Dallas Semiconductor DS1010S-80-T-R, DS1010S-80, DS1010S-75-T-R, DS1010S-75, DS1010S-60-T-R Datasheet

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FEATURES
All-silicon time delay10 taps equally spacedDelays are stable and preciseLeading and trailing edge accuracyDelay tolerance ±5% or ±2 ns, whichever is
greater
PIN ASSIGNMENT
PIN DESCRIPTION
TAP 1 - TAP 10 - TAP Output Number V
CC
- 5 Volts GND - Ground NC - No Connection IN - Input
DESCRIPTION
The DS1010 series delay line has ten equally spaced taps providing delays from 5 ns to 500 ns. The devices are offered in a standard 14-pin DIP which is pin-compatible with hybrid delay lines. Alternatively, a 16-pin SOIC is available for surface mount technology which reduces PC board area. Since the DS1010 is an all-silicon solution, better economy is achieved when compared to older methods using hybrid techniques. The DS1010 series delay lines provide a nominal accuracy of ±5% or ±2 ns, whichever is greater. The DS1010 reproduces the input logic state at the TAP 10 output after a fixed delay as specified by the dash number extension of the part number. The DS1010 is desi gned to produce both leading and trailing edge with equal precision. Each tap is capable of driving up to 10 74LS type loads. Dallas Semiconductor can customize standard products to meet special needs. For special requests and rapid delivery, call (972) 371-4348.
DS1010
10-Tap Silicon Delay Line
www.dalsemi.com
DS1010S 16-Pin SOIC
(300-mil)
See Mech. Drawin
g
s Sectio
n
IN1 NC
TAP 2 TAP 4
TAP 8
TAP 6
TAP 1
TAP 7
TAP 10
TAP 9
TAP 5
V
CC
1 2 3 4 5 6 7
14 13
12
11 10
8
9
GND
TAP 3
DS1010 14-Pin DIP (300-mil)
See Mech. Drawin
g
s Sectio
n
IN1 NC
NC
TAP 2
TAP 6
TAP 4
GND
N
C
TAP 5
TAP 9
TAP 10
TAP 7
TAP 3
V
CC
1 2 3 4 5
6
7
16 15 14
13
12
8
9
10
11
TAP 8
TAP 1
DS1010
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LOGIC DIAGRAM Figure 1
PART NUMBER DELAY TABLE (t
PHL
, t
PLH
) Table 1
CATALOG P/N TOTAL DELAY DELAY/TAP (ns)
DS1010-50 50 5 DS1010-60 60 6 DS1010-75 75 7.5 DS1010-80 80 8 DS1010-100 100 10 DS1010-125 125 12.5 DS1010-150 150 15 DS1010-175 175 17.5 DS1010-200 200 20 DS1010-250 250 25 DS1010-300 300 30 DS1010-350 350 35 DS1010-400 400 40 DS1010-450 450 45 DS1010-500 500 50
Custom delays available.
DS1010
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ABSOLUTE MAXIMUM RATINGS*
Voltage on Any Pin Relative to Ground -1.0V to +7.0V Operating Temperature 0°C to 70°C Storage Temperature -55°C to +125°C Soldering Temperature 260°C for 10 seconds Short Circuit Output Current 50 mA for 1 second
* This is a stress rating only and functional operation of the device at these or any other conditions above those indicated in the operation sections of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods of time may affect reliability.
DC ELECTRICAL CHARACTERISTICS (0°C to 70°C; VCC = 5.0V ± 5%)
PARAMETER SYM TEST
CONDITION
MIN TYP MAX UNITS NOTES
Supply Voltage V
CC
4.75 5.00 5.25 V 1 High Level Input Voltage
V
IH
2.2 VCC + 0.5 V 1
Low Level Input Voltage
V
IL
-0.5 0.8 V 1
Input Leakage Current
I
I
0.0V ≤ VI V
CC
-1.0 1.0 µA
Active Current I
CC
VCC=Max;
Period=Min.
40 150 mA 2
High Level Output Current
I
OH
VCC=Min.
VOH=4
-1.0 mA
Low Level Output Current
I
OL
VCC=Min.
VOL=0.5
12 mA
AC ELEC TRICAL CHARACTE RISTICS (TA = 25°C; VCC = 5V ± 5%)
PARAMETER SYMBOL MIN TYP MAX UNITS NOTES
Input Pulse Width t
WI
40% of TAP 10 t
PLH
ns 8 Input to Tap Delay (leading edge)
t
PLH
Table 1 ns 3, 4, 5, 6,
7, 9 Input to Tap Delay (trailing edge)
t
PHL
Table 1 ns 3, 4, 5, 6,
7, 9 Power-up Time t
PU
100 ms
Period 4 (tWI)ns8
CAPACITANCE (TA = 25°C)
PARAMETER SYMBOL MIN TYP MAX UNITS NOTES
Input Capacitance C
IN
510pF
DS1010
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NOTES:
1. All voltages are referenced to ground.
2. Measured with outputs open.
3. V
CC
= 5V @ 25°C. Input-to-tap delays accurate on both rising and falling edges within ±2 ns or ±5%
whichever is greater.
4. See “Test Conditions” section.
5. For DS1010 delay lines with a TAP 10 delay of 100 ns or greater, tempe rature variations from 25°C to 0°C or 70°C may produce an additional input-to-tap delay shift of ±2ns or ±3%, whichever is greater.
6. For DS1010 delay lines with a TAP 10 delay less than 100 ns, temperature variations from 25°C to 0°C or 70°C may produce an additional input-to-tap delay shift of ±1 ns or ±9%, whichever is greater.
7. All tap delays tend to vary unidirectionally with temperature or volta ge changes. For example, if TAP 1 slows down, all other taps will also slow down; TAP 3 can never be faster than TAP 2.
8. Pulse width and period specifications may be exceeded; however, accuracy will be application­sensitive (decoupling, layout, etc.).
9. Certain high-frequency applications not recommended for -50 in 16-pin package. Consult factory.
TIMING DIAGRAM: SILICON DELAY LINE Figure 2
DS1010
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TEST CIRCUIT Figure 3
TERMINOLOGY
Period: The time elapsed between the leading edge of the first pulse and the leading edge of the following pulse.
tWI (Pulse Width): The elapsed time on the pulse between the 1.5V point on the leading edge and the
1.5V point on the trailing edge, or the 1.5V point on the trailing edge and the 1.5 V point on the leading
edge.
t
RISE
(Input Rise Time): The elapsed time between the 20% and the 80% point on the leading edge of the
input pulse.
t
FALL
(Input Fall Time): The elapsed time between the 80% and the 20% point on the trailing edge of the
input pulse.
t
PLH
(Time Delay Rising): The elapsed time between the 1.5V point on the leading edge of the input
pulse and the 1.5V point on the leading edge of any tap output pulse.
t
PHL
(Time Delay, Falling): The elapsed time between the 1.5V point on the trailing edge of the input
pulse and the 1.5V point on the trailing edge of any tap output pulse.
DS1010
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TEST SETUP DESCRIPTION
Figure 3 illustrates the hardware configuration used for measuring the timing parameters on the DS1010. The input waveform is produced by a precision pulse generator under software control. Time delays are measured by a time interval counter (20 ps resolution) connected between the input and each tap. Each tap is selected and connected to the counter by a VHF switch control unit. All measurements are fully automated, with each instrument controlled by a central computer over an IEEE 488 bus.
TEST CONDITIONS INPUT:
Ambient Temperature: 25°C ± 3°C Supply Voltage (VCC): 5.0V ± 0.1V Input Pulse: High = 3.0V ± 0.1V
Low = 0.0V ± 0.1V Source Impedance: 50 ohm max. Rise and Fall Time: 3.0 ns max. Pulse Width: 500 ns (1 µs for -500) Period: 1 µs ( 2 µs for -500)
OUTPUT:
Each output is loaded with the equivalent of one 74FO4 input gate. Dela y is measured at the 1.5V level on the rising and falling edge.
NOTE:
Above conditions are for test only and do not restrict the operation of the device under other data sheet conditions.
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