A brand new distribution system has been designed by the University of Waterloo this would reduce electricity prices by almost five per cent while at the same time improving the reliability of service.
This design involves the merging of the two types of electric current that power homes, industries and electric vehicles—alternating current (AC) and direct current (DC).
Research found that by designing a system that delivers both kinds of current to customers instead of the AC-only distribution systems now in use throughout the world electricity prices should fall for the consumer!
A newly developed 3-D printer uses light to convert a sticky liquid into solid objects almost immediately, or at least at rapid speeds.
This Printer is nicknamed the “replicator” by the inventors. This was named after the Star Trek device that can develop almost any object on demand. This 3-D-printer can create objects that are slicker, more flexible and even more complex than what is currently possible with traditional 3-D-printers.
In addition to this it can also create a case / outer layer on existing object with new materials—for example, adding the handle to a metal screwdriver shaft . Current printers would struggle with this task.
The 2018 Nobel prize for physics has been awarded to three different researchers who all specialise in the use of powerful lasers to assist study of the worlds tiniest particles.
This year’s prize has been split between three winners. Half of the award goes to Arthur Ashkin from Bell Laboratories in Holmdel US, who invented the ‘optical tweezer’ – this method actually traps atoms, particles and viruses in between two beams of light and subsequently holds them there.
Strickland is the first woman in 55 years to claim the award and only the third woman to ever collect the award for physics. In comparison, 207 men have won the award. This comes just days after a Cern physicist sparked outrage after claiming women are less capable of physics research.
Fracking, and hydraulic fracturing, is a method to extract oil and gas from the earth. The process involves drilling down into the earth then water, sand and chemicals are injected into the rock at very high pressure. This then allows the gas to flow out to the head of the well. The term ‘fracking’ actually refers to how the rock is then fractured due to the high-pressure mixture.
In addition to this it involves pumping up to 17 Olympic swimming pools’ worth of water, chemical additives and sand into the earth lying up to three kilometres underground. This develops into a series of small fractures in the rocks, releasing gas or oil that moves into the water stream and is pumped or carried to the surface.
Fracking has been directly linked to causing earthquakes. As a specialist from Newcastle University wrote for “Earthquakes can occur when fracking takes place near a geological fault. It’s a bit like how a hovercraft works, by pumping air to produce a cushion so it can slip more easily over the land surface. If frack fluid is pumped into a geological fault, it can also slip more easily. Fracking can also change the stress on the fault, causing it to release, and a big enough fault shift will be felt as an earthquake.”
Some Researchers at the Imperial College in London have been granted a £10m European Research Council (also known as ERC) Synergy Grant. This will allow them to work with partners to deliver natural sensations to prosthetic limbs.
The grant has been awarded to the international group, led by London’ Imperial College Professor Dario Farina, they will now develop prosthetic limbs that will be able to sense surroundings and provide vital sensory information to the patients.
He said: “We have partly worked out how to let the brain command a prosthetic limb. Now, we want to reach fully natural control and to have the limbs talk back to the brain via natural sensations.”
Last year (2017), Prof Farina’s research group managed to develop an arm that patients would be able to move at will, it used a sensor to pick up movement from muscles in a stump and then convert them into commands for the arm.
The next steps is for the researchers to identify a selection or selection of patients to work with and develop a breakthrough idea for controlling and feeling robotic limbs.
The team will initially surgically construct a ‘bio-hub’ in each patient this is where nerves that deliver control signals to the missing limbs and sensations to the brain are surgically directed.
Prof Farina said: “Creating a hyper-reinnervated bio-hub is equivalent to building bio-connectors that will allow us to receive signals from the spinal cord and to provide sensations, such as the sense of limb position, into the spinal cord. In this way, we will be able to connect the spinal cord circuitries with robotic limbs to make them a natural part of the patient’s body.”
Hullavington has 400 members of Dyson automotive team following an £84m investment into the former RAF base which occupies 517 acres in the Cotswolds. Phase one development has seen two aircraft hangars restored and three more on course for delivery, creating an extra 15,000m2 of testing space, Phase two – which could bring investment at the airfield to £200m – outlines 45,000sqm of new development space that could accommodate over 2,000 staff. Test facility proposals include a dynamic handling track, a vehicle stability dynamic platform, an off-road route, a hill and handling road route, plus a fast road route and test slopes.
Dyson CEO Jim Rowan said: “Our growing automotive team is now working from Dyson’s …hangars at Hullavington Airfield. It will quickly become a world-class vehicle testing campus where we hope to invest £200m, creating more high-skilled jobs for Britain. We are now firmly focused on the next stage of our automotive project.” In September 2017 Dyson revealed it would be investing £2bn into the development of a battery electric vehicle platform for launch in 2021.
The company also recently trademarked the terminology ‘Digital Motor’ for automotive use. Previously used only on its household products, the Digital Motor moniker describes a brushless permanent-magnet synchronous motor — the same type found in many electric vehicles currently on the market.
The trademark, filed recently for the European market, applies to both cars and non-road-going machines, although the use of the trademark in an automotive context is a first for the company. Dyson’s first car is due next year and the brand also wants to grow its EV programme workforce by 300 people in a bid to ramp up the pace of development before the vehicle reaches the market.
The Walney extension has just recently opened, it sits just off the to the Cumbrian Coast in the UK and the opening makes it the UK’s largest wind farm site.The site already has 102 turbines located on their site, the Walney Extension means the installation of around 90 more wind turbines. The wind farm, which sits in the Irish Sea about 19km off Barrow-in-Furness, now covers an area of around 145 square km. “The UK is the global leader in offshore wind and Walney Extension showcases the industry’s incredible success story,” said Matthew Wright, UK managing director for Ørsted, which owns the wind farm. The 659-megawatt project can generate enough green energy to power almost 600,000 homes. It overtakes the London Array in the Thames Estuary as the world’s biggest wind farm.
“Record-breaking engineering landmarks like this huge offshore wind farm help us consolidate our global leadership position, break records for generating renewable energy, and create thousands of high-quality jobs,” said Energy and Clean Growth Minister Claire Perry. The Extension brings the total capacity operating out of Barrow to 1.5 gigawatts, which is enough to power more than 1.2 million UK homes. Ørsted’ s ongoing operations and maintenance activities will support more than 250 direct jobs in the region. The Walney Extension features 40 MHI Vestas 8MW turbines and a further 47 Siemens Gamesa 7MW turbines, with blades manufactured in Hull and the Isle of Wight. According to Ørsted, the project has worked with more than 50 key suppliers from across the UK, supporting the growth of offshore wind ‘clusters’ around the country.
We are closer to Bionic Eye than we have ever been. A team of researchers who represent the University of Minnesota have successfully 3D printed an array of light receptors on to a hemispherical surface. This really is a huge step towards creating the “bionic eye”. Obviously this would revolutionise the current procedure to helping blind people or sighted people see better.
“Bionic eyes are usually thought of as science fiction, but now we are closer than ever using a multi material 3D printer,” claimed Michael McAlpine, co-author of the study and University of Minnesota
Initially the research started when they overcame the challenge of printing electronics onto a curved surface. They successfully got the electronics onto a hemispherical glass dome to demonstrate how they jumped this first hurdle. Then using their advance 3D printer they painted a base layer of ink (silver particles). This ink did its job and stayed in place once dried, this is what they wanted rather than having the ink run down the dome. Then the researchers used semiconducting polymer materials which succeeded in printing photodiodes (their role is to convert light into electricity).
In the Douro region, a place in northern Portugal is set to receive a major economic boost as a massive £1.5 billion investment in renewable energy. Hydro energy which is what will be invested in, in the Douro area. Three new dams and a power plant is planned to be built by the Spanish utility board, Iberdola. The plants will be located on the Tâmega and the Torno rivers, tributaries of the larger Douro, which rises in Spain and flows across northern Portugal to the Atlantic Ocean. Iberdola the parent company of Scottish power will start operating a new infrastructure in 2023.
“The development of the Tâmega hydro power scheme involves three of Iberdrola’s core strategic undertakings,” said Ignacio Galán, chairman and CEO of Iberdola. “Investing in clean generation capacity, the development of new storage capacity – with pumped hydro being the only technology to store large amounts of energy efficiently – and sustainable financing. 23 per cent of our financing is already green, which highlights our commitment to sustainable development.”
The Iberian market are set to receive up to 1,760GWh and 13,500 new jobs will be created in the Douro region during the construction phase and several hundred jobs would be made permanent after to keep up with the maintenance of the dams. Funding from the European international bank of around £650 million was confirmed in Madrid later.
“This agreement represents a new step towards the implementation of the EU energy policy and climate action objectives,” said EIB vice-president, Emma Navarro. “This EIB financing will support the increase of renewable generation in the Portuguese energy mix and will contribute to a sustainable and secure supply of energy. The EIB, which stands ready to step in to finance sound projects that meet our criteria and respond to EU energy policies, is particularly committed to financing green energy projects across the Union.”