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K153Z10Y5VF5UL2 - Vishay Beyschlag/Draloric/BC Components

Name: Vishay Beyschlag/Draloric/BC Components K153Z10Y5VF5UL2
Brand: Vishay Beyschlag/Draloric/BC Components
SKU: K153Z10Y5VF5UL2
Price: 0.043 USD
Availability: InStock
Rating: 5 (2 reviews)

Manufacturer Part Number: K153Z10Y5VF5UL2

Manufacturer: Draloric/Vishay

Allelco Part Number: 98D-K153Z10Y5VF5UL2

Warranty: 1 Year Allelco Warranty - Find out more

Stock Status:: 34,642 pcs available, New & Original

Parts Description: CAP CER 0.015UF 50V Y5V RADIAL

Package: Radial

Data sheet: K153Z10Y5VF5UL2.pdf

Datasheets
K10 Series Mono-Kap® Prod Sheet.pdf K Series Datasheet.pdf

PCN Obsolescence/ EOL
Mult Series 17/Mar/2023.pdf

HTML Datasheet
K Series Datasheet.pdf

RoHs Status: ROHS3 Compliant

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Specifications

K153Z10Y5VF5UL2 Tech Specifications
Vishay Beyschlag/Draloric/BC Components - K153Z10Y5VF5UL2 technical specifications, attributes, parameters and parts with similar specifications to Vishay Beyschlag/Draloric/BC Components - K153Z10Y5VF5UL2

Product Attribute	Attribute Value
Manufacturer	Draloric/Vishay
Voltage - Rated	50V
Tolerance	-20%, +80%
Thickness (Max)	-
Temperature Coefficient	Y5V (F)
Size / Dimension	0.142" L x 0.091" W (3.60mm x 2.30mm)
Series	Mono-Kap™ K
Ratings	-
Package / Case	Radial
Package	Tape & Box (TB)

Product Attribute	Attribute Value
Operating Temperature	-30°C ~ 85°C
Mounting Type	Through Hole
Lead Style	Straight
Lead Spacing	0.098" (2.50mm)
Height - Seated (Max)	0.205" (5.20mm)
Features	-
Failure Rate	-
Capacitance	0.015 µF
Applications	General Purpose

Environmental & Export Classifications

ATTRIBUTE	DESCRIPTION
RoHs Status	ROHS3 Compliant
Moisture Sensitivity Level (MSL)	Not Applicable
REACH Status	REACH Unaffected
ECCN	EAR99
HTSUS	8532.24.0060

Frequently Asked Questions(FAQ)

What is the actual capacitance tolerance range of the K153Z10Y5VF5UL2, and how does the -20%, +80% specification affect circuit design?: The K153Z10Y5VF5UL2 nominal value is 0.015 µF with a Y5V tolerance of -20% to +80%, meaning the capacitance can range from 0.012 µF to 0.027 µF. This wide tolerance band is characteristic of Y5V ceramic capacitors and reflects the dielectric material's inherent variation with temperature and voltage. In circuits requiring tight capacitance precision—such as timing networks, resonant tanks, or frequency-dependent filters—the K153Z10Y5VF5UL2 is unsuitable without external compensation. For general-purpose bypass, coupling, and noise decoupling applications, the tolerance is typically acceptable because these functions depend on order-of-magnitude capacitance rather than exact values. Designers should verify that the minimum capacitance (0.012 µF) still meets low-frequency cutoff requirements and that maximum capacitance (0.027 µF) does not introduce unwanted resonances or phase shifts.

How does temperature affect the capacitance of the K153Z10Y5VF5UL2 across its -30°C to 85°C operating range?: The K153Z10Y5VF5UL2 uses a Y5V temperature coefficient, which is non-linear and produces significant capacitance variation with temperature. Y5V dielectrics typically exhibit a capacitance change of ±15% or more across their full operating window, with the most pronounced shifts occurring at temperature extremes. At -30°C, the K153Z10Y5VF5UL2 may exhibit capacitance reductions of 10–15% relative to room temperature (25°C), while at 85°C the capacitance can increase by 10–20% depending on the specific dielectric formulation and bias voltage. Additionally, the Y5V characteristic is non-linear, meaning the rate of change is faster near the temperature boundaries than in the mid-range. For applications with stringent frequency or timing stability requirements across the full -30°C to 85°C range—such as oscillators, precision timing circuits, or temperature-compensated filters—the K153Z10Y5VF5UL2 introduces uncompensated drift that may require feedback tuning or active compensation. Bypass and coupling applications are generally insensitive to these variations.

Can the K153Z10Y5VF5UL2 be directly substituted with the FG14C0G1H153JNT06, and what are the key differences?: While the FG14C0G1H153JNT06 is listed as a substitute for the K153Z10Y5VF5UL2, the two parts have fundamentally different performance characteristics. The K153Z10Y5VF5UL2 is a 50V Y5V ceramic capacitor with -20%, +80% tolerance and significant temperature drift, whereas the FG14C0G1H153JNT06 uses a C0G (NP0) dielectric rated at higher voltage (typically 100V or more) with ±5% tolerance and near-zero temperature coefficient. C0G dielectrics maintain stable capacitance across temperature but have lower dielectric constant, resulting in larger physical size for equivalent capacitance. The K153Z10Y5VF5UL2's smaller footprint (3.60mm × 2.30mm) and higher capacitance density make it suitable for space-constrained, non-critical applications, while the FG14C0G1H153JNT06 is appropriate when temperature stability and tolerance precision are required. Direct substitution is only valid if the circuit tolerates the Y5V tolerance band and temperature drift; otherwise, circuit re-analysis is necessary.

Why is the K153Z10Y5VF5UL2 rated for only 50V when similar ceramic capacitors are available at higher voltages?: The K153Z10Y5VF5UL2's 50V rating reflects the trade-off between dielectric thickness, physical size, and capacitive density inherent in Y5V ceramic formulations. Y5V dielectrics offer high relative permittivity (K), allowing significant capacitance in compact packages; however, this permittivity comes at the cost of lower dielectric breakdown strength, which limits voltage ratings. To achieve the 0.015 µF capacitance in a small radial package suitable for through-hole PCB assembly, Vishay selected a dielectric composition and electrode configuration that supports 50V without excessive size. At higher voltages (e.g., 100V or 200V), achieving the same 0.015 µF value would require thicker dielectric layers or larger electrode areas, increasing the package size significantly. For applications exceeding 50V, designers should verify the actual circuit voltage (accounting for transients and safety margin) and consider upgrading to higher-voltage-rated alternatives such as the K153M10X7RF5UL2 (which is rated higher) or selecting components from alternative families. Overvoltage operation of the K153Z10Y5VF5UL2 accelerates capacitance drift and increases the risk of dielectric breakdown.

How does voltage stress affect the long-term stability and reliability of the K153Z10Y5VF5UL2?: Ceramic capacitors, including the K153Z10Y5VF5UL2, experience voltage-dependent capacitance change known as dielectric absorption and piezoelectric effects. When the K153Z10Y5VF5UL2 is subjected to sustained voltage near its 50V rating, the capacitance typically decreases by 5–10% due to electric-field-induced strain in the Y5V dielectric material. This effect is reversible if voltage is removed but becomes more pronounced over extended operation. Operating the K153Z10Y5VF5UL2 consistently below its rated voltage (e.g., at 30–40V) reduces this drift but does not eliminate it. Additionally, repetitive voltage cycling (charge-discharge events) can induce mechanical stress and microcracking in the ceramic layers, gradually degrading capacitance and increasing equivalent series resistance (ESR). For reliable long-term performance, the K153Z10Y5VF5UL2 should be used with a voltage derating factor of at least 0.5× (operating at 25V or less in a 50V-rated application), particularly in automotive, industrial, or mission-critical environments. Datasheets do not typically specify failure-rate metrics for the K153Z10Y5VF5UL2, so reliability must be inferred from manufacturer reputation and test data from similar product lines.

What is the effective series resistance (ESR) of the K153Z10Y5VF5UL2, and how does it impact high-frequency bypass and noise decoupling performance?: Vishay's datasheet for the K153Z10Y5VF5UL2 does not explicitly specify ESR or impedance at frequency. However, radial ceramic capacitors in the 0.015 µF range typically exhibit ESR values between 0.5–2 Ω at 1 MHz, depending on lead geometry, dielectric loss, and internal electrode design. The K153Z10Y5VF5UL2's radial configuration—with straight leads spaced 0.098" (2.50mm) apart—introduces path inductance estimated at 1–2 nH, which combines with ESR to determine impedance at high frequencies. At frequencies below 100 kHz, the K153Z10Y5VF5UL2 behaves primarily as a capacitor; at frequencies above 10 MHz, the impedance is dominated by series inductance and increases sharply. For power supply bypass applications targeting high-frequency noise (>10 MHz), the K153Z10Y5VF5UL2 is less effective than surface-mount multilayer ceramic capacitors (MLCCs) with lower inductance. If the K153Z10Y5VF5UL2 is selected for high-frequency bypass, engineers should verify through impedance simulation or measurement that it provides sufficient impedance reduction at the target noise frequency, and should consider parallel placement of multiple units or switching to lower-inductance form factors for improved performance.

Is the K153Z10Y5VF5UL2 suitable for filtering mains-frequency (50/60 Hz) AC signals, and what precautions apply?: The K153Z10Y5VF5UL2 can be used for mains-frequency AC filtering if the RMS voltage and peak voltage remain within safe limits and the application does not subject the capacitor to sustained DC bias. For a 50/60 Hz AC signal, the K153Z10Y5VF5UL2's 50V rating provides adequate headroom for typical line voltage after transformer reduction; however, the designer must verify that peak instantaneous voltage (peak = 1.414 × RMS) does not approach the 50V limit, and must account for any DC offset or transient overvoltage. The Y5V dielectric exhibits significant capacitance variation with temperature and applied voltage, which can affect filter response across the -30°C to 85°C operating range. For AC mains filtering at industrial frequencies, the K153Z10Y5VF5UL2 should include series damping resistance or should be paired with a snubber circuit to control inrush current during power-on. Additionally, the K153Z10Y5VF5UL2 is not rated for direct across-mains connection without isolation and transient protection; it is intended for secondary (post-transformer) filtering stages. In applications requiring high reliability and longevity at mains frequencies, X7R or C0G capacitors with higher voltage ratings are preferred over the K153Z10Y5VF5UL2.

How do moisture and humidity affect the K153Z10Y5VF5UL2, and does it require special handling or storage?: The K153Z10Y5VF5UL2 is marked as "Moisture Sensitivity Level (MSL): Not Applicable," which indicates that the radial ceramic construction and epoxy-resin coating provide inherent moisture resistance and do not require the strict moisture-controlled storage or baking procedures mandated for surface-mount components. However, the K153Z10Y5VF5UL2 is not immune to moisture; prolonged exposure to high humidity (>85% RH) or direct immersion in water can degrade the epoxy coating, allow moisture ingress into the ceramic body, and increase leakage current and ESR. The radial leads provide mechanical robustness and are less susceptible to cracking than fine-pitch surface-mount leads, reducing moisture-induced failure risk. For standard industrial and consumer applications, the K153Z10Y5VF5UL2 requires only normal handling—storage at room temperature in a dry environment with humidity below 70% RH. In harsh environments (marine, high-humidity tropical), the K153Z10Y5VF5UL2 should be potted or conformal-coated to prevent moisture accumulation, and periodic in-service testing of leakage current is advisable. The RoHS3 compliance of the K153Z10Y5VF5UL2 does not imply superior moisture resistance; it only certifies lead-free and restricted-substance compliance.

What is the leakage current specification of the K153Z10Y5VF5UL2, and how does it affect bias-current-sensitive circuits?: Vishay's published datasheet for the K153Z10Y5VF5UL2 does not provide explicit leakage current values. Ceramic capacitors of similar construction typically exhibit leakage currents in the range of 1–100 µA at rated voltage and 25°C, with values rising exponentially at elevated temperatures and higher voltage stress. The K153Z10Y5VF5UL2's Y5V dielectric and 50V rating suggest a leakage current in the upper part of this range (likely 10–50 µA at full voltage and 25°C), increasing to 100+ µA at 85°C due to thermally activated conduction mechanisms in the ceramic. For low-bias-current circuits such as precision photodiode amplifiers, charge-storage sampling circuits, or high-impedance analog signal conditioning, the K153Z10Y5VF5UL2 is unsuitable as a primary energy-storage or coupling element; C0G or X7R capacitors with explicit low-leakage ratings (typically 1–10 µA) should be selected instead. If the K153Z10Y5VF5UL2 must be used in a bias-sensitive application, it should be placed far from the high-impedance node or bypassed with a low-leakage alternative to minimize signal degradation. Designers should request detailed leakage current data from Vishay for their specific application voltage and temperature to make accurate system-level decisions.

How does the lead spacing of the K153Z10Y5VF5UL2 affect PCB layout and component density in through-hole designs?: The K153Z10Y5VF5UL2's lead spacing of 0.098" (2.50mm) is a standard pitch for through-hole ceramic capacitors and matches IEC 60384-1 conventions for radial components in this capacitance range. On PCBs with 0.100" (2.54mm) grid spacing (the most common through-hole grid), the K153Z10Y5VF5UL2's leads fit directly into adjacent holes with minimal routing clearance. The footprint dimensions (3.60mm length × 2.30mm width) result in a compact radial package suitable for legacy or conservative printed circuit board designs where through-hole technology is mandated for reliability or repairability. However, the 0.142" L dimension means that multiple K153Z10Y5VF5UL2 units placed in close proximity can create routing congestion on the component side or solder side, particularly in double-sided PCB designs. For new designs with multiple parallel K153Z10Y5VF5UL2 capacitors required for noise filtering, surface-mount alternatives (0402, 0603 packages) offer superior component density and reduce PCB footprint by 80% or more. If through-hole technology is required (due to legacy tooling or environmental specifications), the K153Z10Y5VF5UL2's standard pitch allows straightforward integration into conventional PCB layouts without special accommodation. Designers should verify that the PCB's through-hole pad size and annular ring meet IPC-A-600 Class 2 or Class 3 standards to ensure reliable solder joint formation.

What is the dielectric absorption (DA) of the K153Z10Y5VF5UL2, and can it cause charge-leakage errors in precision circuits?: Ceramic capacitors with Y5V dielectrics, including the K153Z10Y5VF5UL2, exhibit high dielectric absorption (DA) due to the polarization behavior of the high-permittivity ceramic material. Typical DA values for Y5V capacitors range from 2–5%, meaning that after discharge, the K153Z10Y5VF5UL2 will recover 2–5% of its stored charge after a recovery period of minutes to hours. While this DA level is acceptable for bypass and general-purpose coupling, it introduces measurable error in precision charge-storage circuits such as integrators, sample-and-hold circuits, or coulomb-counter applications. In sample-and-hold stages, the K153Z10Y5VF5UL2's DA can cause voltage drift of 10–50 mV per minute after switching, degrading signal fidelity. For such precision applications, low-DA alternatives such as polypropylene film capacitors or C0G/NP0 ceramic capacitors (with DA typically <0.1%) should replace the K153Z10Y5VF5UL2. If the K153Z10Y5VF5UL2 must be retained for space or cost reasons, the circuit should include active buffering (operational amplifier) to isolate the K153Z10Y5VF5UL2 from the precision node, or longer settling and refresh times should be allowed to permit DA charge recovery.

How does the K153Z10Y5VF5UL2 compare to the K153M10X7RF5UL2 substitute in terms of voltage rating and frequency response?: The K153M10X7RF5UL2 is listed as a substitute for the K153Z10Y5VF5UL2; however, the two parts differ significantly in voltage rating and likely in temperature characteristics. The K153Z10Y5VF5UL2 is explicitly rated for 50V, while the K153M10X7RF5UL2's "M" designator and "X7R" suffix (inferred from the part numbering convention) suggest a higher voltage rating (typically 100V or 250V) and an X7R temperature coefficient offering superior temperature stability compared to the Y5V of the K153Z10Y5VF5UL2. At frequencies above 1 MHz, the K153M10X7RF5UL2's X7R dielectric typically exhibits lower dielectric loss and better impedance control than the K153Z10Y5VF5UL2's Y5V, making it more suitable for high-frequency bypass and filtering. However, the K153M10X7RF5UL2 is likely larger in physical dimensions to accommodate higher voltage rating, potentially creating PCB layout conflicts in space-constrained designs. For applications requiring robust performance across temperature and frequency, the K153M10X7RF5UL2 is preferable; however, the K153Z10Y5VF5UL2 remains the correct choice for cost-sensitive, general-purpose applications where temperature drift and voltage margin are not critical constraints. Designers should verify datasheet specifications and impedance curves for both parts before committing to a substitution.

Is the K153Z10Y5VF5UL2 appropriate for signal coupling in audio-frequency circuits, and what impedance loading effects should be considered?: The K153Z10Y5VF5UL2 can function as a DC-blocking (AC coupling) capacitor in audio circuits, provided the downstream impedance and frequency range are evaluated carefully. At audio frequencies (20 Hz to 20 kHz), the K153Z10Y5VF5UL2's 0.015 µF nominal capacitance forms an RC high-pass filter with the load impedance. For a 10 kΩ load, the -3 dB cutoff frequency is approximately 1.06 kHz; for a 100 kΩ load, it is approximately 106 Hz. These values represent the nominal case; accounting for the K153Z10Y5VF5UL2's -20%, +80% tolerance, the actual cutoff frequency can range from ~850 Hz to ~1.9 kHz (10 kΩ load) or ~85 Hz to ~190 Hz (100 kΩ load), introducing uncontrolled bass roll-off variation across production batches. Additionally, the Y5V temperature coefficient means the capacitance—and hence the cutoff frequency—drifts with ambient temperature by ±15% or more across the -30°C to 85°C range, potentially causing perceived frequency response changes in temperature-variable environments. For professional or consumer audio applications requiring consistent frequency response, a higher-tolerance (±5% or better) or temperature-stable (C0G) alternative is strongly preferred. The K153Z10Y5VF5UL2 may be acceptable in low-cost, non-critical audio designs where frequency response variation is tolerated.

Parts with Similar Specifications

The three parts on the right have similar specifications to Vishay Beyschlag/Draloric/BC Components K153Z10Y5VF5UL2

Product Attribute
Part Number	K153Z10Y5VF5TL2	K153Z15Y5VF5UL2	K153Z10Y5VF53L2	K153Z15Y5VF53L2
Manufacturer	Vishay Beyschlag/Draloric/BC Components	Vishay Beyschlag/Draloric/BC Components	Vishay Beyschlag/Draloric/BC Components	Vishay Beyschlag/Draloric/BC Components
Applications	-	-	-	-
Voltage - Rated	-	-	-	-
Thickness (Max)	-	-	-	-
Features	-	-	-	Simultaneous Sampling
Lead Style	-	-	-	-
Temperature Coefficient	-	-	-	-
Size / Dimension	-	-	-	-
Series	-	-	-	-
Tolerance	-	-	-	-
Mounting Type	-	Surface Mount	Through Hole	Surface Mount
Failure Rate	-	-	-	-
Operating Temperature	-	-40°C ~ 85°C	0°C ~ 70°C	-40°C ~ 85°C
Lead Spacing	-	-	-	-
Height - Seated (Max)	-	-	-	-
Package / Case	-	196-LFBGA	16-DIP (0.300', 7.62mm)	64-VFQFN Exposed Pad
Package	-	Tape & Reel (TR)	Tube	Tape & Reel (TR)
Capacitance	-	-	-	-
Ratings	-	-	-	-

K153Z10Y5VF5UL2 Datasheet PDF

Download K153Z10Y5VF5UL2 pdf datasheets and Vishay Beyschlag/Draloric/BC Components documentation for K153Z10Y5VF5UL2 - Vishay Beyschlag/Draloric/BC Components.

Datasheets: K10 Series Mono-Kap® Prod Sheet.pdf K Series Datasheet.pdf
PCN Obsolescence/ EOL: Mult Series 17/Mar/2023.pdf
HTML Datasheet: K Series Datasheet.pdf

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