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Sustainability/Green

The EV From Down Under

We were all very sad when we got the news that those iconic Australian cars – Ford and Holden – were no longer going to be manufactured here and that the factories were closing their doors. However, we can all smile again for the sake of the Australian automotive industry: a new company in Queensland is going to manufacture a car from scratch.  Great!

There’s a slight difference with this newcomer, though. Unlike the gas-guzzling Ford Falcons and Holden Commodores (OK, they were a bit better when driven on the open road but that’s another story altogether), this new company, ACE EV, is turning its eyes to the hot new sector of the automotive industry: electric cars.

Well, to be more specific, it’s going in for electric vans and commercial vehicles as well as cars.  And, to be fair, the factory is going to be using some parts that were manufactured overseas as well as a few made here.  The idea is to keep the costs down.  They’re not out to produce Tesla clones at Tesla prices.  Not that there’s anything wrong with Tesla per se and it’s neat to see electric vehicles that have bust out of the boring, crunchy-granola, wimpy image and become supercool.  However, a brand new Tesla probably costs more than what I paid for my house.  ACE EV, however, wants to make EVs more affordable for the typical tradie or suburban family.

ACE EV stands for “Australian Clean Energy Electric Vehicles”.  Proudly Australian, their logo features a kangaroo on the move.  This year (2019), they are launching three vehicles, targeting tradies as well as your typical urban motorist, although they’re only selling them to companies as fleet vehicles at this stage.  These are the ACE Cargo, the ACE Yewt and the ACE Urban.

ACE Cargo

The Cargo is designed to, um, carry cargo.  It’s a van that’s capable of carrying a payload of 500 kg and has a range of 200 kg if it’s not carrying the full load. The Cargo is designed to be suitable for couriers and anybody who has to carry gear or people from one side of town to the other: florists, caterers, cleaners, nurses and the people who carry blood samples from the medical centre to the lab for analysis. Looks-wise, it’s broken out of the square box mould of traditional vans, probably for aerodynamic reasons, and resembles a single-cab ute with a hefty canopy.

Ace Yewt

Which brings us neatly to the Yewt.  The Yewt is what it sounds like (say Yewt out loud if you haven’t got it yet). It’s a flat-deck single-cab ute and as it’s got more or less the same specs as the Cargo regarding load, charge time and acceleration. You’d be forgiven for thinking that t it’s the same thing as the Cargo but with the cover on the cargo area taken off.  It’s something of a cute ute – and the contrasting colour roof is a nice touch.

Last but not least, there’s the Urban, which is no relation to the Mitsubishi with the notoriously weird name (Active Urban Sandal).  This one’s still in the pipeline and they haven’t given us the full specs brochure yet (it’s due for release later this year), but this is a classic four-seater compact three-door hatch that looks a bit like a classic Mini but edgier.

It’s certainly nice to see some new vehicles made in Australia for Australians, especially given that in a recent poll, about half of all Australians in an official survey by the Australia Institute would support a law that all new cars sold after 2025 should be EVs.  However, let’s not rush things too much yet.  For one thing, EVs are only one of the Big Three when it comes sustainable motoring (biofuels and hydrogen are the others).  The other thing is that all energy has to come from somewhere, even electricity, as stated by the First Law of Thermodynamics.  This means that in order to charge your EV, you’re going to have to generate the electricity somehow and get it to the charging points.  Before we go over lock, stock and barrel to EVs, we will need better infrastructure, and I don’t just mean more EV charging points around town and in our homes.  We’ll need some more generators.  Otherwise, it would be like setting up a bowser but having no petrol to put in it.  If everybody were to try charging their EVs at home overnight, there would be a massive drain on the national grid and we’d be getting brownouts and blackouts all over the show –which means that watching TV, catching up on your emails, having a hot shower and cooking dinner would get rather difficult – and you wouldn’t be able to charge your EV either.  Guess where the power companies will have to get the money from in order to build new power plants – that’s right: your power bill.

May I humbly suggest that before you invest in an EV for your commute that you also consider installing a solar panel or three on your home?  Or a wind generator?  Not one of those petrol or diesel-powered generators – swapping an internal combustion engine in your car for one in the back yard isn’t better for the environment now, is it?  Unless you run it on biofuel or hydrogen.

Has Steam Gone Walkabout?

What about a steam powered car?  In recent times people’s consciences and attention has turned to more environmentally friendly ways of commuting.  So with electric, hydrogen, hybrid and bio-fuel vehicles all available on the current automotive market, why not give steam another go?

Perhaps the biggest hurdle for a steam powered comeback is the grip that the oil companies have on automotive power.  However the winds seem to be changing, with more-and-more people reflecting on how their lifestyle and decisions impact on the environment.  Internal combustion engines produce a lot of pollution and tend to be rather noisy.  Without a doubt cleaner burning engines are resonating with buyers who have cash to spend.  EVs and hybrids are expensive but there are people very happy to buy them.

Difficulties that drove steam powered cars to become museum pieces were:

  • The external combustion steam engines could not be manufactured as cheaply as Henry Ford’s internal combustion engines.
  • Steam engines were also much heavier engines.
  • It took several minutes before the boiler was hot enough for the steam motor to generate power for take-off.

These difficulties created the “Warehouse and Kmart” phenomenon of today, where people flock to where the cheap buys are regardless of the impact.  But with today’s modern materials, steam cars could be as light as their internal combustion engine alternatives.  With a new advanced condenser and a fast heating boiler, the possibility of a modern-day steam car with decent efficiency and a warm-up time that’s measured in seconds rather than minutes could provide the comeback punch that steam needs to become an attractive and viable option for new-car buyers.

Just ponder on this for a moment – a new modern motorcar running on steam that has powerful seamless acceleration instantly, is clean burning, very quiet and, unlike combustion engines, can run on almost any fuel that produces heat.

Steam engines don’t need any gears or transmissions.  They are much more in the same vein as EV cars that have all their torque available at any rpm.  Due to the fact that steam provides constant pressure, unlike the piston strokes of an internal combustion engine, steam-powered cars require no clutch and no gearbox – making them extremely easy to drive.  By virtue of their design, steam engines provide maximum torque and acceleration instantly like electric motors, and particularly for urban driving where there’s lots of stopping and starting, clean-burning steam would be great!

What developments in steam have occurred since it rudely got forgotten and laid aside?  Some good news is that in 2009, a British team set a new steam-powered land speed record of 148 mph (237 km/h), finally breaking the Stanley Rocket’s record which had stood for more than 100 years.  In the 1990s, a Volkswagen Enginion (a model for research and development) boasted a steam engine that had comparable efficiency to internal combustion engines, but with lower emissions.  And, in recent years, Cyclone Technologies claims it has developed a steam engine that’s twice as efficient.

It might have preceded the internal combustion engine by around 200 years, but as the world is finally starting to take a serious look at the future viability of personal transport, perhaps the wonder of gliding by steam power will once again be seen on our modern roads.  In an age of touchscreen infotainment systems, EV cars that can do 400 km on a charge and driverless cars, surely there is room for new, clean-and-efficient steam cars.

Currently the increased focus on environmental responsibility could be weakening the link between the oil industry and modern motorcars.  Wouldn’t you just love to be able to fill your car up with rainwater and head off on your work commute!

Thoughts?

Tesla Unveils Model Y SUV.

 

Tesla has released details of their Model 3 based electric SUV. Dubbed the Model Y, it slots into the mid-sizer SUV space and will be priced from USD$39,000. That price is applied to the Standard Range version. It will also come in Long Range, Dual-Motor All-Wheel Drive, and Performance variants.Tesla say the Model Y will be able to reach 62mph/100km/h in 3.5 seconds, and should see a top speed of 150mph/240km/h. Range expectations are 230 to 300 miles for the Standard and Long Range versions.

The Model Y will be available for sale in the U.S., according to current expectations, in the autumn of 2020 in the northern hemisphere for the Model Y Performance, Long Range Rear-Wheel Drive, and Dual-Motor All-Wheel Drive variants, with Standard Range vehicles due in 2021.

Model Y will feature a panoramic glass roof to provide an extra sense of space inside the mid-sizer for the seven passengers. A single 15 inch touchscreen will provide driver and passenger information and comfort. There is an application for smart devices that can be installed also, allowing a driver to enable pre-airconditioning, remote unlock, and a Summon mode. Notable, however, will be the Model Y using the normal door method with vertically aligned hinges, and not using the costlier Model X gull-wing system.Naturally the Model Y will be compatible with the extensive charger network and will be able to take advantage of the forthcoming V3 charging rate system, which will provide a rate of up to 1,000 miles worth of charging in an hour.

Expected release dates for the Australian market are yet to be confirmed.

Jaguar i-Pace Wins Major Award

Jaguar’s low slung all electric five door i-Pace has become Jaguar’s first car to win the European Car Of The Year award. It’s an award that is voted upon by sixty journalists from 23 countries. The award looks technical innovation, design, performance, efficiency and value for money.
To date, the i-Pace has found over 8,000 homes with around 75% of those in Europe. There’s obviously plenty of good reasons for the car to be so popular. The driveline, for example, delivers up to 294kW and 696Nm of torque, and with a pair of electric motors working together in a near perfect weight distribution, a zero to one hundred time of 4.8 seconds is just a flex of the right ankle away.

Road manners are Jaguar’s exacting standards. Torque Vectoring by Braking is standard in the i-Pace; it’s a system that delivers controlled independent braking on the individual inside front and rear wheels to add to the turning forces acting on the car. For the driver that wants to push the i-Pace even harder, an optional airbag suspension system can be fitted. This will drop the i-Pace by ten millimetres to help aerodynamic flow at speeds over 105 km/h.
Both of these are backed up by the Coventry firm’s Adaptive Dynamics monitoring system. At up to 500 times a second, the onboard system will read input from the throttle, the actual acceleration rate, braking, and the suspension to provide a best as possible ride and handling experience. Gone a little dirty? Then the All Surface Progress Control and Low Traction Launch systems will help out in low speed driving conditions.

The power system gets looked after too. Active Vanes open and close behind the grille and front bumper air intakes to provide cooling air when required for the electrical system. Enhanced Brake Regeneration feeds kinetic energy back into the power grid almost as soon as the driver lifts their foot from the accelerator. Heavy Traffic Braking is a variable system that adds power back in city driving stop/start.
Contact Jaguar Australia for information on the 2019 Jaguar i-Pace.

Mazda3 Hatch And Sedan Go Uncluttered For 2019.

Mazda has gone deep into its Kodo: Soul of Motion design language for its forthcoming Next-Gen Mazda3. For sedan and hatch, Mazda3 has been given a complete reskin and separately. There are just two panels that are shared between them. A standout in the hatch design is the striking and solid C pillar that wraps around from the lowest section of the rear bumper to form a seamless curve through to the A pillar.The sedan is a beautifully sculpted exhibition of smooth, flowing, almost waterfall like, sheetmetal in contrast and perhaps does a better job of defining Kodo. Low slung, it empahasises muscular haunches and wide, sporty profile.

Mazda have given the hatch a little extra to help it stand out further. It’s coated in a unique body colour offering called Polymetal Grey Metallic. This gives glossy smoothness over the hard appearance of metal.

Mazda calls the connection between car and driver Jinba-Ittai. It’s a “less is more” mantra from the Japanese company, with a simple and elegantly laid out cabin that “centres” the driver.The instrument cluster has three meters, and along with the angle of the steering wheel and aircon vents, create a symmetry for the driver’s location. The redesigned dash also repositions the climate control panel, passenger vents, and ancilliary controls for a better, more efficient, usage pattern.Information pertinent to driving is now more clearly displayed, thanks to a redesign of Mazda’s Human Machine Interface (HMI). Now standard equipment, the newly added TFT LCD meter, windscreen projected Active Driving Display and the larger 8.8-inch infotainment display are streamlined in their presentation of information and fonts are unified, effectively reducing driver distraction by ease of comprehension.Mazda call their entertainment system Mazda Connect, and it’s been improved for faster performance, and smoother, more human friendly, operation. Android Auto and Apple CarPlay have been added as standard equipment.

More human centric focus has been put upon the centre console, with a redesign making for more room, and by placing the gear selector forward and higher, that becomes a more natural “fall to hand” item. Sounds comes from either an eight speaker or Bose twelve speaker system.Mazda went hard on improving the ambience of the Mazda3, with a new process for the laying of gloss black lacquer for the gear selector surround adding extra depth, and even a new weave for the cloth, plus a new styling for the leather seats.Safety goes to a new level with Front Cross Traffic Alert, a driver monitoring camera, Mazda Radar Cruise Control, Smart Brake Support, Lane Keep Assist, and Lane Departure Warning, plus a driver’s knee airbag as standard. Higher tensile strength steel is used in the chassis manufacturing, with an increase of 27% of what’s called 980MPa steel.

Ride quality will improved from a rejigged suspension. Overall weight has been reduced, with a lighter sprung mass meaning sharper response in handling. Improved MacPherson struts and a new torsion beam rear add to the package.

The 2.0L and 2.5L engines have been massaged, with optimised intake ports and piston shape, split fuel injection, a coolant control valve and cylinder deactivation for the 2.5L to deliver higher levels of dynamic performance, fuel economy and environmental friendliness.The 2.0L engine offers 114kW at 6,000rpm and 200Nm of torque at 4,000rpm. The 2.5L has a maximum power output of 139kW at 6,000rpm and 252Nm of torque at 4,000rpm. The Skyactiv-X system features a world first. It’s the usage of a new combustion method. It’s called Spark Controlled Compression Ignition (SPCCI) and which gives the superior initial response and powerful torque of a diesel engine, combined with the faithful linear response to rapid accelerator pedal action and free-revving performance of a petrol engine.

Available in the second quarter of 2019 the pricing starts from $24,990 for the G20 Pure with manual transmission. The top-grade G25 Astina now starts at $36,990 for the manual variant. The Polymetal Grey Metallic is an option at $495. Contact your Mazda dealer for more information.

Home-Grown Zero-Carbon Hydrogen Technology

CSIRO’s Toyota Mirai HFC vehicle (image from CSIRO)

There are three possibilities when it comes to finding an alternative to the standard fossil fuels used in the majority of vehicles on the road.  The first is a switch to biofuels (biodiesel, ethanol, etc.), the second is to go electric (the sexy new technology that’s mushrooming) and the third is hydrogen fuel cells or HFCs.

I discussed the basics of HFCs in my previous post.  If you can’t remember or if you can’t be bothered hopping over to have a look, one of the points I raised was that most of the hydrogen gas used to power HFCs comes from natural gas, with methane (from sewage and effluent) coming in as the more sustainable second possibility.  However, there’s another possible source of the hydrogen fuel that’s being worked on by our very own CSIRO researchers right here in Australia: ammonia.

Most of us are familiar with ammonia as the thing that makes floor cleaners (a) really cut through grease and (b) smell horrible.  However, ammonia is also produced as a waste product by living cells and in humans, it quickly turns into urea and is excreted as urine.  In fact, some of the pong associated with old-school long-drop dunnies comes from the urea in urine breaking back down into ammonia again (the rest of the smell comes from methane and some sulphur-based compounds, depending on what you’ve been eating).

Ammonia is chemically rendered as NH3, which should tell you straight away that there are three nice little hydrogen atoms just waiting to be turned into hydrogen gas; the leftover nitrogen is also a gas –and that’s one of the most common elements in the atmosphere (it makes up three-quarters of the earth’s atmosphere, in fact).  Yes, ammonia in its pure form is a gas (the liquid stuff in household products is in the form of ammonium hydroxide or ammonia mixed with water).  The fun here from the perspective of HFC technology consists of splitting the ammonia gas up into nitrogen gas and hydrogen gas, and then separating the two.

And this is precisely what the ammonia-to-hydrogen team at CSIRO have been working on.  In August year, they made the big breakthrough by developing a membrane-based technology that will convert ammonia into hydrogen gas.  The hydrogen gas can then be used by vehicles powered by HFC technology.  The bit they’re all rubbing their hands with glee about is because up until now, one of the obstacles with getting HFC-powered motoring off the ground is that it’s hard to transport hydrogen gas from wherever it’s produced to the hydrogen equivalent of a bowser.  However, ammonia is a lot easier to get from A to B.  This means that with this home-grown technology, Australia will be able to export hydrogen (in the form of ammonia during transport) to the markets that want it.

Asia seems to be the hot spot for vehicles using HFC technology, with Toyota and Hyundai really getting behind the tech; European marques, on the other hand, seem to be concentrating on electric vehicles.  In fact, Japan is eyeing up hydrogen as a source of energy for generating power for homes as well.

The question has to be asked where they’re going to get all this ammonia from.  However, it’s possible to take nitrogen gas and water, then zap it with electrical current and turn it into ammonia – and it was an Australian researcher who came up with the tech to do this. It’s kind of like a fuel cell – which breaks down gas to produce electricity – but in reverse: using electricity to produce ammonia.  The new Australian technology is considered to be an improvement over the traditional method of producing ammonia (which is needed for making the fertilizer that grows the food you eat), which takes hydrogen gas from fossil fuels and reacts it, spitting out a good deal of CO2 in the process.  The new Aussie tech skips the bits involving carbon in any form, as it takes nitrogen from the atmosphere (N2) and water (H2O) and puts out NH3 and O2.  O2 is oxygen – what we breathe.

The idea is that in the future, they’ll set up a plant or two in the middle of the outback where there’s lots of solar and wind energy available for generating electricity, pump in some H2O and get ammonia for export AND use in hydrogen cars thanks to the new membrane tech out the other end with zero carbon emissions.  It could be asked where they’re going to get the water from in the middle of the Outback but I suppose that it’s not essential to use clean, fresh drinking water for the process, as it’s pretty easy to distil pure water out of wastewater.  In fact, one has the very happy vision of a process that takes sewage from cities, whips out the ammonia, urea and methane already in there (bonus!), distils out the water for making more ammonia and exporting the lot; any solids can probably also be used for fertilizer.

It’s going to take a little while for all the systems to get into place.  It’s still very early days for HFC vehicles but a start has been made and some of the hurdles have been overcome.  A few HFC vehicles have made it onto these shores.  The analysts say that it will probably take another decade or so until HFC cars become common on our roads but it’s likely to happen.  Look what happened with electric vehicles, after all.  Once they were really rare but now there’s charging points just about everywhere you look.

You can find more information here , here  and here .

 

Hydrogen Fuel Cells – The Basic Facts

One of the more exciting vehicles that’s scheduled to come to Australia at some unspecified date in 2019 is the Hyundai Nexo – one of the vehicles recently awarded the Best in Class for all-round safety by Euro NCAP.  This vehicle combines regular batteries with hydrogen fuel cell technology. Three vehicles made by major marques have been designed to run on HFCs: the aforementioned Hyundai Nexo, the Toyota  Mirai and the Honda  Clarity.

Toyota Mirai concept car

Hydrogen fuel cell technology is another option for overcoming our addiction to fossil fuels (the other two are biofuels and electricity).  But what is hydrogen fuel cell technology and how does it work?  Is it really that sustainable and/or environmentally friendly?  Isn’t hydrogen explosive, so will a car running on hydrogen fuel cell technology really be safe?

OK, let’s start with the basics: how does it work?

Diagram of a hydrogen fuel cell

A hydrogen fuel cell (let’s call it an HFC for short) is designed to generate electricity, so a vehicle that’s powered by HFC technology is technically an EV.  A chemical reaction takes place in the cell and this gets a current going, thanks to the delicate balance between positive and negative ions (all chemistry is, ultimately, to do with electricity). How is this different from a battery?  Well, a battery uses what’s stored inside it but an HFC needs a continual supply of fuel.  Think of a battery as being like a lake, whereas the HFC is a stream or a river.  The other thing that an HFC needs is something for the hydrogen fuel to react with as it passes through the cell itself, which consists of an anode, cathode and an electrolyte solution – and I don’t mean a fancy sports drink.  One of the things that hydrogen reacts best with and is readily found in the atmosphere is good old oxygen.

Naturally, there’s always a waste product produced from the reaction that generates the charge. This waste product is dihydrogen monoxide.  For those of you who haven’t heard of this, dihydrogen monoxide is a colourless, odourless compound that’s liquid at room temperature.  In gas form, dihydrogen monoxide is a well-known and very common greenhouse gas, and it’s quite corrosive to a number of metals (it’s a major component of acid rain).  It’s vital to the operation of nuclear-powered submarines and is widely used in industry as a solvent and coolant.  Although it has been used as a form of torture, it’s highly addictive to humans and is responsible for hundreds of human deaths globally every year.  Prolonged contact with dihydrogen monoxide in solid form causes severe tissue damage.  You can find more information about this potentially dangerous substance here*: http://www.dhmo.org/facts.html

For the less alarmist of us, dihydrogen monoxide is, of course, H2O or good old water, like the stuff I’m sipping on right now on a hot summer day.  Yes – that’s the main waste product produced by HFCs, which is why these are a bit of a hot topic in the world of environmental motoring.

OK, so air goes in one bit of the HFC, hydrogen gas goes in the other, and water and electrical power come out of it.  The next question that one has to ask is where the hydrogen fuel comes from (this question always needs to be asked: what’s the source of the fossil fuel substitute?).  The cheapest source of hydrogen gas as used on HFCs is natural gas, which is, unfortunately, a fossil fuel.  So are some of the other sources of hydrogen gas.  However, you can get it out of methane, which is the simplest type of hydrocarbon.  Methane can be produced naturally by bacteria that live in the guts of certain animals, especially cows.  Not sure how you can catch the methane from burping and farting cows for use in making hydrogen gas for HFCs.  And, just in case you’re wondering, some humans (not all!) do produce methane when they fart.  It’s down to the particular breed of bacteria in the gut (archaea if you want to be picky – they’re known as methanogens).  They’re as common as muck – literally.  So yes, there’s potential for hydrogen gas to be produced from natural sources – including from sewage.  The other thing is that producing hydrogen gas from methane leaves carbon dioxide behind.  But this has way less effect as a greenhouse gas than methane, so that’s a plus.

If you’re currently feeling that HFCs might not be quite as environmentally friendly after all and we all ought to drive straight EVs, then I encourage you to do a thorough investigation of how the electricity used to charge EVs comes from. It’s not always that carbon-neutral either.  Heck, even a bicycle isn’t carbon-neutral because when you puff and pant more to push those pedals, you are breathing out more carbon dioxide than normal.  All in all, HFCs are pretty darn good.  The worst thing they chuck out as exhaust is water, and the hydrogen gas needed to power them can come from sustainable sources – very sustainable if you get it from animal manure and/or sewage, which also means that poop becomes a resource instead of a problem to get rid of.  They’re doing this in Japan – and they’ve also managed to get the carbon bits of the methane to become calcium carbonate, which sequesters carbon and has all sorts of fun uses from a dietary supplement through to agricultural lime.

Another plus about HFCs is that they are a lot more efficient than combustion engines.  A large chunk of the potential energy going in turns into the electrical energy that you want, which is then turned into kinetic (motion) energy by the motor so your car gets moving (or it turns into some other form, such as light energy for the headlights or sound energy for the stereo system).  Some comes out in the form of heat.  Combustion engines waste a lot of the potential energy in the form of heat (lots of it!) and noise (ditto).

The amount of electrical energy produced by a single HFC isn’t going to be very large, so inside any vehicle powered by hydrogen technology, there will be a stack of HFCs, which work together to produce the full amount of oomph you need. The fun part in designing a vehicle that runs on HFC technology involves ensuring that the stack has the oomph needed without being too heavy and working out where to put the tanks of hydrogen gas.  However, this isn’t too hard.

The other problem with manufacturing HFC vehicles is that the catalyst inside the cells is expensive – platinum is common.  This is probably one of the biggest barriers to the spread of the technology, along with the usual issue of nobody buying HFC vehicles because nobody’s got an easy place to get the gas from and nobody’s selling the gas because nobody’s buying HFC cars.  They had the same issue with plug-in EVs too, remember, and we all know how that’s changed.  However, last year, our very own CSIRO came up with some technology to get hydrogen fuel for HFC vehicles out of ammonia and they want to go crazy with this and use it all over the show.  This is exciting stuff and probably deserves a post of its very own, so I’ll tell you more about that another day.

I feel in the need for some 1,3,7-trimethylxanthine theine combined with dihydrogen monoxide in solution with β-D-galactopyranosyl-(1→4)-D-glucose and calcium phosphate, also known as a cup of coffee, so it’s time for me to stop and to wish you safe and happy driving – hopefully without too much methane inside the cabin of your car on long journeys!

*Some people in the world have far, far too much time on their hands.

Isn’t It Ioniq, Asks Hyundai?

Korea‘s Hyundai has released details of their new-to-market hybrid Ioniq. A three drive mode choice of purely electric, battery and petrol engine, and plug-in hybrid (PHEV) offer versatility in a shapely four door coupe’ style.

In the technology stakes, the car’s lithium-ion polymer bettery will charge from zero to eighty percent in around 25 minutes, with the drive range of up to 230 kilometres being available. The Ioniq Hybrid offers up to 63 kilometres on battery with the 1.6L Atkinson cycle petrol engine and six speed dual clutch auto extending that range. With the petrol engine there is peak power of 77kW, peak torque of 147Nm, and combines with the electric engine’s 32 kW / 170 Nm in the hybrid and 44.5 kW / 170Nm for the PHEV. The purely electric Ioniq develops 88kW and is rated at 295Nm.

Expected fuel economy is quoted as 3.4L to 3.9L per 100km for the hybrid and 1.1L/100km for the PHEV. The Ioniq Electric receives a charging system capable of 100kW via DC or direct current. Inside the Ioniq hybrid is a 8.9kWh battery for the expected 60 kilometres or so range, which of course depends on driving attitude and conditions. Hyundai has joined forces with JET Charge for installations of charging portals and can be sourced though the dealership network.

The Ioniqs have the proven McPherson strut front, with the Electric on a torsion beam rear suspension. The hybrid and PHEV will be on the multi-link rear. IONIQ Hybrid Elite features aerodynamic wheel covers on 15-inch alloy wheels and other variants feature a range of distinctive aerodynamic alloy wheel designs in 16- and 17-inch.Each of the three engine options can be specified in either the Elite or Premium trim levels. Any version asked for will have Hyundai’s SmartSense safety package on board as standard. The Elite Hybrid version has the IONIQ occupants protected by Forward Collision-Avoidance Assist with pedestrian detection, Blind-Spot Collision Warning and Rear Cross-Traffic Collision Warning systems. Rear view camera and park assist is also standard.

There will be Driver Attention Warning, and Lane Keeping Assist systems fitted also. A Smart Cruise Control system completes the Hyundai SmartSense suite in every version and in IONIQ Electric this is complemented by a Stop & Go function. For the occupants enjoyment there is an eight inch touchscreen, eight speaker sound system from Infinity, SUNA satnav with ten year update allowance, Apple CarPlay and Siri voice control. Android Auto and DAB is also fitted.The Ioniq Electric has a single gear reduction driveline and, as a result, a flat floor for extra space. Regenerative braking energy recovery is standard, and can be regulated via steering column paddles. Hyundai’s standard three drive mode choices, Normal, Eco, and Sport, are standard.

Charging wise, the Ioniq Electric comes standard with a ICCB, In-Cable Control Box, and for fast charging a commercially available charging 100kW box has eighty percent in 23 minutes or the 50kW box in 30 minutes. A 6.6kW on-board AC charger can charge the high-voltage battery in around four and a half hours when connected to a charging station of equal or higher capacity. With the installation of a personal charging station, this will allow a full overnight charge at home.

Helping with the economy figures are the lightweight body construction and adhesives. The Advanced High-Strength Steel (AHSS) is 53.5 percent of the body. Aluminuim components such as the bonnet and tailgate save 12 kilograms with the front cross-beam, front lower arms, front knuckles, rear hub carriers, and front brake calipers also in aluminuim. Exterior dimensions are 4470 mm, 1820mm, and 1450mm (L, W, H) with a wheelbase of 2700mm. Ground clearance is 150mm. Head room is good with the Elite having front room of 994mm and the Premium with 970mm. Rear headroom is 950mm. Leg room is also decent with 1073mm for the front, 906mm at the rear. There is plenty of shoulder room with a handy 1425mm and 1396mm front and rear. Hip room is a crucial factor, and there is 1366mm & 1344 mm front and rear.

Cargo area is rated as Hybrid: 456 L, Plug-in: 341 L, Electric: 350 L to the top of the rear seats, and to the roof,
Hybrid: 563 L, Plug-in: 446 L, Electric: 455 L.Five paint colours are available across the IONIQ range – Polar White, Platinum Silver and Intense Blue Metallic, and Iron Grey and Fiery Red Mica, at a $495 cost.
The Hybrid and six speed DCT is $33,990 and $38,990, with the PHEV at $40,990 and $45,490. The Electric is $44,990 and $48,990. Prices are exclusive of dealer and government charges.

Contact your local Hyundai dealer and Private Fleet for availability on the 2019 Hyundai Ioniq.

Household Appliances And Cars From The Same Maker?

Don’t worry – Dyson’s proposed EV probably won’t look like this.

I heard the other day that a household appliance manufacturer is going to have a go at the electric car game.  Although my first reaction (and possibly yours) was to snigger, I then realised that it’s possibly not all that loopy after all.  For one thing, it’s not the first time that a company has had a go at making household gadgets and motor cars:  Toyota  makes sewing machines as well as their very popular cars and they’re not bad (the cars or the sewing machines – and I can vouch for the sewing machines, as I’ve got one).  Peugeot also started out making coffee grinders, umbrellas and crinolines.

For another thing, the makers of household appliances are already used to working with electric motors for – well, just about anything.  Household appliances just about all run on electricity and a lot of them use electrical motors – so why not scale up from teeny electric motors in electric shavers to motorcars? We’re used to other things that can run on either electricity or internal combustion engines, such as lawnmowers, so it might be just a matter of scale.

The household appliance manufacturer in question is Dyson, who also makes vacuum cleaners.  Cue jokes about “My car sucks.”  At the moment, they’ve managed to get a nice big factory space and the plan is to put a car out by 2020.  Or 2021, depending on which press release you get your hands on.  Details are still being kept secret but here’s what we know so far:

  • They’re going to convert a bunch of old World War 2 era aircraft hangars in the UK to use as factories.
  • They’re doing the research and development in Singapore, the Philippines and Malaysia as well as the UK.
  • One of the former hangars has at least 15 km of vehicle testing tracks. Presumably they don’t test the vacuum cleaners on these.

OK, the idea of producing vacuum cleaners and EVs seems ludicrous.  However, I’ve often noticed that advertising for vacuum cleaners has a lot in common with quite a few car ads, ranting and raving about the power of the motor and how many kilowatts it can do.  In fact, I think that cars (OK, boats and motorbikes as well if you’re picky) and vacuum cleaners are the only things that use engine power as a selling point.  Dyson’s experience with filters and air flow will probably also come in handy for designing a car.  Maybe we’ll also see some interesting styling, given the way that Dyson produced a completely new style of vacuum cleaner when they put out their Dual Cyclone.

However, we need to hope that the Dyson EVs have better handling ability than the typical vacuum cleaner.  I don’t know about you, but I always have much more trouble getting a vacuum cleaner to go where I want it to, and they’re probably worse than supermarket shopping trolleys for bad handling.  Work to be done here, Dyson!

We also need to hope that Dyson learns a thing or three about pricing if they want to be really competitive.  Dyson may be the luxury marque for vacuums (and hair dryers, fans and hand dryers) but is there really room in the luxury EV market for somebody other than Tesla?  Especially now that more widely known makers, especially the European ones, are turning more and more to EVs and hybrids.  Your typical Dyson vacuum costs about 10 times as much as the bog-standard vacuum, after all.

My one humble suggestion to Dyson would also be to change the name for the vehicle line.  Toyota may be able to get away with producing sewing machines but they’re better known for their cars.  Not everybody does home sewing but most people except total slobs use vacuum cleaners.  Dyson, however, is a big name in the household appliance world, so that is going to be what people think of first when somebody announces that they’ve just bought a new Dyson with a powerful motor.  It doesn’t quite have the same kudos or cachet as, say, Lexus or Mercedes.  Perhaps Cyclone, in honour of the Dual Cyclone, or JD Motors for James Dyson would do the job.

It will be interesting to see if this venture comes off.  If it does, would you drive a Dyson car?  Would you prefer them to use a different brand name?  Does the idea suck or does it clean up?  Tell us what you think!

Oh yes – if Dyson could add in an in-car vacuum cleaner so we can clean up mess straight away, that would be grand!

Kia Really Goes To Rio and Hyundai Nexo Goes Five Star.

Turbo or not turbo, that is the question. Kia seems to think the answer is yes, with the petite little Rio getting a rejig both in the mechanical and model sense. Finally the four speed auto has been given the flick and will be replaced by a six speed. The Si and SLi have also been discontinued and replaced by a model called Sport which will take the new six speed. The GT has a revvy 1.0L three cylinder and Kia’s own seven speed dual clutch auto.It’ll still be a three model range. The S kicks everything off with the unchanged 74kW four with six pseed manual or, sadly, the four speed auto. There’s a pretty good list of standard equipment including the expected stability and safety programs, reverse camera, reverse sensors, six airbags, and the smart apps of Apple CarPlay and Android Auto. The Sport goes up a notch with a leather trimmed tiller, the aforementioned transmission choices, leather trimmed gear selector, and electric folding mirrors. It’ll also roll on stylish 17 inch alloys.

The top of the range GT-Line features a three cylinder turbo engine. It pack a fair bit of a punch for the size, with 88kW and 172Nm of torque on tap. The new seven speed dual clutch auto should take advantage of that and make the GT-Line the car it’s deserved to be. Autonomous Emergency Braking, Idle Stop and Go, and Lane Keep Assist enhance the appeal. The funky GT-Line body kit, LED driving lights and position lamps, LED rears and LED fog lamps add to the visuals of the pert Rio GT-Line.Along with Kia’s standard seven year warranty comes some sharp pricing. The S manual is a steal at $16,990 driveaway, and just $500 more for the S auto. The new Sport will start at $17,990 for the manual and $18,990 for the auto, with both also a driveaway price. The GT-Line remains super competitive at $21,990 and with the new seven speed DCT promises fire cracker performance in its price and class. Contact Kia for more details.A car due to land in Australia in the first half of 2019 is the hydrogen fed Hyundai Nexo. With the known volatility of the fuel, safety is paramount and the Nexo has achieved a Euro NCAP five star rating. This makes it the world’s first fuel cell vehicle to receive this rating. To back up the claim is a full suite of safety equipment under the Hyundai SmartSense banner. Forward Collision Avoidance Assist with pedestrian assist utilises radar and camera technology. In a three stage process the FCA will alert the driver by sound and by a visual alarm. Assessing the situation the onboard system may apply the brakes depending on the danger level. Maximum emergency braking is applied if the system feels it’s warranted.The onboard Lane Keeping Assist is part of the package that helped gain the EuroNCAP five star rating. That’s backed up by the Lane Following Assist system that’s also standard equipment. The pair keep the Nexo on the straight and narrow at speeds up to 150 kilometres per hour. Contact Hyundai for more details.