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HomeProductsCapacitorsAluminum Electrolytic CapacitorsEET-HC2D561BA
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EET-HC2D561BA - Panasonic Electronic Components

Manufacturer Part Number
EET-HC2D561BA
Manufacturer
Panasonic
Allelco Part Number
98D-EET-HC2D561BA
Warranty
1 Year Allelco Warranty - Find out more
Stock Status:
37,364 pcs available, New & Original
Parts Description
CAP ALUM 560UF 20% 200V SNAP
Package
Radial, Can - Snap-In
Data sheet
EET-HC2D561BA.pdf

PCN Obsolescence/ EOL

Cylindrical Battery Holders.pdf

PCN Design/Specification

Cylindrical Battery Holders.pdf
RoHs Status
 
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In stock: 37364
  • Unit Price: $2.676
  • Subtotal: $0.00

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Quantity Unit Price Ext. Price
1+ $2.676 $2.68
200+ $1.068 $213.60
400+ $1.032 $412.80
1000+ $1.015 $1,015.00
The above prices does not include taxes and freight rates, which will be calculated on the order pages.

Specifications

EET-HC2D561BA Tech Specifications
Panasonic Electronic Components - EET-HC2D561BA technical specifications, attributes, parameters and parts with similar specifications to Panasonic Electronic Components - EET-HC2D561BA

Product Attribute Attribute Value
Manufacturer Panasonic
Voltage - Rated 200 V
Tolerance ±20%
Surface Mount Land Size -
Size / Dimension 0.866' Dia (22.00mm)
Series TS-HC
Ripple Current @ Low Frequency 1.67 A @ 120 Hz
Ripple Current @ High Frequency 2.34 A @ 10 kHz
Ratings -
Polarization Polar
Package / Case Radial, Can - Snap-In
Product Attribute Attribute Value
Package Bulk
Operating Temperature -40°C ~ 105°C
Mounting Type Through Hole
Lifetime @ Temp. 2000 Hrs @ 105°C
Lead Spacing 0.394' (10.00mm)
Height - Seated (Max) 1.260' (32.00mm)
ESR (Equivalent Series Resistance) 355mOhm @ 120Hz
Capacitance 560 µF
Base Product Number EET-HC
Applications General Purpose

Environmental & Export Classifications

ATTRIBUTE DESCRIPTION
Moisture Sensitivity Level (MSL) 1 (Unlimited)
REACH Status REACH Affected
ECCN EAR99
HTSUS 8532.22.0040

Frequently Asked Questions(FAQ)

What is the practical ESR impact of the EET-HC2D561BA at different operating frequencies in real circuit applications?
The EET-HC2D561BA exhibits 355mOhm ESR at 120Hz, which represents the low-frequency measurement point. However, ESR in aluminum electrolytic capacitors decreases significantly at higher frequencies due to the skin effect and distributed impedance characteristics. At 10kHz, the ripple current rating increases to 2.34A compared to 1.67A at 120Hz, indicating lower effective impedance in that frequency range. For switching power supply designs or high-frequency filtering circuits, the EET-HC2D561BA's ESR behavior means voltage ripple will be lower at switching frequencies (typically 50kHz to 500kHz) than predicted from the 120Hz specification alone. This is relevant when calculating output voltage ripple in buck converters or selecting bulk capacitance for intermediate bus converters where frequency-dependent ESR becomes a design advantage.
How does the 2000-hour lifespan rating at 105°C affect long-term reliability calculations for the EET-HC2D561BA in industrial applications?
The EET-HC2D561BA is rated for 2000 hours at 105°C, which serves as the reference point for Arrhenius-based lifetime calculations. In industrial thermal management, actual operating life can be estimated using the rule that capacitor life roughly doubles for every 10°C reduction below the rated temperature. At 85°C ambient (a common industrial baseline), the EET-HC2D561BA would project to approximately 4000–5000 operating hours under equivalent ripple current stress. For 24/7 industrial duty, this translates to roughly 6–7 months of continuous operation before reaching end-of-life degradation thresholds. Designers must account for this when specifying redundancy, maintenance intervals, or applying derating factors. In telecom or UPS applications requiring 5–10 year service life, the EET-HC2D561BA would require either thermal management to reduce case temperature, or parallel capacitor strings to distribute ripple current and extend collective system MTBF.
Why does the EET-HC2D561BA specify different ripple current limits at 120Hz versus 10kHz, and how should this influence capacitor selection for mixed-frequency circuits?
The EET-HC2D561BA's ripple current specification—1.67A at 120Hz and 2.34A at 10kHz—reflects the frequency-dependent power dissipation characteristics of aluminum electrolytic capacitors. At lower frequencies, the capacitive reactance (Xc = 1/2πfC) is higher, meaning more current flows through the series resistance for a given applied AC voltage, generating proportionally more heat (I²R losses). At 10kHz, the impedance is lower, so the same voltage ripple can be sustained with higher current before thermal stress limits are exceeded. In power factor correction circuits or three-phase industrial rectifier stages where both 120Hz (line-frequency ripple components) and 10kHz components (from switching harmonics) are present, the EET-HC2D561BA must be sized based on the worst-case frequency combination. Using root-sum-square (RSS) addition of ripple currents across frequencies, rather than simple addition, provides a more realistic thermal load estimate and prevents over-conservative capacitor selection.
What thermal and electrical trade-offs should be evaluated when comparing the EET-HC2D561BA against film or ceramic alternatives for 200V bulk capacitance?
The EET-HC2D561BA provides 560µF in a compact radial form factor optimized for thermal dissipation via through-hole leads and direct PCB mounting. Compared to film capacitors at 200V, achieving equivalent capacitance would require significantly larger physical volume and higher cost; film technology typically delivers 10–20µF per cubic inch at this voltage, whereas the TS-HC series achieves roughly 45–50µF per cubic inch. Ceramic alternatives (multilayer ceramic capacitors) would require parallel strings of lower-voltage units or exotic high-voltage ceramic formulations, introducing cost penalties and reliability concerns from voltage derating. The trade-off is that the EET-HC2D561BA's 355mOhm ESR and 2000-hour thermal rating make it more sensitive to ripple current and ambient temperature than ceramic alternatives, which are essentially lossless at moderate frequencies. For applications where thermal headroom is constrained or redundancy is required, ceramic or film supplemental capacitors can be paralleled with the EET-HC2D561BA to reduce overall system ripple current density and extend operating life.
How should the ±20% tolerance of the EET-HC2D561BA be managed in feedback-dependent or resonant circuit designs?
The EET-HC2D561BA carries a ±20% capacitance tolerance, meaning production units may range from 448µF to 672µF. In linear regulator output filtering or simple RC timing circuits, this tolerance is often non-critical because output voltage ripple and settling time scale gradually with capacitance. However, in resonant tank circuits (such as LLC converters) or phase-shift PWM designs where frequency response depends directly on L-C product, a ±20% capacitance spread creates a ±10% resonant frequency uncertainty. This can degrade control loop stability or efficiency optimization. In such applications, the EET-HC2D561BA should be paired with higher-tolerance film or ceramic capacitors (±5% or better) in series or parallel configurations to achieve tighter effective tolerance. Alternatively, if the design allows, using the EET-HC2D561BA in non-resonant roles (such as intermediate bus bulk capacitance) avoids frequency-dependent performance penalties while leveraging its cost advantage over tighter-tolerance alternatives.
What are the practical implications of the EET-HC2D561BA's snap-in mounting for PCB layout and thermal management in high-current applications?
The EET-HC2D561BA uses snap-in mechanical retention, which allows rapid insertion and removal without soldering. This design feature is prevalent in industrial power supplies and modular equipment where field replacement is required. However, snap-in contacts introduce contact resistance (typically 5–20mOhm per contact pair) that adds to the device's effective ESR, particularly in high ripple current scenarios. For thermal management, the snap-in form factor allows the capacitor body to sit closer to the PCB surface compared to standard lead-based through-hole designs, reducing thermal resistance to the board. In high-current applications (approaching the 2.34A ripple current limit at 10kHz), this proximity to the PCB acts as a heat sink, improving dissipation. However, designers must ensure adequate airflow around the capacitor can and provide copper area under the mounting pads to minimize contact resistance. If peak ripple current exceeds 2A sustained, supplemental cooling such as forced air convection or placement in lower-ambient regions of the chassis becomes necessary to maintain the EET-HC2D561BA below its 105°C temperature rating.
How does operating the EET-HC2D561BA at the lower end of its temperature range (-40°C) versus the upper end (105°C) affect both ESR and capacitance stability?
The EET-HC2D561BA's -40°C to 105°C operating range creates a 145°C span over which electrolyte viscosity and internal ionic conductivity change significantly. At -40°C (cold-soak conditions in aerospace or outdoor equipment), electrolyte mobility decreases, causing ESR to increase by 40–60% compared to room temperature measurements, while capacitance may drop 10–15% due to reduced diffusion in the oxide layer. Conversely, at 105°C, ESR decreases (improving filtering) but capacitance can rise 10–20% due to ionic thermal activation. For applications with wide temperature operation—such as automotive underhood or industrial outdoor enclosures—the EET-HC2D561BA's 200V rating should be derated by 5–10% at the cold extreme to account for capacitance reduction, and ripple current limits should be reduced by 20–30% at 105°C to manage the accelerated aging (relative to the 2000-hour base rating). Designers should validate thermal performance across the full range using SPICE models or empirical characterization rather than assuming nominal performance at temperature extremes.
What substitution or cross-reference logic should be applied when the EET-HC2D561BA becomes unavailable, considering the listed alternatives?
The EET-HC2D561BA has several listed substitutes: LP561M200H3P3, 381LR561M200H042, 381LX561M200J022, LGG2D561MELZ30, MAL209442561E3. Cross-reference viability depends on matching three critical parameters: capacitance (560µF), voltage rating (200V minimum), and ESR/ripple current performance. The Panasonic TS-HC family (base part EET-HC) variants generally maintain the 355mOhm @ 120Hz ESR specification across the listed codes, making them direct drop-in alternatives. However, other brands listed (Vishay, Epcos, Nichicon, Mallory) may have different ESR characteristics, thermal ratings, or lead spacing. Before substitution, verify (1) mechanical fit—lead spacing remains 10mm and overall height does not exceed 32mm in the socket; (2) ripple current limits at the intended operating frequency; (3) thermal rating at actual ambient temperature. The MAL209442561E3 (Mallory) variant, for instance, may have a 3000-hour thermal rating (better than EET-HC2D561BA's 2000-hour), justifying a cost premium if long-term reliability is critical. Cross-referencing should never assume functional equivalence without datasheet verification.
In what way does the EET-HC2D561BA's 200V rating compare to lower-voltage alternatives in terms of leakage current and long-term insulation integrity?
The EET-HC2D561BA operates at 200V, near the upper boundary of standard industrial aluminum electrolytic capacitor voltage classes. Higher voltage ratings correlate with thicker, more robust oxide dielectric layers, which generally exhibit lower leakage current and better long-term insulation stability compared to lower-voltage counterparts. Typical leakage current for a 560µF/200V capacitor in the TS-HC series is approximately 50–100µA at rated voltage, whereas a 560µF/100V unit from the same family might leak 30–50µA due to the thinner oxide. However, this apparent disadvantage is offset by oxide formation stability: higher-voltage capacitors experience less oxide reformation drift over the 2000-hour thermal life because the oxide layer is more thermally stable at high field strengths. In long-term reliability studies, 200V-rated aluminum electrolytics often show superior insulation retention (lower leakage increase) than lower-voltage units when both are stressed at their full voltage for extended periods. For applications requiring minimal leakage (such as precision DC bus filtering or high-impedance charge-storage circuits), the EET-HC2D561BA's 200V class offers a reliability advantage despite slightly higher absolute leakage, provided thermal management keeps operating temperature in the 50–75°C range rather than approaching the 105°C limit.
How should the EET-HC2D561BA be specified in redundant or N+1 capacitor configurations to extend system MTBF and mitigate catastrophic failure risk?
The EET-HC2D561BA's 2000-hour thermal rating at 105°C, while acceptable for many applications, becomes limiting in critical infrastructure (telecom, renewable energy inverters, medical devices) requiring 5–20 year MTBF targets. Redundant capacitor configurations employ parallel strings or modular stacking to distribute ripple current and thermal stress. In a two-in-parallel configuration, each EET-HC2D561BA carries half the ripple current, effectively doubling the thermal life projection to 4000–5000 hours at 105°C operating stress. For higher reliability targets, N-way parallel strings (N=3–4) combined with thermal management to reduce case temperature to 75–85°C can project system MTBF into the 50,000–100,000+ hour range (5–10 year equivalent). Conversely, series connections (for voltage multiplication or stress distribution across multiple lower-voltage units) reduce ripple current per capacitor but introduce voltage-sharing imbalance risk due to the ±20% tolerance; series designs require active or passive voltage balancing to prevent single-unit overstress. The EET-HC2D561BA's snap-in design simplifies parallel and series assembly compared to soldered through-hole alternatives, making it practical for modular redundancy in power distribution frameworks.
What diagnostic or pre-failure indicators should be monitored during accelerated life testing of systems using the EET-HC2D561BA?
Aluminum electrolytic capacitors like the EET-HC2D561BA degrade predictably before catastrophic failure, allowing condition-based maintenance strategies. During accelerated aging at elevated ripple current and temperature, ESR increases exponentially as the electrolyte dries and oxide defects accumulate. Monitoring ESR via high-frequency impedance measurement (typically at 100kHz or 1MHz) provides a sensitive early-warning metric; ESR increase exceeding 50–100% above nominal indicates the EET-HC2D561BA has consumed roughly 60–80% of its design life. Capacitance loss is a secondary indicator—a 10–15% decrease from nominal typically coincides with 70%+ life consumption. DC leakage current increase, though harder to measure in-circuit, also accelerates near end-of-life. In thermal cycling tests (–40°C to 105°C), the EET-HC2D561BA exhibits mechanical stress at lead terminations that can produce intermittent contact failures or micro-cracks in the oxide layer, detectable via impedance spectroscopy (broad ESR increase across multiple frequencies). For mission-critical equipment, implementing capacitor health monitoring firmware (ESR measurement via capacitor impedance tracking) and alarm thresholds set at 80% projected life consumption enables planned replacement before functional failure occurs, particularly in the latter stages of the EET-HC2D561BA's 2000-hour design life.
How do moisture and environmental contamination risks for the EET-HC2D561BA affect design practices in outdoor or marine applications?
The EET-HC2D561BA carries MSL (Moisture Sensitivity Level) 1, indicating unlimited moisture exposure tolerance after manufacturing, with no post-reflow baking requirements. This classification reflects robust can sealing and potting materials that resist moisture ingress into the electrolyte. However, snap-in contact terminals and the radial form factor expose the mounting interface to environmental moisture, salt spray, and condensation in harsh outdoor or marine environments. While the EET-HC2D561BA itself is moisture-resistant, the PCB and contact pads are vulnerable to corrosion, electrochemical migration, and creepage faults under high humidity and salt-laden conditions. In marine or coastal installations, designers should implement conformal coating over the capacitor mounting area (avoiding the snap-in contact zone itself), adequate drainage, and thermal management to prevent condensation on the PCB surface. The EET-HC2D561BA's -40°C operating floor becomes relevant in marine applications: cold soak at sea can push case temperature below -20°C on unheated structures, causing ESR to increase 50–100% and reducing ripple current capacity; thermal simulation of low-temperature operation is necessary to verify continued performance. Periodic inspection (visual and impedance-based ESR monitoring) should be scheduled to detect early corrosion or contact degradation before it impacts circuit reliability.
What is the expected cost and supply chain positioning of the EET-HC2D561BA within the 560µF/200V aluminum electrolytic market?
The EET-HC2D561BA, as a Panasonic TS-HC series radial snap-in capacitor, occupies a mid-range position in the 560µF/200V capacitor market. Panasonic's TS-HC series is optimized for cost-sensitive industrial applications (power supplies, inverters, industrial UPS systems) where field replaceability via snap-in mounting justifies slightly higher initial part cost compared to soldered through-hole alternatives. Typical EET-HC2D561BA unit pricing (in high volume) ranges from $1.50–$3.00 depending on procurement channel and order quantity, whereas lower-cost soldered competitors may be $0.80–$1.50 and premium long-life alternatives (3000–5000 hour ratings) may be $3.50–$5.00. Supply chain positioning reflects moderate demand stability; the EET-HC base series maintains established production pipelines and reasonable lead times (4–8 weeks typical), though extended supply disruptions (as seen in 2021–2023 electronics shortages) can create availability constraints. Designers should monitor lead time and pricing trends annually; if EET-HC2D561BA procurement becomes difficult, the listed cross-reference parts (Vishay, Nichicon, Mallory variants) provide alternative sourcing channels. Long-term cost optimization often favors specifying the EET-HC2D561BA in higher volumes (>10k units annually) to secure preferred pricing and inventory allocation from distributors.

Parts with Similar Specifications

The three parts on the right have similar specifications to Panasonic Electronic Components EET-HC2D561BA

Product Attribute EET-HC2D681BA EET-HC2D561HA EET-HC2D471BA EET-HC2D681HA
Part Number EET-HC2D681BA EET-HC2D561HA EET-HC2D471BA EET-HC2D681HA
Manufacturer Panasonic Electronic Components Panasonic Electronic Components Panasonic Electronic Components Panasonic Electronic Components
Operating Temperature - -40°C ~ 85°C 0°C ~ 70°C -40°C ~ 85°C
Lead Spacing - - - -
Tolerance - - - -
Size / Dimension - - - -
Series - - - -
Ripple Current @ High Frequency - - - -
Base Product Number - DAC34H84 MAX500 ADS62P42
Voltage - Rated - - - -
Surface Mount Land Size - - - -
Ratings - - - -
Applications - - - -
Mounting Type - Surface Mount Through Hole Surface Mount
Capacitance - - - -
Lifetime @ Temp. - - - -
Package - Tape & Reel (TR) Tube Tape & Reel (TR)
Height - Seated (Max) - - - -
Ripple Current @ Low Frequency - - - -
Polarization - - - -
ESR (Equivalent Series Resistance) - - - -
Package / Case - 196-LFBGA 16-DIP (0.300', 7.62mm) 64-VFQFN Exposed Pad

EET-HC2D561BA Datasheet PDF

Download EET-HC2D561BA pdf datasheets and Panasonic Electronic Components documentation for EET-HC2D561BA - Panasonic Electronic Components.

Datasheets
Cylindrical Battery Holders.pdf
PCN Other
Snap-In Al electrolytic REACH 07/May/2013.pdf
PCN Obsolescence/ EOL
Cylindrical Battery Holders.pdf
PCN Design/Specification
Cylindrical Battery Holders.pdf

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EET-HC2D561BA Image

EET-HC2D561BA

Panasonic Electronic Components
98D-EET-HC2D561BA

Want a better price? Add to Cart and Submit RFQ now, we'll contact you immediately.

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