Tuesday, July 31, 2012

Nissan Tops Honda in Biggest Asset-Backed Bond Sale Since 2005

Nissan Motor Co. sold $1.54 billion at lower relative yields than Honda Motor Co. in the automaker’s largest issue of debt backed by auto loans since 2005.

The automaker paid 15 basis points more than the benchmark swap rate on $514 million of top-ranked securities maturing in about two years, according to a person familiar with the transaction, who declined to be identified because terms aren’t public. Investors demanded 18 basis points on similar debt sold by Honda yesterday, a person familiar with that sale said.
Automakers are boosting asset-backed sales as investors seek bonds tied to vehicle lending. Nissan increased its sale from $1 billion, while Honda’s $1.69 billion sale was raised by $440 million. Ford Motor Co. last week sold $2.3 billion of so-called floor-plan debt, tied to inventory loans to dealers, in its largest offering of the securities since 2005, according to data compiled by Bloomberg. The issue was increased from $1 billion.
“There is very strong demand for and a general lack of supply of higher-quality, lower-risk assets,” said John McElravey, an asset-backed analyst at Wells Fargo & Co. “Auto ABS fits this category well.”
Bond offerings connected to automobile sales are dominating asset-backed sales this year. Deals linked to car and truck sales accounted for $10 billion of the $18 billion in 2012 asset-backed issuance before this week’s sales, according to data compiled by Bloomberg.
Sales of the securities may jump 11 percent to about $63 billion this year, accounting for about 55 percent of bonds tied to consumer borrowing, according to Wells Fargo estimates.
Nissan sold $1.54 billion of asset-backed securities linked to auto loans in January 2005, Bloomberg data show.
The extra yield investors demand to own top-ranked bonds backed by auto loans instead of Treasuries has declined 26 basis points this year to 68 basis points and last week reached 67, the lowest since August, according to a Bank of America Merrill Lynch index. A basis point is 0.01 percentage point.

Sunday, July 29, 2012

Kinect Hack Helps You Park Your Car, Can't Help Drive It Yet


Although it can’t drive your car just yet, the power of Kinect can now be used to help park it -- thanks to the work of Gibson Hu from Sydney, Australia’s University of Technology.
Gibson’s hack, which he shared on YouTube, uses a Kinect camera installed within the rear bumper of a car, which then feeds live video to the driver via the dashboard. The Kinect serves as an extra set of "eyes" to help the driver back up the car without hitting something (or someone).
Many modern cars, such as the Nissan Juke and 2012 Ford Focus, already have similar "reverse parking assist" features built in, but Gibson's hack differs in that it can display the video feed in various forms. It can display a rear view in full color, infrared, and a birds-eye mode. Not only that but this hack could technically work on any vehicle, bringing modern car-technology to any car, new or old, without the premium add-on pricetag.
Gibson noted that the hack, made possible thanks to a combination of Ubuntu, OpenCV and Libfreenect, could make its way to Android. The possible Android port would bring the live video feed to a countless amount of handsets and essentially opening up this hack to many more people--mainly those without screens in their car dashboard.

Friday, July 27, 2012

Nissan Profits Up 3.2%

Japan’s third largest automaker, Nissan Motors Co. (Other OTC:NSANY.PK - News), posted a 3.2% rise in profits to ¥82.7 billion ($1.07 billion) in the third quarter of its fiscal year ended December 31, 2011 from ¥80.1 billion in the same period last year despite the backlash from severe floods in Thailand and an appreciating yen.
The company stated that the dollar was trading at about ¥77 during the last quarter, down from ¥83 in the previous year quarter.
Sales in the quarter went up 10.9% to ¥2.33 trillion ($30.27 billion) from the prior year. Operating profit scaled up 3.6% to ¥118.1 billion ($1.54 billion).
Nissan expects to record a profit of ¥290 billion ($3.77 billion) for the fiscal year ending March 31, 2012. It also anticipates reporting an operating profit of ¥510 billion for the year.
The company’s guidance was much better than its compatriots, Toyota Motor Corp. (NYSE:TM - News) and Honda Motor Co. (NYSE:HMC - News). Both Toyota and Honda expects to post a profit of ¥215 billion ($2.79 billion) and ¥180 billion ($2.34 billion), respectively for the same fiscal year.
Among the three largest automakers, Nissan recovered faster from both the earthquake on March 11 last year and flooding in Thailand that disrupted parts supply chains compared with Toyota and Honda.
Nissan stated that it lost 33,000 vehicles of output due to the Thai floods, while Toyota and Honda each lost more than 200,000 vehicles.
Nissan Motor, founded in 1933 and headquartered in Yokohama-shi, Japan, together with its subsidiaries, engages in the manufacture and sale of automotive products, industrial machinery, and marine equipment primarily in Japan, North America, and Europe. The company offers passenger cars, trucks, buses, forklifts, light commercial vehicles, power trains, and parts, as well as involves in sales financing activities.
Due to better than expected recovery and promising results, the company currently retains a Zacks #2 Rank on its stock, which translates to a short-term (1 to 3 months) rating of Buy.

Wednesday, July 25, 2012

Brake Rotor Information for your Nissan Vehicle

Is it always necessary to resurface the rotors?

No. The rule here is resurface when necessary, don't resurface when it isn't necessary. If the rotors and drums are in relatively good condition (smooth and flat with no deep scoring, cracks, distortion or other damage), they do not have to be resurfaced. Resurfacing unnecessarily reduces the thickness of these parts, which in turn shortens their remaining service life.

According to the uniform inspection guidelines developed by the Motorist Assurance Program (MAP), "friction material replacement alone does not warrant rotor reconditioning." Whether or not the rotors or drums need resurfacing or replacing depends entirely on their condition at the time the brakes are relined.

Even so, many mechanics prefer to resurface rotors and drums when relining the brakes to restore the friction surfaces to "like-new" condition and to minimize any chance of brake squeal.

A number of things must be considered to determine whether or not resurfacing is really necessary:

Surface condition. The most important criteria. Scoring, pitting or other minor surface imperfections should be cleaned up by resurfacing. Resurfacing is also recommended if the brakes have been noisy. If a rotor or drum is cracked, however, it must be replaced.

Lateral runout on rotors. This must be measured with a dial indicator against the face of the rotor. If rotor wobble exceeds OEM specs, reindexing it on the hub (if possible) may help reduce runout. But a better solution here is to resurface the rotor on the vehicle using a special "on-car" lathe. This type of equipment cuts the rotor true to its axis of rotation.

Rotor warpage. Variation in the thickness of the rotor or uneven spots on either rotor face will cause the brake pedal to pulsate or shudder when the brakes are applied. Flatness can be checked by placing a straight edge against both faces of the rotor. Thickness must be checked with a micrometer at six or more points around the rotor.

If parallelism between rotor faces exceeds OEM specs (generally about .0005 in.), or if the rotor is warped or has hard spots (which are often discolored blue or black), the rotor should be resurfaced or replaced. Hard spots that develop from overheating or uneven tightening of lug nuts can create raised areas on the surface that often extend below the surface. The metallurgical changes in the rotor often cause the hard spots to return after a few thousand miles so replacing the rotor may be the best long-term fix.

Rotor thickness and drum diameter -- If a rotor is close to or at the minimum thickness specification (which is stamped on the rotor or may be found in a brake service reference book), it is too thin to be resurfaced and must be replaced. The same goes for drums, except the critical dimension here is the drum's inside diameter (the maximum or discard diameter spec is stamped on the drum or listed in a reference book),

When a rotor or drum is resurfaced, the least amount of metal possible should be removed to maximize the remaining service life of the part. It's also a good idea to sand rotors after they've been turned with #120 to #150 grit sandpaper to create a smooth, nondirectional or crosshatch finish. Sanding helps "plateau" the surface by knocking off the sharp peaks left by a lathe. Some brake lathe manufacturers say this final step isn't necessary because their equipment leaves such a smooth finish. Maybe so. But sanding is still a good way to ensure proper pad seating and minimize the chance of noise with semi-metallic pads.

Finally, rotors and drums should always be cleaned with alcohol or brake cleaner before they are reinstalled. Resurfacing leaves a lot of metallic debris on the surface which can embed itself in the new brake linings and cause noise problems. Even if the rotors or drums have not been resurfaced, cleaning is recommended to remove dirt and grease (which can contaminate new linings and cause uneven braking or grabbing).

As for replacing or rebuilding the disc brake calipers when the brakes are relined, this too isn't absolutely necessary -- but not doing so may be asking for trouble later. A caliper that's leaking brake fluid, is damaged, has a frozen piston, or is causing uneven pad wear obviously needs to be rebuilt or replaced. But what about a caliper that isn't leaking and seems to be working fine? Those who subscribe to the "don't fix it unless it's broken" philosophy of brake repair think they're saving time and money by leaving the calipers alone. Maybe so. But most brake experts say it makes sense to go ahead and do the calipers when the brakes are relined. Here's why:

Brake calipers, like any other mechanical component, wear and corrode with age. Every time the brakes are applied, the back-and-forth motion of the caliper pistons produces a slight amount of wear. At the same time, moisture is building up in the fluid. After several years of service, the fluid may contain as much as 3% water -- which is enough to produce visible corrosion in the caliper bores and on steel pistons. As the surface of the pistons become rough, they scour the seals with every application of the brakes. Eventually this will lead to fluid leaks and pad contamination.

So even if a caliper isn't leaking, it's still aging inside. Rubber piston seals and dust boots harden and become brittle over time. One of the jobs the piston seals do besides keep the fluid where it belongs is to help retract the pistons when the brakes are released. When a piston moves out, it twists the square cut seal slightly. This helps pull the piston back when the brakes are released to keep the pads from dragging against the rotors. But as a seal ages and loses elasticity, it doesn't do as good a job of pulling back the piston. Consequently, the pads start to drag resulting in reduced fuel economy, a possible brake pull and/or accelerated or uneven pad wear.

When boots get old, they often crack or split, allowing dirt and water to enter the piston bore area. The result can be accelerated seal wear, piston corrosion and sticking. What's more, if the pistons are pushed back in to accept new pads any dirt that's found its way behind the boots will be shoved back into the caliper bores. This too, can contribute to sticking, binding and wear.

So there are valid reasons for rebuilding or replacing the calipers when the brakes are relined.

The same arguments that hold true for disc brake calipers also apply to the wheel cylinders in drum brakes. As long as they're not leaking, sticking or damaged, you can leave them alone and take your chances. Or, you can do the wise thing and rebuild or replace them when you reline the brakes for preventative maintenance.

Monday, July 23, 2012

FAQ on Turbochargers

Turbocharger FAQ

What is a turbo?

- Essentially a turbo is an exhaust driven air compressor.

What does a turbo do?

- A turbo compresses air into the motor (aka creates boost)

Where is the turbo located?

- The turbo is located immediately after the exhaust manifold.

What does a turbo consist of?

- A turbo mainly consists of:
2 housings (compressor and exhaust)
center section (the lubricating and bearing section)
2 wheels (compressor and exhaust turbine)
shaft (connecting the exhaust turbine to the compressor)

How does a turbo work?

- Exhaust gases exit the cylinder and flow into the exhaust manifold. From there the exhaust gases are diverted towards the exhaust turbine where the combined heat energies and flow velocity spool the wheel. This in turn spins the compressor side of the turbo and it begins to ingest air and create boost.

What is in a turbocharger system?

- Turbo - duh!

- Wastegate - this is a spring loaded valve that opens and closes. It is responsible for maintaining turbine speeds and thus boost pressure. When it is open a good amount of the exhaust gas is diverted away from the turbine, hence the turbo does not spool. When it is closed the exhaust gas is directed towards the turbine and the turbo spools. These can be incorporated into the turbo (internal wastegate) or included in a seperate valve that is incorporated into the exhaust manifold.

- Exhaust Manifold - the design of the manifold is a key to lag reduction... it differs from a normal header in that it generally has short runners to maximize exhaust velocities and thermal energy. One key design factor that can describe the differences in inline 6 and inline 4 manifolds is the inclusion of exhaust pulses. To optimize a boost curve you want to use an equal length manifold system so that you aren't surging the exhaust turbine with 4 pulses per revolution. This can cause boost spiking and boost creep. Other design features are common to n/a headers like runner diameters, extraction, scavenging, etc.

- Intercooler - Compressing air creates heat. This heat is measured as boost temps. Naturally cooler air creates more power simply because it is denser and it allows more consumption of fuel. But the main factor to an intercooler isnt exactly the ability to create a little more power due to lower boost temps, its the fact that the lower boost temps allow more boost. Ex. SR20DET on stock intercooler can run about 10psi max boost before the intercooler becomes ineffective at cooling the extra boost. With a large front mount intercooler from Blitz the SR20DET can now safely run near 29.4 psi (2.0 bar) of boost provided the turbo and motor can hold up to it. A larger intecooler however will increase the area the turbo must fill before the system becomes pressurized... this when measured is refered to as "lag". An intercooler usually consists of bars and fins. Think of a radiator for air.

- Piping - Its piping... runs from turbo compressor housing to intercooler ... out intercooler to the throttle body.

- Downpipe and Exhaust - 3" or larger downpipes and exhaust optimize turbo breathing and allow for better heat extraction, spool up, and longer turbo life. Power also can be boosted considerably top end with a larger diameter system. Beware alot of the gains on a turbo car ... ex. 55whp on a Supra w/ downpipe addition is from boost increase, not the part itself. Generally a downpipe will create 1-3 psi more boost on a stock computered and controlled vehicle. Using a 3" downpipe on stock exhaust is not recommended as it can create boost spiking which can potentially damage a motor, especially if the rpms are low and the motor is still on its low fuel and ignition maps.

- Blow Off Valve (BOV) - Ahhh the ol' noise maker. Ever run a turbo car and hear the loud purge noise created when he/she shifted? Thats due to the BOV. The BOV is similar to the wastegate in operation. It has a vacuum line running to just after the throttle body to sense vacuum. What it does is when it senses strong vacuum (ex. when you close the throttle body in a shift) the valve opens and purges the boost withen the piping. This prevents compressor surging which will damage the turbo very quickly. Compressor surge happens because the turbo is still spinning when the throttle body slams shut. This causes the system to suddenly pressurize itself even more (if the BOV was non-existant or not working) and this surges the turbo causing it to slow down which exerts alot of force on the turbo shaft and other components. To prevent the valve from opening prematurely the spring tension is adjustable via a screw or bolt on top of the BOV.

Corallary to the BOV - Strong debates over weither or not venting to the atmosphere have been going on for years. Venting to the atmosphere on some cars tends to make them stumble because you have purged metered air and the fuel hasnt been purged. So when you blow off the engine suddenly goes rich and you get a nice fireball. Frankly there are no ET / MPH differences that I have noticed between the two. If you are having a stalling or studdering problem with venting atmospherically then you should look into recirculating the air back to the intake after the MAS.

What is Boost?

- Boost is a measurement (in psi) of the backup of air withen the manifold.

The Numbers

Name - There are a ton of turbos ... the name often refers to the size of the turbo. Ex. a T25 is alot smaller than a T88. HKS uses 4 numbers to explain their setups... ex. GT2835 ... this turbo uses a GT28 compressor with a GT30 Exhaust Turbine. Often the T## series turbos are Garret Turbos, such as the stock OEM Nissan turbos and the HKS Turbos. Greddy uses Mitsubishi turbos however and they often turn up as something like this, TD07-25G, this tells us that the turbo uses a TD07 housing and a 25G wheel.

Trim - Trims effect efficiencies... you could compair them to the duration of a cam. The trim effects boost temps and compressor air flow efficiencies at given shaft RPMs. The higher the trim the better the turbo operates at a faster shaft speed. Larger trim turbos such as a T04S (60-1) at highly efficient at higher boost levels but are crappy at lower boost levels, in fact you will hit the compressors surge limit at low boost as well as get boost creep. However a smaller trim will provide better low boost efficiencies. Keep in mind that the trim is a modifier on the compressor/exhaust wheels. Meaning it changes efficiencies at certain boost levels for the same wheel size.

A/R Ratios - Area/Radius Ratio... it describes the size of the housing. A larger a/r will make the turbo spool slower but will provide superior flow and thus more top end power. A smaller a/r does exactly the opposite, it spools the turbo quickly and provides semi-adequate flow. There are so many different a/rs out there that allow you to fine tune what you need out of a turbo.

Turbo Cooling

- Always opt for maximum shaft cooling... this would include water and oil cooling. This makes the turbo live alot longer.

Turbo vs. Supercharger...A few Differences

- Turbos are exhaust driven where as the supercharger is a belt driven device
- Turbos operate at much higher speeds generally ... unless you have some monster turbo
- Turbos can be controlled from withen the car ... no boost pulley change is needed to modify boost pressures

Turbocharging a N/a Car

- Say you have a JapTrap and you want to turbocharge it. Here are the basics to make safe boost.

- Turbo
- Manifold to fit turbo
- Downpipe to exhaust
- Piping
- Intercooler
- ECU Remap
- Larger Injectors
- Larger than OEM Exhaust
- Higher Flowing Fuel Pump
- Oil Lines and Water Lines for Turbo
- Misc. Fittings for Turbo etc.
- Intake for Turbo
- GOOD Hoseclamps
- Silicon Piping Connection Pieces
- Wastegate (if you arent using an internally wastegated turbo)
- Boost Control (Wastegate Spring, Electronic Boost Controller, Manual Ball Valve, etc. )
- By-Pass Valve or BOV
- Clutch
- Wider Tires ()

Car specific parts might include:

- Larger Fuel Rail
- Cutting

Controlling Boost

- Electronic Boost Controller - such as the Profec B from Greddy. What is does is control the wastegate which controls shaft speeds which controls airflow and boost pressures as a result. The EBCs control boost better than a ball valve which is a vacuum controlled device.

- I dont suggest any other method on the street but other methods are wastegate controlled boost and ball-valves aka manual boost controllers.

Any complaints, comments, additions?
[email]Jdm-direct@austin.rr.com[/email]

I CANNOT STRESS THE IMPORTANCE OF A GOOD FUEL SYSTEM!!!!!!! Injectors should not be stressed, fuel pressures should be good, and you should always have more flow than the power requires.

Saturday, July 21, 2012

Car test: Nissan Micra

Nissan Micra
Young pretender: Micra owners have grown up with their cars – the average age of new owners is now 54. 

Price £11,150
MPG 68.9
Top speed 112mph

Why would a pedestrian dress their dog in a yellow or burgundy coat? Are they: A) dog training, B) colour blind, C) deaf or D) elderly? Any idea? No, me neither. It's just one of the 650 questions that students taking their driving theory test are expected to know. A survey by Haynes, which has just published The Highway Code for Drivers (£2.50), finds one in three of us believe we'd fail the theory test if we had to take it now.
It's 28 years since I passed my test (first time, and I still feel improbably chuffed about that). I don't remember the test, but I do recall my driving instructor, Gary, very clearly. He had constant catarrh, a nasal Glaswegian accent and whined incessantly about Rangers, and his car, a Nissan Micra, always smelled overpoweringly of apricot air freshener and chips.
Gary and his car have been on my mind for two reasons this week. First, my teenage daughter has just had her first driving lesson (with Kevin in a Ford Fiesta, no detectable smell, though) and, secondly, I've been driving the latest incarnation of Nissan's Micra.
Before getting into the car I decided to recreate some of my heady teenage days at the wheel of a car for the first time. Not by spritzing the car with apricot juice and stretching into a Rangers shirt, but by taking an online UK Driving Theory Test (DTT). You are posed 50 questions in a 57-minute test. To pass you must score 43 or more. I decided to approach the exam as I would any other – so, no revision. The results? Well, it went the same way as so many of my other exams – a narrow fail – 42. But it did only take me 19 minutes.
Having taken the theory, it was time for the practical part of this car test. For anyone who has been a fan of the bug-eyed bubble-backed Noddy Nissan, this all-new version is a disappointment to look at. Whereas the previous model had a mischievous smile and packed a petite punch when it came to style, this one looks a little joyless despite the Starburst colours, its charisma bypassed in favour of middle-of-the-road blandness. It's not surprising it's looking a little wan. Nissan's award-winning Sunderland factory used to pop out Micras with such efficiency the Tyne-and-Wear plant became the most productive in Europe. But now the Micra is being produced in India, from where it will be reimported back to Blighty, leaving the Geordie workers to concentrate on the Micra's funkier sisters – Juke, Note, Qashqai and Leaf. It's hard not to feel that the Micra has been parked up in Miss Havisham's garage.
But the little car won't give up quite so easily. It has a reputation stretching back three decades for economy, efficiency and a no-nonsense can-do attitude. It's grown a little – middle-aged spread, you might say – and now only comes as a five-door model. There's only one engine available – a 1.2-litre three-cylinder producing 79bhp, but the supercharged DIG-S version with 97bhp is a much more interesting alternative. Not least because it's claimed that it will do almost 70 miles to the gallon when driven frugally and produce an odour-free 95g/km.
The answer to the opening question is C – they're deaf – the pedestrian, that is, not the dog.

Thursday, July 19, 2012

Nissan Leaf Concept Design

“I want to design not only the electric vehicle, but the life around the EV and the wonderful benefits that EVs bring.” If the speaker, Masato Inoue, Product Chief Designer (PCD) of the new Nissan LEAF, sounds like he spends a lot of time thinking about the impact Nissan's first mass-production electric vehicle will have on society, it’s because he does. Or more correctly does and has – going back to the mid-1990s when he and other designers met after work hours to create sketches of EVs.

Now, of course, EV design consumes all of his work hours as well. Inoue was appointed to his current position just after he finished a concept car for the 2007 Tokyo Motor Show. "It was a great honor as a car designer to be asked to lead the LEAF design team, though it was a bit of pressure for me. It's not often that you have an opportunity to design a car that may change next the century of mobility.“
Around 100 years ago, when steam power was still the dominant vehicle propulsion system, the mass production of gasoline engine cars started. Shortly after, gasoline internal combustion engines became the de facto powerplant of choice and have remained so to this day. Inoue believes that LEAF, which begins customer deliveries in December 2010, has the potential to change the history of automotive world once again. Like he said, a bit of pressure.

The original design directives for LEAF were contradictory: “It has to be a ‘real-world car’ that can be appreciated by conventional car users comfortably” and, at the same time, “has to be an iconic design that can be identified as an EV instantly."

In addition, the proposed development schedule was unlike any design project in Nissan history. The period for design development was only around six months from initial sketch, to multiple proposals on quarter scale clay models, to the final 'go with one' decision. "Quick decisions by executives and the teamwork of project members who already had trust in each through working together for a long time is what made it possible," recalls Inoue.

Watanabe is a cheerful and very talkative fellow who looks a lotyounger than his 45 years. When queried about his main aims for JUKE, he mentioned three aspects; originality, presence and something called robiotic.

“I believed that we could design a car that has a friendliness of daily ‘bread and butter’ while achieving the iconic styling that projects the joy of owning an environmentally responsible electric vehicle. I think in the new LEAF we’ve accomplished that goal"

LEAF’s exterior styling, which follows a design concept called “Smart Fluidity,” may give the impression of an ordinary 4-door passenger car. If you look closer, however, you will find various EV-unique features.

LEAF’s hoodline is kept low, since there is no large engine inside. The long, up-slanting LED headlights contribute to low wind noise. Underneath, the flat floorpan and rear diffuser, like utilized on racecars, are made possible by the absence of a traditional gasolinepowered vehicle’s mufflers, exhaust pipes and propeller shaft (front engine/rear-wheel drive).

“The headlights, especially, are designed to cleverly split and redirect airflow away from the door mirrors, thus reducing wind noise and drag,” explains Inoue. “We have worked closely together with R&D and tested in the wind tunnel to achieve this. And, the headlights provide yet one more benefit – they consume about 50 percent of the electricity of conventional lights. This is critical because electric consumption in an EV is as important as fuel consumption on conventional cars."

In terms of interior packaging, LEAF’s innovative compact lithium-ion batteries are installed under the floor, contributing to the secure cabin space and low center of gravity. The instrument panel not only offers the features necessary for EV driving, but also instantly displays convenient information such as cruising range status.

Inoue recalls the challenges in designing the interior. “When we made a proposal using a close-to-final interior mockup, Nissan Chairman and CEO Carlos Ghosn asked us, ‘Why am I not sitting in the center?’ ‘Why do we have all these dials on the dashboard?’ He felt that the interior needed to match the same level of innovation in its design as the EV technology underneath. While we didn’t go as far as to make the driver’s seat in the middle, we immediately redesigned the interior from scratch, teaming up all the key members from Nissan Design America and Nissan Design Europe."

In order to make the innovative interior design a reality, Inoue and his team negotiated with top engineering executives to develop the all-new gauges, audio/navigation/climate control panels, steering wheel and shift knob, which required a huge investment.

Unlike common practice, the LEAF design team took an active role in developing key components. “We created the 3D drawing data, using our own software, to make a proposal to the engineering group. We wanted to make an innovative, mouse-like shift knob, which was possible using the by-wire technology which is unique to an EV," said Inoue.

For those within the company, Inoue was the natural choice to head the LEAF design team. He formed a voluntary club within Nissan Design called the “Denki Group” more than 15 years ago. Members would draw various sketches of EVs, which they would present to each other after hours when their regular design work was finished. The name of the club was inspired by the Japanese techno band “Denki Groove.”



A few years later, around the start of the decade, Inoue became a chief designer of Exploratory Design, charged with creating various concept cars including Ideo (2001), Effis (2003), Pivo (2005), Pivo 2 (2007), Mixim (2007) and Nuvu (2008) – all electric or fuel cellpowered vehicles. The exploratory design group not only created the styling of these concepts, but conducted intensive research into what the future social environment would be, and how the cars were going to be used by that time.

For example, Ideo in 2001 already featured “city browsing,” an augmented reality (AR), displaying geo-tags on the screen showing actual views of the city. The Ideo also featured “Around View Monitor,” a parking support technology showing an artificial image of the vehicle from above generated by CCD cameras installed on the car. The advanced Around View Monitor system is now available on a number of production Nissan and Infiniti vehicles.

Another key technology developed for electric vehicles is "by-wire," which replaces traditional mechanical links in drivetrain systems, such as steering and shifting, with electronic links. "Ultimately, we can separate a vehicle’s cabin and chassis using by-wire," says Inoue. "We created the Pivo concept as a 'car you don't need to back up' by rotating the cabin, so that the users can easily understand the benefit of this technology."

Another advanced Nissan electric vehicle technology being developed is In-wheel Motor (IWM), which installs a motor inside the wheel. It was demonstrated in the Pivo 2 concept. “By creating the Pivo 2 concept, we wanted to express the benefit of IWM and by-wire technologies,” explains Inoue. “This enables the four wheels to move independently. Thus the car can even move sideways, in addition to cabin rotation. It makes parking much easier and can even change the center of gravity when cornering."

In 2009, another team in Nissan Design created the innovative Land Glider. This unique concept uses by-wire technology to emphasize driving pleasure, one of the Nissan's key values, by allowing the body to lean just as the motorcycle when cornering.

EV-enabled technologies, such as by wire and IWM, are greatly changing basic vehicle configurations – unleashing them from the design restrictions found on the conventional gasoline engine-powered cars. Through designing the concept cars, Inoue has studied both innovation on automotive technology and subsequent changes in society.

Along with designing LEAF, Inoue and his team have created animation footage for such topics as “Life with EV,” “Information Technology on EV, ” and “Charging Infrastructure for EV” to share the values and benefits not only among designers, but also with R&D members of the project. This activity is continuing even after the design of the LEAF is completed.

"I am expanding my ideas beyond the car itself, and making proposals to various functions in the company, including the marketing and infrastructure development teams. I hope that my experience designing the concept cars can contribute the successful launch of the LEAF," concludes Inoue.

Masato Inoue
Product Chief Designer
Joined Nissan in 1979. Studied at Art Center College Of Design (Pasadena, CA) in 1983. Engaged in various passenger cars including Bluebird (U12), Maxima (J30/J31), Sentra (B13), and Stagea(WC34/M35) Became Chief Desinger of Exploratory Design Dept. in 2001, managing advanced design on future products and concept cars for autoshows. Appointed Product Chief Designer in 2009.
Nissan designer Masato Inoue

Tuesday, July 17, 2012

Review

I appreciate Mike taking the time to not only explain the needed repair to me but also to my boyfriend via the phone.

Sunday, July 15, 2012

10 ) Increased Biofuel Use.

Nissan takes use of biofuels seriously. In North America, Nissan Motor markets flexible-fuel vehicles – cars that can handle ethanol-based mixtures and not present any kind of problem. In another example, in April of 1008, Nissan Motor started taking part in the Tokachi E10 Trials, which looks to increase the utilization of E10 fuel, which is a biofuels.

Article by Shawn Lesser, Co-founder & Managing Partner of Atlanta-based Watershed Capital Group – an investment bank assisting sustainable fund and companies raise capital, perform acquisitions, and in other strategic financial decisions. He is also a Co-founder of the GCCA Global Cleantech Cluster Association ”The Global Voice of Cleantech”. He writes for various cleantech publications and is known as the David Letterman of Cleantech for his “Top 10″ series. He can be reached at shawn@watershedcapital.com.

Why Nissan Motors Is A Cleantech Leader originally appeared in Green Chip Stocks. Green Chip Review is a free 2x-per-week newsletter, is the first advisory to focus exclusively on investments in alternative and renewable energies.

Friday, July 13, 2012

9 ) Nissan Green Program 2016

The Nissan Green Program 2016 was created to help the company achieve its environmental philosophy of “Symbiosis of People, Vehicles, and Nature.” This program promotes activities “not only in development and manufacturing departments associated with the production of automobiles, but also in sales, service, and all other departments company-wide. In specific terms, this program ensures that environmental action plans are formulated, the targets and aims relating to business activities and associated indirectly with the environment are set for mid-term, long-term, and yearly periods, and that every possible effort is made to achieve sustainable development.”Activities include the penetration of zero-emission vehicles, wider application of fuel efficient vehicles, corporate carbon footprint minimization, and natural resource usage minimization.

Tuesday, July 10, 2012

8 ) Activities in Products.

Nissan Motor believes that the company can contribute to a sustainable mobile society by improving these aspects. Therefore, Nissan looks to offer vehicles that are not only attractive, but also have a reduced environmental impact. Nissan is undertaking a lot of aggressive efforts to improve overall fuel efficiency and aid in the development of vehicles that only use clean energies. Nissan is also in the development process of clean vehicles, including EVs and FCEVs that do not emit carbon dioxide emissions or even exhaust when operated.

Sunday, July 8, 2012

7 ) Activities at Plants.

At all Nissan Motor production plants, a number of systems are thoroughly implemented to control substances that can have a negative environmental impact. Activities are undertaken to reduce the total amount of the harmful substances used as well as emitted during production operations. Other activities at the plant include introducing equipment that is energy saving and reducing carbon dioxide emissions, and controlling all standards and systems to manage all air pollutants and participate in a number of activities to reduce the substances that are emitted at production plants.

Friday, July 6, 2012

6 ) Nissan and Beijing Municipal Commission of Transport Launch Test for Road Guidance.

In December of 2011, Nissan Motor and the Beijing Municipal Commission of Transport began a large-scale demonstration test for the new Traffic Information System Model Project. The demonstration will start the end of January of 2012 and will “verify the effects of traffic dispersion by dynamic route guidance with IT devices.” In the test, 12,000 individuals are going to be given IT devices to provide eco-drive support and dynamic route guidance. Users in the trial can expect to see reduced fuel consumption and travel time as well as a reduction in carbon dioxide emissions.

Monday, July 2, 2012

5 ) Nissan Delivers 100 Percent Electric LEAF to Wuhan.

In November of 2011, Nissan Motor and the Wuhan Municipal Government are going ahead with a new pilot program that would promote zero emission mobility. With this, Wuhan accepted the delivery from Nissan of 15 Nissan LEAFs, with ten more of these units to be delivered sometime in 2012. In this pilot program, Nissan is working alongside the city on a number of joint activities that are aimed at the contribution of the establishment of a city that is environmentally friendly and energy efficient. Another focus is to aid in the planning for a complete rollout of electric vehicles into the Chinese market.