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Almost every day, there’s news about the electrification in the auto industry, if not the introduction of a new electric vehicle (EV). The industry, especially in Europe, has fast-tracked plans to move existing model fleets from using internal combustion engines to either hybrid or fully electric powertrains. Some companies even plan to stop selling vehicles with combustion engines before the end of this decade.

But there are also some companies that will look for a balance in the rush to electrification, focussing more on overall carbon neutrality (which can address climate change) for their entire operations, rather than just the products alone. Akio Toyoda, President of Toyota Motor Corporation, is one of those who feels that the rush to switch to zero emission vehicles is too excessive, demands massive investments and will damage the industry in some ways.

Whole world won’t ‘electrify’ at the same time
While governments are forcing the corporate hands of the carmakers to make the changes and cut emissions from vehicles, there will still be models with combustion engines on sale for a while. We don’t know yet how fast the infrastructure to support EVs can be developed and grow because, in some places, it doesn’t even exist yet. In Malaysia, for example, the number of recharging stations already set up is really just ‘a handful’ and an absence of a coherent policy to encourage sales and use of EVs has yet to be formulated.

While motorists in regions like Europe are steadily switching to electric vehicles, there are many millions elsewhere in the world who will continue to use vehicles running on fluid fuels for many more years.

So while some carmakers may feel that they can get by (in future) selling just EVs, there will be some who will still be developing models with combustion engines for the rest of this decade at least. Engineers can still push emissions down further to meet stricter regulations and a new generation of fuels will also help in this respect.

Renewable low-carbon fuels
These are renewable low-carbon fuels and following on from R33 Blue Diesel which has been around since 2018, Bosch, Shell, and Volkswagen have now come up with low-carbon petrol. Their new fuel, called Blue Gasoline, similarly contains up to 33% renewables, ensuring a well-to-wheel reduction in carbon emissions of at least 20% per kilometre driven. This means a fleet of 1,000 VW Golf Mk.8 1.5 TSIs alone could save more than 230 metric tons of CO₂ per year, assuming an annual mileage of 10,000 kms each.

Shell will offset the remaining carbon emissions from the use of Blue Gasoline through certified offset arrangements. The initial plan is to make the fuel available at regular filling stations over the course of the year, starting in Germany.

“On the road to climate-friendly mobility, we must ensure we don’t leave any technical opportunities untapped, starting with electromobility and ending with renewable fuels. Every bit of CO₂ we save can help us achieve our climate targets,” said Dr. Uwe Gackstatter, President of the Bosch Powertrain Solutions division.

“Blue Gasoline is another building block in the effective reduction of CO₂ emissions from the vehicle fleet. Blue Gasoline’s high storage stability makes the fuel particularly suitable for use in plug-in hybrid vehicles. In the future, the expansion of the charging infrastructure and larger batteries will mean that these vehicles predominantly run on electrical power, and thus that fuel may remain in the fuel tank for longer periods of time,” explained Sebastian Willmann, Head of Internal Combustion Engine Development at Volkswagen

Highest standards set for fuel quality and sustainability
Blue Gasoline fuel complies with the EN 228/E10 standard and even exceeds it in key parameters such as storage stability and boiling behaviour. High-quality additives also keep the engine extremely clean and protect it against corrosion. This means not only that the fuel can be distributed via the existing filling station network, but also that it can be used in all new and existing vehicles for which Super 95 E10 petrol has been approved.

The proportion of up to 33% renewables is made up of biomass-based naphtha or ethanol certified by the International Sustainability and Carbon Certification (ISCC) system. One source of such naphtha is what is known as tall oil, a by-product in the production of pulp for paper. But naphtha can also be obtained from other residual and waste materials.

Low-carbon fuels at Bosch company stations
In the Blue Gasoline project, the three partners jointly defined the fuel specification to be achieved, taking into account engine requirements and sustainability. They put the product they developed through intensive testing on engine test benches and in trial vehicles – with consistently positive results. Bosch has begun supplying Blue Gasoline at its company filling stations for the past month, with other stations scheduled during for rest of 2021.

The supply of conventional Super 95 E10 petrol will then be gradually phased out. Since the end of 2018, R33 Blue Diesel has been the only diesel fuel that Bosch company filling stations offer for company cars and internal delivery vehicles. R33 Blue Diesel is also becoming available at more and more regular filling stations in Germany. At present, it is offered at 8 filling stations belonging to different brands nationwide, with more set to follow.

Not a substitute for electromobility
For Bosch, renewable low-carbon and carbon-neutral fuels will not replace electromobility but complement it. In principle, the use of these fuels makes sense in all modes of transport, but especially in those for which there is as yet no clear and economical path to electrification. In addition to ships and aircraft, this applies primarily to heavy goods vehicles and existing vehicles, but also to the millions of vehicles with internal combustion engines or hybrid powertrains that are on the world’s roads today or will be built in the coming decades.

To promote rapid market uptake for these fuels, the focus is on renewable biomass and synthetic fuel components that can be blended into regular fuel in high proportions in line with existing fuel standards.

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All-wheel drive (AWD) is available in all types of vehicles today but until 50 years ago, they were not typically found in roadgoing passenger cars and only in off-road dual-purpose vehicles (which are today called SUVs or crossovers). While Audi could be said to have started the trend by coming out with AWD system for roadgoing models in the early 1980s, it was Subaru (then known as Fuji Heavy Industries) which can lay claim to offering the first 4-wheel drive car in 1972.

Although British carmaker Jensen did have a sportscar called the FF which had AWD, only 320 units were ever produced; Subaru made it available in a mass-produced model. The model was the Leone which had been introduced in 1971, and a 4-wheel drive system was incorporated in the stationwagon version that was launched in Japan in September 1972. The timing was just right as the Winter Olympics were held in Sapporo that year and having a car with all four wheels powered was advantageous in the snow and ice.

FF-1 was the first Subaru to have the 4WD system but only limited numbers were produced. It was the Leone Stationwagon (below) which began Subaru’s mass production of cars with 4WD.

4WD and AWD
Before going further, a bit of explanation about 4WD, which was installed in the early Subaru models, and AWD which is more commonly used today. 4WD (or 4×4) has power and torque going to all four wheels constantly which is useful in rough terrain and lower speeds, but not so good on roads. With AWD, all four wheels are also powered but there is ‘intelligent’ variation between the front and rear wheels according to grip conditions.

The first Subaru 4WD system was initially fitted to prototype vehicles as early in 1969 and by 1971, in a small number of FF-1 sedans. The engineers used feedback from those vehicles to improve and make the system more reliable and durable for wider application. The company was encouraged to finalise the 4WD project when the Tohoku Electric Supply Company, which supplied the mountainous and snowy Tohoku Prefecture in the north of the Japanese main island of Honshu with electricity, invited Subaru to tender for vehicle supply. The energy supplier was looking for a safe and reliable vehicle for its employees to use in all weather conditions and Subaru was ready with its 4WD Leone Stationwagon.

The 4WD SYSTEM was a simple one compared to today’s ‘intelligent’ systems like Subaru’s own Symmetrical AWD. It was mechanically activated via a dog clutch and power from the 1.4-litre boxer 4-cylinder engine was transmitted to all four wheels proportionately. The durability of the system was proven not just by owners who used the Leone in challenging conditions but also in 1977 at the marathon rally from London to Sydney. A Leone completed the 30,000-km drive, finishing fourth place in the AWD class.

Key selling feature
It would become a key selling feature of the Japanese brand and popularise its vehicles in markets, with more than 20 million AWD vehicles produced to date. In the USA, the Leone gained a sort of cult status and Subaru of America proposed the development of a compact lifestyle pick-up truck based on the Leone. The model the engineers in Japan came up with was described as a ‘Bi-drive Recreational All-terrain Transporter’ and the American marketing people immediately decided that it could be called ‘Brat’ when it was launched in 1978.

The Brat (also called Brumby in Australia) was a hit as well, especially with the beach communities on the West Coast. Even former President Ronald Reagan got one for himself, using it on his ranch. The Brat had the 4WD system, of course, and two engine choices were available – 1.6 litres and 1.8 litres.  Some variants had a transfer case with High and Low ranges as well and 4WD could be selected at the touch of a button.

Subaru Brat – the name actually stood for ‘Bi-drive Recreational All-terrain Transporter’.

From 4WD TO Symmetrical AWD
As a pioneer in putting 4WD in passenger cars, it was not surprising that Subaru continued to develop more advanced drivetrains as the years went by. With more electronic technology available, it was possible to precisely control the amount of power flowing to the wheels for better vehicle stability and control.

The led to the permanent symmetrical AWD system that is available in virtually all Subaru models, except the rear-wheel drive BRZ. With Symmetrical AWD, the entire drive system, from the longitudinally-mounted engine to the rear differential, is mounted in a straight, symmetrical line. This precise orientation means each side of the system weighs the same, offering superior balance which benefits driving dynamics.

Active torque-split in the system distributes torque 60:40 front and rear, based on information from sensors constantly monitoring tyre grip, vehicle speed, steering angle, etc. The electronically controlled Multi Plate Transfer adjusts torque distribution to the front and rear tyres in real-time to suit driving conditions, as well as the transmission and driver inputs. The system is so advanced it can detect a loss of traction, or slip, of a wheel in less than one revolution of the wheel.

Another available feature is variable torque distribution which provides aggressive, sporty driving with increased turning abilities while retaining the fundamental driving stability offered by the Symmetrical AWD. An uneven 45:55 front and rear torque distribution is used for the front and rear ratio. Sending more torque to the rear wheels can reduce understeer, a trait that plagues 4WD vehicles. Torque distribution is controlled automatically up to an equal 50:50 front and rear.

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When there is mention of clocks in cars, one famous advertisement will often be remembered. It is the one where David Ogilvy (regarded as the ‘Father of Advertising’) used the comment of the Technical Editor from The Motor magazine to create a memorable headline. It said: “At 60 miles an hour, the loudest noise in this new Rolls-Royce comes from its electric clock.”

In the years that followed 1958, the year that advertisement came out, the clocks in Rolls-Royce cars have remained one of the notable elegant features. And with Bespoke commissioning, many clocks have been uniquely designed to their owners’ specifications and with modern technology, they no longer click.

The famous Rolls-Royce adbvertisement.

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

New technical and aesthetic heights
Epitomising this significant item of detail, precision, and beauty is the pair of timepieces for first Boat Tail coachbuilt commission done by Rolls-Royce. They have been created with BOVET 1822, a Swiss specialist in tourbillion timepieces, to be iconic centrepieces elevated to new technical and aesthetic heights.

The timepieces are unique to both the horological and automotive worlds. Made as a pair – in lady’s and gentleman’s versions – they are reversible, and housed in BOVET 1822’s patented Amadeo case, which allows them to be worn on the wrist, or used as a table clock, pendant or pocket-watch, as well as being placed front and centre in Boat Tail’s fascia as the car’s own timepiece. Both are fitted with tourbillon mechanisms to ensure perfect accuracy.

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

His and hers, and the car’s
The timepieces have specially designed 18K white gold cases and feature matching front dials with the same Caleidolegno veneer found on the aft deck of Boat Tail itself, and are finished with the owner-couples’ names. The gentleman’s timepiece is highly polished; the lady’s is ornately engraved then filled with blue lacquer.

On the reverse side, the dials are more individual. The gentleman’s features an aventurine dial with the celestial arrangement of the night sky over the place of his birth on his birthdate; the lady’s is decorated with an ornate miniature painting of a flower bouquet on a mother-of-pearl dial. This design is a traditional BOVET 1822 motif, chosen by and personalised for the owner.

Both reverse dials have hand-engraved Bespoke sculptures of Boat Tail, complete with wheels, door handle, mirrors and other fine details. By working closely together, the teams at Rolls-Royce and BOVET 1822 were able to achieve a precise colour match between the lacquer on this tiny work of art and the very exclusive car.

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

Tested to auto industry standards
Further close cooperation was required to ensure the timepieces conformed to the demands of their unique role as clocks for use in a car. In watchmaking, weight is rarely an issue for a complex timepiece but in this instance, there was a limit on the combined permissible weight of the timepieces and their holders.

BOVET 1822 met this requirement by creating an entirely new 44 mm white gold case. In addition, the timepieces and holders also had to be tested to automotive industry standards for vibration and crash safety – something never previously undertaken on mechanisms of this kind.

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

At a conservative estimate, the timepieces’ design, engineering, sculptures, miniature painting, marquetry, bespoke movements and cases took a total of 3,000 hours to complete.

BOVET 1822 holds a number of patents and has received many industry awards, and is also one of the only companies in the watch industry to manufacture its own spirals and regulating organs. To reduce potential impact from the vibration from the car, the tourbillon has pivots rather than the traditional ball bearings; a heavier balance wheel and an increased oscillation rate to aid precision. Finally, the tourbillon bridge is finished with a miniaturised Spirit of Ecstasy handcrafted in gold. The timepieces have an astonishing 5-day power reserve, rather than the 42 – 48 hours of a ‘standard’ watch, to allow for their role as car clocks.

Rolls-Royce Boat Tail Coachbuilt BOVET 1822 clock

The holder mechanism is unique to Rolls-Royce Boat Tail and was designed by BOVET 1822 engineers and the Rolls-Royce Coachbuild design team from a blank sheet of paper. Although in a Rolls-Royce, vibration is naturally reduced to an absolute minimum, undetectable vibrations are inevitably still present. This highly complex mounting assembly serves to isolate the timepieces from these micro-vibrations. It also ensures they operate silently, are easy to mount and remove from the dashboard and, above all, remain safe and secure.

These challenges were unlike any normally encountered in watchmaking and car manufacture. From the start, BOVET 1822 was determined to follow a purely mechanical approach in keeping with its tradition of Swiss handcrafted production. The engineers’ innovative solution was to keep all the system’s moving parts external, with the dashboard providing a solid setting for the aluminium and titanium holder.

2021 Rolls-Royce Boat Tail
The Coachbuilt 2021 Rolls-Royce Boat Tail

Finally, Rolls-Royce ensured that when the holder is not housing one of the timepieces, it can be covered with a beautiful engraved and lacquered display plaque.  Below the clock, the dashboard is fitted with a special drawer, lined with the same leather as Boat Tail’s seats, which serves as a safekeeping receptacle to house the timepieces, straps, chain and pendant when not in use.

There’s something truly romantic about driving classic Italians.

Get behind the wheel and almost immediately it feels like there’s an orchestra playing in your head.

Something along the likes of Luciano Pavarotti enthralling you his best operatic performance.

Or Nino Rota serenading you with the theme to ‘The Godfather’.

There’s just something other wordly about the Alfa Romeo that I drove that night:

A beautifully restored 1750 GTV from the year 1969.

I was far from a twinkle in the eyes of my parents that year, but it was a fantastic year in the history of mankind.

1969 marks the year humanity walked on the moon.

And it also marked the year the Italians gave us one of their many masterpieces – this time in the form of the car you see here.

The 1750 GTV (short for GT Veloce) is not a ultra limited-edition model.

In fact, some sources say that Alfa Romeo built between 32,000 to 44,000 of the car before production ended.

That figure is far from making this car a rare classic, in fact take a drive around some old neighbourhoods and you might just come across one.

Or it’s brother – the 2000 GTV.

Well, the 1750 GTV is rather unique because it harks back to cars of old with its slim pillars, its sprightly though not very powerful engine.

But more importantly, it has a design that wrings nostalgia, it shows us how beautiful cars once were.

The owner, a friend by the name of Terence Moses, was gracious enough to let me drive it one night.

It was an occasion like no other – that thin leather padded steering wheel was of just the right size.

Any larger and it would brush up against my thighs.

The twin-dial meter panel doesn’t bother telling you anything other than the speed, engine rpm and engine temperature.

No fussing over other details here.

But in case you are wondering, the fuel gauge and the water temperature gauge is located right under the cassette player.

Of course there’s a bluetooth player in its place now, but the car started life with a cassette player.

Let’s just appreciate that for a second.

I particularly love how the head rests of the seats merge with the rest of the seat when fully down.

That kind of attention to detail is such an Italian feature.

Driving the car had me cooing with joy and made me nervous at the same time.

Nervous because Terence had just told me about some of the issues he faces with the car, and a snappy rear end was one of them.

I wasn’t about to oversteer his car into a bush in the middle of nowhere that night.

But the way the car came together was amazing.

The 1.8-litre engine and that slick shifting gearbox had me wringing up the rev’s every chance I got.

And you just have to love how closely placed classic car pedals are.

And that floor mounted accelerator.

Such simple joys just don’t exist anymore.

And that is why I appreciate classic cars – they are moving history books that remind us about how life once was.

I loved driving this car, I love the passion Terence has for his cars, and I truly hope you love this video as much as we loved putting it all together.

Just as fuel, whether petrol or diesel, is a necessary component for a car with an internal combustion engine to run, electricity is necessary for a full-electric or hybrid electric vehicle to run. Like the liquid fuels which are stored in containers on board the car, electricity is also stored in a battery pack which can be ‘refuelled’ by recharging the pack.

Since demand for batteries will keep growing – even accelerating as electrification progresses – the bigger carmakers that have the financial resources are finding ways to assure supply in future. Some, like BMW, Mercedes-Benz and Hyundai have set up factories around the world while others are establishing joint ventures for such production facilities.

Lithium-ion battery pack from a current Volvo PHEV model.

Develop sustainable battery production
The Volvo Car Group has announced plans to establish a joint-venture with Swedish battery company Northvolt to develop and produce more sustainable batteries, tailored to power the next generation of fully electric Volvo and Polestar vehicles.

As a first step for the 50:50 joint-venture, the two companies intend to set up a R&D centre in Sweden that will begin operations in 2022. The centre will draw on the battery expertise within both companies and develop next-generation, state-of-the-art battery cells and vehicle integration technologies, specifically developed for Volvo and Polestar models.

New gigafactory to be built
More significantly, the joint-venture will also establish a new gigafactory in Europe with a potential capacity of up to 50 gigawatt hours (GWh) per year, with production scheduled to start in 2026. As part of the plans, Volvo Car Group also looks to source 15 GWh of battery cells per year from the Northvolt Ett battery plant in Skelleftea, Sweden, starting in 2024.

Rendering of the Northvolt Ett battery plant in Sweden when it is completed.

The new gigafactory, planned to be powered by 100% clean energy, is expected to employ around 3,000 people. The location of the new plant is yet to be decided. The first model to use battery cells developed through the joint-venture will be the electric successor to current XC60 SUV.

This development is a vital one for Volvo Cars’ ambitious electrification plans that will see 50% pure electric vehicles by the middle of this decade and, by 2030, only fully electric cars will be sold. Assured supply is therefore crucial to long-term plans and while planners in some countries imagine that policies affecting the auto industry can be introduced within a short period, the industry requires many years to prepare for changes and execute them.

Future Polestar models will also use batteries from the joint-venture factory.

For Polestar, it gives a further boost to its European growth ambitions and underlines its commitment to the ‘Polestar 0’ project, which aims to create a truly climate-neutral vehicle by 2030.

Reduce environmental footprint 
Today, the production of batteries for Volvo Car Group’s fully electric cars represents a large part of the car’s total lifecycle carbon emissions. By working with Northvolt and producing batteries near its manufacturing facilities in Europe, Volvo Car Group can reduce the environmental footprint attributable to battery sourcing and production for its future cars.

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