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Before the age of mass-production, cars were largely hand-built with every process done by humans. This allowed customisation as each car could be put together differently. With mass production, commonality was the key element and initially, Henry Ford (who introduced mass production to the auto industry) even kept the body colour to a single one – black. Over time, customer demand saw more colours being offered, as well as some degree of choice in equipment and features.

The painting of cars today is largely done by robots which can provide a high-quality finish consistently. However, the drawback of robots is that customisation is very limited and for more personalised finishing, humans still have to do the painting. Naturally, there is extra cost to such a specialised job, hence it is usually only offered in the upper end of the market with expensive models.

ABB Robotics PixelPaint techology

However, ABB Robotics shows that robots can be used to paint complex designs on car bodies without human intervention. In a recent demonstration, the company’s IRB 500 robots were able to reproduce complex artworks on a car’s exterior in less than 30 minutes. The artworks were provided by two world-renowned artists, 8-year old Indian child prodigy Advait Kolarkar and Dubai-based digital design collective Illusorr.

The IRB 5500 paint robots, equipped with 1,000 nozzles in the printer head, were controlled with ABB’s PixelPaint technology which provides extreme precision and speed, capturing intricate, elaborate detail that would be impossible to achieve by hand. This allowed the perfect recreation of Advait’s swirling, monochromatic design as well as Illusorr’s tri-colour geometrical patterns.

ABB Robotics PixelPaint techology

“ABB’s PixelPaint technology is more than an evolution – it is a revolution. It’s a shining example of how robotic automation and our RobotStudio software can not only pave the way for more sustainable manufacturing but can also perfectly replicate delicate pieces of art that celebrate the originality and beauty of the human spirit. At a time when consumers want more customized products, PixelPaint is a game-changer and allows any design to be replicated in a manner that is both sustainable and affordable,” said Sami Atiya, President of ABB’s Robotics & Discrete Automation Business Area.

ABB’s PixelPaint technology reimagines the paint application process and reflects the growing demand for sustainable personalization in the automotive industry, particularly in exterior paint. Multi-coloured car painting has traditionally been a laborious and costly process involving multiple stages of masking and unmasking but ABB’s technology allows for a detailed, colourful, and exact replication of any design.

ABB Robotics PixelPaint techology

PixelPaint technology also enhances manufacturing sustainability, removing the need for masking materials and extra ventilation, which lowers emissions while saving water and energy. Coordinated by the firm’s RobotStudio software, the paint head tracks very closely to the vehicle body to ensure 100% of the paint is applied to the car with no airborne misting. Different paint colours are applied quickly, with the product only running through the paint shop once. For car manufacturers, this can halve the production time and reduce costs by up to 60%.

Carefully controlled, the paint can be quickly applied in a single application. This breakthrough in the automation of the paint process opens the door to specialized and personalized designs to the automotive market. This would naturally be of great interest to carmakers that offer bespoke services.

ABB Robotics PixelPaint techology

Ian Callum, responsible for the design of the Aston Martin Vanquish and more recently the Jaguar I-Pace, is one of those in the industry who is impressed by the new technology. “There’s something very special about a car. People get emotionally attached to them and the importance of personalization is becoming stronger and stronger. In fact, I’m working with customers who actually want the whole car designed in a bespoke way. So this paint offering – with all sorts of new levels of individual design for a motorcar – is incredible,” the influential automotive designer said.

Braking systems in today’s cars are no longer ‘dumb’ systems that perform only as well as the driver’s actions make them perform. Thanks to the integration of electronics and sensors, the operation of brakes is managed more by a computer working at lightning speeds to optimise stopping. The driver’s role is only to apply the pressure on the pedal, signalling the need to decelerate, and even that is now enhanced by features like Brake Assist which boosts braking pressure under certain conditions.

Brembo, a leading manufacturer of braking systems which also supplies to F1 teams, has developed a new pioneering intelligent braking system which uses artificial intelligence (AI) – SENSIFY. This system integrates current Brembo product portfolio of calipers, discs and friction materials with the most advanced software, digital technology and artificial intelligence. The result is a flexible and revolutionary platform that includes software, predictive algorithms and data management to control the brake system digitally.

Brembo Sensify

Braking system becomes ecosystem
With SENSIFY, the braking system is no longer simply a sum of its parts but an ecosystem, where AI  and software play an active role. Data collection is leveraged to improve the driver experience and allows the system to be constantly updated.

“By introducing SENSIFY, Brembo is pushing the boundaries of what is possible with a braking system, opening up entirely new opportunities to drivers to improve their experience on the road and customize brake response to their driving style. SENSIFY gives drivers the peace of mind they are looking for,” said Daniele Schillaci, Brembo’s Chief Executive Officer.

“SENSIFY fully embraces our vision – Turning Energy into Inspiration – and it’s another significant step forward in providing cutting-edge, innovative, intelligent and sustainable solutions to the automotive industry,” he added.

SENSE + SIMPLIFY
SENSIFY comes from the merging of two words: ‘SENSE’, a faculty by which a human perceives an external signal or stimulus, and ‘SIMPLIFY’ which means simplicity in installing at best the product in harmony with the vehicle.

Brembo Sensify

Digital brain manages braking
The system is intuitive, responsive and smooth, providing the driver the expected performance when needed, combined with exceptional control. It has evolved naturally from Brembo’s heritage and know-how, combining the design of the best braking components with the integration of a digital brain and sensors that control each wheel independently. The result is more precise car handling, increased performance to give the driver more confidence.

Thanks to the optimized braking action on each wheel, combined with the absence of drag between pads and discs, emissions are minimized which is an environmental benefit.

SENSIFY also opens up opportunities in car design, offering great flexibility for carmakers and simplifying integration in any platform (electric and combustion engine) – from super sport to city car and, potentially, to the latest commercial vehicles. Brembo will offer it to the industry from the beginning of 2024.

Brembo Sensify

Czinger (actually pronounced ‘zinger’), the company that uses an in-house invented Human-AI (Artificial Intelligence) production system to build its vehicles, has unveiled the final production spec of its 21C hypercar. This is the first model in a series of exclusive performance vehicles – only 80 units – created in part using additive manufacturing technologies. Each component manufactured using this technology is computationally engineered using AI, optimized for weight and performance, and is beautifully finished by hand.

2021 Czinger 21C Hypercar

2021 Czinger 21C Hypercar

1:1 power-to-weight ratio
The latest version has significant updates since its first public introduction in March 2020 just before the cancelled Geneva International Motor Show. The changes include a revised width of 2050 mm. With 1,250 bhp and a dry weight under 1240 kgs, the 21C is said to achieve a true 1:1 power-to-weight ratio. All the power generated by the hybrid powertrain goes to the road via an all-wheel drive system and ultra-light, sequential 7-speed automated manual gearbox.

The hybrid powertrain, developed in-house, incorporates a 2.88-litre V8 petrol engine with twin turbochargers positioned mid-vehicle. It is supplemented by 2 high-output electric motors, each powering a front wheel with torque vectoring. The redline is at 11,000 rpm, and customers can also opt for an upgrade which will add another 100 bhp.

2021 Czinger 21C Hypercar

The 21C V8 is designed to use a range of fuels, including carbon-recycled methanol and other e-fuels. This will enable it to be run as a zero-emission vehicle.

Top speed of 450 km/h
The hypercar has a top speed claimed to be up to 450 km/h in optional low-drag vmax configuration. Putting the driver and passenger in the centre position for ultimate weight distribution, aero and driver engagement, its claimed 0 to 100 km/h is 1.9 seconds, with 0  to 400 km/h in 21.3 seconds. At 160 km/h, its aerodynamic features and design can generate 615 kgs of downforce, increasing to  2,500 kgs at 320 km/h.

2021 Czinger 21C Hypercar

 

2021 Czinger 21C Hypercar

Patented production system
The hypercar is designed, built, and manufactured in Los Angeles using advanced technology tools that are integrated into a patented production system. This system includes automated AI-based design and optimization software, patented additive manufacturing driven processes, high accuracy automated assembly and novel performance materials. This revolutionary technology enables Czinger’s design and engineering team to unlock performance and styling not before seen in the automotive industry.

Computationally engineered, printed and assembled, each component is at the frontier of theoretical performance. For example, the front upper control arm is hollow with internal structures allowing it to achieve significant mass savings compared to a traditional tooled variant, thereby greatly reducing unsprung mass and further driving the 21C’s dominating performance.

2021 Czinger 21C hypercar

Both of the fully homologated specifications of the 21C can be highly customized, and it is unlikely that anyone will pay the base price of US$1.7 million (about RM7.01 million) for a standard model. When the prototype was unveiled over a year ago, the plan was to deliver the first cars in early 2021. However, the pandemic would have upset the development and production timetable and Czinger is not giving saying when it can complete the cars.

The auto industry has been developing autonomous vehicles that can operate on their own, without human control, and sometime in the future, perhaps all vehicles on the road will move around autonomously. However, besides imagery and sonar scanning to detect other vehicles and road-users so as not to knock into them, vehicles can also communicate with each other to enhance safety.

For example, if there is an accident around a blind corner, vehicles near it can broadcast the hazard and other approaching vehicles can take appropriate action to slow down. Likewise, at junctions, communications between vehicles could greatly improve safety and avoid accidents.

In order for this to be possible, there must be a common communications system that all vehicles can use and this is now being developed. Suzuki Motor Corporation, Subaru Corporation, Daihatsu Motor, Toyota Motor Corporation and Mazda Motor have reached an agreement to jointly develop technical specifications for next-generation vehicle communications devices and to promote the common use of communications systems.

Linking automobiles and other related elements
These systems will use connected services to link automobiles and other related elements with the aim of creating new appeal, value and services, to be standardized for early provision of safer and more convenient connected services.

Within the field of CASE (connected, autonomous/automated, shared, and electric), which is said to be bringing about major transformations in the automotive industry, rapid advances are being made in the connected domain, in relation to the communications and data aspects of technology and business including cloud services, Internet of Things (IoT), Big Data, and AI. Individual automobile manufacturers are independently developing vehicle communications devices, and even in cases where the same connected services such as remote operation functions are provided, each company is adopting a different approach in proceeding with development and deploying relevant resources.

Safer and more convenient connected services
In response to these circumstances, the companies can provide safer and more convenient connected services to customers as early as possible, by positioning the development of vehicle communications devices, which are basic functions of the connected car, as a cooperative domain; positioning the development of applications and services as an in-house domain; and achieving greater efficiency and accelerating the development of vehicle communications devices. Each company can focus more on the development of applications and services on this common infrastructure through these steps.

Having a common communications system is vital as individual systems will create a fragmented infrastructure. It can be likened to the establishment of the common Windows operating system. In the early years of computers, there were different operating systems and users could not easily communicate with each other, or even exchange data. Once the Windows system (or MS-DOS) became a common system, companies could focus on developing software that was compatible and this led to faster growth for the industry.

At this time, Suzuki, Subaru, Daihatsu, and Mazda, while incorporating their own technologies into the base vehicle communications technologies developed by Toyota, will together build systems for next-generation connected cars with common connection specifications from vehicles to networks and the vehicle communications device centre.

A common communications system will allow vehicles of different brands and types to exchange information, reducing accidents.

Optimizing R&D resources
As a result, by stabilizing the communication quality between vehicles and vehicle communications device centre further, it will be possible to provide more convenient connected services to customers, such as clearer calls between customers and operators and faster connection speeds. At the same time, it will be possible to reduce the development burdens of each participating company and simplify system operation and version upgrades that include additional new functions, thereby optimizing resources such as facilities and personnel.

The 5 companies will openly consider collaboration with other like-minded partners regarding the joint development agreed on at this time while continuing their efforts to develop services that enrich the lives of people and solve social problems.

It’s been a year since Human Horizons, a company based in China, unveiled its HiPhi concept electric vehicle (EV). When it made its global debut, the EV was described as a ‘premium supercar-inspired electric SUV’; this year, it has become an ‘Evolvable Super SUV’, said to be representative of a new generation of intelligent EVs.

2021 HiPhi X

2021 HiPhi X

2021 HiPhi X

Like many EVs, the HiPhi X has a sharp profile to slip through the air. Because it uses entirely new architecture, its design is not constrained by ‘legacy structures’ of earlier EVs. Measuring 5.2 metres long, its lightweight hybrid aluminium construction will complement the concept of sustainability with the adoption of vegan leather and the use of recyclable materials.

AI developed with Microsoft
With a virtually clean start, the designers have been able to incorporate many features which draw heavily on Artificial Intelligence (AI) for functioning and occupant comfort. The advanced, highly-personalized onboard AI assistant, known as HiPhiGo, has been developed in collaboration with Microsoft. HiPhiGo is highly sensory, with an array of intelligent functions, including a level of reasoning and continuous learning whilst interacting with its occupants, the surrounding environment and a multitude of vehicle parameters.

2021 HiPhi X

This new breed of self-learning smart vehicle has a ‘neural network’ consisting of 6 “super brain” domain controllers, connected by 1G Ethernet, which provides a higher transmission rate than traditional CAN networks. HiPhiGo is able to analyse massive amounts of information and make decisions utilizing cloud computing with a powerful data analysis engine, which results in a truly intelligent and smart vehicle.

2021 HiPhi X

Level 3 autonomous capability
As would be expected, the HiPhi X – which can seat 6 persons – will be able to operate autonomously. Initially, Level 3 autonomous driving will be available. Level 3 autonomous capability is the start of truly autonomous motoring where the driver can set the destination and leave the driving to the computer. However, use of the autonomous feature will only be possible on dedicated highways or lanes. The driver will also have to become ‘involved’ occasionally in complex traffic situations.

4-wheel steering will make parking easy.

In time, the HiPhi X or future models should be able to progress to the more advanced Level 5 which will allow for fully autonomous motoring where the car’s computer’s handles everything, including negotiating jams and parking by itself. That will not only depend on advancements in vehicle technology but also the public infrastructure.

2021 HiPhi X

BHPetrol RON95 Euro4M

RWD or AWD
For emission-free propulsion, the HiPhi X will have rear and all-wheel drive options and use 268-hp Bosch electric motors. Acceleration time is claimed to be under 4 seconds from 0 to 100 km/h.

Customers will be able to choose lithium-ion battery packs according to their anticipated needs. Those who do not foresee travelling out of the city could use a smaller battery pack and for those who expect to do regular long-distance travel, the 96 kWh battery pack could be specified which gives a claimed range of 610 kms.

2021 HiPhi X

2021 HiPhi X

The project is now its final phase of development with a launch planned at the Beijing Auto Show on September 26 and first deliveries to customers starting in 2021. The cars will be built in Jiangsu province to the north of Shanghai at a factory owned by a Dongfeng joint-venture with Kia.

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BHPetrol RON95 Euro4M

In the 1950s, carmakers envisioned sleek cars with advanced powertrains and autonomous operation on the roads of the 21st century while futurists and science fiction writers imagined flying cars. Well, we have the sleek designs with advanced powertrains due to make changes in this decade as electric motors take over from the internal combustion engine. But flying cars have yet to be available in showrooms although there have been developments in recent years with prototypes taking to the air.

UK’s Auto Trader takes a look at what vehicles might look like 30 years from now with concept designs based on the expertise of futurologist Tom Cheesewright, market trends, the rate of technological development and research into consumer demand.

“Tomorrow’s car takes you from A to B with minimum fuss and in maximum style. Future technologies will give designers free reign to create more space and comfort, so that we can get on with our lives while an AI assistant takes care of the driving. While our cars won’t be flying any time soon, we can all benefit from cleaner, quieter, safer roads. In just twenty years, the age of the combustion engine will be well and truly over,” predicts Cheesewright.

AT Timeline
Past, present and future of the motorcar and motoring

Digital paint for different colours
Auto Trader’s 2050 concept car is a fully electric, colour-changing vehicle with space for passengers to make the most of the time they spend in the autonomous vehicle – by relaxing, doing yoga and even sleeping during the commute. Featuring ‘digital paint’, the car allows passengers to change the colour and style of the car from the tap of an app, depending on their mood, with advances in technology meaning this feature could be widely available as early as the year 2040.

Designed to be a home away from home, passengers can relax and unwind on the built-in mattress in the centre of the spacious cabin – a feature which 24% of motorists said they’d use for catching up on much-needed sleep and a cheeky 13% of men would use for some intimate time with a partner.

Auto Trader Concept 2050

Reading or watching TV on the move
Drivers also said they’d like to reclaim their commute time by delving into a good book from the built-in library (22%) or watching their favourite Netflix shows and movies from the large in-built TV screen (19%).

Other popular recreational uses for the spacious design include beating friends and family at board games (16%), getting hair and make-up done on the way to an event (15% of women would do this), and 4% would even practice yoga whilst in transit.

Auto Trader Concept 2050

AI assistant
Catering to the 10% of drivers who want cars to be fully voice-operated in future, the car welcomes passengers with a friendly AI (Artificial Intelligence) assistant that helps them set their preferred driving speed and style, whether out for a leisurely Sunday drive or rushing home for dinner. Given that the car is likely to be operating autonomously, rushing will not be done recklessly so an accident is unlikely to occur.

The 2050 car is fitted with windows that extend right over the roof in one large bubble, offering more head room to allow passengers to freely move around during transit. It also features 360-degree panoramic views for those wanting to sit back, relax and enjoy an autonomous ride, plus black-out functionality on the windows, which can be activated with a quick tap.

Auto Trader Concept 2050
All images and Timeline provided by Auto Trader UK.

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BHPetrol RON95 Euro4M

Human beings have two eyes to view their surroundings as they drive, sending images to the brain which then makes the necessary decisions to brake or avoid hazards. When an on-board computer takes over the entire job of operating an autonomous car, two ‘eyes’ are not enough and a third sensor is needed. The first two eyes – already in use – are the camera and radar and the third is a long-range lidar sensor for light detection and ranging.

Bosch has a production-ready lidar system that is suitable for automotive use. This laser-based distance measurement technology is indispensable for driving functions at SAE Levels 3 to 5 (the different levels of autonomy). The new sensor will cover both long and close ranges – on highways and in the city.

Lidar

By exploiting economies of scale, Bosch aims to reduce the price for the sophisticated technology and make it affordable for the mass market. “By filling the sensor gap, Bosch is making automated driving a viable possibility in the first place,” said Bosch Management Board Member, Harald Kroeger.

Alert to all automated driving situations
Only the parallel deployment of three sensor principles ensures that automated driving will offer maximum safety when it is available. This has been confirmed by Bosch analyses, where developers investigated all use cases of automated driving functions – from highway assist to fully automated driving in cities.

For example, if a motorcycle approaches an automated vehicle at high speed at a junction, lidar is needed in addition to camera and radar to ensure the reliable sensing of the two-wheeler. In this instance, radar can struggle to detect the bike’s narrow silhouette and plastic fairings. Moreover, a camera can always be dazzled by harsh light falling on it. As such, there is a need for radar, camera, and lidar, with the three technologies complementing each other perfectly and delivering reliable information in every driving situation.

Lidar

Lidar is an essential element
We can think of laser as a ‘third eye’: in lidar systems, the sensor emits laser pulses and captures the laser light that is scattered back. The system then calculates distances based on the measured time it takes for the light to bounce back. Lidar offers very high resolution with a long range and a wide field of vision. As a result, the laser-based distance measurement tool can reliably detect even non-metallic objects at a great distance, such as rocks on the road. This means there is plenty of time to initiate driving manoeuvres such as braking or swerving.

At the same time, using lidar in vehicles exposes the lidar system’s components, such as the detector and the laser, to many stresses – above all, with regard to temperature resistance and reliability over the vehicle’s entire lifetime. Because Bosch can draw on its sensor expertise and systems know-how in the fields of radar and camera technology when developing the lidar, the company can ensure that all three sensor technologies dovetail with each other.

Camera
Lidar will work with the cameras and radar to provide the computer with more comprehensive imagery ,

“We want to make automated driving safe, convenient, and fascinating. In this way, we will be making a decisive contribution to the mobility of the future,” said Kroeger. Bosch’s long-range lidar will fulfil all safety requirements for automated driving as well as enable automakers to efficiently integrate the technology into a very wide range of vehicle types in the future.

Artificial intelligence makes systems even safer
Recently, Bosch engineers succeeded in taking the camera technology used in cars to a new level by enhancing it with artificial intelligence. The camera technology detects objects, categorizes them into classes such as vehicles, pedestrians, or bicycles, and measures their movement. In congested urban traffic, the camera can also recognize and classify partially obscured or crossing vehicles, pedestrians, and cyclists quickly and reliably. This allows the vehicle to trigger a warning or an emergency braking manoeuvre as required.

The engineers are also continuously refining radar technology. The latest generation of Bosch radar sensors is even better at capturing the vehicle’s surroundings – even in bad weather or poor light conditions. Their greater detection range, wide aperture, and high angular separability are the basis for this improved performance.

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The sunvisor as we know it has been around since the earliest days of the motorcar, at least after the driver had the protection of a body around the seating area. While the windscreen glass prevented the onrush of wind from causing discomfort and affecting vision, it did not stop the rays of the sun from blinding the driver.

Back then, drivers must have attached some sort of board to the upper part of the windscreen to block the sun. Later on, when carmakers realised it was something to address, they provided a small panel which could flip up when not needed. In the 1970s, a ball joint was used at one corner so the sunvisor could be flipped to the side so that it could also block the sunshine if it was not coming from the front.

The sunvisor is one of those things in a car which has never evolved, maybe because its function is so basic. Other than adding a mirror (some with illumination) and sleeves to store cards or papers, the sunvisor is the same as what it was decades ago.

Bosch Virtual Visor
Driving towards the evening sun can often be blinding, even with a sunvisor. This innovation could eliminate the discomfort (and danger to driving).

Blocks the sun but not the view
Now a group of engineers at Bosch have come out with an innovation for sunvisor design which can block the sun without also blocking a driver’s view of the road. It achieves this by using an LCD panel instead of the usual cardboard or foam-filled panel. The panel can be flipped up when not needed.

There’s also a camera which is pointed at the driver’s face to recognise facial features like the nose, mouth, and, most importantly, the eyes. The camera’s video feed allows a computer to use AI to recognise shadows on the driver’s eyes and darkens only the areas on the visor where the sunlight is strong. The AI varies the darkening and generally, there should be enough areas that are not darkened for the driver to have a clear view ahead.

Bosch Virtual Visot

The Virtual Visor, as it is referred to, is not an official Bosch product yet. It was shown at the CES 2020 and described as a project which three of the company’s engineers worked on in their free time. If the company sees potential to commercialise it, then it would have to go through stringent development processes to ensure durability, safety and all the things that carmakers will demand if they are to adopt it.

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CONNECTIVITY. It’s a term you hear often these days in descriptions of new models. It refers to the seamless integration between advanced technologies for infotainment and the portable devices that the car’s occupants have, as well as connecting to the world outside the car.

The earliest ‘connectivity’ feature would have been the radio, receiving broadcasts of music and news from stations as the car moved along. Then with the advent of the cellular mobilephone, 2-way communications became possible. And with the internet and wireless broadband, connectivity meant being able to connect to the World Wide Web and use the same services and applications you use on your computer or tablet.

Connectivity is becoming very important and sophisticated with the coming era of autonomous cars. Not only must cars communicate with the outside world efficiently and safely but the occupants must also have the best connectivity since they will be involved in the driving less (or not at all).

Honda e connectivity

Benchmark in connectivity features
Honda, like other carmakers, has already many connectivity features in its current models and is developing even more. The new Honda e EV to got on sale in Europe this year sets a new benchmark in this area with connected infotainment which helps the car to integrate with the owner’s lifestyle through sophisticated, easy-to-use technology.

As a result, the driver and passengers – whether the car is driving, parked or charging – can enjoy the same connectivity and comfort with comprehensive connected services accessed through a next-generation full-width digital dashboard.

“Our objective for the Honda e was that the simple exterior style continues inside. The overall interior atmosphere combined with exceptional comfort by using familiar materials such as wood grain and textured fabric, is reminiscent of a modern living room.” explained Kohei Hitomi, Large Project Leader for the Honda e. “In this modern, relaxing environment, occupants can effortlessly engage with advanced connected technology such as the camera mirror system and dual touchscreen display that is highly sophisticated, but incredibly easy to use.”

Full-width digital dashboard
The Honda e’s full-width digital dashboard is designed for effortless usability of connected apps and services. Five integrated high-resolution colour screens together occupy the entire width of the car’s interior.

Honda e connectivity

The Side Camera Mirror System screens are ergonomically placed at either end of the dashboard to ensure a natural feel and vision for the driver, while the Centre Camera Mirror System display relays the image from a central rear-facing camera, further increasing the driver’s field of vision.

An 8.8-inch TFT meter instrument display in front of the driver presents key vehicle information including power and charge status, drive mode selected and safety feature details.

Dual screens display connected services
The largest area of the full-width digital dashboard is occupied by dual 12.3-inch LCD touchscreens. These are the primary infotainment displays, presenting a range of intelligent applications and services. This sophisticated interface is highly intuitive, customisable, and has been designed for ultimate usability to elevate the car beyond being a means of transportation to become fully integrated into the owner’s modern connected life.

Honda e connectivity

The interface features familiar smartphone-style usability, with swipe controls to browse recently used applications. Content can easily be swapped across the two screens, enabling the driver to utilise content on both screens with simplicity and ease. This function allows the passenger to swipe content such as navigation instructions into the driver’s eye line. And because the dual screen set-up allows two applications to be displayed side-by-side, the driver and front passenger can independently select and view separate apps. For example, while the driver follows navigation instructions, the front passenger can search for a music playlist.

AI-powered connectivity
Connected services and applications can also be accessed using voice commands via the Honda Personal Assistant. The intuitive Honda Personal Assistant is a smart artificial intelligence (AI) service that uses unique contextual understanding to create natural conversations and provide access to a range of online services.

The Honda Personal Assistant is activated by saying ‘OK Honda’, followed by the question or instruction. Machine learning enables the technology to develop a greater understanding of individuals’ voice over time, helping it to deliver more accurate responses.

The comprehensive suite of in-built apps can be supplemented by smartphone mirroring, via Apple CarPlay or Android Auto. These systems enable users to view social media, music and other internet services on the dual touchscreens. When the car is parked – even when charging – the occupants can also watch video content and access the internet on their own mobile devices using the built-in wifi hotspot.

Prototypes of the all-electric Honda e to go on sale in Europe before the end of 2019

Smartphone application for remote access
Owners can still stay connected to their car remotely through a smartphone application when they step out. The service focusses on the user journey, with easy navigation to access charging functions, detailed vehicle status, climate control, security and location monitoring. Additional connectivity and EV-specific functions include battery charge control and range monitor, while charging station and navigation search results can be sent to the car from a mobile device.

The Honda e is also accessible using a digital key, allowing the car to be locked and unlocked via the app. Safety alerts can notify owners if it moved outside of a set ‘geofence’ zone.

The Honda e is initially intended for sale in European markets. Honda’s plan for the next decade is to have a substantial portion of its vehicle sales made up of battery electric vehicles. Connectivity technologies in the Honda e are likely to be adopted in new models in coming years so the next City or CR-V you buy may have some of the features you just read about.

Visit www.honda.com.my to read about models you can buy in Malaysia today.

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