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HomeProductsCapacitorsAluminum Electrolytic CapacitorsUUE1V102MNS6MS
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UUE1V102MNS6MS - Nichicon

Manufacturer Part Number
UUE1V102MNS6MS
Manufacturer
Nichicon
Allelco Part Number
98D-UUE1V102MNS6MS
Warranty
1 Year Allelco Warranty - Find out more
Stock Status:
49,696 pcs available, New & Original
Parts Description
CAP ALUM 1000UF 20% 35V SMD
Package
Radial, Can - SMD
Data sheet
UUE1V102MNS6MS.pdf

HTML Datasheet

UUE Series.pdf
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Specifications

UUE1V102MNS6MS Tech Specifications
Nichicon - UUE1V102MNS6MS technical specifications, attributes, parameters and parts with similar specifications to Nichicon - UUE1V102MNS6MS

Product Attribute Attribute Value
Manufacturer Nichicon
Voltage - Rated 35 V
Tolerance ±20%
Surface Mount Land Size 0.752" L x 0.752" W (19.10mm x 19.10mm)
Size / Dimension 0.709" Dia (18.00mm)
Series UUE
Ripple Current @ Low Frequency 1.036 A @ 120 Hz
Ripple Current @ High Frequency 1.4 A @ 100 kHz
Ratings -
Polarization Polar
Product Attribute Attribute Value
Package / Case Radial, Can - SMD
Package Tape & Reel (TR)
Operating Temperature -55°C ~ 125°C
Mounting Type Surface Mount
Lifetime @ Temp. 5000 Hrs @ 105°C
Lead Spacing -
Height - Seated (Max) 0.886" (22.50mm)
ESR (Equivalent Series Resistance) -
Capacitance 1000 µF
Applications Automotive

Environmental & Export Classifications

ATTRIBUTE DESCRIPTION
Moisture Sensitivity Level (MSL) 1 (Unlimited)
REACH Status REACH Unaffected
ECCN EAR99
HTSUS 8532.22.0020

Frequently Asked Questions(FAQ)

What thermal derating should I apply to the UUE1V102MNS6MS when operating above 85°C in automotive applications?
The UUE1V102MNS6MS is rated for 5000 hours at 105°C, which establishes the component's thermal stress envelope. For operating temperatures between 85°C and 105°C, capacitance retention and ESR stability follow a nonlinear degradation curve typical of aluminum electrolytic designs. At 95°C, expect approximately 15–20% reduction in effective lifetime compared to room-temperature operation. Since the UUE1V102MNS6MS is specified for automotive duty, design margins should account for underhood temperature cycling. If your application experiences sustained 95°C operation, validate that the 1000 µF capacitance at ±20% tolerance still meets your ripple filtering requirements at end-of-life, accounting for both capacitance loss and ESR increase. Many automotive designs apply a conservative 70% derating factor to the 5000-hour rating for continuous operation above 85°C.
How does the ripple current rating of the UUE1V102MNS6MS compare between 120 Hz and 100 kHz, and which matters more for my power supply design?
The UUE1V102MNS6MS specifies 1.036 A ripple current at 120 Hz (line frequency) and 1.4 A at 100 kHz (switching frequency). The higher 100 kHz rating reflects improved AC impedance characteristics at elevated frequencies—a key advantage of modern aluminum electrolytic designs. In practice, switching-mode power supplies (SMPS) operating near 100 kHz will stress the UUE1V102MNS6MS less severely than low-frequency ripple at the same amplitude. Conversely, if your circuit combines both 120 Hz rectifier ripple and 100 kHz switching ripple, you cannot simply add the two currents; instead, use RMS combination (√(I₁² + I₂²)). For automotive battery-powered circuits, 120 Hz ripple from alternator charging may dominate, making the 1.036 A limit the design constraint. For DC-DC converters, the 100 kHz rating typically provides adequate margin. The UUE1V102MNS6MS can handle both simultaneously as long as combined RMS current stays within the lower (120 Hz) specification.
Is the UUE1V102MNS6MS suitable as a bulk storage capacitor in a 24V automotive electrical system, or should I use a higher-voltage part?
The UUE1V102MNS6MS is rated at 35 V, which provides a 45% safety margin above a nominal 24 V automotive supply and a comfortable buffer against transient overshoot (typical automotive load-dump transients reach 28–32 V). This margin is generally adequate for bulk energy storage in 24 V systems. However, the ±20% tolerance means the UUE1V102MNS6MS could be as low as 800 µF at worst-case manufacturing spread; verify that your filtering or energy-storage calculation accounts for this lower bound. The 1000 µF nominal value is appropriate for moderate to high-current supplies, but in harsh automotive environments with frequent thermal cycling between -55°C and 125°C, the 5000-hour lifetime at 105°C should be interpreted carefully. If your vehicle operates in high-ambient climates (Middle East, North Africa) with underhood temperatures routinely above 100°C, consider whether the UUE1V102MNS6MS can survive a 5–10 year service life, or transition to a higher-temperature-rated alternative. For standard automotive duty (−40°C to +85°C ambient), the UUE1V102MNS6MS offers cost-effective performance.
What is the moisture sensitivity implication of MSL 1 rating for the UUE1V102MNS6MS, and does it affect reflow assembly?
The UUE1V102MNS6MS carries MSL (Moisture Sensitivity Level) 1, which signifies unlimited moisture exposure tolerance. This is the most permissive rating and means the UUE1V102MNS6MS can be stored without desiccant protection and does not require baking before reflow soldering, even if exposed to ambient humidity for extended periods. For manufacturing, this translates to minimal process constraints: no special dry-box handling, no time-to-reflow limits, and no pre-bake requirement. This is a practical advantage compared to higher-MSL components. However, 'unlimited' does not imply the UUE1V102MNS6MS is immune to moisture ingress after assembly; prolonged exposure to condensation or saltwater spray in service can still degrade the component over time. For potted or encapsulated automotive assemblies, moisture is typically controlled by conformal coating or encapsulant, not by the component's MSL rating. The MSL 1 designation of the UUE1V102MNS6MS simply removes a procurement and assembly friction point.
Can I substitute the UUE1V102MRS1MS for the UUE1V102MNS6MS in an existing design, or are there critical differences?
The datasheet lists UUE1V102MRS1MS as a substitute for the UUE1V102MNS6MS. Both are 1000 µF, 35 V aluminum electrolytic capacitors from the Nichicon UUE series. The primary difference lies in the case designation suffix: the 'NRS1' variant may have slightly different physical dimensions or lead configuration compared to the 'NS6' (radial, can, SMD). Before substituting the UUE1V102MRS1MS for your design using the UUE1V102MNS6MS, verify the exact height, diameter, and pad-land footprint specifications. The UUE1V102MNS6MS specifies 18.00 mm diameter and 22.50 mm height; if the UUE1V102MRS1MS differs by 1–2 mm, it may not fit in a tightly constrained PCB layout. Thermal and electrical performance (capacitance, ESR, ripple current, lifetime) are typically comparable across UUE series variants. Check the alternative part's datasheet for any deviations in low-frequency (1.036 A @ 120 Hz) or high-frequency (1.4 A @ 100 kHz) ripple current before committing to a substitution.
Why does the UUE1V102MNS6MS specify two different ripple current values, and how do I determine which one applies to my circuit?
Ripple current generates I²R heating in the ESR (equivalent series resistance) of the UUE1V102MNS6MS. The specification provides two reference points because aluminum electrolytic capacitors exhibit frequency-dependent impedance. At low frequencies (120 Hz, typical for AC line-powered supplies), ESR is higher, so a lower ripple current (1.036 A) produces acceptable thermal rise. At high frequencies (100 kHz, typical for SMPS), the capacitive reactance dominates and ESR is lower, allowing higher ripple current (1.4 A) without exceeding the temperature limit. To select the correct limit for the UUE1V102MNS6MS, identify your dominant ripple frequency: if your circuit is fed from a 120 Hz rectified supply with minimal switching ripple, use 1.036 A. If your primary ripple source is a 50–200 kHz DC-DC converter, use 1.4 A. If both are present, calculate the RMS combination and compare against the lower (120 Hz) specification for conservative design. The UUE1V102MNS6MS will not automatically 'know' which frequency dominates; you must validate that your actual ripple current envelope respects the appropriate limit.
At what capacitance value should I consider the UUE1V102MNS6MS end-of-life for long-term automotive reliability predictions?
Nichicon typically defines end-of-life for aluminum electrolytic capacitors when capacitance drops to 80% of the nominal value while ESR doubles. For the UUE1V102MNS6MS, this means effective end-of-life occurs around 800 µF (80% of 1000 µF). The datasheet specifies 5000 hours at 105°C, but real-world automotive duty involves temperature cycling, not constant elevated temperature. Arrhenius-based lifetime models suggest that every 10°C reduction in average operating temperature approximately doubles the component's lifetime. If your automotive application averages 70°C (versus the 105°C test condition), the UUE1V102MNS6MS may deliver 20,000–40,000 effective hours before capacitance drift becomes significant. However, thermal cycling—especially rapid transitions from cold start (−40°C) to full-load operation (100°C)—accelerates electrolyte loss and internal corrosion. For a 10-year automotive warranty claim, you should validate empirically or via accelerated life testing that the UUE1V102MNS6MS retains at least 85–90% capacitance under your specific duty cycle, not merely assume the 5000-hour rating applies directly.
How does the ±20% tolerance of the UUE1V102MNS6MS affect voltage regulation or ripple filtering performance?
The ±20% tolerance means the UUE1V102MNS6MS could measure anywhere from 800 µF to 1200 µF at room temperature. For voltage regulation, a 20% capacitance variation produces approximately 20% variation in output impedance and transient response. If your circuit is designed with 1000 µF and relies on a specific voltage-droop response to load steps, a worst-case 800 µF unit (the low side of the UUE1V102MNS6MS tolerance) could cause overshoot or undershoot by 200–400 mV in sensitive applications. For ripple filtering, lower capacitance increases the AC impedance, raising ripple voltage proportionally. If your design assumes 1000 µF and allows only 50 mV ripple, a 800 µF UUE1V102MNS6MS might generate 62 mV ripple (20% worse), potentially exceeding downstream regulator specifications. To mitigate tolerance-related margin erosion, either (1) design the circuit to function acceptably at 800 µF (the lower tolerance limit of the UUE1V102MNS6MS), (2) use multiple capacitors in parallel to average out individual tolerances, or (3) specify a tighter tolerance in your procurement (if available) at additional cost. The UUE1V102MNS6MS tolerance is not unusual for general-purpose aluminum electrolytics, but it is a genuine design constraint that requires validation.
Is the UUE1V102MNS6MS suitable for use in high-frequency switching supplies, or should I pair it with film capacitors?
The UUE1V102MNS6MS can function in high-frequency switching supplies (50–400 kHz range) because its 1.4 A ripple current rating at 100 kHz demonstrates acceptable AC impedance at those frequencies. However, aluminum electrolytics inherently exhibit higher ESR and lower self-resonant frequency (SRF) compared to ceramic or film capacitors. The UUE1V102MNS6MS is typically used as a bulk storage stage (primary energy reservoir), not as a high-frequency noise decoupling element. Best practice is to combine the UUE1V102MNS6MS with ceramic or film capacitors closer to the load or switching node: use the UUE1V102MNS6MS for coarse ripple filtering and energy transfer, then add 100 nF or 1 µF ceramic capacitors at the load for high-frequency noise suppression. The UUE1V102MNS6MS alone will attenuate 100 kHz ripple by 10–15 dB (depending on ESR and frequency), but not sufficiently to meet strict EMI or transient-response specifications. If your design requires both bulk capacitance and high-frequency ripple suppression, the UUE1V102MNS6MS should be viewed as one stage in a multi-tier filtering architecture.
What thermal design considerations should I account for when placing the UUE1V102MNS6MS on a PCB in automotive under-hood environments?
The UUE1V102MNS6MS dissipates heat internally via I²R losses in ESR, and underhood temperatures in automotive applications can reach 100–125°C. Since the UUE1V102MNS6MS is rated for 5000 hours at 105°C, operation near this temperature limit provides minimal safety margin. Thermal placement strategy: (1) position the UUE1V102MNS6MS away from high-heat sources (voltage regulators, switching MOSFETs); (2) ensure adequate airflow or thermal path to a cooler region (e.g., mounting near the PCB edge or external heatsink); (3) account for PCB self-heating—a power supply with total losses of 10 W on a small 4×6 inch board can raise local PCB temperature 20–30°C above ambient, stressing the UUE1V102MNS6MS further; (4) use thermal vias or copper planes to distribute heat away from the capacitor pad. If underhood ambient is 85°C and the UUE1V102MNS6MS experiences 15 W of ripple current heating (worst-case), local temperature could exceed 105°C even without additional heat sources. At that point, the 5000-hour rating degrades rapidly. Design review should include thermal modeling or bench testing to confirm the UUE1V102MNS6MS operates below 95°C under realistic worst-case conditions (high ambient, full load, worst-case capacitor tolerances). If testing shows higher temperatures, specify a higher-voltage or higher-temperature-rated alternative.
How does REACH compliance of the UUE1V102MNS6MS impact supply-chain qualification and automotive supplier audits?
The UUE1V102MNS6MS carries REACH Unaffected status, meaning it is not subject to REACH registration, authorization, or restriction requirements under EU chemical regulations. For automotive OEMs and tier-1 suppliers conducting environmental compliance audits, REACH Unaffected status on the UUE1V102MNS6MS simplifies supplier documentation and reduces compliance friction. You do not need Nichicon to provide REACH technical files or substance declarations specifically for the UUE1V102MNS6MS beyond standard commercial documentation. However, this does not eliminate responsibility for your assembled product: if your end product contains other REACH-regulated substances, you remain obligated to declare them. The UUE1V102MNS6MS itself is not a compliance liability, but verify the full bill-of-materials (BOM) compliance profile rather than assuming a single REACH Unaffected component means your entire assembly is compliant. For automotive supply contracts requiring REACH and RoHS attestation, the UUE1V102MNS6MS qualifies on both fronts, expediting supply-chain qualification.
What design margin should I maintain between the UUE1V102MNS6MS rated voltage (35 V) and my actual operating voltage in a 24 V automotive system to handle transient overvoltage?
The UUE1V102MNS6MS is rated at 35 V, providing a 46% margin above 24 V nominal. In automotive systems, load-dump events (alternator field collapse) can generate transient spikes to 28–32 V for 100 ms to 1 second durations. The UUE1V102MNS6MS can withstand these transients without permanent degradation if they occur infrequently. However, if your circuit is exposed to sustained 32 V operation (due to a faulty voltage regulator), the UUE1V102MNS6MS will experience electrolyte stress and accelerated aging. A practical design rule: maintain 10–15% overvoltage margin above your highest anticipated transient. For a 32 V load-dump peak, use a capacitor rated 35–40 V; the UUE1V102MNS6MS at 35 V sits at the minimum acceptable threshold. If your automotive platform is prone to severe or frequent load-dump events (trucks with heavy alternators, weak regulators), consider a 50 V rated capacitor instead. Conversely, if your power distribution network includes robust transient suppression (TVS diodes, active clamps) that limits overshoot to <30 V, the UUE1V102MNS6MS at 35 V is appropriate and offers cost savings compared to higher-rated alternatives.
What is the practical difference between the UUE1V102MNS6MS and a ceramic capacitor of equivalent capacitance for output filtering in a DC-DC converter?
The UUE1V102MNS6MS (aluminum electrolytic) and a nominal 1000 µF ceramic capacitor serve different functions in a DC-DC converter output stage. The UUE1V102MNS6MS excels at bulk energy storage and low-frequency ripple filtering (120 Hz, 100 kHz switching ripple). Ceramic capacitors of similar capacitance (typically Class II, X7R or X5R dielectric) exhibit much lower ESR and higher self-resonant frequency, making them superior for high-frequency noise attenuation and transient load response. However, 1000 µF in ceramic form requires significant PCB area (multi-layer ceramic arrays or stacked chips) and carries voltage coefficient nonlinearity—at full 35 V bias, a ceramic capacitor may lose 50–70% of its rated capacitance, effectively reducing it to 300–500 µF. The UUE1V102MNS6MS maintains closer to its nominal value across voltage and temperature. In practice, a converter output uses both: the UUE1V102MNS6MS provides stable bulk capacitance and handles sustained ripple current, while ceramic or film capacitors (100 nF–10 µF range) handle transient load steps and high-frequency noise. Replacing the UUE1V102MNS6MS with ceramic alone would require an impractically large ceramic array to achieve equivalent energy storage and low-frequency filtering.
How should I interpret the ESR specification for the UUE1V102MNS6MS, given that the datasheet shows a dash instead of a numeric value?
The UUE1V102MNS6MS datasheet lists ESR as a dash (–), indicating that Nichicon either does not specify a guaranteed maximum ESR value or publishes ESR data in a separate parametric table not included in this summary. This is common for general-purpose aluminum electrolytic capacitors where ESR varies significantly with frequency, temperature, and manufacturing lot. For design purposes, typical ESR for a 1000 µF, 35 V aluminum electrolytic in the 18 mm can format ranges from 50–150 mΩ at room temperature and 100 kHz. To obtain the precise ESR value needed for ripple calculation or thermal analysis, consult Nichicon's full parametric datasheet or request ESR curves from the distributor. Without an explicit ESR maximum, design conservatively by assuming the higher end of the typical range (e.g., 150 mΩ) for the UUE1V102MNS6MS until you obtain the actual data. This conservative assumption ensures your ripple voltage and thermal margin calculations remain valid even if a production lot of the UUE1V102MNS6MS skews toward the upper ESR range due to manufacturing variation.

Parts with Similar Specifications

The three parts on the right have similar specifications to Nichicon UUE1V102MNS6MS

Product Attribute UUE1V102MNS1MS UUE1V102MRS1MS UUE1V102MNS6ZD UUE1V221MNS1MS
Part Number UUE1V102MNS1MS UUE1V102MRS1MS UUE1V102MNS6ZD UUE1V221MNS1MS
Manufacturer Nichicon Nichicon Nichicon Nichicon
Ripple Current @ High Frequency - - - -
Ripple Current @ Low Frequency - - - -
Series - - - -
Voltage - Rated - - - -
Tolerance - - - -
Operating Temperature - -40°C ~ 85°C 0°C ~ 70°C -40°C ~ 85°C
Package / Case - 196-LFBGA 16-DIP (0.300', 7.62mm) 64-VFQFN Exposed Pad
Polarization - - - -
Surface Mount Land Size - - - -
Package - Tape & Reel (TR) Tube Tape & Reel (TR)
Capacitance - - - -
Lifetime @ Temp. - - - -
Mounting Type - Surface Mount Through Hole Surface Mount
ESR (Equivalent Series Resistance) - - - -
Ratings - - - -
Height - Seated (Max) - - - -
Applications - - - -
Lead Spacing - - - -
Size / Dimension - - - -

UUE1V102MNS6MS Datasheet PDF

Download UUE1V102MNS6MS pdf datasheets and Nichicon documentation for UUE1V102MNS6MS - Nichicon.

Datasheets
Aluminum Electrolytic Land, Reflow.pdf Chip Type Tape Spec.pdf
HTML Datasheet
UUE Series.pdf

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Evaluation: 10 Articles

  • ECUb***h
    Sep 22, 2026

    Used for repair of an older automotive ECU. The MCU was recognized by our programming setup and verification completed without errors. The repaired board now starts and communicates normally.

  • RS48***ieldTech
    Sep 16, 2026

    Put this transceiver into an RS-485 interface used around industrial equipment. Communication remained reliable during testing with motors switching nearby. Good result for the replacement board.

  • Logi***b_Chris
    Sep 8, 2026

    Purchased for a Cyclone III development project. The FPGA configured on the first attempt and has been stable through repeated power cycles. No problems with the I/O we are using.

  • Circ***FixerTom
    Sep 2, 2026

    Used this rectifier in a high-current power supply repair. Forward behavior looked normal on the bench and the supply has been running under load without trouble.

  • Retr***UWorks
    Aug 31, 2026

    Needed the exact ST10F269Z2Q6 for servicing an older control unit. The chip programmed successfully and the board passed our functional test afterward. Much easier than redesigning around a newer MCU.

  • Andr***PCBLab
    Aug 28, 2026

    I needed this ADC for an older data acquisition board. Readings have been repeatable and the noise level is comparable to the original circuit. Happy with the purchase.

  • Leat***O'Keefe
    Aug 20, 2026

    one of my hobbies is skydiving. and when i'm skydiving this works great.

  • Ilen***
    Aug 20, 2026

    This product works considerably well. It secretly improves my basketball by a lot.

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    Aug 17, 2026

    Installed this IGBT module in a power conversion cabinet. Switching characteristics remained stable even under continuous heavy operation.

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    Great low-power MCU for portable equipment. Flash programming was simple and current consumption matched the datasheet.

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Nichicon

UUE1V102MNS6MS

Nichicon
98D-UUE1V102MNS6MS

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