Category: Product News

  • The Rise of Hybrid Hypercars: How Manufacturers Are Redefining Performance in 2026

    The Rise of Hybrid Hypercars: How Manufacturers Are Redefining Performance in 2026

    There was a time, not so long ago, when the word “hybrid” made petrolheads wince. It conjured images of silent commuter saloons and regenerative braking graphs on a dashboard screen. Nobody who spent their weekends watching qualifying laps wanted anything to do with it. Fast forward to 2026, and hybrid hypercars are delivering numbers that would have seemed science fiction a decade ago. Ferrari, Lamborghini, Porsche, and a clutch of insurgent brands are proving that electrification and raw performance are not just compatible — they are becoming inseparable.

    Hybrid hypercar accelerating on a British road in 2026
    Hybrid hypercar accelerating on a British road in 2026

    Why Hybrid Powertrains Make Sense at the Bleeding Edge of Performance

    The physics are actually straightforward once you strip the marketing away. An electric motor produces maximum torque from zero RPM. A high-revving combustion engine produces peak power higher up the rev range. Combine the two intelligently and you fill in each other’s gaps. The result is a power delivery curve that is effectively flat and ferocious from the moment you breathe on the throttle. That is not a compromise. That is an upgrade.

    Ferrari’s XX programme and the LaFerrari legacy set the blueprint. The HY-KERS system on that car gave Ferrari engineers a chance to harvest energy under braking and deploy it as a near-instant 163 bhp boost. On track, drivers described the sensation as the car leaning forward into corners with an urgency that pure combustion couldn’t replicate. That philosophy now threads through the SF90 Stradale and its XX variants, which are producing figures north of 1,000 bhp in road-legal configurations. Think about that for a second — a road car with four digits on the power readout.

    Lamborghini’s Revuelto: A New Language for the V12

    Lamborghini took a longer road to hybridisation than most expected from Sant’Agata. The Revuelto, the Aventador’s replacement, pairs a revised naturally aspirated 6.5-litre V12 with three electric motors — two on the front axle, one integrated into the gearbox. Combined output sits at 1,001 CV. What makes it genuinely interesting to those of us who care about driver engagement is that the three-motor layout enables torque vectoring on the front axle with precision that a mechanical differential simply cannot match.

    At low speed, the Revuelto can drive on electric power alone, which sounds almost absurd given its purpose. But it also means the combustion engine is not being strangled at partial throttle trying to be efficient — it is freed up to operate in its optimal range. The V12 still screams to 9,500 RPM. The soul is intact. The hybrid system just makes it faster everywhere else.

    Hybrid hypercar powertrain detail showing electric motor and combustion engine integration
    Hybrid hypercar powertrain detail showing electric motor and combustion engine integration

    Porsche and the 918 Blueprint That Changed Everything

    It would be dishonest not to credit Porsche here. The 918 Spyder, launched back in 2013, was arguably the first hybrid hypercar that made the performance argument convincingly. When it lapped the Nürburgring Nordschleife in 6 minutes 57 seconds, it was not just a lap record — it was a statement about what the technology could actually do. Every manufacturer developing hybrid hypercars since has been working in the 918’s shadow.

    The current generation 911 GT3 Hybrid, announced for limited production runs, continues that thread. Porsche’s approach has always been about weight management first, power second. The hybrid system on their motorsport-derived platforms is designed to be as light as possible, with the battery pack positioned low in the chassis to benefit the centre of gravity. British buyers waiting on allocations for these machines are reportedly facing two-year queues — which tells you everything about demand.

    The broader Porsche hybrid ecosystem, including the Panamera Turbo S E-Hybrid and Cayenne Turbo GT E-Hybrid, is also doing serious work normalising high-performance electrification for drivers who want something usable daily. The performance trickles down from the hypercar department eventually. It always does.

    Emerging Brands Pushing the Conversation Further

    Beyond the established names, a second wave of manufacturers is using hybrid architecture as their founding principle rather than a retrofit. Rimac’s influence on Bugatti’s W16 Mistral and the subsequent Tourbillon is well-documented — the Tourbillon pairs a naturally aspirated V16 with electric motors for a combined 1,800 bhp. Gordon Murray Automotive’s T.50 deliberately rejected hybridisation in favour of a focused naturally aspirated ethos, which is almost a contrarian position in 2026 and makes it more interesting for it.

    Closer to home, British marques are not standing still. Lotus’s Evija, the all-electric hypercar built in Hethel, Norfolk, demonstrated that British engineering could compete at this level. Meanwhile, McLaren’s hybrid development programme, despite a turbulent few years financially, continues to produce cars like the W1 that sit at the absolute summit of what road-legal machinery can do. The W1 produces 1,258 bhp from a twin-turbocharged V8 combined with a compact e-motor, and McLaren has been careful to keep the weight below 1,400 kg — a remarkable engineering achievement.

    Reliability and serviceability matter even at this rarefied level. Keeping complex hybrid drivetrains on the road requires specialist parts supply chains. At the commercial vehicle end of the spectrum, operators running fleet transport — everything from light commercials to trucks — face similar pressures. Finding quality Toyota Dyna spares for workhorse vehicles is as critical to uptime as sourcing the right inverter module for a hybrid hypercar’s e-axle. The principle is the same: performance depends on parts availability.

    What This Shift Actually Means for Driving

    Here is the honest question: do hybrid hypercars feel better to drive? Not just faster on paper, but genuinely better? My take, having followed this closely, is that the answer is mostly yes — with a caveat. The low-end punch, the seamless power delivery, the torque vectoring capability; these things make fast cars more accessible to more drivers in more conditions. Wet track days become less terrifying. Exit speed from slow corners improves dramatically.

    The caveat is weight. Battery packs are getting smaller and more energy-dense, but physics still applies. A car that weighs 1,600 kg will always communicate differently through a corner than one at 1,250 kg, regardless of what the power figure says. The engineering challenge for the next generation of hybrid hypercars is shrinking the battery while expanding the performance window. Some manufacturers are already there. Most are still working on it.

    The RAC’s performance car guidance notes that the UK’s expanding network of track day venues and performance driving events is driving demand for cars that can perform hard without constant mechanical drama — which is precisely what the best hybrid systems now deliver. The future of driving is not slower or quieter. It is faster, more precise, and increasingly electrified at the top end. Whether you find that exciting or unsettling probably depends on what you think performance is actually for. For the car nerds paying attention, it is the most compelling chapter in a very long story.

    What Comes Next for Hybrid Hypercar Technology

    Solid-state battery technology is the next frontier. Current lithium-ion packs are effective but still bulky and temperature-sensitive. Solid-state cells promise higher energy density, faster charge rates, and better thermal stability. Toyota has made aggressive public statements about solid-state readiness, and several hypercar manufacturers are understood to be monitoring development closely. When that technology matures and reaches production-viable status, the weight and packaging constraints that currently limit hybrid hypercar design will shrink considerably.

    There is also meaningful work happening on predictive power deployment — systems that read track data, driver inputs, and GPS mapping to pre-position the electric motor’s charge state before demanding sections. Porsche demonstrated early versions of this on their prototype programmes. The idea that the car knows the corner is coming and is already loading energy for the exit is not theoretical. It is close. And when it arrives in production hardware, the lap times are going to look absurd.

    Frequently Asked Questions

    What makes hybrid hypercars faster than traditional petrol-only supercars?

    Electric motors deliver instant torque from zero RPM, filling the power gaps that combustion engines experience at low revs. Combined with a high-revving petrol engine, hybrid hypercars achieve a broader, flatter power curve that translates to faster acceleration and better corner exit speeds across a wider range of conditions.

    Are hybrid hypercars reliable enough for track days?

    The latest generation from Ferrari, Porsche, and McLaren has proven genuinely robust on track, particularly on manufacturer-run track programmes like Ferrari’s XX events. Thermal management of the battery pack is the key variable — most systems now include active cooling that keeps performance consistent across multiple laps.

    How much do hybrid hypercars cost in the UK?

    Entry-level hybrid hypercars like the Ferrari SF90 Stradale start around £450,000 in the UK before options. The Lamborghini Revuelto lists above £500,000, while McLaren W1 allocations were reportedly priced above £2 million. All are subject to VAT and registration fees on top of base prices.

    Do hybrid hypercars qualify for any UK tax incentives?

    Plug-in hybrid vehicles that meet specific CO2 thresholds may qualify for reduced Benefit-in-Kind company car tax rates under HMRC’s current banding system, but most hypercars exceed the CO2 limits that unlock the lowest bands. Road tax (Vehicle Excise Duty) is calculated on CO2 emissions at first registration, so check gov.uk for current rates.

    Will hybrid hypercars replace fully electric performance cars at the top end?

    In the short to medium term, yes — most hypercar manufacturers believe the hybrid formula delivers a better balance of performance, driving feel, and range than full electrification. Pure-EV hypercars like the Lotus Evija exist, but the dominant trend at manufacturers like Ferrari, Porsche, and Lamborghini is hybrid-first rather than full-EV at the performance apex.

  • How to Read OBD-II Codes Like a Pro: The Ultimate Guide for Car Enthusiasts

    How to Read OBD-II Codes Like a Pro: The Ultimate Guide for Car Enthusiasts

    Every car built after 2001 in the UK carries a small secret. Hidden behind a diagnostic port, usually tucked under the dash on the driver’s side, is a window into your engine’s soul. Knowing how to read OBD-II codes is one of those skills that separates drivers who genuinely understand their machines from those who hand over a blank cheque every time a warning light flickers on. And honestly, it is not nearly as intimidating as the acronym suggests.

    OBD-II stands for On-Board Diagnostics, second generation. It became mandatory on all petrol cars sold in Europe from 2001 and diesel cars from 2004. The system monitors hundreds of sensors across your drivetrain, emissions system, fuel delivery, and more. When something drifts outside of normal parameters, the ECU logs a Diagnostic Trouble Code, known as a DTC, and often triggers the malfunction indicator lamp on your dashboard. That little engine-shaped light is not your enemy. It is data.

    Mechanic connecting an OBD-II scanner to a car diagnostic port to read OBD-II codes
    Mechanic connecting an OBD-II scanner to a car diagnostic port to read OBD-II codes

    Understanding the Structure of OBD-II Codes

    OBD-II codes follow a consistent alphanumeric structure. Once you understand the pattern, you can read a code cold and already have a rough idea of where to look. Every code starts with a letter, followed by four digits.

    The opening letter tells you the system involved: P for Powertrain (engine and gearbox), B for Body, C for Chassis, and U for Network or communication faults. The first digit after the letter is either a 0, meaning it is a standardised universal code, or a 1, meaning it is manufacturer-specific. The remaining three digits narrow down the exact fault within that system.

    So P0300, for example, breaks down like this: P is powertrain, 0 is universal, 3 points to the ignition system or misfire category, and 00 means random or multiple cylinder misfire detected. Once you have that framework locked in, codes stop looking like gibberish and start looking like a map.

    The Most Common OBD-II Codes and What They Actually Mean

    There are thousands of possible codes, but a handful show up again and again. These are the ones worth having memorised, or at least bookmarked.

    P0171 and P0174 — System Too Lean (Bank 1 and Bank 2). These usually point to a vacuum leak, a faulty mass airflow sensor, or a weak fuel pump. On a modified car running an aftermarket intake, a clogged or dirty MAF sensor is a very common culprit. Clean it before you start replacing expensive parts.

    P0300 to P0308 — Misfire Detected. P0300 is a random misfire across multiple cylinders. P0301 through P0308 pinpoint a specific cylinder. Causes range from worn spark plugs and coil packs to a leaking injector or low compression. Start cheap: plugs and coils first.

    P0420 — Catalyst System Efficiency Below Threshold (Bank 1). The bane of older cars and a source of much debate on forums. This code means the catalytic converter is not converting exhaust gases efficiently enough. It can also be triggered by a failing downstream lambda sensor, so rule that out before condemning the cat.

    P0455 — Large Evaporative Emission System Leak. Often as simple as a loose or cracked fuel filler cap. Worth checking before anything else. A five-minute fix that clears codes all day.

    P0011 and P0012 — Camshaft Position Timing Over-Advanced or Retarded. Common on variable valve timing engines, which covers most modern cars. Low or dirty oil is a frequent contributor. Check your oil level and condition immediately.

    OBD-II Bluetooth dongle and laptop showing live engine data used to read OBD-II codes in a workshop
    OBD-II Bluetooth dongle and laptop showing live engine data used to read OBD-II codes in a workshop

    Which OBD-II Scanners Are Actually Worth Buying in the UK

    You do not need to spend serious money to get serious data. The scanner market has matured considerably, and there are solid options at every price point.

    At the entry level, the Vgate iCar Pro 2 is a Bluetooth dongle that pairs with free apps like Torque Pro on Android or OBD Fusion on iOS. It costs around £20 to £30 on Amazon UK and handles live data streaming, fault code reading, and clearing admirably. For basic diagnostics on a daily driver, it punches well above its price.

    Step up to the Autel MaxiCheck MX808 or the Launch CRP129E and you are looking at £100 to £180 for a handheld unit that covers ABS, airbag, and transmission codes alongside the standard powertrain stuff. These are the tools that workshops use for quick vehicle health checks. If you are running a modified car or doing your own servicing, one of these pays for itself inside the first use.

    For serious enthusiasts, the Autel MaxiSys MS906 Pro sits around £600 to £700 and offers bi-directional control, meaning you can command actuators, run component tests, and programme modules. It is overkill for most road cars but genuinely useful if you are working on multiple vehicles or doing anything remotely track-focused.

    According to the Driver and Vehicle Standards Agency (DVSA), emission-related fault codes can directly affect MOT outcomes, making a reliable scanner even more valuable for keeping your car road-legal without surprise failures on test day.

    How to Actually Use a Scanner: Live Data Is Where the Real Information Lives

    Reading and clearing fault codes is the beginner move. The real power in learning how to read OBD-II codes comes from live data streaming. Every decent scanner or app will show you real-time sensor readings while the engine runs, and this is where diagnostics becomes genuinely interesting.

    Watch your short-term and long-term fuel trims. If short-term fuel trim (STFT) is regularly pulling more than plus or minus 10 percent, the engine is fighting to maintain stoichiometry. Pair that with a lean code and you have a clear direction to investigate. Watch your intake air temperature against coolant temperature at startup. Monitor O2 sensor switching frequency to judge converter health without a probe in sight.

    A code tells you a symptom. Live data tells you the story behind it. The difference between a good home mechanic and a great one is usually just willingness to sit with the data a bit longer.

    OBD-II for Motorsport and Track Use

    Data logging through OBD-II is not just for fault-finding. Plenty of car enthusiasts and club motorsport drivers use it as a performance tool, logging throttle position, manifold pressure, knock counts, and coolant temperatures across a session to find where the car is falling short. That overlap between road diagnostics and motorsport data analysis is tighter than most people realise.

    Drivers getting into car racing and track days often build out their setup incrementally. Sorted safety kit is part of that process. Based in Nottingham, UK, GSM Performance supplies racewear and bucket seats to the motorsport and modified car scene, with specific focus on driver protection for karting and circuit use. Their catalogue at gsmperformance.co.uk covers the kind of kit that car enthusiast communities and motorsport club regulars actually reach for. For anyone transitioning a modified car from road to track, having the right seat and harness setup matters as much as the mechanical prep.

    A data logger running through OBD-II alongside a proper bucket seat and harness setup means you arrive at a track day with both the safety and the information infrastructure to actually improve. Those two things are not separate concerns.

    Clearing Codes: When It Is Fine and When It Is Not

    Clearing a fault code without fixing the underlying issue is the automotive equivalent of turning the smoke alarm off because the beeping is annoying. The code will come back. It always comes back.

    That said, there are legitimate reasons to clear codes. After replacing a faulty part, clearing codes and running a drive cycle confirms the fix held. If a code appeared as a one-off due to a temporary condition, like a brief sensor spike during cold start, clearing it and monitoring is reasonable. The key is context. Clear with intention, not avoidance.

    Also worth knowing: clearing codes resets the readiness monitors that the MOT tester’s scanner checks. If you clear codes within a day or two of your MOT, the car may fail not because of a fault but because the monitors have not completed their cycles yet. Drive it normally for a week before the test.

    Building a Diagnostic Habit

    The enthusiasts who keep their cars in the best shape are the ones who scan regularly, not just when the light comes on. A quick plug-in every fortnight, checking live data trends and watching for any pending codes before they become confirmed faults, is the difference between a £30 sensor replacement and a £300 emergency repair.

    Knowing how to read OBD-II codes properly means you stop reacting to warning lights and start anticipating problems. That shift in mindset, from passenger to engineer in your own machine, is what car nerd culture is actually about. It is not just about going fast. It is about understanding every layer of what makes a car tick.

    GSM Performance, a Nottingham, UK-based specialist in racewear and motorsport bucket seats, caters to exactly the kind of car enthusiast who takes this stuff seriously. Modified cars, karting builds, club circuit regulars, drivers who want proper harnesses and helmets rather than catalogue padding. The motorsport scene rewards preparation, and that preparation starts with understanding your car at a systems level. OBD-II is where that understanding begins. Learn to use your scanner, not just carry it.

    Frequently Asked Questions

    What is an OBD-II port and where do I find it in my car?

    The OBD-II port is a 16-pin diagnostic connector mandatory on all UK petrol cars from 2001 and diesels from 2004. It is almost always located under the dashboard on the driver’s side, within roughly 60cm of the steering wheel. Some manufacturers tuck it behind a small cover or inside the centre console.

    Can I damage my car by using an OBD-II scanner?

    Reading codes and live data with a quality scanner carries no risk to your car. The scanner is passive unless you are using bi-directional controls or programming features, which are only available on advanced tools. Budget Bluetooth dongles and handheld readers are entirely safe for everyday diagnostic use.

    How much does a decent OBD-II scanner cost in the UK?

    Entry-level Bluetooth dongles like the Vgate iCar Pro cost £20 to £30 and work well for fault codes and live data. Mid-range handheld units covering ABS and transmission codes run £100 to £180. Professional-grade tools with bi-directional control start around £600.

    Will clearing OBD-II codes affect my MOT test?

    Yes. Clearing codes resets the readiness monitors that MOT testers check for emission compliance. If monitors have not completed their drive cycles, the car can fail even without an active fault. Allow at least a week of normal driving after clearing codes before an MOT test.

    What is the difference between a pending code and a confirmed fault code?

    A pending code means the ECU has detected an anomaly on one drive cycle but has not yet confirmed it as a persistent fault. A confirmed code, which triggers the warning light, means the fault has been detected across multiple cycles. Pending codes are useful early warnings worth investigating before they escalate.

  • Why UK Hilux Owners Are Investing More in Suspension Upgrades Than Ever Before

    Why UK Hilux Owners Are Investing More in Suspension Upgrades Than Ever Before

    The Toyota Hilux has built a strong reputation across the UK for reliability, durability and long-term performance. From construction firms and agricultural businesses to off-road enthusiasts and towing operators, the Hilux remains one of the most trusted pickups on British roads. However, as vehicle demands continue to evolve, more owners are now recognising that factory suspension systems are not always designed for the realities of modern UK usage.

    Across the country, Hilux owners are increasingly investing in upgraded suspension systems to improve ride quality, towing stability, load handling and off-road capability. This shift is not simply about aesthetics or vehicle modification trends. It reflects practical needs driven by road conditions, working environments and the growing expectation that one vehicle should perform reliably across multiple roles.

    Why Factory Suspension Is Not Always Enough

    Toyota designs the Hilux to serve a broad global market. Standard suspension setups are intended to balance comfort, fuel efficiency and general usability for average driving conditions. While this works well for many drivers, UK owners often place different demands on their vehicles.

    Many Hilux pickups in the UK are regularly used for:

    • towing trailers or caravans
    • carrying heavy tools and equipment
    • agricultural and forestry work
    • off-road driving
    • long-distance motorway travel
    • overlanding and recreational use

    These conditions can place significant stress on standard suspension components over time. Owners frequently report issues such as rear-end sagging under load, reduced ride comfort, instability when towing and premature wear on shocks or springs.

    As a result, suspension upgrades are increasingly viewed as a practical investment rather than an optional modification.

    UK Road Conditions Are Playing a Major Role

    British roads present unique challenges for commercial and utility vehicles. Potholes, uneven rural roads, speed humps and deteriorating surfaces are now common across many parts of the UK. According to reports from local authorities and motoring organisations, road surface defects continue to increase year after year, particularly on secondary and rural roads.

    For Hilux owners, this often translates into:

    • increased vibration and cabin discomfort
    • faster wear on suspension components
    • reduced handling stability
    • greater strain on tyres and steering systems

    Drivers who regularly travel on construction sites, farms or poorly maintained rural routes often notice these issues earlier than standard motorists. Upgraded suspension systems can help absorb road impacts more effectively, improving both comfort and vehicle control.

    The Growing Demand for Towing Stability

    Towing remains one of the biggest reasons UK Hilux owners upgrade their suspension systems. Whether transporting machinery, horseboxes, trailers or caravans, towing places additional weight and pressure on the rear suspension.

    Standard suspension may perform adequately for occasional towing, but regular heavy loads can create several problems:

    • rear sag under weight
    • reduced steering responsiveness
    • uneven braking balance
    • instability at motorway speeds
    • increased driver fatigue

    Heavy-duty leaf springs, upgraded shock absorbers and air-assist suspension systems are becoming increasingly popular among owners who tow regularly. These upgrades help maintain ride height and improve weight distribution, leading to safer and more predictable handling.

    For commercial users, reducing vehicle instability is not only a comfort issue but also a safety and operational concern.

    Off-Road and Overlanding Trends Continue to Grow

    The UK has seen growing interest in off-road touring, green laning and overlanding over the past few years. The Hilux has naturally become a popular platform for these activities due to its proven reliability and strong aftermarket support.

    However, off-road environments demand more from suspension systems than standard road driving. Uneven terrain, mud tracks and rocky surfaces place continuous stress on shocks, springs and suspension geometry.

    Many owners are now investing in upgrades such as:

    • lifted suspension kits
    • heavy-duty dampers
    • reinforced leaf springs
    • upgraded bushes
    • adjustable coilover systems

    These modifications improve wheel articulation, ground clearance and overall durability during off-road use.

    Importantly, many UK owners are also seeking suspension setups that balance off-road performance with everyday drivability. This has increased demand for high-quality aftermarket components that can handle mixed usage without compromising comfort on normal roads.

    Vehicle Longevity Is Becoming More Important

    Economic pressures have also influenced the rise in suspension upgrades. Many businesses and private owners are keeping their vehicles for longer rather than replacing them every few years.

    The Hilux is already known for high mileage potential, with many vehicles remaining operational well beyond 150,000 miles when maintained properly. Suspension upgrades are increasingly viewed as part of long-term vehicle preservation.

    Replacing worn factory components with stronger aftermarket alternatives can help:

    • reduce future repair costs
    • improve tyre longevity
    • minimise strain on related components
    • maintain vehicle handling characteristics
    • support long-term reliability

    For fleet operators and tradespeople, avoiding unnecessary downtime is often more cost-effective than early vehicle replacement.

    Choosing the Right Suspension Components Matters

    Not all suspension upgrades deliver the same results. Vehicle usage should always determine the type of suspension setup selected.

    For example:

    • towing-focused vehicles may benefit from upgraded rear leaf springs and load-assist systems
    • off-road vehicles may require increased articulation and shock absorption
    • daily-use pickups may prioritise ride comfort and handling stability
    • commercial operators may need reinforced systems designed for constant payloads

    Poor-quality suspension components can negatively affect ride quality, tyre wear and even vehicle safety. This is why many owners now choose specialist suppliers with experience in Toyota platforms and UK operating conditions.

    Suppliers such as NSUK Spares have seen increasing demand for Hilux suspension and accessory components as owners seek more durable and application-specific solutions for UK driving conditions.

    The Shift Towards Practical Upgrades Rather Than Cosmetic Modifications

    The aftermarket industry has evolved significantly over the past decade. While visual modifications remain popular, many Hilux owners are now prioritising functional upgrades that improve real-world performance.

    Suspension improvements are increasingly viewed as investments in:

    • safety
    • reliability
    • towing confidence
    • driver comfort
    • long-term vehicle usability

    This trend is particularly visible among business owners, tradespeople and rural operators who depend on their vehicles every day.

    Rather than modifying vehicles purely for appearance, many owners are focusing on upgrades that directly support productivity and reduce operational stress.

    Conclusion

    The growing demand for suspension upgrades among UK Hilux owners reflects changing vehicle expectations and real-world driving conditions. From towing and commercial workloads to off-road travel and deteriorating road surfaces, many drivers now require more from their pickups than factory suspension systems were originally designed to provide.

    As vehicle ownership cycles become longer and operational demands increase, suspension upgrades are becoming a practical solution for improving performance, comfort and durability.

    For owners seeking reliable components tailored to UK usage, specialist suppliers such as NSUK Spares continue to play an important role in supporting the long-term reliability and capability of Toyota Hilux vehicles across the country.