Returning for the 2025 season and 75th anniversary year this weekend, the Formula 1 sport has released a round-up on the progress made towards its sustainability and social commitments last year. In the form of 2024 Impact Report, which will be released later this year, the progress made towards its sustainability and social commitments with Net Zero as the goal for 2030, the Formula 1 sport has – on the environmental front – made significant investments in Sustainable Aviation Fuel (SAF) as part of its ultra-efficient logistics strategy. 
It has invested significantly in SAF as it delivers an estimated 80 percent reduction in associated carbon emissions per flight compared to the use of conventional aviation fuel. The combined investment in SAF with Global Partners DHL and Qatar Airways reduced total related emissions by more than 8,000 tCO2e (tonnes of carbon dioxide equivalent), an approximate 19 percent reduction in related emissions– compared to traditional aviation fuel – for the air freight charter programme operated by Formula 1 across the flyaway events of the 2024 season.
The delivery of innovative low-carbon energy generation systems using renewable sources such as hydrotreated vegetable oil (HVO), biofuel, solar panels, and battery began testing in 2023. Last year, they were used at the Red Bull Ring, the Hungarian Grand Prix and the Italian Grand Prix in Monza. For the 2025 season, a programme will be rolled out to reduce more than 90 percent of carbon emissions at all European Grands Prix in key areas such as the Paddock, Pit Lane, and Event Technical Centre. 
As part of the sport’s ongoing efforts to reduce carbon emissions associated with travel and logistics, improvements were made to the geographical flow of races around the world in 2024. This included agreement from the Promoter in Japan to move the Suzuka race back from September to April to fit with the Asia Pacific segment of the schedule, while Azerbaijan took its slot to align with Singapore. The organisers of the Qatar Grand Prix also approved a move to the penultimate spot in the schedule, back-to-back with Abu Dhabi. From 2026 the Canadian Grand Prix will be hosted earlier in the year and the Monaco Grand Prix will take place on the first full weekend in June, consolidating the European leg of the F1 season into one period, removing an additional transatlantic crossing and delivering significant associated carbon reductions. 
Last year, F2 and F3 cars ran on 55 percent Aramco advanced sustainable fuel and the FIA medical and safety cars operated on 40 percent of it. In 2025, the F2 and F3 cars will move to 100 percent use of it, ahead of the Formula 1 cars adopting the fuels in 2026 in the new hybrid engines that will take to the circuit next year. 
The technology has implications for the automotive industry and existing petrol cars, as the fuel developed by Formula 1 will be a ‘drop-in’ that can be used in road cars without modification and will serve as a sustainable alternative of global benefit. 
Throughout the 2024 season, the cars all operated with FSC approved Pirelli tyres, which means the natural rubber in the type complies with the FSC’s strict standards for sustainable forestry. Some 80 percent of promoters powered aspects of their events using alternative energy sources such as solar panels, green tariffs, and biofuels. Over 90 precent of promoters began offering greener ways to travel to the race.
On the social commitments front, the Formula 1 sport – in 2024 season – marked the fourth year of its F1 Engineering Scholarships programme, which would support 50 underrepresented students by the end of 2025. The Scholarship covers the entire cost of the student’s tuition, together with living expenses for the full duration of their degree, enabling them to focus on their studies. It also offers them support to set them up for their careers, including work experience with one of the ten Formula 1 teams, as well as career workshops and mentoring. 
Formula 1 also launched the global education programme ‘Learning Sectors’ in collaboration with the British Council to inspire young learners in Brazil, India, South Africa, and the UK to pursue STEM subjects. The year long programme kicks off this year with 130,000 students in 700 schools. 
F1 Academy, the sport’s female-only series, competed alongside Formula 1 at seven events last year, completing 21 races. Through F1 Academy’s partnership with the international karting series, Champions of the Future, female participation in racing increased from five percent in 2023 to 25 percent in 2024. 
The sport also continued with hosting apprenticeships and workshops, such as The Next Grand Prix challenge in association with the Social Mobility Business Partnership (SMBP) charity, which challenges students aged between 16 and 18 from a breadth of backgrounds to assume a business leadership role and deliver a fictional bid for a new Formula One World Championship location. 
Ellen Jones, Head of ESG at Formula 1, said, “Innovation and community drove Formula 1's work in 2024. We are thrilled to outline our progress and continued work in this space. Formula 1 as a sport is uniquely positioned to take action through our global reach and technological leadership.”
 
 
 

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NXP Semiconductors has introduced the SAF8444, an automotive radar system-on-chip designed to enable advanced driver assistance systems (ADAS) processing on the sensor itself.

Manufactured using 28-nanometre RFCMOS technology, the single-chip solution operates across the 76–81 GHz automotive radar band to support short-, medium- and long-range sensing. The chip is intended for vehicle platforms, including electric vehicles, where it reduces system costs by simplifying thermal management and vehicle integration.

The system addresses entry-level and economy vehicle lines by integrating hardware components to lower overall bill-of-materials costs. It combines an Arm Cortex-A53 applications processor, an Arm Cortex-M7 real-time core, and NXP’s proprietary Signal Processing Toolbox radar accelerator with digital signal processor support. This architecture allows perception-level processing to occur directly on the radar sensor, reducing the data-load reliance on centralised vehicle compute resources.

The technology is optimised for standard automated safety functions, including adaptive cruise control, autonomous emergency braking, blind-spot detection and park assist. To meet safety criteria such as the Euro NCAP 2030 requirements, which include low-light pedestrian detection, the chip fuses camera and radar data.

Additionally, it features a dual-threaded accelerator to run anti-jamming algorithms and mitigate radio frequency interference in congested environments.

NXP supports the device with an enablement ecosystem that includes radar software development kits, safety frameworks, security components, power management integrated circuits, and networking solutions.

Meindert van den Beld, Senior Vice-President and General Manager, Radar & ADAS, NXP Semiconductors, said, “SAF8444 strengthens our one-chip radar portfolio with a solution that balances performance, power efficiency, and cost. It allows customers to meet tightening safety requirements while reducing system cost—an essential step toward democratizing ADAS adoption.”

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German technology company Bosch has officially introduced its third-generation Silicon Carbide (SiC) semiconductors to the Indian market. The strategic rollout targets the next phase of India's electric vehicle (EV) expansion, shifting the market focus from early adoption toward cost efficiency, longer ranges, and mass-market scaling.

Silicon carbide technology has become a cornerstone of modern EV drivetrains, acting as the primary control mechanism for energy flow within the power electronics system – specifically the inverter. By optimising the conversion of direct current (DC) from the battery into alternating current (AC) for the electric motor, SiC chips directly dictate a vehicle's overall electrical efficiency.

The Gen 3 SiC chips bring several structural and performance improvements over legacy silicon and previous-generation components by delivering around 20 percent higher performance, enabling electric vehicles to achieve extended driving ranges without requiring automakers to increase physical battery pack sizes.

The SiC chips are manufactured using an advanced substrate, which reduces switching energy losses and improves thermal performance. This allows for less complex, more lightweight cooling architectures within the engine bay.

Enhanced miniaturisation allows Bosch to harvest more individual chips per semiconductor wafer, lowering manufacturing cost barriers and making advanced power electronics financially viable for mass-market budget EVs, two-wheelers and commercial fleets.

To date, Bosch has delivered more than 60 million SiC chips worldwide. The multinational engineering firm continues to funnel billions of euros into expanding its global semiconductor fabrication plants to reinforce supply line resilience against global automotive chip shortages.

By introducing the third-generation lineup locally, Bosch aims to establish an end-to-end semiconductor ecosystem in India, backing the government's localized advanced manufacturing and vehicle electrification goals.

Sandeep Nelamangala, Joint Managing Director, Bosch and President of Bosch Mobility India, said, “Our advanced SiC technology is designed to deliver the tangible benefits that Indian consumers demand - longer driving range, faster charging, and lower long-term costs. By making high-efficiency power electronics more accessible, we are helping to unlock the full potential of the EV market, making clean, efficient mobility a reality for everyone in India."

Markus Heyn, Member of the Bosch Board of Management, and Chairman, Bosch Mobility business sector, said, “Our ambition is clear: we want to be a globally leading manufacturer of SiC chips. With our next generation SiC chips, we are helping our customers put even more powerful and efficient electric vehicles onto the road.”

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BYD India, a subsidiary of the world’s largest New Energy Vehicle (NEV) manufacturer, has showcased its DM-i (Dual Mode Intelligent) plug-in hybrid technology in India. Positioned as a transitional bridge between internal combustion engines and pure battery electric vehicles (BEVs), the incoming powertrain technology targets long-haul efficiency with a combined cruising range exceeding 1,200 km.

With a global plug-in hybrid history starting with the F3DM in 2008, BYD has amassed over 8 million cumulative PHEV sales, capturing a 35 percent global market share in the segment. The technology's introduction in India is intended to expand BYD's domestic portfolio beyond its current pure-EV lineup, which serves a growing base of 14,000 customers via 48 showrooms across 40 cities.

Unlike conventional hybrids that rely on a petrol engine as the primary mover with electric motors acting as secondary support, BYD's DM-i architecture reverses this layout to operate as an Electric-First system.

The vehicle relies primarily on battery power across everyday urban commutes. The petrol engine operates secondary to propulsion, working as a silent generator to maintain battery state-of-charge or engaging directly only during high-load, high-speed scenarios.

The system manages energy distribution via three intelligent operating modes:

• EV Mode: The vehicle relies entirely on the electric motor and battery pack, mimicking a standard BEV for zero-emission city driving.
• HEV ‘Series’ Mode: For mid-range driving, the onboard engine acts strictly as a generator, supplying electricity to charge the battery while the electric motor continues to turn the wheels.
• HEV ‘Parallel’ Mode: Under heavy acceleration or high-speed cruising, the petrol engine mechanically couples to the drivetrain, providing direct propulsion to the wheels alongside the electric motor.

The DM-i platform pairs advanced electric motor hardware with a highly specialised internal combustion engine optimised for thermal cycling:

• Xiaoyun 1.5L Engine: The platform utilises a dedicated 1.5-litre naturally aspirated petrol engine that achieves an industry-leading thermal efficiency of 43.04 percent.
• Super Hybrid Blade Battery: Power is stored in a specialised iteration of BYD's proprietary Lithium Iron Phosphate (LFP) Blade Battery, engineered for structural safety, puncture resistance and high thermal stability.
• Fuel Economy: Under standard test conditions, the powertrain achieves a low consumption rate of 4.8-litre per 100 km (approximately 20.8 kmpl).
• Acceleration: The Electric Hybrid System (EHS) delivers seamless, single-speed acceleration, enabling a zero to 100 kmph sprint time of under 5.5 seconds in its high-performance configurations.

Initially entering India in 2007 to build electric buses and commercial chassis, BYD India has scaled its passenger vehicle presence with models including the e6, Atto 3, Seal, eMax 7 and Sealion 7. The company supports its local assembly operations through two manufacturing facilities spanning over 140,000 square meters, representing an investment of more than USD 200 million.

Rajeev Chauhan, Head of the Electric Passenger Vehicles Business, BYD India, said, "The introduction of DM-i technology marks a pivotal step in our commitment to making sustainable mobility more versatile and accessible for Indian consumers. By enabling electric-first driving for daily use while seamlessly supporting long-distance travel, DM-i addresses some of the most pressing barriers to the adoption of sustainable motoring in India. With this innovation, we are bringing a new technology to Indian consumers, and also shaping a smarter, more flexible pathway towards sustainable transportation."

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Astemo Americas, Inc. has announced its collaboration with NVIDIA as a DRIVE Hyperion Tier-1 partner. The company will focus on developing electronic control units (ECUs) utilising dual NVIDIA DRIVE AGX Thor systems-on-a-chip (SoCs) to support the automotive industry's ongoing shift toward software-defined, Level 4-ready autonomous vehicles.

NVIDIA DRIVE Hyperion serves as a production-ready reference architecture and ecosystem designed to help automakers streamline the deployment of highly automated and fully autonomous driving technologies.

Astemo Americas' engineering integration focuses on building a dual-SoC compute engine capable of handling the severe data workloads required by next-generation vehicle platforms. The collaboration pairs specialised high-performance artificial intelligence (AI) computing with optimised thermal and power management.

The partnership expands Astemo Americas' traditional footprint as a tier-one component supplier, shifting it into a primary integration partner for advanced autonomous system infrastructure. By combining its existing background in electric powertrains, active chassis systems and engine management with NVIDIA’s AI processing units, the company aims to provide global automakers with scalable, production-ready central computing nodes that bridge the gap between experimental development and high-volume vehicle production.

Mathieu Devillard, Executive Vice-President and Head of the Electrification Business Division, Astemo, said, “Astemo’s electrification and software-defined vehicle capabilities are central to where mobility is headed. By joining the NVIDIA DRIVE Hyperion ecosystem, we can help accelerate the development of advanced autonomous vehicle technologies while supporting automakers with scalable, cost-effective solutions.”

Rishi Dhall, Vice-President – Automotive, NVIDIA, added, “As a DRIVE Hyperion Tier-1 ecosystem partner developing dual NVIDIA DRIVE AGX Thor ECUs for automotive OEMs, Astemo is helping bring scalable autonomous driving platforms closer to production.”

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