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JANS1N5296-1
Electronics Part Number
JANS1N5296-1-WXManufacturer
Analog Devices, Inc.
JANS1N5296-1
Description
1.001mA Current Regulator Diode, 100V, 500mWInventory
404 Pcs New Original In Stock
Discrete semiconductor products; various packages; for general electronic circuits.
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Technical Specifications
Category
Linear, Amplifiers, Video Amps and Modules
Manufacturer
Analog Devices, Inc.
Packaging
Tape & Reel (TR)
Mounting Type
Surface Mount
Package / Case
8-SOIC (0.154", 3.90mm Width)
Series
-
Base Product Number
MAX4310
Product Status
Active
Slew Rate
460V/µs
-3db Bandwidth
280 MHz
Output Type
Rail-to-Rail
Current - Supply
6.1 mA
Applications
2:1 Multiplexer-Amplifier
Supplier Device Package
8-SOIC
Number of Circuits
1
Current - Output / Channel
95 mA
Voltage - Supply, Single/Dual (±)
4V ~ 10.5V, ±2V ~ 5.25V
Data Sheet Document (D)
Datasheets
Download MAX4310ESA+T Product Specification (PDF)
HTML Datasheet
MAX4310ESA+T-DG
Environmental & Export Classification
RoHS Status
ROHS3 Compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
REACH Status
REACH Unaffected
ECCN
EAR99
HTSUS
8542.33.0001
Additional Information
Standard Package
2,500
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Frequently Asked Questions (FAQ)
Can the MAX4310ESA+T reliably drive long video cables in a 2:1 multiplexed configuration without sig
Yes, the MAX4310ESA+T can drive long video cables in a 2:1 multiplexed setup, but proper layout and termination are critical to maintain signal integrity at its full 280 MHz bandwidth. To minimize degradation, use 75Ω series or back-termination close to the output, keep trace lengths short and impedance-controlled, and avoid vias in high-speed paths. The device's 95 mA output current and 460 V/µs slew rate support robust drive capability, but unterminated or poorly routed traces can cause ringing or ghosting in video applications. Always simulate or prototype with actual cable loads to validate performance in your specific configuration.
How does the MAX4310ESA+T compare to the THS4631D in terms of power supply flexibility and rail-to-r
The MAX4310ESA+T offers wider single-supply compatibility (4V to 10.5V) than the THS4631D, which typically requires at least 5V, making the MAX4310 better suited for low-voltage battery-powered video multiplexing. Both have rail-to-rail outputs, but the MAX4310 maintains better linearity near rails under 4–5V operation. Additionally, the MAX4310 draws only 6.1 mA, significantly lower than the THS4631D’s ~12 mA, enhancing battery life. However, the THS4631D has higher bandwidth (450 MHz); if your design doesn’t need that bandwidth, the MAX4310 provides a better power-performance trade-off for portable 2:1 video switching.
What are the risks of using the MAX4310ESA+T as a drop-in replacement for the MAX4311 in an existing
Replacing the MAX4311 with the MAX4310ESA+T requires caution despite similar functionality. The MAX4310 has slightly lower bandwidth (280 MHz vs. 300 MHz) and different enable timing characteristics, which may affect settling time in fast-switching applications. Additionally, while both are 2:1 video multiplexer-amplifiers, the MAX4310’s enable pin is active-high vs. active-low on the MAX4311, requiring control logic changes. Always test switching transients and disable-state isolation to avoid crosstalk or glitches during mode transitions in the fielded system.
What layout practices minimize crosstalk and EMI when integrating the MAX4310ESA+T in a densely pack
To minimize crosstalk and EMI with the MAX4310ESA+T, use a solid ground plane, place input and output traces as far apart as possible, and route sensitive signals on separate layers with guard traces if needed. Keep feedback and input paths short and avoid parallel high-speed runs. Since the 8-SOIC package has limited pin spacing, use ground-via shielding around high-impedance nodes and ensure power-supply decoupling with a 0.1 µF ceramic capacitor within 2 mm of V+ and VS– pins. Avoid slits in the ground plane beneath the device to prevent ground bounce at high slew rates.
Can the MAX4310ESA+T safely handle frequent switching between video sources in broadcast equipment,
Yes, the MAX4310ESA+T is designed for frequent source switching in broadcast-style 2:1 multiplexing, with fast enable/disable response and minimal transient overshoot. At 10.5V supply, thermal performance is generally safe due to its low 6.1 mA quiescent current—power dissipation is under 65 mW in typical use. However, if driving low-impedance loads continuously or in high-ambient environments (>70°C), monitor junction temperature; the 8-SOIC package has ~200°C/W thermal resistance, so ensure adequate PCB copper for heat spreading. Avoid prolonged short-circuit conditions, as the 95 mA output limit may lead to localized heating under fault scenarios.
Can the MAX4310ESA+T reliably drive long video cables in a 2:1 multiplexed configuration without sig
Yes, the MAX4310ESA+T can drive long video cables in a 2:1 multiplexed setup, but proper layout and termination are critical to maintain signal integrity at its full 280 MHz bandwidth. To minimize degradation, use 75Ω series or back-termination close to the output, keep trace lengths short and impedance-controlled, and avoid vias in high-speed paths. The device's 95 mA output current and 460 V/µs slew rate support robust drive capability, but unterminated or poorly routed traces can cause ringing or ghosting in video applications. Always simulate or prototype with actual cable loads to validate performance in your specific configuration.
How does the MAX4310ESA+T compare to the THS4631D in terms of power supply flexibility and rail-to-r
The MAX4310ESA+T offers wider single-supply compatibility (4V to 10.5V) than the THS4631D, which typically requires at least 5V, making the MAX4310 better suited for low-voltage battery-powered video multiplexing. Both have rail-to-rail outputs, but the MAX4310 maintains better linearity near rails under 4–5V operation. Additionally, the MAX4310 draws only 6.1 mA, significantly lower than the THS4631D’s ~12 mA, enhancing battery life. However, the THS4631D has higher bandwidth (450 MHz); if your design doesn’t need that bandwidth, the MAX4310 provides a better power-performance trade-off for portable 2:1 video switching.
What are the risks of using the MAX4310ESA+T as a drop-in replacement for the MAX4311 in an existing
Replacing the MAX4311 with the MAX4310ESA+T requires caution despite similar functionality. The MAX4310 has slightly lower bandwidth (280 MHz vs. 300 MHz) and different enable timing characteristics, which may affect settling time in fast-switching applications. Additionally, while both are 2:1 video multiplexer-amplifiers, the MAX4310’s enable pin is active-high vs. active-low on the MAX4311, requiring control logic changes. Always test switching transients and disable-state isolation to avoid crosstalk or glitches during mode transitions in the fielded system.
What layout practices minimize crosstalk and EMI when integrating the MAX4310ESA+T in a densely pack
To minimize crosstalk and EMI with the MAX4310ESA+T, use a solid ground plane, place input and output traces as far apart as possible, and route sensitive signals on separate layers with guard traces if needed. Keep feedback and input paths short and avoid parallel high-speed runs. Since the 8-SOIC package has limited pin spacing, use ground-via shielding around high-impedance nodes and ensure power-supply decoupling with a 0.1 µF ceramic capacitor within 2 mm of V+ and VS– pins. Avoid slits in the ground plane beneath the device to prevent ground bounce at high slew rates.
Can the MAX4310ESA+T safely handle frequent switching between video sources in broadcast equipment,
Yes, the MAX4310ESA+T is designed for frequent source switching in broadcast-style 2:1 multiplexing, with fast enable/disable response and minimal transient overshoot. At 10.5V supply, thermal performance is generally safe due to its low 6.1 mA quiescent current—power dissipation is under 65 mW in typical use. However, if driving low-impedance loads continuously or in high-ambient environments (>70°C), monitor junction temperature; the 8-SOIC package has ~200°C/W thermal resistance, so ensure adequate PCB copper for heat spreading. Avoid prolonged short-circuit conditions, as the 95 mA output limit may lead to localized heating under fault scenarios.
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Sep 15 2026
