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Manufactured March 1995 (25 years old in this picture). To me this is what BMW is all about. Naturally aspirated straight six engine in the front, rear wheel drive, manual transmission (BMW has not offered this since 2013).
Model: E36/2 (Coupé) 328i Individual
Engine: M52B28 straight-6, 2793cc, 24 valve
Gearbox: ZF S5D320 G 5-speed manual (shared with M3 3.0)
Color: 302 Madeiraviolett
Length: 4433 mm
Width: 1710 mm
Height: 1366 mm
Weight: 1395 kg
Photo: Thomas Ohlsson Photography
www.thomasohlsson.com | 500px | Facebook | Flickr | Instagram
Phoenix, AZ
6/14/16
While in Arizona, I had the opportunity to visit the DaDee Manufacturing facility. I met Refuse Arizona the week before at Waste Expo and we were able to arrange a tour at the DaDee Manufacturing facility. On my way to their facility I saw The Scorpion FE Mack LR from Waste Expo pull into the Mack dealership in Phoenix, it was neat seeing that truck twice in one week in two different states. Once I arrived at DaDee Manufacturing Refuse Arizona gave me a tour that started at prefabrication and went all the way to final assembly. I had a great time learning more about the DaDee products and seeing them in person.
Big thank you to everyone at DaDee Manufacturing, they are truly an innovative company with products of the highest quality. And a special thank you to Refuse Arizona for the amazing tour, it was an honor meeting you and Waste Expo and talking about the Waste Industry.
Manufactured from 1968 to 1975, sometimes called T500/5 for the 500 cc two stroke, twin cylinder motor and a five speed gearbox. Rated at 44 HP and a top speed of 105 mph (169 kmh). The engine was mounted farther forward to prevent inadvertent wheelies.
Manufacturing Consent.
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放熱組成絶妙な傾きを感知してて旋回に包含!
Steve.D.Hammond.
Camera: 1952 Leica IIIf RD 35mm Rangefinder.
Lens: Waterworth 2 inch Centaur f/3.5.
Film: Ilford FP4 Plus ISO 125 35mm black & white negative.
Development: Ilford ID-11 1 + 3 @ 20C/21m.
Camera supported on Linhof Junior tripod & ball head.
Lens is wide open for this image. Focus point is the "W" badge and lens of the nearest projector, carefully set via the Leica's coupled rangefinder. For a lens with a little front coating damage (cleaning-related I suspect), I thought the contrast and resolution of such an old lens to be respectable.
The Waterworth Centaur is a vanishingly rare 2 inch f/3.5 lens manufactured by Waterworth of Hobart, Tasmania, Australia. Optical manufacture began at the Domain on the edge of the city of Hobart during WWII in order to furnish the Australian defence forces (and to an extent, also, other Allied forces) with lenses, prisms and other components vital for military use in targeting equipment, gunsights and for photo reconnaissance camera applications among others. After the war the workforce turned their skills to the production of goods for civilian use, notably projection equipment for educational institutions. A small number of still camera lenses were nevertheless manufactured in Hobart in the Leica 39mm rangefinder thread mount.
The Centaur was available in two different guises, both with the 39mm Leica thread mount: a non-focusing enlarger version made for darkroom printing; and the type used to make the image shown above. This being a focusing and rangefinder coupled version.
During a visit to the University of Tasmania to inspect the items in their Waterworth Collection (a bequest from the late Peter Smith, long a UTAS chemistry faculty member) I was permitted to fit the focusing example of the Centaur in the collection to my own Leica IIIf Red Dial rangefinder and take a few photos of the collection with it.
In the foreground you will see just a few of the different types of still projectors Waterworth manufactured after World War II.
The Centaur fitted readily to the IIIf like any Leica lens made for it, and coupled perfectly to its (well-calibrated) rangefinder from close range to infinity.
I set the camera and lens onto my own Linhof junior tripod and ball head (which was itself formerly owned by Peter Smith before it came into my possession, so there was a brief reunion of these items once owned by him). A short series of images was made by me at different apertures including wide open at f/3.5 with the camera on the tripod, using a cable release to maximise sharpness.
I have added four very similar images made with this very rare lens. Whilst there are a handful of images of a Waterworth Centaur lens locatable by Google Image search, I have not seen any photos actually taken with the lens: let alone taken with one fitted to a screw mount Leica rangefinder, the type of camera the lens was actually designed to be used with. This series might therefore be the only images on the web with a Centaur on film using a Leica rangefinder and have been uploaded for the benefit of those who may like to see some photos created with one.
The exact number of Waterworth Centaurs produced is not definitively known. At least one serial number into the low 300s exists. But whether all serial numbers from 1 were allocated and used is not known. The actual number made may be considerably less, one source suggests perhaps 200-odd? Many of those would have been for enlarger use and not suitable for photography, thus, the amount of surviving Centaurs with rangefinder coupling may, potentially, be tiny. Who knows? UTAS are researching the activities of the annexe.
You may see a photograph of the Centaur lens attached to my Leica at UTAS here:
www.flickr.com/photos/43224475@N08/51087053587/in/datepos...
More information about the wartime activities at the Hobart annexe and the Waterworth optical products which were made after WWII for civilian use may be found at UTAS's own website for Waterworth, here:
Some images of the actual Waterworth Centaur I had the privilege of photographing with (Centaur serial number 171) may be viewed here:
waterworth.omeka.net/items/show/76
Copyright 2021 Brett Rogers All Rights Reserved
A very rare photo of, three differently manufactured Ambulances, at Carlisle's A&E department. They are, a Renault Master, MF52 JHV, a Mercedes-Benz Sprinter, DK58 LKZ, and a Fiat Ducato, PO13 FMK.
Manufactured March 1995 (25 years old in this picture). To me this is what BMW is all about. Naturally aspirated straight six engine in the front, rear wheel drive, manual transmission (BMW has not offered this since 2013).
Model: E36/2 (Coupé) 328i Individual
Engine: M52B28 straight-6, 2793cc, 24 valve
Gearbox: ZF S5D320 G 5-speed manual (shared with M3 3.0)
Color: 302 Madeiraviolett
Length: 4433 mm
Width: 1710 mm
Height: 1366 mm
Weight: 1395 kg
Photo: Thomas Ohlsson Photography
www.thomasohlsson.com | 500px | Facebook | Flickr | Instagram
Interior of Fuller Manufacturing Company, Gear Tooth Grinding Department. Two unidentified workers.
KPL catalogue number P-44.
Testing some Instax Monochrome Black & White Film. It does have some purple colors at the edges. :( Corrected that on the computer.
Santa cruz Jason Jessee
BULLET Speed Wheels
INDEPENDENT Truck Co
© Todos los derechos reservados | © All rights reserved K★LvO!
Manufactured in 1988
Purchased on 25/02/1988
Mileage at last MOT 178,023 (107,000 more miles than mine!)
The main environmental issues associated with the implementation of the 5G network come with the manufacturing of the many component parts of the 5G infrastructure. In addition, the proliferation of new devices that will use the 5G network that is tied to the acceleration of demand from consumers for new 5G-dependent devices will have serious environmental consequences. The 5G network will inevitably cause a large increase in energy usage among consumers, which is already one of the main contributors to climate change. Additionally, the manufacturing and maintenance of the new technologies associated with 5G creates waste and uses important resources that have detrimental consequences for the environment. 5G networks use technology that has harmful effects on birds, which in turn has cascading effects through entire ecosystems. And, while 5G developers are seeking to create a network that has fewer environmental impacts than past networks, there is still room for improvement and the consequences of 5G should be considered before it is widely rolled out. 5G stands for the fifth generation of wireless technology. It is the wave of wireless technology surpassing the 4G network that is used now. Previous generations brought the first cell phones (1G), text messaging (2G), online capabilities (3G), and faster speed (4G). The fifth generation aims to increase the speed of data movement, be more responsive, and allow for greater connectivity of devices simultaneously.[2] This means that 5G will allow for nearly instantaneous downloading of data that, with the current network, would take hours. For example, downloading a movie using 5G would take mere seconds. These new improvements will allow for self-driving cars, massive expansion of Internet of Things (IoT) device use, and acceleration of new technological advancements used in everyday activities by a much wider range of people. While 5G is not fully developed, it is expected to consist of at least five new technologies that allow it to perform much more complicated tasks at faster speeds. The new technologies 5G will use are hardware that works with much higher frequencies (millimeter wavelengths), small cells, massive MIMO (multiple input multiple output), beamforming, and full duplex.[3] Working together, these new technologies will expand the potential of many of the devices used today and devices being developed for the future. Millimeter waves are a higher frequency wavelength than the radio wavelength generally used in wireless transmission today.[4] The use of this portion of the spectrum corresponds to higher frequency and shorter wavelengths, in this case in the millimeter range (vs the lower radio frequencies where the wavelengths can be in the meters to hundreds of kilometers). Higher frequency waves allow for more devices to be connected to the same network at the same time, because there is more space available compared to the radio waves that are used today. The use of this portion of the spectrum has much longer wavelengths than of that anticipated for a portion of the 5G implementation. The waves in use now can measure up to tens of centimeters, while the new 5G waves would be no greater than ten millimeters.[5] The millimeter waves will create more transmission space for the ever-expanding number of people and devices crowding the current networks. The millimeter waves will create more space for devices to be used by consumers, which will increase energy usage, subsequently leading to increased global warming. Millimeter waves are very weak in their ability to connect two devices, which is why 5G needs something called “small cells” to give full, uninterrupted coverage. Small cells are essentially miniature cell towers that would be placed 250 meters apart throughout cities and other areas needing coverage.[6] The small cells are necessary as emissions [or signals] at this higher frequency/shorter wavelength have more difficulty passing through solid objects and are even easily intercepted by rain.[7] The small cells could be placed on anything from trees to street lights to the sides of businesses and homes to maximize connection and limit “dead zones” (areas where connections are lost). The next new piece of technology necessary for 5G is massive MIMO, which stands for multiple input multiple output. The MIMO describes the capacity of 5G’s base stations, because those base stations would be able to handle a much higher amount of data at any one moment of time. Currently, 4G base stations have around eight transmitters and four receivers which direct the flow of data between devices.[9] 5G will exceed this capacity with the use of massive MIMO that can handle 22 times more ports. Figure 1 shows how a massive MIMO tower would be able to direct a higher number of connections at once. However, massive MIMO causes signals to be crossed more easily. Crossed signals cause an interruption in the transmission of data from one device to the next due to a clashing of the wavelengths as they travel to their respective destinations. To overcome the cross signals problem, beamforming is needed. To maximize the efficiency of sending data another new technology called beamforming will be used in 5G. For data to be sent to the correct user, a way of directing the wavelengths without interference is necessary. This is done through a technique called beamforming. Beamforming directs where exactly data are being sent by using a variety of antennas to organize signals based on certain characteristics, such as the magnitude of the signal. By directly sending signals to where they need to go, beamforming decreases the chances that a signal is dropped due to the interference of a physical object.
One way that 5G will follow through on its promise of faster data transmission is through sending and receiving data simultaneously. The method that allows for simultaneous input and output of data is called full duplexing. While full duplex capabilities allow for faster transmission of data, there is an issue of signal interference, because of echoes. Full duplexing will cut transmission times in half, because it allows for a response to occur as soon as an input is delivered, eliminating the turnaround time that is seen in transmission today. Because these technologies are new and untested, it is hard to say how they will impact our environment. This raises another issue: there are impacts that can be anticipated and predicted, but there are also unanticipated impacts because much of the new technologies are untested. Nevertheless, it is possible to anticipate some of detrimental environmental consequences of the new technologies and the 5G network, because we know these technologies will increase exposure to harmful radiation, increase mining of rare minerals, increase waste, and increase energy usage. The main 5G environmental concerns have to do with two of the five new components: the millimeter waves and the small cells. The whole aim of the new 5G network is to allow for more devices to be used by the consumer at faster rates than ever before, because of this goal there will certainly be an increase in energy usage globally. Energy usage is one of the main contributors to climate change today and an increase in energy usage would cause climate change to increase drastically as well. 5G will operate on a higher frequency portion of the spectrum to open new space for more devices. The smaller size of the millimeter waves compared to radio frequency waves allows for more data to be shared more quickly and creates a wide bandwidth that can support much larger tasks.[15] While the idea of more space for devices to be used is great for consumers, this will lead to a spike in energy usage for two reasons – the technology itself is energy demanding and will increase demand for more electronic devices. The ability for more devices to be used on the same network creates more incentive for consumers to buy electronics and use them more often. This will have a harmful impact on the environment through increased energy use. Climate change has several underlying contributors; however, energy usage is gaining attention in its severity with regards to perpetuating climate change. Before 5G has even been released, about 2% of the world’s greenhouse gas emissions can be attributed to the ICT industry.[16] While 2% may not seem like a very large portion, it translates to around 860 million tons of greenhouse gas emissions.[17] Greenhouse gas emissions are the main contributors to natural disasters, such as flooding and drought, which are increasing severity and occurrence every year. Currently, roughly 85% of the energy used in the United States can be attributed to fossil fuel consumption.[18] The dwindling availability of fossil fuels and the environmental burden of releasing these fossil fuels into our atmosphere signal an immediate need to shift to other energy sources. Without a shift to other forms of energy production and the addition of technology allowed by the implementation of 5G, the strain on our environment will rise and the damage may never be repaired. With an increase in energy usage through technology and the implementation of 5G, it can be expected that the climate change issues faced today will only increase. The overall contribution of carbon dioxide emissions from the ICT industry has a huge impact on climate change and will continue to have even larger impacts without proper actions. In a European Union report, researchers estimated that in order to keep the increase in global temperature below 2° Celsius a decrease in carbon emissions of around 15-30% is necessary by 2020. Engineers claim that the small cells used to provide the 5G connection will be energy efficient and powered in a sustainable way; however the maintenance and production of these cells is more of an issue. Supporters of the 5G network advocate that the small cells will use solar or wind energy to stay sustainable and green.[20] These devices, labeled “fuel-cell energy servers” will work as clean energy-based generators for the small cells.[21] While implementing base stations that use sustainable energy to function would be a step in the right direction in environmental conservation, it is not the solution to the main issue caused by 5G, which is the impact that the massive amount of new devices in the hands of consumers will have on the amount of energy required to power these devices. The wasteful nature of manufacturing and maintenance of both individual devices and the devices used to deliver 5G connection could become a major contributor of climate change. The promise of 5G technology is to expand the number of devices functioning might be the most troubling aspect of the new technology. Cell phones, computers, and other everyday devices are manufactured in a way that puts stress on the environment. A report by the EPA estimated that in 2010, 25% of the world’s greenhouse gas emissions comes from electricity and heat production making it the largest single source of emissions.[22] The main gas emitted by this sector is carbon dioxide, due to the burning of natural gas, such as coal, to fuel electricity sources.[23] Carbon dioxide is one of the most common greenhouse gases seen in our atmosphere, it traps heat in earth’s atmosphere trying to escape into space, which causes the atmosphere to warm generating climate change. Increased consumption of devices is taking a toll on the environment. As consumers gain access to more technologies the cycle of consumption only expands. As new devices are developed, the older devices are thrown out even if they are still functional. Often, big companies will purposefully change their products in ways that make certain partner devices (such as chargers or earphones) unusable–creating demand for new products. Economic incentives mean that companies will continue these practices in spite of the environmental impacts. One of the main issues with the 5G network and the resulting increase in consumption of technological devices is that the production required for these devices is not sustainable. In the case of making new devices, whether they be new smart-phones or the small cells needed for 5G, the use of nonrenewable metals is required. It is extremely difficult to use metals for manufacturing sustainably, because metals are not a renewable resource. Metals used in the manufacturing of the smart devices frequently used today often cannot be recycled in the same way many household items can be recycled. Because these technologies cannot be recycled, they create tons of waste when they are created and tons of waste when they are thrown away. There are around six billion mobile devices in use today, with this number expected to increase drastically as the global population increases and new devices enter the market. One estimate of the life-time carbon emissions of a single device–not including related accessories and network connection–is that a device produces a total of 45kg of carbon dioxide at a medium level of usage over three years. This amount of emission is comparable to that of driving the average European car for 300km. But, the most environmentally taxing stage of a mobile device life cycle is during the production stage, where around 68% of total carbon emissions is produced, equating to 30kg of carbon dioxide. To put this into perspective, an iPhone X weighs approximately 0.174kg, so in order to produce the actual device, 172 iPhone X’s worth of carbon dioxide is also created. These emissions vary from person to person and between different devices, but it’s possible to estimate the impact one device has on the environment. 5G grants the capacity for more devices to be used, significantly increase the existing carbon footprint of smart devices today. Energy usage for the ever-growing number of devices on the market and in homes is another environmental threat that would be greatly increased by the new capabilities brought by the 5G network. Often, energy forecasts overlook the amount of energy that will be consumed by new technologies, which leads to a skewed understanding of the actual amount of energy expected to be used.[30] One example of this is with IoT devices.[31] IoT is one of the main aspects of 5G people in the technology field are most excited about. 5G will allow for a larger expansion of IoT into the everyday household.[32] While some IoT devices promise lower energy usage abilities, the 50 billion new IoT devices expected to be produced and used by consumers will surpass the energy used by today’s electronics.
The small cells required for the 5G network to properly function causes another issue of waste with the new network. Because of the weak nature of the millimeter waves used in the 5G technology, small cells will need to be placed around 250 meters apart to insure continuous connection. The main issue with these small cells is that the manufacturing and maintenance of these cells will create a lot of waste. The manufacturing of technology takes a large toll on the environment, due to the consumption of non-renewable resources to produce devices, and technology ending up in landfills. Implementing these small cells into large cities where they must be placed at such a high density will have a drastic impact on technology waste. Technology is constantly changing and improving, which is one of the huge reasons it has such high economic value. But, when a technological advancement in small cells happens, the current small cells would have to be replaced. The short lifespan of devices created today makes waste predictable and inevitable. In New York City, where there would have to be at least 3,135,200 small cells, the waste created in just one city when a new advancement in small cells is implemented would have overwhelming consequences on the environment. 5G is just one of many examples of how important it is to look at the consequences of new advancements before their implementation. While it is exciting to see new technology that promises to improve everyday life, the consequences of additional waste and energy usage must be considered to preserve a sustainable environment in the future. There is some evidence that the new devices and technologies associated with 5G will be harmful to delicate ecosystems. The main component of the 5G network that will affect the earth’s ecosystems is the millimeter waves. The millimeter waves that are being used in developing the 5G network have never been used at such scale before. This makes it especially difficult to know how they will impact the environment and certain ecosystems. However, studies have found that there are some harms caused by these new technologies. The millimeter waves, specifically, have been linked to many disturbances in the ecosystems of birds. In a study by the Centre for Environment and Vocational Studies of Punjab University, researchers observed that after exposure to radiation from a cell tower for just 5-30 minutes, the eggs of sparrows were disfigured.[34] The disfiguration of birds exposed for such a short amount of time to these frequencies is significant considering that the new 5G network will have a much higher density of base stations (small cells) throughout areas needing connection. The potential dangers of having so many small cells all over areas where birds live could cause whole populations of birds to have mutations that threaten their population’s survival. Additionally, a study done in Spain showed breeding, nesting, and roosting was negatively affected by microwave radiation emitted by a cell tower. Again, the issue of the increase in the amount of connection conductors in the form of small cells to provide connection with the 5G network is seen to be harmful to species that live around humans. Additionally, Warnke found that cellular devices had a detrimental impact on bees.[36] In this study, beehives exposed for just ten minutes to 900MHz waves fell victim to colony collapse disorder.Colony collapse disorder is when many of the bees living in the hive abandon the hive leaving the queen, the eggs, and a few worker bees. The worker bees exposed to this radiation also had worsened navigational skills, causing them to stop returning to their original hive after about ten days. Bees are an incredibly important part of the earth’s ecosystem. Around one-third of the food produced today is dependent on bees for pollination, making bees are a vital part of the agricultural system. Bees not only provide pollination for the plant-based food we eat, but they are also important to maintaining the food livestock eats. Without bees, a vast majority of the food eaten today would be lost or at the very least highly limited. Climate change has already caused a large decline in the world’s bee population. The impact that the cell towers have on birds and bees is important to understand, because all ecosystems of the earth are interconnected. If one component of an ecosystem is disrupted the whole system will be affected. The disturbances of birds with the cell towers of today would only increase, because with 5G a larger number of small cell radio-tower-like devices would be necessary to ensure high quality connection for users. Having a larger number of high concentrations of these millimeter waves in the form of small cells would cause a wider exposure to bees and birds, and possibly other species that are equally important to our environment.As innovation continues, it is important that big mobile companies around the world consider the impact 5G will have on the environment before pushing to have it widely implemented. The companies pushing for the expansion of 5G may stand to make short term economic gains. While the new network will undoubtedly benefit consumers greatly, looking at 5G’s long-term environmental impacts is also very important so that the risks are clearly understood and articulated. The technology needed to power the new 5G network will inevitably change how mobile devices are used as well as their capabilities. This technological advancement will also change the way technology and the environment interact. The change from using radio waves to using millimeter waves and the new use of small cells in 5G will allow more devices to be used and manufactured, more energy to be used, and have detrimental consequences for important ecosystems. While it is unrealistic to call for 5G to not become the new network norm, companies, governments, and consumers should be proactive and understand the impact that this new technology will have on the environment. 5G developers should carry out Environmental Impact Assessments that fully estimate the impact that the new technology will have on the environment before rushing to widely implement it. Environmental Impact Assessments are intended to assess the impact new technologies have on the environment, while also maximizing potential benefits to the environment. This process mitigates, prevents, and identifies environmental harm, which is imperative to ensuring that the environment is sustainable and sound in the future. Additionally, the method of Life Cycle Assessments (LCA) of devices would also be extremely beneficial for understanding the impact that 5G will inevitably have on the environment. An LCA can be used to assess the impact that devices have on carbon emissions throughout their life span, from the manufacturing of the device to the energy required to power the device and ultimately the waste created when the device is discarded into a landfill or other disposal system. By having full awareness of the impact new technology will have on the environment ways to combat the negative impacts can be developed and implemented effectively.
jsis.washington.edu/news/what-will-5g-mean-for-the-enviro...
Cement plant under construction at Tunstead Quarry. This modern plant replaced life expired kilns on the site.
I assume that we all attempted to photograph the super Moon a few weeks ago, I decided to go to Sunshine Beach. I didn't take anything too peculiar apart from some cloudy shots with the Moon behind. I am not too sure about this image, not because of the way it looks, although because of what I have done to produce it. In the original shot, I overexposed the Moon just so the landscape was exposed. I then placed another, exposed one of my images of the Moon on top of the over exposed Moon, creating this. I'd like to hear feedback (:
This graphic was on the Carpenter website right as they were going out of business. Beneath this graphic was a note to their former customers and suppliers thanking them for their business and relationship. Unfortunately, I didn't save the text of the note because it was pretty well written considering what a sad time it was in their corporate history. I right clicked on the graphic and saved it to my computer because I thought it was a pretty cool looking with the lightening in the background.
ADV.1 Wheels is a global leader of custom forged wheels for high performance and luxury cars. We design, manufacture and market concave wheels for the automotive industry.
Quoting from Wikipedia: Jaguar E-Type:
• • • • •
The Jaguar E-Type (UK) or XK-E (US) is a British automobile manufactured by Jaguar between 1961 and 1974. Its combination of good looks, high performance, and competitive pricing established the marque as an icon of 1960s motoring. A great success for Jaguar, over seventy thousand E-Types were sold during its lifespan.
In March 2008, the Jaguar E-Type ranked first in Daily Telegraph list of the "100 most beautiful cars" of all time.[2] In 2004, Sports Car International magazine placed the E-Type at number one on their list of Top Sports Cars of the 1960s.
Contents
•• 4.2 Lightweight E-Type (1963-1964)
Overview
The E-Type was initially designed and shown to the public as a grand tourer in two-seater coupé form (FHC or Fixed Head Coupé) and as convertible (OTS or Open Two Seater). The 2+2 version with a lengthened wheelbase was released several years later.
On its release Enzo Ferrari called it "The most beautiful car ever made".
The model was made in three distinct versions which are now generally referred to as "Series 1", "Series 2" and "Series 3". A transitional series between Series 1 and Series 2 is known unofficially as "Series 1½".
In addition, several limited-edition variants were produced:
• The "'Lightweight' E-Type" which was apparently intended as a sort of follow-up to the D-Type. Jaguar planned to produce 18 units but ultimately only a dozen were reportedly built. Of those, one is known to have been destroyed and two others have been converted to coupé form. These are exceedingly rare and sought after by collectors.
• The "Low Drag Coupé" was a one-off technical exercise which was ultimately sold to a Jaguar racing driver. It is presently believed to be part of the private collection of the current Viscount Cowdray.
Concept versions
E1A (1957)
After their success at LeMans 24 hr through the 1950s Jaguars defunct racing department were given the brief to use D-Type style construction to build a road going sports car, replacing the XK150.
It is suspected that the first prototype (E1A) was given the code based on: (E): The proposed production name E-Type (1): First Prototype (A): Aluminium construction (Production models used steel bodies)
The car featured a monocoque design, Jaguar's fully independent rear suspension and the well proved "XK" engine.
The car was used solely for factory testings and was never formally released to the public. The car was eventually scrapped by the factory
E2A (1960)
Jaguar's second E-Type concept was E2A which unlike E1A was constructed from a steel chassis and used a aluminium body. This car was completed as a race car as it was thought by Jaguar at the time it would provide a better testing ground.
E2A used a 3 litre version of the XK engine with a Lucas fuel injection system.
After retiring from the LeMans 24 hr the car was shipped to America to be used for racing by Jaguar privateer Briggs Cunningham.
In 1961 the car returned to Jaguar in England to be used as a testing mule.
Ownership of E2A passed to Roger Woodley (Jaguars customer competition car manager) who took possession on the basis the car not be used for racing. E2A had been scheduled to be scrapped.
Roger's wife Penny Griffiths owned E2A until 2008 when it was offered for sale at Bonham's Quail Auction. Sale price was US$4.5 million
Production versions
Series 1 (1961-1968)
Series I
• Production
2-door coupe
2-door convertible
96.0 in (2438 mm) (FHC / OTS)
105.0 in (2667 mm) (2+2) [5]
• Length
175.3125 in (4453 mm) (FHC / OTS)
184.4375 in (4685 mm) (2+2) [5]
• Width
65.25 in (1657 mm) (all) [5]
• Height
48.125 in (1222 mm) (FHC)
50.125 in (1273 mm) (2+2)
46.5 in (1181 mm) (OTS)[5]
2,900 lb (1,315 kg) (FHC)
2,770 lb (1,256 kg) (OTS)
3,090 lb (1,402 kg) (2+2) [6]
• Fuel capacity
63.64 L (16.8 US gal; 14.0 imp gal)[5]
The Series 1 was introduced, initially for export only, in March 1961. The domestic market launch came four months later in July 1961.[7] The cars at this time used the triple SU carburetted 3.8 litre 6-cylinder Jaguar XK6 engine from the XK150S. The first 500 cars built had flat floors and external hood (bonnet) latches. These cars are rare and more valuable. After that, the floors were dished to provide more leg room and the twin hood latches moved to inside the car. The 3.8 litre engine was increased to 4.2 litres in October 1964.[7]
All E-Types featured independent coil spring rear suspension with torsion bar front ends, and four wheel disc brakes, in-board at the rear, all were power-assisted. Jaguar was one of the first auto manufacturers to equip cars with disc brakes as standard from the XK150 in 1958. The Series 1 can be recognised by glass covered headlights (up to 1967), small "mouth" opening at the front, signal lights and tail-lights above bumpers and exhaust tips under the licence plate in the rear.
3.8 litre cars have leather-upholstered bucket seats, an aluminium-trimmed centre instrument panel and console (changed to vinyl and leather in 1963), and a Moss 4-speed gearbox that lacks synchromesh for 1st gear ("Moss box"). 4.2 litre cars have more comfortable seats, improved brakes and electrical systems, and an all-synchromesh 4-speed gearbox. 4.2 litre cars also have a badge on the boot proclaiming "Jaguar 4.2 Litre E-Type" (3.8 cars have a simple "Jaguar" badge). Optional extras included chrome spoked wheels and a detachable hard top for the OTS.
An original E-Type hard top is very rare, and finding one intact with all the chrome, not to mention original paint in decent condition, is rather difficult. For those who want a hardtop and aren't fussy over whether or not it is an original from Jaguar, several third parties have recreated the hardtop to almost exact specifications. The cost ranges anywhere from double to triple the cost of a canvas/vinyl soft top.
A 2+2 version of the coupé was added in 1966. The 2+2 offered the option of an automatic transmission. The body is 9 in (229 mm) longer and the roof angles are different with a more vertical windscreen. The roadster remained a strict two-seater.
There was a transitional series of cars built in 1967-68, unofficially called "Series 1½", which are externally similar to Series 1 cars. Due to American pressure the new features were open headlights, different switches, and some de-tuning (with a downgrade of twin Zenith-Stromberg carbs from the original triple SU carbs) for US models. Some Series 1½ cars also have twin cooling fans and adjustable seat backs. Series 2 features were gradually introduced into the Series 1, creating the unofficial Series 1½ cars, but always with the Series 1 body style.
Less widely known, there was also right at the end of Series 1 production and prior to the transitional "Series 1½" referred to above, a very small number of Series 1 cars produced with open headlights.[8] These are sometimes referred to as "Series 1¼" cars.[9] Production dates on these machines vary but in right hand drive form production has been verified as late as March 1968.[10] It is thought that the low number of these cars produced relative to the other Series make them amongst the rarest of all production E Types.
An open 3.8 litre car, actually the first such production car to be completed, was tested by the British magazine The Motor in 1961 and had a top speed of 149.1 mph (240.0 km/h) and could accelerate from 0-60 mph (97 km/h) in 7.1 seconds. A fuel consumption of 21.3 miles per imperial gallon (13.3 L/100 km; 17.7 mpg-US) was recorded. The test car cost £2097 including taxes.[11]
Production numbers from Graham[12]:
• 15,490 3.8s
• 17,320 4.2s
• 10,930 2+2s
Production numbers from xkedata.com[13]: [omitted -- Flickr doesn't allow tables]
Series 2 (1969-1971)
Series II
• Production
2-door coupe
2-door convertible
3,018 lb (1,369 kg) (FHC)
2,750 lb (1,247 kg) (OTS)
3,090 lb (1,402 kg) (2+2) [6]
Open headlights without glass covers, a wrap-around rear bumper, re-positioned and larger front indicators and taillights below the bumpers, better cooling aided by an enlarged "mouth" and twin electric fans, and uprated brakes are hallmarks of Series 2 cars. De-tuned in US, but still with triple SUs in the UK, the engine is easily identified visually by the change from smooth polished cam covers to a more industrial 'ribbed' appearance. Late Series 1½ cars also had ribbed cam covers. The interior and dashboard were also redesigned, with rocker switches that met U.S health and safety regulations being substituted for toggle switches. The dashboard switches also lost their symmetrical layout. New seats were fitted, which purists claim lacked the style of the originals but were certainly more comfortable. Air conditioning and power steering were available as factory options.
Production according to Graham[12] is 13,490 of all types.
Series 2 production numbers from xkedata.com[13]: [omitted -- Flickr doesn't allow tables]
Official delivery numbers by market and year are listed in Porter[3] but no summary totals are given.
Series 3 (1971-1975)
Series III
• Production
1971–1975
2-door convertible
105 in (2667 mm) (both)[6]
• Length
184.4 in (4684 mm) (2+2)
184.5 in (4686 mm) (OTS)[6]
• Width
66.0 in (1676 mm) (2+2)
66.1 in (1679 mm) (OTS)[6]
• Height
48.9 in (1242 mm) (2+2)
48.1 in (1222 mm) (OTS)[6]
3,361 lb (1,525 kg) (2+2)
3,380 lb (1,533 kg) (OTS)[6]
• Fuel capacity
82 L (21.7 US gal; 18.0 imp gal)[14]
A new 5.3 L 12-cylinder Jaguar V12 engine was introduced, with uprated brakes and standard power steering. The short wheelbase FHC body style was discontinued and the V12 was available only as a convertible and 2+2 coupé. The convertible used the longer-wheelbase 2+2 floorplan. It is easily identifiable by the large cross-slatted front grille, flared wheel arches and a badge on the rear that proclaims it to be a V12. There were also a very limited number of 4.2 litre six-cylinder Series 3 E-Types built. These were featured in the initial sales literature. It is believed these are the rarest of all E-Types of any remaining.
In 2008 a British classic car enthusiast assembled what is surely the last ever E-Type from parts bought from the end-of-production surplus in 1974.[15]
Graham[12] lists production at 15,290.
Series 3 production numbers from xkedata.com[13]: [omitted -- Flickr doesn't allow tables]
Limited edtions
Two limited production E-Type variants were made as test beds, the Low Drag Coupe and Lightweight E-Type, both of which were raced:
Low Drag Coupé (1962)
Shortly after the introduction of the E-Type, Jaguar management wanted to investigate the possibility of building a car more in the spirit of the D-Type racer from which elements of the E-Type's styling and design were derived. One car was built to test the concept designed as a coupé as its monocoque design could only be made rigid enough for racing by using the "stressed skin" principle. Previous Jaguar racers were built as open-top cars because they were based on ladder frame designs with independent chassis and bodies. Unlike the steel production E-Types the LDC used lightweight aluminium. Sayer retained the original tub with lighter outer panels riveted and glued to it. The front steel sub frame remained intact, the windshield was given a more pronounced slope and the rear hatch welded shut. Rear brake cooling ducts appeared next to the rear windows,and the interior trim was discarded, with only insulation around the transmission tunnel. With the exception of the windscreen, all cockpit glass was plexi. A tuned version of Jaguar's 3.8 litre engine with a wide angle cylinder-head design tested on the D-Type racers was used. Air management became a major problem and, although much sexier looking and certainly faster than a production E-Type, the car was never competitive: the faster it went, the more it wanted to do what its design dictated: take off.
The one and only test bed car was completed in summer of 1962 but was sold a year later to Jaguar racing driver Dick Protheroe who raced it extensively and eventually sold it. Since then it has passed through the hands of several collectors on both sides of the Atlantic and now is believed to reside in the private collection of the current Viscount Cowdray.
Lightweight E-Type (1963-1964)
In some ways, this was an evolution of the Low Drag Coupé. It made extensive use of aluminium alloy in the body panels and other components. However, with at least one exception, it remained an open-top car in the spirit of the D-Type to which this car is a more direct successor than the production E-Type which is more of a GT than a sports car. The cars used a tuned version of the production 3.8 litre Jaguar engine with 300 bhp (224 kW) output rather than the 265 bhp (198 kW) produced by the "ordinary" version. At least one car is known to have been fitted with fuel-injection.
The cars were entered in various races but, unlike the C-Type and D-Type racing cars, they did not win at Le Mans or Sebring.
Motor Sport
Bob Jane won the 1963 Australian GT Championship at the wheel of an E-Type.
The Jaguar E-Type was very successful in SCCA Production sports car racing with Group44 and Bob Tullius taking the B-Production championship with a Series-3 V12 racer in 1975. A few years later, Gran-Turismo Jaguar from Cleveland Ohio campaigned a 4.2 L 6 cylinder FHC racer in SCCA production series and in 1980, won the National Championship in the SCCA C-Production Class defeating a fully funded factory Nissan Z-car team with Paul Newman.
See also
• Jaguar XK150 - predecessor to the E-Type
• Jaguar XJS - successor to the E-Type
• Jaguar XK8 - The E-Type's current and spiritual successor
• Guyson E12 - a rebodied series III built by William Towns
References
• ^ Loughborough graduate and designer of E Type Jaguar honoured
• ^ a b cPorter, Philip (2006). Jaguar E-type, the definitive history. p. 443. ISBN 0-85429-580-1.
• ^ a b"'69 Series 2 Jaguar E Types", Autocar, October 24, 1968
• ^ a b c d eThe Complete Official Jaguar "E". Cambridge: Robert Bentley. 1974. p. 12. ISBN 0-8376-0136-3.
• ^ a b c d e f g"Jaguar E-Type Specifications". http://www.web-cars.com/e-type/specifications.php. Retrieved 29 August 2009.
• ^ a b"Buying secondhand E-type Jaguar". Autocar 141 (nbr4042): pages 50–52. 6 April 1974.
• ^ See Jaguar Clubs of North America concourse information at: [1] and more specifically the actual Series 1½ concourse guide at [2]
• ^ Ibid.
• ^ Compare right hand drive VIN numbers given in JCNA concours guide referred to above with production dates for right hand drive cars as reflected in the XKEdata database at [3]
• ^"The Jaguar E-type". The Motor. March 22, 1961.
• ^ a b cRobson, Graham (2006). A–Z British Cars 1945–1980. Devon, UK: Herridge & Sons. ISBN 0-9541063-9-3.
• ^ a b chttp://www.xkedata.com/stats/. http://www.xkedata.com/stats/. Retrieved 29 August 2009.
• ^Daily Express Motor Show Review 1975 Cars: Page 24 (Jaguar E V12). October 1974.
• ^ jalopnik.com/5101872/british-man-cobbles-together-last-ja...
Lago di Molveno, Gennaio '07 (Trento) Italia.
Quelli che si vedono sono corpi morti, ovvero le pietre dove si attaccano le boe nautiche.
Purtroppo una centrale elettrica utilizza l'acqua del lago e questo è il risultato.
Prendendo spunto dal documentario sul fotografo Edward Burtynsky "Paesaggi Modificati" (Manufactured Landscapes).
dystopian sheet metal future! people were trying to kill the big block by crashing their car bumpers into it...but...the metal forest consumes you. choose the big opening! just some thoughts while walking around Möbel Roller.
The Ferrari Testarossa (Type F110) is a 12-cylinder mid-engine sports car manufactured by Ferrari, which went into production in 1984 as the successor to the Ferrari Berlinetta Boxer. The Pininfarina-designed car was originally produced from 1984 to 1991, with two model revisions following the ending of Testarossa production and the introduction of the 512 TR and F512 M which were produced from 1992 to 1996. Almost 10,000 Testarossas, 512 TRs, and F512 Ms were produced, making it one of the most-produced Ferrari models, despite its high price and exotic design. In 1995, the F512 M retailed for $220,000 (£136,500).
The Testarossa is a two-door coupé that premiered at the 1984 Paris Auto Show. All versions of the Testarossa had the power fed through the wheels from a rear-mounted, five-speed manual transmission. The rear mid-engine, rear-wheel drive layout (engine between the axles but behind the cabin) keeps the centre of gravity in the middle of the car, which increases stability and improves the car's cornering ability, and thus results in a standing weight distribution of 40% front: 60% rear. The original Testarossa was re-engineered for 1992 and released as the 512 TR, at the Los Angeles Auto Show, effectively as a completely new car, and an improved weight distribution of 41% front: 59% rear. The F512 M was introduced at the 1994 Paris Auto Show. The car dropped the TR initials and added the M which in Italian stood for modificata, or translated to modified, and was the final version of the Testarossa, and continued its predecessor's weight distribution improvement of 42% front: 58% rear. The F512 M was Ferrari's last mid-engine 12-cylinder car, apart from the F50, Ferrari Enzo and LaFerrari, featuring the company's last flat engine. The Testarossa was replaced in 1996 by the front-engined 550 Maranello coupé.
The vehicle should not be confused with the Ferrari TR "Testa Rossa" of the late 1950s and early 1960s, which were sports cars that ran in the World Sportscar Championship, including the 24 Hours of Le Mans.
(Source: Wikipedia)
Taken by: Emiel Dekker (emield.myportfolio.com/)