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Home Products Resistors Chip Resistor - Surface Mount~~9T06031A8252CBHFT~~

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9T06031A8252CBHFT - YAGEO

Manufacturer Part Number: 9T06031A8252CBHFT

Manufacturer: Yageo

Allelco Part Number: 98D-9T06031A8252CBHFT

Warranty: 1 Year Allelco Warranty - Find out more

Stock Status:: 537,513 pcs available, New & Original

Parts Description: RES SMD 82.5K OHM 1/10W 0603

Package: 0603

Data sheet: 9T06031A8252CBH.pdf

Datasheets
Product Selection Guide.pdf

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Specifications

9T06031A8252CBHFT Tech Specifications
YAGEO - 9T06031A8252CBHFT technical specifications, attributes, parameters and parts with similar specifications to YAGEO - 9T06031A8252CBHFT

Product Attribute	Attribute Value
Manufacturer	Yageo
Tolerance	±0.25%
Temperature Coefficient	±100ppm/°C
Supplier Device Package	0603
Size / Dimension	0.063" L x 0.031" W (1.60mm x 0.80mm)
Series	RT
Resistance	82.5 kOhms
Power (Watts)	0.1W, 1/10W

Product Attribute	Attribute Value
Package / Case	0603 (1608 Metric)
Package	Tape & Reel (TR)
Operating Temperature	-55°C ~ 155°C
Number of Terminations	2
Height - Seated (Max)	0.022" (0.55mm)
Features	-
Failure Rate	-
Composition	Thin Film

Environmental & Export Classifications

ATTRIBUTE	DESCRIPTION
RoHs Status	RoHS non-compliant
Moisture Sensitivity Level (MSL)	1 (Unlimited)
REACH Status	REACH Unaffected
ECCN	EAR99
HTSUS	8533.21.0030

Frequently Asked Questions(FAQ)

What makes the 9T06031A8252CBHFT thin film resistor suitable for precision analog circuits compared to carbon film alternatives?: The 9T06031A8252CBHFT achieves ±0.25% tolerance through thin film construction, which deposits a resistive material layer on a ceramic substrate with photolithographic trimming for accuracy. This contrasts with carbon film resistors (typically ±5% or ±1%) where tolerance depends on film thickness uniformity alone. For the 82.5 kOhm value in the 9T06031A8252CBHFT, the ±0.25% tolerance yields a resistance range of 82.29–82.71 kOhms, enabling tighter control in transimpedance amplifier feedback networks, precision current sources, and sensor conditioning circuits where ±1% tolerance would introduce unacceptable gain or offset drift. The thin film process also delivers superior frequency response and lower noise characteristics, making the 9T06031A8252CBHFT preferable in audio signal chains and instrumentation requiring sub-percent accuracy.

How does the ±100 ppm/°C temperature coefficient of the 9T06031A8252CBHFT affect long-term circuit stability in industrial environments?: The 9T06031A8252CBHFT exhibits a temperature coefficient of ±100 ppm/°C, meaning the 82.5 kOhm resistance changes approximately ±8.25 Ohms per degree Celsius across its -55°C to 155°C operating range. Over a 100°C temperature swing, cumulative drift reaches approximately ±0.1%, or ±82.5 Ohms. In circuits with gain-setting resistor networks—such as precision transimpedance amplifiers or logarithmic converters—this 0.1% drift per 100°C is often acceptable when combined with the 9T06031A8252CBHFT's inherent ±0.25% manufacturing tolerance, provided the application does not demand ppm-level stability. However, for temperature-sensitive measurements spanning 50°C or greater, designers should consider the 9T06031A8252CBHFT's drift budget alongside op-amp offset drift and capacitor aging. In automotive and industrial IoT applications, the 9T06031A8252CBHFT's performance across its full -55°C to 155°C range is verified, but ratiometric designs (where two 9T06031A8252CBHFT resistors scale together) mitigate first-order temperature effects.

Can the 9T06031A8252CBHFT be directly substituted for carbon film resistors in existing 0603 board designs?: Physical substitution of the 9T06031A8252CBHFT into 0603 footprints is mechanically straightforward—both the 9T06031A8252CBHFT and carbon film 0603 resistors occupy the same 1.60mm × 0.80mm footprint and use identical pad pitch. However, functional compatibility depends on circuit requirements. Where the application previously tolerated ±5% or ±1% tolerance, upgrading to the 9T06031A8252CBHFT's ±0.25% tolerance and ±100 ppm/°C temperature coefficient will improve performance but provides no circuit protection if the original design was unstable. Conversely, if the design requires the 9T06031A8252CBHFT's precision (such as precision current mirrors or ratiometric dividers), substituting with lower-tolerance carbon film resistors will degrade circuit accuracy. Signal integrity and frequency behavior differ—the 9T06031A8252CBHFT exhibits lower parasitic inductance and capacitance than some carbon film equivalents, potentially affecting transient response in switching supplies or high-speed filters. Thermal management is equivalent (both rated 0.1W in 0603), but the 9T06031A8252CBHFT's lower noise profile makes it superior for low-level analog front ends.

What is the practical power dissipation limit for the 9T06031A8252CBHFT in a 0603 surface-mount layout?: The 9T06031A8252CBHFT is rated 0.1W (1/10W) under standard laboratory conditions (typically 25°C ambient, natural convection). In actual PCB layouts, sustainable power depends on board thermal management, copper pour area, solder pad design, and ambient temperature. For conservative design, assume 50–70% of rated power in typical consumer electronics (forced air or passive cooling, 25–50°C ambient), allowing the 9T06031A8252CBHFT to safely dissipate 50–70 mW continuously. At 82.5 kOhms, dissipating 50 mW corresponds to √(0.05 × 82,500) ≈ 64 V across the 9T06031A8252CBHFT, a common signal conditioning voltage. In high-density industrial layouts with minimal thermal relief (dense component placement, no PCB copper pour), thermal coupling between adjacent 9T06031A8252CBHFT resistors and heat sources (power transistors, ferrite inductors) can elevate localized temperature by 20–40°C above ambient, reducing safe dissipation to 30–40 mW. PCB designers should verify power via SPICE simulation or thermal FEA, particularly when the 9T06031A8252CBHFT operates near voltage dividers in power management circuits or precision current sources, where voltage stress and dissipation are simultaneous.

Why is the 9T06031A8252CBHFT marked RoHS non-compliant, and what are the implications for procurement?: The 9T06031A8252CBHFT carries the RoHS non-compliant designation because its manufacturing process or materials do not meet the Restriction of Hazardous Substances directive (EU 2011/65/EU). Specifically, thin film resistors of this generation may contain lead in solder terminations, adhesive layers, or barrier materials. For consumer products sold in the European Union, China, or under RoHS-mandated procurement policies (aerospace, medical, automotive), the 9T06031A8252CBHFT is unsuitable and substitutes such as the RT0603CRE0782K5L (RoHS-compliant variant noted in the datasheet) must be evaluated. However, many industrial, military, and legacy systems tolerate or explicitly require the 9T06031A8252CBHFT because compliance exemptions apply (military equipment, remanufactured components) or procurement is restricted to non-RoHS jurisdictions. The 9T06031A8252CBHFT remains electrically and thermally identical to RoHS-compliant alternatives in most cases, so design-level substitution risk is minimal; the constraint is regulatory and supply chain. Designers should confirm RoHS status early in product planning to avoid late-stage component changes.

How does the MSL 1 (Unlimited) moisture sensitivity rating affect handling and storage of the 9T06031A8252CBHFT?: The 9T06031A8252CBHFT carries Moisture Sensitivity Level 1 (MSL 1), the lowest moisture risk category. This means the 9T06031A8252CBHFT can be stored indefinitely in standard industrial conditions without desiccant packaging or moisture-barrier bags, and it requires no baking before reflow soldering. In contrast, high-MSL components (MSL 3–6) demand sealed desiccant storage, limited shelf life, and pre-reflow thermal processing to prevent delamination or popcorning during solder reflow. For the 9T06031A8252CBHFT, handling procedures are minimal: standard antistatic precautions (ESD wrist strap, grounded workbench) and room-temperature storage are sufficient. This simplicity reduces logistics costs and minimizes procedural errors for high-volume manufacturing. Thin film resistors like the 9T06031A8252CBHFT inherently exhibit low moisture absorption due to their ceramic-based construction and robust passivation, contrasting with organic polymeric components. If the 9T06031A8252CBHFT is stored in humid environments (>70% RH) for extended periods, no special action is necessary, though keeping inventory in controlled environments (30–60% RH) preserves component and packaging quality.

What measurement technique ensures accurate verification of the 82.5 kOhm ±0.25% specification on the 9T06031A8252CBHFT?: Verifying the 9T06031A8252CBHFT's 82.5 kOhm ±0.25% specification requires a resistance meter with resolution and accuracy better than 0.25%. A typical bench multimeter (±0.5% accuracy) cannot reliably distinguish conforming 9T06031A8252CBHFT units from out-of-spec parts; precision is insufficient. Recommended approaches: (1) Four-wire (Kelvin) resistance measurement using a precision LCR meter (0.05–0.1% accuracy) eliminates lead resistance and contact errors, providing <10 Ohm uncertainty for the 9T06031A8252CBHFT; (2) Automated incoming inspection via component handler with precision resistance measurement modules, typical in high-volume assembly; (3) Ratiometric verification—measure the 9T06031A8252CBHFT in series with a known reference resistor and compare the voltage divider output against a standard, eliminating absolute meter accuracy requirements. For the 9T06031A8252CBHFT, ±0.25% tolerance corresponds to ±206 Ohms (82.5k × 0.0025), so measurement uncertainty must be <100 Ohms to reliably detect non-conformance. Destructive testing during assembly (sampling 5–10 units per reel) is common in precision applications; functional circuit testing (gain measurement in feedback networks using the 9T06031A8252CBHFT) provides end-to-end verification.

In what signal conditioning applications does the 9T06031A8252CBHFT excel compared to lower-precision resistors?: The 9T06031A8252CBHFT is optimal for transimpedance amplifier (TIA) feedback networks in photodiode readout circuits, where the feedback resistor directly sets transimpedance gain (V/A). A 0.1% error in the 9T06031A8252CBHFT feedback resistor produces a 0.1% gain error, directly degrading signal accuracy. For precision current sources and sinks (Howland pump, Kerwin-Huelsman topology), the 9T06031A8252CBHFT's tight tolerance and low temperature coefficient ensure output current stability across temperature. In analog-to-digital converter (ADC) reference networks, the 9T06031A8252CBHFT is used in precision voltage dividers and excitation networks for ratiometric measurement systems. In precision instrumentation (pH meters, thermistor linearization, strain gauge bridges), the 9T06031A8252CBHFT enables 0.1–0.5% overall system accuracy when combined with precision op-amps and digitization. Data acquisition front ends benefit from the 9T06031A8252CBHFT's low noise (thin film reduces thermal noise compared to carbon film), critical in 16-bit and 24-bit measurement chains. For applications tolerating ±1% or ±5% accuracy (consumer audio, standard switching supplies, logic-level signal routing), the 9T06031A8252CBHFT is over-specified and represents unnecessary cost.

How should the 9T06031A8252CBHFT be de-rated when operating near its maximum temperature of 155°C?: The 9T06031A8252CBHFT's 0.1W power rating applies at 25°C. As temperature increases, thin film resistors experience reduced power dissipation capacity due to decreased thermal conductivity in the ceramic substrate and reduced convective heat transfer effectiveness. Industry standard de-rating for 0603 resistors typically follows a linear model: power capacity decreases ~0.5% per °C above 70°C. For the 9T06031A8252CBHFT operating at 155°C (85°C above 70°C base), power capacity derates approximately 85 × 0.5% ≈ 42.5%, reducing sustainable power from 0.1W to ~57.5 mW. This is a conservative estimate; actual de-rating curves from the 9T06031A8252CBHFT datasheet should be consulted. At 82.5 kOhms and 57.5 mW dissipation, maximum allowable voltage is √(0.0575 × 82,500) ≈ 69 V. High-temperature automotive and industrial applications must verify that the 9T06031A8252CBHFT operates below these de-rated limits; thermal modeling of the PCB and localized component temperatures is essential. Passive cooling via copper pour helps maintain the 9T06031A8252CBHFT within de-rated bounds; active cooling (fan airflow) may be necessary in compact high-density layouts.

What are the frequency and EMI performance characteristics of the 9T06031A8252CBHFT in high-speed switching applications?: The 9T06031A8252CBHFT exhibits negligible parasitic inductance (~0.5–1 nH typical for 0603 thin film resistors) and distributed capacitance (~0.1–0.3 pF), making it suitable for frequencies up to several hundred megahertz in passive filtering and impedance networks. In switching power supplies (buck, boost, flyback), the 9T06031A8252CBHFT is commonly used in voltage dividers, current sensing networks, and feedback compensation circuits operating at 100 kHz to 1 MHz; parasitic effects are negligible at these frequencies. However, in high-speed analog circuits (op-amp bandwidth >100 MHz) or high-frequency switching (>10 MHz), the 9T06031A8252CBHFT's tiny parasitic inductance can introduce subtle phase shifts and frequency response peaking in feedback networks. For EMI mitigation, the 9T06031A8252CBHFT's thin film construction provides lower inherent noise (approximately 1–2 nV/√Hz at 1 kHz) compared to carbon film resistors (~5–10 nV/√Hz), reducing noise injection into precision analog front ends. In conducted EMI paths, the 9T06031A8252CBHFT acts as a resistive element with minimal reactive contribution, making it suitable for RC snubbers and transient suppression networks at switching frequencies up to 10 MHz.

What design trade-offs arise when selecting the 9T06031A8252CBHFT for precision ratiometric voltage dividers?: In ratiometric dividers using two or more 9T06031A8252CBHFT resistors, manufacturing tolerance mismatch determines divider accuracy. If two nominally equal 9T06031A8252CBHFT resistors are selected from the same manufacturing lot, their individual ±0.25% tolerances can stack, producing divider errors up to ±0.5% (worst-case) if one resistor is +0.25% and the other is −0.25%. However, in ratiometric configurations, temperature coefficient matching is more critical than absolute tolerance because both the 9T06031A8252CBHFT resistors experience identical temperature changes, and their ±100 ppm/°C specifications track, canceling first-order temperature drift. The practical trade-off is procurement cost: specifying matched pairs of 9T06031A8252CBHFT resistors from a single wafer or tape reduces divider error to ~0.1–0.15% but increases component cost and lead time. Alternatively, designers can accept ±0.25–0.5% divider tolerance and apply digital trimming or firmware calibration, trading precision resistor cost for firmware complexity. In 16-bit ADC applications where the 9T06031A8252CBHFT sets reference voltage dividers, ±0.1% accuracy is often necessary; in 12-bit applications, standard 9T06031A8252CBHFT tolerance suffices.

How does substrate material and construction of the 9T06031A8252CBHFT influence its long-term reliability in vibration-prone environments?: The 9T06031A8252CBHFT employs a ceramic substrate with thin film resistive coating, bonded to metal terminations via glass frit adhesion—a robust construction that withstands mechanical stress significantly better than carbon film resistors. In vibration-prone environments (automotive, industrial machinery, aerospace), the 9T06031A8252CBHFT's ceramic monolithic structure resists cracking and delamination that can occur in layered carbon film designs. The glass frit bond between the 9T06031A8252CBHFT's resistive layer and substrate exhibits very low creep, ensuring resistance stability under sustained vibration loads of 5–20 G RMS at frequencies up to 2 kHz (typical for heavy machinery). Solder joint reliability of the 9T06031A8252CBHFT is also superior due to its low CTE mismatch with FR-4 PCB materials, reducing thermal cycling stress. Thin film construction minimizes the risk of internal microfractures that lead to intermittent open circuits—a failure mode common in aged carbon film resistors. For mission-critical applications (medical implants, aviation systems), the 9T06031A8252CBHFT's demonstrated long-term stability (>50 years in controlled studies for thin film resistors) and low failure rate make it preferable despite higher cost.

What is the expected SPICE model representation for the 9T06031A8252CBHFT in circuit simulation, and how accurate is it for transient analysis?: The 9T06031A8252CBHFT is typically modeled in SPICE as a simple resistor with series parasitic inductance (~0.8 nH) and parallel capacitance (~0.15 pF) accounting for lead and substrate effects. A first-order equivalent circuit represents the 9T06031A8252CBHFT as R = 82.5 kOhm in series with L ≈ 0.8 nH, with the substrate-to-ground node contributing C ≈ 0.15 pF. For DC and low-frequency AC analysis (<1 MHz), the 9T06031A8252CBHFT can be modeled as an ideal 82.5 kOhm resistor; parasitic effects are negligible. For transient analysis of switching circuits (e.g., feedback networks in buck converters switching at 500 kHz), parasitic inductance causes approximately 5–15 ps delay and minimal overshoot. However, in high-speed transimpedance amplifier simulations (bandwidth >10 MHz, rise times <100 ns), the 9T06031A8252CBHFT's parasitic inductance and capacitance introduce subtle frequency response peaks requiring detailed component modeling for accurate prediction of ringing or stability margins. Most commercial SPICE libraries do not include 9T06031A8252CBHFT-specific models; designers typically use generic 0603 thin film resistor models or conservative parasitic estimates. For high-precision transient simulations, experimental characterization of the 9T06031A8252CBHFT (measuring step response on an oscilloscope) provides ground truth.

In what ways do the electrical and thermal characteristics of the 9T06031A8252CBHFT optimize power consumption and reliability in IoT edge sensors?: IoT edge sensors demand ultra-low power consumption, long battery life, and thermal stability across wide ambient temperature ranges (−20°C to 60°C typical). The 9T06031A8252CBHFT contributes to these objectives through three mechanisms: (1) Precision current path control—the 9T06031A8252CBHFT's ±0.25% tolerance enables precise current limiting in sensor analog front ends, reducing power waste from voltage divider bleed currents. A 9T06031A8252CBHFT feedback resistor in a transimpedance amplifier can be precisely tuned to minimize excitation current while maintaining signal fidelity, critical for power-constrained IoT applications; (2) Temperature coefficient matching—paired 9T06031A8252CBHFT resistors in sensor signal conditioning exhibit matched ±100 ppm/°C drift, canceling temperature-induced errors across the 0–50°C operating range typical for battery-powered sensors, eliminating the need for active temperature compensation circuits; (3) Low thermal mass and fast thermal equilibration—the 9T06031A8252CBHFT's small 0603 size and high surface area-to-mass ratio ensure rapid thermal response to ambient changes, enabling fast sensor settling time without thermal time constants that delay measurements. Thin film construction also minimizes 1/f noise (flicker noise), allowing lower-power op-amps with higher noise specifications to achieve adequate SNR when paired with the 9T06031A8252CBHFT.

Parts with Similar Specifications

The three parts on the right have similar specifications to YAGEO 9T06031A8252CBHFT

Product Attribute
Part Number	9T06031A8252DBHFT	9T06031A8252BBHFT	9T06031A8252CAHFT	9T06031A8252BAHFT
Manufacturer	YAGEO	YAGEO	YAGEO	YAGEO
Package	-	Tape & Reel (TR)	Tube	Tape & Reel (TR)
Composition	-	-	-	-
Package / Case	-	196-LFBGA	16-DIP (0.300', 7.62mm)	64-VFQFN Exposed Pad
Resistance	-	-	-	-
Number of Terminations	-	-	-	-
Temperature Coefficient	-	-	-	-
Operating Temperature	-	-40°C ~ 85°C	0°C ~ 70°C	-40°C ~ 85°C
Series	-	-	-	-
Height - Seated (Max)	-	-	-	-
Features	-	-	-	Simultaneous Sampling
Failure Rate	-	-	-	-
Power (Watts)	-	-	-	-
Size / Dimension	-	-	-	-
Tolerance	-	-	-	-
Supplier Device Package	-	196-NFBGA (12x12)	16-PDIP	64-VQFN (9x9)

9T06031A8252CBHFT Datasheet PDF

Download 9T06031A8252CBHFT pdf datasheets and YAGEO documentation for 9T06031A8252CBHFT - YAGEO.

Datasheets: Product Selection Guide.pdf

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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.
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