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S8015L56
Electronics Part Number
S8015L56-WXManufacturer
RICOH/Nisshinbo Micro Devices
S8015L56
Description
Thyristor SCR, 800V, 15A, TO-220 package.Inventory
371 Pcs New Original In Stock
TO-220 isolated-tab SCR; 800V, 15A; standard recovery, robust thyristor switching; for phase control, motor speed controls, and power regulation.
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Basic cost: USD 70.00
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Technical Specifications
Category
Linear, Amplifiers, Instrumentation, Op Amps, Buffer Amps
Manufacturer
RICOH/Nisshinbo Micro Devices
Packaging
-
Operating Temperature
-40°C ~ 85°C
Mounting Type
Surface Mount
Package / Case
8-LSSOP, 8-MSOP (0.110", 2.80mm Width)
Series
-
Product Status
Obsolete
Slew Rate
1V/µs
Amplifier Type
CMOS
Gain Bandwidth Product
1 MHz
Output Type
Rail-to-Rail
Current - Supply
80µA
Supplier Device Package
8-VSP
Number of Circuits
2
Current - Input Bias
1 pA
Voltage - Input Offset
2 mV
Voltage - Supply Span (Min)
1 V
Voltage - Supply Span (Max)
5.5 V
Data Sheet Document (D)
Datasheets
Download NJU7095R-TE1 Product Specification (PDF)
HTML Datasheet
NJU7095R-TE1-DG
Environmental & Export Classification
RoHS Status
RoHS non-compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
ECCN
EAR99
HTSUS
8542.33.0001
Additional Information
Other Names
NJU7095R-TE1CT 2129-NJU7095R-TE1DKR NJU7095R-TE1DKR-ND NJU7095R-TE1DKR NJU7095R-TE1TR-ND 2129-NJU7095R-TE1CT 2129-NJU7095R-TE1TR NJU7095R-TE1CT-ND NJU7095R-TE1TR NJU7095RTE1
Standard Package
2,000
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Frequently Asked Questions (FAQ)
Is the NJU7095R-TE1 still viable for new designs despite being marked as obsolete, and what risks sh
While the NJU7095R-TE1 is officially obsolete, its large remaining inventory (55,400+ units) may tempt reuse in cost-sensitive or legacy-compatible designs. However, selecting it for new projects carries significant long-term risks: no future supply guarantees, lack of manufacturer support, and potential compliance issues due to its RoHS non-compliant status. Compared to modern alternatives like the MCP6002 (Microchip) or TSV912 (STMicroelectronics)—both active, RoHS-compliant, and offering better slew rate and bandwidth—the NJU7095R-TE1 lags in performance and sustainability. If you proceed, secure a lifetime buy or qualify a drop-in replacement early to mitigate obsolescence risk.
Can the NJU7095R-TE1 reliably drive capacitive loads above 100 pF in a sensor buffer application, an
The NJU7095R-TE1 is not optimized for driving heavy capacitive loads; its internal compensation is designed for light loads (<50 pF). Driving >100 pF without external isolation resistance can cause oscillation or ringing due to phase margin degradation. In contrast, the LMV358 includes better output stage damping and is more tolerant of capacitive loads up to 200 pF. If your sensor interface requires buffering high-capacitance nodes (e.g., long cables or large filter caps), add a 10–100 Ω series resistor at the NJU7095R-TE1 output and verify stability with transient simulation or bench testing. For new designs, consider inherently stable alternatives like the ADA4505-2.
What are the real-world implications of the NJU7095R-TE1’s 1 pA input bias current in high-impedance
The NJU7095R-TE1’s ultra-low 1 pA input bias current makes it theoretically suitable for high-impedance applications like photodiode transimpedance amplifiers or pH probes. However, real-world leakage paths (PCB contamination, humidity, flux residue) often dominate below 10 pA, masking the benefit. The LMC6482 (also 1 pA) includes better ESD protection and lower input offset voltage (0.5 mV vs. 2 mV), improving accuracy in precision DC applications. When using the NJU7095R-TE1 in such circuits, implement guard rings, clean PCB processing, and conformal coating to minimize leakage. Always validate performance under worst-case environmental conditions, especially near the -40°C to 85°C operating limits.
How does the NJU7095R-TE1’s 1V/µs slew rate limit its use in audio or pulse-shaping applications com
With a modest 1V/µs slew rate, the NJU7095R-TE1 will struggle with signals requiring fast edge transitions—such as audio waveforms above 20 kHz or digital pulse shaping above 100 kHz—leading to slew-induced distortion (e.g., triangular rounding of square waves). The OPA2340, by comparison, offers 5.5V/µs and maintains fidelity in such applications. If you're using the NJU7095R-TE1 in audio preamps or sensor pulse conditioning, limit signal amplitude and frequency to stay within the slew-rate envelope: for a 3V peak sine wave, maximum undistorted frequency is approximately 50 kHz. For higher-speed needs, upgrade to a modern rail-to-rail amplifier with adequate slew performance.
Given that the NJU7095R-TE1 is RoHS non-compliant and obsolete, what is the safest migration path to
The safest drop-in replacement for the NJU7095R-TE1 in an 8-VSP (MSOP-8) footprint is the MCP6002-I/MS from Microchip—it matches the pinout, operates from 1.8V to 6V (covering the NJU7095R-TE1’s 1–5.5V range), offers rail-to-rail I/O, and is fully RoHS-compliant. While the MCP6002 has slightly higher supply current (100 µA vs. 80 µA) and lower GBW (1 MHz vs. 1 MHz, but better phase margin), it provides active manufacturer support and long-term availability. Before switching, verify output swing and stability under your specific load conditions, as minor differences in output stage behavior may require small feedback network adjustments. Always test prototypes across temperature extremes to ensure reliability.
Is the NJU7095R-TE1 still viable for new designs despite being marked as obsolete, and what risks sh
While the NJU7095R-TE1 is officially obsolete, its large remaining inventory (55,400+ units) may tempt reuse in cost-sensitive or legacy-compatible designs. However, selecting it for new projects carries significant long-term risks: no future supply guarantees, lack of manufacturer support, and potential compliance issues due to its RoHS non-compliant status. Compared to modern alternatives like the MCP6002 (Microchip) or TSV912 (STMicroelectronics)—both active, RoHS-compliant, and offering better slew rate and bandwidth—the NJU7095R-TE1 lags in performance and sustainability. If you proceed, secure a lifetime buy or qualify a drop-in replacement early to mitigate obsolescence risk.
Can the NJU7095R-TE1 reliably drive capacitive loads above 100 pF in a sensor buffer application, an
The NJU7095R-TE1 is not optimized for driving heavy capacitive loads; its internal compensation is designed for light loads (<50 pF). Driving >100 pF without external isolation resistance can cause oscillation or ringing due to phase margin degradation. In contrast, the LMV358 includes better output stage damping and is more tolerant of capacitive loads up to 200 pF. If your sensor interface requires buffering high-capacitance nodes (e.g., long cables or large filter caps), add a 10–100 Ω series resistor at the NJU7095R-TE1 output and verify stability with transient simulation or bench testing. For new designs, consider inherently stable alternatives like the ADA4505-2.
What are the real-world implications of the NJU7095R-TE1’s 1 pA input bias current in high-impedance
The NJU7095R-TE1’s ultra-low 1 pA input bias current makes it theoretically suitable for high-impedance applications like photodiode transimpedance amplifiers or pH probes. However, real-world leakage paths (PCB contamination, humidity, flux residue) often dominate below 10 pA, masking the benefit. The LMC6482 (also 1 pA) includes better ESD protection and lower input offset voltage (0.5 mV vs. 2 mV), improving accuracy in precision DC applications. When using the NJU7095R-TE1 in such circuits, implement guard rings, clean PCB processing, and conformal coating to minimize leakage. Always validate performance under worst-case environmental conditions, especially near the -40°C to 85°C operating limits.
How does the NJU7095R-TE1’s 1V/µs slew rate limit its use in audio or pulse-shaping applications com
With a modest 1V/µs slew rate, the NJU7095R-TE1 will struggle with signals requiring fast edge transitions—such as audio waveforms above 20 kHz or digital pulse shaping above 100 kHz—leading to slew-induced distortion (e.g., triangular rounding of square waves). The OPA2340, by comparison, offers 5.5V/µs and maintains fidelity in such applications. If you're using the NJU7095R-TE1 in audio preamps or sensor pulse conditioning, limit signal amplitude and frequency to stay within the slew-rate envelope: for a 3V peak sine wave, maximum undistorted frequency is approximately 50 kHz. For higher-speed needs, upgrade to a modern rail-to-rail amplifier with adequate slew performance.
Given that the NJU7095R-TE1 is RoHS non-compliant and obsolete, what is the safest migration path to
The safest drop-in replacement for the NJU7095R-TE1 in an 8-VSP (MSOP-8) footprint is the MCP6002-I/MS from Microchip—it matches the pinout, operates from 1.8V to 6V (covering the NJU7095R-TE1’s 1–5.5V range), offers rail-to-rail I/O, and is fully RoHS-compliant. While the MCP6002 has slightly higher supply current (100 µA vs. 80 µA) and lower GBW (1 MHz vs. 1 MHz, but better phase margin), it provides active manufacturer support and long-term availability. Before switching, verify output swing and stability under your specific load conditions, as minor differences in output stage behavior may require small feedback network adjustments. Always test prototypes across temperature extremes to ensure reliability.
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Sep 15 2026
