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Epirus Inc of Torrance, CA, USA says that, in an invitation-only demonstration on 26 August at Camp Atterbury, Indiana (attended by representatives from throughout the US Department of Defense, other US Government agencies and nine allied countries), its Leonidas solid-state high-power microwave (HPM) system — which uses gallium nitride (GaN) transistors to minimize size, weight and deployment time — delivered weaponized electromagnetic interference to counter swarms of robotic, asymmetric threats...

The global energy sector is at a historic turning point. Renewable energy integration, EV promotion, and AI-driven consumption create more demand on already complex grids. The transformation calls for a new era of energy professionals who can build a bridge between traditional engineering and digital technologies-the infrastructure upgrades alone cannot solve the equation.

The Digital Shift in Energy Systems

Modern power systems evolve into interconnected, intelligent networks. Smart grids, real-time balancing, and consumer-driven energy management are redefining how electricity flows. Still, the digital revolution carries many challenges requiring upskilling and interdisciplinary knowledge to solve.

Top Challenges Facing the Next Generation Workforce:

1. Dual-Skill Gap

Engineers today need expertise in network-relevant issues and traditional grid operations, plus in cybersecurity matters. Still, there are few professionals with an engineering background and digital expertise; this scarcity leads to inefficiency in troubleshooting and system reliability.

2. A Shift Toward Virtualization

Careful changes from hardware-based to software-driven operations have increasingly taken protection and control functions onto a virtual platform. Hence, engineers will have to embrace digital tools with data analytics and server technologies that are not traditional to the power area.

3. Cross-system Collaborations

Data exchanges must be smooth as renewable assets such as solar and battery storage interfacing with distribution and transmission networks. Therefore, engineers must manage various protocols and formats, settling voltage, frequency, and power flows after the interface in real time.

Building the Workforce of Tomorrow

Such challenges require: Full-training in digital communication, grid standards such as IEC 61850, and advanced networking.

Simplified Tools and Platforms that reduce technical complexity and enable engineers to focus on system optimization.

Collaborative Ecosystems where power engineers, IT experts, and operators work together to maintain resilience across distributed networks.

Conclusion:

The future of energy will be shaped as much by people as by technology. Companies that invest in digital skills, upskilling programs, and collaborative frameworks will lead the transition to resilient, intelligent grids. Industry leaders such as Moxa, with their training initiatives and global expertise, are playing a vital role in equipping professionals to thrive in this new era ensuring the workforce is ready to power the grids of tomorrow.

(This article has been adapted and modified from content on Moxa.)

The post Future-Proofing the Energy Workforce in a Digitally Driven Era appeared first on ELE Times.

ANRITSU CORPORATION has developed and launched its new 60 GHz optical sampling oscilloscope MP2110A-080 option for the BERTWave MP2110A. This option verifies the performance of 200G/Lane optical transceivers forming the foundation of faster data-center communications and growing AI deployment. It delivers high PAM4 TDECQ evaluation accuracy and measurement productivity for next-generation high-speed optical transceivers, such as 1.6T and 800G, supporting strong quality assurance of large-capacity, high-speed communications infrastructure.

This test solution was exhibited as a reference at the China International Optoelectronic Exposition (CIOE 2025) on September 10, 2025, and will also be showcased at the European Conference on Optical Communication (ECOC 2025), one of the world’s leading international conferences in the field of optical communications, to be held in Copenhagen, Denmark, from September 29 to October 1, 2025.

Development Background
With the growth of AI data centers, optical communication speeds are increasing from 800G to 1.6T, and transmission rates are shifting from 50 Gbaud (100G/Lane) to 100 Gbaud (200G/Lane). As transmission speeds increase, there is a growing need for wideband sampling oscilloscopes capable of evaluating higher frequency components in optical transceiver signals.

Product Features
The all-in-one MP2110A solution integrates the necessary functions for physical-layer evaluation of optical transceivers during development and manufacturing. This new 60 GHz oscilloscope MP2110A-080 option enables evaluation and analysis of next-generation high-speed 200G/Lane communication standards.

• High-Accuracy PAM4 TDECQ Measurement: With the performance of a reference receiver supporting PAM4 signals up to 120 Gbaud, the MP2110A offers reliable TDECQ evaluations by leveraging the high measurement accuracy of existing models.
• Improved Efficiency with Simultaneous 4-Channel Measurement: By measuring four optical signals simultaneously, the MP2110A cuts measurement time and improves operation efficiency. Batch evaluation of multiple channels simplifies measurement systems and processes to enhance productivity.
• Further Productivity Gains with Faster Measurement: Increasing the MP2110A sampling speed fourfold compared to previous models shortens measurement times even further. Stable operation with a built-in PC improves R&D and manufacturing efficiency.
• Cost-Effective 4-Channel Software Upgrade Option: With a software upgrade path to 4-channels, the 2-channel option lowers initial costs, allowing flexible deployment supporting future expansion matching budget and evaluation environment.

The post Anritsu introduces a 60 GHz Optical Sampling Oscilloscope for 200G/Lane 1.6T Transmission appeared first on ELE Times.

Built on Nordic’s 22-nm technology, the latest addition to the nRF54L series promises robust communication, long battery life, and compact designs.

OSHW Lab project link: OSHW Lab link Demonstration video on YT: YT video This is an active power splitter/divider/doubler which is meant as an addon for basically any lab PSU alowing it to produce symetrical output voltage, eg. split 30 V into +-15V for various power projects (audio amplifiers etc.). I designed this splitter for total maximum voltage of 60 V (eg. maximum output on Riden PSUs) and maximum peak virtual ground load of 6A on any voltage. It uses forced continuous conduction mode synchronous buck topology to create a virtual ground at half the total input voltage. As a side effect of forced synchronous CCM it is also reversible, meaning it can also work as a boost/inverting/doubling stage and be fed by eg. 15V, pass it through as one rail, and then produce the other rail (as shown on the second photo). Normally its self powered, but that limits its minimum input voltage to 12V, so when you need to split lower voltages, down to zero, you can use external power just for the switching circuitry. Efficiency is consistently greater than 85% for 12V and higher input voltages, however for lower voltages the efficiency drops quite rapidly. Virtual ground is stable across frequency with its low frequency impedance peaking at 160 mOhm (740Hz 12V input) and higher frequency response being dependant mainly on wiring inductance. Feel free to ask any questions or point out any weakspots I might have overlooked, I'll be happy to answer them or fix them. submitted by /u/MrSlehofer [link] [comments]