The global landscape of energy production is undergoing a profound transformation as nations and industrial conglomerates race to secure sustainable alternatives to traditional fossil resources.

At the heart of this transition, the Middle East is rapidly evolving into a pivotal hub for the generation and export of next-generation energy commodities. Serving this burgeoning demand, a significant new infrastructure initiative has been unveiled, designed to supply international markets with critical clean energy solutions.

Driving this momentum, Go Energy Group, operating through its parent organisation Go Energy USA Corporation, has formalised a strategic alliance with Clean Energy Co. The latter, a prominent Saudi Arabian enterprise operating within the publicly listed Ethraa Group framework alongside its subsidiary SARCO, brings substantial regional expertise to the venture. Together, these entities are collaborating to spearhead a major new low-carbon fuels project situated within the Kingdom of Saudi Arabia.

Designed from its inception with a robust export-oriented business model, the initiative specifically identifies Europe and Asia as its primary target markets. Both regions are currently experiencing a surging industrial and commercial appetite for sustainable feedstock and power generation alternatives.

A comprehensive phased development strategy

To manage the scale and complexity of the operation, the consortium has outlined a rigorous, three-phase development trajectory. This structured approach allows the partnership to scale production safely and in alignment with international demand. The core project parameters include:

• Initial production capacity: The facility will commence operations with a baseline output of approximately 50,000 tonnes of low-carbon fuel per year.

• Progressive scaling: A three-phase expansion plan is integrated into the project's lifecycle to ensure steady and manageable growth.

• Maximum build-out target: At the culmination of its final phase, the ambitious infrastructure project is intended to reach a maximum capacity of up to 400,000 tonnes annually.

• Configuration and product slate: The ultimate technical configuration, optimal capacity ramp-up schedules, and final investment decisions will be dictated by the results of ongoing technical, commercial, and regulatory feasibility assessments.

Advancing engineering and technological frameworks

Operational progress is already underway, with the initial engineering design activities having officially commenced. The development partners are actively evaluating a spectrum of advanced technologies to integrate into the facility. Their primary objective is to deploy systems specifically engineered to support the efficient production of low-carbon fuels, with a strict emphasis on overall performance and suitability for the rigorous standards of international markets.

Before construction can begin, the consortium must complete a comprehensive suite of preparatory work. This includes finalising further engineering schematics, undertaking detailed feasibility studies, securing all necessary environmental and operational permits, and outlining the supporting infrastructure requirements. Subject to the successful navigation of these developmental milestones and regulatory approvals, the partners anticipate that the facility will officially enter commercial operation in the first quarter of 2029.

Meeting international demand across Europe and Asia

The strategic positioning of this Saudi Arabian facility is intrinsically linked to the shifting regulatory and commercial frameworks across Europe and Asia. Industries within these continents are actively seeking lower-carbon energy options to meet increasingly stringent environmental targets. As the project matures, Go Energy Group and Clean Energy Co will continuously assess the most viable products and logistical routes to market. This fluid approach ensures the project remains responsive to specific customer requirements, evolving international standards, and dynamic regulatory landscapes.

A pivot towards broader strategic opportunities

Interestingly, this current alliance represents a strategic evolution in the relationship between the participating organisations. Previously, the companies had signed a memorandum of understanding to exclusively explore the development of a renewable ammonia plant. However, following a comprehensive strategic review of market conditions, the parties mutually agreed to conclude that initial agreement.

Instead, they have chosen to formalise this new, broader cooperation focused entirely on the rapidly expanding low-carbon fuels sector. This decisive pivot reflects a shared intention to closely align their collaborative efforts with the most lucrative and impactful market opportunities currently available. Furthermore, this refined focus serves to reinforce and deepen the overarching strategic relationship between Go Energy Group and the Ethraa Group portfolio, positioning them as formidable players in the future of global clean energy exports.

As Egypt accelerates its transition towards a low-carbon economy, the nation’s renewable energy landscape has achieved a monumental milestone.

Infinity Power and HAU Energy have successfully secured a debt financing package of up to US$566mn. This capital is dedicated to the development of the Nefer Minya Solar PV Project, an endeavour poised to become the largest solar power plant in Egypt and the African continent.

The transition to green energy across North Africa is increasingly focused on ensuring electricity remains available long after the sun sets. The Nefer Minya development addresses this challenge directly. Located in Minya, the pioneering project pairs immense solar generation capabilities with cutting-edge battery technology to strengthen national energy security.

Unprecedented scale and storage capabilities

To understand the scale of the Nefer Minya facility, it is essential to look at the core specifications that distinguish it from previous infrastructure developments in the region:

• Massive solar capacity: The site will boast 1.2 GWp of solar photovoltaic generation capacity.

• Advanced battery storage: The project integrates a colossal 600 MWh Battery Energy Storage System (BESS).

• Peak demand support: The facility will store electricity during peak daylight hours, deploying it precisely when grid demand surges after sunset.

• Long-term reliability: Output is secured via a 25-year power purchase agreement with the Egyptian Electricity Transmission Company.

Mobilising international capital for green infrastructure

Funding an infrastructure project of this magnitude requires robust international cooperation, highlighting global confidence in the Egyptian renewable energy sector. The European Bank for Reconstruction and Development (EBRD) arranged up to US$265mn of the total package. This includes US$160mn from the EBRD’s own funds, alongside US$75mn mobilised from the Bank of Jordan. Furthermore, the Clean Technology Fund has provided up to US$30Mn in concessional financing. The remainder of the US$566Mn package is being supplied by prominent international development finance institutions, including DEG, FMO, and Proparco.

Driving sustainable growth and grid resilience

The leadership behind the joint venture views this financial close as a transformative moment for regional infrastructure. Eng. Nayer Fouad, Co-Founder and CEO of Infinity Power, commented:

“This landmark financing reflects strong confidence in Egypt’s renewable energy sector and Infinity Power’s ability to deliver large-scale clean energy infrastructure. As the largest solar PV project in Egypt and Africa, paired with one of the country’s first utility-scale battery energy storage systems, Nefer Minya will strengthen energy security, enhance grid resilience and support Egypt’s transition to a low-carbon economy. Together with HAU Energy and our financing partners, we are proud to deliver this flagship project as we advance towards our goal of 10 GW of operational renewable energy capacity by 2032 and expand access to affordable, reliable clean energy across Africa.”

Dalia Wahba, CEO of Hassan Allam Utilities, commented:

“Securing this financing package shows what strong partnerships can achieve in mobilising capital for transformative energy infrastructure. Egypt has set a clear ambition to generate 42% of its electricity from renewable sources by 2030, and Hassan Allam Utilities is committed to helping drive that agenda by delivering green, reliable infrastructure across the country. Through HAU Energy, alongside Infinity Power and our financing partners, we are combining large-scale solar generation with battery storage to provide clean power that is available when the grid needs it most. Every megawatt-hour we produce reduces reliance on imported fuel, strengthens Egypt's energy security and builds a more competitive foundation for sustainable growth.”

Beyond the financial and technological triumphs, the Nefer Minya project promises profound socio-economic and environmental benefits for the Egyptian population. Once fully operational, the plant is expected to generate enough clean electricity to sustainably power more than 1.4 million homes every single year. Simultaneously, it will prevent the release of over 1.5 million tonnes of harmful carbon dioxide emissions annually. By substituting imported, carbon-heavy fuels with an abundant domestic solar resource, Egypt is decisively laying the groundwork for a more resilient, highly competitive, and environmentally responsible future on the African continent.

Wire bonding has remained a fundamental interconnection technique across the semiconductor industry and microelectronics for 70 years.

High-quality, durable connections rely entirely on the absolute cleanliness of bonding surfaces. Today, dry and scalable quattroClean snow-jet technology has emerged as a reliable, cost-effective method to achieve this precision.

The critical role of cleanliness in interconnection technology

Wire bonding spans applications from automotive systems and consumer products to MEMS, industrial sensors, battery cells, and energy storage. Stefan Schmitz, Managing Director of Bond-IQ GmbH and initiator of the Surf:Guide industry project, notes: “Wire bonding is generally divided into three major process groups. Two of these are fine-wire processes, in which - depending on the application - wires made of gold, silver, aluminum, or copper with diameters ranging from 18 to 50 µm are used. The third group involves thick-wire bonding with wire diameters ranging from 100 to 500 µm,”.

Because bonds form in the nanometre range, the targeted metals must reach an atomic state relative to one another. Consequently, residues as small as 5 to 10 µm can severely hinder operations. Problematic residues include:

• Fingerprints and bleeding adhesives

• Dust and flux residues

• Outgassing from various polymers

• Oxides and remnants from wet-chemical cleaning

“Visually detectable contamination is critical for bonding. If this contamination is no longer visible after cleaning, the bonding surface is usually sufficiently clean. This can generally be determined using a microscope and a visual before-and-after comparison. This alone can increase the success rate three- to fourfold,” explains Stefan Schmitz.

Evaluating methods for surface preparation

Historically, bonding surfaces have been prepared using wet chemical processes relying on solvents or water-based media, which necessitate energy-intensive drying phases. While plasma and laser cleaning offer alternatives for specific contaminants, they present unique limitations.

“For very sensitive surfaces, such as those in microelectronics, however, the costs of a laser system and the appropriate laser technology must first be balanced,” explains Stefan Schmitz. “The industry is currently showing interest in quattroClean snow-jet cleaning, as it can also remove more stubborn, encrusted contaminants.”

Sustainable cleaning with quattroClean

The cleanroom-compatible quattroClean snow-jet technology provides a robust dry cleaning process for full-surface or localised applications. It systematically removes particulate contaminants down to the submicrometre range and film-like residues to the nanolayer level.

This method utilises liquid, purified carbon dioxide sourced from chemical production and biomass energy generation. The medium travels through a dual-component ring nozzle, expanding into fine snow crystals. Concentrated by a compressed air jet, these crystals are propelled at supersonic speeds onto the target. As the carbon dioxide completely sublimates, surfaces remain entirely dry. Dislodged contaminants are extracted alongside the gas, preventing recontamination. This process holds the Green Screen certification for cleaners and degreasers.

Diverse applications across modern manufacturing

The exceptionally low abrasiveness of snow crystals allows the quattroClean technology to safely treat finely structured surfaces, including clearing flux from printed circuit boards (PCBs) and cleaning battery cells.

“The process can be used very efficiently on printed circuit boards, which often have a mixture of organic residues such as grease, fingerprints, flux, or residues from wet chemical cleaning processes. We have also achieved excellent results on semiconductors and on housings that have undergone electroplating or other wet chemical processes,” reports Stefan Schmitz.

The straightforward automation of this technology enhances its industrial appeal. “This results in two advantages. First, automated cleaning ensures reproducible, uniform results. Second, when cleaning is integrated into the manufacturing process, freshly deposited contaminants can be removed immediately,” Stefan Schmitz adds.

acp systems AG will showcase these advancements at Electronica in hall A2, booth 112, in Munich from 10 to 13 November 2026.