure the time for disappearance of 0.5V at pin 7 SCR the pin voltage must be reduced to less than 2V or the current when pin 5 goes from 5V to 0V. For the LT1205 the same test is reduced to less than 10mA. performed on both MUXs.
Note 3:
A heat sink may be required depending on the power supply
Note 9:
For the LT1203, apply 1VDC to pin 1 and measure the time for the voltage. appearance of 0.5V at pin 7 when pin 6 goes from 0V to 5V. Pin 5 voltage
Note 4:
Commercial grade parts are designed to operate over the = 0V. Apply 1VDC to pin 1 and measure the time for disappearance of 0.2V temperature range of – 40°C to 85°C but are neither tested nor guaranteed at pin 7 when pin 6 goes from 5V to 0V. Pin 5 voltage = 0V. Apply 1VDC beyond 0°C to 70°C. Industrial grade parts specified and tested over to pin 3 and measure the time for the appearance of 0.5V at pin 7 when – 40°C to 85°C are available on special request, consult factory. pin 6 goes from 0V to 5V. Pin 5 voltage = 5V. Apply 1VDC to pin 3 and
Note 5:
T measure the time for disappearance of 0.2V at pin 7 when pin 5 goes from J is calculated from the ambient temperature TA and the power dissipation P 5V to 0V. Pin 5 voltage = 5V. For the LT1205 the same test is performed D according to the following formulas: on both MUXs. LT1203CN8: TJ = TA + (PD × 100°C/W)
Note 10:
V LT1203CS8: T IN = 0dBm (0.223VRMS) at 10MHz on one input with the other J = TA + (PD × 150°C/ W) input selected and RS = 10Ω. For disable crosstalk all inputs are driven LT1205CS: TJ = TA + (PD × 100°C/W) simultaneously. In disable the output impedance is very high and signal
Note 6:
Slew rate is measured at ±2.0V on a ±2.5V output signal while couples across the package; the load impedance determines the crosstalk. operating on ±15V supplies, RL = 1k.
Note 11:
Differential gain and phase are measured using a Tektronix
Note 7:
Full power bandwidth is calculated from the slew rate TSG120 YC/NTSC signal generator and a Tektronix 1780R video measurement: measurement set. The resolution of this equipment is 0.1% and 0.1°. FPBW = SR/2πVPEAK Ten identical MUXs were cascaded giving an effective resolution of
Note 8:
For the LT1203, apply 1VDC to pin 1 and measure the time for the 0.01% and 0.01°. appearance of 0.5V at pin 7 when pin 5 goes from 5V to 0V. Apply 1VDC
TRUTH TABLE LOGIC EN VOUT
0 1 VIN0 1 1 VIN1 0 0* HIGH ZOUT 1 0 HIGH ZOUT *Must be ≤0.5V
W U TYPICAL PERFOR A CE CHARACTERISTICS
±
5V Frequency Response
±
15V Frequency Response
5 0 5 0 V V 4 S = ±5V –20 4 S = ±15V –20 T T A = 25°C A = 25°C 3 RL = ∞ –40 3 RL = ∞ –40 2 –60 2 –60 PHASE (DEG) PHASE (DEG) 1 –80 1 –80 0 –100 0 –100 GAIN (dB) GAIN (dB) –1 –120 –1 –120 –2 –140 –2 –140 –3 –160 –3 –160 –4 –180 –4 –180 –5 –200 –5 –200 1 10 100 1000 1 10 100 1000 FREQUENCY (MHz) FREQUENCY (MHz) LT1203/05 • TPC01 LT1203/05 • TPC02 4
