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HomeProductsCapacitorsFilm CapacitorsBFC237590486
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BFC237590486 - Vishay Beyschlag/Draloric/BC Components

Manufacturer Part Number
BFC237590486
Manufacturer
Draloric/Vishay
Allelco Part Number
98D-BFC237590486
Warranty
1 Year Allelco Warranty - Find out more
Stock Status:
46,875 pcs available, New & Original
Parts Description
CAP FILM 130PF 5% 2KVDC RADIAL
Package
Radial
Data sheet
BFC237590486.pdf
RoHs Status
ROHS3 Compliant
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In stock: 46875
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Specifications

BFC237590486 Tech Specifications
Vishay Beyschlag/Draloric/BC Components - BFC237590486 technical specifications, attributes, parameters and parts with similar specifications to Vishay Beyschlag/Draloric/BC Components - BFC237590486

Product Attribute Attribute Value
Manufacturer Draloric/Vishay
Voltage Rating - DC 2000V (2kV)
Voltage Rating - AC 600V
Tolerance ±5%
Termination PC Pins
Size / Dimension 0.728" L x 0.217" W (18.50mm x 5.50mm)
Series KP/MKP 375
Ratings -
Package / Case Radial
Product Attribute Attribute Value
Package Bulk
Operating Temperature -55°C ~ 105°C
Mounting Type Through Hole
Lead Spacing 0.591" (15.00mm)
Height - Seated (Max) 0.689" (17.50mm)
Features -
Dielectric Material Polypropylene (PP), Metallized
Capacitance 130 pF
Applications High Pulse, DV/DT

Environmental & Export Classifications

ATTRIBUTE DESCRIPTION
RoHs Status ROHS3 Compliant
Moisture Sensitivity Level (MSL) Not Applicable
REACH Status REACH Unaffected
ECCN EAR99
HTSUS 8532.25.0070

Frequently Asked Questions(FAQ)

What makes the BFC237590486 suitable for high pulse applications compared to standard film capacitors?
The BFC237590486 is a metallized polypropylene film capacitor rated for 2000V DC, which enables it to withstand transient overvoltages and rapid voltage changes characteristic of high-pulse switching circuits. The metallized construction provides self-healing properties—when localized dielectric breakdown occurs, the metallized layer evaporates around the fault site, isolating the defect and allowing the capacitor to continue operating. This self-healing mechanism is particularly valuable in applications like snubber circuits, switching power supplies, and pulse discharge systems where voltage spikes regularly exceed the nominal operating level. The 130 pF capacitance and ±5% tolerance also support precision timing and resonant applications where small-value, stable capacitance is required.
How does the 2kV rating of the BFC237590486 relate to actual circuit design margins in high-voltage switching applications?
The 2000V DC rating on the BFC237590486 represents the maximum continuous voltage the capacitor can sustain without risk of dielectric failure. In practical circuit design, the rule of thumb is to derate operating voltage to 60–70% of the rated maximum, which means the BFC237590486 would typically be operated at 1200–1400V DC in continuous service. This design margin absorbs peak transient overvoltages, component aging, and temperature-related voltage derating. For example, in a 1000V DC bus with occasional 1200V transients, the BFC237590486 provides adequate safety margin because the 800V difference between its 2kV rating and peak transient stays well within the self-healing threshold. Designers often verify actual voltage stress using circuit simulation to confirm that peak dV/dt events do not exceed the capacitor's transient energy absorption capability.
Can the BFC237590486 be used interchangeably with ceramic capacitors in high-frequency coupling circuits?
No. While the BFC237590486 and ceramic capacitors are both used in coupling applications, they serve different design niches. The BFC237590486 is a polypropylene film capacitor with very low dissipation factor (typically <0.1% at 1 kHz), making it excellent for low-loss, high-Q resonant circuits and precision analog filtering where phase linearity and low noise are critical. Ceramic capacitors exhibit higher dielectric loss and nonlinear capacitance behavior across temperature and voltage, making them prone to microphonic noise and drift. The BFC237590486's 130 pF capacitance is also suited for RF coupling and tuning networks where frequency stability is important; ceramic alternatives would introduce temperature coefficient effects that degrade performance. However, ceramic capacitors offer smaller physical size and lower cost, so the choice depends on whether circuit performance requirements (noise, stability, Q factor) justify the larger footprint of the BFC237590486.
What is the practical thermal derating curve for the BFC237590486, and how does it affect voltage stress at elevated temperatures?
The BFC237590486 is specified for operation from −55°C to +105°C, with the 2000V DC rating typically applying at 25°C. Polypropylene film capacitors generally exhibit a nonlinear voltage derating curve; as temperature increases, the dielectric strength decreases, typically by 5–10% per 10°C rise above 25°C in the upper temperature range. At 85°C (a common operating point for industrial and automotive circuits), the effective voltage rating of the BFC237590486 drops to approximately 1800–1850V DC. At the maximum rated temperature of 105°C, the voltage rating may fall to 1600–1700V DC. This means a circuit design that assumes the full 2kV rating at 25°C must re-evaluate voltage stress at elevated temperatures. In thermal analysis, designers measure or simulate actual capacitor temperature rise due to ripple current heating and ambient conditions, then apply the temperature-dependent derating to confirm margin. For the BFC237590486, this is especially relevant in switching supplies where the capacitor sits near high-power semiconductors.
How does the dV/dt capability of the BFC237590486 compare to other 130 pF film capacitors in the same voltage class?
The BFC237590486 is specified for high dV/dt applications, meaning it can tolerate rapid voltage transients without generating excessive displacement current or experiencing thermal stress. Film capacitors generally exhibit superior dV/dt performance compared to ceramics because the polypropylene dielectric has very low permittivity and low loss tangent, resulting in minimal charging current surge. At 130 pF, the BFC237590486 presents a small capacitive load; for a 1000V/µs transient (typical of PWM switching), the displacement current is approximately I = C × dV/dt = 130pF × 1000V/µs ≈ 0.13 mA, which is negligible for lead stress. Comparable 130 pF film capacitors from other manufacturers (such as KEMET R82 or Wima MKS) exhibit similar dV/dt ratings because the physics of polypropylene film is consistent across the industry. The differentiator in the BFC237590486 is its lead spacing (15mm) and radial through-hole termination, which reduce loop inductance and allow lower-impedance PCB routing compared to axial leaded alternatives, improving actual circuit-level dV/dt performance.
Is the BFC237590486 suitable for use in RF and microwave matching networks, and what are the frequency limits?
Yes, the BFC237590486 can be used in RF matching and tuning networks up to approximately 100–200 MHz. At 130 pF, the capacitor exhibits a self-resonant frequency (SRF) typically in the range of 400–600 MHz, determined by the combination of capacitance and lead inductance. Below the SRF, the BFC237590486 behaves as a capacitor with low dissipation; above the SRF, parasitic inductance dominates and the component becomes inductive, making it unsuitable for matching. At VHF frequencies (30–300 MHz), the radial leads and 15mm lead spacing introduce approximately 5–15 nH of inductance, which creates a resonant tank with the 130 pF value around 400–500 MHz. For RF tuning circuits operating below 200 MHz, this inductive reactance is small relative to the capacitive reactance (e.g., at 100 MHz, XC ≈ 12 Ω while XL ≈ 3–5 Ω), so the BFC237590486 performs acceptably. However, for precision impedance matching at frequencies above 300 MHz, designers typically transition to smaller components with shorter leads or surface-mount alternatives to minimize parasitic inductance and move the SRF higher.
What are the moisture and environmental considerations for long-term reliability of the BFC237590486 in outdoor or humid applications?
The BFC237590486 is not moisture sensitive (MSL: Not Applicable) because polypropylene film is inherently resistant to moisture absorption, unlike ceramic dielectrics prone to hygroscopic swelling. This is a significant reliability advantage in outdoor, industrial, and automotive environments where condensation or high humidity can cause capacitance drift or mechanical stress. The metallized polypropylene film also provides a natural vapor barrier. However, the radial lead termination (PC pins—phosphor bronze or similar) can corrode in salt-fog, high-humidity, or chemically aggressive environments if not protected by potting compound, conformal coating, or a sealed enclosure. The BFC237590486 is ROHS3 compliant, indicating lead-free solder joints, which improves long-term reliability in thermal cycling but does not address atmospheric corrosion of the leads themselves. For marine or high-salinity applications, designers typically specify potting or hermetic packaging; for indoor industrial use, standard conformal coating (acrylic or silicone) is sufficient. The −55°C to +105°C temperature range indicates the BFC237590486 is rated for automotive-grade thermal cycling (IPC standards), so environmental stress cracking of the leads is unlikely under normal operating conditions.
How should the BFC237590486 be mounted and routed on a PCB to minimize parasitic inductance and ensure stable high-frequency performance?
The BFC237590486's radial lead spacing (15mm center-to-center) and through-hole termination require careful PCB layout to achieve the intended low-inductance performance. Lead length between the component body and the PCB should be minimized—ideally less than 3mm of unshielded lead. Both leads should connect to ground planes or return paths via short, wide traces to form a low-inductance loop; this is especially critical in the high-dV/dt switching applications for which the BFC237590486 is specified. The component should be positioned as close as possible to the switching node or power bus it decouples. Via stitching (multiple vias connecting the PCB traces to the ground plane) on both sides of the lead entry points further reduces loop inductance. If the BFC237590486 is used in a resonant or tuned circuit, the lead inductance (approximately 5–15 nH) becomes part of the resonant tank, shifting the resonant frequency downward by 5–10% compared to an ideal lumped-element model. Designers should account for this lead inductance in circuit simulation; otherwise, the actual resonant frequency will be lower than predicted, causing impedance mismatch or tuning error. In high-noise environments, shielding the leads with a ground-connected Faraday cage further suppresses radiated coupling.
What is the expected lifespan and failure mode of the BFC237590486 under continuous rated conditions?
Polypropylene film capacitors like the BFC237590486 exhibit very long operational lifespans under rated voltage, temperature, and ripple current conditions. When operated within specifications (2000V DC, ≤105°C, acceptable ripple current), the BFC237590486 typically shows no degradation over 10,000+ operating hours, with some manufacturers rating film capacitors for 50,000+ hours. The primary failure mechanism is thermal runaway: if the capacitor is subjected to sustained overvoltage (above 2.5 kV) or excessive ripple current (causing I²R heating of the ESR), the internal temperature rises, accelerating dielectric loss and further heating in a positive feedback loop until the polypropylene film softens or melts, causing dielectric breakdown. Secondary failure modes include mechanical fracture of the leads due to vibration (less common in through-hole radial designs) and corrosion of the lead termination in humid or corrosive atmospheres (mitigated by conformal coating). The self-healing metallized construction prevents catastrophic failure; instead, the capacitor gradually loses capacitance as the metallized layer evaporates around minor faults, reducing effective plate area. Designers can monitor capacitance drift as an early warning signal. Under normal conditions, the BFC237590486 shows negligible capacitance change (<2%) over 5 years of operation.
How does the BFC237590486's tolerance specification (±5%) affect circuit design, and when should tighter tolerances be specified?
The ±5% tolerance on the BFC237590486 means the actual capacitance can range from 123.5 pF to 136.5 pF (130 pF ± 6.5 pF). This tolerance band is typical for polypropylene film capacitors and reflects manufacturing variability in film thickness and winding tightness. For resonant and tuning circuits, a ±5% tolerance translates to approximately ±2.5% frequency error (since resonant frequency is proportional to 1/√C). If a design requires a specific resonant frequency (e.g., 1 MHz) with ±1% accuracy, the ±5% capacitance tolerance of the BFC237590486 will cause unacceptable frequency drift across the production lot. In such cases, designers either specify tighter tolerance capacitors (±1% or ±2% available from premium suppliers at higher cost) or implement tuning via a parallel or series trim capacitor adjusted in production. For high-pass or low-pass filtering applications, a ±5% tolerance causes approximately ±2.5% corner frequency variation, which is often acceptable if the design includes guard-band margins. In precision DC coupling networks or integrator circuits, ±5% tolerance may introduce unacceptable gain or time-constant errors, again requiring either tighter tolerance or post-trim calibration. The BFC237590486 is suitable for applications tolerating 5% capacitance variation; for tighter control, alternative part numbers from the Vishay KP/MKP 375 series with ±1% tolerance should be evaluated.
Can the BFC237590486 be paralleled with other capacitors to achieve lower ESR or higher capacitance, and what precautions are necessary?
Yes, multiple BFC237590486 units can be paralleled to achieve lower equivalent series resistance (ESR) and higher total capacitance. When N identical capacitors are paralleled, the total capacitance is N × 130 pF (provided all branches have similar lead inductance), and the ESR is reduced by approximately a factor of N, as long as the lead inductances and PCB trace impedances are balanced. However, several precautions are necessary: (1) Lead inductance matching—if one parallel path has significantly shorter leads than another, that path dominates high-frequency current distribution, defeating the ESR reduction benefit. All leads must be routed symmetrically and kept as short as possible. (2) Voltage derating—each individual BFC237590486 still sees the same voltage; paralleling does not increase the voltage rating, so the combined assembly is still limited to 2000V DC. (3) Capacitance tolerance stack—if all BFC237590486 units fall at the high end of the ±5% tolerance band, the actual total capacitance is higher than nominal; if all fall at the low end, total capacitance is lower. For tight capacitance control, individual unit selection or trimming may be required. (4) Thermal balance—all parallel paths must dissipate ripple current evenly; if current concentrates in one branch due to trace impedance mismatch, that capacitor overheats and fails first. PCB layout must ensure equal impedance paths for all parallel branches.
How do transient voltage spikes and switching noise couple into the BFC237590486, and what happens if the spike exceeds the 2kV rating?
The BFC237590486 is exposed to transient overvoltages through two primary coupling mechanisms: (1) dV/dt coupling via the capacitive loop formed by the lead inductance and parasitic trace impedance—when the voltage across the capacitor changes rapidly, displacement current flows through the capacitor, and if the external circuit has high source impedance, this current creates a voltage drop that momentarily over-stresses the dielectric; (2) common-mode noise coupling from nearby switching transitions or ground plane irregularities. If a transient spike exceeds 2000V, the polypropylene dielectric ionizes locally, creating a conducting path. In metallized film capacitors like the BFC237590486, this ionization causes the metallized layer to evaporate in a self-healing event, leaving a small void in the metallized coating. A single overvoltage event typically does not cause immediate catastrophic failure; instead, the capacitance decreases slightly as the active plate area shrinks. However, repeated overvoltage spikes (e.g., weekly 2.5 kV transients) accumulate damage, degrading capacitance and eventually causing open-circuit failure. To protect the BFC237590486, designers add surge suppression (varistors or Zener diodes) to clamp transients below 2 kV, or they over-specify the voltage rating (e.g., using a 3 kV film capacitor instead of 2 kV) to provide a safety margin. Simulation tools like SPICE can model transient coupling and predict peak voltage on the BFC237590486 to confirm margin before prototype build.
What is the cost-benefit analysis of using the BFC237590486 versus alternative 130 pF capacitor technologies for industrial switching applications?
The BFC237590486 polypropylene film capacitor competes against three main alternatives at 130 pF: (1) Ceramic (X7R or C0G)—lower cost (30–50% of film price), much smaller footprint, but suffers from higher dielectric loss (tan δ ≈ 1–3% versus <0.1% for film), temperature coefficient (±15% across −55°C to +105°C), and voltage derating. Ceramic also exhibits microphone noise and nonlinear capacitance under stress, making it unsuitable for precision analog or high-Q circuits. (2) Paper-oil or paper-polypropylene laminate capacitors—excellent for high-voltage (3–5 kV) applications but bulkier and typically more expensive than the BFC237590486 for the 2 kV class. (3) Mica capacitors—very stable (temperature coefficient <50 ppm/°C), excellent for RF tuning, but 2–3× the cost of the BFC237590486 and less robust to mechanical stress. For industrial switching supplies, snubber circuits, and high-dV/dt applications, the BFC237590486 represents an optimal trade-off: it provides 2 kV dielectric strength, low loss, excellent frequency stability, self-healing protection, and reliable through-hole termination at a moderate cost. If a design targets high-volume consumer applications where cost dominates, ceramic alternatives may be acceptable if circuit performance margins are wide. If reliability, noise performance, or thermal stability are critical (aerospace, medical, automotive-grade), the BFC237590486 justifies its premium over ceramics.
How should the BFC237590486 be tested during incoming quality inspection, and what metrics indicate degradation?
Incoming quality inspection of the BFC237590486 should verify three primary metrics: (1) Capacitance—measure at 1 kHz using an LCR meter and confirm it falls within ±5% of 130 pF (123.5–136.5 pF). Capacitance outside this band indicates either manufacturing defect, moisture absorption, or aging. (2) Insulation resistance (IR)—apply 500V DC (50% of rated voltage) for 1 minute and measure leakage current; IR should be >1 GΩ for a new BFC237590486. Low IR (<100 MΩ) indicates dielectric degradation and the component should be rejected. (3) Dissipation factor (tan δ) at 1 kHz—should be <0.15%; higher values suggest internal losses due to contamination or dielectric breakdown during manufacturing. A quick field test involves measuring capacitance after 24 hours on the shelf; any drift >1% indicates moisture ingress (unlikely for polypropylene but possible if packaging is damaged) or thermal stress during shipping. For safety-critical applications, a small sample from each batch can be subjected to high-voltage stress testing (e.g., 150% of rated voltage for 1 hour) to screen for latent defects; components surviving this stress are typically safe for production use. Long-term monitoring of deployed units can track capacitance drift over months or years; a drift >5% suggests the capacitor is nearing end-of-life and should be replaced proactively.

Parts with Similar Specifications

The three parts on the right have similar specifications to Vishay Beyschlag/Draloric/BC Components BFC237590486

Product Attribute BFC237590483 BFC237590489 BFC237590484 BFC237590485
Part Number BFC237590483 BFC237590489 BFC237590484 BFC237590485
Manufacturer Vishay Beyschlag/Draloric/BC Components Vishay Beyschlag/Draloric/BC Components Vishay Beyschlag/Draloric/BC Components Vishay Beyschlag/Draloric/BC Components
Height - Seated (Max) - - - -
Package - Tape & Reel (TR) Tube Tape & Reel (TR)
Applications - - - -
Features - - - Simultaneous Sampling
Package / Case - 196-LFBGA 16-DIP (0.300', 7.62mm) 64-VFQFN Exposed Pad
Dielectric Material - - - -
Tolerance - - - -
Mounting Type - Surface Mount Through Hole Surface Mount
Voltage Rating - AC - - - -
Termination - - - -
Operating Temperature - -40°C ~ 85°C 0°C ~ 70°C -40°C ~ 85°C
Series - - - -
Ratings - - - -
Size / Dimension - - - -
Voltage Rating - DC - - - -
Capacitance - - - -
Lead Spacing - - - -

BFC237590486 Datasheet PDF

Download BFC237590486 pdf datasheets and Vishay Beyschlag/Draloric/BC Components documentation for BFC237590486 - Vishay Beyschlag/Draloric/BC Components.

Datasheets
KP/MKP375 (BFC2375) Series Datasheet.pdf
HTML Datasheet
KP/MKP375 (BFC2375) Series Datasheet.pdf

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Vishay Beyschlag/Draloric/BC Components

BFC237590486

Vishay Beyschlag/Draloric/BC Components
98D-BFC237590486

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