https://community.element14.com/products/manufacturers/panasonic/Equipping, enabling, inspiring: About Panasonic Industry Europe A common purpose: as part of Panasonic Corporation’s global business, people at Panasonic Industry strive for continuous innovation and share the company’s mission and visionen-USTelligent Community 12https://community.element14.com/products/manufacturers/panasonic/b/blog/posts/graphite_2d00_tim_2d00_vs_2d00_thermal_2d00_grease_2d00_power_2d00_modulesTue, 14 Apr 2026 23:52:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:b6880fd3-970f-4fe3-9818-77d8e529c2d0riyo@panasonicIntroduction Thermal interface materials (TIMs) play a critical role in thermal management by reducing contact thermal resistance between heat-generating components and heatsinks. Among the various TIM options, thermal greases have been widely used for many years due to their low cost and ease of application. However, thermal greases also present well-known reliability and maintenance challenges—particularly in high-power applications. This article introduces a real-world problem-solving example in power conversion equipment, such as inverters, where replacing conventional thermal grease with graphite-based TIM (Graphite TIM) effectively addresses these issues. Thermal Management with Thermal Grease—and Its Limitations Power modules generate significant heat and are typically mounted to heatsinks to dissipate that heat efficiently. In practice, when a heatsink is attached directly to a power module, microscopic gaps inevitably form between the module base plate and the heatsink surface due to slight distortion or unevenness of the base plate. These gaps increase contact thermal resistance, preventing the heatsink from delivering its full cooling potential. To address this, thermal grease is commonly applied between the base plate and the heatsink as a TIM. The grease fills surface irregularities, improving thermal contact and reducing thermal resistance. [Figure 1 – Filling gaps between base plate and heatsink using thermal grease] Despite its widespread use, thermal grease has several inherent drawbacks. Key Issues with Thermal Grease 1. Thermal Resistance Variations Due to Voids Achieving consistent performance with thermal grease depends heavily on application amount and uniformity. Incomplete filling or uneven spreading can leave voids, leading to localized increases in contact thermal resistance and inconsistent heat dissipation. 2. Increased Thermal Resistance Due to Dryout Thermal grease is susceptible to the dryout phenomenon , where exposure to elevated temperatures causes volatile components to evaporate. Over time, oil and filler separate, the grease hardens, and cracks may form. As a result, contact thermal resistance increases. [Figure 2 – Dryout phenomenon illustration] 3. Increased Thermal Resistance Due to Pump-Out During long-term operation, repeated thermal expansion and contraction of the base plate can cause pump-out , in which thermal grease is gradually pushed out from the interface. As the grease layer thins, gaps reappear and thermal resistance rises. [Figure 3 – Pump-out phenomenon illustration] 4. Higher Total Cost of Ownership Although thermal grease itself is inexpensive, mitigating dryout and pump-out requires periodic maintenance. This typically involves disassembly, cleaning, reapplication, and reassembly—adding labor, downtime, and long-term cost. Solving These Issues with Graphite TIM Replacing thermal grease with Graphite TIM , a graphite-based thermal conduction sheet, addresses these challenges effectively. Graphite TIM is a sheet-type TIM with excellent thermal conductivity, designed to be sandwiched between heat-generating components and heatsinks. Panasonic’s Graphite TIM offers high reliability, simple handling, and stable long-term performance. While adequate clamping pressure is required to achieve optimal thermal characteristics, installation is straightforward and repeatable. [Figure 4 – Graphite TIM product image] Performance Comparison: Thermal Grease vs. Graphite TIM The table below summarizes how Graphite TIM resolves the common issues associated with thermal grease. Thermal grease issues Thermal conduction sheet Graphite TIM ① Thermal resistance variation due to voids Absorbs differences in level through its high compressibility, achieving a stable thermal resistance equivalent to that of thermal greases. ② Increase in thermal resistance due to the dryout phenomenon Heat-resistant to temperatures over 400ºC; no degradation due to heat ③ Increase in thermal resistance due to the pump-out phenomenon Physical properties remain unchanged semi-permanently. ④ Increase in total costs Easy installation that only requires placement and simple maintenance ⇒ Low total costs [Table 1 – Comparison of thermal grease issues and Graphite TIM features] Void-related thermal resistance variation Graphite TIM’s high compressibility allows it to absorb surface unevenness, providing stable thermal resistance comparable to thermal grease. Dryout-related degradation With heat resistance exceeding 400 °C, Graphite TIM does not degrade due to heat and is unaffected by dryout. Pump-out phenomenon As a solid sheet material, Graphite TIM maintains its physical properties semi-permanently, eliminating pump-out concerns. Total cost Easy installation and minimal maintenance requirements contribute to significantly lower total cost of ownership. Thermal Resistance vs. Pressure Characteristics The graph below shows how the thermal resistance of Graphite TIM changes with applied pressure. [Figure 5 – Thermal resistance vs. pressure graph] As pressure increases, thermal resistance decreases. In high-compression regions, Graphite TIM achieves thermal resistance levels equivalent to thermal grease. This demonstrates that Graphite TIM can be used as a direct replacement without compromising thermal performance. Heat Resistance and Long-Term Reliability An accelerated heat-aging test was conducted to evaluate resistance to dryout. Samples were placed on a 150 °C hot plate for 30 minutes, simulating approximately 10 years of operation. [Figure 6 – Before/after heat aging photos] Unlike thermal grease, Graphite TIM showed no visible degradation or performance loss after the test, confirming its ability to resolve dryout-related reliability issues. Summary Thermal greases have a long history and remain widely used as TIMs, but their susceptibility to dryout, pump-out, and maintenance-driven cost increases presents clear limitations—especially in power electronics. Graphite TIM , as a graphite-based thermal conduction sheet, offers a reliable, maintenance-friendly alternative with stable thermal performance and excellent heat resistance. For power modules and other high-heat applications, it provides a practical solution to the longstanding challenges associated with thermal grease. 8. Panasonic Product Page Explore Panasonic Graphite TIM Solutions Learn more about Panasonic’s graphite-based thermal interface materials and how they can improve thermal reliability in your power electronics designs. → Visit the Panasonic Graphite TIM product page 9. Documents Graphite TIM Sell Sheet Product CatalogPanasonic Graphite TIMthermal interface materials (TIM)power module thermal managementpanasonic industrypump-out phenomenonthermal resistancedryout phenomenonGraphite TIMthermal grease issueshttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/how-polymer-capacitors-enable-compact-high-efficiency-gan-based-ac-dc-power-suppliesThu, 02 Apr 2026 04:02:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:e6478f43-ce3b-45b5-ae76-b2da50146ad5riyo@panasonicWhy GaN Is Accelerating the Evolution of AC/DC Converters AC/DC converters are indispensable in modern electronics, converting commercial AC power into stable DC voltages required by most electronic loads. These converters are found everywhere—from consumer adapters and chargers to industrial and telecom power systems. As product designers pursue smaller size, higher efficiency, and better thermal performance , conventional silicon (Si) switching devices are reaching their physical limits. This is where gallium nitride (GaN) power devices are rapidly gaining adoption. [Figure 1: Examples of AC/DC converters used in home and office applications] Unlike traditional Si devices, GaN switches significantly faster and with lower switching loss. This enables: Higher switching frequencies Reduced heat generation Smaller passive components Higher power density without sacrificing efficiency As a result, GaN has become a key enabler for next‑generation compact AC/DC converter designs, particularly in notebook adapters, USB‑PD chargers, and industrial power supplies. GaN vs. Silicon: Switching Loss and Frequency Advantages The most important advantage of GaN lies in its low switching loss at high frequencies . While conventional Si devices typically operate around 100 kHz, GaN devices can comfortably switch in the 200 kHz to 500 kHz range while maintaining high efficiency. [Figure 2: Switching waveforms comparison – GaN vs. Silicon] At higher switching frequencies: Magnetic components (inductors, transformers) can be smaller Output capacitors must handle higher ripple current frequencies Component selection becomes critical for maintaining low ripple voltage This shift in operating frequency fundamentally changes the requirements for output capacitors. The Role of Output Capacitors in High‑Frequency AC/DC Designs The output capacitor plays a vital role in smoothing the DC output by absorbing ripple current generated by switching operation. The resulting ripple voltage must remain within strict limits—typically less than ±5% of the output voltage —to ensure stable system operation. [Figure 3: Output ripple voltage concept and waveform] The ripple voltage relationship is straightforward: ΔV = ΔI × Z Where: ΔV is ripple voltage ΔI is ripple current Z is the impedance of the capacitor at the switching frequency Therefore, low impedance at high frequency is the key requirement for output capacitors in GaN‑based AC/DC converters. Why Polymer Capacitors Outperform Electrolytic Capacitors with GaN Traditional liquid electrolytic capacitors struggle at high switching frequencies due to increasing impedance. In contrast, Panasonic solid polymer capacitors exhibit extremely low impedance in the 100 kHz to 1 MHz range, making them ideal for GaN power supplies. [Figure 4: Impedance vs. Frequency – Polymer vs. Electrolytic Capacitors] This performance advantage comes from Panasonic’s low‑ESR conductive polymer electrolyte technology , which delivers: Much lower ESR than liquid electrolytic capacitors Superior ripple voltage suppression Excellent high‑frequency characteristics As a result, polymer capacitors can achieve the same—or better—ripple performance with significantly smaller capacitance values , enabling further downsizing. High Ripple Current Capability and Thermal Stability Low ESR not only reduces ripple voltage but also allows polymer capacitors to tolerate higher ripple currents without excessive self‑heating. In addition, because the electrolyte is solid rather than liquid, Panasonic polymer capacitors offer: Stable performance at low temperatures No electrolyte drying or leakage Minimal ESR degradation over long operating life [Figure 5: Ripple current vs. self‑heating, ESR vs. temperature, and endurance characteristics] These characteristics are especially valuable in industrial and telecom applications where long life and wide temperature operation are mandatory. Real‑World Comparison: Polymer vs. Electrolytic Capacitors in a GaN AC/DC Converter To illustrate the impact in practice, consider a high‑frequency AC/DC converter operating between 200 kHz and 400 kHz . Test Overview Output power: 150 W Output voltage: 48 V Allowable ripple: ±400 mV Operating temperature: –30 °C to +65 °C Expected lifetime: 50,000 hours Capacitor Comparison Electrolytic: 63 V, 390 µF × 3 Polymer: 63 V, 33 µF × 1–3 [Figure 6: Capacitor characteristic comparison] Even though the conductive capacitor has a smaller capacitance, its excellent frequency characteristics suppress ripple voltages to the same level. ↓ When looking at the lowest operating temperature -30°C, it shows a possibility to design only with a single conductive capacitor. And this will be stable even at the end of life (after 50,000 hours). = Reduced mounting area / cost / longer life [Figure 7: Output ripple voltage comparison results] Key Results At low temperature (–30 °C), a single polymer capacitor achieved 47% lower ripple voltage than the electrolytic solution At room temperature, polymer capacitors delivered comparable ripple performance with only 1/10 the capacitance No low‑temperature degradation, unlike electrolytic capacitors Result: ✅ Reduced mounting area ✅ Lower component count ✅ Longer operational life ✅ Improved reliability Panasonic Polymer Capacitor Portfolio for GaN Power Supplies Panasonic offers one of the industry’s most comprehensive polymer capacitor lineups, supporting voltages up to 100 V and optimized for high‑frequency power conversion. [Figure 8: Panasonic polymer capacitor product lineup table] Key Series Highlights Hybrid Capacitors : Large capacitance, high ripple current, AEC‑Q200 qualified OS‑CON : Wide voltage range, excellent frequency characteristics POSCAP : Compact SMD packages for space‑constrained designs SP‑Cap : Ultra‑low ESR and low‑profile solutions These products are widely used in: Consumer electronics (chargers, adapters) Industrial power supplies Telecom and networking equipment 48 V power distribution systems Explore Panasonic Polymer Capacitors on Farnell to find the optimal solution for your GaN‑based AC/DC design. Proven Adoption in GaN Reference Designs Panasonic polymer capacitors are already validated in leading GaN reference platforms from major IC manufacturers. 65 W GaN AC/DC Converter Evaluation Board IC: MasterGaN4 Application: USB‑PD, industrial and consumer electronics Output capacitors: Panasonic Hybrid & OS‑CON polymer capacitors [Figure 9: 65 W GaN reference board image] 250 W GaN AC/DC Converter Evaluation Board IC: MasterGaN1 Topology: LLC Output capacitors: Panasonic Hybrid polymer capacitors [Figure 10: 250 W GaN reference board image] These real‑world designs demonstrate how polymer capacitors enable compact, efficient, and reliable GaN power supplies. Conclusion: Polymer Capacitors Are Essential for the GaN Era As GaN adoption continues to accelerate, power supply designers must rethink passive component selection. Panasonic polymer capacitors provide the low impedance, high ripple current capability, and long‑term reliability required for high‑frequency GaN‑based AC/DC converters. By enabling: Smaller form factors Higher efficiency Longer lifetime Reduced system cost Panasonic polymer capacitors play a critical role in next‑generation power electronics. Start your GaN power design today—discover Panasonic Polymer Capacitors on Farnell.High Frequency Power Supplypolymer capacitorGallium Nitride (GaN)Power DensityLong Life CapacitorGaN AC/DC ConverterHigh Efficiency Power Supplyconductive polymer capacitorIndustrial Power SupplyPanasonic Polymer CapacitorPower Supply Reference DesignData Center PowerOutput Ripple ReductionHigh Switching FrequencyThermal StabilityTelecom Power SupplyReference Designpanasonicposcap48V Power DistributionOutput CapacitorSP‑CapUSB chargerPanasonic Hybrid CapacitorLow ESR CapacitorGaN Power Supplyswitching power supplyLow Switching LossPower Electronics DesignPower AdapterCapacitor SelectionHigh Ripple Current Capacitorevaluation boardUSB‑PD Power SupplyAC/DC Converter DesignPolymer vs Electrolytic CapacitorOS‑CONSolid Polymer CapacitorGaN Reference BoardLLC ConverterPanasonic Capacitorshttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/technological-innovations-in-modern-transportation-powered-by-panasonic-passive-componentsMon, 16 Mar 2026 00:08:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:d969f7dc-a07f-41d8-9c44-fa68060f07fbriyo@panasonicHow Panasonic’s Capacitors, Inductors, and Resistors Are Transforming the Future of EVs, E‑Bikes, AGVs, and Automotive Power Electronics. Introduction As global transportation accelerates toward electrification, automation, and higher power density, electronic designers face increasingly complex challenges. Whether it’s the rapid growth of electric vehicles, the explosion of the e‑bike market, or the expansion of industrial AGVs and next‑generation train systems, one truth remains constant: reliable passive components form the backbone of every mobility innovation . Panasonic’s portfolio of high‑performance passive components—spanning hybrid capacitors, metal‑composite inductors, precision resistors, and automotive‑grade reliability solutions—enables engineers to design systems that are safer, more efficient, and built to withstand harsh real‑world environments. This article explores how Panasonic’s component technology directly addresses the toughest design constraints in modern mobility and why these components have become a trusted choice among engineers designing for EVs, e‑bikes, AGVs, and power electronics. 1. Evolving Market Demands in the Transportation Sector Electrification Is Redefining Component Requirements Today’s transportation ecosystem includes everything from passenger EVs and commercial vehicles to agricultural machinery, e‑bikes, and automated guided vehicles. As power systems shift from mechanical to electric, passive components must handle significantly higher electrical stress and environmental demands. Key drivers reshaping component specifications include: Automotive Electrification Gasoline vehicles: primarily mechanical → require high‑reliability components Electric vehicles (EVs): motor‑driven → need high reliability plus high current capability Rapid Expansion of the E‑Bike Market Motor output increasing: 500 W → 750 W+ System voltages rising: 36 V → 48 V / 60 V Compact, multifunctional designs becoming standard Core Requirements Across Transportation Systems To support these trends, designers now prioritize: High current capability (low DCR, low ESR to improve efficiency) Thermal robustness (–55 °C to +170 °C operating range) Miniaturization & high density (SMD formats, compact power modules) EMI suppression (especially for motor‑drive and switching circuits) Long operational life (10+ years demanded in EV/AGV applications) These requirements form the foundation for why Panasonic’s passive components—especially its hybrid capacitors , metal composite inductors , and automotive‑grade resistors —have become essential solutions for next‑generation mobility systems. 2. Hybrid Capacitors: Panasonic’s High‑Performance, Long‑Life Solution for Modern Mobility Panasonic’s hybrid capacitors are engineered to meet the rapidly intensifying demands of transportation electronics. By combining the strengths of electrolytic and polymer capacitor technologies, Panasonic delivers a balance of high ripple current , long operational life , and failsafe reliability —attributes essential in EVs, e‑bikes, AGVs, and automotive power electronics. Hybrid capacitors have become one of the most impactful innovations in Panasonic’s passive component lineup, enabling compact, thermally robust, and electrically stable designs for high‑power mobility systems. 2.1 Technical Challenges in Transportation Power Systems Designers working on EV inverters, DC‑link circuits, e‑bike motor drivers, and industrial AGVs face several recurring challenges: High Current Handling Requirements E‑bike and AGV platforms demand DC‑link capacitors capable of managing 20–60 A ripple currents —especially in systems ranging from 500 W to 6 kW . Conventional aluminum electrolytic capacitors often require multiple parts in parallel, consuming valuable PCB area and increasing BOM cost. Long‑Term Reliability Under Extreme Conditions Modern EVs and AGVs require product lifetimes of 10 years and operating endurance exceeding 4,000 hours at 125 °C , far surpassing the typical 2,000‑hour rating of general electrolytic capacitors. This creates a significant reliability gap traditional technologies cannot bridge. Fail‑Safe Behavior in Failure Modes Polymer capacitors can offer low ESR and high current handling but risk short‑circuit failure , which is unacceptable in safety‑critical automotive and industrial systems. Regulations require open‑circuit failsafe behavior to prevent secondary damage or thermal hazards. Panasonic’s hybrid technology directly addresses all three challenges simultaneously. 2.2 Panasonic Hybrid Capacitor Technology Panasonic’s hybrid capacitors merge liquid electrolyte with conductive polymer to create a component category that excels in both performance and safety . Key Advantages (Example: 35 V 47 μF device) Low ESR rivaling polymer capacitors → dramatically improved ripple current capability Open‑circuit fail‑safe behavior like aluminum electrolytics → enhanced safety margin Double the operational life compared with conventional capacitors Up to 4.5× higher ripple current tolerance for high‑power converters This allows engineers to reduce component count, shrink board size, and enhance system reliability—crucial benefits in compact traction inverters and motor‑control units. 2.3 Key Hybrid Capacitor Series for Transportation Panasonic offers multiple hybrid capacitor families tailored for different mobility applications: Series Capacitance Ripple Current Miniaturization ZTU Up to 1.7× larger than entry‑level hybrids (e.g., 330 µF → 560 µF, φ10×10.2 mm) 1.8× improvement (2900 mA → 3500 mA) Smaller case option: φ10×10.2 → φ8×10.2 ZUU Highest capacitance class, up to 1000 µF Industry‑leading ripple current up to 6100 mA Enables 1‑to‑many replacements to reduce cost/space ZVU 1.7× capacity increase compared to ZC series Maintains high ripple current similar to ZV (up to 4.6 A in 10×10.2 mm) Supports design consolidation & PCB reduction Series Highlights ZTU : Build higher capacity or achieve miniaturization ZUU : Best for high ripple current + ultra‑high capacitance ZVU : Higher capacitance while keeping low‑profile packaging These series are widely used in EV power steering, cooling fans, OBCs, and e‑bike motor drives. 2.4 Application Example: E‑Bike 6 kW Drive Inverter System Overview 48 V Li‑ion Battery → DC‑DC Converter → BM‑IC → Motor Drive Inverter Conventional Design 12 × 63 V, 150 μF, φ10 × 16.5 mm Proposal 1 (Using ZUU Series) 63 V, 180 μF × 8 pcs (φ10 × 16.5 mm) Total Capacitance: 1,440 μF Ripple Current: 44 Arms Component reduction: –33% Proposal 2 (ZUU Low‑Profile Option) 63 V, 120 μF × 9 pcs (φ10 × 12.5 mm) Height reduced 16.5 mm → 12.5 mm (–24%) Ideal for compact e‑bike frames and integrated motor systems 2.5 Automotive Example: Electric Power Steering (EPS, 12 V / 500 W) Conventional Design 4 × 25 V, 470 μF, φ10 × 12.5 mm Panasonic ZUU Proposal 25 V, 1000 μF × 2 pcs (φ10 × 16.5 mm) Total Capacitance: 2,000 μF (+6.4%) Ripple Current: 12.2 Arms Component count reduced by 50% 2.6 Automotive Example: Cooling Fan (24 V / 4 kW, 3‑Phase Motor) Conventional Design 35 V, 470 μF × 11 pcs (φ10 × 16.5 mm) ZUU Proposal 35 V, 680 μF × 9 pcs Total Capacitance: 6,120 μF (+18%) Component reduction: –18% 2.7 Automotive OBC DC‑DC Converter (400 V → 12 V) Conventional Design 25 V, 470 μF × 8 pcs (φ10 × 10.2 mm) ZV Series Proposal 25 V, 330 μF × 5 pcs (φ10 × 10.2 mm) Component count reduced by 38% Maintains equivalent electrical performance thanks to low‑ESR characteristics 3. Power Inductors: Panasonic’s Metal Composite (MC) Core Technology for High‑Current, Low‑EMI Mobility Systems Power inductors are central to every high‑efficiency power conversion stage found in electric vehicles, e‑bikes, AGVs, battery management systems, and compact industrial drives. As system voltages rise and switching frequencies increase, passive magnetic components must deliver higher current , lower EMI , and greater thermal stability —all within increasingly compact mechanical footprints. Panasonic’s proprietary Metal Composite (MC) Core inductors are engineered precisely for these next‑generation requirements. By combining advanced materials science with robust structural design, Panasonic creates inductors that offer exceptional current capability , low DC resistance , minimal magnetic flux leakage , and industry‑leading thermal performance , enabling designers to optimize power density without compromising reliability. 3.1 Key Technical Challenges in Modern Mobility Designs As mobility platforms move toward higher power and higher switching frequencies, traditional ferrite-core inductors encounter several limitations. Panasonic’s MC-core technology directly addresses these challenges. EMI Mitigation & Magnetic Noise Reduction E‑bikes, AGVs, and compact EV systems employ fast-switching MOSFET/SiC power stages that generate high-frequency electromagnetic noise. Ferrite inductors typically exhibit high leakage flux , making compliance with EMC regulations more difficult. Panasonic MC inductors dramatically reduce radiated noise through a dense metal‑composite material structure that naturally suppresses flux leakage—greatly simplifying EMC countermeasures. Miniaturization Constraints As system voltages grow to 48–60 V and beyond , inductors must handle 5 A+ continuous currents without requiring larger, bulkier components. Ferrite cores saturate sharply, limiting their downsizing potential. MC-core inductors allow engineers to reduce size while supporting higher currents, maintaining stable inductance even during transient loads. Thermal Management & High‑Temperature Reliability In harsh automotive environments—near motors, inverters, or engine compartments—temperatures frequently exceed 100 °C . Heat causes drift in inductance, impacts efficiency, and accelerates component aging. Panasonic MC inductors deliver stable electrical performance from –55 °C to +170 °C , offering dependable reliability for automotive powertrains and outdoor AGVs. 3.2 Panasonic’s Metal Composite (MC) Core Solution Panasonic’s MC inductors integrate a metal‑composite magnetic core that offers a unique combination of high current handling , low EMI , and stable inductance , enabling superior power‑conversion performance compared to ferrite-based competitors. Compact Size with Higher Current Capability A comparison of 22 μH inductors highlights how MC-core technology supports larger current ratings in significantly smaller form factors—ideal for space‑constrained BMS and drive-inverter boards. Low-EMI Characteristics MC-core inductors produce substantially lower magnetic flux leakage than ferrite types Reduced leakage directly leads to lower radiated emissions This makes it easier to meet automotive EMC standards and reduces the need for shielding materials Inductance Stability Without Hard Saturation Conventional ferrite inductors experience abrupt inductance collapse under high current (hard saturation). Panasonic MC inductors maintain stable inductance across the full operating range. Automotive-Grade Reliability AEC‑Q200 compliant Operating temperature: –55 °C to +170 °C Vibration resistance up to 50 G 80 V withstand voltage , providing wide margin for 48‑V class systems These attributes make Panasonic MC inductors ideal for EV powertrains, ADAS power modules, onboard chargers, and next‑generation mobility platforms. 3.3 Applications in E‑Bike and AGV Power Systems Panasonic’s MC inductors deliver tangible design advantages in 48‑V Li‑ion battery ecosystems used across e‑bikes, AGVs, and compact mobility vehicles. Key Benefits for Next‑Generation 48‑V & 60‑V Systems Significant Space Savings in BMS Boards MC inductors deliver equivalent performance with a 57% reduction in board footprint Volume reduction up to 74% enables lighter and more compact BMS modules Simplified EMI Compliance Low leakage flux reduces radiated noise, lowering the burden on EMI filters Thermal Robustness for Harsh Environments Stable inductance under heat ensures consistent charge/discharge control High Saturation Current for Design Margin Suitable for 48–60 V systems and even higher transient-load environments Optimized for SMD Integration Low-profile surface-mount format supports highly integrated inverter/BMS layouts High-Voltage, High-Current Capability Designed for next‑generation traction systems and power electronics 4. High‑Performance Chip Resistors: Precision, Power, and Reliability for Transportation Electronics As mobility platforms continue their shift toward electrification and digitalization, resistors play an increasingly critical role in enabling safe, precise, and power‑efficient operation. From high‑voltage battery management in EVs to precision sensing in e‑bikes and rugged AGV control circuitry, the demands placed on surface‑mount resistors have intensified dramatically. Panasonic’s resistor portfolio—including the ERJP , ERJB , ERJ*BW , ERA , and ERJU series—delivers unmatched performance across power density , precision , thermal stability , and environmental resistance . These components are designed specifically for harsh and space‑constrained applications common in modern transportation systems, making them ideal for engineers building next‑generation mobility solutions. 4.1 Required Characteristics Across Transportation Circuits Different sections of transportation electronics require resistors with highly specialized characteristics. Panasonic offers tailored resistor families that address each circuit’s unique demands. Voltage Measurement Key Requirements: High accuracy (±0.1%) Low TCR (~25 ppm/K) Long‑term stability against temperature cycling Technical Challenge: Accurate detection of small voltage fluctuations in EVs and BMS circuits is extremely sensitive to resistance drift, especially under harsh conditions from –40 °C to +125 °C. Recommended Panasonic Solution: ERA Series (Thin Film High‑Precision Resistors) Achieves high reliability through proprietary resistive material (±0.1% tolerance after durability testing)-ERA-A series Voltage Divider for High‑Voltage Battery Systems Key Requirements: High voltage capability (up to 500 V) Wide resistance range (~10 MΩ) Compliance with creepage and clearance rules Technical Challenge: Traditional voltage dividers require multiple low‑voltage resistors in series, increasing PCB area, complicating layout, and impacting cost. Recommended Panasonic Solutions: ERA8P Series ERJPM8 Series Both are AEC‑Q200 qualified and support limiting element voltages up to 500 V . *Remark: The actual reduction in the number of components depends on the creepage distance regulation Current Sensing (Traction Systems, Charging, Fuse Protection) Key Requirements: Low resistance values High power rating (1–3 W) Stability under heat, vibration, and high current Technical Challenge: Current sensing applications face resistive drift and thermal stress, especially in EV traction inverters. Recommended Panasonic Solutions: ERJB / ERJD (Wide Terminal Types) ERJ*BW (Double‑Sided Resistive Element) These devices improve power handling, reduce hotspot formation, and allow PCB downsizing. Gate Drive Resistors Key Requirements: High power (~3 W) Strong thermal dissipation Reliability during continuous switching Technical Challenge: Fast‑switching IGBT and MOSFET drivers experience constant surges and thermal load, demanding robust resistor structures. Recommended Panasonic Solutions: ERJP (High Power Thick Film) ERJB / ERJD (Wide Terminal) Environmental Reliability (Outdoor / Harsh Environments) Key Requirements: Sulfur resistance Moisture, vibration, and thermal durability Technical Challenge: Agricultural AGVs, industrial vehicles, and railway systems frequently encounter sulfur‑rich environments that cause sulfuration failures in standard resistors. Recommended Panasonic Solutions: ERJU / ERJS Anti‑Sulfur Series With optional high‑precision variants and wide‑terminal high‑power versions 4.2 Panasonic Solutions for Each Technical Challenge 4.2.1 Precision Voltage Measurement — ERA Series Technical Challenge: BMS voltage accuracy can degrade due to resistance drift from temperature fluctuations and long‑term operation. Panasonic Solution: ERA Series (Thin Film): ±0.1% tolerance ±25 ppm/K TCR Stable under long‑term environmental stress Excellent durability performance due to proprietary resistive materials Image: image_c67DrOiSie00ZhSdaFzMxQ==（insert here） 4.2.2 High‑Voltage Voltage Divider — ERA8P & ERJPM8 Technical Challenge: High‑voltage BMS circuits (300–500 V) traditionally require 10+ resistors in series, increasing PCB area and complicating creepage requirements. Panasonic Solution: ERA8P / ERJPM8 500 V limiting element voltage ±0.1% tolerance, ±15 ppm/K (ERA8P) AEC‑Q200 compliant Reduces component count and PCB size significantly Component Reduction Example: Conventional: 10 × 300 kΩ (0805), PCB area 40.25 mm² Panasonic Proposal: 3 × 1 MΩ (1206), PCB area 21.15 mm² → 48% PCB area reduction 4.2.3 High‑Power Current Sensing — ERJB/D & ERJ*BW Technical Challenge: High currents generate heat and vibration stress that can cause drift and failure in standard resistors. Panasonic Solutions: ERJ*BW (Double‑Sided Resistive Element) Low resistance down to 5 mΩ Higher power density in compact package Supports PCB downsizing ERJB/D (Wide Terminal) Multiple resistive elements spread heat load Lower hotspot temperature rise Long terminal structure improves thermal shock resistance 4.2.4 Gate Drive Solutions — ERJP / ERJB Technical Challenge: Gate drivers in EV traction inverters require resistors with strong surge endurance and power dissipation. Panasonic Solutions: ERJP / ERJPA Series : PCB miniaturization through downsizing High surge resistance Optimized structure for thermal stability ERJB/D Series: Supports heavy load and power cycling Matches gate‑drive reliability requirements 4.2.5 Anti‑Sulfur Solutions — ERJU / ERJS Technical Challenge: Outdoor AGVs and agricultural vehicles often see sulfur‑rich gases that cause silver‑terminal sulfuration. Panasonic Solution: ERJU / ERJS Prevents sulfur‑related open circuits Removes the need for board sealing AEC‑Q200 compliant (–55 °C to +155 °C) Multiple variations for high‑precision, high‑power, low‑resistance, and wide‑terminal needs 5. Recommended Panasonic Components by Application Panasonic offers a comprehensive lineup of passive components engineered to meet the stringent demands of transportation systems—ranging from high‑power e‑bike inverters to automotive BMS and harsh‑environment AGVs. This section provides application‑specific recommendations to help design engineers quickly select the ideal Panasonic components and seamlessly transition into purchasing decisions on platforms such as element14, Mouser, Digi‑Key, and DesignSpark . E‑Bike / AGV Drive Inverters (48 V–60 V, 500 W–6 kW) High‑power traction inverters in e‑bikes and AGVs require components that can withstand large ripple currents, deliver stable inductance, and provide accurate current sensing. Panasonic’s hybrid capacitors, metal‑composite inductors, and shunt resistors ensure safe, compact, and efficient inverter design. Recommended Panasonic Products DC‑Link Capacitors: ZUU / ZVU / ZSU Series High ripple‑current capability Long operational life Low‑profile options ideal for compact motor systems Current‑Sensing Resistors: ERJD Series ±100 ppm/K TCR performance Low resistance values suitable for precise current monitoring Nearly equivalent behavior to metal‑shunt resistors Power Inductors: ETQP4M220KV * Series Metal Composite (MC) core High current capability with low EMI Compact SMD package High‑Precision Resistors: ERA‑V / ERA‑K / ERA‑P Series Excellent accuracy for control circuits Low TCR for stable operation in fluctuating temperatures Automotive BMS (12 V–48 V Systems) Battery Management Systems require high‑voltage precision resistors and long‑life capacitors capable of surviving elevated temperatures and high electrical stress. Panasonic’s products address these reliability and safety needs. Recommended Panasonic Products DC‑Link Capacitors: ZUU / ZSU Series Rated for 125 °C / 4000 h Superior durability for long‑term EV battery environments High‑Voltage Resistors: ERA8P / ERJPM8 Series 500 V limiting element voltage ±0.1% tolerance options Ideal for voltage detection and cell balancing circuits High‑Precision Resistors: ERAA, ERA‑V / ERA‑K Series As low as 0.05% tolerance ±10 to ±25 ppm/K TCR Outstanding long‑term drift performance Automotive Power Electronics (EPS, OBC, Inverter) Systems like Electric Power Steering, On‑Board Chargers, and inverters require components with high surge tolerance, long life, and stable performance at high temperatures. Recommended Panasonic Products DC‑Link Capacitors: ZUU / ZV Series Maximum ripple‑current handling Supports downsizing via reduced component count Current‑Sensing Resistors: ERJD / ERJ*BW Series Wide‑terminal and double‑sided resistive structures Handle high power in compact formats Improved heat spreading for reduced hotspots High‑Voltage Resistors: ERA8P / ERJPM8 Series 500 V rated High precision for gate-drive and sensing circuits AGV and Outdoor / Harsh Environment Applications AGVs used in logistics, smart agriculture, and industrial settings operate in dusty, humid, and sulfur‑contaminated environments. Panasonic’s anti‑sulfur technology provides the necessary reliability for these conditions. Recommended Panasonic Products Power Circuits: ERJU / ERJS Series + ZUU / ZSU Capacitors Prevent sulfurization-related failures Ensure long‑term electrical stability Control Circuits: ERJU‑R Series (High‑Precision Anti‑Sulfur) Ideal for sensor interfaces and microcontroller circuits Current Sensing in Harsh Environments: ERJU‑S / ERJU‑Q Series Low‑resistance anti‑sulfur resistors Suitable for outdoor traction and power monitoring 6. Summary Panasonic’s passive components play a defining role in advancing the next generation of transportation systems. As mobility continues its rapid transformation toward electrification, automation, and higher power density, engineers face a growing need for components that deliver reliability, efficiency, miniaturization, EMI stability, and long‑term durability —often under extreme environmental conditions. Hybrid capacitors, metal‑composite inductors, and automotive‑grade chip resistors from Panasonic provide precisely these performance attributes. Each technology line has been engineered to solve real design challenges: from reducing ripple and handling high current in traction inverters, to stabilizing inductance in high‑temperature environments, to ensuring precise voltage detection in EV battery systems, and resisting sulfur contamination in outdoor AGVs. These components are not just incremental improvements—they form the backbone of safe, efficient, high‑performance power electronics across EVs, e‑bikes, AGVs, railway applications, industrial equipment, and emerging mobility platforms. For designers working on modern transportation architecture, Panasonic offers a comprehensive, field‑proven portfolio of passive components that accelerate development, reduce risk, and support long‑term system reliability. Whether the goal is to reduce component count , improve thermal management , optimize EMI performance , or increase system lifetime , Panasonic provides the right solution. As electrified mobility continues to expand, Panasonic remains committed to driving innovation and delivering high‑value passive components that keep transportation systems safer, smarter, and more connected—now and into the future.low‑ESR capacitors for EVe‑bike inverter designE‑Bike Systemspower conversionAGV / Roboticshigh‑precision resistors BMSanti‑sulfur resistors outdoor AGVindustrial electronicshigh‑current hybrid capacitorsPanasonic Passive Componentsautomotive chip resistorsautomotive electronicsHigh‑Voltage ResistorsPanasonic Hybrid CapacitorsEnergy Storage Systems / BMSPanasonic transportation componentsElectric Vehicles (EV)Automotive‑Grade ResistorsEV passive componentsAnti‑Sulfur ResistorsCurrent Sensing ResistorsPanasonic Power Inductors (MC Core)Metal Composite Inductorshybrid capacitorspower managementlow‑EMI inductorsPanasonic Chip ResistorsTransportation Electronicshttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/what-is-a-domain-control-unit-dcuTue, 03 Mar 2026 01:14:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:7bf41088-564a-4cdf-9fb9-90537ff084f4riyo@panasonicAs the automotive industry accelerates toward higher‑level autonomous driving, the Domain Control Unit (DCU) has become a central element of next‑generation vehicle architecture. DCUs consolidate data from multiple sensors, make real‑time decisions, and coordinate critical control functions—requiring components that deliver high current capability, low loss, miniaturization, and excellent EMC robustness . This technical guide provides an engineer‑friendly explanation of DCU roles, system configurations, and design challenges—and showcases how Panasonic Industry components support reliable, high‑performance DCU development. If you're designing automotive ECUs, power modules, or sensing interfaces, this guide will help you choose optimal Panasonic devices for your next project. 1. ADAS vs. AD: Why DCUs Are Increasing Rapidly Advanced Driver Assistance Systems (ADAS) support the human driver, while Autonomous Driving (AD) shifts responsibility to the vehicle itself. According to SAE levels: Level 0–2: Human‑driven with partial assistance Level 3–5: Vehicle executes most or all driving tasks As vehicles progress into Level 3 and beyond, the sensor count and data throughput grow dramatically. This makes centralized processing , fast communication , and robust power management more critical—hence the rapid adoption of DCUs. Level Name Driven by Driving area Remarks 0 No driving automation Human driver － The human performs all driving tasks 1 Driving assistance Human driver Limited Provides driving assistance in part through tasks such as monitoring the vehicle's perimeter 2 Partial driving automation Human driver Limited "Hands off" - Automates driving under specific conditions 3 Conditional driving automation Vehicle Limited "Eyes off" - Automates driving under specific conditions 4 Advanced driving automation Vehicle Limited "Brain off" - Automates driving under specific conditions 5 Full driving automation Vehicle No limitations The vehicle performs all driving tasks under all conditions Table 1 Definition of autonomous driving by level 2. Core System Blocks Required for ADAS / AD A complete sensing‑to‑control chain typically includes: Sensor ECU Cameras, RADAR, LiDAR, and ultrasonic sensors gather environmental data. Main ECU / DCU Performs high‑speed data fusion, perception, and decision‑making. Actuator ECU Controls braking, steering, powertrain, and other vehicle dynamics. A DCU sits at the heart of this system, enabling seamless communication between domains and ensuring reliable autonomous operation. Figure 1 Overall system flow (from sensing to operation) 3. Domain vs. Zone Architecture—Where DCUs Fit As OEMs evolve their E/E architectures, two major approaches are used: Domain Type (Distributed) Each function (ADAS/AD, powertrain, body, cockpit, etc.) has its own DCU Processing is performed inside each domain Domains communicate via gateway ECUs Ideal for: Level 2 and Level 2+ applications Zone Type (Centralized) ECUs grouped by vehicle location (front, rear, cabin) A central computer consolidates all zone‑level inputs Supports massive data throughput and high compute requirements Ideal for: Level 3–5 and next‑generation EV platforms Configuration Connection Network Domain type Consolidates domain-specific ECUs for each category (domain) All domains are connected via the Gateway Data processing is performed in each domain-specific ECU Common network standards are used for communication between sensors and domains Common network standards are used for communication between the domains and Gateway Zone type Consolidates ECUs of different categories in each zone such as the front and rear of the vehicle Consolidates data from each zone to the Central Computer Integrates and concentrates data processing in the Central Computer There is a mixture of different network standards for communication between sensors and zones Common network standards are used for communication between the zones and Central Computer 4. What Exactly Does a DCU Do? A DCU integrates multiple functions: High‑speed communication with sensors and other ECUs Data fusion and environment recognition using SoCs and dedicated processors Memory management (Flash, DDR) for algorithms and sensor data Power management through multiple isolated DC/DC converters Command execution to actuators and cooperating domains This makes DCUs one of the most component‑dense areas in modern automotive electronics. 5. Component Requirements for High‑Performance DCUs DCUs demand components with: High current tolerance for heavy processing loads Low loss to minimize thermal buildup High‑frequency capability for switching and communication Miniaturization for dense board layouts Highly stable voltage characteristics Panasonic Industry specifically develops components aimed at fulfilling these stringent requirements. 6. Inside the DCU: Key Circuits and Recommended Components 6‑1: High‑Speed Transceiver Interfaces (CAN, Ethernet, LVDS) During communication, DCUs are exposed to ESD surges and noise. To protect transceiver ICs and maintain signal quality, Panasonic offers: ① Chip Varistors Wide capacitance range (8–250 pF) Ideal for low‑ to mid‑speed communication lines ② ESD Suppressors Ultra‑low capacitance (0.1 pF) Perfect for high‑speed interfaces such as automotive Ethernet ▶ Explore products: Chip Varistor: Farnell® UK ESD Suppressor: Farnell® UK Figure 4 Components used in a transceiver IF 6‑2: Power Delivery—DC/DC Converter Architectures DCUs require multiple supply rails to power SoCs, memory, MCUs, and transceivers. Panasonic components are essential for each converter block. Figure 3 DCU system configuration Three DC/DC Converter Types Type Typical Use Characteristics A (Multiphase) SoCs / FPGAs Very high current, polymer capacitors + MLCCs B DDR memory High ripple current, large‑capacitance smoothing C General rails Standard DC/DC topology Key Panasonic Components for DC/DC Converters ① Conductive Polymer Hybrid Aluminum Electrolytic Capacitors High capacitance, low ESR Excellent high‑frequency performance for noise suppression Supports miniaturization and high‑current operation ▶ Farnell® UK Figure 6 Components used in a DC/DC converter ② Automotive Power Inductors Low loss thanks to metallic magnetic materials High current capability Optimized for high‑frequency switching ▶ ETQP Inductors | Farnell® UK ③ High‑Precision Chip Resistors Low TCR and low resistance tolerance Suitable for voltage sensing feedback loops in converters ▶ ± 0.05% PANASONIC Chip SMD Resistors | Farnell® UK 7. Summary: Panasonic Components Accelerate DCU Innovation As autonomous driving advances, DCUs must handle increasing data loads, higher currents, and tighter power requirements. Panasonic Industry provides an extensive lineup of components engineered specifically for these challenges: Component Type Key Features Conductive Polymer Hybrid Capacitors Low ESR, high ripple tolerance Automotive Power Inductors High current, low loss High‑Precision Chip Resistors High accuracy, high thermal reliability Chip Varistors ESD protection for various communication speeds ESD Suppressors Ultra‑low capacitance for high‑speed lines These components support miniaturization , efficiency , reliability , and high‑speed performance —all essential for next‑generation DCU design. Ready to Start Your DCU Design? If you're developing automotive ECUs, ADAS platforms, or central computing modules, explore Panasonic components on Farnell: Panasonic's advanced passive components can help you enhance reliability, reduce board size, and meet the strict demands of modern autonomous driving systems.Miniaturization Solutionspolymer capacitorsPower Inductorsautonomous drivingFunctional Safety ComponentsIn‑Vehicle Networkspanasonic industryAutomotive Reliabilityautomotive electronicshigh precision resistorsHigh‑Frequency SwitchingHigh Current DesignDC/DC ConverterLow Loss Componentszonal architectureHybrid Aluminum Capacitorsesd protectionadasNoise SuppressionVehicle Central ComputingDomain Controller DesignHigh‑Speed CommunicationsEMI/ESD ProtectionDomain Control Unit (DCU)Automotive Power SupplyECU Power Managementhttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/cameras-used-in-adas-and-autonomous-driving-systemsWed, 18 Feb 2026 01:01:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:fe87ecb9-267d-4bba-9636-89650281bd76riyo@panasonic1. What Types of Cameras Are Used in ADAS and AD Systems? Automotive cameras are essential sensing devices that help vehicles interpret their surroundings. In both Advanced Driver Assistance Systems (ADAS) and Autonomous Driving (AD), cameras work alongside radar, LiDAR, and ultrasonic sensors to build a multi‑directional understanding of the environment. Modern vehicles typically integrate three primary camera categories : • Sensing Cameras (Forward‑Facing) Mounted near the top of the windshield, these cameras monitor a wide forward area to support key safety functions such as lane keeping, lane changing, traffic sign detection, and automatic emergency braking. • Surround View Cameras Installed at the front, rear, and both sides of the vehicle body, these cameras capture near‑range images to create a 360° view. They support parking assist and low‑speed maneuvering. • Driver Monitoring Cameras Positioned near the instrument cluster, these cameras track the driver’s condition, including eye closure, gaze direction, and signs of drowsiness or inattention. Each camera type serves different operational goals, yet all contribute to safer, more automated driving experiences. 2. Uses and Functions of Each Camera Type Different ADAS/AD features depend on specific camera modules. Below is an overview of their major applications: Sensing Cameras Used for decision‑making and control actions: Lane Keep Assist (LKA) Lane Change Assist (LCA) Autonomous Emergency Braking (AEB) Forward collision avoidance Traffic sign recognition These cameras play a central role in higher‑level AD systems where precise object detection and classification are essential. Surround View Cameras Primarily used for: Parking assistance Close‑range obstacle detection Surround visualization in the cockpit display These cameras help drivers—and autonomous systems—understand vehicle positioning in tight spaces. Driver Monitoring Cameras (DMS) Used for: Assessing the driver’s alertness Detecting fatigue or inattention Monitoring head pose and gaze direction As global regulations evolve, DMS is becoming mandatory in many markets. 3. Internal Configuration of Automotive Cameras Although sensing, surround view, and driver monitoring cameras differ in purpose, their internal architectures share common building blocks. Sensing Cameras & Driver Monitoring Cameras These modules typically include: Image Sensor – Converts incoming light into electrical signals. SoC (System-on-Chip) – Performs image analysis, object recognition, and high-speed processing. MCU – Issues control commands to external ECUs. Transceiver – Handles data communication with ADAS/AD ECUs. DDR Memory – Provides high‑speed data buffering. Flash Memory – Stores firmware and calibration data. Surround View Cameras This type uses multiple image sensors , each positioned around the vehicle. Captured images are transferred to a Surround View ECU , where an FPGA or high‑performance SoC synthesizes them into a single omnidirectional view. Because of the volume of image data involved, communication bandwidth and processing speed are especially critical. 4. Market Trends and Camera Module Requirements With increasing vehicle production and the rapid evolution of autonomous driving, camera units are expected to grow in both quantity and capability. Future camera modules are increasingly driven by three major performance demands: 4.1 Higher Power Capability Rising image sensor resolutions Higher dynamic range performance More advanced SoCs requiring substantial computational power These factors raise internal losses and thermal loads, demanding high‑current, low‑loss components. 4.2 Higher‑Speed Data Transmission As image data volumes grow, communication interfaces require: High‑frequency performance Low‑parasitic components High‑speed EMI/ESD protection Automotive Ethernet and other high‑rate protocols rely heavily on robust passive components. 4.3 Miniaturization and Weight Reduction Compact camera modules reduce vehicle weight, simplify mounting, and enhance design flexibility. Achieving this requires smaller yet more capable capacitors, inductors, and resistors. 5. Circuit Configuration of Each Camera Module The following components constitute the core circuitry of sensing and driver monitoring cameras: • Image Sensor Captures visual data and converts light into electrical signals. • SoC Processes images, performs recognition algorithms, and generates control outputs. • MCU Handles operational commands and coordinates with system‑level ECUs. • Transceiver (High‑ and Low‑Speed) Supports communication with other vehicle systems. • DDR Memory Acts as a buffer for real‑time image processing. • Flash Memory Stores firmware, system configuration, and calibration parameters. • DC/DC Converters Provide regulated voltages for image sensors, memory, SoCs, and communication ICs. These power stages must address noise suppression, fast transient response, and minimal ripple to prevent image degradation. Surround view camera A camera ECU and surround view ECU are used to make up a surround view camera. Unlike other types of camera modules, multiple camera units are mounted on a vehicle to make up the surround view camera. Therefore, transceiver circuits must communicate larger amounts of data. An FPGA is used to integrate the acquired image data into one, where image processing is performed at high speed. Other configurations are the same as those of sensing cameras and driver monitoring cameras. 6. Specific Component Examples and Their Applications Both DC/DC converter circuits and transceiver interfaces rely heavily on high‑performance passive components. Panasonic’s automotive‑grade devices play key roles in achieving reliable and compact designs. 6.1 DC/DC Converter Components DC/DC converters commonly integrate: Conductive Polymer Hybrid Aluminum Electrolytic Capacitors Ideal for: Noise reduction Smoothing output ripple High‑frequency filtering Key benefits: High capacitance with low ESR Excellent ripple current handling Stable performance across wide frequencies Automotive Power Inductors Used for: Efficient voltage conversion High‑current power stages Key benefits: Metal composite materials for low core loss Excellent current handling Reduced AC resistance at high switching frequencies High‑Precision Chip Resistors Used for: Voltage measurement and sensing Feedback control accuracy Key benefits: Thin‑film structures with low temperature coefficients Accurate resistance values for stable regulation Components used in a DC/DC converter 6.2 Transceiver Interface Components Transceiver circuits often face ESD and EMI challenges because they interact directly with external communication lines. Chip Varistors Used for: ESD suppression Noise filtering on CAN, Ethernet, and LVDS lines Key benefits: Wide capacitance range (suitable for various speeds) Effective noise absorption without harming signal quality ESD Suppressors Used for: Protecting high‑speed interfaces Ensuring signal integrity in fast communication links Key benefits: Ultra‑low capacitance (~0.1 pF range) Ideal for high‑speed automotive Ethernet Panasonic’s protective components provide robust safeguarding for critical transceiver ICs. Components used in a transceiver IF Components used in a transceiver IF 7. Panasonic Product Lineup and Key Advantages As camera systems advance, automotive components must deliver: High current capability Low loss and reduced heat generation High‑frequency operation Compact size Long‑term reliability Precision measurement capability Panasonic Industry provides a wide portfolio tailored to these demanding requirements: • Conductive Polymer Hybrid Aluminum Electrolytic Capacitors Low ESR, high ripple durability Ideal for miniaturized high‑current designs • Automotive Power Inductors Low loss at high frequencies Stable performance for compact power stages • High‑Precision Chip Resistors Tight tolerance, high heat resistance • Chip Varistors Wide capacitance options for CAN to Ethernet • ESD Suppressors Ultra‑low capacitance for high‑speed digital lines These components are readily available through Farnell, enabling engineers to design robust, next‑generation ADAS camera modules.Aluminum Electrolytic Capacitorspanasonic industrycapacitorsSMD Componentspanasonicpassive componentsSurface Mount Capacitorselectronic componentshttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/lidar-technology-in-autonomous-driving-a-practical-guide-to-key-componentsTue, 03 Feb 2026 01:47:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:dcbf5ab0-d4e7-4897-b52f-6edc6501cd45riyo@panasonic1. What Is LiDAR? LiDAR (Light Detection and Ranging) is a sensing technology that measures the distance to objects by emitting laser pulses and capturing the reflected light. The combination of emission direction and time‑of‑flight enables the generation of a high‑resolution 3D point cloud, which is widely used in ADAS and autonomous driving systems. As vehicle automation advances, the adoption of LiDAR is expected to grow steadily. Optical element Optical axis varying method Type Scanning LD, PD Mechanical method Rotation by a motor A number of LDs and PDs are rotated by a motor to scan the whole area. Polygon mirror Respective optical axes of a single LD and a single PD are varied by a polygon mirror in scanning. Non-mechanical method (solid-state) MEMS mirror Respective optical axes of a single LD and a single PD are varied by a MEMS mirror in scanning. Phased array Respective optical axes of a single LD and a single PD are varied by a waveguide in scanning. Flash Light from a light source, such as an LED, is emitted over a wide area, and reflected light is collectively scanned by an array of PDs. 2. How LiDAR Measures Distance and Recognizes Objects Distance Measurement A laser diode emits a pulse toward an object. A photodiode receives the reflected light. The distance is determined from the time between emission and reception. Object Recognition By repeatedly scanning in multiple directions, LiDAR creates a point cloud. This data is used to: Identify obstacles Build dynamic 3D maps Estimate and correct the vehicle’s position in real time 3. Market Trends and Technical Requirements As autonomous driving levels increase, LiDAR systems must meet three key requirements: Requirement Reason Higher power Higher‑resolution sensing increases CPU load and power demands. Faster communication High‑frequency and high‑speed data transfer is essential to process large point clouds. Smaller size & lighter weight Vehicles incorporate more sensors, requiring miniaturized components. 4. LiDAR System Overview A LiDAR unit typically consists of: Laser Diode (LD) : Emits high‑speed laser pulses Photodiode (PD) : Converts received light into electrical signals Amplifier for the PD output FPGA : Handles high‑speed data processing MCU : Controls system operation Transceiver : CAN/Ethernet communication DDR & Flash Memory DC/DC Converters : Provide necessary voltage rails 5. Key Circuits and Recommended Components 5‑1. DC/DC Converter Circuit High‑performance LiDAR requires stable, low‑noise power. Recommended Components Function Component Key Features Noise filtering & smoothing Conductive polymer hybrid aluminum electrolytic capacitor Low ESR, high ripple tolerance, excellent high‑frequency behavior Voltage conversion Automotive power inductor High current capability, low loss, low ACR Voltage measurement High‑precision chip resistor Low resistance tolerance, low TCR for accurate control 5‑2. Transceiver Interface (CAN / Ethernet) Because communication lines are exposed to ESD, protection devices are critical. Recommended Components Chip varistor ESD suppressor (ultra‑low capacitance) Key points: Chip varistors cover a wide capacitance range (8–250 pF) for low → high‑speed communication ESD suppressors (0.1 pF) are optimal for high‑speed interfaces 5‑3. Photodiode Light‑Receiving Circuit Reflected laser light is weak and must be amplified with high precision. Recommended Components High‑precision chip resistor → Sets amplifier gain NTC thermistor → Temperature compensation Why they matter: Low‑TCR thin‑film resistors ensure stable gain High‑reliability thermistors maintain accurate sensing across temperatures 5‑4. Laser Diode Irradiation Circuit A GaN FET is typically used to deliver high‑speed, high‑power pulses. Recommended Components Small, high‑power chip resistor (gate resistor) Key advantage: Original resistance pattern and electrode design support high‑power switching while enabling device miniaturization 6. Conclusion As autonomous vehicles adopt more LiDAR units, the demand for electronic components offering: Low loss High current capability High‑frequency performance Compact size & high reliability will continue to grow. Panasonic Industry offers a broad portfolio—including hybrid capacitors, automotive inductors, high‑precision resistors, varistors, ESD suppressors, and thermistors—that aligns well with these requirements. Component Feature Large current Low loss High frequency Small size High precision Conductive polymer hybrid aluminum electrolytic capacitor Low ESR High reliability ✔ ✔ ✔ ✔ Automotive power inductor Large current, low loss High reliability ✔ ✔ ✔ ✔ Chip resistor (high-precision chip resistor) Chip resistor (small and high-power chip resistor) High precision, high resistance to heat ✔ ✔ Chip varistor Small and light ✔ ESD suppressor Low capacitance Ultrafast data I/F ✔ ✔ NTC thermistor (chip type) Small, high resistance to heat ✔ ✔DDR memoryGaN FETEV / HEV Componentsautonomous drivingautomotive inductorsEMC / ESD ProtectionHigh-Temperature ComponentsHigh-Speed CommunicationESD SuppressorsAutomotive Reliabilityautomotive electronicsVehicle Sensorslidarhigh precision resistorsPoint CloudDC/DC ConverterLaser Diode (LD)flash memoryadashybrid capacitorsSensor Technologymcuvaristorspower managementsignal processingPhotodiode (PD)3D SensingthermistorsAnalog Front-Endhttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/why-terminal-temperature-based-ratings-matter-in-modern-electronics-designMon, 26 Jan 2026 06:14:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:d4e9eb96-48dd-4396-a133-6b8cc519d0d2riyo@panasonicA Practical Guide to Panasonic Industry Chip Resistors As electronic devices continue to shrink while delivering ever-greater performance, thermal design has become one of the most critical—and often underestimated—challenges in circuit development. Highly integrated ICs and densely packed surface‑mount components generate more heat than ever before, placing new demands on designers tasked with ensuring long‑term reliability. To address these challenges, Panasonic Industry promotes a design approach that is rapidly becoming essential in advanced PCB development: terminal‑temperature‑based power rating . This technique provides far more accurate guidance than traditional ambient‑temperature‑based ratings—especially for today’s compact SMD resistors. In this article, we explain why terminal temperature matters, how to measure it correctly, how international standards (including JEITA) are evolving, and how Panasonic’s chip resistors can help ensure reliable, thermally sound circuit performance. 1. From Leaded Components to SMD: Why Thermal Behavior Has Changed Historically, through‑hole (leaded) resistors dissipated most of their heat—up to 90%—directly into the surrounding air. Their rated power was therefore determined with ambient temperature as the reference point . Today’s electronics, however, rely heavily on surface‑mount resistors , which behave very differently: Leaded Resistors Large surface area → excellent heat dissipation through convection and radiation Minimal heat transfer to the PCB Ambient temperature is the dominant variable Heat effect image of resistor with leads With thin and long lead terminals, the component conducts (releases) a small amount of heat to the mounting board. The large surface area of the component allows for great convection, radiation, and dissipation of heat. Surface‑Mount Chip Resistors Very small surface area → limited convection and radiation Large solder‑pad contact area → significant heat conduction into the PCB Strongly affected by neighboring components’ heat Because SMD resistors experience heat not only from their own power dissipation but also from the board, relying solely on ambient temperature can lead to significant errors in power‑rating calculations. Heat effect image of surface-mounted component Having connection terminals with a large contact area, the component conducts (releases) a large amount of heat to the mounting board. The small surface area of the component lessens the ability of convection, radiation, and dissipation of heat. 2. Why Terminal‑Temperature‑Based Specification Is Becoming Essential To solve this mismatch, manufacturers—including Panasonic Industry—have adopted a more precise method: measuring power rating based on terminal temperature rather than ambient air temperature. This approach allows engineers to: Quantify the exact thermal load applied to a resistor during operation Reduce design uncertainty caused by complex heat flow within a dense PCB Improve prediction accuracy for component lifetime and failure risk The trend has grown strong enough that industry organizations such as JEITA have begun issuing study reports and guidance documents, including RCR‑2114: Study for the derating curve of fixed surface‑mount resistors , which Panasonic follows when defining its product specifications. 3. Measuring Terminal Temperature: Methods and Key Considerations Terminal temperature can be measured using two common tools: Method Advantages Limitations Thermocouple High accuracy, direct measurement Requires physical contact; heat conduction through wires may distort readings Infrared thermography Contactless, easy to use, wide temperature range Cannot measure through glass; requires high surface emissivity (may need black coating) Because many practical evaluations occur at the prototype stage and involve very small components, thermocouples are the most commonly used tool . 3.1 Choosing the Right Thermocouple Thermocouples vary in heat conductivity and measurement characteristics: K‑type Ideal for chip resistors due to low heat conductivity and minimal thermal interference. T‑type Highly accurate but conducts heat more easily, which can artificially lower the reading on small components. For reliable results, selecting a thermocouple with thin wires and low thermal mass is essential. 3.2 How to Prepare and Attach a Thermocouple Correctly To ensure accurate readings: Properly weld the wire tips Twisting or soldering the wires together is not enough Use spot‑welding to form a small, stable junction Avoid oversized or crossed wire tips An oversized joint or a stray wire can act as a heat sink This causes temperature readings to fluctuate or drop artificially Attach precisely to the center of the solder fillet Placing the junction near the edge or outside of the fillet compromises accuracy The thermocouple must be exactly at the intended thermal reference point Panasonic’s evaluation examples emphasize correct positioning, as shown in their measurement diagrams. 3.3 Sources of Measurement Error Even when the thermocouple is attached correctly, two main factors may introduce errors: Lot‑to‑lot inconsistency in the thermocouple’s electromotive characteristics Voltage measurement error in the data logger (channel‑to‑channel variation) Engineers should always account for these factors when interpreting measurement results. 4. Selecting Components Based on Terminal‑Temperature Rating Panasonic Industry provides both ambient‑temperature‑based and terminal‑temperature‑based ratings in many resistor datasheets. A sample from the ERJPA3 (0603) series illustrates how both specifications coexist: Ambient‑Temperature‑Based Derating Example 105 °C → 100% rated power 135 °C → 40% rated power Terminal‑Temperature‑Based Derating Example 130 °C → 100% rated power 135 °C → 80% rated power In cases where both ratings are listed and the design environment is complex (high density, high heat flow), Panasonic recommends prioritizing the terminal‑temperature‑based rating for greater design accuracy. 5. Why This Matters for Today’s Designers As electronics continue to evolve toward higher power density and smaller footprints, thermal reliability becomes a determining factor in product lifespan and performance. Terminal temperature offers a more reliable metric than ambient conditions, especially for SMD resistors mounted on densely populated PCBs. Key takeaways: SMD resistors experience significantly more board‑influenced heating than leaded components Terminal‑temperature‑based rating produces more accurate real‑world load calculations Using the correct thermocouple and attachment technique is critical to obtaining reliable data Panasonic Industry provides clear, JEITA‑aligned specifications to support accurate thermal design Explore Panasonic Chip Resistors on Farnell Panasonic Industry offers a broad lineup of high‑reliability chip resistors engineered for stable performance under demanding thermal conditions. Browse Panasonic chip resistors on Element14 ERJ‑P Series – High‑power, high‑reliability thick‑film resistors ERJ‑H Series – High‑precision, low‑TC components for tight‑tolerance design By integrating terminal‑temperature‑based evaluation into your workflow, you’ll achieve more robust circuit designs—and selecting Panasonic’s thermally optimized resistors will help ensure your products perform reliably in even the most demanding applications.panasonic ERJ seriessurface-mount resistor thermal designhigh power chip resistorSMD resistor power ratingterminal temperature ratingpanasonicthermocouple temperature measurementPCB thermal managementJAITA resistor standardresistor derating curvePanasonic Chip Resistorshttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/advancing-electrolytic-capacitor-technology-achieving-ultra-low-esr-for-high-reliability-applicationsTue, 16 Dec 2025 07:37:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:02dfb338-c3d5-4edd-a91d-d0b0f5e353efriyo@panasonic1. Introduction Electrolytic capacitors remain a trusted choice for engineers due to their high ripple current capability, reliability, and cost-effectiveness. However, as power electronics evolve—especially in automotive and industrial sectors—the demand for low ESR (Equivalent Series Resistance) has become critical for efficiency and stability. 2. What is ESR and Why Does It Matter? ESR represents the resistive component within a capacitor’s equivalent circuit. It influences: Power efficiency : High ESR increases losses and heat generation. Ripple voltage : Low ESR ensures cleaner, stable power for microprocessors. System reliability : Lower ESR extends capacitor life and improves control loop stability. 3. Advantages of Low ESR Capacitors Reduced ripple voltage for stable power delivery. Enhanced energy efficiency and compliance with global standards (ENERGY STAR, EU Code of Conduct). Longer operational life due to minimized internal heating. 4. Panasonic’s Low ESR Solutions Panasonic offers one of the industry’s most comprehensive portfolios of low ESR electrolytic capacitors, available in THT (Through-Hole) and SMD (Surface-Mount) configurations. 4.1 THT Series Highlights FR Series : Ultra-low impedance (as low as 12 mΩ at 100 kHz, 20°C), 10,000-hour life at 105°C. TP Series : High-temperature endurance up to 135°C for 2,000 hours. EE Series : Exceptional ripple current capability, ideal for high-voltage applications. 4.2 SMD Series Highlights FK Series : Broad offering for miniaturized designs, low ESR ideal for high-efficiency systems. FT Series / FP Series : ESR values down to 60 mΩ in compact packages. TCU Series : Automotive-grade, AEC-Q200 qualified, vibration-proof options available. 5. Automotive and Industrial Applications Automotive ECUs : High ripple current handling for DC/DC converters. Industrial Power Supplies : Stable filtering under harsh conditions. Driverless Car Systems : High-temperature and vibration-proof designs for safety-critical electronics. 6. Why Choose Panasonic? Extensive product range for diverse applications. Proven reliability under real-world conditions. Compliance with AEC-Q200 and global efficiency standards. Explore Panasonic’s full range of low ESR electrolytic capacitors on Element14 . PANASONIC Capacitors | Farnell® UKlow ESR capacitorsindustrial equipmentVibration-ProofAEC-Q200 Qualifiedautomotive electronicsLong Lifetimeelectrolytic capacitorsDC/DC ConverterminiaturizationHigh Temperature EnduranceSurface Mount Capacitors (SMD)Driverless Car SystemsPower Supply Filteringlow esrhigh ripple currentenergy efficiencyAluminum CapacitorsThrough-Hole Capacitors (THT)https://community.element14.com/products/manufacturers/panasonic/b/blog/posts/radar-in-adas-and-autonomous-driving-systems-why-it-matters-and-how-panasonic-powers-itMon, 01 Dec 2025 01:46:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:92384dd6-3e29-47e9-86c4-988353ed1f9eriyo@panasonicRadar: The Backbone of Advanced Driver Assistance Radar technology is a critical sensing solution for Advanced Driver Assistance Systems (ADAS) and Autonomous Driving (AD) . By using millimeter-wave radio signals, radar detects objects and obstacles around a vehicle—even in challenging conditions like rain or fog. This capability makes radar indispensable for safe and reliable driving. How Radar Works Radar measures distance by emitting radio waves and analyzing the time it takes for the reflected signal to return. Common automotive radar frequencies include 24 GHz, 77 GHz, and 79 GHz , with 79 GHz expected to dominate due to its superior resolution. Unlike cameras or LiDAR, radar performs well in poor visibility. Cameras excel at color and shape recognition but struggle in bad weather, while LiDAR offers high-resolution 3D imaging but loses accuracy in rain or snow. Radar complements these sensors, creating a robust multi-sensor system for enhanced safety. Market Trends: Why Radar Demand Is Rising With the rise of autonomous vehicles and mandatory safety features like automatic braking, radar adoption is accelerating. Higher frequencies improve detection accuracy but also increase data processing loads, creating new challenges for electronic components. Future radar systems demand: High Power : To handle increased processing loads. Heat Resistance : Preventing performance degradation in compact designs. Compact Size & Lightweight : Essential for modern automotive architectures. Inside a Radar System: Key Components A radar unit consists of: High-Frequency RF Circuit : Handles millimeter-wave transmission and reception. Antennas : For signal transmission and reception. MCU (Microcontroller) : Controls radar operations. Transceiver : Interfaces with external systems via CAN or Ethernet. DC/DC Converter : Regulates voltage for each component. Panasonic Solutions for Radar Systems Panasonic offers cutting-edge components designed for automotive radar applications: DC/DC Converter Components Conductive Polymer Hybrid Aluminum Electrolytic Capacitors High capacitance, low ESR, excellent ripple suppression. Ideal for noise filtering and voltage smoothing. Explore Capacitors → Automotive Power Inductors Low loss, high current capability, optimized for high-frequency switching. Explore Inductors → High-Precision Chip Resistors Thin-film design for accurate voltage measurement and control. Explore Resistors → Transceiver Interface Protection Chip Varistors & ESD Suppressors Protect against electrostatic discharge and noise without compromising signal integrity. Explore Varistors → Why Choose Panasonic for Radar Applications? Panasonic components deliver: High Current Handling Low Loss Performance Compact Size High Precision Reliability in Harsh Conditions As radar technology evolves, Panasonic continues to provide solutions that meet the demands of next-generation ADAS and autonomous driving systems. Panasonic Components for Radar Systems Panasonic offers a wide range of components optimized for radar applications: Component Features Large Current Low Loss Compact Small Size High Precision Hybrid Aluminum Electrolytic Capacitors Low ESR, High Reliability ✔ ✔ ✔ ✔ Automotive Power Inductors High Current, Low Loss ✔ ✔ ✔ ✔ High-Precision & High-Power Chip Resistors High Accuracy, Heat Resistance ✔ ✔ Chip Varistors Compact, Lightweight ✔ Ready to Design Your Radar System? Discover Panasonic’s full lineup of automotive components for radar applications on Panasonic Industry. Empower your ADAS design with components engineered for performance and safety.Automotive Safety SystemsAutomotive Radar Solutionautonomous drivingESD communicationRadar sensorautomotive power inductorobject detectionpanasonic industryautomotive electronicsPanasonic Automotive ComponentsDC/DC ConverterHigh-Frequency ElectronicsLiDAR vs RadarRF Circit Designdistance measurementChip VaristorsadasCAN communicationAutomotive radarhigh precision chip resistorRadar System ArchitectureCompact Automotive DesignAutonomous Vehicle TechnologyConductive Polymer Hybrid CapacitorHigh-Resistant Componentssensor fusionMillimeter-wave technologyhttps://community.element14.com/products/manufacturers/panasonic/b/blog/posts/what-is-an-on-board-charger-obc-in-electric-vehiclesWed, 19 Nov 2025 01:38:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:9c476005-239f-4f9c-abef-b35cc0bc4d29riyo@panasonic— Panasonic’s High-Efficiency AC/DC Conversion System for Faster EV Charging — As electric vehicles (EVs) and plug-in hybrid electric vehicles (PHEVs) become increasingly common, the demand for faster and more efficient battery charging grows. At the heart of this process is the On-Board Charger (OBC) — a critical system that converts AC power from charging stations into DC power suitable for vehicle batteries. In this article, we’ll explore the role of OBCs, their system architecture, and the Panasonic components that enable high-performance, compact, and reliable charging solutions. What Does an On-Board Charger (OBC) Do? An OBC is a power conversion system installed in EVs and PHEVs. It transforms AC power from residential or public charging stations into DC power required by the vehicle’s battery. Most OBCs operate in the 3.6kW to 22kW range, depending on regional standards and vehicle specifications. ⚡ Types of EV Charging ・Normal charging In normal charging, the battery is charged to full. The battery of an EV is charged with AC voltage from a private residents' charging equipment or a public charging station. Generally, charging the battery fully takes about eight hours. In the case of normal charging, the OBC incorporated in the vehicle converts AC voltage into DC voltage applicable to the vehicle battery. ・Quick charging Quick charging is charging to refill the battery in a short time. In quick charging, the charging station supplies DC voltage corresponding to the battery voltage, charging up the vehicle battery in a short time by quickly feeding the battery with large power. Quick charging, in general, takes about 30 minutes to 1 hour to finish, depending on the battery capacity. You will find those chargers for EVs in a lot of expressway rest areas, commercial establishments, etc. Charging Type Power Source Location OBC Usage Charging Time Purpose Normal Charging AC (200V/400V) Home, Office Converts AC to DC ~8 hours Full battery charge Fast Charging DC (direct output) Highways, Commercial Facilities Not used ~30–60 minutes Quick top-up Normal charging relies on the OBC to convert AC to DC, while fast charging bypasses the OBC by supplying DC directly to the battery. Battery Capacity & OBC Output Battery capacity varies by vehicle type (compact, SUV, sports car). OBC output is designed to fully charge the battery within approximately 8 hours, with regional variations in specifications. Market Trends & Component Requirements As EV adoption accelerates, OBCs must evolve to support: Higher output power Faster charging times Smaller battery sizes To meet these demands, electronic components must offer: High voltage tolerance Large current capacity Low power loss High heat resistance Compact design OBC System Architecture The OBC system consists of multiple circuits: Voltage Measurement (Input/Output) – Controls conversion accuracy using high-precision chip resistors. Noise Filters (Input/Output) – Suppress external and internal noise using automotive-grade film capacitors. Full-Wave Rectifier & PFC Circuit – Converts AC to DC and improves efficiency using capacitors and inductors. Voltage Conversion Circuit – Uses transformers and switching elements with noise-suppressing resistors. DC/DC Converter – Powers control circuits using hybrid aluminum electrolytic capacitors and power inductors. Communication Interface – Protects transceiver ICs from ESD using chip varistors. Panasonic Components for OBC Systems Panasonic offers a wide range of components optimized for OBC applications: Component Features High Voltage High Current Low Loss Compact Heat Resistant High Precision Hybrid Aluminum Electrolytic Capacitors Low ESR, High Reliability ✔ ✔ ✔ ✔ ✔ Automotive Power Inductors High Current, Low Loss ✔ ✔ ✔ ✔ High-Precision & High-Power Chip Resistors High Accuracy, Heat Resistance ✔ ✔ ✔ ✔ ✔ Chip Varistors Compact, Lightweight ✔ Automotive Film Capacitors High Reliability ✔ ✔ These components are designed to meet the evolving needs of EV charging systems, ensuring safety, efficiency, and scalability. Explore Panasonic’s OBC Solutions Panasonic’s advanced electronic components are engineered to support the next generation of EVs. Whether you're designing for high power, compact size, or fast charging, our lineup offers the reliability and performance your system demands.EV Battery Managementdesign engineeringEV Charging SystemAutomotive Film Capacitorschip resistorsAC/DC Converterautomotive electronicsPower Factor CorrectionDC/DC ConverterOBCPanasonic InductorsOn-Board ChargerPanasonic ComponentsFast Charging EVpassive componentsElectric Vehicle Power SupplyautomotiveHigh Voltage Componentspower managementEV Charginghybrid aluminum electrolytic capacitorsPanasonic Capacitorshttps://community.element14.com/products/manufacturers/panasonic/f/forum/56384/what-are-the-storage-requirements/231772Mon, 10 Nov 2025 21:25:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:f9e45033-8460-48b2-be8c-6c997754ee64beacon_daveMore like copying each item in the FAQ list into a separate forum entry. https://industrial.panasonic.com/ww/faq/capacitorshttps://community.element14.com/products/manufacturers/panasonic/f/forum/56384/what-are-the-storage-requirements/231771Mon, 10 Nov 2025 20:25:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:a8ff3b68-23be-4fff-87ff-e9248b172033kmikemooIt seems like AI isn't AI-ing - just spewing random snippets of a user manual.https://community.element14.com/products/manufacturers/panasonic/f/forum/56383/what-is-its-failure-mode/231770Mon, 10 Nov 2025 20:20:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:f4aebdf1-de63-4d0b-bc0d-246024bcd0b7kmikemooI feel like I joined a conversation here well after it started.https://community.element14.com/products/manufacturers/panasonic/f/forum/56383/what-is-its-failure-mode/231761Mon, 10 Nov 2025 14:22:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:5cd0a22f-2020-4760-aa94-69543bae2b17michaelkellettPerhaps sometimes it fails to fail at all. MKhttps://community.element14.com/products/manufacturers/panasonic/f/forum/56383/what-is-its-failure-mode/231760Mon, 10 Nov 2025 14:10:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:6140b49f-0bba-4ce1-974e-b42190163e14shabazLooks like a copy from here: https://industrial.panasonic.com/ww/faq/faq0003 However that in itself was originally a bad answer too, because anyone asking that would want more detailed information than, to paraphrase, "open circuit but sometimes short".https://community.element14.com/products/manufacturers/panasonic/f/forum/56383/what-is-its-failure-mode/231758Mon, 10 Nov 2025 13:40:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:1e405cea-2313-4874-8138-d670334cebdbJan Cumps?https://community.element14.com/products/manufacturers/panasonic/f/forum/56384/what-are-the-storage-requirements/231757Mon, 10 Nov 2025 13:19:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:ea1ad151-80a9-4510-9cbe-a6bd33fdd43eJan CumpsThis post feels like it's near year end review and quota need to be met?