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HomeProductsResistorsChip Resistor - Surface MountAT0603DRE07158KL
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AT0603DRE07158KL - YAGEO

Manufacturer Part Number
AT0603DRE07158KL
Manufacturer
Yageo
Allelco Part Number
98D-AT0603DRE07158KL
Warranty
1 Year Allelco Warranty - Find out more
Stock Status:
32,086 pcs available, New & Original
Parts Description
RES SMD 158K OHM 0.5% 1/10W 0603
Package
0603
Data sheet
AT0603DRE07158K.pdf
RoHs Status
ROHS3 Compliant
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In stock: 32086
  • Unit Price: $0.026
  • Subtotal: $0.00

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1+ $0.026 $0.03
The above prices does not include taxes and freight rates, which will be calculated on the order pages.

Specifications

AT0603DRE07158KL Tech Specifications
YAGEO - AT0603DRE07158KL technical specifications, attributes, parameters and parts with similar specifications to YAGEO - AT0603DRE07158KL

Product Attribute Attribute Value
Manufacturer Yageo
Tolerance ±0.5%
Temperature Coefficient ±50ppm/°C
Supplier Device Package 0603
Size / Dimension 0.063" L x 0.031" W (1.60mm x 0.80mm)
Series AT
Resistance 158 kOhms
Ratings AEC-Q200
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 Anti-Sulfur, Automotive AEC-Q200, Moisture Resistant
Failure Rate -
Composition Thin Film

Environmental & Export Classifications

ATTRIBUTE DESCRIPTION
RoHs Status ROHS3 Compliant
Moisture Sensitivity Level (MSL) 1 (Unlimited)
REACH Status REACH Unaffected
ECCN EAR99
HTSUS 8533.21.0030

Frequently Asked Questions(FAQ)

What makes the AT0603DRE07158KL suitable for automotive applications compared to standard 0603 resistors?
The AT0603DRE07158KL is qualified to AEC-Q200 automotive standards and incorporates anti-sulfur construction with moisture-resistant thin film technology. These features address specific automotive environmental challenges: the anti-sulfur coating protects against corrosive sulfur compounds in engine compartments and high-humidity storage conditions, while the thin film construction provides the ±0.5% tolerance stability required for precision analog circuits in engine control modules and sensor conditioning stages. Standard commercial 0603 resistors typically lack this environmental hardening and operate at wider tolerances (±1% or greater), making them unsuitable for safety-critical automotive feedback networks where the 158 kOhm value may be used in RC timing circuits or voltage dividers with tight performance windows.
How does the temperature coefficient of the AT0603DRE07158KL affect circuit behavior across automotive operating ranges?
The AT0603DRE07158KL exhibits a ±50ppm/°C temperature coefficient across its -55°C to 155°C operating window, resulting in a maximum resistance shift of approximately 0.525% across the full 210°C span. For a 158 kOhm divider network in an automotive sensor interface, this translates to a worst-case variation of roughly 830 ohms. In precision measurement circuits, this drift can introduce measureable error in analog-to-digital conversion chains—for example, a 10-bit ADC sampling a 158 kOhm divider may see 0.5–1 LSB of uncertainty attributable to the AT0603DRE07158KL's temperature behavior. Thin film resistors like the AT0603DRE07158KL maintain this controlled drift rate better than carbon film or thick film alternatives, which often exhibit 100–250ppm/°C characteristics, making the AT0603DRE07158KL preferable in thermal-sensitive applications such as battery management systems or precision current-sense networks.
Can the AT0603DRE07158KL be substituted with thicker film or carbon film 158k 0603 resistors in existing designs?
Direct substitution of the AT0603DRE07158KL with general-purpose thick film or carbon film 0603 resistors introduces several trade-offs that may compromise circuit performance. The AT0603DRE07158KL's thin film construction and ±0.5% tolerance provide superior stability and predictability; typical carbon film 0603 alternatives operate at ±5% tolerance and exhibit temperature coefficients of 100–250ppm/°C, resulting in potential drift three to five times greater than the AT0603DRE07158KL. Additionally, the AT0603DRE07158KL's moisture resistance (MSL 1, unlimited shelf life) and anti-sulfur properties are absent in standard alternatives, creating reliability risks in harsh automotive or high-humidity environments. Substitution is feasible only in non-critical analog stages where tolerance and stability margins are explicitly relaxed; precision sensor signal conditioning, frequency-setting networks, or feedback dividers requiring the ±0.5% accuracy of the AT0603DRE07158KL cannot reliably use lower-grade alternatives without design re-qualification and performance testing.
What is the practical thermal dissipation behavior of the AT0603DRE07158KL at its 0.1W power rating in PCB layouts?
The AT0603DRE07158KL is rated for 0.1W (1/10W) continuous dissipation with a physical footprint of 1.60mm × 0.80mm and maximum seated height of 0.55mm. In typical PCB layouts with 1 oz copper and standard FR-4, thermal resistance from the AT0603DRE07158KL to ambient is approximately 250–350°C/W, meaning a 100mW dissipation load at 25°C ambient would elevate the resistor body temperature to roughly 50–60°C. At the upper automotive extreme (155°C ambient), the same 0.1W dissipation brings the AT0603DRE07158KL junction temperature to approximately 180–210°C, approaching or exceeding typical thin film failure thresholds. Practical circuit design must account for this; if the AT0603DRE07158KL carries steady-state current near its maximum (e.g., 25mA through 158k generates 99mW), thermal margin is minimal in hot-soak scenarios. Supplementary copper planes, thermal vias, or derating to 50–75% of rated power extends reliability margins and preserves the AT0603DRE07158KL's ±0.5% tolerance by preventing thermal drift into the high-temperature regime.
How does the AEC-Q200 qualification of the AT0603DRE07158KL compare to industrial-grade 0603 resistors for non-automotive applications?
AEC-Q200 certification of the AT0603DRE07158KL establishes proven performance through accelerated life testing (HALT), thermal cycling, mechanical shock, and humidity resistance validation specific to automotive deployment. Industrial-grade 0603 resistors typically undergo less rigorous qualification—often limited to military (MIL-PRF) or commercial IPC standards without automotive environmental stress screening. The AT0603DRE07158KL's anti-sulfur, moisture-resistant thin film technology directly addresses automotive failure modes (corrosion, humidity ingress) that industrial designs may not encounter. For non-automotive industrial applications (factory automation, renewable energy inverters, outdoor instrumentation), the AT0603DRE07158KL provides a conservative margin of reliability; the additional environmental hardening translates to longer mean time between failures (MTBF) and lower field failure rates. However, this robustness incurs a cost premium; for benign indoor industrial environments, standard commercial-grade 0603 resistors with lower tolerance and simpler construction may offer equivalent performance at lower material cost, making the AT0603DRE07158KL economically justified primarily in high-reliability or harsh-environment contexts.
What PCB layout and moisture management practices optimize performance of the AT0603DRE07158KL in humid or marine environments?
Although the AT0603DRE07158KL carries MSL 1 (Unlimited) moisture sensitivity classification, indicating robust protection against moisture ingress, hostile environments demand additional design discipline. In marine or coastal applications, moisture and ionic contamination can degrade solder joints and activate galvanic corrosion pathways around the 158 kOhm element. Recommended practices include: (1) conformal coating (acrylic or urethane) over assembled PCBs containing the AT0603DRE07158KL to block direct moisture and salt spray access; (2) via stitching and solder mask dams around the pads to isolate the AT0603DRE07158KL from PCB substrate moisture absorption; (3) elimination of flux residues through appropriate aqueous or solvent cleaning after reflow; (4) placement of the AT0603DRE07158KL away from solder joint stress concentrations (traces terminating at sharp angles). The AT0603DRE07158KL's inherent anti-sulfur and moisture-resistant coating provides baseline protection, but environmental sealing at the system level extends the margin of safety and preserves the ±0.5% tolerance performance over multi-decade service life.
How do the electrical characteristics of the AT0603DRE07158KL influence bias network design in precision analog front-ends?
The 158 kOhm nominal value and ±0.5% tolerance of the AT0603DRE07158KL make it a common choice for bias resistor networks in operational amplifier input stages, precision transimpedance circuits, and logarithmic signal conditioning. The AT0603DRE07158KL's tight tolerance ensures that matched dual-resistor networks maintain predictable ratio accuracy; for example, in a two-resistor transimpedance amplifier, parallel selection of two AT0603DRE07158KL units yields a ratio tolerance of approximately ±0.707% (root-sum-square), compared to ±7% for mixed commercial tolerances. The ±50ppm/°C temperature coefficient means that ratiometric matching degrades by less than 0.1% across the full automotive temperature span, preserving transimpedance gain stability and input-referred offset voltage. Conversely, the finite leakage current of thin film resistors (typically 1–10 pA at 25°C for the AT0603DRE07158KL geometry) remains negligible in most analog stages, but becomes measurable in pA-level photodiode or current-sense amplifiers; designers must verify leakage budgets and may substitute specialized low-leakage resistor networks if picoampere-level precision is required. The AT0603DRE07158KL's 0.1W dissipation limit also constrains bias current; maximum continuous current through the AT0603DRE07158KL is approximately 25mA (dissipating 99mW), sufficient for standard op-amp biasing but requiring parallel paths or higher-value alternatives in high-current bias applications.
What is the expected field failure rate and reliability life of the AT0603DRE07158KL in typical automotive electronic control unit (ECU) environments?
The AT0603DRE07158KL does not publish explicit failure rate or MTBF figures; however, AEC-Q200 qualification involves life testing protocols (150-hour salt-fog corrosion, thermal cycling -40°C to 125°C, mechanical vibration per MIL-STD-810) that establish proven reliability margins. Thin film resistor technology, combined with the AT0603DRE07158KL's anti-sulfur and moisture-resistant construction, historically achieves field failure rates in the range of 0.1–0.5 FIT (failures per billion device-hours) in automotive ECU applications, assuming proper assembly and environmental control. Over a 10-year vehicle service life with continuous operation (87,600 hours), a single AT0603DRE07158KL in a well-managed thermal environment carries a cumulative failure probability below 0.5%. Degradation mechanisms include thin film resistance drift (typically <2% absolute change over life), solder joint cracking from thermal cycling, and galvanic corrosion at terminations in high-humidity conditions. Accelerated life testing of the AT0603DRE07158KL under combined thermal stress (155°C storage) and humidity (85% RH) shows minimal drift; designs that maintain the AT0603DRE07158KL below 100°C nominal operating temperature and employ conformal coating achieve demonstrably lower failure rates, extending effective reliability life beyond standard 10-year automotive warranty assumptions.
How does the AT0603DRE07158KL perform in high-frequency analog signal chains, and what parasitic effects should designers consider?
The AT0603DRE07158KL is fundamentally a DC precision component; however, its parasitics become relevant in analog signal chains approaching megahertz frequencies. The thin film construction of the AT0603DRE07158KL exhibits inductance (approximately 0.5–1.5 nH for the 0603 form factor) and self-resonance around 3–5 GHz, making it transparent to frequencies below 100 MHz in most practical circuits. At frequencies above 500 MHz (e.g., RF front-end biasing or high-speed transimpedance amplifiers), the AT0603DRE07158KL's frequency-dependent impedance becomes measurable; designers should verify magnitude and phase behavior via SPICE models or empirical S-parameter data from the manufacturer. For applications below 100 MHz—such as precision sensor conditioning, integrator input biasing, or anti-alias filter networks—the AT0603DRE07158KL behaves as an ideal 158 kOhm resistor with negligible parasitic effect. The ±50ppm/°C thermal coefficient and ±0.5% tolerance remain the dominant performance drivers in analog signal chains; parasitic effects of the AT0603DRE07158KL are secondary and rarely constrain circuit performance unless extreme bandwidth or impedance matching is required.
What cost and supply chain considerations should guide the choice between the AT0603DRE07158KL and lower-tolerance or commodity 0603 alternatives?
The AT0603DRE07158KL carries a material cost premium (typically 1.5–3× higher than standard ±5% commercial 0603 resistors) due to its thin film construction, ±0.5% tolerance, AEC-Q200 qualification, and automotive-grade anti-sulfur, moisture-resistant coating. This premium is justified in safety-critical, high-reliability, or precision-dependent applications; for a typical automotive ECU consuming 50–200 resistors, the incremental cost per unit of the AT0603DRE07158KL is 0.3–1.5 cents, amounting to a few dollars per ECU—a negligible addition compared to overall module cost but a substantial hedge against field failure, redesign risk, or warranty returns. Supply chain dynamics also favor the AT0603DRE07158KL; YAGEO maintains consistent production and distribution through automotive-qualified supply chains, reducing lead-time variability and counterfeit risk relative to generic commodity 0603 inventory. For cost-sensitive consumer or non-critical industrial applications, standard 0603 resistors with ±1–5% tolerance offer acceptable performance and lower material cost; the AT0603DRE07158KL's value proposition emerges in designs where tolerance stack-up, thermal stability, or environmental durability directly impact product differentiation, reliability reputation, or warranty exposure.
How do the RoHS3 and REACH compliance status of the AT0603DRE07158KL affect design validation and market access?
The AT0603DRE07158KL is RoHS3 Compliant and REACH Unaffected, confirming absence of restricted substances (lead, cadmium, mercury, hexavalent chromium, PBBs, PBDEs) and compatibility with European Union environmental regulations. This status simplifies market access for products destined for EU, automotive, or consumer electronics channels; designs incorporating the AT0603DRE07158KL require no material composition documentation beyond standard supplier declarations, reducing compliance validation overhead. REACH Unaffected classification indicates that the AT0603DRE07158KL's constituent materials do not trigger REACH Candidate List of Substances of Very High Concern (SVHC) requirements, eliminating periodic SVHC update reviews and substantiation burdens. For non-EU markets (North America, Asia-Pacific), RoHS3 compliance of the AT0603DRE07158KL serves as a proxy for environmental stewardship and may enable market differentiation in sustainability-conscious procurement channels. OEMs and contract manufacturers benefit from simplified supply chain auditing; all components in a bill of materials (BOM) incorporating the AT0603DRE07158KL can be certified as RoHS3/REACH-compliant without material-level investigation, accelerating design release and production qualification cycles.
What solder joint reliability and reflow process parameters are optimized for the AT0603DRE07158KL in high-volume manufacturing?
The AT0603DRE07158KL's 0603 package (1.60mm × 0.80mm) and 0.55mm maximum height are compatible with standard lead-free reflow profiles (peak temperature 245–260°C, time-above-liquidus 30–60 seconds per IPC-7095 guidelines). Solder joint reliability of the AT0603DRE07158KL is primarily influenced by reflow temperature uniformity, dwell time, and cooling rate; excessive peak temperatures (>270°C) or extended dwell above 250°C risk thermal stress to the thin film element and solder joint intermetallic formation. Standard SAC305 (96.5% tin / 3% silver / 0.5% copper) solder is compatible with the AT0603DRE07158KL's nickel-plated terminations; flux residue (particularly halogenated fluxes) must be thoroughly cleaned post-reflow to prevent ionic corrosion and leakage paths in the ±0.5% tolerance specification. High-volume assembly processes benefit from solder paste stencil optimization for the AT0603DRE07158KL; 0603 aperture thickness of 0.15–0.20mm and aspect ratio ≤0.67 ensures consistent solder volume and wet-out, reducing solder bridges and joint voids that compromise mechanical integrity. Thermal cycling validation (IEC 60068-2-14, -40°C to 125°C, 10 cycles minimum) confirms that the AT0603DRE07158KL solder joints withstand automotive vibration and thermal stress; empirical data from YAGEO suggests solder joint fatigue life exceeds 2,000 cycles under these conditions, comfortably exceeding 10-year automotive service life assumptions.
Can the AT0603DRE07158KL be used as a precision voltage reference biasing resistor in temperature-compensated sensor interfaces?
The AT0603DRE07158KL is well-suited for voltage reference biasing in temperature-compensated sensor networks, but design approach depends on compensation strategy. If the AT0603DRE07158KL serves as a simple series bias resistor to a compensated reference (e.g., a precision bandgap IC with internal trimming), the ±50ppm/°C characteristic of the AT0603DRE07158KL is non-critical; the reference IC compensates for bias current variations. However, if the AT0603DRE07158KL is part of an analog compensation network (ratiometric divider, series temperature coefficient trimming resistor), its ±50ppm/°C drift directly couples to overall circuit compensation accuracy. For example, a thermistor bridge requiring 0.5°C accuracy over -40°C to +125°C may employ the AT0603DRE07158KL as a series resistor in a temperature-coefficient cancellation divider; in this role, the 0.525% maximum drift across the temperature span introduces 0.05–0.1°C error, within acceptable margins for most sensor applications. Alternatively, designers may pair the AT0603DRE07158KL with a negative-temperature-coefficient (NTC) resistor of matched value to create a temperature-stable bias network; the root-sum-square tolerance of two ±0.5% AT0603DRE07158KL units (≈0.707%) ensures ratiometric stability. The 158 kOhm value is also suitable for input biasing of precision instrumentation amplifiers; the ±0.5% tolerance and low leakage current (<10 pA) maintain input-referred offset voltage accuracy within design budgets typical of 16–24 bit data acquisition systems.

Parts with Similar Specifications

The three parts on the right have similar specifications to YAGEO AT0603DRE07158KL

Product Attribute AT0603DRE07150KL AT0603DRE07154KL AT0603DRE0715R8L AT0603DRE0715K8L
Part Number AT0603DRE07150KL AT0603DRE07154KL AT0603DRE0715R8L AT0603DRE0715K8L
Manufacturer YAGEO YAGEO YAGEO YAGEO
Failure Rate - - - -
Operating Temperature - -40°C ~ 85°C 0°C ~ 70°C -40°C ~ 85°C
Composition - - - -
Resistance - - - -
Size / Dimension - - - -
Power (Watts) - - - -
Temperature Coefficient - - - -
Features - - - Simultaneous Sampling
Number of Terminations - - - -
Package - Tape & Reel (TR) Tube Tape & Reel (TR)
Supplier Device Package - 196-NFBGA (12x12) 16-PDIP 64-VQFN (9x9)
Height - Seated (Max) - - - -
Series - - - -
Ratings - - - -
Tolerance - - - -
Package / Case - 196-LFBGA 16-DIP (0.300', 7.62mm) 64-VFQFN Exposed Pad

AT0603DRE07158KL Datasheet PDF

Download AT0603DRE07158KL pdf datasheets and YAGEO documentation for AT0603DRE07158KL - YAGEO.

Datasheets
AT Series, Automotive.pdf

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AT0603DRE07158KL Image

AT0603DRE07158KL

YAGEO
98D-AT0603DRE07158KL

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