With the climate crisis rapidly worsening, many tech workers are recognizing they aren’t making any significant impact to better the world in their current roles, prompting them to leave the traditional tech sector to work for companies fighting the climate crisis. The tech industry is notorious for having one of the most lucrative job pools for its workers, though the majority of those jobs aren’t particularly glamorous, purpose-driven, fulfilling, or legacy-creating roles. In fact, some of the most common tech jobs consist of designing, engineering, and developing software such as mobile apps or operating systems, or assessing, analyzing, and evaluating data to help companies make better-informed decisions.
The COVID-19 pandemic has shown us several times over that people expect the businesses they work for (and buy from) to take a stance for things that matter to them. And while tech experts may not know much about public policy, legislation, or environmental science, they do know a lot about data.
“It’s a data problem that we’re solving,” said Persefoni co-founder Kentaro Kawamori when approaching his business partner, James Newsome, about starting a SaaS to fight climate change, as reported by CNBC. A lot of tech workers in similar positions are feeling uncertainty regarding how to best make this career shift due to a lack of knowledge or experience around climate change. But their contribution to this work is not to be concerned with the science of climate change; it’s about managing and leveraging the data needed to navigate climate change.
Making The Shift
Dr. Soudip Roy Chowdhury, the CEO of Eugenie.ai, has witnessed this shift, as well, as more tech workers have looked to join companies with a mission that makes a positive impact on climate change. Dr. Chowdhury hired Narayanan Subramaniam as his CTO because of Narayanan’s dedication to living sustainably over the past 30 years, and because of how he could use his cloud-based technology expertise to impact climate change.
Dr. Chowdhury cautions tech workers on their career move to the climate change industry. “While the industry needs more workers, you do need to be passionate about climate change and technology in order for it to be satisfying work,” he says. In fact, some tech workers have taken serious pay cuts from huge six-figure salaries to average $60,000 salaries. He also advises to look at what type of technology one wishes to be part of developing.
Climate tech, as a niche industry, has skyrocketed due to several recent changes. From 2020 to 2021, climate tech has seen an 80% increase in investment. The industry’s worth is now estimated at $56 billion, with energy and power companies having seen the most significant growth. When other industries climate tech touches are brought in — for example, transportation, agriculture, food, or logistics — the investment in climate technology increases to over $114 billion, with two-thirds of investments going into mobility and transportation.
Finding The Big Impact
Overall, there is no shortage of job opportunities in climate technology, and while a lot of workers seemed to have taken significant pay cuts, investments into the industry have boomed. The most important thing to know when considering a shift to climate tech, however, is whether or not one is truly passionate about the work involved in mitigating the global impact of climate change. Without that passion, as Dr. Chowdhury mentions, the work may not be enjoyable.
When it comes to companies making the most impact, the biggest thing Dr. Chowdhury says that needs to be considered is scalability. A wide variety of climate tech companies are working to analyze climate change and understand how it needs to be addressed, but the tech industry isn’t the only industry that’s been affected by climate change. “As a technologist, we need to start thinking about scale and how our technology can not only address specific problems for a few industries, but across all industries,” says Dr. Chowdhury.
This is where using the notion of digitization will come into play. Dr. Chowdhury sees digitization and the innovative products it creates — such as the metaverse — as a prime opportunity for climate change and tech experts to collaborate and test out new, emerging technologies. With the metaverse, new technology being developed can be evaluated and tested to see the level of impact it will have in fighting climate change. And according to Dr. Chowdhury, Eugenie.ai is already accomplishing this.
“We are working on providing digital twin technology, where we help companies create a digital version of their processes and machines. This, of course, will help them to see how they can improve their output, but also how to follow certain process prescriptions,” says Dr. Chowdhury. These prescriptions are determined using simulations of data with a company’s past knowledge, combined with Eugenie.ai’s own research, as a blueprint. By following the prescription, companies can improve their sustainability KPIs, while maintaining operational throughput.
Dr. Chowdhury shares that his company is already partnering with some companies to test out this digital twin approach in the metaverse. “We have tested our digital twin today by applying it to some oil and gas mining companies. We’re helping them to reduce their production wastage by 2025 by focusing on fugitive emissions. The goal is to reduce their emissions close to 7-8% on a annual basis.”
A Glimpse Into Sustainable Business
Companies will now be able to more accurately estimate how their technologies will impact climate change upon launch. In turn, companies like Eugenie.ai can develop prescriptions that will rapidly accelerate the developmental stages industries will have to undergo when adopting new climate and sustainability technologies. With opportunities to develop life-changing climate technology becoming more available and in dire need, it’s no wonder that an increasing number of tech workers are looking to change careers and find more meaningful ways to utilize their expertise.
While many data scientists and software engineers are working at great companies at Google, Amazon, and other tech giants, not many of them can say they’re working on technology that will help to drastically shift the way other industries function. This isn’t to say that their jobs aren’t important; tech giants like Google and Amazon need to understand that tech is not entirely about understanding and optimizing consumerism.
In fact, consumers are more likely to support sustainability efforts as long as they understand the methods and meaning behind them. However, it’s going to take more workers to leave their big salaries at Google to help the rest of us understand the data necessary to recognize the severity of our climate crisis.
If it seems like there’s something new popping up on the campus of the world’s only Harley-Davidson Museum every month, you’re right! The 10,000-square-foot Harley-Davidson® Shop – with its eclectic collection of exclusive apparel, collectibles and accessories – has been wowing customers since opening in June. And now, the all-new Experience Gallery has been unveiled, bringing the thrill of the open road to guests from all corners of the globe.
With this new multimedia experience, guests will be able hear straight from the H-D team how Harley-Davidson® motorcycles are designed and engineered to be the most desirable in the world. Find inspiration from your fellow riders’ stories or discover how easy it is to take the first step in learning how to ride. And of course, finish off your visit by throwing a leg over one of five fresh-from-the-factory Harley-Davidson® models – including the Pan America™, a premier two-wheel multi-tool built to endure, designed to explore, and engineered for adventure.
And another community event will be headed back to campus this month. The H-D Museum is partnering with WISN-TV and 102.9 The Hog to host “Coffee with the Morning Crew.” Mark your calendars for Friday, July 29 as we welcome everyone to stop down to 6th & Canal for a morning of fun, prizes and free coffee.
All wheels unite every Thursday from 5 to 9 p.m. at the Harley-Davidson Museum. Join riders (and non-riders) for free live music from some of Milwaukee’s favorite bands, fun, drool-worthy rolling sculptures and outdoor food and beverage. The Bike Night Koozie Special is back. Enjoy $3 Busch Light all season long.
7/14 The Cactus Bros
7/21 Milwaukee Tool Shed Band
7/28 Andrew Wayne & Mud Creek Road
Coffee with the WISN Morning Crew, Friday, July 29, 8 – 10 a.m.
Visit the Museum campus on Saturdays to experience the fun and freedom of a Harley-Davidson® motorcycle. Visitors with their motorcycle endorsement/license will be able to choose from a dozen of the latest and greatest #FreedomMachines from Harley-Davidson, including Touring, Softail®, Sportster®, Adventure Touring and Electric models. A pre-determined scenic route through the Menomonee Valley will give riders the chance to explore the Museum’s surrounding neighborhoods. Sign-up is on a first-come, first-serve basis. Riders and passengers must be at least 18 years of age. All riders (and passengers) must wear proper riding gear including a helmet, eye protection, shirt / jacket, long pants and closed-toe shoes with heel strap.
Looking for interesting things to do and ways to fully enjoy our programs and exhibits? The Harley-Davidson Museum’s new Annual Pass offers individual, family and VIP levels to fit your lifestyle. Just some of the perks of the new Annual Pass include: virtual access to the H-D Museum with various Harley history topics covered in our Virtual Gallery Talk series, admission discounts, free admission for children under age 18, merchandise discounts at The Shop, dining discounts at MOTOR® Bar & Restaurant and more. Visit H-D Museum.com for details and other terms and conditions.
All new in ’22. Our guided tour portfolio has been updated with new experiences and content. Choose from the Spotlight Tour, the Beyond the Gate Tour or the VIP Tour. Some tours are available to the public; this schedule will vary. To book a private group tour, please call 414-287-2799 or email for more information. Advance reservations and prepayment required at least 2-weeks prior to tour date. Please note: Tour fee does not include General Admission.
All scouts are welcome to come earn their Engineering Merit Badge at the Harley-Davidson Museum! This experience will be launched by our merit badge counselor. Then, scouts will explore the history of Harley-Davidson as well as the engineering of motorcycles as they complete the nine merit badge requirements. Advance registration is required. Program registration closes one week prior to the scheduled program date. Ticket includes: downloadable activity booklet used for the program, partially facilitated program, blue card signed by the facilitator (one blue card per scout registration) and an exclusive H-D Museum™ patch.
This new 90-minute online program is open to scouts from all over the country. Our program facilitator will guide the troops and explore the role an engineer plays while creating a Harley-Davidson® Motorcycle. Nine requirements for the Engineering Merit Badge will be discussed during this virtual, interactive program. Advance registration is required. Program Fee: $20 per Scout, which includes an activity booklet used during the program and a special H-D® patch upon completion of the program.
With inspiring stories from riders who have turned their dream of learning to ride into reality, a look at the epic journeys you can only experience behind the bars of a Harley-Davidson® motorcycle, plus the chance to throw a leg over a new Harley-Davidson #FreedomMachine, the reinstalled and all-new Experience Gallery shows the world how United We Ride!
1977 FLH “Blackula” (on display beginning May 13)
Milwaukee man about town Freddie Franklin purchased his Electra Glide® motorcycle from its original owner, 95-year-old Wallace Brzezinski, with only 4,500 miles on its odometer. And in short order, he completely re-envisioned the bike to reflect his timeless style. The motorcycle incorporates some hallmarks of Franklin’s disparate tastes. A dash of the Coney Island-style bikes – decked out with lights and reflectors – he adored mixed in with elements of Willie G.’s seminal Knucklehead and topped off with details that harken to the 1970s blaxploitation films Franklin watched back in the day. A clear statement of Black pride via the language of vintage motorcycles, this is a bike you must see in-person.
Keith Brammer (Die Kreuzen) leather jacket (on display now)
Perhaps no other genre of music is so closely associated with the classic black leather jacket than punk rock. Keith Brammer, of Milwaukee’s hardcore punk band Die Kreuzen, has graciously lent his well-worn leather to the H-D Museum. The jacket was purchased in New York City in the 1980s and was a constant companion for Brammer throughout his touring days. Check out the Custom Culture gallery to view this piece of Milwaukee music history.
Revolution® Max Engine (on display now)
The brand-new Revolution® Max 1250cc engine powers a new generation of Harley-Davidson® motorcycles. See the liquid-cooled, 60-degree V-Twin that delivers for the Pan America™ adventure touring model and the performance cruiser Sportster® S motorcycle. On view in the Museum lobby.
Clubs & Competition (on display now)
In the early part of the 20th century, motorcycle culture was a homegrown phenomenon. It grew out of the passion of riders for their evolving sport. The camaraderie that developed around riding and attending competitive events led to the formation of motorcycle clubs that hosted destination rides, family picnics with motorcycle games and other riding competitions.
The newly reinstalled display case in the Clubs & Competition gallery highlights clothing from club members from primarily the 1930s and 1940s. The clothing selections on view include full dress uniforms, shirts, sweaters, jackets and caps, customized by the owners with their club’s name and logo, and pins or patches indicating membership in the American Motorcyclist Association. The H-D Archives collection includes Motorclothes® apparel sold in H-D® product catalogs but also non-H-D produced clothing items that have been proudly customized by riders.
Harley Fox (on display now) Gail Anderson’s 1986 Softail® Custom motorcycle, “Harley Fox,” built by her partner Bob Burrows, took top prize at the first Ladies of Harley® (LOH) ride-in show during Daytona Beach Bike Week in 1987. With her custom bike and themed riding gear, Anderson presented a striking image that fit the growing visibility and exciting new options for women riders in the 1980s.
Alfonso Sotomayor’s 1957 Model FL (on display now)
The Harley-Davidson Museum is proud to announce its collection has recently grown with the addition of a 1957 Model FL that was ridden by famed Mexican stunt rider and racer Alfonso Sotomayor Canales.
Harley-Davidson’s history in Mexico dates back to at least 1913. In the 1920s, the brand was more frequently spotted throughout Mexico City as the motorcycles proved popular with the local traffic police who would also perform stunts with their Harley-Davidson® bikes. After racing from the 1930s into the 1960s, Sotomayor launched his own stunt riding career by performing the famed “Salto de la Muerte” or Jump of Death. Learn more about Sotomayor’s feats of derring-do and Harley-Davidson’s early entry into Mexico with this new display located in the Custom Culture area.
In the decades before America paved its highways, early riders had to be prepared for all sorts of terrain: sand, clay or dirt – and wandering those makeshift byways were Harley-Davidson® motorcycles. Today, it’s called off-road or adventure touring; back then it was just called riding. Since 1903, Harley-Davidson® motorcycles proved their toughness by riding over wooded hills, through stone-choked creek beds and up mountain sides. “Off-Road Harley-Davidson” tells the history of motorcycles designed for rough roads, the people who rode them and the adventures they shared.
A recently recovered cache of architectural drawings includes plans for the original Juneau Avenue facility. The pencil drawings, along with archival photographs, demonstrate the whirlwind pace of the company’s early growth. While building an international business—going from producing just over 1,000 motorcycles in 1909 to manufacturing 27,000 motorcycles in 1920—the company’s Milwaukee factory experienced near-constant expansion. Construction through this relatively brief period created the buildings that today, a century later, are still the proud home of Harley-Davidson.
“Building a Milwaukee Icon” provides a snapshot of Harley-Davidson’s formative years and illustrates a chapter of Milwaukee history when the city was known as the “Machine Shop to the World.”
As Milwaukee enters the dog days of summer, it’s a good time to remember that MOTOR’s waterfront patios are pup friendly. Whether you’re hoping to try the new Sunday brunch (complete with bloody mary bar), meeting up for lunch or listening to the tunes coming from the Bike Night stage, Fido will love the scene at MOTOR.
July monthly specials
Teriyaki Salmon (grilled Atlantic salmon glazed with house-made teriyaki sauce, served on a bed of udon noodles, fresh vegetables and Thai chili sauce, $22.95), Turkey Cobb Wrap (smoked sliced turkey breast, avocado, applewood bacon, shredded cheddar cheese, sweet corn, romaine lettuce, tomatoes, and ranch dressing, wrapped in a whole wheat tortilla and served with French fries and pickle spear, $17.95) and Grilled Berry Shortcake (grilled sweet corn cakes, berry medley compote and vanilla ice cream, $8.95) – celebrate the season of outdoor dining.
Make your reservations (for two- or four-legged friends) today.
Soon, electric passenger ferries skimming above the surface across the seas may become a reality. At Chalmers University of Technology, Sweden, a research team has created a unique method for further developing hydrofoils that can significantly increase the range of electric vessels and reduce the fuel consumption of fossil-powered ships by 80 per cent.
While the electrification of cars is well advanced, the world’s passenger ferries are still powered almost exclusively by fossil fuels. The limiting factor is battery capacity, which is not enough to power ships and ferries across longer distances. But now researchers at Chalmers and the marine research facility SSPA have succeeded in developing a method that can make the shipping industry significantly greener in the future. The focus is on hydrofoils that, like wings, lift the boat’s hull above the surface of the water and allow the boat to travel with considerably less water resistance. A technology that in recent years has revolutionised sailing, by which hydrofoils make elite sailors’ boats fly over the surface of the water at a very high speed. The researchers at Chalmers and SSPA now want to enable the sailboats’ hydrofoil principle to be used on larger passenger ferries as well, resulting in major benefits for the climate.
“The electrification of ferries cannot be done without drastically reducing their water resistance. This method will allow the development of new foil designs that can reduce resistance by up to 80 per cent, which in turn would significantly increase the range of a battery powered ship. In this way, we could also use electric ferries on longer distances in the future,” says research leader Arash Eslamdoost, Associate Professor in Applied Hydrodynamics at Chalmers and author of the studyFluid-Structure Interaction of a Foiling Craft published in the Journal of Marine Science and Engineering.
Even for ships that today run on fossil fuels the climate benefit could be significant, as similar hydrofoil technology could reduce fuel consumption by no less than 80 per cent.
Unique measurement method arouses broad interest At the centre of the research project is a unique measurement technique that the researchers have put together in order to understand in detail how hydrofoils behave in the water when, for example, the load or speed increases or the positioning of the hydrofoil changes. Using the data collected from the experiments, the team has developed and validated a method to simulate and predict with great precision how the hydrofoil would behave under a variety of conditions. The method is unique of its kind and can now be used to develop the design of hydrofoils for electric powered hydrofoil ferries.
The study was conducted in collaboration with the research facility SSPA – one of only a few of its kind in the world – where Laura Marimon Giovannetti works as a researcher and project manager. She is the lead author of the study and has herself competed at the elite level for both the British and Italian national sailing teams. Today she is a research and development adviser to Sweden’s Olympic committee and the Swedish national team with her sights set on helping the team win more medals at the Olympics in 2024. Marimon Giovannetti sees many possibilities for the unique measurement method developed by the team:
“At the Americas Cup in San Francisco Bay in 2013, it was the first time we saw a 72-foot sailing boat learning how to “fly” using hydrofoils during the competition. And since then, we’ve seen a huge increase in sailing boats with hydrofoils. With this new method and knowledge we are able to bring together a range of different branches of engineering – naval architecture, advanced materials and aeronautics as well as renewable energy.”
Paving the way for hydrofoils on electric ferries Hydrofoil technology is not in itself a novelty, but was developed as early as the 60s and 70s. Back then the focus was on getting boats to travel at as fast as possible and the hydrofoils were made of steel, a heavy material with higher maintenance costs. Today’s modern hydrofoils are made of carbon fibre, a much lighter and stiffer material that can maintain its rigidity even under high loads – and can be tailored to the expected loads. Part of the research project was therefore to fully understand how a carbon fibre structure behaves underwater during different operational conditions. The research team’s method developed in association with modern technology is now paving the way for the use of carbon fibre hydrofoils on larger passenger ships that can travel in a safe, controlled and climate-friendly way even at low speeds.
“You want the foil to be as efficient as possible, which means carrying as much weight as possible at as low a speed as possible with the least resistance. Our next goal is to use this method when designing more efficient hydrofoils for ferries in the future,” says Eslamdoost.
More about the scientific article
The study “Fluid-Structure Interaction of a Foiling Craft” has been published in the Journal of Marine Science and Engineering. The authors are Laura Marimon Giovannetti, Ali Farousi, Fabian Ebbesson, Alois Thollot, Alex Shiri and Arash Eslamdoost. The researchers are active at SSPA (part of RISE Research Institutes of Sweden), Chalmers University of Technology in Sweden and INP-ENSEEITH in France.
Hugo Hammar’s funding from SSPA and Rolf Sörman’s funding from Chalmers University of Technology provided the financial support to run the experimental tests at SSPA. This study also received funding from the Chalmers University of Technology Foundation for the strategic research project Hydro- and Aerodynamics.
Rolls-Royce Motor Cars celebrates the 118th anniversary of the historic first meeting between Henry Royce and The Hon. Charles Stewart Rolls – which took place on 4 May 1904
The company they founded together created ‘the best car in the world’, a position still occupied today by the marque’s products
Phantom, Rolls-Royce’s pinnacle product, has continued to evolve technically, aesthetically and dynamically to maintain its pre-eminence in the Rolls-Royce offering, and in the world of luxury
The eighth generation of Phantom reflects Royce’s held conviction that “small things make perfection, but perfection is no small thing”.
“As we reflect on Phantom’s remarkable heritage, I am struck by the unique place it occupies in the hearts and minds of our most demanding Rolls-Royce clients. Phantom is the beneficiary of the most ambitious forms of Rolls-Royce Bespoke, transforming into whatever our clients want it to be. Indeed, Phantom is not only the ‘best car in the world’, but the best car for them in their world.”
Torsten Müller-Ötvös, Chief Executive Officer, Rolls-Royce Motor Cars
Rolls-Royce Motor Cars marks the 118th anniversary of the first meeting between its founders, Henry Royce and The Hon. Charles Stewart Rolls at the Midland Hotel, Manchester, England in 1904.
Through the combination of Royce’s engineering genius and Rolls’ talent for promotion, their company soon became recognised as the maker of ‘the best car in the world’ – a title that Rolls-Royce Motor Cars proudly retains more than a century later.
Today, the marque’s pinnacle product – Phantom – is the ultimate expression of Bespoke luxury designed and handmade at the Home of Rolls-Royce, Goodwood. As part of its annual reflections on its origins and unique heritage, Rolls-Royce looks back through Phantom’s lineage, exploring how its namesakes evolved over the years to remain consistently at the apex of the Rolls-Royce offering.
THE ORIGINS OF EXCELLENCE
In the automotive industry’s earliest days, luxury car makers produced only the mechanical components (engine, transmission, chassis and so on) known as a rolling chassis, which underpinned the car. The bodies were designed and constructed by independent coachbuilders to the customer’s specification.
For manufacturers, including Rolls-Royce, improvements in design and engineering were directed almost entirely towards technical aspects of the car’s performance. These included reliability, hill-climbing capability, ease of control and a set of ride quality attributes still known collectively as noise, vibration and harshness (NVH).
From the outset, Phantom earned the title ‘the best car in the world’ through the superior quality and designs of the rolling chassis – the finest platform on which coachbuilders could reach the very apex of their craft.
REDRAWING TECHNICAL BOUNDARIES
The Phantom family was born in 1925 when Rolls-Royce launched Phantom I. With its massive low-range torque, cutting-edge technology and ‘Magic Carpet Ride’, the new model immediately established the fundamental traits that would define the family for the next 100 years. Then, as now, Rolls-Royce declined to rest on its laurels, and by 1929, its successor was ready for the market.
Phantom II represented another step-change in engineering and technology. In 1930, the company unveiled the Phantom II Continental, which gave customers a choice of a more performance-orientated model for those who preferred to drive themselves. The ‘standard’ longer-wheelbase car was retained for chauffeur-driven use. This practice set the precedent for today’s Phantom and Phantom Extended.
THE NEED FOR SPEED
While the new Continental could attain speeds up to 95mph, it was still not as fast as some of its rivals. The company decided to resolve the matter once and for all. In 1934, applying its proven experience with aero engines, it developed a new 7.3-litre V12 engine, mounted on a new chassis. The resulting Phantom III, when fitted with lightweight coachwork, was capable of exceeding 100mph.
In 1939, Rolls-Royce produced an experimental car, nicknamed ‘The Scalded Cat’. In later years, this car was often loaned to influential individuals, including HRH Prince Philip, Duke of Edinburgh. The Duke was so impressed that he persuaded Rolls-Royce to build him a more formal version; the marque obliged with the first Phantom IV, delivered in July 1950. The car remains on front-line (albeit reduced) duty at The Royal Mews, under its pre-delivery codename, Maharajah. Though originally intended as a one-off, 18 Phantom IV cars were completed: 17 were sumptuously appointed commissions for other royalty and heads of state; the other, somewhat bizarrely, was built as a pick-up truck for use by Rolls-Royce as transport and on-the-road component testing.
A FINAL FLOURISH
In 1959, the marque launched Phantom V, equipped with its most up-to-date V8 engine. In 1967, the car underwent subtle technical changes that were deemed, at the very last minute, sufficient to justify its redesignation as Phantom VI.
By 1968 the only true coachbuilder left in Britain was Rolls-Royce’s own in-house company, Mulliner Park Ward. These magnificent cars soldiered on through the mid-1980s, until production dwindled to a mere two or three cars a year, and finally ceased altogether in 1992.
BRINGING VISIONS TO LIFE
Every generation up to Phantom VI was essentially a rolling chassis. The bodies were built to the owner’s individual requirements by some of the most famous and prestigious names in British and European coachbuilding.
While this was normal practice in the luxury automotive world, Phantom stood apart through its ability – thanks to Royce’s engineering genius and the excellence of the chassis’ components and construction – to carry coachwork of the very finest quality, weight and complexity.
At every stage in Phantom’s development, owners exploited its potential to the full, creating some of the most magnificent, eye-catching and radical motor cars ever to grace the road. And since the chassis and body were separate, it was possible for a subsequent owner to change the car’s appearance to suit their own taste and requirements.
Many Phantoms took on more than one guise over their long, often globe-trotting lives: in some cases, they were merely repainted; in others, the whole car was rebuilt from the chassis upwards, taking on an entirely new form and character. And for all their extraordinary diversity, every one of the examples shown below is a true Rolls-Royce in terms of its underlying engineering, materials and construction, performance, ride quality and comfort – and, above all, in being exactly as the owner wanted it.
1930 Phantom II (62GY)
This handsome Phantom II was coachbuilt by Hooper of London with a Dual Cowl Tourer body. At the request of the owner, a wealthy timber merchant from Texas, 50 additions were specified with touring intentions. These include a larger fuel tank, louvered bonnet and radiator two inches taller than standard. The car was originally purchased for the owner’s honeymoon and went on to tour the Continent extensively until 1939. The present custodian acquired the car in 1998 and has since won prestigious awards including the Louis Vuitton Classic Parfums Givenchy Trophy pre-war tourers and Most Sporting Tourer in the Biarritz Concours.
1933 Phantom II Continental (55MW)
This ‘concealed-head boat body’ was a speciality of coachbuilder Park Ward. Its main feature was the compact folding hood that, when fully retracted, was entirely concealed under the rear deck, giving the coachwork its distinctive uninterrupted line. The original upholstery was textured pigskin.
Source: ‘Park Ward The Innovative Coachbuilder’ by Malcolm Tucker.
1933 Phantom Ill (3BT103)
This rare two-door sedanca coupé was coachbuilt by HJ Mulliner for Apsley Cherry-Garrard, one of the surviving members of Captain Scott’s last, fateful expedition to the South Pole in 1912. The car was originally finished in Primrose Yellow with a dyed Vaulmol leather interior; in the late 1940s it was repainted in black. The car was briefly owned by the legendary actor Sir Ralph Richardson; it then spent time in Wales and the USA before returning to the UK in the late 70s / early 80s. It sat neglected in a barn until 2018 when it was bought by its present owner, and has now been painstakingly restored using many authentic components, including original numbered engine parts.
Source: Alpine Eagle Ltd.
1937 Phantom III (3BT85)
London coachbuilder Hooper & Co built several bodies in this striking saloon-with-division style, which looks fast even when standing still thanks to its semi-razor edge styling and swooping curves. The art-deco chrome-plated flashes to the body and wings simply enhance the sense of kinetic energy.
Source: ‘The Spectre Arises’ by Steve Stuckey.
1965 Phantom V (5VD63)
This Phantom was originally owned by Wing Commander Patrick Barthropp. In 1968, John Lennon purchased the car from Barthropp coinciding with the launch of The Beatles’ White Album. In September 1969 he sold the car to Allen Klein, an American businessman.
The car appeared in the Oscar-winning film Georgy Girl (1966), the classic Let It Be (1970), starring The Beatles, Performance (1970), featuring Mick Jagger, and then prominently featured in The Greek Tycoon (1978) starring Anthony Quinn.
In 2016 after extensive restoration, Jody Klein, a longtime Rolls-Royce Enthusiasts’ Club member brought the car to the Concurs d’Elegance, Lincolnshire, where it was awarded first place for Best In Class.
James Young, established in 1863, is renowned for creating some of the most elegant coachwork to ever grace a motor car chassis. Perhaps the pinnacle of their achievements was realised in their PV23 design, developed especially for the Rolls-Royce Phantom V chassis, with 22 such bodies being built.
This model was usually finished in black, but for 5LVF65 the lighter shade of Ivory further enhances the classic elegance of every curve and line from the pen of its acclaimed designer, A. F. McNeil.
The interior contains a remarkably spacious rear compartment, with the finest cabinetry work below the division glass. Champagne cloth to the rear compartment is chosen for greater comfort than the similarly coloured and more resilient leather that the chauffeur would enjoy.
Source: P&A Wood.
2015 Phantom VII (Serenity Phantom)
Rolls-Royce created this magnificent Bespoke Phantom VII Extended for its display at the 2015 Geneva Motor Show. Inspired by opulent motor cars made for international royalty in the early 1900s, the rear passenger cabin is finished in a unique Smoke Green raw silk, specially handwoven and decorated with hand-embroidered and hand-painted Chinoiserie blossom motifs that took up to 600 hours to complete. The design also appears in the fascia and marquetry inlays in the rear doors; smoked cherrywood and bamboo elements, and details echoing the raked gravel in Japanese gardens complete the interior’s calm, natural ambiance. At the time, the Mother of Pearl exterior paint finish was the most complex – and expensive – the marque had ever produced.
2021 Phantom VIII (Phantom Oribe)
A unique collaboration saw the House of Rolls-Royce and the House of Hermès co-create a Bespoke Phantom for Japanese entrepreneur Yusaku Maezawa. Named Phantom Oribe, the motor car features a Bespoke two-tone exterior finish, inspired by the client’s world-class collection of ancient Japanese ceramics, Oribe ware. In an unusual move, the Rolls-Royce paint was made available for use on the client’s private jet that the Phantom is paired with.
The interior is finished predominantly in Hermès Enea Green leather. The Gallery features an artwork based on a design by the celebrated French artist and illustrator Pierre Péron (1905–1988), who created many of Hermès’ iconic scarves.
AN ICON REBORN
At one minute past midnight, on 1 January 2003, the first Phantom VII was handed over to its new owner – the first motor car to be produced at the brand-new Home of Rolls-Royce at Goodwood, West Sussex, England. A thoroughly modern interpretation of the marque’s signature lines and proportions, as first set down by Sir Henry Royce himself, it was built entirely in-house by Rolls-Royce, with monocoque bodywork to a standard design rather than coachbuilt. In one important sense, however, it retained a link with its heritage, in that every car was hand-built by a team of skilled craftspeople. Furthermore, the marque’s Bespoke programme meant Phantom was effectively a canvas upon which patrons could realise their own visions and desires.
Over its 13-year lifespan, Phantom VII cemented Rolls-Royce as the world’s pre-eminent superluxury motor manufacturer, and its own place as the marque’s pinnacle product. But just like their predecessors, Rolls-Royce’s designers and engineers understood that perfection is a moving target: that Phantom was never ‘done.’
In 2016, Rolls-Royce presented Phantom VIII. This was the first Rolls-Royce to be built on the marque’s proprietary Architecture of Luxury, an all-aluminium spaceframe designed to underpin every future motor car produced at Goodwood.
Phantom VIII was specifically designed to be the ultimate platform for Bespoke commissions. This has resulted in some of the most technically ambitious and challenging projects ever undertaken by the marque’s designers, engineers and specialist craftspeople. It is also the only Rolls-Royce model to feature the Gallery – an uninterrupted swathe of glass that runs the full width of the fascia, behind which the client can display a commissioned work of art or design.
It’s official, the powerful, stylish, and agile hot hatch U.S. drivers are looking for is on its way, the first-ever 2023 GR Corolla. With the detail-obsessed TOYOTA GAZOO Racing team at the helm, and master driver Akio Toyoda, a.k.a. Morizo, signing off on approval, this all new addition to Toyota’s growing lineup of sports cars brings the performance, handling, and functionality that hot hatch fans love.
Powered by the lightweight, compact-yet-powerful G16E-GTS turbo charged, direct/port injected three-cylinder engine, GR Corolla delivers 300 hp and 273 lb.- ft. of torque. Engineered for snappy acceleration out of the corners, output hits peak torque at 3000-5500 rpm, with max horsepower coming at 6500 rpm. It’s thrill inducing power is piped through a unique triple exhaust that’s designed to reduce back-pressure for maximum power delivery.
The G16-E engine is paired with Toyota’s rally developed GR-Four All-Wheel-Drive (AWD) drivetrain. This system gives drivers a choice of 60-40, 50-50, or 30-70 power distribution to the front and rear wheels. GR Corolla will be offered exclusively in a manual transmission, staying true to its hands-on rally racing roots.
Its broad hatch profile and low center of gravity are built on Toyota’s GA-C platform, with enhanced frame reinforcements developed specifically for GR Corolla at GR Factory at Toyota Motomachi plant. Functional exterior air vents and aerodynamic features further support steering stability.
GR Corolla will come in two grades, Core and Circuit Edition.
The Core Grade will be available later this year in white, black, and Supersonic Red. It will have a color keyed roof with rear lip spoiler, GR-Four stamped side rockers, and wide-fender flares. On the inside, seating for five will come with GR logoed fabric sport seats.
The Circuit Edition will be a limited-run model available in 2023. Standard colors are white, Supersonic Red and Heavy Metal with the same GR-Four stamped side rockers and wide fenders as the Core. It adds a forged carbon fiber roof, vented bulge hood, and a sporty rear spoiler, Brin Naub® suede-trimmed sport seats with red accents, and a launch-year-exclusive Morizo signed shift knob.
Both grades will come equipped with an all new Toyota Multi-Media System with touchscreen. Toyota’s Safety Sense 3.0 (TSS 3.0) system will also come standard.
Pricing will be announced later this year.
Race Inspired Engineering
In 2007, Akio Toyoda wanted to expand the company’s use of racing in its car development activities. As a starting point, he chose to compete in the 24 Hours of Nürburgring, the grueling endurance race held on the famous track winding through the German forest. It was an unofficial Toyota activity at the time, so the team was called GAZOO Racing and was made up of employees, including Akio Toyoda driving under the alias of Morizo.
With a limited budget, the newly-named team entered the race with two secondhand Altezzas. Despite adversity, both cars finished the challenging race, and a new era of Toyota motorsports and product development, one founded on a spirit of challenge aimed at instigating change, began.
As TOYOTA GAZOO Racing’s first wholly developed and manufactured model for the North American market, the GR Corolla carries this spirit forward.
With professional drivers, experts, and Morizo at the wheel, GR Corolla was tested repeatedly at some of Japan’s leading circuits, including Fuji Speedway, Suzuka and Tsukuba Circuit. In addition, the GR team carried out heavy duty dirt and snow driving with a Japanese Rally Championship driver. No road was left unturned in the process, so engineers and technicians could sharpen acceleration and control worthy of the GR name.
To help meet the performance goals for the GR Corolla, Toyota has established a dedicated GR Factory at its production facility in Motomachi, Japan. It’s the birthplace of legends such as the Lexus LFA and Supra A80 and is now home to the first GR production line, where GR Corolla and GR Yaris are precision built.
Instead of the traditional conveyor system, the body and assembly lines comprise several different cells connected by automatic guided vehicles (AGVs) rather than the conveyors featured in conventional car plants. This fully flexible method of working, with many manual assembly techniques, enables precise body and suspension alignment, with variations in vehicle dimensions and weight kept to a minimum.
Being built by experts means that the assembly of each GR Corolla takes longer than a conventional mass-produced car. The production line has been streamlined for performance, with elements such as body alignment and weld checks to ensure that each GR Corolla is built with meticulous care and attention.
Toyota Gazoo Racing has brought together highly skilled technicians from throughout the company to work on the GR Corolla. This team not only assembles every GR Corolla but also contributes to the technical skills of workers at other Toyota facilities. It’s a team structure that’s part of the overall GR mission at Toyota, developing people, driving fans, and making ever better cars.
The GR-FOUR System
With all TOYOTA GAZOO Racing sports cars firmly rooted in motorsports, it only makes sense that the GR Corolla’s drivetrain was born from the rigors of rally racing.
At the heart of the new GR Corolla is the GR-FOUR All-Wheel-Drive system, Toyota’s first sports all-wheel-drive system in over 20 years. Developed in collaboration with the TOYOTA GAZOO Racing World Rally Team and honed by WRC drivers, it delivers exceptional levels of traction and control with engineering designed to optimize drive power to each wheel, while also being simple and lightweight.
Made for rally, the GR-Four system is designed for a variety of conditions. Whether the driver is looking to adjust performance for dirt, rain, or snow, or just in the mood for a different feel, the GR-Four system offers settings to match.
With the twist of a dial, GR Corolla can adjust four-wheel drive performance to fit the driver’s needs. For every-day situations, drivers can set a front/rear torque distribution of 60:40; for a more sport setting, balance can shift to the rear, with 30:70 distribution for a fun-to-drive quality on winding roads and circuits; and for maximum stability a 50:50 setting can be used for fast, competitive track driving on circuits or special stages. In each mode, the torque balance will automatically adjust in response to the driver’s inputs, vehicle behavior, and road or track conditions.
The GR Corolla Circuit Edition is also equipped with front and rear Torsen LimitedSlip Differentials (LSD) hich offer enhanced cornering performance and grip with control of left and right-hand drive torque distribution on the front and rear axles. Front and rear LSD is available as part of the Performance Package on the Core grade, with AWD open differentials standard.
Revolutionary 3-Cylinder Turbo Engine
For GR Corolla, we took the same turbocharged G16E-GTS powerplant used in the GR Yaris and boosted its output. This compact-yet-powerful three-cylinder engine has increased power for GR Corolla thanks to improved engine exhaust efficiency thanks to a 3-piece muffler with valve capped off with brushed stainless steel tips. This design reduces exhaust pressure and outside noise, which are essential to backpressure performance.
The G16E also benefits from motorsport technologies that maximize performance, including multi-oil jet piston cooling, large-diameter exhaust valves and a partmachined intake port. Displacing 1,618 cubic centimeters, it produces a maximum power of 300 hp and 273 pound-feet of torque.
Compact and lightweight, the DOHC 12-valve engine features a single-scroll ballbearing turbo that’s matched to a 6-speed intelligent manual transmission (iMT) with rev-matching engineered to accommodate high torque levels. The turbocharger is integrated in the exhaust manifold, reducing weight, while control of wastegate bypass gases is used to improve the catalyst’s warm-up efficiency. Combustion is fed by Toyota’s D-4S direct and port fuel injection system, which operates at high pressure for maximum fuel dispersion and efficiency.
Wide, Rigid, and Designed to Handle
To achieve control worthy of the GR badge, a highly rigid body was specially constructed for GR Corolla. Based off the GA-C platform, it produced handling performance that rewards the driver. Enhanced rigidity comes from significantly more weld points in the frame, particularly to strengthen joints. Further gains are made through extensive use of structural adhesive, increasing the joint rigidity between component parts.
The front suspension is a MacPherson-type strut design that offers both light weight and firm handling, maximizing the tires’ grip potential. Made up of circuittuned coil springs, shock absorbers, and stabilizer bars, the front suspension is designed to deliver all the engine’s power to the road and provide optimum cornering capability on all surfaces. The rear suspension uses a double-wishbone type multilink system that accommodates the AWD system’s goal of maximum agility and stability.
Wide tread tires ensure high cornering performance while maintaining the excellent high speed stability of the GR Corolla’s 103.9-inch long wheelbase. It wears Michelin Pilot Sport 4 tires 235/40R18 on the both grades and comes equipped with 18-in. gloss-black 15-spoke cast alloy wheels on the grades.
Braking power comes from opposed, fixed-caliper disc brakes with 14 x 1.1-inch ventilated and slotted rotors outfitted with 4-piston aluminum calipers on both grades, the Circuit Edition caliper is red painted with GR logo. At the rear, 11.7-in. x 0.7-in. ventilated rotors with 2-piston aluminum fixed-caliper disc brakes with redpainted calipers and GR logo are standard on the Circuit Edition.
Lightweight and Aerodynamic
Throughout the GR Corolla there has been a focus on saving weight to maximize the performance potential, without compromising strength and safety. This rigorous approach is particularly evident in the car’s construction, with extensive use of lightweight metals and materials used in key areas.
On the Circuit Edition, the roof is made of a forged (rather than woven) carbon sheet molding compound. This lightweight, highly rigid material keeps off the ounces that steel roof would bring and helps lower the car’s center of gravity. Aluminum is used for the hood and front door panels, with light and strong hightensile steel in critical areas to ensure the car’s structure can safely absorb and dissipate impact forces.
For the best possible aerodynamic performance, GR Corolla’s nose ascends to a tapering roof line. Wind flow is directed onto the rear spoiler to generate extra downforce. As with rally cars, the shaping of the front and rear canards and GRFour stamped lower rockers efficiently channel airflow down the sides of the vehicle. Hood, fender, and rear bumper ducts, and a flat underfloor reduce drag, add downforce, and improve stability.
Rally Ready Hot Hatch Style
The wide stance and broad hatch exterior design of GR Corolla projects a strong, attack ready style with its black GR badged functional matrix grill. Flanked by functional air ducts on both sides, the front grille on the Circuit Grade comes in gloss-black and features integrated LED fog lamps. Auto on/off LED headlamps and LED DRLs are standard on both grades.
Both grades feature wide front and rear fender-flares. The Circuit Edition features a bulge hood with functional gloss-black air ducts. The Carbon Fiber roof on the Circuit Edition is matched with a matte-black roof mounted shark fin antenna. The Core Grade features an aluminum hood with a color-keyed roof and matching shark-fin antenna. Gloss-black heated power outside mirrors with turn signal indicators, gloss-black window molding, and black GR Corolla badges are standard on both grades.
At the rear, both grades feature a rear lower bumper cover with functional air vents, for an extra touch these vents are gloss black on the Circuit Edition. The tapering of the roof and rear pillars are complimented by a high mounted matte-black rear spoiler on the Circuit and a gloss black rear-lip spoiler on the Core Grade. The wide track and flaring of the rear wings emphasize the car’s wide and low silhouette.
Race Inspired Interior
The design of the GR Corolla’s interior reflects the car’s performance, particularly around the driver’s cockpit.
Incorporating the feedback of professional drivers, a GR Full TFT meter was newly developed with a 12.3-inch color Multi-Information Display (MID) that has a GR meter with 4WD mode, turbo pressure, gear position indicator, and tachometer. The brightly lit display is designed for easy-viewing in any condition and even features a start-up GR animation.
The shift lever has a shortened stroke for a quick throw between gears. Positioned where the driver’s arm is naturally lowered from steering, the action is light with short shift strokes, adding to the performance quality. GR Corolla uses a pull type mechanical parking brake.
The Circuit Edition’s interior is finished in black with red trim details around the door handles, center console, steering wheel and side air vents, and the Core Grade is finished with black and silver details.
Brin Naub® suede and synthetic leather-trimmed sport seats with red stitching, red mesh inserts, and GR badged headrests; 6-way adjustable driver’s seat with seatback pocket; 4-way adjustable front passenger seat with seatback pocket are standard on the Circuit Edition. Fabric sport seats with gray stitching and GR badged headrests; 6-way adjustable driver’s seat with suede sheet seatback pocket; 4-way adjustable front passenger seat with seatback pocket are standard on the Core.
Automatic climate control, power windows with one-touch auto up/down, and heated front seats and steering wheel standard on Circuit Edition. Heated front seats and steering wheel are available with the of Cold Weather package option on Core Grade.
A GR leather-trimmed tilt/telescopic sport steering wheel with audio, MultiInformation Display, Bluetooth® hands-free phone and voice-command controls comes standard on the Circuit Edition. For an added touch, a “Morizo” signed shift knob comes exclusively on the launch year Circuit Edition.
Standard on both grades is a push button GR engine start/stop button, aluminum sport pedals, two USB charging ports, one 12V auxiliary power outlet, lighted foot wells, front console tray, and rear console box. Qi-compatible wireless smartphone charging with full charge indicator light is standard on the Circuit Edition and available as part of the Technology package on the Core Grade.
The all-new Toyota Audio Multimedia system will come standard on all GR Corollas. Featuring an 8-inch touchscreen, the system offers an improved user experience thanks to new sight, touch, and voice activation. With Intelligent Assistant available through Drive Connect*, simple phrases like “Hey Toyota” awakens the system for voice-activated commands to search for directions, find POIs, adjust audio controls, change the cabin temperatures and more.
The cloud-based native navigation system offered through Drive Connect allows for real-time Over the Air updates for mapping and Points of Interest (POI), and Google POI data is integrated to ensure up-to-date search capability. It also supports standard wireless Apple CarPlay® and Android Auto compatibility.
Toyota Audio Multimedia allows for simultaneous dual Bluetooth phone connectivity. A Wi-Fi Connect subscription offers 4G connectivity for up to five devices by turning GR Corolla into an AT&T Hotspot*, and it also offers the ability to link your separate Apple Music® and Amazon Music subscriptions to your vehicle with Integrated Streaming.
The Circuit Edition comes with Premium Audio with Dynamic Navigation with eight JBL® speakers with amplifier. It includes a USB media port, two USB charge ports, Dynamic Navigation with 3-year trial, Dynamic POI Search, Dynamic Voice Recognition, hands-free phone capability and music streaming via Bluetooth® wireless technology, SiriusXM® with 3-month All Access trial.
See toyota.com/audio-multimedia for details. Connected Services — Safety Connect® with 1-year trial, Service Connect with 10-year trial, Remote Connect with 1-year trial, Wi-Fi Connect with up to 2GB within 3-month trial and Destination Assist with 1-year trial. See toyota.com/connected-services for details.
The Core Grade comes with six speakers, Android Auto™ & Apple CarPlay® & Amazon Alexa compatible, USB media port, two USB charge ports, hands-free phone capability and music streaming via Bluetooth® wireless technology, SiriusXM® with 3-month All Access trial.
See toyota.com/audio-multimedia for details. Connected Services1 — Safety Connect® with 1-year trial, Service Connect with 10-year trial, Remote Connect with 1-year trial, and Wi-Fi Connect with up to 2GB within 3-month trial. See toyota.com/connected-services for details. Premium Audio with Dynamic Navigation and JBL® w/Clari-Fi®, and Qi-compatible wireless smartphone charging are available as part of the Technology Package.
Safety & Other Technology
All GR Corolla grades come standard with Toyota Safety Sense 3.0 (TSS 3.0), which includes enhancements made possible by system sensors with improved detection capability. The Pre-Collision System with Pedestrian Detection is also capable of detecting motorcyclists and guardrails in certain conditions. When making a turn or approaching an intersection, the system is designed to detect forward or laterally approaching oncoming vehicles and provides audio/visual alerts and automatic braking in certain conditions. Improved lane recognition delivers refined performance of Lane Departure Alert with Steering Assist and Lane Tracing Assist.
GR Corolla will be equipped with Dynamic Radar Cruise Control (DRCC). Lane Departure Alert with Steering Assist is designed to notify the driver via audible and visual alerts and slight steering force if it senses the vehicle is leaving the lane without engaging a turn signal. When DRCC is set and engaged, Lane Tracing Assist uses visible lane markers or a preceding vehicle to help keep the vehicle centered in its lane.
Automatic High Beams are designed to detect preceding or oncoming vehicles and automatically switch between high beam and low beam headlights. Road Sign Assist is designed to recognize certain road sign information using a forwardfacing camera and display them on the multi-information display (MID).
Toyota’s Rear Seat Reminder comes standard on all GR Corolla grades. The feature can note whether a rear door was opened within 10 minutes of the vehicle being turned on, or at any time after the vehicle has been turned on, with a reminder message in the instrument cluster after the engine is turned off, accompanied by multitone chimes.
In addition to the TSS 3.0 system, other standard safety features on the GR Corolla include Blind Spot Monitor (BSM), which is designed to help detect and warn you of vehicles approaching or positioned in the adjacent lanes and Rear Cross Traffic Alert (RCTA) for added peace of mind by helping to detect vehicles approaching from either side while backing out and alerting you with a visual and audible warning. Hill Start Assist Control (HAC) also comes standard.
GR Corolla comes with a one year trial subscription of Toyota Safety Connect® at no additional cost — includes Emergency Assistance, Stolen Vehicle Locator, Roadside Assistance and Automatic Collision Notification.
GR Corolla Core Grade is available with the following packages:
• Performance package: Includes front and rear Torsen Limited Slip Differentials (LSD).
• Technology package: Includes Premium Audio with Dynamic Navigation and JBL® w/Clari-Fi®, and Qi-compatible wireless smartphone charging.
• Cold Weather Package: Includes heated front seats and heated steering wheel.
Limited Warranty and ToyotaCare
Toyota’s 36-month/36,000-mile basic new-vehicle warranty applies to all components other than normal wear and maintenance items. Additional 60-month warranties cover the powertrain for 60,000 miles and corrosion with no mileage limitation. Toyota dealers have complete details on the limited warranty. GR Corolla also comes with ToyotaCare, a plan covering normal factory-scheduled maintenance and 24-hour roadside assistance for two years or 25,000 miles, whichever comes first.
*Certain features include a trial period at no extra cost upon original date of new vehicle purchase or lease. After the trial period ends, a paid subscription is required. More details on trial periods and subscription-based features can be found at https://www.toyota.com/connected-services/.
Toyota (NYSE:TM) has been a part of the cultural fabric in the U.S. for more than 60 years, and is committed to advancing sustainable, next-generation mobility through our Toyota and Lexus brands, plus our nearly 1,500 dealerships.
Toyota directly employs more than 39,000 people in the U.S. who have contributed to the design, engineering, and assembly of nearly 32 million cars and trucks at our nine manufacturing plants. By 2025, Toyota’s 10th plant in North Carolina will begin to manufacture automotive batteries for electrified vehicles. With the more electrified vehicles on the road than any other automaker, a quarter of the company’s 2021 U.S. sales were electrified.
To help inspire the next generation for a career in STEM-based fields, including mobility, Toyota launched its virtual education hub at www.TourToyota.com with an immersive experience and chance to virtually visit many of our U.S. manufacturing facilities. The hub also includes a series of free STEM-based lessons and curriculum through Toyota USA Foundation partners, virtual field trips and more.
About TOYOTA GAZOO Racing
TOYOTA GAZOO Racing embodies Toyota’s commitment to overcoming every limit to make ‘ever-better’ cars, to forge new technologies and solutions under the extreme conditions of motorsports, and to never stop innovating. TOYOTA GAZOO Racing races its cars to push the limits for better and to learn from the toughest challenges. Competing on every kind of road, no matter what the challenge, inspires TOYOTA GAZOO Racing to build ‘ever-better’ cars and engineer Toyota’s future DNA to bring freedom, adventure, and joy of driving to everyone. For more information, visit HERE.
The model is the company’s first clean-sheet visual design since the Morgan Aero 8, which was launched in 2000
All-new model will be Morgan’s most configurable vehicle ever with an extensive array of accessories available at launch
The Morgan Motor Company has confirmed its all-new three-wheeled model will be launched on 24 February 2022. The new car marks Morgan’s first new design language and product ethos since the launch of the Aero range, which went on sale more than two decades ago.
Most details will remain undisclosed until the global unveil on 24 February. But Morgan has confirmed the use of a Ford three-cylinder engine for the upcoming model, continuing the long-standing use of Ford powerplants in the company’s line-up.
It will also be Morgan’s most customisable vehicle to date. Several identities of the model will be shown at launch, showcasing the diverse and versatile options available. They will highlight some of the personalities that have inspired its design, from bold, individual, and eccentric colours to fit-for-purpose adventure and motorsport-inspired mid-century racers.
Steve Morris, Chairman and CEO of Morgan Motor Company, said: “The next chapter of Morgan’s three-wheeled story will begin on 24 February, and we couldn’t be more excited to finally show it to the world. The all-new model continues a 113 year legacy of three-wheeled Morgan cars, and – as has always been the case – the new model will be totally different to anything else.”
Jonathan Wells, Head of Design, Morgan Motor Company, said: “The energy and imagination that the design and engineering teams have invested into creating the all-new three-wheeled model is incredible. I am confident that this will be apparent through the sheer quantity of options, quality, performance and attention to detail.”
About Morgan Motor Company:
Morgan Motor Company is a British manufacturer of handcrafted sports cars, located in Malvern, Worcestershire, UK. The world-famous Morgan cars offer a unique blend of charisma, quality materials, craftsmanship and performance. Morgan has been handcrafting coach built traditional British sports cars that are thrilling to drive and unique within the marketplace since 1909. In March 2019, Investindustrial purchased a majority share of the company, and by doing so invested in the long-term future of the Morgan Motor Company building cars in Britain. The Morgan family, along with the senior management team and the wider workforce, retain a shareholding of the company and work alongside Investindustrial. Morgan produces around 850 vehicles annually, of which over 70% are exported. Its model range – comprising the Plus Four and Plus Six, and forthcoming three-wheeled product – is sold through more than 70 official dealerships in around 30 countries worldwide.
Serving as a diverse company, Bugatti Rimac (active from November 21) falls within the clientele of the Rimac Technology business. The Rimac Group is a shareholder in Bugatti Rimac with 55% stake and Porsche with the following 45%. Rimac Group now owns the individual company of Rimac Technology. The fresh company has goals to develop its areas of expertise in the engineering, development, production and supply of differing systems that Rimac is renowned for – such as battery systems, electric drive units, electronic systems and user interface components.
A company with superior electronic expertise, Rimac Technology works closely with automotive manufacturers across Europe. These two realms collaborate in projects like the expansion of the Nevera, taking customers step by step through the process of product creation. Rimac Technology is especially known for their work with international OEMs such as Porsche, Hyundai, Kia, Automobili Pininfarina, Koenigsegg and Aston Martin, with other projects yet to be announced. With the development of Rimac Technology’s manufacturing capacities, the brand has goals to create tens of thousands of advanced systems per year by 2024.
The solely independent company works as an individual manufacturer, including sponsors into the Rimac Group business. Rimac Technology prioritizes clientele confidentiality with all projects, and that each endeavor will be completed to request of necessary cost, performance and within sufficient time.
Mate Rimac, CEO of Rimac Group, now heads both Bugatti Rimac and Rimac Technology. Although both the brands operate separately, they both work under Bugatti Rimac with shared R&B along with other roles. The potential of both Bugatti and Rimac automobiles will be corresponded to Bugatti Rimac, merging ideas and innovation in research and development, production and other areas.
Mate Rimac states, “If we go back to the very beginning of the Rimac Automobili business in 2009, the dream for me was to build my own electric hypercar. With Nevera we believe we’ve achieved that dream, creating a car that is not only the fastest accelerating in the world, but also comfortable, usable and brimming with our advanced technology. But Nevera isn’t just a standalone project, it’s a showcase of what Rimac Technology can do free from the costs or volume restraints of a large-scale manufacturer. We believe once you’ve pushed the technology as far as it can go, it makes it a lot easier to scale up to higher volume and lower cost. The e-Axles, Torque Vectoring, battery systems, connectivity, AI, and countless other electrical systems on Nevera are all our own creations, and each of them can be scaled to suit applications you might find on a range of higher volume performance vehicles.
Separating the technology business into its own entity is a natural step as the focus of the two markets, hypercars and components, are completely different. For example, the products of Rimac Technology, while being on the cutting edge of performance, also need to be extremely cost competitive and producible at huge scales, while those issues are secondary for the hypercar business. This new structure will enable each company of the Rimac Group to flourish to their full potential, while still sharing the synergies between them – for example using our own hypercars as testbeds for new technology before we offer it to other OEMs.”
In the summer of 2019, Alauda Aeronautics and Airspeeder Founder, Matt Pearson outlined a vision to create the most exciting next-generation motorsport on the planet. In doing so, accelerating the arrival of the flying car mobility revolution we have been promised for generations.
Since then, a dedicated team of engineers, technical and sports rights minds drawn from the most celebrated names in motorsport, performance automotive, and aviation have developed the world’s first and only fully functioning electric flying racing cars.
World’s First Remotely Piloted Flying Car Races
These vehicles will soon take place in a series of groundbreaking races named the EXA Series. These historic first electric flying car Grand Prix will be driven by the world’s best Speeder pilots. They will race blade-to-blade at speeds of up to 300 km/h in locations where racing has never taken place before. This EXA Series is the permanent development formula for the forthcoming Airspeeder crewed electric flying car races. As such, the competitors that have been chosen to take part will embark upon an extraordinary development journey, ascending from elite remote pilots into true history makers as the world’s first competitors in the forthcoming Airspeeder crewed races.
Ready to Race
These next-generation racing machines publicly flew for the first time in the summer of 2021 through development flights that have taken place in secret locations across the deserts of South Australia. While the technical team worked tirelessly to engineer and validate these revolutionary flying vehicles, more than 1,500 individuals applied to become history makers and pioneers as the world’s first electric flying car racing pilots. Indeed, in June 2019, Matt Pearson stood at the Agility Prime gathering of the world’s elite civil and military pilots and announced an open invitation to pilots. This drew the widest talent pool ever assembled to a new form of motorsport. Thousands of individuals from across the world drawn from aviation, racing, performance automotive, UAM flying, and even eSports answered the call to make history as the world’s first electric flying car pilots.
An exhaustive process of selection followed. Key attributes far beyond just competitive instincts were assessed in making the final choices. To be among this initial number, raw pilot skill is not enough. These individuals have been chosen because of their ability to work in lockstep with the greatest technical minds to help develop both an entirely new form of game-changing technology and the very fundamentals of a sport that promises to rapidly accelerate its development. These women and men are therefore not only elite-level competitors but also proved an extraordinary level of sensitivity to the technical requirements to test and refine a form of aerial motor-racing built from a blank sheet of paper.
In that sense, they are the ultimate development racing drivers and will work as a vital arm of the Alauda Aeronautics engineering team to lead an approach to refine the dynamic and tactical nuances that will make the EXA and Airspeeder races the most compelling and progressive sporting entities in the world. Now, as these historic first remotely piloted Grand Prix races draw nearer, now is the time to reveal the first pilots that will plot a course to victory and a place in the history books of both the dawn of a new sport and a new, bold era in advanced air mobility.
In Profile: The World’s First Electric Flying Car Racing Pilots
Emily Dugan, Racing Driver:Emily is Australia’s most successful current racing driver. She has been recognized as a rising star woman in sport. She started in the NSW Excel Racing Series, but soon progressed to becoming the first female driver to race in the Australian V8 Touring Car Series. She has raced at Bathurst where she secured Fastest Lap in the 2016 Challenge Bathurst and has since completed in both the Australian Toyota 86 Racing Series and Kumho Super3 Series. Emily is a hands-on developer of racing cars and regularly works on the mechanical elements of the machines she drives. Emily has enjoyed much success on the track, scoring 12 wins, 33 podiums, and 2 poles in her career.
Zephatali Walsh, RPAS Pilot: Zephatali is a born competitor. He developed his sporting instincts as a surfer before starting a career that has seen him ascend to being one of the most admired multi-blade pilots in the world. He sees a natural progression between the sports. “The feeling of flying fast with high precision leaves me ecstatic and in awe of experience. I want to surf the air.” He is no stranger to competitive racing in a cutting-edge sport. In 2020, Zephatali was drafted into the Drone Champions League where he competed with Raiden Racing. Like many prospective Airspeeder pilots, his background sits along with the requirements to understand the wider context of the racing he will take part in. Indeed, his path as a student of Environmental Science has developed a fascination with the role that racing plays in creating and accelerating a new clean-air mobility revolution.
Fabio Tischler, FPV Pilot: Fabio is a world-renowned FPV drone pilot. His work has taken him around the world capturing footage from brands including Red Bull, Toyota, and Go Pro. Fabio’s path to racing is less than conventional. He gave up a corporate career and an education in finance to pursue his dream to unleash the potential of FPV drones to capture incredible content. Originally born and raised in Germany, he relocated to Sydney, Australia in 2015 to pursue a dream to fly drones professionally. He soon built a large social following through the creation of some of the most captivating film content in the business. This drew the attention of Alauda who invited him to become part of EXA.
Testing, Development, and Racing
This first intake of pilots will undergo a rigorous process of training and development. This will include the logging of over 2000+ collective hours in the Alauda Aeronautics 6-DoF VR simulator, which will mimic an MK4 circuit race within an XR environment. Pilots will stress-test the Mk3 and Mk4 vehicles inside Unreal Engine to simulate racing.
Through their training programs and the races, they will master the dynamics of the racing vehicle with the same thrust-to-weight ratio as an F16 fighter jet but with the added ability to perform rapid F1 car style hairpin turns. Through uncrewed EXA races and crewed Airspeeder races the latest augmented reality technology will be proven. This will seamlessly display the digital sky tracks that will define race courses in some of the most remote and visually arresting scenery in the world.
A full suite of safety systems will also be pioneered. A systems-based approach to safety integrating attest LiDAR and RADAR systems in a suite of technologies termed the ‘Virtual Force Field’ will free the pilots to compete in blade-to-blade proximity without the risk of colliding.
On December 10, the anniversary of Alfred Nobel’s death, the Nobel prizes are officially awarded in Sweden each year. Though there will not be quite the usual celebrations this year, the recipients will still be honoured in different ways worldwide. So in the spirit of celebrating the contribution of science and research to society, Chalmers University of Technology, one of the leading scientific universities in Sweden, aims to shine a light on the years of hard work that lie behind crucial scientific breakthroughs, through a rather unusual way – by singing for science.
The way to scientific understanding is paved with many important and cumulative steps and contributions. Every year, researchers at Chalmers University of Technology publish over 4000 scientific articles outlining new, peer-reviewed findings in a wide array of areas – everything from sustainable energy technology, food science, medicines, climate modelling and new materials, to foundational research laying the groundwork for future applications.
“Research at Chalmers and other universities helps new knowledge get out into society and industry for the benefit of everyone, to help with better decision-making. With the help of new research, we can better understand our world, and guide the way forward to more sustainable ways of living,” says Stefan Bengtsson, President and CEO of Chalmers University of Technology.
Singing for science is perhaps not the most standard way for a university to communicate. But there is a long musical tradition in Swedish academia, and last year the Chalmers Choir celebrated its 150th birthday. The pandemic unfortunately put a halt to rehearsals and concerts for a time, but now, they can sing together again, and are proud to present a new song in four voices, to the tune of the 18th century Swedish musician Carl Michael Bellman’s popular song ‘Så lunkar vi så småningom’ (‘So we gradually amble’).
The lyrics are in Swedish, but an approximate English translation is provided in the video. Watch here.
“We are very happy to contribute and celebrate science in this way. We hope our message of faith in science can spread far and wide with the help of the song,” says Maria Cervin-Ellqvist, Vice-President of the Chalmers Choir and a doctoral student at the Department of Communication and Learning in Science where she researches, appropriately enough, research communication.
If you want to share Chalmers University’s celebration of the contribution of research to society via YouTube, Twitter, Facebook, Linkedin or Instagram, please use the hashtag #singforscience.
ABOUT CHALMERS UNIVERSITY
Chalmers University of Technology in Gothenburg, Sweden, conducts research and education in technology and natural sciences at a high international level. The university has 3100 employees and 10,000 students, and offers education in engineering, science, shipping and architecture.
With scientific excellence as a basis, Chalmers promotes knowledge and technical solutions for a sustainable world. Through global commitment and entrepreneurship, we foster an innovative spirit, in close collaboration with wider society.The EU’s biggest research initiative – the Graphene Flagship – is coordinated by Chalmers. We are also leading the development of a Swedish quantum computer.
Chalmers was founded in 1829 and has the same motto today as it did then: Avancez – forward.
Dr. Jerome Adams, former Indiana state health commissioner and the 20th U.S. surgeon general, will join Purdue University on Friday (Oct. 1) as a Presidential Fellow and the university’s first executive director of health equity initiatives, professor of practice in the departments of Pharmacy Practice and Public Health and a faculty member of the Regenstrief Center for Healthcare Engineering at Purdue.
The appointment was announced Thursday (Sept. 30) by Purdue President Mitch Daniels.
“Dr. Adams represents the highest level of excellence through decades of caring for patients and service to the nation in public health,” Daniels said. “He has consistently demonstrated commitment for health equity prior to, during and subsequent to his time as surgeon general. We are thrilled to have him provide leadership at Purdue and represent Purdue globally in this important strategic area.”
Eric Barker, dean of the Purdue College of Pharmacy, and Marion Underwood, dean of Purdue’s College of Health and Human Sciences, said Adams’ leadership will bolster Purdue’s efforts to be a leader in public health and health equity as he works alongside colleagues across multiple colleges and units at Purdue, around the state of Indiana and beyond to elevate the awareness and impact of Purdue’s science-based public health programs, research and engagement.
“We know there are many societal determinants of health that transcend a person’s biology,” Underwood said. “Our efforts both in terms of urban and rural health can address many of these factors. Culture, family backgrounds, socio-economic status, and education all influence health and wellness. The College of Health and Human Sciences is dedicated to improving the health and well-being of individuals, families and communities. We are eager to work alongside Dr. Adams to expand HHS research and outreach in the areas of public health, HHS Extension and beyond.”
Barker added, “Through the extensive learning, research and engagement missions of our College of Pharmacy and, broadly, across the Purdue system and our extensive networks, we have a chance to really study these issues and continue our vital work on initiatives that will improve the health of populations of our state and our nation.”
Pavlos Vlachos, director of the Regenstrief Center, said he expects Adams to be a catalyst to translate Purdue’s research to the health care systems and communities and to ultimately and positively impact population health.
“Often, some of the best health care technologies, scientific contributions or interventions fail to impact society because they are disconnected from the exact needs of the communities and what is needed for their successful implementation,” Vlachos said. “Jerome’s long experience and deep understanding of the complex U.S. health care landscape and the current population health challenges will help us best navigate these challenges, and position Purdue as a national and global health care innovation leader.”
Adams, who comes to Purdue after having served as the 20th U.S. surgeon general from September 2017 through January 2021, said he intends to help amplify the efforts of the Purdue Extension program to promote health equity through Indiana and particularly in rural communities, as well as work specifically with the business community to make the case for health equity as workforce and economic issues.
“Purdue is a storied institution that has the legacy, the talent and thanks to President Daniels, the commitment to being a national leader in the promotion of health equity,” Adams said. “Never before in American history has the need been greater or the community been more desirous of such an effort. I’m excited to combine my experiences in public health and public policy with the resources and opportunities afforded by Purdue to help coordinate, amplify and innovate in the health equity space.”
Before his service to the nation, Adams served as Indiana state health commissioner from 2014 through 2017. In that role he oversaw the state’s response to Ebola and Zika, as well as an unprecedented HIV outbreak in southern Indiana and a lead contamination crisis in northern Indiana. Dr. Adams also has served as an associate professor of anesthesia at Eskenazi Health in Indianapolis, where he still sees patients and helps train residents and medical students.
Adams received his Master of Public Health with a focus on chronic disease prevention from the University of California, Berkeley, and his medical doctorate from Indiana University School of Medicine. His postgraduate internship was at St. Vincent’s Hospital in Indianapolis and he completed his anesthesiology residency at the Indiana University Department of Anesthesia in 2006.
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