Unmanaged Switch vs PoE Switch: Key Differences

Reliability is key for temperature measurement. That’s why we developed our latest thermocouple temperature scanner - engineered for dependable performance in even the most demanding environments. The 2432T measures all types of thermocouples with the highest accuracy, outputting 32-bit engineering unit data over a number of configurable communication protocols, including TCP/IP, UDP, IENA, iDDS or Netscanner® emulation mode. Featuring a real-time open circuit detection system, the 2432T indicates the presence of shorts or breaks in the thermocouples and also provides a measurement of the thermocouple impedance too. Contained in a package built for extreme temperatures and high vibration, the 2432T is the go-to choice for engineers looking for the most accurate results. Discover more: https://lnkd.in/eintw6Zx

The S9532 is a data-center-grade Ethernet switch developed by Ethernexion based on the industry-leading 25.6T chip platform. It features 32×800G OSFP ports, dual CRPS power supplies, and four 2-in-1 intelligent fan modules, delivering line-rate 800G forwarding with zero packet loss, microsecond-level latency, and multi-redundancy stability. Paired with the EHOS software system, it offers comprehensive L2/L3 protocol support—including VXLAN, MLAG, EVPN, and MPLS—providing a cost-effective solution for data centers. Development of the S9532 began in early 2025. Over a six-month period, the team overcame challenges such as high-speed signal integrity, thermal management, cooling, noise control, and software adaptation. After passing over 1,000 test items and completing both EVT and DVT phases, the product has now achieved mass production.

🛰️ Precision downconversion for C-Band monitoring applications 🛠️ Optional configurations include custom LO, separate DC input, and external reference input. 📡 "Engineered for clarity. Built for the field." #CbandBDC #SwedishMicrowave #SatelliteMonitoring #RFComponents #TeleportTech https://buff.ly/6B83PLi

Clock Latency – The Journey That Defines Timing Imagine you’re hosting a global Zoom call • You, the clock source, send an invite at 10:00 AM. • Your teammates (flip-flops) are spread worldwide. • Due to network routes, some get the invite at 10:00:05, others at 10:00:07. That delay in delivery = Clock Latency. Clock Latency is the time taken by the clock signal to travel from its root (PLL/port) to the endpoint flip-flop (sink). Types of Latency 1. Source Latency → Delay from clock origin (PLL, port) to the chip boundary. 2. Network Latency → Delay from chip boundary/port to the sink FF (through clock tree buffers, inverters, wires). Total latency = Source + Network. In real PD projects, controlling latency ensures predictable, reliable timing closure. Too high → risk of WNS/TNS violations. Too low → not enough buffering, poor skew. Golden rule: Always check latency after CTS and during STA to ensure your clock arrives on time, every time. #VLSI #ClockLatency #PhysicalDesign #CTS #TimingAnalysis #Semiconductors #ChipDesign

The impact of minor adjustments on network optimization becomes clear when we examine what happens in the field. On the physical side, tilting an antenna by just a few degrees, shifting its azimuth, or repositioning a sector can completely reshape coverage patterns. On the parameter side, recalibrating transmit power, optimizing PCI allocations, refining neighbor lists, and adjusting handover thresholds can significantly enhance the network's performance. At Teletek, we bring both sides together. These changes may seem minor, but they yield significant results: stronger signal quality, fewer dropped calls, smoother handovers, faster data speeds, and improved performance at the cell edge. Our process is simple but precise—we study live network counters, analyze benchmark and drive test data, and run simulations before making any changes. This way, every adjustment is deliberate, and every improvement is made without disrupting service. The end result is a stronger, more reliable, and higher-capacity network that works better where it matters most: in the hands of the user.

✍️1. Bus Topology All devices share a single backbone cable. Simple and cost-effective, but failure of backbone stops the whole network. ✍️2. Star Topology All devices connect to a central hub or switch. Easy to manage and troubleshoot. If the central device fails, the network goes down. ✍️3. Ring Topology Devices are connected in a closed loop (ring). Data travels in one direction around the ring. Failure of one device can disrupt the whole network. ✍️4. Mesh Topology Every device connects directly to every other device. High reliability, no single point of failure. Requires many cables, very expensive. ✍️5. Tree Topology Combination of Star and Bus topologies, in a hierarchical structure. Suitable for large organizations. Scalable, but backbone failure affects the entire network. ✍️6. Hybrid Topology Combination of two or more topologies (e.g., Star + Ring). Flexible and reliable. Complex to design and implement

Which Ethernet topology fits your automation needs best? 🌐 Choosing the right network structure is key to ensuring reliability, performance, and scalability - especially in industrial environments. Whether it’s star, line, or ring topology, each option comes with its own pros and cons regarding redundancy, fault tolerance, and cost. But what should you consider when connecting sensor/actuator blocks, IO-Link masters, and controllers for seamless communication? 👉 Read the full article here: https://lnkd.in/eTDigrr9

Struggling with 5G Throughput Calculations? I know the formulas can get pretty long and confusing when trying to calculate 5G throughput manually. That’s why I’ve simplified the process for you! Just input basic parameters like SCS, MCS, Bandwidth, Layers, etc., and you’ll instantly get the 5G throughput output. No more headaches with big formulas! https://lnkd.in/dbgJ9aFr #5G #Telecom #Throughput #NetworkOptimization #Wireless I am Open for feedback and correction

Strong connectivity doesn’t always mean a reliable experience experience. 🚫 We give network engineers real-time, subscriber-level visibility to pinpoint performance issues — in the RAN, backhaul, or at the edge — and fix it for better user experience. https://lnkd.in/gSJCikTm

Master the OSI/TCP-IP models, IP addressing & subnetting, routing vs switching, key protocols, CLI tools, troubleshooting by layers, and always secure, document, and practice in labs.