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ProLogium Technology Releases Video Showcasing World’s First Giga-Level Factory for Lithium Ceramic Batteries

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Explore the Revolutionary Processes and Exclusive Technologies Behind Lithium Ceramic Batteries

TAOYUAN, June 20, 2024 /PRNewswire/ — ProLogium Technology, the first to mass-produce lithium ceramic batteries and a leader in next-generation battery technology, has released a video highlighting its first giga-level factory for lithium ceramic batteries in Guanyin District, Taoyuan. This video showcases ProLogium’s state-of-the-art battery manufacturing processes and exclusive patented technologies at this facility, which was inaugurated in January. This significant milestone demonstrates ProLogium’s success in transitioning from pilot-scale to full-scale production, proving their capability to mass-produce lithium ceramic batteries. In 2024, they are ready to deliver C-samples to global automotive industry clients from this brand-new facility in Taoyuan, commonly known as the Taoke plant.

ProLogium has disrupted the technology in the lithium-ion battery industry, which has been adopted for over 30 years, by replacing the traditional polymer separator film with a ceramic separator. This breakthrough has overcome the inherent limitations of the old lithium-ion battery structure and led to the development of an innovative battery architecture with two substrates “sandwiching” the cathode, ceramic separator, and anode, supported by ProLogium’s exclusive Logithium™ technology on the sides. This revolutionary architecture can accommodate more chemical systems and materials, enhancing the battery’s energy densities. It also enables fast charging from 5% to 60% in just 5 minutes, translating to a range of 300 to 400 kilometers while maintaining a long cycle life under such conditions. This new architecture creates a paradigm in which performance and energy density are achieved without trade-off, and supports mass production with streamlined processes, higher efficiency, greater capacity, and improved yield, significantly reducing manufacturing costs. This directly challenges the market’s long-standing perception that next-generation batteries are “unable to be mass-produced” and “expensive.”

Simple is best. While it’s not easy to achieve simplicity, ProLogium has managed to streamline the 17 core battery processes down to 13.

With ProLogium’s revolutionary battery architecture and exclusive process technologies, the core production steps for lithium ceramic batteries have been streamlined from the traditional 17 steps to just 13. This reduction particularly omits the most time-consuming back-end assembly processes, such as separator film placement, electrolyte injection, vacuum soaking, and degassing. This one-stop, automated production line creates commercially competitive next-generation batteries for the market.

Faster Production, Higher Output: ProLogium Achieves Greater Efficiency with Exclusive Process Technologies Across the Line

Regarding electrode manufacturing, ProLogium’s use of a solid-state ceramic separator allows for processing multiple electrodes simultaneously, unlike traditional battery production, which uses polymer separator films and processes only one piece at a time. ProLogium’s exclusive coating process enables efficient roll-to-roll operation with automatic roll changeover. This special coating process, which applies the ceramic separator directly to the anode, eliminates the need for a separator film placement step. Compared to its first-generation technology, ProLogium’s current machinery boasts a 2.6-fold increase in width and a 2.1-fold increase in operating length, significantly boosting productivity. The production line speed is over four times that of the previous generation, overcoming a major technical limitation faced by traditional battery production. Additionally, ProLogium has co-developed a specialized oven with its partner, specifically designed for lithium ceramic batteries. This proprietary design facilitates rapid drying of the electrodes, enhancing production efficiency for next-generation batteries.

Following electrode manufacturing is ProLogium’s exclusive “hot flow dehydration” process. This technique enables rapid dehydration at 200 degrees Celsius during the roll winding process, completing the task in just 8 minutes. In contrast, traditional battery processes require 8 hours for dehydration through “vacuum drying.” This significantly enhances production efficiency.

After dehydration, the next step is ProLogium’s groundbreaking and exclusive technology, “Electrode Assembly to Form an Inlay.” This process precisely aligns and attaches 12 pieces of cathode and anode electrodes simultaneously through a single hot pressing. By applying high temperature and pressure, this technique reduces interface resistance and enhances electrical performance. This advancement significantly increases production speed and capacity for next-generation batteries, setting ProLogium’s lithium ceramic batteries apart from traditional ones, which can only attach one piece at a time due to material thermal limitations.

Overcoming the Most Challenging “Multilayer Yield” Hurdle: The One and Only Logithium™ Printer at ProLogium

Yield is the last hurdle to overcome for mass-producing next-generation batteries. Achieving high yield rates from single-layer to multilayer production is not as simple as stacking electrodes together; it typically takes many years to accomplish. Among ProLogium’s more than 800 patents, hundreds are related to yield enhancement, covering areas from cell structure to process design. The most critical of these is the Logithium™ printer, exclusively at ProLogium. This patented printer ensures precise alignment and attachment during manufacturing, while also acting as a moisture barrier and preventing short circuits. This technology has enabled single-layer yields of 99.9% and multilayer yields of 94% on the pilot line. Additionally, ProLogium employs other exclusive processes such as film laminators and flexo printing machines, both absent in traditional battery manufacturing. Along with over 4,000 quality checkpoints and automatic inspection equipment, these processes ensure higher yield and optimal quality. The laminator process presses and attaches a special heat-resistant carrier film to the substrate, making it thinner, stiffer, and more thermally resistant, thereby increasing the cell’s energy density. This carrier film can be recycled in back-end processes to be reused, further reducing costs. Regarding the flexo-printing process, it prints alignment marks on the substrates to achieve the precise alignment and attachment required for lithium ceramic battery production, enhancing yield. Later in the calendering process, it involves hot pressing with high temperature and pressure, making the electrodes more compact and improving ion and electron conductivity and energy density.  

Pioneering the Use of 100% Silicon Anode: ProLogium’s “P-C-R Next-Generation Battery Solution” with Lithium Ceramic Batteries

ProLogium’s revolutionary battery architecture not only creates a safer next-generation battery but also enables the use of advanced cathode and anode materials to enhance driving range. ProLogium leads the industry by using a 100% silicon anode with its patented silicon composite material (SCM), offering high utilization and low cost. Combined with the ceramic separator’s high safety, preventing short circuits, the volumetric energy density can reach 700-900 Wh/L. If ultra-thin lithium metal or an anode-free design is used, the density can reach 900-1,100 Wh/L. This approach maximizes resource efficiency and reduces costs, resulting in a solution that perfectly balances Performance, Cost, and Resource Circulation (P-C-R). ProLogium’s P-C-R solution addresses current industry pain points and can be applied across a variety of industries and products.

“A new era has begun,” remarked Vincent Yang, founder and chairman of ProLogium. “ProLogium’s lithium ceramic batteries and next-generation battery technology are leading the battery industry into a new chapter, setting the stage for the next 30 years. Our revolutionary battery architecture is entirely different from traditional lithium-ion batteries. It increases energy density while maintaining fast-charging capability, achieving a 5-minute fast charge. Remarkably, after 800 deep cycles under fast-charge conditions, the battery retains 80% of its capacity, delivering greater value to consumers. Our Taoke demonstration factory is proof that we are the first to make mass production possible, serving as a prototype for our ongoing expansion. We will continue to advance our product and manufacturing technologies, committed to driving a more sustainable and efficient energy transition across industries. Through our technological prowess, we will continue to showcase Taiwan’s capabilities to the world!”

More information: World’s First Giga-Level Factory for Lithium Ceramic Batteries

About ProLogium

Founded in 2006, ProLogium specializes in innovative lithium ceramic battery solutions for electric vehicles, consumer markets, and industrial applications. With over 800 global patents (including those pending and already granted), ProLogium has delivered nearly 8,000 next-generation battery samples to automakers worldwide. Its first giga-level factory in Taoyuan, Taiwan, will start supplying automakers in 2024, accelerating capacity expansion in key markets globally. ProLogium recently opened its first overseas R&D center in Paris-Saclay in May 2024 and is on track to complete its Dunkirk gigafactory by late 2026 or early 2027.

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Advanced Process Solutions Elevates Clint Johnson to Vice President of Services and Operations

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Veteran Semiconductor Leader Brings More Than 20 Years of Operational Excellence, Strategic Growth, and Industry Leadership

DALLAS, Oct. 27, 2026 /PRNewswire/ — Advanced Process Solutions (APS), an industry leader in high precision and high purity manufacturing and process technology solutions, serving the semiconductor, aerospace, electronics, and industrial markets, today announced the promotion of Clint Johnson to Vice President of Services and Operations. As APS continues to expand its presence and capabilities within the semiconductor industry, Johnson’s leadership will play a critical role in advancing the company’s mission, strengthening customer partnerships, and delivering best-in-class service solutions.

“Clint has been an invaluable asset to APS since joining us as Director of Field Services earlier this year,” said Suhas Uppalapati, Chairman of APS. “He has demonstrated exceptional leadership and a relentless focus on operational performance. His dedication to customer success, workforce development, and continuous improvement quickly established him as a key contributor, and we are excited to see him continue to push APS forward in this expanded role.”

Johnson oversees APS’s service and operational functions, ensuring the organization maintains the highest standards of safety, regulatory compliance, quality, and customer satisfaction. His leadership approach is rooted in accountability, collaboration, and operational discipline, creating an environment where teams are empowered to excel while supporting the company’s broader strategic objectives.

“I am honored to step into the role of Vice President of Services and Operations and to work alongside such a talented team,” said Johnson. “The semiconductor and advanced manufacturing sectors are moving at an unprecedented pace. Together, we will continue focusing on safety, quality, and operational execution to ensure APS is uniquely positioned to help our global customers scale, optimize workflows, and meet today’s complex production demands.”

Prior to APS, Johnson spent more than 20 years in operational management at Air Liquide, a world leader in chemical manufacturing. He earned a degree in organizational leadership from East Texas A&M University.

About Advanced Process Solutions (APS)

Advanced Process Solutions (APS) is a leading provider of precision manufacturing, engineered process systems, and ultra-high-purity solutions serving the semiconductor, aerospace, electronics, and advanced industrial markets. With over 25 years of industry experience, APS specializes in chemical delivery and dispensing systems, specialty gas distribution, filtration and purification, precision fabrication, automation and controls, and turnkey process system integration.

Strategically located in the Dallas Metroplex, APS supports the rapidly expanding U.S. semiconductor manufacturing ecosystem, including Texas’s emerging “Silicon Prairie.” To support its continued growth and innovation, APS is expanding into a purpose-built, 100,000-square-foot, high-tech manufacturing facility in Van Alstyne, Texas, featuring a Center of Excellence, state-of-the-art research and development capabilities, and advanced cleanroom facilities. This investment will significantly enhance APS’s manufacturing capacity, engineering capabilities, and ability to deliver next-generation process solutions.

Combining engineering expertise, manufacturing excellence, and an unwavering commitment to quality and safety, APS partners with leading global manufacturers to deliver innovative, reliable, and scalable solutions that enhance operational efficiency and support mission-critical production environments.

For more information, visit www.APSNextGen.com.

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From Grid Constraint to AI Growth: Hitachi Vantara and Duraflow Transform Data Center Energy Management for Greater AI and Compute Capacity

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Hitachi Vantara pilots one of the world’s largest Phase Change Material installations in its Netherlands data center, demonstrating how organizations can use up to 90% less electricity for thermal managementImplementation requires zero water for cooling, reducing the resources needed to support data center operationsThis generates more computing capacity from existing power infrastructure, rather than diverting power to cooling

ZALTBOMMEL, The Netherlands and SANTA CLARA, Calif., Oct. 27, 2026 /PRNewswire/ — As artificial intelligence (AI) accelerates demand for computing power, data centers face a growing challenge: how to increase AI and compute capacity when access to additional electricity is increasingly constrained.

Hitachi Vantara, the data storage, infrastructure and hybrid cloud management subsidiary of Hitachi Ltd. (TSE: 6501), is demonstrating a new approach to address this challenge by showing how data centers can effectively use their power for AI and compute capacity rather than power and cooling. At its data center in the Netherlands, Hitachi Vantara has deployed one of the world’s largest operational Phase Change Material (PCM) installations, using technology developed by Dutch thermal energy company Duraflow.

For more information about Hitachi Vantara’s approach to AI, please visit: https://www.hitachivantara.com/solutions/ai-analytics

Depending on the application, PCM technology can help reduce electricity consumption related to thermal management by up to 90%, while requiring no water for cooling. By reducing the energy needed to manage power and cooling, a greater share of available electrical capacity can be used for computing – an increasingly important consideration as organizations deploy more energy-intensive AI workloads.

Tackling the energy challenge behind AI
Every watt consumed by AI ultimately becomes heat and managing that heat requires as much as 40% of a data center’s total energy needs. At the same time, as AI workloads continue to grow, the ability to convert available electricity into useful computing capacity will increasingly determine how quickly digital infrastructure can expand. This creates a growing challenge for data center operators seeking to increase computing capacity within constrained power infrastructure. In regions where grid congestion or limited access to additional electricity can constrain data center expansion, improving infrastructure efficiency can help organizations make more computing capacity available within their existing power connection.

Hitachi Vantara faced this challenge as demand for high-density computing and AI infrastructure increased. Rather than assuming that more computing required a greater amount of power, the company explored ways to make its existing electrical capacity work harder. The resulting deployment of Duraflow’s PCM technology provides a real-world proof point for this approach at an operational scale.

Real-world performance: 240 kW of cooling with low electrical consumption
The installed system provides a total cooling capacity of 240 kW across two 120 kW PCM units. According to operational monitoring data, the two units collectively consume just 5–8 kW of electricity, depending on operating conditions. For comparison, a conventional DX cooling system delivering the same 240 kW cooling capacity would require an estimated 60–80 kW of compressor power. These operational figures illustrate how PCM-based thermal management can significantly reduce the electricity required for cooling, freeing up more of the data center’s available power capacity for computing.

“This project started with a very practical challenge: how do we grow our computing capacity when access to additional electricity is limited,” said Simon Ninan, Senior Vice President of Business Strategy, Hitachi Vantara. “We realized that if we could dramatically reduce the amount of power required for thermal management, we could make more of our existing electrical capacity available for computing. By partnering with Duraflow, we are demonstrating how smarter energy management can become an important enabler of AI growth.”

The approach also supports Hitachi Vantara’s broader commitment to operating more efficiently and sustainably, including its goal of becoming carbon neutral in Scope 1 and 2 GHG emissions by FY2030.

Building efficiency across the infrastructure stack
The deployment is part of Hitachi Vantara’s broader focus on helping organizations get more value from their infrastructure while managing the growing energy demands of digital workloads.

That approach extends across the infrastructure stack. Hitachi Vantara’s Virtual Storage Platform One (VSP One) Block includes a 4:1 Data Reduction Guarantee and features Dynamic Carbon Reduction technology, which reduces energy consumption by switching CPUs into eco-mode during periods of low activity. Its always-on compression capability allows the system to switch from inline data reduction to post processing, which further reduces energy consumption and helps reduce a CO2 footprint by as much as 40%.

“Addressing the energy demands of AI isn’t about optimizing one part of the business in isolation,” said Courtney Hadden, Sustainability Director, Hitachi Digital. “It’s about working in concert across the organization and with innovative ecosystem partners to find efficiencies at every stage – from the products we build, how we bring them to market, and everything in between. The answer cannot simply be to consume more power. We need to become smarter about how we use the power we already have.”

Dutch innovation, demonstrated at operational scale
Developed in the Netherlands, Duraflow’s PCM technology absorbs thermal energy during periods of peak demand before releasing it in a controlled manner when demand decreases. Unlike conventional cooling approaches that rely continuously on electrically driven refrigeration to remove heat, PCM technology provides a way to manage and store thermal energy more efficiently. The system requires no water for cooling, helping data centers reduce their reliance on water resources while significantly lowering the electricity needed for thermal management.

“Developing technology is one thing; proving that it can operate at this scale in a live, mission-critical environment is another,” said Simon Loerakker, CEO, Duraflow. “Our collaboration with Hitachi Vantara has allowed us to demonstrate the potential of innovation at an unprecedented scale. Together, we are showing that sustainable innovation and the growth of AI infrastructure can go hand in hand.”

For more information on Hitachi Vantara’s AI-enabled infrastructure, please visit: https://www.hitachivantara.com/en-us/products/storage-platforms.

Additional Resources:

Blog: Raising the Stakes for Sustainable, AI-ready InfrastructureBlog: Five Habits That Cut IT Energy Waste, Without Spending MorePress Release: Hitachi Vantara Releases FY2025 Sustainability Report, Highlighting Leadership in Energy-Efficient Infrastructure for AI-Driven WorkloadsWebinar: Green Data: Sustainable Innovations in Data CentersPress Release: Hitachi Vantara Unveils New Virtual Storage Platform One Capabilities to Enable Stronger Cyber Resilience, Performance and Sustainability

About Duraflow
Duraflow develops advanced thermal energy management technology based on Phase Change Materials (PCM). Its independently developed technology enables organizations to significantly reduce energy consumption for thermal management, maximize the use of existing electrical infrastructure and support the sustainable growth of mission-critical digital environments.

About Hitachi Vantara
Hitachi Vantara is transforming the way data fuels innovation. A wholly owned subsidiary of Hitachi Ltd., Hitachi Vantara provides the data foundation the world’s leading innovators rely on. Through data storage, infrastructure systems, cloud management, and digital expertise, the company helps customers build the foundation for sustainable business growth. To learn more, visit www.hitachivantara.com.

About Hitachi, Ltd. 
Through its Social Innovation Business (SIB) that brings together IT, OT (Operational Technology) and products, Hitachi aims to be a global leader in continuously transforming social infrastructure through digital, contributing to a harmonized society where the environment, wellbeing, and economic growth are in balance. Hitachi operates worldwide across four sectors – Digital Systems & Services, Energy, Mobility, and Connective Industries – as well as a Strategic SIB Business Unit focused on new growth areas. With Lumada at its core, Hitachi creates value by combining data, technology, and domain knowledge to solve customer and social challenges. Revenues for FY2025 (ended March 31, 2026) totaled 10,586.7 billion yen, with 606 consolidated subsidiaries and approximately 290,000 employees worldwide. Visit us at www.hitachi.com.

HITACHI is a trademark or registered trademark of Hitachi, Ltd. All other trademarks, service marks, and company names are properties of their respective owners.

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Parks Associates: HDR Is Shaping the Future of Premium Video Entertainment

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New Parks Associates white paper, developed in partnership with InterDigital, examines how HDR is advancing viewing experiences across streaming, live sports, gaming, and mobile devices

PLANO, Texas, Oct. 27, 2026 /PRNewswire/ — New research from Parks Associates shows high dynamic range (HDR) is becoming a foundational component of premium video entertainment, creating opportunities for television manufacturers, streaming services, and content creators to differentiate through picture quality. The research, High Dynamic Range and the Future of Video, developed in partnership with InterDigital, examines HDR’s expanding role across the entertainment ecosystem.

HDR enhances brightness and contrast and produces richer colors and more lifelike images for the video-viewing experience. The white paper explores how broader device support, growing content availability, and advances in production and distribution are moving HDR from a premium feature toward an expected part of high-quality viewing.

“HDR gives the entertainment industry a powerful way to make improvements in picture quality,” said Michael Goodman, Director, Entertainment Research, Parks Associates. “For manufacturers, it helps demonstrate the value of advanced displays. For streaming services and content owners, it provides an opportunity to deliver a more compelling experience and preserve the creative intent of their programming.”

“Consumers may not always know HDR by name, but they recognize the experience it enables: richer color, deeper contrast and a more lifelike picture,” said Lionel Oisel, Head of Video Labs, InterDigital. “As HDR expands across streaming, live sports, gaming and mobile, the opportunity is to make that premium experience consistent and efficient on every screen. Innovation in HDR, video compression and delivery will be fundamental to making that possible.”

The white paper identifies several developments shaping HDR’s next phase:

Smart TVs are the foundation. Smart TVs are the primary streaming video device in 62% of US internet households with a connected TV device.

Live sports and gaming expand HDR’s relevance. These experiences showcase HDR’s ability to reproduce bright highlights, detailed shadows, and realistic imagery, while pushing improvements in production and real-time processing.

Mobile viewing extends HDR beyond the television. Mobile phones account for 24% of weekly video consumption, with tablets contributing another 11%.

Technology advances improve delivery economics. AI-assisted image processing, cloud-based production, and next-generation codecs such as Versatile Video Coding (VVC) will simplify workflows and deliver HDR more efficiently.

The research also identifies challenges that require continued collaboration to ensure the successful expansion of HDR. Differences in HDR formats, device capabilities, and service implementations can produce inconsistent viewing experiences. Content providers must manage the cost and complexity of supporting multiple formats as audiences move from standard to HDR in their video viewing.

Parks Associates and InterDigital will highlight this research at Future of Video: Business of Streaming, an executive conference for the streaming and video industries on November 17-18 in Marina del Rey, California. Register here. 

For more information, contact Mindi Sue Sternblitz-Rubenstein.

About Parks Associates

Parks Associates helps companies identify new opportunities, refine strategy, and accelerate growth in connected technology markets through data-driven insights and industry expertise. With more than 40 years of experience, the firm delivers proprietary consumer and industry research, market forecasts, and strategic analysis that guide business decisions across personal, connected home, small business, and commercial technology ecosystems. Parks Associates supports clients in navigating evolving markets including AI, security, smart home, broadband, entertainment, energy, multifamily, smart buildings, and connected health.

The firm also fosters industry growth and collaboration by convening thousands of leaders each year through its flagship executive conferences, including CONNECTIONS™, Connected Health Summit, Smart Energy Summit, Smart Spaces, and Future of Video. Learn more at https://www.parksassociates.com.

Mindi Sue Sternblitz-Rubenstein
Parks Associates
972.490.1113
425707@email4pr.com 

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