ISM devices – Quectel Wireless Solutions, a global IoT solutions provider, is pleased to announce the launch of two new high performance ISM antennas, the YENT001W1AM and YENT002W1AM, designed to meet the need for wireless communication in devices that operate through the industrial, scientific, and medical (ISM) bands. These frequency bands are internationally reserved for unlicensed use, and they support a wide range of applications.

The YENT001W1AM is an ISM external antenna measuring 135mm× 15.6mm × 13mm. This low profile, terminal mount omnidirectional antenna provides broad coverage from 410–470MHz. It is terminated with an SMA male connector and is designed as a monopole antenna, which needs to be mounted on a ground plane to offer high efficiency in all working bands.

The YENT002W1AM is an ISM external antenna that shares the same dimensions as the YENT001W1AM. This ultra-wideband ISM antenna provides broad coverage from 850–950MHz. The antenna is terminated with a hinged RP SMA male connector and is also well-suited to discreet deployment. The YENT002W1AM is designed as dipole type antenna to work with various ground plane sizes or in free space for ease of integration.

“It’s great to bring further choice to the ISM antenna market with the YENT001W1AM and YENT002W1AM antennas,” commented David Wei, Senior Product Director, Antenna Product Dept, Quectel Wireless Solutions. “The growing number of applications in the ISM device market extends across wireless data transmission, automated manufacturing, safety alerts and industrial IoT. In these scenarios, developers and designers need the opportunity to optimize performance and antennas play a critical role here. Customers can also take advantage of Quectel’s full range of engineering and support services to make the most of their antenna deployments.”

Both antennas feature durable PC and ABS enclosures for maximized durability and are compatible with Quectel’s ISM series of modules. These antennas are suitable for applications such as safety alerts, wireless data transmission, automated manufacturing and for deployment in many other IoT devices.

In addition to supplying antennas, Quectel also offers comprehensive antenna design support which includes simulation, testing and manufacturing for customized antenna solutions. These can be custom designed to ensure the antenna deployment scenario aligns precisely with the developers’ specific application requirements. Quectel’s regional R&D centers, coupled with its global network of antenna experts, are ready to help meet the requirements of device designers, developers and deployment specialists as they roll-out 5G-capable antennas to their customers.

NBOSS Software-Based NMOS Control Solution – Utah Scientific today announced NBOSS, a new software-based control solution designed to streamline the management of NMOS-compliant devices in hybrid SDI/IP environments. Designed for use in broadcast, production, post-production, and pro-AV settings, NBOSS enhances workflow efficiency and reduces operational costs, empowering facilities to build hybrid SDI/IP infrastructures with greater ease and reliability while also expanding the utility of Utah Scientific’s existing hardware.

The company’s latest innovation in control systems, NBOSS addresses customer demand for a more integrated and cost-effective way to manage Utah Scientific’s expanding product line, particularly the PassThrough Card and OnRamp devices. It allows users to control NMOS devices directly from Utah Scientific’s SC4 Control System using a variety of interfaces, including hardware panels, Soft-LC panels, and Web-Panel. This marks a significant step forward in simplifying IP integration for facilities that rely on Utah Scientific’s Series 2 routers. By offering native control functionality, NBOSS eliminates the need for expensive third-party broadcast controllers, which often fall short of meeting specific customer requirements.

Because of Utah Scientific’s unique 10-year hardware warranty on routers, NBOSS can expand an existing Utah Scientific installation with future-proof hardware and software or can be purchased as part of a new system. It includes a full NMOS ecosystem that enables device inventory gathering via IS-04, configuration within the Ucon/SC4 system, and control of signal connections to NMOS-compliant devices. This includes support for one video flow, two audio flows, and one ancillary flow, providing a robust and flexible solution for modern broadcast and production environments. It makes switching 2110 signals as easy as switching SDI.

“With NBOSS, we’re giving our customers a smarter, more streamlined way to manage NMOS devices within their new or existing Utah Scientific infrastructure,” said Brett Benson, CEO of Utah Scientific. “NBOSS simplifies hybrid workflows, reduces reliance on third-party systems, and makes our Series 2 routers and OnRamp devices even more versatile. This isn’t just a new control tool — it’s a foundational step toward full IP domain integration.”

Utah Scientific will unveil NBOSS at IBC in Amsterdam, Sept. 12-15. NBOSS will be available in Q4 2025, with pricing dependent on customer build requirements.

More information about Utah Scientific and the company’s product line is available at www.utahscientific.com.

The modern world is being reshaped by rapid technological advancements, with the electric vehicle (EV) revolution and the booming electronics sector standing at the forefront. At the core of these industries lies a material that is not always discussed outside of technical circles, but whose importance is unmatched — electrodeposited copper foils. As the demand for efficient, sustainable, and high-performing energy storage grows, the Electrodeposited Copper Foils Market has emerged as a critical enabler of transformation across industries.

This blog explores how electrodeposited copper foils are driving innovations in EV batteries and electronics, their market growth trajectory, and what the future holds.

The Rising Importance of Electrodeposited Copper Foils

Electrodeposited copper foils (ED copper foils) are ultra-thin sheets of copper produced through an electrolysis process. They possess excellent conductivity, adhesion, and mechanical strength, making them indispensable in applications such as lithium-ion batteries, printed circuit boards (PCBs), and other high-performance electronics.

As global industries push for miniaturization, energy efficiency, and high-capacity storage, ED copper foils are finding increased applications. This surge in usage is shaping not just technological progress but also the financial outlook of the Electrodeposited Copper Foils Market, which is on a steady growth trajectory worldwide.

Driving the Electric Vehicle Revolution

The electrification of transportation has shifted into overdrive, with governments, consumers, and manufacturers aligning toward sustainable mobility. Lithium-ion batteries are the heart of EVs, and electrodeposited copper foils are one of their most vital components.

Copper foils serve as the current collector in lithium-ion batteries, ensuring seamless electron flow between electrodes. With EVs requiring large-scale, high-capacity batteries, the demand for high-quality foils has surged exponentially. Innovations in battery energy density and the push for longer driving ranges continue to fuel the dependency on ED copper foils.

Automakers are investing billions into gigafactories worldwide, amplifying the need for copper foils. For instance, Asia Pacific — particularly China, South Korea, and Japan — dominates global EV battery production, and consequently holds a substantial share of the Electrodeposited Copper Foils Market.

Transforming the Electronics and PCB Industry

Beyond EVs, the role of electrodeposited copper foils in electronics is just as transformative. The electronics industry thrives on miniaturization, precision, and durability — and copper foils provide exactly that.

Printed Circuit Boards (PCBs): ED copper foils are extensively used in multilayer PCBs, which are essential for consumer electronics, industrial automation, and telecommunications equipment.

High-Frequency Devices: With the rise of 5G networks, the demand for foils that can support high-frequency transmission with minimal loss has grown.

Wearable Technology: Lightweight, flexible, and durable foils enable the production of wearable devices, an industry experiencing rapid adoption globally.

The growing reliance on smart devices, IoT, and high-performance computing ensures that copper foils remain the backbone of innovation in this sector.

Key Market Growth Drivers

Several factors are accelerating the expansion of the global market:

Booming EV Sales: With global EV sales projected to cross 30 million units by 2030, battery manufacturing equipment demand for copper foils will remain strong.

5G and IoT Expansion: The rollout of next-generation communication technologies drives PCB demand, boosting copper foil consumption.

Government Initiatives: Policies promoting clean energy, subsidies for EV purchases, and investments in renewable energy storage are directly supporting the market.

Technological Advancements: Innovations in foil thickness and high-strength grades are allowing manufacturers to meet the evolving demands of both EVs and electronics.

Regional Outlook: Asia Pacific Leads the Way

Asia Pacific dominates the global landscape, primarily due to its strong EV battery supply chain and established electronics manufacturing hubs.

China leads in both production and consumption, benefiting from its government-backed push toward EV adoption.

South Korea and Japan remain critical players due to companies like LG Energy Solution, Samsung SDI, and Panasonic, which are heavily reliant on electrodeposited copper foils.

North America and Europe are also witnessing rising adoption, driven by EV policies, the establishment of gigafactories, and increasing electronics innovation. These regions are expected to gain significant momentum in the coming years as localization of battery production accelerates.

Competitive Landscape and Industry Innovations

The Electrodeposited Copper Foils Market is highly competitive, with key players focusing on capacity expansions, product innovations, and strategic partnerships. Leading companies are investing in ultra-thin foils designed to improve energy density and reduce battery weight. Additionally, sustainable production methods are gaining attention as industries emphasize lowering carbon footprints.

Companies are also engaging in long-term contracts with EV and electronics manufacturers to secure supply chains, ensuring stability in an otherwise volatile raw materials market.

Challenges Facing the Market

Despite its strong growth potential, the industry faces challenges that require strategic responses:

High Production Costs: Manufacturing ultra-thin copper foils requires precision and advanced technology, leading to higher costs.

Raw Material Price Volatility: Copper prices are often unpredictable, affecting profitability and long-term supply planning.

Environmental Concerns: Large-scale copper mining and refining pose sustainability concerns, which the industry must address through recycling and eco-friendly practices.

A Market Poised for Innovation

The future of the Electrodeposited Copper Foils Market is closely tied to technological innovation and sustainability. With EV adoption accelerating globally and electronics becoming more sophisticated, demand for advanced foils will only rise.

Innovations such as next-generation solid-state batteries, flexible electronics, and lightweight PCBs are set to reshape industry requirements. Manufacturers that can deliver foils with enhanced conductivity, reduced thickness, and greater reliability will dominate the next phase of growth.

Fairfield Market Research notes that as the industry scales, strategic collaborations between copper foil producers and EV battery giants will become increasingly vital. This integration across the value chain ensures not just stability but also faster innovation cycles.

Electrodeposited copper foils may not always make headlines, but they are the silent force powering some of the most transformative technologies of our time. From extending EV ranges to enabling the rise of 5G and smart devices, their applications are vast and essential.

As the world pivots toward electrification and digitalization, the Electrodeposited Copper Foils Market is poised to expand significantly. With Asia Pacific leading the charge and global investments pouring into energy storage and electronics, the market will continue to play a pivotal role in shaping our technological future.

Nickel-titanium (NiTi) shape memory alloys (SMAs) are unique metal alloys that can be stretched or bent when cold and hold the shape only to return to their original shape when heated. This makes NiTi SMAs useful for a wide-range of devices: surgical implants, anti-scald valves, motorized actuators, and more. Because SMAs respond to heat, researchers rely on infrared cameras to help better understand their behavior.

The Challenge: Capturing Non-Uniform Thermal Behavior in Complex Materials

NiTi SMAs are among the most promising materials for solid-state refrigeration technologies, thanks to their remarkable elastocaloric effect (eCE) and superelasticity. However, accurately characterizing their thermal behavior especially under mechanical stress remains a complex challenge.

“It is well-established that the temperature of some special shape memory alloys varies under applied stress,” explains Dr. Ruien Hu, Scientific Officer at PolyU. “We previously used thermocouples to measure temperature changes, but their single-point measurement capability was insufficient to capture the nonuniform temperature distribution across specimens particularly given the heterogeneous nature of NiTi alloys.”

The Need for Full-Field, High-Speed Thermal Imaging

To overcome these limitations, Dr. Hu and his team turned to FLIR for an appropriate science-level infraredcamera. They chose the FLIR X8583, a midwave, high-speed camera equipped with advanced lenses, filters, and software.

“Our experimental setup involves using a tensile testing machine to conduct tensile and compression tests on shape memory alloys,” says Dr. Hu.

“Simultaneously, the FLIR camera records and analyzes the temperature variations under stress. This capability is essential for understanding the elastocaloric response.”

The FLIR X8583 camera offered the high-speed, 1280 × 1024 thermal imaging the team needed to visualize inhomogeneous surface temperature distributions during mechanical loading cycles offering insights that traditional sensors could not provide.

Scientific Discovery: Microstructure-Driven Thermal Inhomogeneity

In a recent study, the team used Laser Powder Bed Fusion (LPBF) to fabricate NiTi alloys with nearequiatomic composition. They discovered significant inhomogeneity in the elastocaloric effect, with up to 4.2K temperature difference across a single sample.

“Infrared imaging revealed that the surface temperature distribution was inhomogeneous during compression-induced elastocaloric effects,” Dr. Hu notes. “This was mainly due to the non-uniform microstructure of the NiTi alloys fabricated by LPBF.”

FLIR’s thermal imaging captured striped high- and low-temperature regions, helping the team link grain size, dislocation density, and precipitate distribution to the functional performance of the material.

Testimonial: The FLIR Advantage in Research

“The high resolution of the FLIR infrared camera is particularly advantageous for our research, as our specimens are relatively small. Additionally, the camera’s exceptional frame rate allows us to capture rapid temperature changes with precision critical for our analysis. FLIR has significantly enhanced our experimental capabilities, enabling us to uncover the intrinsic thermal behavior of our specimens with greater detail and accuracy,” says Dr. Hu.

Outcome: Enhanced Understanding and Scientific Impact

With FLIR’s powerful tools, the research team was able to:

• Identify the role of microstructural inhomogeneity in temperature distribution
• Capture full-field thermal responses during cyclic mechanical testing
• Gain new insights into super elasticity and functional fatigue
• Demonstrate 96.1% recovery after the first cycle evidence of excellent super elasticity

These findings are contributing to a broader research initiative to advance solid-state cooling technologies and adaptive material design.

Support and Future Exploration

The team also credits FLIR’s technical support in their success:

“We’ve greatly benefited from the guidance of FLIR representative Mr. Liu Yongbo, who helped resolve several technical challenges. We look forward to continued collaboration and support as our research evolves.”

Dr. Hu and his team are also interested in participating in FLIR user conferences and scientific forums to share insights and foster collaboration within the research community.

FLIR Tools in Use

• FLIR X8583 Camera
• MWIR f/4 3-5 µm MTR Lens
• Research Studio Professional Edition
• Thermographic Calibration Range: -20°C to 1500°C

Conclusion: Detect the Undetectable with the FLIR X8583

By enabling fast, full-field thermal visualization, the FLIR X8583 High-Speed Infrared Camera has become an essential research tool at PolyU. It empowers scientists to explore the hidden thermal dynamics of advanced materials like NiTi alloys data that would be impossible to capture with conventional sensors.

The FLIR X8583 doesn’t just record temperature, it uncovers the science behind it. From revealing microstructural behaviors to accelerating innovation in smart materials and solid-state cooling, FLIR continues to push the boundaries of what’s possible in thermal research.

Discover More About FLIR X8583

4G IoT Deployments – As the global demand for LTE Cat 1 modules continues to rise in industrial IoT, asset tracking, and metering applications, SIMCom (as a global leader in IoT communication and solution)’s A7663E stands out with a balanced mix of performance, integration flexibility, and certification readiness. The module has recently secured a comprehensive set of international certifications, including RoHS, REACH, CE (RED) for the European market, Anatel for Brazil, and Cybersecurity compliance, paving the way for faster IoT deployment in regulated global markets.

The A7663E is built LGA form factor, offering high integration capability while maintaining reliability. It supports LTE-FDD with downlink speeds up to 10 Mbps and uplink up to 5 Mbps, making it suitable for medium-data-rate IoT scenarios that demand efficient wireless performance and long lifecycle support. The inclusion of integrated multi-constellation GNSS (GPS, GLONASS, BeiDou) further enhances its value for location-based applications like asset tracking, smart mobility, telematics, surveillance devices, industrial routers, and remote diagnostics and so on.

Additionally, A7663E provides a rich set of interfaces to support diverse product architectures. Its software feature set includes FOTA (Firmware Over-The-Air), SSL encryption, and LBS—ensuring devices stay secure and up-to-date throughout their lifecycle. This greatly reduces time-to-market and engineering cost.

With global compatibility, the A7663E is an ideal LTE Cat 1 solution for IoT developers aiming to scale deployments across multiple regions with confidence.

For more information visit: https://www.simcom.com

A strategic communications and market intelligence firm dedicated to the commercial space industry is accelerating its expansion into North America, formalising two new transatlantic partnerships. UK-headquartered AstroAgency has signed two Memorandums of Understanding (MOU) with Voyager Technologies and Cislunar International, kicking off a six-month push to grow the firm’s connections and clients across the United States and Canada.

The first MOU will see AstroAgency and Voyager Technologies collaborate across several fronts, including European and U.S. stakeholder engagement, strategic marketing support, and the development of VISTA, a new science park initiative. AstroAgency is anticipated to establish a North American office at VISTA as the development progresses.

“AstroAgency’s establishment at VISTA is a reflection of our shared belief that in-space research starts with collaboration here on Earth,” said Jeffrey Manber, president, International & Space Stations, Voyager Technologies. “Our science park lays the foundation for a truly international ecosystem, one that accelerates discovery, fosters innovation and ensures space can benefit all of humanity.”A second MOU was signed with Cislunar International, a growing company with bases in Washington and Texas, focused on tailored support for aerospace businesses. The agreement builds on a long-standing relationship with Cislunar co-founder Sam Peterson, who has served as an advisor to AstroAgency since 2023. The partnership will see both firms work together to strengthen services for their international client bases.

The new partnerships followed AstroAgency’s participation in last week’s Small Satellite Conference in Salt Lake City, Utah, where company Director Daria Filichkina featured on stage in a panel discussion alongside representatives from the United States National Oceanic and Atmospheric Administration (NOAA), Astroscale and the Secure World Foundation.

“We’re excited to deepen our North American partnerships and bring our experience in delivering bold, impactful campaigns and strategic guidance to companies across the United States and Canada,” said Daniel Smith, CEO of AstroAgency. “After six years of pioneering this niche service, backed by more than 100 project case studies, SmallSat offered the perfect launchpad for our next chapter.”

AstroAgency’s trip to Utah part of a space delegation led by Scottish Development International, while the Voyager signing in Colorado was attended by representatives of the UK Department for Business and Trade. The activity reflects the company’s continued focus on international collaboration, sustainability in space and stakeholder engagement; values demonstrated through AstroAgency’s collaborations with the UK Space Agency, European Space Agency, Committee on Earth Observation Satellites, United Nations, Mohammed bin Rashid Space Centre, and the Australian and Scottish Governments.

Established as the first full-service marketing agency for space in 2019, the company previously delivered projects in North America for clients that include NovaSpace, PCI Geomatics, the Secure World Foundation, Asterra, TerraMetric and, more recently, the firm secured its first collaboration with NASA. Last week’s developments reflect a strategic commitment to the region as a priority for long-term growth, with Canadian talent already among the company’s expanding international team. New resources and senior leadership focus are being invested to strengthen relationships and increase AstroAgency’s presence locally. To date, the firm has supported over 80 organisations worldwide, from government space agencies to commercial satellite manufacturers, launch providers, and Earth observation companies, with clients including Spire Global, CATALYST, and Hydrosat. Most recently, AstroAgency welcomed its first Japanese client, Axelspace, following a successful trade mission to Japan.

With the United States the most mature space economy in the world and Canada’s sector growing at pace, AstroAgency sees this North American expansion as a natural step in its global mission in transforming how people understand space; not as a distant ambition, but as a vital enabler of economic growth, environmental resilience and daily life on Earth.