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MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
General Description
Benefits and Features
The MAX3051 interfaces between the CAN protocol
controller and the physical wires of the bus lines in a
controller area network (CAN). The MAX3051 provides
differential transmit capability to the bus and differential
receive capability to the CAN controller. The MAX3051
is primarily intended for +3.3V single-supply applications
that do not require the stringent fault protection specified
by the automotive industry (ISO 11898).
●● Use 3V Microcontroller with Same LDO
• Low +3.3V Single-Supply Operation
●● Common-Mode Range Exceeds the ISO 11898
Standard (-2V to +7V)
• Wide -7V to +12V Common-Mode Range
●● Uses Minimal Board Space
• SOT23 Package
●● Flexible Operation Optimizes Performance
and Power Consumption for Reduced Thermal
Dissipation
• Four Operating Modes
High-Speed Operation Up to 1Mbps
Slope-Control Mode to Reduce EMI (Up to
500kbps)
Standby Mode
Low-Current Shutdown Mode
●● Robust Protection Increases System Reliability
• ±12kV Human Body Model ESD Protection
• Thermal Shutdown
• Current Limiting
The MAX3051 features four different modes of operation: high-speed, slope-control, standby, and shutdown
mode. High-speed mode allows data rates up to 1Mbps.
The slope-control mode can be used to program the slew
rate of the transmitter for data rates of up to 500kbps.
This reduces the effects of EMI, thus allowing the use
of unshielded twisted or parallel cable. In standby mode,
the transmitter is shut off and the receiver is pulled high,
placing the MAX3051 in low-current mode. In shutdown
mode, the transmitter and receiver are switched off.
The MAX3051 input common-mode range is from -7V to
+12V, exceeding the ISO 11898 specification of -2V to
+7V. These features, and the programmable slew-rate
limiting, make the part ideal for nonautomotive, harsh
environments. The MAX3051 is available in 8-pin SO and
SOT23 packages and operates over the -40°C to +85°C
extended temperature range.
Applications
●●
●●
●●
●●
Printers JetLink
Industrial Control and Networks
Telecom Backplane
Consumer Applications
Typical Operating Circuit
VCC
0.1µF
120Ω
VCC
CAN
CONTROLLER
CANH
MAX3051
TX0
TXD
RX0
RXD
CANL
25kΩ TO 200kΩ
GND
19-3274; Rev 4; 4/18
RS
GND
120Ω
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Absolute Maximum Ratings
VCC to GND.............................................................-0.3V to +6V
TXD, RS, SHDN to GND..........................................-0.3V to +6V
RXD to GND.............................................................-0.3V to +6V
CANH, CANL to GND..........................................-7.5V to +12.5V
Continuous Power Dissipation (TA = +70°C)
8-Pin SO (derate 5.9mW/°C above +70°C)..................470mW
8-Pin SOT23 (derate 5.1mW/°C above +70°C)........408.2mW
Operating Temperature Range............................ -40°C to +85°C
Maximum Junction Temperature......................................+150°C
Storage Temperature Range............................. -65°C to +150°C
Lead Temperature Range (soldering, 10s)....................... +300°C
Soldering Temperature (reflow)........................................+260°C
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.
Electrical Characteristics
(VCC = +3.3V ±5%, RL = 60Ω, CL = 100pF, TA = TMIN to TMAX, unless otherwise noted. Typical values are at VCC = +3.3V and
TA = +25°C.) (Note 1)
PARAMETER
Supply Current
SYMBOL
IS
Shutdown Current
ISHDN
Thermal-Shutdown Threshold
VTSH
CONDITIONS
MIN
TYP
MAX
Dominant
35
70
Recessive
2
5
Standby
8
15
µA
1
µA
VSHDN = VCC, TXD = VCC or unconnected
Thermal-Shutdown Hysteresis
UNITS
mA
+160
°C
25
°C
TXD INPUT LEVELS
High-Level Input Voltage
VIH
Low-Level Input Voltage
VIL
Input Capacitance
CIN
Pullup Resistor
2
VCC + 0.3V
0.8
5
RINTXD
50
V
V
pF
100
kΩ
3
V
CANH, CANL TRANSMITTER
Recessive Bus Voltage
VCANH,
VCANL
VTXD = VCC, no load
2
2.3
VTXD = VCC, no load, VRS = VCC
(standby mode)
-100
+100
mV
Off-State Output Leakage
-2V < VCANH, VCANL < +7V, SHDN = HIGH
-250
+250
µA
Input Leakage Current
VCC = 0V, VCANH = VCANL = 5V
-250
+250
µA
2.45
CANH Output Voltage
VCANH
VTXD = 0V
CANL Output Voltage
VCANL
VTXD = 0V
Differential Output
CANH Short-Circuit Current
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(VCANH VCANL)
ICANHSC
V
1.25
VTXD = 0V
1.5
3.0
VTXD = 0V, RL = 45Ω
1.2
3.0
VTXD = VCC, no load
-500
+50
VTXD = VCC, RL = 60Ω
-120
+12
-7V ≤ VCANH ≤ 0V
-200
Minimum foldback current
-35
V
V
mV
mA
Maxim Integrated │ 2
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Electrical Characteristics (continued)
(VCC = +3.3V ±5%, RL = 60Ω, CL = 100pF, TA = TMIN to TMAX, unless otherwise noted. Typical values are at VCC = +3.3V and
TA = +25°C.) (Note 1)
PARAMETER
CANL Short-Circuit Current
SYMBOL
ICANLSC
CONDITIONS
MIN
TYP
VCC ≤ VCANL ≤ 12V
MAX
UNITS
200
mA
VCC
V
0.4
V
RXD OUTPUT LEVELS
RXD High Output-Voltage Level
VOH
I = -1mA
RXD Low Output-Voltage Level
VOL
I = 4mA
0.8 x VCC
DC BUS RECEIVER (VTXD = VCC; CANH and CANL externally driven; -7V ≤ VCANH, VCANL ≤ +12V,
unless otherwise specified)
Differential Input Voltage
(Recessive)
VDIFF
Differential Input Voltage
(Dominant)
VDIFF
Differential Input Hysteresis
CANH and CANL Input
Resistance
Differential Input Resistance
-7V ≤ VCM ≤ +12V
0.5
VRS = VCC (standby mode)
0.5
V
Dominant
0.9
VRS = VCC (standby mode)
1.1
VDIFF(HYST)
20
V
mV
RI
20
50
kΩ
RDIFF
40
100
kΩ
MODE SELECTION (RS)
Input Voltage for High Speed
Input Voltage for Standby
Slope-Control Mode Voltage
High-Speed Mode Current
VSLP
0.3 x VCC
VSTBY
VSLOPE
IHS
0.75 x VCC
RRS = 25kΩ to 200kΩ
0.4 x VCC
VRS = 0V
V
V
0.6 x VCC
-500
V
µA
SHUTDOWN (SHDN)
SHDN Input Voltage High
VSHDNH
SHDN Input Voltage Low
VSHDNL
SHDN Pulldown Resistor
RINSHDN
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2
50
V
0.8
V
100
kΩ
Maxim Integrated │ 3
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Timing Characteristics
(VCC = +3.3V ±5%, RL = 60Ω, CL = 100pF, TA = TMIN to TMAX, unless otherwise noted. Typical values are at VCC = +3.3V and
TA = +25°C.)
PARAMETER
Delay TXD to Bus Active
(Figure 1)
Delay TXD to Bus Inactive
(Figure 1)
Delay Bus to Receiver Active
(Figure 1)
Delay Bus to Receiver Inactive
(Figure 1)
Differential-Output Slew Rate
SYMBOL
CONDITIONS
MIN
TYP
VRS = 0V (≤ 1Mbps)
tONTXD
RRS = 25kΩ (≤ 500kbps)
183
RRS = 100kΩ (≤ 125kbps)
770
RRS = 25kΩ (≤ 500kbps)
226
RRS = 100kΩ (≤ 125kbps)
834
SR
ns
80
RRS = 25kΩ (≤ 500kbps)
200
RRS = 100kΩ (≤ 125kbps)
730
VRS = 0V (≤ 1Mbps)
tOFFRXD
ns
70
VRS = 0V (≤ 1Mbps)
tONRXD
UNITS
50
VRS = 0V (≤ 1Mbps)
tOFFTXD
MAX
ns
100
RRS = 25kΩ (≤ 500kbps)
245
RRS = 100kΩ (≤ 125kbps)
800
VRS = 0V (≤ 1Mbps)
96
RRS = 25kΩ (≤ 500kbps)
12.5
RRSS = 100kΩ (≤ 125kbps)
2.9
RRS = 200kΩ (≤ 62.5kbps)
1.6
ns
V/μs
Bus Dominant to RXD Active
tDRXDL
VRS > 0.8 x VCC, standby, Figure 2
1
μs
Standby to Receiver Active
tSBRXDL
BUS dominant, Figure 2
4
μs
SHDN to Bus Inactive
tOFFSHDN
TXD = GND, Figure 3 (Note 2)
1
μs
SHDN to Receiver Active
tONSHDN
BUS dominant, Fi gur e 3 (Note 3)
4
μs
SHDN to Standby
tSHDNSB
Figure 4
ESD Protection
Human Body Model
20
μs
±12
kV
Note 1: All currents into device are positive; all currents out of the device are negative. All voltages are referenced to device
ground, unless otherwise noted.
Note 2: No other devices on the BUS.
Note 3: BUS externally driven.
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Maxim Integrated │ 4
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Timing Diagrams
Figure 2
Figure 1
TXD
VCC/2
RS
VCC/2
tONTXD
1.1V
VDIFF
tSBRXDL
0.5V
tONRXD
RXD
tOFFRXD
VCC/2
VCC/2
Figure 1. Timing Diagram
tDRXDL
RXD
VCC/2
VCC/2
Figure 2. Timing Diagram for Standby Signal
Figure 4
Figure 3
SHDN
BUS EXTERNALLY
DRIVEN
tOFFTXD
0.9V
VDIFF
VCC x 0.75
VCC/2
VCC/2
SHDN
VCC/2
tONSHDN
tOFFSHDN
VDIFF
0.5V
RXD
Figure 3. Timing Diagram for Shutdown Signal
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tSHDNSB
BUS EXTERNALLY
DRIVEN
0.75V x VCC
RS
VCC/2
Figure 4. Timing Diagram for Shutdown-to-Standby Signal
Maxim Integrated │ 5
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Typical Operating Characteristics
(VCC = +3.3V, RL = 60Ω, CL = 100pF, TA = +25°C, unless otherwise specified.)
25
20
15
10
19
TA = +25°C
16
TA = +85°C
13
5
10
20 40 60 80 100 120 140 160 180 200
200
0
RRS (kΩ)
9.0
8.5
-15
MAX3051 toc03
20
0
1000
-15
-40
10
35
60
10
35
50
45
30
DOMINANT
25
20
15
10
5
RRS = GND
-15
-40
10
35
60
DRIVER PROPAGATION DELAY
vs. TEMPERATURE
RECEIVER OUTPUT LOW
vs. OUTPUT CURRENT
35
TEMPERATURE (°C)
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TA = -85°C
1.0
TA = +25°C
0.8
TA = -40°C
0.6
0.2
RRS = GND, DATA RATE = 100kbps
10
1.2
0.4
DOMINANT
-15
1.4
VOLTAGE RXD (V)
20
85
1.6
MAX3051 toc06
RECESSIVE
10
85
35
0
85
RECESSIVE
40
TEMPERATURE (°C)
30
60
TEMPERATURE (°C)
TEMPERATURE (°C)
40
-40
40
MAX3051 toc05
MAX3051 toc04
STANDBY SUPPLY CURRENT (mA)
9.5
-40
60
RECEIVER PROPAGATION DELAY
vs. TEMPERATURE
10.0
50
DRIVER PROPAGATION DELAY (ns)
800
80
DATA RATE (kbps)
10.5
0
600
STANDBY SUPPLY CURRENT
vs. TEMPERATURE (RS = VCC)
11.0
8.0
400
100
MAX3051 toc07
0
RECEIVER PROPAGATION DELAY (ns)
0
TA = -40°C
22
SHUTDOWN SUPPLY CURRENT
vs. TEMPERATURE (SHDN = VCC)
120
SHUTDOWN SUPPLY CURRENT (nA)
SUPPLY CURRENT (mA)
30
SLEW RATE (V/µs)
25
MAX3051 toc01
35
SUPPLY CURRENT vs. DATA RATE
MAX3051 toc02
SLEW RATE vs. RRS AT 100kbps
60
85
0
0
5
10
15
20
25
30
35
40
45
OUTPUT CURRENT (mA)
Maxim Integrated │ 6
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Typical Operating Characteristics (continued)
(VCC = +3.3V, RL = 60Ω, CL = 100pF, TA = +25°C, unless otherwise specified.)
1.2
1.0
0.8
0.6
0.4
TA = -40°C
3.0
2.5
TA = -85°C
2.0
TA = +25°C
1.5
1.0
0.5
0.2
0
1
2
3
4
5
6
7
0
8
0
100
200
300
OUTPUT CURRENT (mA)
DIFFERENTIAL LOAD RL (Ω)
RECEIVER PROPAGATION DELAY
DRIVER PROPAGATION DELAY
RS = GND
MAX3051 toc11
0
MAX3051 toc09
1.4
DIFFERENTIAL VOLTAGE (V)
1.6
DIFFERENTIAL VOLTAGE
vs. DIFFERENTIAL LOAD
3.5
MAX3051 toc08
1.8
MAX3051 toc10
RECEIVER OUTPUT HIGH (VCC - RXD) (V)
RECEIVER OUTPUT HIGH
vs. OUTPUT CURRENT
CAHN - CANL
TXD
2V/div
RRS = 24kΩ
RXD
1v/div
RRS = 75kΩ
RRS = 100kΩ
200ns/div
200ns/div
200ns/div
MAX3051toc13
TXD
1V/div
CAHN - CANL
RS = GND
LOOPBACK PROPAGATION DELAY
vs. RRS
1200
LOOPBACK PROPAGATION DELAY (ns)
MAX305 1toc12
DRIVER PROPAGATION DELAY
1000
800
600
400
200
0
0
20 40 60 80 100 120 140 160 180 200
RRS (kΩ)
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Maxim Integrated │ 7
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Pin Configuration
TOP VIEW
TXD 1
+
8
RS
7
CANH
GND
2
VCC
3
6
CANL
RXD 4
5
SHDN
MAX3051
SO/SOT23
Pin Description
PIN
NAME
1
TXD
Transmit Data Input. TXD is a CMOS/TTL-compatible input from a CAN controller. TXD has an internal
75kΩ pullup resistor.
2
GND
Ground
3
VCC
Supply Voltage. Bypass VCC to GND with a 0.1μF capacitor.
4
RXD
Receive Data Output. RXD is a CMOS/TTL-compatible output.
5
SHDN
Shutdown Input, CMOS/TTL-Compatible. Drive SHDN high to put the MAX3051 in shutdown.
SHDN has an internal 75kΩ pulldown resistor to GND.
6
CANL
CAN Bus Line Low
7
CANH
CAN Bus Line High
8
RS
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DESCRIPTION
Mode-Select Input. Drive RS low or connect to GND for high-speed operation. Connect a resistor
between RS and GND to control output slope. Drive RS high to put into standby mode (see the Mode
Selection section).
Maxim Integrated │ 8
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Figure 5
VCC
THERMAL
SHUTDOWN
MAX3051
CANH
VCC
TXD
RS
TRANSMITTER
CONTROL
CANL
MODE
SELECTION
GND
RXD
RECEIVER
0.75V
SHUTDOWN
SHDN
Figure 5. MAX3051 Functional Diagram
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Maxim Integrated │ 9
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Detailed Description
Receiver
The receiver reads differential inputs from the bus lines
(CANH, CANL) and transfers this data as a single-ended
output (RXD) to the CAN controller. It consists of a
comparator that senses the difference VDIFF = (CANH CANL) with respect to an internal threshold of +0.75V. If
this VDIFF is greater than 0.75, a logic-low is present at
RXD. If VDIFF is less than 0.75V, a logic-high is present.
The receiver always echoes the CAN BUS data.
The MAX3051 interfaces between the CAN protocol controller and the physical wires of the bus lines in a CAN.
It provides differential transmit capability to the bus and
differential receive capability to the CAN controller. It is
primarily intended for +3.3V single-supply applications
that do not require the stringent fault protection specified
by the automotive industry (ISO 11898).
The MAX3051 features four different modes of operation: high-speed, slope-control, standby, and shutdown
mode. High-speed mode allows data rates up to 1Mbps.
The slope-control mode can be used to program the slew
rate of the transmitter for data rates of up to 500kbps.
This reduces the effects of EMI, thus allowing the use
of unshielded twisted or parallel cable. In standby mode,
the transmitter is shut off and the receiver is pulled high,
placing the MAX3051 in low-current mode. In shutdown
mode, the transmitter and receiver are switched off.
The CANH and CANL common-mode range is -7V to
+12V. RXD is logic-high when CANH and CANL are
shorted or terminated and undriven.
Mode Selection
High-Speed Mode
Connect RS to ground to set the MAX3051 to highspeed mode. When operating in high-speed mode, the
MAX3051 can achieve transmission rates of up to 1Mbps.
In high-speed mode, use shielded twisted pair cable to
avoid EMI problems.
The MAX3051 input common-mode range is from -7V to
+12V, exceeding the ISO 11898 specification of -2V to
+7V. These features, and the programmable slew-rate
limiting, make the part ideal for nonautomotive, harsh
environments.
Slope-Control Mode
Connect a resistor from RS to ground to select slopecontrol mode (Table 2). In slope-control mode, CANH
and CANL slew rates are controlled by the resistor connected to the RS pin. Maximum transmission speeds are
controlled by RRS and range from 40kbps to 500kbps.
Controlling the rise and fall slopes reduces EMI and
allows the use of an unshielded twisted pair or a parallel
pair of wires as bus lines. The equation for selecting the
resistor value is given by:
The transceivers operate from a single +3.3V supply and
draw 35μA of supply current in dominant state and 2μA
in recessive state. In standby mode, supply current is
reduced to 8μA. In shutdown mode, supply current is less
than 1μA.
CANH and CANL are output short-circuit current limited
and are protected against excessive power dissipation by
thermal-shutdown circuitry that places the driver outputs
into a high-impedance state.
RRS (kΩ) ≈ 12000 / (maximum speed in kbps)
See the Slew Rate vs. RRS graph in the Typical Operating
Characteristics.
Transmitter
The transmitter converts a single-ended input (TXD) from
the CAN controller to differential outputs for the bus lines
(CANH, CANL). The truth table for the transmitter and
receiver is given in Table 1.
Standby Mode
If a logic-high is applied to RS, the MAX3051 enters a
low-current standby mode. In this mode, the transmitter
Table 1. Transmitter and Receiver Truth Table When Not Connected to the Bus
TXD
RS
SHDN
CANH
CANL
BUS STATE
RXD
Low
VRS < 0.75 x
VCC
Low
High
Low
Dominant
Low
High or float
VRS < 0.75 x
VCC
Low
5kΩ to 25kΩ to
VCC/2
5kΩ to 25kΩ to
VCC/2
Recessive
High
X
VRS > 0.75 x
VCC
Low
5kΩ to 25kΩ to
GND
5kΩ to 25kΩ to
GND
Recessive
High
X
X
High
Unconnected
Unconnected
Unconnected
High
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Maxim Integrated │ 10
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
is switched off and the receiver is switched to a lowcurrent/low-speed state. If dominant bits are detected,
RXD switches to low level. The microcontroller should
react to this condition by switching the transceiver back
to normal operation.
When the MAX3051 enters standby mode, RXD
goes high for 4μs (max) regardless of the BUS state.
However, after 4μs, RXD goes low only when the BUS is
dominant, otherwise RXD remains high (when the BUS
is recessive). For proper measurement of standby-toreceiver active time (tSBRXDL), the BUS should be in
dominant state (see Figure 2).
Shutdown
Drive SHDN high to enter shutdown mode. Connect
SHDN to ground or leave unconnected for normal
operation.
Thermal Shutdown
If the junction temperature exceeds +160°C, the device
is switched off. The hysteresis is approximately 25°C,
disabling thermal shutdown once the temperature drops
below 135°C. In thermal shutdown, CANH and CANL go
recessive and all IC functions are disabled.
Applications Information
Reduced EMI and Reflections
In slope-control mode, the CANH and CANL outputs are
slew-rate limited, minimizing EMI and reducing reflections
caused by improperly terminated cables.
In multidrop CAN applications, it is important to maintain a
direct point-to-point wiring scheme. A single pair of wires
should connect each element of the CAN bus, and the two
ends of the bus should be terminated with 120Ω resistors
(Figure 6). A star configuration should never be used.
Any deviation from the point-to-point wiring scheme creates a stub. The high-speed edge of the CAN data on
a stub can create reflections back down the bus. These
reflections can cause data errors by eroding the noise
margin of the system.
Although stubs are unavoidable in a multidrop system,
care should be taken to keep these stubs as small as
possible, especially in high-speed mode. In slope-control
mode, the requirements are not as rigorous, but stub
length should still be minimized.
Power Supply and Bypassing
The MAX3051 requires no special layout considerations
beyond common practices. Bypass VCC to GND with a
0.1μF ceramic capacitor mounted close to the IC with
short lead lengths and wide trace widths.
Table 2. Mode Selection Truth Table
CONDITION FORCED AT PIN RS
SHDN
CANL
VRS < 0.3 x VCC
High Speed
|IRS| < 500μA
0.4 x VCC 0.75 x VCC
Standby
|IRS| < 10μA
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Maxim Integrated │ 11
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Figure 6
MAX3051
TWISTED PAIR
CANH
TXD
RL = 120Ω
RXD
RL = 120Ω
TRANSCEIVER 3
CANL
STUB
LENGTH
KEEP AS SHORT
AS POSSIBLE
TRANSCEIVER 1
TRANSCEIVER 2
Figure 6. Multiple Receivers Connected to CAN Bus
Ordering Information
PART
TEMP RANGE
Package Information
PINPACKAGE
TOP
MARK
MAX3051ESA+
-40°C to +85°C
8 SO
—
MAX3051EKA+T
-40°C to +85°C
8 SOT23-8
AEKF
+Denotes a lead(Pb)-free/RoHS-compliant package.
T = Tape and reel.
Chip Information
For the latest package outline information and land patterns
(footprints), go to www.maximintegrated.com/packages. Note
that a “+”, “#”, or “-” in the package code indicates RoHS status
only. Package drawings may show a different suffix character, but
the drawing pertains to the package regardless of RoHS status.
PACKAGE
TYPE
PACKAGE
CODE
OUTLINE
NO.
LAND
PATTERN NO.
8 SO
S8+4
21-0041
90-0096
8 SOT23
K8F+4
21-0078
90-0176
PROCESS: BiCMOS
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Maxim Integrated │ 12
MAX3051
+3.3V, 1Mbps, Low-Supply-Current
CAN Transceiver
Revision History
REVISION
NUMBER
REVISION
DATE
DESCRIPTION
PAGES
CHANGED
2
10/12
Added lead-free part information to the data sheet
3
2/15
Added the Benefits and Features section
1–13
1
4
4/18
Updated Package Information table
11
For pricing, delivery, and ordering information, please contact Maxim Direct at 1-888-629-4642, or visit Maxim Integrated’s website at www.maximintegrated.com.
Maxim Integrated cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim Integrated product. No circuit patent licenses
are implied. Maxim Integrated reserves the right to change the circuitry and specifications without notice at any time. The parametric values (min and max limits)
shown in the Electrical Characteristics table are guaranteed. Other parametric values quoted in this data sheet are provided for guidance.
Maxim Integrated and the Maxim Integrated logo are trademarks of Maxim Integrated Products, Inc.
© 2018 Maxim Integrated Products, Inc. │ 13
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