General Description
The MAX6920 is a 12-output, 76V, vacuum fluorescent
display (VFD) tube driver that interfaces a multiplexed
VFD tube to a VFD controller such as the
MAX6850–MAX6853 or to a microcontroller. The
MAX6920 is also ideal for driving either static VFD tubes
or telecom relays.
Data is inputted using an industry-standard 4-wire serial
interface (CLOCK, DATA, LOAD, BLANK) for compatibility with both industry-standard drivers and Maxim’s VFD
controllers.
For easy display control, the active-high BLANK input
forces all driver outputs low, turning the display off, and
automatically puts the MAX6920 into shutdown mode.
Display intensity may also be controlled by pulse-width
modulating the BLANK input.
The MAX6920 has a serial interface data output pin,
DOUT, allowing any number of devices to be cascaded
on the same serial interface.
The MAX6920 is available in a 20-pin SO package.
Maxim also offers VFD drivers with either 20
(MAX6921/MAX6931) or 32 outputs (MAX6922 and
MAX6932).
Applications
White Goods Industrial Weighing
Gaming Machines Security
Automotive Telecom
Avionics
Features
♦ 5MHz Industry-Standard 4-Wire Serial Interface
♦ 3V to 5.5V Logic Supply Range
♦ 8V to 76V Grid/Anode Supply Range
♦ Push-Pull CMOS High-Voltage Outputs
♦ Outputs can Source 40mA, Sink 4mA
Continuously
♦ Outputs can Source 75mA Repetitive Pulses
♦ Outputs can be Paralleled for Higher Current
Drive
♦ Any Output can be Used as a Grid or an Anode
Driver
♦ Blank Input Simplifies PWM Intensity Control
♦ Small 20-Pin SO Package
♦ -40°C to +125°C Temperature Range
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
________________________________________________________________ Maxim Integrated Products 1
Ordering Information
19-3061; Rev 0; 10/03
For pricing, delivery, and ordering information, please contact Maxim/Dallas Direct! at
1-888-629-4642, or visit Maxim’s website at www.maxim-ic.com.
Typical Operating Circuit
TOP VIEW
20
19
18
17
16
15
14
13
12
11
1
2
3
4
5
6
7
8
9
10
V
CC
DIN
OUT0
OUT1
OUT2
OUT3
OUT4
OUT5
LOAD
CLKGND
BLANK
OUT6
OUT7
OUT8
OUT9
OUT10
OUT11
DOUT
V
BB
MAX6920AWP
Pin Configuration
PART TEMP RANGE PIN-PACKAGE
MAX6920AWP -40°C to +125°C 20 Wide SO
+60V+5V
µC
VFDOUT
VFCLK
VFLOAD
VFBLANK
19
11
12
C1
100nF
9
V
DIN
CLK
LOAD
BLANK
CC
MAX6920
OUT0 – OUT11
GND
10
120
V
BB
C2
100nF
12
VFD TUBE
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
2 _______________________________________________________________________________________
ABSOLUTE MAXIMUM RATINGS
ELECTRICAL CHARACTERISTICS
(Typical Operating Circuit, VBB= 8V to 76V, VCC= 3V to 5.5V, TA= T
MIN
to T
MAX
, unless otherwise noted.) (Note 1)
Stresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional
operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to
absolute maximum rating conditions for extended periods may affect device reliability.
Voltage (with respect to GND)
V
BB.................................................................................
-0.3V to +80V
V
CC
.......................................................................-0.3V to +6V
OUT_.......................................................-0.3V to (V
BB
+ 0.3V)
All Other Pins..........................................-0.3V to (V
CC
+ 0.3V)
OUT_ Continuous Source Current ....................................-45mA
OUT_ Pulsed (1ms max, 1/4 max duty) Source Current ...-80mA
Total OUT_ Continuous Source Current .........................-540mA
Total OUT_ Continuous Sink Current .................................60mA
Total OUT_ Pulsed (1ms max, 1/4 max duty)
Source Current
............................................................
-960mA
OUT_ Sink Current
..............................................................
15mA
CLK, DIN, LOAD, BLANK, DOUT Current .......................±10mA
Continuous Power Dissipation
20-Pin Wide SO (derate 10mW/°C over T
A
= +70°C) ..800mW
Operating Temperature Range (T
MIN
to T
MAX
).-40°C to +125°C
Junction Temperature......................................................+150°C
Storage Temperature Range .............................-65°C to +150°C
Lead Temperature (soldering, 10s) .................................+300°C
Logic Supply Voltage V
Tube Supply Voltage V
Logic Supply Operating Current I
Tube Supply Operating Current I
High-Voltage OUT_ V
Low-Voltage OUT_ V
PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS
CC
BB
All outputs OUT_
H
L
low, CLK = idle
All outputs OUT_
high, CLK = idle
All outputs OUT_
low
All outputs OUT_
high
VBB ≥ 15V,
= -25mA
I
OUT
VBB ≥ 15V,
I
= -40mA
OUT
8V < VBB < 15V,
I
= -25mA
OUT
VBB ≥ 15V,
I
= 1mA
OUT
8V < VBB < 15V,
= 1mA
I
OUT
CC
BB
TA = +25°C 72 170
T
A
TA = +25°C 350 650
T
A
TA = +25°C12
T
A
TA = +25°C 0.53 0.85
T
A
TA = +25°CV
TA = -40°C to +85°CVBB - 2
T
A
TA = -40°C to +85°CVBB - 3.5
T
A
TA = +25°CV
TA = -40°C to +85°CVBB - 2.5
T
A
TA = +25°C 0.75 1
TA = -40°C to +85°C 1.5
T
A
TA = +25°C 0.8 1.1
TA = -40°C to +85°C 1.6
T
A
3 5.5 V
876V
= -40°C to +125°C 200
= -40°C to +125°C 700
= -40°C to +125°C 4.2
= -40°C to +125°C 0.9
- 1.1
BB
= -40°C to +125°CVBB - 2.5
= -40°C to +125°CVBB - 4.0
- 1.2
BB
= -40°C to +125°CV
= -40°C to +125°C 1.9
= -40°C to +125°C 2.0
BB
- 3.0
µA
mA
V
V
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
_______________________________________________________________________________________ 3
ELECTRICAL CHARACTERISTICS (continued)
(Typical Operating Circuit, VBB= 8V to 76V, VCC= 3V to 5.5V, TA= T
MIN
to T
MAX
, unless otherwise noted.) (Note 1)
Note 1: All parameters are tested at TA= +25°C. Specifications over temperature are guaranteed by design.
Note 2: Guaranteed by design.
Note 3: Delay measured from control edge to when output OUT_ changes by 1V.
Rise Time OUT_ (20% to 80%) t
Fall Time OUT_ (80% to 20%) t
SERIAL INTERFACE TIMING CHARACTERISTICS
LOAD Rising to OUT_ Falling
Delay
LOAD Rising to OUT_ Rising
Delay
BLANK Rising to OUT_ Falling
Delay
BLANK Falling to OUT_ Rising
Delay
Input Leakage Current
CLK, DIN, LOAD, BLANK
Logic-High Input Voltage
CLK, DIN, LOAD, BLANK
Logic-Low Input Voltage
CLK, DIN, LOAD, BLANK
Hysteresis Voltage
DIN, CLK, LOAD, BLANK
High-Voltage DOUT V
Low-Voltage DOUT V
Rise and Fall Time DOUT
CLK Clock Period t
CLK Pulse-Width High t
CLK Pulse-Width Low t
CLK Rise to LOAD Rise Hold
DIN Setup Time t
DIN Hold Time t
DOUT Propagation Delay t
LOAD Pulse High t
PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS
VBB = 60V, CL = 50pF, RL = 2.3kΩ 0.9 2 µs
R
VBB = 60V, CL = 50pF, RL = 2.3kΩ 0.6 1.5 µs
F
(Notes 2, 3) 0.9 1.8 µs
(Notes 2, 3) 1.2 2.4 µs
(Notes 2, 3) 0.9 1.8 µs
(Notes 2, 3) 1.3 2.5 µs
, I
I
IH
IL
V
IH
V
IL
∆V
I
CP
CH
CL
t
CSH
DS
DH
DO
CSW
OH
OL
I
I
C
(Note 2)
(Note 2) 100 ns
3V to 4.5V 20
4.5V to 5.5V 15
C
= -1.0mA
SOURCE
= 1.0mA 0.5 V
SINK
= 10pF
DOUT
= 10pF
DOUT
3V to 4.5V 60 100
4.5V to 5.5V 30 80
3.0V to 4.5V 25 120 240
4.5V to 5.5V 20 75 150
0.8 x
V
CC
V
-
CC
0.5
200 ns
90 ns
90 ns
5ns
55 ns
0.05 10 µA
0.6 V
0.3 x
V
CC
V
V
V
ns
ns
ns
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
4 _______________________________________________________________________________________
Typical Operating Characteristics
(VCC= 5.0V, VBB= 76V, and TA= +25°C, unless otherwise noted.)
TUBE SUPPLY CURRENT (IBB)
vs. TEMPERATURE (OUTPUTS LOW)
MAX6920 toc01
TEMPERATURE (°C)
SUPPLY CURRENT (mA)
11060 8510 35-15
0.2
0.4
0.6
0.8
1.0
1.2
1.4
1.6
1.8
2.0
0
-40
VBB = 76V
VBB = 40V
VBB = 8V
TUBE SUPPLY CURRENT (IBB)
vs. TEMPERATURE (OUTPUTS HIGH)
MAX6920 toc02
TEMPERATURE (°C)
SUPPLY CURRENT (mA)
1008040 60020-20
0.2
0.4
0.6
0.8
1.0
1.2
1.4
1.6
1.8
2.0
0
-40 120
VBB = 76V
VBB = 40V
VBB = 8V
LOGIC SUPPLY CURRENT (ICC)
vs. TEMPERATURE (OUTPUTS LOW)
MAX6920 toc03
TEMPERATURE (°C)
SUPPLY CURRENT (µA)
1008040 60020-20
50
100
150
200
250
300
350
400
0
-40 120
VCC = 5V, CLK = 5MHz
VCC = 3.3V, CLK = 5MHz
VCC = 5V, CLK = IDLE
VCC = 3.3V, CLK = IDLE
SUPPLY CURRENT (ICC)
vs. TEMPERATURE (OUTPUTS HIGH)
MAX6920 toc04
TEMPERATURE (°C)
SUPPLY CURRENT (µA)
6010
300
350
400
450
500
550
600
250
-40 110
VCC = 5V, CLK = 5MHz
VCC = 3.3V, CLK = 5MHz
VCC = 5V, CLK = IDLE
VCC = 3.3V, CLK = IDLE
OUTPUT VOLTAGE (VBB - VH)
vs. TEMPERATURE (OUTPUT HIGH)
MAX6920 toc05
TEMPERATURE (°C)
OUTPUT VOLTAGE (V)
1008040 60020-20
0.5
1.0
1.5
2.0
2.5
3.0
3.5
0
-40 120
VBB = 76V
VBB = 40V
VBB = 8V
I
OUT
= -40mA
OUTPUT VOLTAGE
vs. TEMPERATURE (OUTPUT LOW)
MAX6920 toc06
TEMPERATURE (°C)
OUTPUT VOLTAGE (V)
1008040 60020-20
2
4
6
8
10
12
14
0
-40 120
VBB = 40V
VBB = 8V
VBB = 76V
I
OUT
= 4mA
OUTPUT RISE AND FALL WAVEFORM
MAX6920 toc11
1µs/div
BLANK
2V/div
OUT_
20V/div
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
_______________________________________________________________________________________ 5
Pin Description
Figure 1. MAX6920 Functional Diagram
PIN NAME FUNCTION
1VBBVFD Tube Supply Voltage
2 DOUT Serial-Clock Output. Data is clocked out of the internal shift register to DOUT on CLK’s rising edge.
3–8, 13–18
9 BLANK
10 GND Ground
11 CLK Serial-Clock Input. Data is loaded into the internal shift register on CLK’s rising edge.
12 LOAD
19 DIN Serial-Data Input. Data is loaded into the internal shift register on CLK’s rising edge.
20 V
OUT0 to
OUT11
CC
VFD Anode and Grid Drivers. OUT0 to OUT11 are push-pull outputs swinging from VBB to GND.
Blanking Input. High forces outputs OUT0 to OUT11 low, without altering the contents of the output
latches. Low enables outputs OUT0 to OUT11 to follow the state of the output latches.
Load Input. Data is loaded transparently from the internal shift register to the output latch while LOAD
is high. Data is latched into the output latch on LOAD's rising edge, and retained while LOAD is low.
Logic Supply Voltage
CLK
DIN
LOAD
BLANK
SERIAL-TO-PARALLEL SHIFT REGISTER
OUT0 OUT1 OUT2
DOUT
LATCHES
MAX6920
OUT11
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
6 _______________________________________________________________________________________
Detailed Description
The MAX6920 is a VFD tube driver comprising a 4-wire
serial interface driving 12 high-voltage Rail-to-Rail®
output ports. The driver is suitable for both static and
multiplexed displays.
The output ports feature high current-sourcing capability to drive current into grids and anodes of static or
multiplex VFDs. The ports also have active current sinking for fast discharge of capacitive display electrodes
in multiplexing applications.
The 4-wire serial interface comprises a 12-bit shift register and a 12-bit transparent latch. The shift register is
written through a clock input CLK and a data input DIN
and the data propagates to a data output DOUT. The
data output allows multiple drivers to be cascaded and
operated together. The output latch is transparent to
the shift register outputs when LOAD is high, and latches the current state on the falling edge of LOAD.
Each driver output is a slew-rated controlled CMOS
push-pull switch driving between V
BB
and GND. The
output rise time is always slower than the output fall
time to avoid shoot-through currents during output transitions. The output slew rates are slow enough to minimize EMI, yet are fast enough so as not to impact the
typical 100µs digit multiplex period and affect the display intensity.
Initial Power-Up and Operation
An internal reset circuit clears the internal registers of
the MAX6920 on power-up. All outputs OUT0 to OUT11
and the interface output DOUT initialize low regardless
of the initial logic levels of the CLK, DIN, BLANK, and
LOAD inputs.
4-Wire Serial Interface
The MAX6920 uses a 4-wire serial interface with three
inputs (DIN, CLK, LOAD) and a data output (DOUT).
This interface is used to write output data to the
MAX6920 (Figure 3) (Table 1). The serial interface data
word length is 12 bits, D0–D11.
The functions of the four serial interface pins are:
• CLK input is the interface clock, which shifts data
into the MAX6920’s 12-bit shift register on its rising
edge.
• LOAD input passes data from the MAX6920’s 12-
bit shift register to the 12-bit output latch when
LOAD is high (transparent latch), and latches the
data on LOAD’s falling edge.
Figure 2. MAX6920 CMOS Output Driver Structure
Figure 3. 4-Wire Serial Interface Timing Diagram
Rail-to-Rail is a registered trademark of Nippon Motorola, Ltd.
V
BB
40Ω
SLEW- RATE
CONTROL
TYPICAL
OUT_
750Ω
TYPICAL
t
LOAD
t
t
CL
CH
CLK
DIN
DOUT
t
DH
t
DS
D11 D10 D1 D0
t
CP
t
DO
t
CSH
CSW
D11
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
_______________________________________________________________________________________ 7
• DIN is the interface data input, and must be stable
when it is sampled on the rising edge of CLK.
• DOUT is the interface data output, which shifts
data out from the MAX6920’s 12-bit shift register
on the falling edge of CLK. Data at DIN is propagated through the shift register and appears at
DOUT (20 CLK cycles + t
DO
) later.
A fifth input pin, BLANK, can be taken high to force outputs OUT0 to OUT11 low, without altering the contents
of the output latches. When the BLANK input is low,
outputs OUT0 to OUT11 follow the state of the output
latches. A common use of the BLANK input is PWM
intensity control.
The BLANK input’s function is independent of the operation of the serial interface. Data can be shifted into the
serial interface shift register and latched regardless of
the state of BLANK.
Writing Device Registers Using the 4-Wire
Serial Interface
The MAX6920 is written using the following sequence:
1) Take CLK low.
2) Clock 12 bits of data in order D11 first to D0 last
into DIN, observing the data setup and hold times.
3) Load the 12 output latches with a falling edge
on LOAD.
LOAD may be high or low during a transmission. If
LOAD is high, then the data shifted into the shift register at DIN appears at the OUT0 to OUT11 outputs.
CLK and DIN may be used to transmit data to other
peripherals. Activity on CLK always shifts data into the
MAX6920’s shift register. However, the MAX6920 only
updates its output latch on the rising edge of LOAD,
and the last 12 bits of data are loaded. Therefore, multiple devices can share CLK and DIN as long as they
have unique LOAD controls.
Determining Driver Output Voltage Drop
The outputs are CMOS drivers, and have a resistive
characteristic. The typical and maximum sink and
source output resistances can be calculated from the
V
H
and VLelectrical characteristics. Use this calculated
resistance to determine the output voltage drop at different output currents.
Output Current Ratings
The continuous current source capability is 40mA per
output. Outputs may drive up to 75mA as a repetitive
peak current, subject to the on time (output high) being
no longer than 1ms, and the duty cycle being such that
the output power dissipation is no more than the dissipation for the continuous case. The repetitive peak rating
allows outputs to drive a higher current in multiplex grid
driver applications, where only one grid is on at a time,
and the multiplex time per grid is no more than 1ms.
Table 1. 4-Wire Serial Interface Truth Table
L = Low logic level.
H = High logic level.
X = Don’t care.
P = Present state (shift register).
R = Previous state (latched).
SERIAL
DATA
INPUT
CLOCK
INPUT
DIN
H H R0 R1 … Rn-2 Rn-1
L L R0 R1 … Rn-2 Rn-1
XR0R1R2… Rn-1 Rn
SHIFT REGISTER CONTENTS
CLK D0 D1 D2 … Dn-1 Dn LOAD D0 D1 D2 … Dn-1 Dn BLANK D0 D1 D2 … Dn-1 Dn
XXX… XX LR0R1R2… Rn-1 Rn
P0 P1 P2 … Pn-1 Pn H P0 P1 P2 … Pn-1 Pn L P0 P1 P2 … Pn-1 Pn
LOAD
INPUT
XXX… XX H LLL… LL
LATCH CONTENTS
BLANKING
INPUT
OUTPUT CONTENTS
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
8 _______________________________________________________________________________________
Since dissipation is proportional to current squared, the
maximum current that can be delivered for a given multiplex ratio is given by:
I
PEAK
= (grids x 1600)
1/2
mA
where grids is the number of grids in a multiplexed display.
This means that a duplex application (two grids) can use
a repetitive peak current of 56.5mA, a triplex application
(three grids) can use a repetitive peak current of 69.2mA,
and higher multiplex ratios are limited to 75mA.
Paralleling Outputs
Any number of outputs within the same package may
be paralleled in order to raise the current drive or
reduce the output resistance. Only parallel outputs
directly (by shorting outputs together) if the interface
control can be guaranteed to set the outputs to the
same level. Although the sink output is relatively weak
(typically 750Ω), that resistance is low enough to dissipate 530mW when shorted to an opposite level output
at a VBBvoltage of only 20V. A safe way to parallel outputs is to use diodes to prevent the outputs from sinking current (Figure 4). Because the outputs cannot sink
current from the VFD tube, an external discharge resistor, R, is required. For static tubes, R can be a large
value such as 100kΩ. For multiplexed tubes, the value
of the resistor can be determined by the load capacitance and timing characteristics required. Resistor Rl
discharges tube capacitance C to 10% of the initial
voltage in 2.3 x RC seconds. So, for example, a 15kΩ
value for R discharges 100pF tube grid or anode from
40V to 4V in 3.5µs, but draws an additional 2.7mA from
the driver when either output is high.
Power Dissipation
Take care to ensure that the maximum package dissipation ratings for the chosen package are not exceeded. Over dissipation is unlikely to be an issue when
driving static tubes, but the peak currents are usually
higher for multiplexed tubes. When using multiple driver devices, try to share the average dissipation evenly
between the drivers.
Determine the power dissipation (PD) for the MAX6920
for static tube drivers with the following equation:
PD= (VCCx ICC) + (VBBx IBB) + ((VBB- VH) x
I
ANODE
x A))
where:
A = number of anodes driven (a MAX6920 can drive a
maximum of 12).
I
ANODE
= maximum anode current.
(V
BB
- VH) is the output voltage drop at the given maxi-
mum anode current I
OUT
.
A static tube dissipation example follows:
VCC= 5V ±5%, VBB= 10V to 18V, A = 12, I
OUT
= 2mA
PD= (5.25V x 0.7mA) + (18V x 0.9mA) + ((2.5V x
2mA/25mA) x 2mA x 12) = 24.7mW
Determine the power dissipation (PD) for the MAX6920
for multiplex tube drivers with the following equation:
PD= (VCCx ICC) + (VBBx IBB) + ((VBB- VH) x I
ANODE
x A) + ((VBB- VH) x I
GRID
))
where:
A = number of anodes driven
G = number of grids driven
I
ANODE
= maximum anode current
I
GRID
= maximum grid current
The calculation presumes all anodes are on but only
one grid is on. The calculated PDis the worst case,
presuming one digit is always being driven with all its
anodes lit. Actual PDcan be estimated by multiplying
this PDfigure by the actual tube drive duty cycle, taking
into account interdigit blanking and any PWM intensity
control.
A multiplexed tube dissipation example follows:
VCC= 5V ±5%, VBB= 36V to 42V, A = 6, G = 6,
I
ANODE
= 0.4mA, I
GRID
= 24mA
PD= (5.25V X 0.7mA)+ (42V x 0.9mA) + ((2.5V x
0.4mA/25mA) x 0.4mA x 6) +
((2.5V x 24mA/25mA) x 24mA) = 99mW
Thus, for a 20-pin wide SO package (T
JA
= 1 / 0.01 =
+100°C/W from Absolute Maximum Ratings), the maximum allowed ambient temperature TAis given by:
T
J(MAX)
= TA+ (PDx TJA) = +150°C = TA+ (0.099 x
+100°C/W)
So TA= +140°C.
Figure 4. Paralleling Outputs
MAX6920
OUT0
OUT1
D1
OUTPUT
D2
R
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
_______________________________________________________________________________________ 9
This means that the driver can be operated in this
application up to the MAX6920’s +125°C maximum
operating temperature.
Power-Supply Considerations
The MAX6920 operates with multiple power-supply voltages. Bypass the VCCand VBBpower-supply pins to
GND with a 0.1µF capacitor close to the device. For
multiplex applications, it may be necessary to add an
additional 1µF bulk electrolytic capacitor, or greater, to
the VBBsupply.
Power-Supply Sequencing
The order of the power-supply sequencing is not important. The MAX6920 will not be damaged if either V
CC
or
VBBis grounded (or maintained at any other voltage
below the data sheet minimum), while the other supply
is maintained up to its maximum rating. However, as
with any CMOS device, do not drive the MAX6920’s
logic inputs if the logic supply V
CC
is not operational
because the input protection diodes clamp the signals.
Typical Application Circuit
Chip Information
TRANSISTOR COUNT: 2743
PROCESS: BiCMOS
MAX685x
VFDOUT
VFCLK
VFLOAD
VFBLANK DOUT
DIN
CLK
LOAD
BLANK
DIN
CLK
LOAD
BLANK DOUT
DIN
CLK
LOAD
BLANK DOUT
MAX6920
MAX6920
VFD TUBE
MAX6920
MAX6920
12-Output, 76V, Serial-Interfaced
VFD Tube Driver
Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are
implied. Maxim reserves the right to change the circuitry and specifications without notice at any time.
10 ____________________Maxim Integrated Products, 120 San Gabriel Drive, Sunnyvale, CA 94086 408-737-7600
© 2003 Maxim Integrated Products Printed USA is a registered trademark of Maxim Integrated Products.
Package Information
(The package drawing(s) in this data sheet may not reflect the most current specifications. For the latest package outline information,
go to www.maxim-ic.com/packages
.)
Package Information
(The package drawing(s) in this data sheet may not reflect the most current specifications. For the latest package outline information,
go to www.maxim-ic.com/packages
.)
N
1
TOP VIEW
e
FRONT VIEW
MAX
0.104
0.012
0.019
0.013
0.299
0.050
MAX
0.5120.496D
MILLIMETERS
MAX
MIN
2.65
2.35
0.30
0.10
0.49
0.35
0.23
0.32
7.40 7.60
0.40 1.27
MILLIMETERS
MAX
MIN
12.60 13.00
N MS013
20
AC
SOICW.EPS
INCHES
MIN
DIM
0.093A
0.004
A1
0.014
B
0.009
C
H
E
D
A
B
A1
C
L
e 0.050 1.27
0.291
E
H 0.4190.394 10.00 10.65
0.016L
VARIATIONS:
INCHES
MINDIM
D
0.398 0.413 AA10.5010.10 16
D
0.447 0.463 AB11.7511.35 18
D 0.6140.598 15.20 2415.60 AD
D 0.7130.697 17.70 2818.10 AE
0-8
SIDE VIEW
PROPRIETARY INFORMATION
TITLE:
PACKAGE OUTLINE, .300" SOIC
REV.DOCUMENT CONTROL NO.APPROVAL
21-0042
1
B
1
Loading...