https://community.element14.com/products/manufacturers/amphenol/Amphenol Corporation is a global manufacturer of interconnect solutions, sensors, and antennas, serving markets such as automotive, aerospace, defense, industrial, and communications.en-USTelligent Community 12https://community.element14.com/products/manufacturers/amphenol/b/blog/posts/how-high_2d00_speed-connectivity-is-enabling-the-next-generation-of-ai-infrastructureMon, 22 Jun 2026 16:37:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:7792e57d-d24b-4248-befb-06eca783c245Julia_St.HilaireArtificial Intelligence is transforming the modern data center. From training large language models to supporting real-time inference applications, AI workloads require unprecedented amounts of data to move between processors, accelerators, storage systems, and network equipment. As bandwidth requirements continue to grow, engineers are being challenged to design systems that can support higher speeds without sacrificing signal integrity, reliability, or power efficiency. This is driving industry adoption of next-generation connectivity technologies, including 224G signaling and advanced high-speed interconnect architectures. Why AI is Pushing Connectivity to Its Limits Traditional data center architecture was not designed for the massive data movement required by today's AI applications. Modern AI clusters may contain thousands of GPUs and accelerators that must communicate continuously across the network. To keep pace with these demands, infrastructure designers are increasing network speeds while reducing latency and power consumption. As the industry transitions toward 224G signaling and beyond, connectivity solutions must support significantly higher data rates than previous generations. Engineering Challenges at Higher Speeds While faster signaling delivers greater bandwidth, it also introduces new design challenges: Signal integrity degradation Increased insertion loss Thermal management concerns Electromagnetic interference (EMI) Mechanical reliability requirements As data rates increase, every connection point in the signal path becomes increasingly critical to overall system performance. The Role of High-Speed Interconnect Solutions Supporting next-generation AI infrastructure requires connectivity solutions specifically engineered for high-speed applications. ACS offers a broad portfolio of interconnect solutions designed to help engineers address these challenges, including: Mini Cool Edge® IO Mini Cool Edge® IO provide compact, high-density connectivity for AI and data center applications. Their design helps enables high-speed signal transmission while supporting the signal integrity requirements of next-generation systems. PCIe® Gen 7 Mini Cool Edge IO ® Advantages: Supports PCIe® Gen 7 architecture Up to 128G PAM4 Supports both cable and card edge connection Designed for high-end computing systems Enables high-speed signal transmission while maintaining signal integrity OSFP 224G Cable Assemblies AI clusters require enormous data movement between switches, accelerators, and compute nodes. ACS OSFP 224G cable assemblies help address these requirements through: 224G PAM4 signaling Aggregate bandwidths up to 1.6T Thermal management features SKEWCLEAR® twin-ax cable technology Designed for high-speed data center and high performance computing applications PCIe® and High-Speed I/O Connectivity Modern AI platforms rely on PCIe-based architectures to connect processors, accelerators, and storage. ACS offers connectivity solutions designed to support evolving PCIe generations and growing bandwidth requirements. Backplane and Board-to-Board Connectivity Reliable board-level interconnects are essential for high-performance servers and networking equipment. ACS backplane and board-to-board solutions help optimize signal integrity while supporting high-density designs. ACS EXAMAX2® Backplane connectors support next-generation networking and compute platforms through: 112Gb/s PAM4 support Meets industry specifications PCIe® 6.0 and 7.0 Beam-on-beam mating interface Industry-leading signal integrity performance 100% backward mating compatibility to previous ExaMAX® products Specifically for AI system architecture, the ExaMax2 High-Speed Backplane Connector videos.amphenol-cs.com/.../the-future-of-ai-data-centers:-oai-2.0-high-speed-rack-architecture-unveiled Preparing for the Future The transition to 224G signaling represents more than a speed upgrade, but rather, it reflects the industry's continued push toward higher-performance computing and AI-driven infrastructure. As organizations build larger and more sophisticated AI environments, connectivity will remain a foundational technology enabling system scalability, reliability, and efficiency. By combining advanced connector technologies, high-speed cable assemblies, and robust interconnect architectures, engineers can better prepare their systems for the bandwidth demands of tomorrow's AI applications. What connectivity challenges are you encountering as bandwidth requirements continue to increase in your designs? Share your experiences in the comments below! videos.amphenol-cs.com/.../the-future-of-ai-data-centers:-oai-2.0-high-speed-rack-architecture-unveiledai infrastructureartificial intelligencedata transmissiondata centersnetworkingacshpcHigh-speed computinghttps://community.element14.com/products/manufacturers/amphenol/b/amphenol-sensors-blog/posts/how-to-boost-data-center-sustainability-with-sensorsThu, 11 Jun 2026 12:46:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:3251a4d4-d0d0-4492-b51a-cbac57c9d89cJulianneCloud computing keeps expanding at lightning speed, but the growth isn’t free. Data centers power everything from online shopping and streaming to AI tools, and in the process, they consume huge amounts of electricity (up to 6.7% – 12% of U.S. by 2028) and water (up to 5 million gallons per day) . With sustainability key performance indicators (KPIs) now part of most corporate strategies, operators are under pressure to shrink their carbon footprint without compromising uptime or performance. Advanced sensing technologies offer a practical path forward. Sensors give operators a real-time look at the conditions that matter most, helping them cut energy use, run cooling systems more efficiently, and stay on top of carbon reduction goals. Why Data Center Sustainability Matters The conversation around sustainability isn’t just a buzzword; it’s a growing expectation from regulators, customers, and communities. Before diving into how sensors help, it’s important to understand why reducing energy, water, and carbon use is such a pressing issue for data center operators. Data centers account for a growing share of global energy demand. According to the International Energy Agency , their electricity use could double by 2026 if left unchecked. All that demand means more carbon in the air and extra pressure on local power. Water is another piece of the puzzle, since cooling systems can use more than communities can spare, especially in places prone to droughts. At the end of the day, efficiency isn’t just about saving money; it’s also about proving you take sustainability seriously. Sensors play a critical role in bridging that gap. They provide the granular insights operators need to understand how much energy and water their systems consume, where waste occurs, and how to correct it in real time. Key Areas Where Sensors Reduce Environmental Impact While sustainability is a broad challenge, it often comes down to a handful of operational factors inside the data center. Sensors give operators the visibility they need to measure, manage, and reduce resource use across power, cooling, water, and emissions. Here are some of the most impactful areas where sensing technology makes a measurable difference. PUE Monitoring Power usage effectiveness (PUE) is one of the most common metrics for tracking data center efficiency . Sensors placed throughout the facility monitor electrical loads across IT equipment, cooling systems, and auxiliary infrastructure. By watching PUE in real-time, operators can quickly spot when something’s off, such as cooling systems pulling more power than the servers they’re meant to support. With that kind of visibility, it’s easier to make targeted changes and put money into upgrades that actually cut energy use. Cooling Optimization & HVAC Control Cooling accounts for nearly 40% of a data center’s total energy use. Temperature and humidity sensors give operators precise visibility into airflow, hot spots, and environmental fluctuations. Here are a few ways facilities apply those insights: Adjust setpoints to reduce unnecessary overcooling. Optimize airflow with hot aisle/cold aisle containment. Balance humidity to reduce static risk and equipment stress. Extend equipment lifespan by avoiding thermal strain. Rather than blasting cool air through the whole facility, operators can use localized data to fine-tune HVAC performance. In practice, that might mean running the room a little warmer, fine-tuning airflow to trouble spots, or arranging systems in a smarter way. Done right, it cuts back on energy use and helps the equipment last. Water Conservation Water scarcity is becoming a global issue, and data centers with H2O-intensive cooling methods face increasing scrutiny. Flow and pressure sensors provide insight into the amount of water that cooling towers and chiller systems consume. Armed with accurate data, operators can transition to hybrid or air-based cooling solutions, adjust water cycles for efficiency, or even reclaim water for reuse. These steps directly reduce a facility’s environmental footprint while supporting sustainability KPIs. Air Quality & Carbon Emissions Tracking As sustainability rules get tougher, operators need to track more than just energy and water use – they also have to keep an eye on greenhouse gas emissions. Gas sensors can measure CO₂ and other pollutants in and around the facility, giving teams a clearer picture of their impact. Indoor air quality sensors add another layer of protection, making sure conditions stay safe for both equipment and the people who work there. Together, this data feeds into ESG reports and shows investors and regulators that the facility is committed to being transparent and accountable. From Reactive to Predictive Sustainability Once the fundamentals of efficiency are in place, the next step is moving beyond short-term fixes. Sensors enable operators to anticipate issues before they escalate, shifting the strategy from damage control to long-term sustainability planning. One of the most powerful aspects of advanced sensing is the shift it enables from reactive maintenance to predictive sustainability. Instead of waiting for inefficiencies to balloon into larger problems, operators can act proactively. For example, vibration and thermal sensors detect early signs of equipment strain. Addressing these issues before failure prevents both downtime and the excessive energy draw caused by inefficient machines. Over time, predictive insights powered by sensors help create a truly energy-efficient data center – one that aligns with global sustainability goals and corporate commitments. Meeting Today’s Sustainability KPIs With Sensors Sustainability goals are no longer optional checkboxes; they’re tied directly to business reputation and compliance. Here’s how advanced sensing helps operators demonstrate measurable progress toward carbon, water, and energy reduction targets. Sustainability KPI Relevant Sensors Example Benefit Energy Efficiency Power, thermal, vibration Reduce PUE, catch inefficient equipment early Water Conservation Flow, pressure Track usage, optimize cooling tower cycles Carbon Emissions Gas, air quality Monitor CO₂ output and improve ESG reporting Equipment Reliability Vibration, temperature Prevent downtime and cut excess energy draw Data centers are under growing pressure to shrink their environmental footprint, but tackling the problem doesn’t have to feel overwhelming. Sensors give operators a practical way to track carbon emissions, water use, and energy consumption, and then make changes based on real data. When facilities invest in smarter monitoring, they’re not just checking boxes for today’s sustainability goals. They’re also showing customers, investors, and regulators that they take environmental responsibility seriously – which builds trust in an industry that’s always in the spotlight. Moving Forward With Sensors The push for greener data centers is ongoing, and there’s no single solution. But by embedding sensors throughout their infrastructure, operators gain the insights and control needed to make meaningful changes today, and prepare for stricter requirements tomorrow. Data centers may never be completely “green,” but sensors bring them much closer to the goal of responsible, sustainable operations. Through PUE tracking, smarter cooling, maintaining optimal environmental conditions, emissions monitoring, and predictive maintenance, sensors equip operators with the insights to lower their footprint and still meet the world’s rising demand for digital services.sensorscustom sensorsdata centersSensor Technologysensor manufacturerhttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/powering-the-skies-how-interconnects-makes-or-break-drone-performanceWed, 29 Apr 2026 13:59:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:17fc4809-bc46-4cdb-a0dd-76d44b7acae1CalvinTerenceConsumer drones have become the go-to tool for areal videography, from wedding footage to adventure vlogs. Meanwhile, Commercial UAVs are quietly transforming how we farm, inspect infrastructure, and even deliver goods. What both have in common is an engineering challenge that rarely makes the headlines: fitting reliable, high-performance electronics into a frame that weighs less than a bag of rice. Every gram count when battery capacity determines how long you stay airborne. And every connection counts when a loose wire over a field — or a construction site — means losing a mission-critical asset. That's where connector design becomes less of a spec-sheet concern and more of a flight-safety one. Amphenol's interconnects are engineered specifically for these constraints, addressing the power, data and sensing demands of modern drone platforms across every major subsystem. The hard design of drone design Before getting into the hardware, it's worth understanding what makes drone connectivity so demanding. Engineers working on these platforms are fighting on several fronts simultaneously: SWaP constraints (Size, Weight, and Power) mean every connector must earn its place. Ultra-miniature interfaces that fit dense boards aren't a nice-to-have — they're a prerequisite for competitive flight time and payload capacity. Vibration and shock are constant. Propellers generate continuous high-frequency vibration, and drones routinely experience hard landings, sudden gusts, and aggressive maneuvers. Connectors need floating contacts and secure latching to stay reliable across thousands of flight cycles. Environmental exposure ranges from humid coastal air to dusty agricultural fields to sub-zero survey missions. IP67-rated sealing against rain, dust, and temperature swings is a baseline requirement for anything beyond recreational use. Signal integrity under EMI is a particular challenge. High-current motor drive lines run in close proximity to sensitive camera and data interfaces. MIPI, USB, and PCIe signals must coexist with motor drive lines without crosstalk — a problem that gets harder as platforms become more capable and more densely packed. Battery and Power Distribution: The Foundation of Flight Flight time ultimately comes down to how efficiently energy moves from the battery to the motors. But real-world endurance depends on more than raw capacity — it depends on the integrity of every connection in that power chain. The power distribution board sits at the center of this system, routing current from the battery to the electronic speed controllers (ESCs) and flight controller. Any resistance, looseness, or voltage drop here translates directly into reduced performance and, in the worst case, an in-flight shutdown. For consumer drones, this means convenient recharging and predictable battery behavior. For commercial UAVs, it often means hot-swappable packs to support rapid field turnaround between missions — a capability that requires connectors rated for repeated high-current insertion cycles without degradation. DuraSwap and DURASWAP Concentric Connectors are purpose built for this use case, supporting hot swappable, high current battery packs with the cycle life commercial operations demands. For sealed charging ports, Waterproof USB Type C provides a weather-resistant interface, while the HVLock® High Voltage Platform and PwrBlade Mini Cable to Board connectors handle safe, compact power distribution to ESCs and downstream modules. The FlexFast Mini Flex-to-Board rounds out the power subsystem with space efficient flex-to-board interface suited to the right layouts of modern drone platforms. Battery Management Systems: Safety Before Everything Else The BMS is the safety layer between the battery and the drone. It monitors cell voltages and temperatures, balances charge across cells, and tracks cycle history to flag degradation before it becomes a hazard. During high-demand flight — particularly in agricultural drones carrying chemical payloads, or UAVs delivering medical cargo — the BMS is the last line of defense against thermal runaway. The challenge for connector design here is twofold. First, BMS boards live in tight battery compartments with minimal room for connectors with large footprints. Second, the health data they transmit to the flight controller must be reliable even during hard landings and aggressive maneuvering — a false alarm that triggers an emergency landing mid-mission is nearly as costly as a real one. The MicroSpace Crimp-to-Wire Connectors and MicroSpaceXS 1.27mm Waterproof Crimp-to-Wire/Wire-to-Wire Connector address this with vibration-resistant wiring in a compact form factor. The FloatCombo 0.50mm Floating Board-to-Board Connectors absorb board misalignment caused by mechanical stress, while the Minitek127® 1.27mm Cable-to-Board Connector System , Conan® 1.00mm Connector , and FlexFast ™ Mini provide low-profile, tolerance-friendly links suited to the confined geometry of battery compartments. Flight Control and Communication: The Nervous System The flight controller is where everything comes together. It continuously processes inputs from GPS/GLONASS, gyroscopes, compass, barometer, and pilot commands, then instructs each ESC on exactly how much power to deliver to its motor. This feedback loop — running hundreds of times per second — is what allows a drone to hold a perfectly stable hover in a 20-mph crosswind or fly a precise survey grid indoors where GPS is unavailable. Beyond control, the flight controller manages communication with the ground. Consumer platforms prioritize low-latency video streaming and smooth piloting for footage work. Commercial platforms increasingly focus on onboard data capture — PCIe-connected storage for the large datasets generated by LiDAR surveys, multispectral imaging, or 4K inspection video. Tightly stacked boards in the central electronics hub need connectors that maintain clean high-speed signals despite the constant vibration and EMI environment generated by nearby motors. The FitMate ™ 0.80mm Wire-to-Board and Mini HSBridge+ Automotive USB handle control and communication links, while PCIe® M.2 Gen 5 Card Edge Connectors and Micro SD and SD Card Sockets support onboard storage. The 0.35mm Micro Board-to-Board 101 Series and BergStak® 0.40mm Self-Alignment Board-to-Board Connectors provide the dense, precise board-to-board interconnects the compute stack requires. Motor Drives and ESC: Delivering the Thrust Without Compromise The motors are simple in concept - spin fast, generate lift - but the electronics managing them are not. ESCs convert DC battery power into PWM-controlled three-phase drive signals, continuously adjusting motor speed to keep the drone stable. In a quadcopter, two motors spin clockwise and two counterclockwise, so their torques cancel out and the frame stays level. When a gust hits, the flight controller compensates by adjusting all four ESCs simultaneously, in milliseconds. ESC lives close to motors, out on the arms, where they're subject to the worst of the vibration and heat load. Signal and power interconnects in this area need to be short, flexible, and mechanically robust. A connector that works loose here doesn't cause a glitch - it causes a sudden yaw, uncontrolled spin, or crash. 0.50mm FFC/FPC Connectors and 0.50mm Pitch Autolock Connectors provide flexible routing suited to the confined geometry of arm-mounted electronics. FFC Jumper cables handle short, vibration-exposed signal runs, while Spring Contacts maintain reliable electrical contact through mechanical deflection. The Minitek® 0.80mm Wire-to-Board Connector System rounds out the motor drive subsystem with a compact, secure wire-to-board interface designed for high-vibration environments. Vision and Sensing: What Separates a Camera from a Platform A modern commercial drone is less like a flying camera than a flying sensor suite. Stereo vision systems estimate depth by comparing offset images from two cameras. Downward-facing ultrasonic, optical flow, and time-of-flight sensors provide precise altitude hold and stable control during takeoff and landing. Forward-facing obstacle detection systems can identify hazards dozens of meters ahead and reroute autonomously. For specialized applications, thermal cameras detect crop stress and water-use inefficiency across fields. LiDAR payloads build millimeter-accurate 3D models of terrain, structures, or tree canopies. All of this sensor data converges on a central processor for fusion and analysis, routed through a gimbal that isolates the payload from aircraft motion, so the data stays clean. The data rates involved are substantial - multi gigabit video and LiDAR streams, running continuously, across connections that must survive the same vibration environment as everything else on the aircraft. Ve-NET ™ Automotive Multi-Gigabit Differential Connectors and Mini HSBridge+ Automotive USB support the high-bandwidth links between sensors, gimbals, and processors. For fine-pitch board and wire connections within sensor modules, the 0.35mm Micro Board-to-Board 101 Series , MicroSpace ™ , and MicroSpaceXS ™ deliver reliable interconnects in the tightest available footprint. The Bigger Picture Drone platforms are getting more capable, more autonomous and more commercially critical with every product generation. That trajectory puts increasing pressure on the interconnects that hold them together, not just to fit smaller spaces and carry more data, but to do it reliably across years of field operation in demanding conditions. Getting the connector right doesn't make the headline when a drone completes a precision agricultural survey or delivers a medical package on time. But getting it wrong is exactly the kind of failure that grounds a platform, and the mission with it.bmsFlight ControlAmphenol Communications Solutionsmotor drivesDrone Designescinterconnectsbatteryamphenolflightpowerdroneshttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/designs-choices-that-quietly-reduce-system-lifetimeTue, 20 Jan 2026 08:13:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:e7cd947e-066c-41f4-9a97-0645d383f690CalvinTerenceMost systems don't fail suddenly. They wear out quietly - often long before anyone expects - because of design decisions that seemed reasonable at the time. In many cases, reduced system lifetime isn't caused by a single flaw, but by small tradeoffs made under pressure from cost, space or timelines. Over time, these decisions compound and begins to show their impact. Treating Interconnects as Secondary Components Connectors are often selected late in the design process, sometimes with minimal consideration beyond basic electrical requirements. Over time, inadequate retention, limited mating cycles, or insufficient environmental protection can lead to intermittent failures that are difficult to diagnose. Ignoring Thermal Stress in Dense Designs As systems become faster and more compact, heat becomes a silent reliability killer. Even when components operate within specified limits, sustained thermal stress can accelerate material aging, loosen contacts, and reduce long-term stability. Overlooking Mechanical and Environmental Factors Vibration, shock, dust, and moisture are common in industrial environments. Designs that don’t account for these factors often experience premature degradation at connection points, especially in automation and robotics systems. Designing for Initial Performance Instead of Lifetime Many designs perform flawlessly during validation and early deployment. However, systems exposed to continuous operation, temperature cycling, and repeated mating over time require components selected with long-term durability in mind. Prioritizing Short-Term Cost Over Long-Term Reliability Cost-driven decisions can appear justified early on, but the real expense often surfaces later through downtime, maintenance, and reduced equipment life. Where Interconnect Strategy Makes the Difference This is where thoughtful interconnect selection becomes critical. Amphenol's broad portfolio of connectors and cable solutions - spanning Industrial Ethernet , Board-to-Board , High Speed I/O , memory, and Power - are engineered to address the real-world challenges of thermal stress, mechanical reliability, and harsh environments. By designing interconnects with longevity in mind, engineers can significantly extend system lifetime and improve overall reliability across Industrial Automation , Robotics , and embedded computing platforms. Which design choice has surprised you most when you saw its long-term impact in real-world operation?designsAmphenol Communications Solutionsboard-to-boardSystem LifetimeAmpehnolindustrial ethernethttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/amphenol-s-minitek-pwr-series-connectors-for-next-gen-applicationsWed, 29 Oct 2025 18:18:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:ad4f8f14-b8d0-4f2b-8e54-3d562f781034Greta_Reillyvideos.amphenol-cs.com/.../minitek®-pwr-introduction-|-amphenol-webinar A recent webinar hosted by Amphenol Communications Solutions showcased the Minitek® Pwr family, a versatile and high-performance range of power connectors designed to meet the evolving demands of data centers, EV systems, industrial automation, and consumer electronics. Presented by Jithin George, Product Manager for Minitek Pwr, the session explored how this product family delivers compact, reliable, and flexible interconnect solutions across multiple industries from GPU systems and OCP servers to robotics and EV battery management systems. Minitek® Pwr Overview: Compact Power with Big Performance The Minitek® Pwr series represents Amphenol’s optimized mid-power connector platform. It combines high current-carrying capacity, mechanical robustness, and design versatility. Key Specifications : Parameter 3.00 mm 4.20 mm 5.70 mm Max Current 12 A 13 A 28 A Voltage Rating 600 V 600 V 600 V Operating Temp –40°C to 105°C –40°C to 105°C –40°C to 120°C Wire Range 16–30 AWG 16–28 AWG 12–16 AWG Header Types Vertical / Right-Angle Vertical / Right-Angle Vertical / Right-Angle Terminations TH / SMT TH TH Application WTW / WTB WTW / WTB WTW / WTB All Minitek® Pwr connectors are available in single and dual-row options and feature LCP and Nylon housings for high-temperature resilience. The series supports up to 28A per circuit- making it ideal for compact power systems that demand both density and performance. Advanced Features for Reliability and Ease of Use The engineering innovations behind the Minitek® Pwr line that ensure durability and ease of assembly: Positive Locking System prevents accidental unmating. Flexing Beam Design allows low insertion force during mating. Blind-Mate Interface (BMI) provides self-alignment for secure mating. Scoop-Proof Contacts protect terminals from damage. Terminal Position Assurance (TPA) adds extra reliability in wire-to-board versions. Together, these design elements ensure consistent and secure performance even under high vibration or repeated mating cycles Spotlight: PICPWR OCP® Connector System The webinar introduced the Minitek® Pwr OCP M-PIC connector - a hybrid power/signal solution tailored for Open Compute Project (OCP) architectures. Technical Highlights : Configurations: 2×6+12SB or 2×3+6SB Power Rating: Up to 864W (2×6) or 486W (2×3) at 12V Current Rating: 12A (2×6) / 13.5A (2×3) per contact Features: Fully isolated terminals, low thumb-latch positive locking, hybrid signal capability These connectors provide reliable power distribution in modular data center systems, bridging High Power Modules (HPMs) and peripheral subsystems with minimal thermal loading. Spotlight: Minitek® Pwr 12VHPWR (Gen 5 PCIe) For GPU, AI accelerator, and gaming console applications, Amphenol’s Minitek® Pwr 12VHPWR connector meets the latest PCI Express® CEM 5.0 standards. Technical Highlights : 9.5A per pin across 12 power contacts Supports 600W GPU cards Low contact resistance: 5 mΩ max Pitch: 3.00 mm (vs. legacy 4.20 mm) Positive locking and fully isolated terminals The connector’s compact housing and thermally efficient design support next-generation GPU architectures, making it an essential component for high-performance computing and gaming systems. Diverse Application Ecosystem Amphenol’s Minitek® Pwr series serves a broad array of industries, offering tailored solutions across these segments: IT / Datacom: Hot-plug servers, NVR systems, rack servers, OCP-DCMHS Automotive: EV battery management, chargers, GPS tracking, lighting systems Consumer: GPUs, PSUs, vending machines, LED signage, gaming consoles Industrial: Robotics, energy storage, drives, factory automation, UPS systems Telecom: Network routers, switches, baseband units From data centers to electric vehicles, Minitek® Pwr connectors deliver the right balance of power density, size optimization, and long-term reliability. Cable Assembly Capabilities ACS also highlighted its global cable assembly capabilities, with production in China and India. 4.2 and 5.7 mm right-angle assemblies Pig-tail and molded cable options Custom wire harness configurations These customizable, high-quality cable solutions ensure designers can integrate Minitek® Pwr systems seamlessly into their projects. Product Roadmap: 2025–2026 Looking ahead, Amphenol’s roadmap focuses on scalability and new standards compliance. Upcoming releases include: PCIe CEM-5 SMT version (Q1 2025) 5.7 mm Dual Row WTW and Single Row solutions (Q2–Q3 2025) PICPWR 48V OCP 12P/12SB & 6P/6SB (Q4 2025) Overmolded cable assemblies (Q3 2026) These developments reinforce Amphenol’s long-term commitment to next-gen power connectivity across computing and energy systems. Competitive Advantages Amphenol’s Minitek® Pwr line offers a unique combination of: High current performance in a small form factor Intermatability with competitor parts (e.g., FIT series) Flexible MOQ and packaging options Fast access to samples, datasheets, and 3D models Custom engineering support for specific OEM needs These features make Minitek® Pwr a standout choice for engineers seeking efficiency, performance, and design flexibility. Live Q&A Highlights Q1: Are Minitek® Pwr connectors compatible with competitor parts? A1: Yes. The Minitek® Pwr series is interchangeable and intermateable with competitor series. Q2: What is the maximum current rating for the Minitek® Pwr 5.7mm with 12 AWG wire? A2: The 5.7mm version supports up to 28A under standard lab conditions. Real-world ratings depend on factors like wire gauge, ambient temperature, and airflow- higher temperatures or smaller gauges require derating to ensure safe performance. Q3: Why is the PICPWR OCP® system ideal for OCP applications? A3: It’s designed specifically for Open Compute Project (OCP) systems- supporting hybrid power/signal transmission, fully isolated terminals, and high-current capacity. Its mechanical design ensures long-term reliability under continuous high-current loads. Q4: How does the connector handle mixed power and signal applications without EMI issues? A4: The hybrid design integrates both power and low-speed signal paths with excellent isolation and shielding. Proper contact separation minimizes EMI and crosstalk in high-speed environments. Q5: Is there a version for harsh environments like BMS or energy storage? A5: Yes. Options like the BMI interface, flex-beam terminals, and scoop-proof designs increase ruggedness. Custom versions with higher ingress protection are available upon request. Conclusion The Minitek® Pwr series represents Amphenol’s vision of scalable, high-efficiency interconnect solutions engineered for reliability, safety, and space-saving integration. Whether powering next-gen GPUs, EV battery systems, or data center modules, Minitek® Pwr offers the flexibility and robustness engineers demand.Amphenol Communications SolutionsMinitek Pwramphenolacshttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/what-makes-a-connector-smart-in-modern-electronicsThu, 16 Oct 2025 10:14:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:9acb74f4-98ff-4e3a-8a2e-900fede57de0CalvinTerenceIn today's connected world, "Smart" doesn't just describe phones, cars or factories - it is also changing how we look at the smallest, often overlooked components inside them. One such component is the connector. One seen as a simple mechanical link, the connector has evolved into a critical enabler of intelligent, high-speed and reliable systems across industries. From passive links to intelligent enablers Traditional connectors were designed purely to emit power or signal from one point to another. But modern applications - from electric vehicles to 5G infrastructure and advanced industrial automation - demand more. Today's connector must not only transfer data and energy efficiently but also manage noise, resist environmental stress and ensure integrity under extreme conditions. Smart connectors now feature enhanced signal integrity, shielding technologies and thermal management capabilities. These advancements ensure consistence performance even as devise becomes smaller, faster and more data intensive. High-Speed Data and Power integration One of the hallmarks of a “smart” connector is its ability to handle multiple functions within a compact form factor. For example, Amphenol’s USB 4 Gen 3 Type C connectors support data transfer rates up to 40Gb/s and deliver up to 240W of power through a single interface. This level of integration simplifies design, reduces cable clutter, and improves overall system efficiency Similarly, PCIe® Gen 6 Mini Cool Edge 0.60mm Card Edge Connectors push the boundaries of high-speed computing by supporting data rates up to 64GT/s per lane. These connectors play a vital role in enabling next-generation servers, AI accelerators, and data center systems to operate at lighting speed with minimal signal loss. Intelligence in Design: Reliability and Safety "Smart" also mean reliable. In mission critical environments - such as automotive electronics, aerospace and medical devices, failure is not an option. Connectors like MicroSpace ™ Crimp-To-Wire Connector Platform meet rigorous automotive standards (LV214 Severity-3 and USCAR-T4V2) while maintaining compactness and current ratings up to 4A per contact. Features like Connector Position Assurance (CPA) and Terminal Position Assurance (TPA) ensure secure mating and stable performance under vibration and stress. These built-in design safeguards represent a new form of intelligence - "mechanical" awareness that enhances system safety and longevity without adding complexity. Smarter by purpose: Enabling Next-Gen Innovation Smart connectors are more than components - they're enablers of innovation. whether it's powering autonomous vehicles, supporting edge computing or ensuring real-time data exchange in industrial automation, the connector is now a key player in making technology more efficient, sustainable, and connected Amphenol's continuous focus on high-speed, high-density and hybrid connector technologies ensure that engineers have the right tools to design systems that keep up with modern demands and anticipate future ones. Conclusion As electronics evolve, so do the expectations of the components within them. Smart connectors represent a shift from simple connectivity to intelligent performance - combining speed, power, safety and adaptability. And as systems continue to get faster and smaller, these connectors will remain the invisible force driving smarter, more connected technology forward.high-speedAmphenol Communications SolutionsreliableMicrospaceXSUSB4 Gen3 Type-CPCie Gen6 Mini Cool Edge 0.60mmintelligentAmpehenolSmart Connectorssmartelectronicshttps://community.element14.com/products/manufacturers/amphenol/b/amphenol-sensors-blog/posts/sensors-in-medical-devices-controlling-temperature-in-laser-surgeryTue, 14 Oct 2025 18:17:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:a3f1d847-d36d-4c51-b6dd-a5ab862402a2JulianneDespite how common they've become for patient treatment, the use of lasers as a surgical tool can still feel like something out of science fiction. Once considered futuristic, laser-assisted surgery is now a widely used approach for highly controlled procedures. That precision comes with new challenges, particularly in managing temperature. Without accurate, real-time heat readings, safety and effectiveness can quickly slip out of reach. This is where sensors in medical devices , including advanced temperature monitoring devices , come into play. These tools give surgical teams the data they need to respond quickly and maintain control throughout each procedure. Sensors in Medical Devices: The Link Between Safety and Laser Surgery Compared to traditional surgeries of just a few decades ago (which relied on incisions with scalpels and sutures to close the wound) the use of lasers allows for minimally invasive procedures with fewer risks of complications and shorter recovery times. However, the concentrated beam of light that is the laser delivers an intense amount of heat — something the human body is not designed to withstand extended and unchecked exposure to. Surgical lasers can reach temperatures of up to 1,000℃. In the most basic sense, just like in critical care, precise temperature control is needed to avoid thermal damage to surrounding tissues during laser surgeries . The risks involved cannot be overstated. When temperatures exceed certain thresholds, cells can suffer irreversible damage, leading to scarring, nerve damage, and other serious injuries. Temperatures outside of safe ranges also pose a threat to the medical professionals operating the laser. Like the patient, the surgeon is vulnerable to extreme and prolonged exposure. This is why sensors in medical devices — particularly those designed for patient temperature monitoring — are so important. These technologies allow surgical teams to track and respond to heat levels accurately during laser-assisted procedures. Types of Sensors in Medical Devices for Laser Surgery While temperature monitoring in laser-assisted surgeries plays a direct role in patient safety, different types of sensors in medical devices may be selected based on their application and the level of precision required. Broadly, temperature sensors used in laser procedures fall into two categories: contact and non-contact , each with unique strengths depending on the device’s design and monitoring environment. Contact Temperature Sensors Thermistor : a type of resistor that exhibits a large and predictable change in resistance in response to changes in temperature. They are often used in temperature measurement and control circuits because they are highly sensitive to small changes in temperature, but can be susceptible to self-heating effects. Thermocouples : temperature sensors that are made up of two wires of different metals that are welded together at the sensing end. When this junction is exposed to a temperature differential, it produces a voltage that is proportional to the temperature difference. Thermocouples are often used in high-temperature applications because of their durability and accuracy. Resistance Temperature Detectors (RTDs) : made of a metal wire, usually platinum, that changes resistance as its temperature changes. They are very accurate and stable over time, but are generally slower to respond to changes in temperature compared to thermocouples and thermistors. Non-Contact Temperature Sensors Infrared Temperature Sensors : These sensors measure temperature without physical contact by detecting thermal radiation and converting it into an electrical signal. As non-invasive sensors in medical devices, they provide fast, surface-level temperature readings during surgery and diagnostics. Fiber Optic Temperature Sensors : Using optical fibers, these sensors detect changes in how light is transmitted through the fiber as temperature shifts. They’re often chosen for application temperature sensor needs in harsh or electromagnetically sensitive environments. These temperature monitoring devices are especially useful in settings where traditional electronic sensors may struggle. Temperature Mapping with Sensors in Medical Devices While the data provided by a body temperature sensor during a laser-assisted surgery is invaluable, it's only half the picture of heat’s presence. The other half? Temperature mapping . As its name indicates, temperature mapping is the process of creating a real-time presentation of the temperature in various areas of a patient’s body during laser surgery. While its focus is the immediate area where the laser is being used, it also looks at those nearby that might be affected by the beam's heat or the beam itself. To perform temperature mapping during surgery, two main techniques are used: imaging and catheter-based temperature mapping . Imaging techniques use specialized cameras to capture the changes in temperature during surgery. These cameras are designed to detect thermal emissions from the body and display the temperature in false colors on a computer screen, allowing physicians to visualize the temperature distribution and adjust the laser settings accordingly. In a very literal sense, imaging techniques is heat vision. Catheter-based temperature mapping involves inserting a thin catheter into the body during surgery to take temperature readings at different locations. These catheters are equipped with custom miniature sensors that detect changes in temperature and transmit this information to a computer in the operating room. This technique provides more accurate temperature measurements in specific areas of the body but can be invasive and may require additional time. Applications of Sensors in Medical Devices for Laser Surgery Despite being a newer method for patient treatment, laser-assisted surgery is finding its place as an effective way to deliver precise and highly accurate medical care. Its applications in healthcare have taken a few forms: Laser Ablation During this procedure, a high-intensity laser beam is directed at the targeted tissue, causing it to heat up and vaporize. This process allows surgeons to remove tissue with a high degree of precision, without damaging surrounding healthy tissue so long as temperatures and heat exposure are carefully monitored and adjusted. Surgical laser ablation can be used in a variety of procedures, including the removal of skin lesions and tumors, as well as treatments for cancers such as: Prostate cancer *** cancer Liver cancer What's more, it's a minimally invasive procedure that can offer patients a faster recovery time and reduced risk of complications compared to traditional surgical techniques. Cosmetic Surgeries While not as serious as other procedures, laser-assisted cosmetic surgery is a growing field. Many non-invasive laser procedures have become very popular in recent years, and some of the most common include: Hair removal Lipolysis Skin resurfacing Rhinoplasty Like ablation, cosmetic laser surgery also boasts a faster recovery time and less of a chance for complications during and after a procedure. Endarterectomy During this procedure, a surgeon uses a laser to remove plaque buildup from the inner lining of an artery, restoring blood flow and reducing the risk of heart attack or stroke. The laser is directed through a catheter, a thin tube inserted into the artery through a small incision. Laser-assisted endarterectomy can offer several advantages over traditional surgical techniques, including: Reduced blood loss Less damage to surrounding tissue A shorter recovery time Sensors in Medical Devices Make Laser Surgery Possible With technology shaping nearly every part of patient care, laser-assisted surgery stands out as a clear example of how treatment continues to move forward. But while these procedures offer precision and efficiency, they depend on steady, responsive temperature control. Sensors in medical devices make that possible by providing the data needed to monitor heat and adjust in real time. As these systems advance, so will the performance and reliability of the medical sensors that support them.medical sensorstemperature sensorsSensor Technologymedicalhttps://community.element14.com/products/manufacturers/amphenol/b/amphenol-sensors-blog/posts/refrigerant-leak-detection-thermal-conductivity-vs-ndir-sensorsFri, 26 Sep 2025 16:18:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:150a059c-8818-4fde-9cbd-2fe9e21a0138JulianneA refrigerant leak might seem like a small problem – until it isn’t. Even a slow, undetected leak can drive up energy costs, damage equipment, and release greenhouse gases into the atmosphere. In industries where efficiency and compliance matter, catching these leaks early is helpful and necessary . To do that, businesses rely on refrigerant leak detection, and choosing the right sensor makes all the difference. Two common technologies stand out: thermal conductivity sensors and NDIR sensors . Compliance with standards like UL60335-2-40, particularly Annex LL, continues to shape how refrigerant leak detection is approached. These standards define how quickly and accurately a sensor must detect a leak, especially when working with low-GWP or mildly flammable refrigerants. Each operates differently, with advantages depending on the application. Thermal conductivity sensors measure how gases transfer heat, while NDIR sensors detect refrigerants by how they absorb infrared light. Understanding the strengths of each sensor helps in choosing the right one for HVAC, refrigeration, and industrial settings. Let’s break down how they work, where they perform best, and what to consider when selecting a detection method: Understanding Refrigerant Detection Requirements Refrigerants are used in HVAC, refrigeration, and industrial cooling systems to transfer heat and maintain temperature control. When leaks occur, they affect: System performance Increase energy costs Release greenhouse gases into the atmosphere. To reduce environmental impact, refrigerant leak detection is now regulated by agencies like the EPA , ASHRAE , and international environmental bodies. The Montreal Protocol and Kigali Amendment led to the phase-down of high-GWP refrigerants such as R-410A and R-134a, pushing the industry toward lower-GWP alternatives like R-32, R-290 (propane), and CO₂ (R-744). Different refrigerants require different sensing approaches . Some, like CO₂, need sensors that detect high concentrations, while others, such as hydrocarbons (R-290, R-600a), require sensors designed for flammable environments. Selecting the right detection method depends on the refrigerant type, application, and operating conditions. In North America, UL60335-2-40 – specifically Annex LL – sets performance expectations for refrigerant leak detection systems. Updates in the fourth edition focus on tighter thresholds for accuracy, drift, and response time, especially for detecting low-GWP and mildly flammable A2L refrigerants. How Do Thermal Conductivity Sensors Work? Thermal conductivity sensors measure how gases transfer heat. Each gas has a unique thermal conductivity , meaning it absorbs and moves heat differently. By detecting these changes, the sensor can determine the presence and concentration of a gas. A thermal conductivity sensor typically consists of: A heating element that generates a stable heat source A sensing chamber where the gas interacts with the heat Temperature-sensitive components that detect heat transfer variations Electronics that convert the data into a readable measurement When refrigerant enters the sensing chamber, it alters the rate of heat transfer compared to the reference gas. The sensor measures this difference and calculates the refrigerant concentration. Advantages of Thermal Conductivity Sensors Responds quickly to gas concentration changes Can detect a wide range of refrigerants, including CO₂ Works well in mixed-gas environments Compact and energy-efficient design Limitations of Thermal Conductivity Sensors Less selective, meaning they may require additional processing to distinguish between gases Affected by temperature and pressure variations Accuracy depends on calibration and the specific gas mixture Thermal conductivity sensors are commonly used for CO₂ detection and gas monitoring in HVAC and industrial applications. For refrigerants classified as A2L, these sensors must meet specific performance benchmarks outlined in UL60335-2-40, including response time and detection limits defined in Annex LL. How Do NDIR Sensors Work? NDIR (Non-Dispersive Infrared) sensors detect gases by measuring how they absorb infrared (IR) light . Each gas has a unique absorption pattern, allowing the sensor to identify specific refrigerants with high accuracy. An NDIR sensor consists of: An infrared light source that emits a controlled beam A gas sampling chamber where refrigerant interacts with the IR light An optical filter that isolates the specific wavelength absorbed by the target gas A detector that measures how much IR light is absorbed When refrigerant enters the chamber, it absorbs some of the infrared light at a specific wavelength. The detector measures the difference between the emitted and received light, calculating the gas concentration. Advantages of NDIR Sensors High specificity – detects only the target gas Stable over time with minimal drift Largely naffected by temperature and humidity changes Works well for CO₂ and many hydrofluorocarbon (HFC) refrigerants Limitations of NDIR Sensors Slightly slower response time in some applications compared to thermal conductivity sensors More expensive due to optical components Can be affected by dust or contaminants in the gas sample NDIR technology is widely used in NDIR CO₂ sensors, NDIR sensors for refrigeration, and other refrigerant leak detection applications where accuracy and long-term stability are needed. Because of their precision and low drift, NDIR sensors are often selected for systems seeking to meet UL60335-2-40 Annex LL requirements, particularly where consistent refrigerant identification and fast response are required for safety and compliance. Comparing Thermal Conductivity and NDIR Sensors Feature Thermal Conductivity Sensors NDIR Sensors Detection Mechanism Heat transfer variations Infrared light absorption Response Time Fast Slightly slower Gas Selectivity Detects a range of gases, less specific Highly selective for target refrigerants Stability Over Time Moderate High Environmental Sensitivity Affected by pressure and temperature changes Less affected by external conditions Cost Lower Higher Best for Mixed gas environments, cost-sensitive applications Targeted refrigerant detection, long-term monitoring UL60335-2-40 Annex LL Suitability May require tighter calibration for compliance Often meets Annex LL performance targets 4 Application Scenarios: Which Sensor is Best for Your Needs? Selecting the right sensor depends on the refrigerant type, operating environment, and detection requirements. Some applications benefit from the fast response of thermal conductivity sensors, while others work better with the precision of NDIR sensors. 1. HVAC & Refrigeration Systems Best choice: NDIR sensors Used in commercial and residential HVAC systems to detect refrigerant leaks. High selectivity improves accuracy when detecting CO₂, HFCs, and low-GWP refrigerants. 2. Industrial Leak Detection Best choice: Thermal conductivity sensors Works well in environments with multiple gases, such as manufacturing plants and cold storage facilities. Detects refrigerant concentration changes quickly, helping reduce energy loss. 3. Automotive Air Conditioning & Transport Refrigeration Best choice: NDIR sensors Used in vehicle cooling systems to detect CO₂ (R-744) and HFO refrigerants. Provides stable readings, even in environments with temperature fluctuations and vibrations. 4. Energy-Efficient Smart Buildings Best choice: NDIR sensors Integrated into IoT-based monitoring systems for continuous leak detection. Helps buildings meet green building standards and lower energy consumption. Both thermal conductivity and NDIR sensors support refrigerant leak detection, with the best choice depending on the specific needs of each application. Choosing the Right Sensor for Refrigerant Leak Detection Both thermal conductivity sensors and NDIR sensors are used for refrigerant leak detection, but they work in different ways. Thermal conductivity sensors respond quickly and perform well in mixed-gas environments, making them a good fit for industrial settings. NDIR sensors provide precise, long-term detection for specific refrigerants, making them ideal for HVAC, refrigeration, and automotive applications. When compliance with standards like UL60335-2-40 Annex LL is required – especially when working with A2L refrigerants – sensor selection may be shaped by response time, stability, and detection accuracy. Understanding how each technology functions helps in making the right choice for the application.leak detectionindustrialamphenol sensorsthermal conductivityindustrial sensorsrefrigeranthttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/connector-failures-and-what-they-can-really-cost-youWed, 17 Sep 2025 11:22:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:19517a6a-24b2-459c-b153-1c9f1971b91aCalvinTerenceWhen we think about system failures, we often blame software bugs, processor malfunctions, or power supply issues. But there is a silent culprit that frequently gets overlooked - Connectors. These small components may seem insignificant, yet a single faulty connector can halt an entire operation, damage expensive hardware, or even put lives at risk. In industries like automotive, data centers, industrial automation, and aerospace, connector failures are not just inconvenient - they're costly. Let’s explore why connectors fail, what those failures can really cost, and how to avoid them using high-reliability solutions from innovators like Amphenol. What causes connector failures? Connector failures often stem from one or more of the following issues: 1. Poor Contact Reliability Over time, connectors can develop micro-movements or corrosion, especially in harsh environments. This leads to signal degradation or complete failure. 2. Improper Mating / Unmating Frequent mating cycles or poor alignment can wear out connectors, especially those without proper retention features like Terminal Position Assurance (TPA) or Connector Position Assurance (CPA). 3. Thermal or Electrical Overload Exceeding current ratings or operating in high-temperature environments can deform plastic housings, melt contacts, or cause arcing. 4. Vibration and Mechanical Stress In industrial or automotive applications, vibration can loosen connections or cause stress fractures in solder joints. 5. Ingress of Dust, Moisture or Chemicals Environmental exposure, especially in outdoor or factory-floor use, can corrode terminals or short out connections — particularly if connectors lack proper sealing (IP ratings). The Real-World Cost of Connector Failures Data Centers: A loose or degraded high-speed backplane connector can lead to data loss, increased latency, or downtime - costing thousands of dollars per minute. EVs and Automotives: A failed power or signal connector in a critical ADAS (Advanced Driver-Assistance System) module could lead to catastrophic vehicle malfunctions. Industrial Automation: Downtime due to sensor or actuator disconnection can interrupt production lines, costing millions in delayed output. Medical Devices: A single faulty connector in a life-saving device can lead to loss of life or legal liability. How to Avoid Costly Failures: Smart Design Choices with Amphenol Preventing these issues starts with selecting connectors that are designed for your applications environmental, mechanical, and electrical demands. Here’s how Amphenol’s product line addresses common failure points: PwrBlade ULTRA HD+ Cable Assembly Designed to handle up to 84A per contact, this connector significantly reduces thermal stress and overheating , one of the top causes of power connector failure. Its modular design and low-profile housing help ensure proper airflow and easy integration, reducing risks of mating misalignment or cable strain in high-density server environments. ComboNET ™ Automotive Modular Connector Automotive environments face extreme vibration , temperature cycling , and moisture — all major failure triggers. ComboNET ™ addresses these with metal shielding , robust sealing , and a modular design that combines power, signal, and data lines in a space-efficient footprint. It meets USCAR-2 standards for durability and environmental resistance. Micro Power Top PCIE® CEM 5 Power With a low mating force and support for up to 9.5 A per pin , this connector reduces mechanical wear during repeated insertions. The robust contact design minimizes the risk of contact deformation and ensures a stable connection for high-power PCIe cards. Industrial RJ Plugs & Cable Assemblies In factory or field environments, dust and moisture can quickly degrade unprotected connectors. Amphenol’s IP-rated Industrial RJ series provides sealed, EMI-shielded connectivity with field-terminable plugs, preventing corrosion, short circuits, and signal interference. 112G PAM4 Mini Cool Edge 0.60mm Card Edge Connectors For high-speed data systems, signal loss and crosstalk are major concerns. These fine-pitch connectors are engineered with advanced PCB interface design and shielding to preserve signal integrity even at 112G PAM4 speeds. This avoids data corruption or transmission errors that can lead to costly debugging or downtime. Best Practices to Prevent Connector Failures 1. Never push a connector to its rated limits - Design with a margin 2. Match the connector to the environment (IP rating, vibration resistance, temperature range) 3. Use locking features (CPA, TPA) to ensure reliable mating. 4. Choose proven suppliers with high-quality manufacturing standards like Amphenol. 5. Design for accessibility - easy maintenance means less chance of user error during servicing. The Big Picture Connectors may be small, but the impact of their failure is anything but. Whether it's halting a server farm or compromising vehicle safety, the costs - both financial and operational can be enormous. The good news is that these failures are entirely preventable with the right design choices, materials, and partners. Amphenol’s advanced connector technologies give engineers the tools they need to build robust, reliable systems that perform in the most demanding environments. Don't let a $5 parts be the weak link in your million-dollar system. Have you ever experienced a costly failure caused by a simple connector? what did you learn?connectorsComboNET Automotive Modular ConnectorAmphenol Communications SolutionsIndustrial RJ Plugs & Cable AssembliesAmphenol solutions112G PAM4 Mini Cool Edge 0.60mm Card Edge ConnectorsamphenolPwrBlade ULTRA HD+ Cable AssemblyFailuressolutionsMicro Power Top PCIE® CEM 5 Powerhttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/powering-the-transition-to-e-mobility-amphenol-s-duraev-and-duraswap-connector-solutionsWed, 03 Sep 2025 18:53:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:1fdcac32-116e-4df9-9669-f412bd05cd65Greta_ReillyAs electrification becomes the defining transformation in the global transportation landscape, the technologies enabling safe, reliable, and efficient power transfer are of paramount importance. The expansion of electric vehicles (EVs), e-mobility platforms, and distributed energy storage systems has introduced stringent new requirements for the electrical and mechanical performance of connectivity solutions. The following presents a comprehensive technical overview and industry perspective on two critical innovations from Amphenol Communications Solutions’ Power Solutions division: the DuraEV ™ and DuraSwap ™ connector families. These products are designed to support the evolving needs of the e-mobility sector, from EV charging infrastructure to modular battery architectures. videos.amphenol-cs.com/.../duraswap-concentric-connectors-|-amphenol videos.amphenol-cs.com/.../duraev-|-connector-for-swappable-fixed-batteries-with-connector-lock Industry Context: E-Mobility Growth and Connectivity Demands The rapid global adoption of e-mobility is being driven by a combination of environmental regulations, advancements in battery and charging technology, and the growing demand for cleaner urban transportation. Several key trends are shaping the market: Key Market Trends: Swappable Battery Systems and Battery-as-a-Service (BaaS) Modular battery systems are increasingly favored in applications requiring rapid energy replenishment, including two- and three-wheeled vehicles, last-mile logistics fleets, and drones. These systems allow for operational flexibility and reduced charging downtime. Expansion of EV Charging Infrastructure Public and private investment in EVSE (Electric Vehicle Supply Equipment) is accelerating, requiring standardized, robust connectors that can operate reliably in varied environmental conditions and user scenarios. Integration of Signal and Control Lines Modern EV architectures demand connectors that support not only high current power transfer but also signal lines for battery management systems, diagnostics, and control interfaces. Durability and Low Total Cost of Ownership (TCO) High mating cycle counts, ingress protection, and long-term mechanical reliability are essential for reducing service requirements and operational disruptions, particularly in commercial and fleet applications. DuraEV ™ : Advanced Connector Solutions for EV Charging Interfaces The DuraEV ™ series is engineered for use in both fixed and portable EV charging applications. It is designed to deliver high power throughput while incorporating critical safety features and signal integration capabilities. Technical Specifications: Configuration: 2 power + 4 or 6 signal contacts Current Rating: Up to 70 A continuous; short-duration peaks up to 100 A Voltage Rating: Up to 120 VDC Mating Durability: Rated for 10,000 cycles Ingress Protection: IP67 with optional dust caps Safety Features: First-Mate Last-Break (FMLB), Connector Position Assurance (CPA), and finger protection Compliance: IEC 63066, UL standards Applications: Vehicle onboard charging interfaces Residential and commercial wall-mounted chargers Portable charging systems Vehicle-to-grid (V2G) energy interfaces DuraSwap ™ : High-Cycle Connectors for Swappable Battery Platforms The DuraSwap ™ family is purpose-built for environments where battery modules are frequently connected and disconnected. It is particularly well-suited to automated and high-usage systems, offering a compact, rugged interface with enhanced usability. Technical Specifications: Configuration: 2 power + 6 signal contacts Current Rating: Up to 70 A Durability: Rated for over 10,000 mating cycles Ingress Protection: IP67 in both mated and unmated states Mechanical Features: Blind-mating, Poka-Yoke orientation, unidirectional engagement Operating Temperature: –20 °C to +90 °C Housing Materials: UL94V-0, metal bushings for torque and panel sealing Applications: Battery swap stations for light electric vehicles Autonomous ground vehicles (AGVs) and robotics platforms Modular energy storage systems Battery charging docks and mobile power modules Comparative Overview Feature DuraEV ™ DuraSwap ™ Primary Use EV charging and power distribution Battery swapping and modular systems Current Handling 70 A continuous, 100 A peak (short duration) Up to 70 A Signal Capacity 4 or 6 signal contacts 6 signal contacts Mating Durability 10,000 cycles 10,000+ cycles IP Rating IP67 (with optional caps) IP67 (mated and unmated) Safety Features FMLB, CPA, finger protection Blind-mating, unidirectional, Poka-Yoke Suitable Markets EVSE, V2G, portable energy platforms Fleet mobility, BaaS, robotics Strategic Relevance in the E-Mobility Ecosystem Amphenol’s connector solutions are engineered to address key challenges and priorities for OEMs and infrastructure providers: Future-Proof Design : DuraEV ™ and DuraSwap ™ are aligned with the shift toward modular, intelligent power systems. Their hybrid design enables integration of power and control in a single, compact connector format. Operational Efficiency : High mating durability and robust sealing ensure that these connectors are suitable for continuous use in demanding environments, reducing the frequency of maintenance and replacement. Safety and Compliance : Both connector families include comprehensive mechanical safety features and comply with international standards, providing assurance in critical automotive and industrial applications. Global Engineering and Customization Support : Amphenol’s worldwide R&D and manufacturing footprint allows for rapid customization and scalable production, supporting both large OEMs and emerging mobility startups. Conclusion The transition to electrified transport demands innovation at every level of the power chain — from battery management to grid interfaces. Connectors such as DuraEV ™ and DuraSwap ™ serve as critical enablers in this ecosystem, offering the performance, safety, and integration capabilities required for scalable and reliable e-mobility solutions. By delivering advanced mechanical design, hybrid power/signal integration, and high cycle life, Amphenol Communications Solutions is helping to build the infrastructure of the electrified future — with products engineered to meet the needs of both today's systems and tomorrow’s innovations.Amphenol Communications SolutionsDuraSwapAutomotive SolutionsPower SolutionsDuraEVacshttps://community.element14.com/products/manufacturers/amphenol/f/forum/56090/what-are-your-thoughts-on-double-density-or-hybrid-connector-formats--is-it-worth-the-complexity/230217Wed, 27 Aug 2025 14:14:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:b5d8e2cc-e17d-4714-b758-f9fcedeeffb9colporteurI did a search of Amphenol double-density and hybrid connector products. They bring a tear to my eye. They make for extremely difficult repairs. Replacement becomes the first option:( Care to provide a few specific products you like to evaluate?https://community.element14.com/products/manufacturers/amphenol/b/blog/posts/success-story-spotlight-acpa-s-ix-industrial-ip20-connectors-powering-the-future-of-industrial-ethernetThu, 21 Aug 2025 20:37:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:d2f31d36-cfee-4e19-8369-71e95e9eae4eGreta_ReillyAs the world shifts into high gear with Industry 4.0, the demand for faster, smarter, and more compact industrial connectivity is reshaping how machines communicate. At the heart of this transformation is Amphenol Communications Solutions’ ix Industrial ™ IP20 connector—a next-generation solution that’s enabling manufacturers, electronics OEMs, and automation leaders to build smaller, more robust, and more connected systems. From robotics and medical devices to in-flight entertainment systems and industrial power racks, the ix Industrial ™ series is redefining what’s possible in high-speed industrial Ethernet. videos.amphenol-cs.com/.../industrial-ethernet-|-single-pair-ethernet-spe-|-ix-industrial-|-amphenol Industry Challenges: Expanding Beyond RJ45 & Meeting Tomorrow’s Connectivity Needs Traditional RJ45 connectors have served the industry well, but modern demands expose their limitations: Too large for today’s compact devices Susceptible to vibration-induced disconnects Limited shielding in high-EMI environments Inadequate for combined data + power over a single link Industrial designers sought a smaller, more ruggedized, and PoE-capable alternative—without compromising performance or interoperability. ✅ The Solution: ix Industrial ™ IP20 Amphenol stepped in with the ix Industrial ™ IP20 series, purpose-built to meet the evolving demands of Industrial IoT, automation, robotics, medical, and avionics applications. Why It Stands Out: 75% smaller than RJ45 – enables higher port density Supports 10GBASE-T Ethernet (Cat6A) – reliable high-speed data 360° shielding – exceptional EMI protection 2-point metal latch – vibration-resistant secure mating Up to 5,000 mating cycles – long-term durability PoE, PoE+, PoE++ capable – up to 100W over data lines These features allow OEMs to build compact yet powerful network interfaces that thrive in harsh environments. Technical Specs That Matter: Parameter Value Voltage Rating 50VAC / 60VDC Current Rating 1.5A @ 40°C Data Transmission 10GBASE-T (Cat6A) EMI Shielding 360°, fully shielded pair Mating Cycles 5,000 Latch Retention Force ≥80N Operating Temp Range -55°C to +85°C Cable Options PVC, LSZH, straight/right-angle Certification IEC 61076-3-124, RoHS, UL With both plug-and-play assemblies and field-terminable options, Amphenol’s solution adapts seamlessly into existing and emerging designs. How It Outperforms Competitors: Feature Amphenol ix IP20 Competitor ix-style Connectors Mating Cycles 5,000 Typically <1,000 Shielding 360°, full pair Partial/shell-only Intermateability Global IEC-compliant Often proprietary Cable Assembly Options Extensive (IDC, angled) Limited PoE Capabilities Up to 100W (PoE++) Up to 30W (PoE+) Amphenol delivers interoperable, high-performance, and high-density connectivity that elevates its function entirely. Customer Success Stories In-Flight Entertainment Systems Amphenol’s ix plug kits helped a global electronics OEM enhance 4K display systems in aircraft cabins. The compact form factor and rugged latching system ensured stable performance in vibration-prone environments—leading to the first ix integration in the OEM's design library. Robotic Platforms & Automation For a robotics company combining CPU, GPU, and camera subsystems, Amphenol delivered a hybrid ix-to-RJ45 cable solution. The result? Compact, rugged, and high-speed Ethernet connectivity for advanced AI-enabled robotic arms. Medical Devices In portable nitrous oxide sedation and flowmeter systems, Amphenol provided customized 10-wire ix assemblies (8x26AWG + 2x22AWG), enabling more power over smaller cable runs. LSZH jacketing also ensured safer operation in clinical environments. Industrial Power Distribution For rack-mounted power distribution units, Amphenol’s ix connectors offered low-profile, high-speed Ethernet ports that replaced RJ45s while meeting cost and space targets. Their plug-and-play reliability was critical in embedded power monitoring systems. HMI for Robotics Control Integrated into robotic teaching pendants and control PCs, the ix Industrial ™ IP20 connector helped leading automation OEMs meet demanding space and EMI constraints—while enabling field upgrades and longer lifespans. The Bottom Line Amphenol’s ix Industrial IP20 connectors aren’t just successors to RJ45—they’re enablers of modern industrial innovation. Offering compact ruggedness, high-speed data, PoE versatility, and global interoperability, they empower designers to unlock the full potential of IIoT, robotics, medical tech, and aerospace systems. Explore the full ix Industrial ™ IP20 product line here .Amphenol Communications SolutionsSuccess StorACPACommercial IndustrialiX Industrial IP20industrial ethernetApplication Solutionshttps://community.element14.com/products/manufacturers/amphenol/f/forum/56090/what-are-your-thoughts-on-double-density-or-hybrid-connector-formats--is-it-worth-the-complexityWed, 20 Aug 2025 21:14:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:02f93048-9998-447f-9642-220e9554b3d8Greta_ReillyAs Amphenol Communications Solutions continues to expand its portfolio with double-density and hybrid connector offerings, do you see this shaping design choices and connector strategies in your applications?Amphenol Communications SolutionsDouble DensityhybridConnector Solutionshttps://community.element14.com/products/manufacturers/amphenol/b/blog/posts/rotasense-temperature-sensor-connector-intelligent-thermal-sensing-for-next-gen-electronicsWed, 13 Aug 2025 19:11:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:b2a85e98-c90e-43ce-9f68-3e6419c5bce0Greta_ReillyIn July, Amphenol Communications Solutions hosted a technical webinar presented by Pranith Joy from FCI Basics, highlighting the capabilities, applications, and advantages of the RotaSense Temperature Sensor Connector —a cost-effective, modular, and highly accurate way to sense ambient airflow temperatures in modern electronic systems. community.element14.com/.../Monthly-Distribution-Webinar-_2D00_-Basics-_2D00_-July-2025-_2D00_-RotaSense.mp4 ️ Precision Ambient Temperature Sensing: Why It Matters Modern servers, networking hardware, automotive electronics, and industrial systems demand accurate thermal monitoring to maintain performance, prevent overheating, and extend component life. Traditional sensing methods—such as PCB-mounted SMT sensors or thermistors—often measure board surface temperature rather than actual airflow temperature. This can skew readings, cause fan overspeeding, and waste energy. RotaSense ™ overcomes this by positioning the sensor directly in the airflow path , enabling true ambient air temperature measurement . This results in: Reduced fan energy consumption without sacrificing thermal safety Improved acoustics through quieter fan operation Extended fan and component life Elimination of costly thermal margining and software-based compensation Why it matters: False-positive high readings don’t just waste energy—they also increase dust buildup, raise corrosion risks, and can shorten component lifespan. Product Design and Engineering Highlights Two-Piece Modular System Components: Board Connector + Sensor Module Profile height: Just 20.0 mm—ideal for space-constrained designs Mounting flexibility: Three lockable angles (0°, 45°, 90°) for aligning with airflow or accommodating different layouts Advanced Mechanical & Electrical Performance Dual-beam spring contacts for reliable conductivity and mechanical resilience Contact resistance: BE voltage, which changes linearly with temperature Advantages: Predictable response, easy ADC integration, linear processing, robust against vibration, and cost-effective compared to thermistors Application Scenarios: Where RotaSense Excels ️ IT Datacom Equipment Servers, switches, storage systems Inlet/outlet placement for differential temperature monitoring and dynamic fan control Automotive Electronics Ideal for BMS, inverters, engine control modules Compact, vibration-tolerant, and robust for harsh environments ⚡ Energy & Power Systems Solar inverters, UPS, grid monitoring Maintains accurate thermal regulation in variable environments Industrial & HVAC Systems Smart cooling, refrigeration, precision climate control Direct airflow sensing ensures responsiveness and efficiency Why Choose RotaSense Over Traditional Sensors? Sensor Type Common Issues RotaSense Advantage On-board SMT sensors PCB heat interference, poor airflow accuracy True ambient sensing Through-hole sensors Height control, vibration sensitivity, fragile leads Robust design, lockable angles Cable-assembly sensors Placement challenges, heat absorption in wires Compact, accurate, easy to mount ❓ RotaSense Q&A Highlights Q1: How does RotaSense measure temperature? A: Using a 2N3904 NPN transistor measuring V BE voltage shift with applied collector current—linear, accurate, and ADC-friendly. Q2: What mounting angles are supported? A: Three lockable positions— 0°, 45°, 90° —for optimal airflow placement. Q3: What’s the max height when mated? A: 20.0 mm , ideal for high-density layouts. Q4: How is accuracy better than PCB or cable sensors? A: Measures true ambient air , avoiding PCB heat distortion. Q5: Why choose 2N3904 over thermistors? A: Linear output, robust integration, cost-effective, and no complex signal correction. Q6: Key durability features? A: Dual-beam contacts, high-temp thermoplastic (UL94V0), vibration resistance, 20 mating cycles. Engineering Support Amphenol provides: Mechanical drawings & 3D models Datasheets & performance specs Application-specific integration guidance Reflow profiles Rapid MPN support for design needsWebinar RecapRotaSenseAmphenol Communications SolutionsFCI Basicsacshttps://community.element14.com/products/manufacturers/amphenol/b/amphenol-sensors-blog/posts/ev-battery-pack-sensors-what-your-cell-connection-system-needsWed, 13 Aug 2025 13:41:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:6bec6517-5eca-4f8c-8d93-7b83be83ff4dJulianneThe heart of an electric vehicle (EV) is its battery pack, and the module cell connection system is the infrastructure that connects the individual cells to the high-voltage output of the pack. Without either functioning properly, a battery-powered vehicle may experience a host of issues – from poor performance to an outright failure. Inside the pack, the EV battery cell connection system combines individual cells in parallel and series configuration to create both energy and power for the pack, as well as providing critical sensor data to the Battery Management System (BMS) to control the pack functions. Sensors That Ensure EV Battery Pack Safety, Performance & Longevity In addition to providing the busbars that connect the cells and allow current to flow between the individual cells, the cell connection system incorporates temperature sensors for measuring the battery cell and busbar temperatures, which are critical for controlling cell temperature within its optimum performance range for optimal performance and life. Lithium-ion cells perform best between temperatures of 10℃ and 45℃, and the battery thermal management system can provide both heat and cooling to the cells, but must have highly accurate temperature measurements to properly maintain the cells' temperature during driving and while at the charging station . EV battery packs experience greater thermal and electrical stress than traditional Internal Combustion Engine battery systems. In a typical Electric Vehicle, the battery pack may experience thousands of charge and discharge cycles throughout its life. The pack Battery Management System monitors the voltage, current, and temperature of cells. Sensors that should be considered within the EV vehicle components and battery pack design: Temperature Voltage & current Gas Detection Water intrusion / Coolant breach 1. Temperature Temperature sensors are critical for electric vehicle battery and cell connection system applications. Put simply, both parts of an EV require constant thermal management for optimal performance and vehicle occupant safety. The need for temperature monitoring for electric vehicle batteries is two-fold: When in use – be it powering the vehicle or acting as a source for electricity – batteries give off heat. If left unchecked, high temperatures will damage cells, causing them to degrade and lose charging ability or capacity (SOH and SOC). In extreme cases, the cells decompose, starting a chain reaction of thermal runaway. In addition, in extreme cold conditions, charging cells can result in lithium dendrite growth, which can cause an internal short circuit in the cell, potentially leading to thermal runaway. If not being driven (think: recharging), temperature sensors allow the BMS to control the thermal management system to keep the battery in the optimum temperature range to maintain long life. In addition, if there are any issues with a battery cell, temperature sensors can provide critical safety data to the BMS, which can immediately notify the vehicle’s owner if the pack is in an unsafe state. Like the battery itself, an EV’s cell connection system is not immune to the effects of excessive heat . EV vehicle battery components, such as a busbar, get hot when in use. The part of the battery through which power flows and is connected to each battery cell, heat from the cell connection system can transfer to each battery cell. Busbar design for proper thermal management is an essential element of engineering robust battery systems. 2. Voltage & Current Maintaining an electric vehicle’s power is a balancing act of sorts. A cell’s State of Charge is a calculated metric that describes the amount of charge it can hold. 100% SOC is a fully charged cell, and a 20% SOC cell has very little energy left. If a lithium-ion cell’s state of charge drops below 20%, the copper in the current collector can go into solution in the electrolyte, which can cause a short circuit and fire. If a cell is overcharged beyond 100% SOC, it can also undergo thermal runaway. To calculate SOC, highly accurate voltage, current, and temperature measurements are necessary. When designing the circuits that provide the signals to voltage and current sensors mounted on the BMS, it is essential to ensure there is minimal resistance in the sense circuits, regardless of the cell's location and the sense lead length. Of the hundreds of sensor connections between bus locations and the BMS, every one must be appropriately designed and manufactured to accommodate the thermal, intercalation, and pack stresses as batteries swell and shrink with the effects of charging and discharging. To accommodate this, sense circuits must be flexible without losing function and must be securely soldered to the contact points on the busbars. With hundreds or thousands of individual cells providing power to the vehicle, each can have different states of health (SOH) after prolonged use. SOH is another calculated metric that approximates the remaining useful life in a cell. As with SOC, the calculation is very dependent upon reliable voltage, current, and voltage measurements over time. In the case of EV batteries, they are generally considered to be no longer useful when their SOH value falls much below 80%.The batteries within a module act as a team, where the module's performance is governed by the weakest cell in the string. To manage this, the BMS must perform cell balancing to make sure that individual cells are neither overcharged nor drop below specific SOC values to keep the SOH as high as possible across all the cells. As even a single cell performing poorly can degrade the performance of the module and hence the pack, it is critical to obtain the best available information from the embedded sensors. New technologies, such as impedance spectroscopy, are also emerging as techniques to obtain the best information available on lithium-ion battery cell health. As the new control electronics for this technique are being developed, the cell connection systems will grow organically to include more of this sensor intelligence close to the cells. The balance between the cells comprising an electric vehicle’s battery maintains: Charging capacity & charge rates Vehicle range Battery health & life 3. Gas One of the most damaging – and dangerous – events in a battery-powered vehicle is thermal runaway. A process started by overheating, thermal runaway , moves quickly through a battery pack as battery cells deteriorate. Next to abnormally high battery pack temperatures, a sure sign that thermal runaway has started is the presence of vented flammable gases , including: Hydrogen Volatile hydrocarbons Carbon monoxide & dioxide Dimethyl carbonate Hydrogen fluoride Acetonitrile The best time to stop thermal runaway from overtaking an EV battery system is the second a single cell starts to vent the flammable gases. The sooner you’re able to stop the process, the less damage it causes and the danger it poses. New cell connection system designs can incorporate these gas sensor technologies directly onto their surface, providing the fastest response to a failed cell. With gas sensors embedded close to the cells, early detection for thermal runaway is built into the part of an electric vehicle closest to the potential failure point. 4. Water Intrusion & Coolant Leak Detection Like any vehicle, even a small leak can be a big problem for an EV. In an electric vehicle, coolant and humidity-based condensation, and water intrusion within the battery pack’s case are particularly problematic for two main reasons: The presence of water or condensation from humidity can cause a short circuit. For an EV, a short circuit can have a minimal effect, such as a blown fuse or the vehicle entering safe mode, or cause much bigger issues, such as system failures or thermal runaway. Even in small amounts, water can also cause corrosion issues in critical electronics, potentially leading to failure. Water/glycol-based coolants are typically used in the cod plate or cooling passages within EV battery packs to extract heat from the cells. If the connections or cooling lines inside a battery pack fail, coolant breaches into the battery space and places conductive fluid in areas that can create short circuits. In addition to making the opportunity for shorting the control or high voltage electronics, water from either condensation or coolant can hydrolyze when exposed to the current conductors in the pack, generating hydrogen and oxygen, which can also create issues. For this reason, it is also critical to protect circuit traces in the cell connection system from moisture and corrosion. Regardless of the source, fluids inside an EV battery pack require immediate attention to preserve the functionality of the power unit . Optimizing EV Battery Pack & Cell Connection System Cases With Advanced Sensors The defining components of an electric vehicle, a battery pack, and its cell connection system, require constant sensing of many critical parameters for robust life. With battery sensor technology strategically placed throughout the cell connection system, maintaining battery EV health and performance happens reliably and in real-time . Designing Sensors and Cell Connection Systems for Your Battery Speak with one of our engineers about the Amphenol sensors available for your entire electric vehicle’s design. https://amphenol-sensors.com/ev-hev-sensor-resource-hubEV SensorsEV BatteryBattery Safetyamphenol sensorssensorsevEV Carselectric vehiclesamphenolautomotive