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JANS1N5294-1
Electronics Part Number
JANS1N5294-1-WXManufacturer
Analog Devices, Inc.
JANS1N5294-1
Description
825uA 100V Current Regulator Diode, 500mWInventory
473 Pcs New Original In Stock
Discrete semiconductor products; various packages; for general electronic circuits.
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Minimum 1
Minimum 1
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Technical Specifications
Category
Linear, Amplifiers, Video Amps and Modules
Manufacturer
Analog Devices, Inc.
Packaging
Cut Tape (CT) & Digi-Reel®
Mounting Type
Surface Mount
Package / Case
8-TSSOP, 8-MSOP (0.118", 3.00mm 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-uMAX/uSOP
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 MAX4310EUA+T Product Specification (PDF)
HTML Datasheet
MAX4310EUA+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
Other Names
175-MAX4310EUA+TTR 175-MAX4310EUA+TCT 175-MAX4310EUA+TDKR MAX4310EUA+T-DG
Standard Package
2,500
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Frequently Asked Questions (FAQ)
When using the MAX4310EUA+T in a high-speed video multiplexing application, what layout consideratio
To maintain signal integrity with the MAX4310EUA+T at high frequencies, use controlled-impedance traces, minimize trace lengths, and avoid vias near the signal path. Use a solid ground plane and place 0.1 µF ceramic bypass capacitors as close as possible to the V+ and V− supply pins to reduce supply noise. For the 8-uMAX package, ensure adequate thermal and electrical grounding through the exposed pad (if present), and isolate sensitive input signals from the output and digital control lines to prevent crosstalk, especially when switching between the two analog inputs at high speed.
Can I replace the MAX4310EUA+T with the TI THS7314 in a 2:1 video mux design, and what are the key p
The MAX4310EUA+T and TI THS7314 are not direct replacements. The MAX4310EUA+T offers 280 MHz bandwidth with 6.1 mA supply current, while the THS7314 provides higher bandwidth (~400 MHz) but draws more current (~10 mA per channel). The MAX4310EUA+T supports rail-to-rail output and a wider single-supply range (4V to 10.5V), making it better suited for low-power, space-constrained designs. However, if your system requires driving longer video cables or needs superior differential gain/phase performance, the THS7314 may be preferable provided you can manage the higher power and board space requirements.
What are the risks of operating the MAX4310EUA+T near the lower end of its 4V supply voltage range,
Operating the MAX4310EUA+T near 4V limits the headroom for rail-to-rail output swing, increasing the risk of clipping in DC-coupled video applications where the signal must swing close to ground or V+. While the amplifier is rail-to-rail, output saturation starts to compress within ~50 mV of each rail. In composite or component video designs with sync pulses near 0V, ensure the input common-mode range (which includes ground) and output load allow for sufficient margin. Use a small AC-coupling capacitor with proper biasing if DC coupling is not strictly required, to avoid distortion at low supply voltages.
How can I mitigate transient glitches when switching between input channels on the MAX4310EUA+T in t
To minimize switching glitches on the MAX4310EUA+T, ensure clean, fast control signals with minimal ringing—use series termination if necessary. The internal switching transient can induce brief output disturbances, especially when driving capacitive loads. Mitigate this by adding a small RC filter (e.g., 10 Ω + 100 pF) near the output or by synchronizing the switch event during vertical or horizontal blanking intervals in video systems. Avoid switching mid-signal transition; use edge-aligned timing from your controller or FPGA with precise setup and hold times to the analog signal state.
Is the MAX4310EUA+T suitable for driving 75Ω dual-terminated video lines, and what are the stability
Yes, the MAX4310EUA+T can drive 75Ω loads directly—its 95 mA output current capability supports ±1V into 75Ω (typical composite video), and it's designed for such applications. However, when driving dual-terminated lines (effectively 37.5Ω), verify that the output remains stable and within thermal limits. For long PCB traces adding capacitance (>50 pF), stability may degrade; always add a small series output resistor (22–47Ω) close to the amplifier output to isolate capacitive loads and improve phase margin, especially at 280 MHz bandwidth where parasitic LC effects become significant.
When using the MAX4310EUA+T in a high-speed video multiplexing application, what layout consideratio
To maintain signal integrity with the MAX4310EUA+T at high frequencies, use controlled-impedance traces, minimize trace lengths, and avoid vias near the signal path. Use a solid ground plane and place 0.1 µF ceramic bypass capacitors as close as possible to the V+ and V− supply pins to reduce supply noise. For the 8-uMAX package, ensure adequate thermal and electrical grounding through the exposed pad (if present), and isolate sensitive input signals from the output and digital control lines to prevent crosstalk, especially when switching between the two analog inputs at high speed.
Can I replace the MAX4310EUA+T with the TI THS7314 in a 2:1 video mux design, and what are the key p
The MAX4310EUA+T and TI THS7314 are not direct replacements. The MAX4310EUA+T offers 280 MHz bandwidth with 6.1 mA supply current, while the THS7314 provides higher bandwidth (~400 MHz) but draws more current (~10 mA per channel). The MAX4310EUA+T supports rail-to-rail output and a wider single-supply range (4V to 10.5V), making it better suited for low-power, space-constrained designs. However, if your system requires driving longer video cables or needs superior differential gain/phase performance, the THS7314 may be preferable provided you can manage the higher power and board space requirements.
What are the risks of operating the MAX4310EUA+T near the lower end of its 4V supply voltage range,
Operating the MAX4310EUA+T near 4V limits the headroom for rail-to-rail output swing, increasing the risk of clipping in DC-coupled video applications where the signal must swing close to ground or V+. While the amplifier is rail-to-rail, output saturation starts to compress within ~50 mV of each rail. In composite or component video designs with sync pulses near 0V, ensure the input common-mode range (which includes ground) and output load allow for sufficient margin. Use a small AC-coupling capacitor with proper biasing if DC coupling is not strictly required, to avoid distortion at low supply voltages.
How can I mitigate transient glitches when switching between input channels on the MAX4310EUA+T in t
To minimize switching glitches on the MAX4310EUA+T, ensure clean, fast control signals with minimal ringing—use series termination if necessary. The internal switching transient can induce brief output disturbances, especially when driving capacitive loads. Mitigate this by adding a small RC filter (e.g., 10 Ω + 100 pF) near the output or by synchronizing the switch event during vertical or horizontal blanking intervals in video systems. Avoid switching mid-signal transition; use edge-aligned timing from your controller or FPGA with precise setup and hold times to the analog signal state.
Is the MAX4310EUA+T suitable for driving 75Ω dual-terminated video lines, and what are the stability
Yes, the MAX4310EUA+T can drive 75Ω loads directly—its 95 mA output current capability supports ±1V into 75Ω (typical composite video), and it's designed for such applications. However, when driving dual-terminated lines (effectively 37.5Ω), verify that the output remains stable and within thermal limits. For long PCB traces adding capacitance (>50 pF), stability may degrade; always add a small series output resistor (22–47Ω) close to the amplifier output to isolate capacitive loads and improve phase margin, especially at 280 MHz bandwidth where parasitic LC effects become significant.
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Sep 15 2026
