Alistair McClymont recently completed a three-month residency at the Central Laser Facility - an opportunity made possible by The Arts Catalyst with ArtQuest. Alistair's previous work has included making night-time rainbows, suspending raindrops in mid-air and creating tornadoes with deceptively simple machines. A UK based artist working in sculpture, photography and video, McClymont describes these as ‘phenomena’ artworks, in which he tries to capture natural, often overlooked occurrences and evoke a sense of wonder.
The Central Laser Facility (CLF) produces some of the world’s most powerful light beams, providing scientists with an unparalleled range of state-of-the-art laser technology. These high powered lasers are used to recreate the extreme conditions inside stars and planets, others can reveal intricate detail on a microscopic scale enabling scientists to build up a complex picture of the exact molecular interactions that lead to disease. The CLF also uses laser beam 'tweezers' capable of holding individual micro-droplets that make up clouds helping scientists gain an insight into climate change.
Dr Ceri Brenner is a Physicist who enjoys communicating the extreme and inspiring science that she and others carry out at the Central Laser Facility, Rutherford Appleton Laboratory.
Alistair McClymont describes his recent project, "My goal with this project is to investigate the strong similarity I see between scientists and artists, I wanted to do this by taking part in their experiment. My hypothesis is that both ultimately search for truth and both see beauty in that truth.
Victoria Embankment, West Goods Entrance
London WC2R 1LA


Innovating the future
Phenomenal changes in the world demands out of the box extended innovative technologies to meet the needs and comforts of the society.
Aibot Ink continuous efforts and research towards these innovative solutions and products is a game changing in the field of Aviation, Robotics and Renewable Energy technologies.
Internet of Things
Aibot Ink’s in-house developed advanced middle ware and tools are highly efficient and easily integrated into the various devices domestic or industrial. These intelligent bots enables the tools to communicate efficiently and make decisions as per the needs of the user.
Our devices are secure and highly reliable and get the work done without any worries.
Robotic Process Automation
Aibot Ink advanced process automation involves intelligent software combined with machine automation tools that can seamlessly integrate into the existing systems and make them highly efficient and productive. It is the combination of both software system and the hardware be it the computers, machinery that makes the automation effective for a better outcome.
Our RPA integrating platforms are highly efficient and precise to the human actions whereby the automation of the processes are more accurate. Aibot Ink’s RPA processes are highly scalable, cost effective and faster ROI for any organisation.
Aibot Ink advanced innovation labs are constantly in search of efficient and more rapid transport systems that are capable of handling the ever growing needs of society.
Our innovative and highly efficient UATV's are designed making them light weight, more luggage carrying capacity and longer distances. Driven of advanced artificial intelligence our vehicles are equipped with latest in-house developed batteries that can be recharged mid-air without the need to halt for recharge or replacement of batteries.
Alternate Energy Resources
Aibot Ink scientists are in constant research and development of efficient alternate energy resources and our new energy storage technology is a innovation in the future needs. The new technology energy storage cells are integrated with built in AI technology that would enable them to intelligently store and deliver the energy based on the environment and the application.
It is a revolutionary innovation which is proven and awaiting commercialisation.


Kia Soul EV Used to Test New Wireless Charging System
In this day and age, we are more reliant on electronics than ever before. We love using our phones and tablets to take pictures, surf the internet, keep tabs on our finances, listen to music, and more. But once the battery is down to 10%, we start to get a little anxious. Luckily, there are wireless charging devices (including ones that can fit in the console of your Kia) that can re-juice your device in no time. And now, thanks to an innovative project from Hyundai-Kia America Technical Center, Inc. (HATCHI), drivers of electric vehicles like the Kia Soul EV may get to enjoy wireless charging in the future!
This new technology innovation was created in conjunction with Mojo Mobility, Inc. (Mojo) over a 3-year time frame. Essentially, it recharges an electric vehicle via an electromagnetic field between a receiver on the bottom of the electric vehicle and a transmitter installed in the floor of your garage. All you would need to do is park your electric vehicle on top of the transmitter and let it do its thing! The wireless charging would allow for an 85% charge so you can conveniently drive to your next destination without worry.
We all know that there are days where you cannot park straight to save your life. With the wireless charging technology from Kia, your electric vehicle will still be able to get juiced up when the transmitter and receiver are not perfectly matched up!
Will the Wireless Technology from Kia Be Available Soon?
As of right now, there are no plans to put this exact version of wireless technology into production, but don’t lose hope! We might be able to see something similar (or better) from Kia in the future as the demand for electric vehicles increases. So keep following our blog for the latest news and details!


As part of IBM’s Global Services organization, the HPSS team in Houston offers a variety of services, including storage systems consulting services.
HPSS systems engineers collectively represent over one hundred years of experience dealing with mass storage system deployment, hierarchical storage management, data storage system technology insertion and sunsetting, data repository migration, and related requirements for customers worldwide. Using proven systems engineering methods, the engineers follow a rigorous process to analyze requirements, develop a system-level architecture, propose design alternatives, validate requirements against possible solutions identifying remaining gaps, and provide recommendations for follow-on actions and closure. Services are tailored to specific needs, including phased approaches that logically sequence tasks allowing the scope of services to be adjusted based on time and budget constraints.
For additional information on how the HPSS team can serve your storage systems needs, please contact Jim Gerry at email@example.com.


What is InviziTrak?
InviziTrak is a piece of filmmaking equipment that allows green screen tracking markers to be recorded separately from the main footage, allowing the compositor to have a set of marker-free frames for chroma-keying and a separate set of frames with tracking markers for match-moving.
How does it work?
Footage is usually shot with a shutter angle of 180 degrees, which means the shutter is only open for half of the frame period. Mechanical film cameras needed to use the time when the shutter was closed to advance the film to the next frame, but digital cameras are actually able to acquire another frame when the shutter would normally have been closed anyway. This can be achieved by setting the camera to shoot at twice the frame rate, and setting the shutter angle to 360 degrees. InviziTrak uses lasers to project tracking markers during this additional frame, and turn them off during the normal frames. The resulting footage will have frames that alternate between having tracking markers and being marker-less.
In post production, the frames with tracking markers can be split off into a separate stream, leaving the footage identical to footage shot at the normal frame rate with a 180 degree shutter angle. There is no loss in quality, motion blur, or light exposure, except now there are no longer any tracking markers that need to be painted out. The tracking markers are all contained in the separate stream, which can be used to calculate the match-move. The match-move will be offset by half a frame, but interpolating the coordinates by half a frame will produce an extremely close approximation in most cases. For jerky shots, a select number of tracking markers can be left on for both set of frames, which improves the match-move but still greatly reduces the number of tracking markers that need to be removed. An additional benefit of InviziTrak is that the duration of the laser pulse can be as short as 1 millisecond, which greatly reduces the amount of motion blur on the tracking marker on fast camera movements.
InviziTrak contains a few pieces of hardware: a sync transmitter, one or more tracking marker projectors, and an iPad with a custom app for control. The sync transmitter extracts the shutter timing from the HD-SDI monitor feed or a TTL shutter sync pulse from the camera, and wirelessly synchronizes the tracking marker projector with the shutter (synchronization from genlock, analog video, and other camera sync outputs will become available in the coming months). The transmitter can synchronize multiple projectors within its radio’s range, typically a few hundred meters.
Each tracking marker projector can control six laser modules. Each laser module is mounted on an adjustable ball joint and can be fitted with different optics to generate dot grids or crosshairs to suit the environment. The brightness of the lasers is similar to that found on green laser pointers; bright enough for most lighting conditions, but not so powerful as to be hazardous. The lasers are also dimmable to adapt to various lighting conditions.
The tracking marker projector comes with several mounting options: Junior/Baby pin for stands, 100x100 VESA for monitor mounts, and Omega twist-lock clamps for overhead lighting grids. For power, it has a 110-220V Neutrik PowerCON input and output connectors, and it also has a Anton Bauer battery bracket for portable use.
InviziTrak comes with an iPad controller with a custom app that lets you adjust the projector’s timing and laser settings. Multiple projectors can be synchronized to the same transmitter, and each laser can be individually configured. When viewing on a monitor at the final desired frame rate (e.g. shooting at 48 fps and viewing at 24 fps), a switch on the iPad app makes the projector place the marker on the alternate set of frames, so that you can preview both sets of frames.


Teletrac Navman CAT 6 Tracker
It is essential that transportation vehicles arrive at their destinations safely and securely. Transportation vehicles can be seen as easy targets and are often under threat of attack – so van/lorry security and passenger safety is essential.
Dashteq are able to offer Live Recording System Technology, which offers fleet operator’s unrivalled information, which is vital in the monitoring of goods in transit and driver behaviour. Footage is continually recorded onto a DVR which is installed within the vehicle using a combination of bespoke cameras.
We are able to offer a range of solutions, from a single camera solution through to 16 cameras for larger vehicles. Data is stored onto the DVR but can be accessed remotely via an OnCloud portal, streaming live and historic footage with as little as a 2G network connection (3G & 4G available). Users can remotely view live camera feeds and recordings in real time from up to 70 various sites.
Users can configure alarm notification types and receive real-time alerts whenever a potential security breach has occurred. Mapping software with integrated video for tracking vehicle’s location, speed and direction of travel are fully supported.
We offer a range of cameras and monitor systems to suit your vehicle application.


- Universal Compatibility: Designed for VR gaming on Quest 2, Quest 1, Quest Pro, and Pico 4. Comes with dual functionality of USB-C to USB-C and USB-A to USB-C.
- Innovative Design: Features a premium aluminum head, robust tinplate casing, and an L-shaped USB-C port for enhanced pull-resistance. Tailor-made for gaming enthusiasts.
- High-Speed Performance: Experience ultra-fast data transfer with USB 3.2 supporting up to 5Gbps speed. Perfect for connecting your VR headset to Steam VR Games for seamless gameplay.
- Extended Length for More Freedom: Offers a long 16ft (5m) length, giving you non-restrictive movement during your gaming sessions. Comes in two material variants - durable black nylon braid and soft white TPE.
- Smart Power Management: Supports 2A current for data. USB-C connection allows simultaneous gaming and charging. Note: Avoid using this cable with a low-battery Quest 2.
Find the frequently asked questions and information about this product.
Is my XR HMD being charged when connected to my PC using the Link Cable?
Charging mode is exclusive from Streaming and Data Transferring mode. It may barely sustain the battery during the gameplay but not add more juice.
What's the exterior material of the link cable? Is it made of rubber cord, or braided cord?
Braided for the black-color cable and TPE for the white one.
Does this cable support USB-C Port or USB-A Port?
Both, It supports USB-C, and USB-A port with an attached adapter.


Who We Are
Some companies provide only hardware. Some provide only software. Virtual Wonders goes beyond just that. Get ready for a fully interactive, hands on experience.
We are a group of technology driven individuals who have combined the best components out there to create solutions that other companies simply cannot compete with.
Through years of experience and client feedback, we are proud to have such state of the art technology like holographic displays (Holocube & Dreamoc) as well as interactive video walls.
Our mission at Virtual Wonders is simple - to connect people to technology in ways traditional formats cannot while simplifying the buying process.
Ever get a 3 page quote from a supplier for just one product? What about buying a cool piece of hardware but never really using it to its full potential?
We aim to simplify the process while offering products and services that stick out from the rest. We look at connecting people to technology, not the bottom line.
Technology advances at a rapid pace. So do we.
Receive straightforward quotes, ideas and solutions.
Contact us anytime and expect a response quickly. Communication is key.


- Enter your Teacher ID found at the top of your Home Energy Worksheet here.
- Complete the form to the best of your ability. If you are unsure of an answer, please leave it blank.
- Once submitted, please record the confirmation number on the top of your Home Energy Worksheet and return to your teacher.
- Fill out the paper worksheet and return it to the classroom teacher.
By returning the Home Energy Worksheet either online or to their teacher before the December 2020 deadline.
How long do LED bulbs last?
LED bulbs last up to 25,000 hours and may reduce the energy used for lighting in your home by about 80 percent over a traditional incandescent bulb. LED bulbs are efficient because they emit very little heat compared to an incandescent bulb, which releases 90 percent of its energy as heat.
Where can I use LED bulbs?
LED bulbs can be used almost anywhere less efficient bulbs are used: in recessed lighting, table lamps, ceiling fixtures, porch lights, holiday lights and more. The savings can add up. Upgrading 15 inefficient incandescent bulbs in your home could save you about $50 per year. Since most of the bulbs also have longer life spans, you’ll continue to save into the future. Nationwide, lighting accounts for about 10% of home electricity use... (Source: energy.gov, accessed January 2019.)
How safe are LEDs?
LED bulbs are much cooler than incandescent lights, making them a safer bulb. They are sturdier than other bulbs because they are made with epoxy lenses, not glass, and are more resistant to breakage.
How do I know when to replace my LEDs?
One of the benefits of LED bulbs is that they need to be replaced much less often. A string of LED holiday lights could be operating for 40 seasons! An LED bulb typically does not “burn out” or fail like other light sources. Instead, an LED will decrease the amount of light it produces at the end of its useful life. Before removing an LED bulb from the socket, make sure the light switch is turned off. Carefully unscrew the LED bulb. You may visit earth911.com to find locations in your community that recycle LED bulbs. (Source: energy.gov, accessed January 2018)


Covert Surveillance Glasses with a nearly invisible camera lens set in a modern black frames and clear eyeglass. No other video glasses perform better with the ability to record high definition 720p video footage. The built-in rechargeable battery allows for about 70 minutes of continuous recording in between charges. Equip operatives with the best hidden camera glasses on the market.
Video Glasses with HD Color Camera and Built in Recording
Covert Surveillance is smoother than ever with these hidden camera glasses. Discreet and a trustworthy investigative tool, they provide concealed high definition video with the one-touch recording.
- Stand-alone DVR
- 720p HD Color Video Footage
- Invisible Camera Lens on Frame
- One Button Design
- Vibration Alert: On-Recording/Power off/ Low Battery
- Time & Date Stamp
- Charging LED Indicators
- LawMate Product #PV-EG20CL
These Covert Surveillance Glasses are extremely user-friendly. Get the device operational by plugging in the mini USB into the glasses' USB Port then plug the other end into a power source. Once green LED light has turned off the device will be fully charged. While your glasses are charging format the memory card on a computer, set the date and time stamp by creating a text file and saving it into the root directory. After fully charged, insert the included micro memory card into the slot with your hand (use the provided tweezers to remove.) Power on and automatically begin recording with one long touch on the side of the glasses. A long vibration indicates the recording has started. Power off by the same button, two short vibrations will indicate the device is powered off. If the LawMate Covert Glasses don’t have a memory card, it will vibrate 20 times and power off. If memory card is full, it will vibrate 5 times and power off. When the memory card becomes full the LawMate Covert Glasses will shut down by itself. When the battery is low it will vibrate 3 times. Download data by connecting the glasses with the mini USB cord to a computer.


NEW Cancer Council UV Meters
Following the sell out success of the first generation of Cancer Council UV Meters we are pleased to advise that our new model is almost ready.
The new unit will feature automatic internet connection, simplified installation and reduced operating costs.
Our aim with this design was to achieve a solution that allows you to simply mount the unit on a wall or a pole and switch it on.
We anticipate that the new meters will be available in June 2018.
Why a UV Meter?
With the high rates of skin cancer in Western Australia, SunSmart WA is always looking for innovative and engaging ways to encourage people to protect themselves from the sun.
Many people believe that solar UV radiation is only significant when the weather is hot. The reality is that in Western Australia, the UV levels can be high enough to cause skin damage most of the year. UV meters provide a way to know when UV is high or low and when sun protection is needed each day.
Meters provide a minute by minute reading of solar UV radiation at your location. Designed with its own UV sensor, it reports the UV using the World Health Organization’s UV index, a measure of UV strength and skin damage risk.
About the meters
UV meters are designed for the outdoors, and are robust and weatherproof. The large display digits let people know the current UV level, and this simple signage indicates what sun protection is required. Our standard UV meters are single sided; the display digits are fitted to one side of the meter. However if you would like a meter installed on a pole or other free standing structure, digits can be mounted on both sides of the meter. Once installed the UV meter requires very little maintenance other than a superficial clean.
Why are UV Meters connected to the internet?
Cancer Council UV meters require internet connection. This allows Cancer Council to remotely monitor and calibrate the meters to ensure ongoing accuracy. Firmware updates can also be delivered to the meter via the net. UV meters are connected to the internet via an inbuilt modem using the mobile phone network. Meters come pre-configured with a data plan and require no customer input to connect to the net.
UV Meters in schools
Schools will find these a valuable tool to support their existing sun smart policy. Meters remove any confusion about when children need to wear their hats and apply sunscreen. Data from the meters is downloadable and useful in education programs including maths, IT and science.
UV Meters in the workplace
If you have staff who work out doors, a UV meter is an ever changing reminder of the need for them to be careful in the sun. Unlike static signs which become “invisible” after a while, the UV meter retains attention because it changes throughout the day. It creates interest and conversation about the sun.
Single sided UV meters, $3815 +GST. (AUD)
Double sided UV meters, $4715 +GST. (AUD)
Freight and installation costs are not included.
For more information, please contact us at email@example.com or on (08) 9388 4364.
Terms and Conditions of sale
Meter Mounting Dimensions


This three-day training is for data engineers, analysts, architects; software engineers; IT operations; and technical managers interested in a thorough, hands-on overview of the Apache Spark platform. Each topic includes slide and lecture content along with hands-on use of Spark through the elegant Databricks web-based notebook environment. Inspired by tools like IPython/Jupyter and Matlab, Databricks notebooks allow attendees to code jobs, data analysis queries, and generate visualizations using their own Spark cluster, accessed through a web browser.
You will benefit from the SPARK Programming training if:
The training covers the core APIs for using Spark, fundamental mechanisms and basic internals of the platform, SQL and other high-level data access tools, as well as Spark’s streaming capabilities and machine learning APIs.
How to describe Spark’s fundamental mechanics
Create Streaming and Machine Learning jobs
Please, bring your own laptop to the training. We will use the following software during this training. Please, make sure your laptop has them installed: Chrome
Xebia Academy is a Databricks certified Training Partner delivering Databricks Spark training with a Databricks certified Spark instructor.
Dagopleiding 9:00 - 17:00Datum
Op aanvraag beschikbaar


About PV Nano Cell
Standing at the forefront of the industry, PV Nano Cell is the developer of the state-of-the-art Sicrys™ portfolio of conductive inks designed to meet and exceed the demands of printed electronics inkjet applications for customers worldwide.
Designed to enable additive digital printing processes in the mass production of manufacturing electronic devices, the Sicrys™ portfolio of inks includes single crystal nanometric silver and copper based conductive inks built to deliver enhanced performance. Sicrys™ conductive inks can be used for a variety of industrial digital printing applications including printed circuit boards, antennas, sensors, smart cards, touchscreens, advanced packaging, photovoltaics and more.
Sicrys™ inks are formulated with single crystal nano particles in both silver and copper metals, which enable additive manufacturing through digital printing in mass production applications.
When digital printing processes are implemented with Sicrys™ inks, the production process becomes efficient, while also providing new design capabilities.
At PV Nano Cell, we strive to provide customers with complete solutions to replace analog production processes such as screen printing, and in some cases photolithography. We work in conjunction with printer manufacturers to bring printers together with the ink and process best suited for the customer’s needs.


Gearlab Engineer Designs a Device to Test Stress on a Paddle
By Declan J. Nowak
What is the mechanism you created?
I designed an Arduino powered force sensor that recorded the force exerted by a paddler’s hands on a paddle. An Arduino is a small lightweight microcontroller that is perfect for data recording applications because it is capable of recording information to an SD card. The device used two force sensors wired to the Arduino (shown in the images below). The force sensors were mounted on moldable plastic frames to fit around a forefinger and thumb. While the sensor would work without a frame to hold it, the force sensor delivers better results when it makes contact between two hard surfaces (paddle and frame), rather than one hard surface (the paddle) and a compressible surface (skin).
What is the premise you hope to achieve with this mechanism?
The goal of the sensor is to measure the force of water on the blade of the paddle. Initially, I tested under “ideal paddling conditions”, which would be a kayaker performing a standard Greenland stroke in calm weather/water conditions. This measurement under ideal conditions will act as a control value to compare the stress on a paddle during rougher water conditions and more strenuous strokes.
Since the blade of the paddle is submerged in the water, it experiences a distributed load from the water, which is challenging to accurately measure. The easiest way to measure this force is through force analysis, which requires identifying the forces applied by the paddler’s hands to calculate the force on the blade of the paddle. Using the sensor, I was able to determine the maximum force a paddler is likely to apply in ideal paddling conditions. With this knowledge, we can compare the results of testing a paddle in many conditions (various strokes and water conditions) to the results recorded in a controlled environment. Knowing the stress point at which a paddle will break in controlled lab tests, and what the average force of a paddle stroke is, Gearlab can ensure that every paddle will handle tough conditions and more than meet the customers’ expectations.
How did you conduct testing?
After programing and wiring the sensor, I attached the frames to my hands and placed the Arduino in a dry bag. I proceeded to paddle around a cove for several minutes while I performed different types of strokes. I used a Greenland forward paddling stroke, brace strokes, and sweep strokes to simulate the standard usage of the paddle. While I paddled, the data was recorded on an SD card. I subsequently downloaded the data onto a spreadsheet and calculated the force on the blade of the paddle for each stroke and graphed it.
What were the results of your testing?
After running the test and calculating the force on the blade of the paddle, I graphed the force to see how it changed as the paddle was used. Each data point on the graph was obtained every tenth of a second. The data shown in the chart represents about 41 seconds of paddling. The data used was the middle 41 seconds of the total 3 minutes of paddling, to exclude the initial force exerted when launching or the deceleration of force when stopping. I determined from the testing and the force analysis that the maximum force was 26.7 kg on the blade of the paddle. From separate lab tests, we already knew that the paddle could easily withstand 50 kg of force in a standard stroke. It required over 70 kg of force during a sweep stroke to break a paddle during laboratory testing. A sweep stroke generates greater stresses within the paddle than a standard paddle stroke since the force is applied at a greater distance from the paddler’s hands. This shows that the maximum force of the paddle is more than double the maximum force on the paddle under normal operating conditions.
*To simplify the graph, no data is recorded when the sensors registered a force of zero.
**While the analysis states that the units of kilograms are a force, the paddle is actually moving the mass of water. The force on the paddle will depend on how fast the paddler is accelerating. For the purposes of this experiment, I assumed that the paddler’s acceleration was the same as the acceleration due to gravity—which is significantly more than the rate a paddler would be accelerating.
How does this serve the consumer?
Gearlab can utilize these results to better serve the consumer by continuing to test their existing paddles to ensure that they will meet the consumer’s expectations. Concrete understanding of the force that a paddle can withstand will assist Gearlab in developing paddles that will withstand all paddling conditions. The idea for this project arose when Gearlab engineers realized that we didn’t know exactly how much force is applied to the paddles during various water and stroke conditions. The best way to begin testing the paddles was to utilize ideal paddling conditions to determine the baseline (“control value”) of stress exerted on a paddle in use. With this information, Gearlab can now stress test their paddles in a controlled way to make sure each paddle that is shipped out will more than meet the customers’ expectations.
How does this serve the brand and product development?
While each kayak paddle company has their own internal standards for product development, Gearlab is working toward establishing a universal standard. This new standard will allow for the consumer to compare the strength of paddles manufactured by different companies, the strength of various lengths and widths of Greenland paddles, and even compare the strength of different types of paddles (such as Euro blades versus Greenland paddles.) The first step was to create a method to calculate the stress on a paddle. The real world test using the sensor while paddling on the water validated the tests that Gearlab conducted in a controlled laboratory setting since the results were similar.
What will this mean to Gearlab as it communicates to the consumer?
This process will allow Gearlab to test their paddles in another manner before sending them to the consumer. While this has not been a problem in the past, Gearlab will have a more definitive metric to test their paddles against to ensure that each paddle manufactured performs superiorly for consumers. In addition, establishing a universal metric for paddle companies will allow Gearlab to quantify the superior strength of their paddles compared to competitors’ products.
What are different improvements and advancements that you can look forward to in additional testing?
Moving forward, the goal is to continue to refine the testing apparatus so the data is easier to analyze. One modification will be to program the Arduino to assign a time to each data point. This will allow us to sync the data to a video clip to see how the paddle reacts to different strokes. In addition, continued testing will help Gearlab confirm the maximum forces that the paddle experiences. One of the major assumptions made with this project was to test the paddle in ideal paddling conditions. This was done to eliminate other potential variables, and to make it easy to troubleshoot the sensor if anything went wrong. However, often times these paddles are used in rough water conditions with significant waves and currents. Therefore, future tests will include using the paddle in a variety of different weather conditions to calculate how the forces on the paddle change.


After a 205-day journey through space that covered 300 million miles, NASA’s three-legged InSight probe descended safely after a final, intricate seven-minute maneuver on the red planet Mars to whoops of joy at NASA’s Jet Propulsion Laboratory in California and enthusiasts around the world following live, edge-of-the-seat action on social media platforms. NASA spacecraft ‘InSight’ is designed to burrow beneath the surface of Mars and crack open crucial secrets held deep inside the planet’s rose-hued atmosphere. With Monday’s achievement, Mars has just received its newest robotic resident. It’s been a long wait for NASA’s scientists tracking InSight’s every move since it launched from Vandenberg Air Force Base in California on 5 May. The lander touched down near Mars’ equator on the western side of a flat, smooth expanse of lava called Elysium Planitia – a plain almost as flat as a parking lot – just moments before 3 pm EST.
The InSight team has chosen a “boring” spot for the landing because they want the probe’s two primary instruments, a sensitive seismometer, and an underground temperature probe to be undisturbed – to measure the tiniest fluctuations in the planet’s interior. The mission is expected to last about two Earth years. The stationary 360-kilogram lander will use its 6 feet robotic arm to place a mechanical mole and seismometer on the ground. The self-hammering mole will burrow 16 feet down to measure the planet’s internal heat, while the seismometer listens for possible quakes. No lander has dug deeper on Mars than several inches, and no seismometer has ever worked on the planet.
“Today, we successfully landed on Mars for the eighth time in human history,” said NASA Administrator Jim Bridenstine. “InSight will study the interior of Mars and will teach us valuable science as we prepare to send astronauts to the Moon and later to Mars. This accomplishment represents the ingenuity of America and our international partners, and it serves as a testament to the dedication and perseverance of our team. The best of NASA is yet to come, and it is coming soon.”
Now InSight’s camera has sent back some clearer pictures of the Red Planet, showing a much lighter Mars than you would have imagined. The photo also shows a dusty, rocky surface without any major craters in sight. The new robotic resident sent signals to earth about 12.30pm AEST indicating its solar panels were open and it was collecting sunlight on the Martian surface. The image was relayed from InSight to Earth via NASA’s Odyssey spacecraft, currently orbiting Mars.
NASA last landed on Mars in 2012 with the Curiosity rover. “Landing on Mars is one of the hardest single jobs that people have to do in planetary exploration,” InSight’s lead scientist, Bruce Banerdt, said before Monday’s success. “It’s such a difficult thing, it’s such a dangerous thing that there’s always a fairly uncomfortably large chance that something could go wrong.”
Mars has been the graveyard for a multitude of space missions. Up to now, the success rate at the red planet was only 40 percent, counting every attempted flyby, orbital flight and landing by the U.S., Russia and other countries since 1960.
The U.S., however, has pulled off seven successful Mars landings in the past four decades, not counting InSight, with only one failed touchdown. No other country has managed to set and operate a spacecraft on the dusty surface.


ACM SIGSIM PADS is the flagship conference for the ACM Special Interest Group on Simulation and Modeling (SIGSIM). It continues a long history and reputation for high quality papers. Building upon previous conferences that focused on parallel and distributed simulation, SIGSIM PADS broadens this scope to encompass all innovations that lie at the intersection of computer science and modeling and simulation, emphasizing discrete event simulation models. It spans both sequential as well as parallel and distributed simulation techniques. SIGSIM PADS builds upon the long history of PADS conferences dating back to 1985.
SIGSIM PADS solicits high quality papers dealing with cutting-edge research that lies at the intersection of computer science and modeling and simulation, including (but not restricted to) the following areas:
- Advanced modeling techniques, and their execution using novel simulation algorithms
- Agent-based modeling and simulation,
- Algorithms and methods for parallel or distributed simulation, including synchronization, scheduling, memory management, and load balancing.
- Applications of large-scale or distributed simulation methods.
- Development of advanced simulation engines
- Distributed simulation.
- GPU, FPGA and hybrid architecture acceleration.
- Integration of simulation with other IT systems, including automatic simulation model generation and initialization and simulation based decision-making.
- Mechanisms for efficient design of experiments.
- Modeling and Simulation applied to solve problems in previously difficult or impossible domains.
- Online and symbiotic simulation.
- Parallel algorithms and high performance simulation.
- Real-Time and Embedded Simulation
- Simulation as emulation of real systems.
- Simulation visualization techniques.
- Techniques for constructing scalable simulations.
- Tools and techniques for interoperability of simulations.


The Lié workflow usually means that you would host the plug-in instrument whose parameters you want to control from Touché (SE) inside of Lié. This makes it possible to save both the sound of the plug-in as well as the tailormade Touché mapping in one preset. That way, presets can be easily recalled and modified at a later point. There is a comprehensive video available here: Creating a new plug-in preset.
For this workflow to function though, the plugin you host inside Lié has to support so-called 'host automation' for its parameters. Unfortunately, some plug-ins don't make (all) their parameters available for host automation. Instead, they are meant to be controlled largely by MIDI CC automation. In these cases, you won't be able to map certain parameters with Lié's Mapping Routine. Sometimes, host automation might be well supported, but just has to be manually activated in some way (video: Fixing mapping issues in Lié). In case of doubt, the plug-in's manual will tell you which kind of automation is supported.
If a parameter inside a plug-in that you want to control only reacts to MIDI CCs, it can help to use a Lié hardware preset (originally meant to control external devices). You will need to route the MIDI coming from Lié to a separate track with the plug-in on it. Unfortunately, hardware presets are only supported by the classic Touché, not by Touché SE.
As long as Touché is in Slave Mode (connected to Lié), it will always send MIDI CCs 16/17/18/19 via its USB port, because Lié needs those CCs to speak with Touché. Even if a hardware preset is loaded in Lié, Touché will continue to send the default CCs to Lié, but Lié will translate those to the CCs that are specified in the selected hardware preset (compare the video tutorial Signals sent in Slave Mode).
In order to to forward the CCs that are specified in the selected hardware preset to another track, you will need to get those CCs out of Lié's MIDI output instead. Simply choose "Lié" as MIDI input for the track that has the plug-in loaded in it.
Please be aware that the forwarding of MIDI messages as described above will only work with the VST version of Lié. It isn't workable when using the AU version of Lié due to an inherent limitation of the AU format.
This workflow is explained in a comprehensive tutorial video where MIDI CCs from Lié are forwarded to a Kontakt sample library inside Steinberg Cubase: https://www.youtube.com/watch?v=wqOvRJOycCU
Here is another basic screen recording, that shows a similar process with Ableton Live and Falcon:
Another example with Studio One and Arturia Analog Lab 2:
Touché SE doesn't support hardware presets, but it can still send up to 4 MIDI CCs + pitch bend. However, this is only possible when Touché SE is in its Standalone Mode (salmon colored LEDs). For the moment, as Touché SE owner, if a plug-in does not support host automation, instead of adapting a hardware preset, you would customize the MIDI Setup of Touché SE. You need to configure and save the MIDI Setup of Touché SE in a separate process, and then close any instance of Lié in your project in order to send Touché SE into its Standalone Mode (salmon colored LEDs). That way, you can end up with your SE sending the same CCs as the flagship Touché is able to send. It's just not possible to adapt the MIDI Setup while checking results in real time, and you are limited to one sole MIDI Setup with a maximum of 4 CCs being sent.


First National Bank Technology Center
The First National Technology Center is a state-of-the-art, operations and processing facility for the critical functions of a locally based bank. This facility is one of the first commercial buildings in the United States to use fuel cells to generate power and is the first in the country to use four parallel fuel cells to supply a critical computer load. Due to the critical nature of the operations, the building is "hardened" relative to the physical construction as well as redundant and self-sustaining power systems.
Fuel cells generate electricity in an electrochemical reaction by combining hydrogen from natural gas with oxygen to yield electricity, water, and very small amounts of air pollutants. They are clean, quiet, and efficient. Other environmental and financial benefits of fuel cells include: lower operational costs without compromising reliability or redundancy, as well as the use of clean energy.
The system has extraordinary reliability. Independent verification indicates 99.999997% availability. This calculates to a predicted downtime of less than 1 second per year—the first electrical infrastructure documented with this level of availability.


The Arts Science and Technology Educational Corporation of Tehachapi is a 501(c) non-profit organization that was formed in 2009 to support education in the Tehachapi Valley.
All of our work is aimed at schools in the Tehachapi Valley and we exist solely for the benefit of our students and teachers.
Recently, through a generous grant from the Mark and Jessie Milano Foundation, the AST was able to inject new life into a group of three FIRST (For Inspiration and Recognition of Science and Technology) LEGO League robotics clubs at Jacobsen Middle School.
The Mark and Jessie Milano Foundation's donation of $2,000 to AST came at a very opportune time. For the past six months, AST had been trying to find a donor that could help us buy three new laptop computers and new robotics kits for these FIRST LEGO League teams.
Most of the teams' old laptop computers could not operate the new programming software for the robots and the few that could had batteries that could only provide power for short periods, if at all. Likewise, the robotics kits the teams used were rapidly becoming outdated for use in the increasingly complex competitions.
Each year the teams compete in robotics challenges that not only hone their computer programming and robotics skills, but also present them with pertinent problems that they could expect to cope with in adult life. For example, this year's challenge is called Nature's Fury and, in addition to learning about robotics and technology, the teams will be working with safety and hazard prevention personnel to create innovative solutions to a problem related to natural disasters.
FIRST LEGO is part of the bigger picture of STEM (Science, Technology, Engineering and Math) education. As stated by the founder of FIRST LEGO, Dean Kamen, inventor of the Segway Scooter, the goal of FIRST LEGO League is "to transform our culture by creating a world where science and technology are celebrated and where young people dream of becoming science and technology leaders." One of the ongoing goals of STEM educators is to get more females interested in STEM careers.
The Jacobsen FIRST LEGO robotics team are doing their part, as 13 of the 29 students on the three teams are female.
One team, in fact, consists of nine female middle school students and one male.
The Jacobsen teams are coached by Thane Lundberg, Nate Howard, Valinda Jockinsen and Kurtis Jackson and the overall program is coordinated by Darcy Hubbard.
The teams have a practice competition on Oct. 26, and then competitive meets start in December.
The JMS teams have done exceptionally well in past years, and this year's teams are looking to keep the momentum going forward. Some of the team members are shown below, hard at work building their robots to meet the requirements of the Nature's Fury mission.
Thanks to the generosity of the Mark and Jessie Milano Foundation and the work of AST, a hard-working group of volunteer mentors are helping ambitious and talented students to learn the STEM skills and teamwork that will be needed by our future workforce.
Anyone interested in helping AST or the robotics clubs can contact Joel Beckmann at firstname.lastname@example.org.


What is a motherboard?
A motherboard, often referred to as a mobo or mainboard, is like the beating heart of your gaming PC. It's a crucial component that houses the CPU (Central Processing Unit), RAM (Random Access Memory), GPU (Graphics Processing Unit), and various connectors for peripherals. In essence, it's the central hub that allows all these parts to communicate and work together seamlessly.
For gamers, the motherboard is a critical choice. Different motherboards support specific CPUs and GPUs, so selecting the right one is essential to ensure top-notch gaming performance. Motherboards come in various sizes too, like ATX, Micro ATX, and Mini ITX, which can affect your PC's form factor and expandability. In a gaming PC, the motherboard's role is akin to a referee, ensuring that your CPU, RAM, GPU, and other components work together harmoniously, delivering the immersive and lag-free gaming experience every gamer craves. So, whether you're building a gaming rig from scratch or upgrading your current setup, choosing the right motherboard is a pivotal decision for unleashing your PC gaming potential.
How to check what motherboard I have?
Identifying your motherboard is an important step for PC gamers looking to upgrade or troubleshoot their systems. Luckily, you can determine your motherboard's model and specifications easily:
Check the System Information:
- For Windows: Press Win + R, type "msinfo32," and hit Enter. In the "System Information" window, look for "Baseboard Manufacturer" and "Baseboard Product" under "System Summary." This will provide you with the motherboard's manufacturer and model.
- For macOS: Click the Apple logo, select "About This Mac," and then click "System Report." In the Hardware section, look for "Model Identifier" and "Motherboard Hardware."
Open the Case:
If you're comfortable with hardware, you can power down your PC, open the case, and physically inspect the motherboard. You'll find the model number printed on the board itself.
During the boot-up process, you can often access your PC's BIOS or UEFI settings by pressing a specific key (e.g., Del, F2, F12). Once inside, you can typically find motherboard information under system information or a similar tab.
Use Software Tools:
There are various third-party software tools that can scan your system and provide detailed information about your hardware, including the motherboard. Programs like CPU-Z or Speccy are popular choices.
If you still have the motherboard's manual or documentation from when you first built your PC, the model information will be listed there.
Knowing your motherboard model is essential for ensuring compatibility when upgrading components like RAM, CPU, or GPU. This information also helps when seeking support or drivers for your specific motherboard.
How to update motherboard bios
Updating your motherboard's BIOS is a crucial task for PC gamers, as it can improve system stability, enhance compatibility, and unlock new features. Here's a step-by-step guide to help you with the process:
Identify Your Motherboard: Before updating your BIOS, it's vital to know your motherboard's exact model. You can typically find this information in your motherboard's manual or by checking the manufacturer's website.
Download the Latest BIOS Version: Visit the manufacturer's website and locate the support or downloads section. Enter your motherboard model, and you should find the latest BIOS version available for download. Ensure it's compatible with your motherboard.
Prepare a USB Drive: You'll need a USB flash drive to store the BIOS update file. Format it to FAT32 for compatibility.
Backup Your Current BIOS: Enter your motherboard's BIOS settings (usually by pressing Del, F2, or another designated key during startup) and find the option to save your current BIOS settings to a profile. This acts as a safety net in case anything goes wrong during the update.
Update the BIOS: Copy the downloaded BIOS file to your USB drive. Then, restart your computer, enter the BIOS settings again, and find the option for updating your BIOS. The location and wording can vary between motherboard manufacturers, so consult your motherboard manual for specific instructions. You'll typically be prompted to select the BIOS file from the USB drive.
Follow On-Screen Prompts: The BIOS update process may take a few minutes. During this time, do not power off your PC or interrupt the process. Your PC may restart automatically when the update is complete.
Load Optimised Defaults: After the update is successful, it's a good practice to load optimised defaults within the BIOS settings. This ensures that your hardware runs optimally with the new BIOS version.
Test Your System: Restart your computer and ensure that everything is working correctly. Check for any improvements or new features that the BIOS update may have introduced.
Remember that updating the BIOS carries some risks, so it's essential to follow these steps carefully and ensure you're using the correct BIOS file. Avoid power interruptions during the update, as a failed update can potentially render your motherboard unusable. However, when done correctly, updating your motherboard's BIOS can be a valuable tool for optimising your gaming PC's performance and compatibility.


Nexign, Bubbletone to Develop Blockchain-Based BSS System
By Light Reading.
Saint-Petersburg, Russia - Bubbletone and Nexign today announced a partnership to develop a combined solution which is going to be the first of its kind in the global telecom industry based on both blockchain and BSS technologies. The solution will be a new step in modernisation of BSS-systems for telecom operators worldwide that will enable new monetisation streams by attracting new clients and providing current ones with new types of services.
According to the agreement, Baltic Clementvale LTD, an Estonian branch of Clementvale LTD (an operating company that goes by the brand name Bubbletone), and Ventura Digital Solutions, a subsidiary company of Nexign, one of the leading software and services provider for telecom operators, will be developing a complex technological solution for the exchange of financial and identity information between operators.
As a result, operators will benefit from a standalone BSS with embedded blockchain, enabling them to increase the efficiency of their business through rapid and seamless joining of the Bubbletone platform. Once operators join the platform, they will get an opportunity to expand their client bases as well as provide new services for their clients.
“The idea behind our project is to attract as many mobile operators as possible to the Bubbletone ecosystem and show them how easily they can take full advantage of blockchain technology and get direct access to the international telecom market in the digital economy era. Thanks to our collaboration with Nexign, we will be able to provide mobile operators with a complex solution for smooth incorporation into our blockchain-based platform that doesn’t require any hardware customization or advanced integration processes”, said Yuri Morozov, CEO and Founder of Bubbletone Blockchain for Telecom.
"Nexign has been working on the telco market for more than 26 years. During this time, we have consistently demonstrated our revolutionary approach in creating unique solutions for the industry through focus on business-driven innovation. Blockchain technology has the potential to open up a range of new, exciting opportunities for operators around the world and we are confident that the collaboration between Nexign and Bubbletone will result in an industry-leading Blockchain-based BSS solution that will deliver business value seamlessly on a global scale," said Loukas Tzitzis, Chief Products & Marketing Officer of Nexign.


Introduction to ChatGPT and AutoGPT
OpenAI, a renowned artificial intelligence research organization, has developed two advanced language models, ChatGPT and AutoGPT that are changing the way people communicate and interact with technology. Both models are built on the GPT (Generative Pre-trained Transformer) architecture, but they differ in their functionality, use cases, and capabilities.
ChatGPT is specifically designed for conversational AI, enabling human-like interactions with machines.
AutoGPT, on the other hand, is an advanced natural language processing (NLP) model that can perform a variety of language-related tasks such as translation, summarization, and question-answering.
In this article, we will compare the key differences between ChatGPT and AutoGPT, how they work, their potential use cases, advantages, and limitations, ethical considerations, future developments, and how to choose the right language model for your needs.
ChatGPT vs AutoGPT: Key Differences in Functionality
The main difference between ChatGPT and AutoGPT is their functionality. ChatGPT is a conversational AI model that can generate responses to user inputs, mimicking human-like conversations. It can understand the context of the conversation and generate appropriate responses based on the input it receives. This makes it an excellent tool for customer service, chatbots, and virtual assistants.
AutoGPT, on the other hand, is a more general-purpose NLP model that can perform a range of language-related tasks, such as summarization, translation, and question-answering. It can analyze large amounts of text and generate summaries or translations in a matter of seconds. This makes it ideal for news organizations, language translation services, and content creators.
Read More: ChatGPT will replace which jobs?
How ChatGPT Works: Understanding Conversational AI
ChatGPT works by processing text inputs and generating responses based on the context of the conversation. It uses a pre-trained neural network that has been trained on vast amounts of text data to understand natural language.
When a user inputs a message, ChatGPT analyzes the message and generates a response that is appropriate for the context of the conversation.
The model is trained using unsupervised learning, which means that it is not explicitly taught what to do. Instead, it learns by analyzing large amounts of text data and identifying patterns in the language.
This allows ChatGPT to generate responses that are both relevant and natural-sounding.
How AutoGPT Works: Advancements in Natural Language Processing
AutoGPT uses a similar approach to ChatGPT but with additional advancements in NLP. It is a transformer-based model that has been trained on a massive amount of text data and can perform a wide range of language-related tasks.
One of the key advancements in AutoGPT is its ability to perform zero-shot learning. This means that it can generate responses to questions it has never seen before, based on its understanding of language patterns. For example, if asked “Who invented the telephone?”, AutoGPT can generate a response even if it has never been trained on that specific question.
Pre-Training and Fine-Tuning Differences
Both ChatGPT and AutoGPT are pre-trained on large amounts of text data, but the way they are fine-tuned for specific tasks differs. ChatGPT is fine-tuned by feeding it additional conversational data and adjusting its parameters to improve its conversational abilities. AutoGPT, on the other hand, is fine-tuned for specific tasks such as summarization or translation by feeding it text data that is relevant to that task.
Use Cases for ChatGPT and AutoGPT: Customer Service, Translation, Summarization, and More
ChatGPT and AutoGPT have a range of potential use cases that can benefit various industries. ChatGPT’s conversational AI capabilities make it ideal for customer service, chatbots, and virtual assistants. It can handle basic customer inquiries and provide relevant information to users in a conversational tone. This can help companies improve customer satisfaction, reduce wait times, and lower the cost of customer service.
AutoGPT, on the other hand, can perform a wide range of language-related tasks such as translation, summarization, and question-answering. It can analyze large amounts of text and generate summaries or translations in a matter of seconds. This makes it ideal for news organizations, language translation services, and content creators.
Potential Advantages and Limitations of Each Model
ChatGPT’s conversational AI capabilities offer several advantages such as improving customer service, reducing wait times and lowering the cost of customer service. It can also be used to create personalized experiences for users and can adapt to different conversational styles.
However, one limitation of ChatGPT is its potential to generate biased or inappropriate responses. Since the model is trained on large amounts of text data, it can learn and replicate biases that exist in the data. This highlights the importance of responsible usage and ethical considerations when using language models like ChatGPT.
AutoGPT’s versatility and flexibility make it an attractive option for various industries. Its ability to perform zero-shot learning and generate responses to questions it has never seen before is a significant advantage. It can also handle a wide range of language-related tasks, making it an ideal tool for content creators, translators, and news organizations.
However, one limitation of AutoGPT is that it may struggle with domain-specific or technical language. This means that it may not be the best option for specialized industries that require a high degree of technical language expertise.
Future Developments and Implications
The development of advanced language models like ChatGPT and AutoGPT is a significant milestone in the field of AI. As the technology continues to evolve, it is likely that we will see further advancements in NLP and conversational AI.
One potential development is the creation of models that can understand and replicate human emotions. This could lead to more personalized experiences and better emotional support for individuals.
Another development could be the integration of these models into more devices and platforms, making them more accessible and user-friendly.
Conclusion: Choosing the Right Language Model for Your Needs
Choosing the right language model depends on your specific needs and use cases. ChatGPT is ideal for conversational AI applications, while AutoGPT is better suited for language-related tasks such as translation and summarization.
When using these models, it is essential to consider the ethical implications and ensure responsible usage. As AI technology continues to evolve, it is crucial to approach it with caution and prioritize ethical considerations.


ECO2 is the world's first cryptocurrency fighting against global warming with the goal of using blockchain technology to enhance global warming resistance. Global warming is mainly caused by rising greenhouse gas concentration in atmosphere and carbon dioxide (CO2) is the main part of them. The development of carbon markets and the promotion of carbon neutrality can reduce the emissions of carbon dioxide.
Based on the combination of blockchain technology and carbon market, we will develop more applications to strengthen global climate action and help the global response to climate change under the Paris Agreement, the average temperature rise is controlled within 1.5 °C~2 °C. Let human activities and environment reach a balance as quickly as possible, freeing people from global warming and extreme weather disasters.


Sony’s newest gaming console, the PlayStation 5 (PS5), has gained a lot of buzz in the gaming world. The PS5 has elevated to a favored option among gamers around the world because of its robust technology and excellent graphics. The PS5, however, can occasionally experience connectivity problems, such as being unable to connect to the internet, just like any other electronic device. Particularly for gamers that depend on the internet to play their preferred games online, this problem might be aggravating.
Please know you are not alone if you have trouble getting your PS5 online. Several factors may be at play from old firmware to flawed network settings, and many people have reported experiencing similar issues.
In this article, we’ll look at some of the typical reasons why your PS5 not connecting to internet and provide you with step-by-step directions on how to troubleshoot and fix the problem.
Table of Contents
Common Causes of PS5 Not Connecting to the Internet
There are several reasons why your PS5 not connecting to the internet. You can troubleshoot the problem fast and find a solution if you are aware of the typical reasons.
- Faulty network settings are one of the most frequent reasons for PS5 not connecting to internet. Some other possible reasons can be caused by obsolete firmware, wrong DNS settings, or misconfigured Wi-Fi or LAN settings. Sometimes a faulty ISP or an internet outrage can be the reason.
- The strength of your Wi-Fi signal may also have an impact on your PS5 not connecting to the internet. Your console could find it difficult to establish a reliable connection if the signal is too weak. Also, certain NAT-type restrictions may make it impossible for your PS5 to connect to specific online services or games.
- Firmware issues can cause your PS5 not connecting to internet. If the firmware on your PS5 is out-of-date, it might not support the most recent security patches and protocols that your network needs to connect. Due to this your PS5 may encounter occasional connectivity issues or permanently fail to connect.
- When too many devices are connected to the home network, then your network capacity is shared among all the connected devices. As a result, your PS5 may not be able to connect to the internet. Try unplugging some appliances from your network and limiting the number of devices connected simultaneously to prevent network overload.
How to Fix the PS5 ‘Cannot Connect to the internet Network’ Error
You can try these troubleshooting techniques to fix your PS5 not connecting to the internet issue:
- Restart your PS5 and router: Restart your PS5 and router to improve your network connection and fix any short-term problems.
- Verify your network configuration: Make sure your home network is configured properly and your PS5 is ready to connect to it.
- Get a firmware update: Ensure your PS5’s firmware is current because out-of-date firmware can lead to connectivity problems.
- Restart your router: Your router should be turned off and unplugged for a short while, then plugged back in and turned on.
- Change to a wired connection: Try utilizing an Ethernet cable, as a wired connection is frequently more reliable than a Wi-Fi connection.
- Modify the NAT type: To get around limitations that can stop your PS5 from connecting to particular online services or games, set your NAT type to Open.
- Check your Wi-Fi signal strength: Verify the strength of your Wi-Fi signal. Your PS5 might find it difficult to establish a strong connection if your Wi-Fi signal is weak.
- Contact your ISP: Speak with your ISP: If you’ve tried all of the aforementioned solutions and are still your PS5 not connecting to internet, it’s time to get help from your internet service provider.
Even after trying these procedures, if your problem persists, then you may need to try the following advanced solutions.
The following are some sophisticated troubleshooting techniques to try:
- Port forwarding: Unlock the ports on your router that the PS5 needs to use to access online services or games (port forwarding).
- DNS settings: To utilize a different DNS server, try modifying your DNS settings.
- Factory reset: A factory reset will clear all of the data on your PS5 and return it to its default settings.
- DMZ: Place your PS5 inside a DMZ to allow it unfettered internet access.
- UPnP: To automatically open ports for the PS5, turn on Universal Plug and Play (UPnP) on your network.
Although connectivity problems with your PS5 can be annoying, they can be quickly fixed by following basic troubleshooting procedures like restarting your router and console, checking your network settings, and updating software. Further troubleshooting techniques like port forwarding or modifying DNS settings might be necessary if these methods didn’t work. It is always advisable to seek expert assistance for a guaranteed solution.
Keep exploring gamingmet for more updates on PS5, PS4, how-to guides, consoles, and more.Leave a comment


A new paper providing a framework for standardisation of bio-logging data and led by Ana Sequeira and involving many MegaMove members has recently been published and made the cover of the journal Methods in Ecology and Evolution!
This work is the result of a large collaborative effort involving more than 40 contributors and including key members of the Integrated Marine Observing System (IMOS), Australian Ocean Data Network (AODN), Animal Tracking Network (ATN), Ocean Tracking Network (OTN), and the International Biologging Society (IBLS). The work had its roots at the Marine Megafauna Task Team (MMTT) workshop that took place at the OceansOBS’19 conference in Hawaii in 2019, which was attended by a large number of researchers and also key manufacturers of biologging devices. Together we created a framework that allows data flow from manufacturers through to repositories. Key to this framework are the researchers contributing with biologging datasets and therefore specific attention was paid to ensuring integration of all the necessary information for accuracy-of-use, rightful attribution and data preservation security.
This research provides a valuable addition to the movement ecology literature, and is crucial to the developments of the MegaMove project, especially in current times when data derived from bio-logging devices is increasing at unprecedented rates.


October 2019 Annaba - Algeria
The International Conference on
Embedded Systems in Telecommunications and Instrumentation
(ICESTI’19) aims to provide a discussion forum for scientists,
researchers, engineers, and PhD students about the latest research
results and technological advances in the fields of theoretical and
experimental applications of embedded systems, telecommunications,
signal processing and renewable energy as well as in emerging areas related to the six tracks of the conference.
ICESTI’19 looks for significant contributions to various topics. The conference will also include plenary sessions given by world-class speakers in emerging areas related to the six tracks of the conference.
CONFERENCE TRACKS AND TOPICS
The conference has six major tracks and under each track the conference topics are listed: - Design tools for electronics and embedded systems, - Advanced telecommunications, - Image and signal processing, - Sensors and instrumentation, - Renewable energy, - Computer and industrial engineering.
The topics include but are not limited to:
- Design tools for electronics and embedded systems: Embedded systems and software, System-on-chip (SoC), multiprocessor system-on-chip (MPSoC) platforms and applications, Network-on-chip (NoC) design methodologies, Reconfigurable computing, system design, synthesis and optimization,
- Advanced telecommunications: Circuits and systems for communications, Optical fibers applications: Optical Communications, Sensors, Image, Laser applications in: Telemetry, Lidar system, Anemometry, Computer 3D visions, Range technique, RF and wireless communications,
- Image and signal processing: Image and video processing technology, Compression, coding and implementation, Cryptology and watermarking, Real-time systems,
- Sensors and instrumentation: Data acquisition, Audio, acoustic speech, Biomedical signal processing, Sensor microsystems and industrial sensors,
- Renewable Energy: Management and control of renewable energy, Wind energy, wind energy, biomass, Photovoltaic cells area of solar, at the device level, Electrical battery, hybrid energy,
- Computer engineering: Cloud computing technology , Internet technology,Computer security, Computing networks and data acquisition
Paper Submission Deadline:
Notification of Acceptance:
Final Submission and Camera ready:
Papers should be prepared and written in English. All papers should be submitted according to IEEE standard templates (Paper page limit: 6 pages, including all figures, tables, and references) :
Please use the following link below for the free easychair conference management system to submit your papers electronically.
Contact us at:
ICESTI’19 Conference Chair
Badji Mokhtar Annaba University, Faculty of Engineering, Dept. of Electronics, lerica Laboratory, BP: 12, Annaba, 23000, Algeria


TOKYO (AP) — Japan’s spacecraft arrived on the surface of the moon early Saturday, but it wasn’t immediately clear if the landing was a success, because the Japanese space agency said it was still “checking its status.”
More details about the spacecraft, which is carrying no astronauts, would be given at a news conference, officials said. If the Smart Lander for Investigating Moon, or SLIM, landed successfully, Japan would become the fifth country to accomplish the feat after the United States, the Soviet Union, China and India.
SLIM came down onto the lunar surface at around 12:20 a.m. Tokyo time Saturday (1520 GMT Friday).
As the spacecraft descended, the Japan Aerospace Exploration Agency’s mission control said that everything was going as planned and later said that SLIM was on the lunar surface. But there was no mention of whether the landing was successful.
Mission control kept repeating that it was “checking its status” and that more information would be given at a news conference. It wasn’t immediately clear when the news conference would start.
SLIM, nicknamed “the Moon Sniper,” started its descent at midnight Saturday, and within 15 minutes it was down to about 10 kilometers (six miles) above the lunar surface, according to the space agency, which is known as JAXA.
At an altitude of five kilometers (three miles), the lander was in a vertical descent mode, then at 50 meters (165 feet) above the surface, SLIM was supposed to make a parallel movement to find a safe landing spot, JAXA said.
About a half-hour after its presumed landing, JAXA said that it was still checking the status of the lander.
SLIM, which was aiming to hit a very small target, is a lightweight spacecraft about the size of a passenger vehicle. It was using “pinpoint landing” technology that promises far greater control than any previous moon landing.
While most previous probes have used landing zones about 10 kilometers (six miles) wide, SLIM was aiming at a target of just 100 meters (330 feet).
The project was the fruit of two decades of work on precision technology by JAXA.
The mission’s main goal is to test new landing technology that would allow moon missions to land “where we want to, rather than where it is easy to land,” JAXA has said. If the landing was a success, the spacecraft will seek clues about the origin of the moon, including analyzing minerals with a special camera.
The SLIM, equipped with a pad to cushion impact, was aiming to land near the Shioli crater, near a region covered in volcanic rock.
The closely watched mission came only 10 days after a moon mission by a U.S. private company failed when the spacecraft developed a fuel leak hours after the launch.
SLIM was launched on a Mitsubishi Heavy H2A rocket in September. It initially orbited Earth and entered lunar orbit on Dec. 25.
Japan hopes a success will help regain confidence for its space technology after a number of failures. A spacecraft designed by a Japanese company crashed during a lunar landing attempt in April, and a new flagship rocket failed its debut launch in March.
JAXA has a track record with difficult landings. Its Hayabusa2 spacecraft, launched in 2014, touched down twice on the 900-meter-long (3,000-foot-long) asteroid Ryugu, collecting samples that were returned to Earth.
Experts say a success of SLIM’s pinpoint landing, especially on the moon, would raise Japan’s profile in the global space technology race.
Takeshi Tsuchiya, aeronautics professor at the Graduate School of Engineering at the University of Tokyo, said it was important to confirm the accuracy of landing on a targeted area for the future of moon explorations.
“It is necessary to show the world that Japan has the appropriate technology in order to be able to properly assert Japan’s position in lunar development,” he said. The moon is important from the perspective of explorations of resources, and it can also be used as a base to go to other planets, like Mars, he said.
SLIM is carrying two small autonomous probes — lunar excursion vehicles LEV-1 and LEV-2, which will be released just before landing.
LEV-1, equipped with an antenna and a camera, is tasked with recording SLIM’s landing. LEV-2, is a ball-shaped rover equipped with two cameras, developed by JAXA together with Sony, toymaker Tomy and Doshisha University.
JAXA will broadcast a livestream of the landing, while space fans will gather to watch the historic moment on a big screen at the agency’s Sagamihara campus southwest of Tokyo.


About the company ECO LED
ECO LED is a producer and distributor of high-quality electronic displays using LED technology, as well as large-format vision screens with a matrix based on multicolor SMD LEDs in modern digital technology. Our production plant is located in Kielce, but customers from all over the country come to us.
The ECO LED offer includes, for example, matrices made of the most modern SMD 3in1 (1R1G1B) LEDs on the market with the R: G: B / 3: 6: 1 color ratio of the NATION STAR brand. The materials displayed on the screens of our production are distinguished above all by the fullness of colors (grayscale at 16 bit - 16.7 million colors) and the possibility of dynamic changes of the displayed content (displaying 2D, 3D images, text, VIDEO video in HD resolution). The highest quality of color presentation, crystal clear image effect in high definition and a wide viewing angle vertically and horizontally (140 degrees) contribute to the clarity of the image and ensure the reception of the transmitted content at the highest level.
The offered assortment includes, among others:
• graphic and text displays of the Mono HD series (single-color) in single and double-sided versions,
• large screens and LED displays from the FullColor series,
• large-format internal and external vision screens with diode resolution from 2.5 mm to 10 mm,
• route boards for transport,
• LED boards for trucks,
• pylons for displaying prices at gas stations,
• pharmacy crosses.
We encourage you to familiarize yourself with the detailed ECO LED offer.
We also invite advertising agencies and intermediaries interested in selling our products to cooperate with us.


The University of Tehran Additive Manufacturing (AM) and the 3D printing laboratory has been established in 2017 to provide educational and research services for the academia and industrial sector. It is dedicated to advanced manufacturing research with a primary focus on additive manufacturing of metal, polymer, and composite materials. The scientific services presented by the AM lab. is given to all of the universities, research centers, industries, students and individuals who require them. Clients who wish to seek the service of the University of Tehran AM lab could come in person, via the AM lab web site or by telephone contacts.
3D printing and scanning are new technologies advanced in very recent years which have caused great developments. It empowers almost anyone to manufacture a product as fast and easy as imagining it! Everyone could learn about 3D printing in an equipped laboratory such as the University of Tehran AM lab and become able to follow one’s idea into a product.
The equipment in the AM laboratory:
- 3D FDM printer having two nozzles with a resolution of a 100 micron
- 3D LED resin printer with a resolution of a 45 micron
- 3D printer SSMED developed by the research work in the School of Mechanical Engineering
- Portable 3D scanner for full body
- A 3D printing pen
- Related workshop tools
- Promoting 3D printing by Educating people
- Facilitate the use and application of the technology and know how
- Providing an opportunity for innovation and advancement
Advantages of the AM laboratory:
- Fast prototyping using 3D scanner and printer and the related technologies
- Enjoy consultations with AM specialists in a friendly and innovational environment
- Transform your idea to a real product and see and test it yourself
Industrial and research projects:
Additive manufacturing techniques have a high potential for producing components for different engineering sectors. In the mechanical engineering sector polymeric, ceramic, metallic and composite parts with geometrical complexity are made using AM techniques. Electronic circuits, semiconductors, radar components and LEDs are amongst electrical engineering parts produced by the AM methods. In civil engineering sector, making of various structures, buildings, pathways have been done using AM. Many components in the robotics and mechatronics sectors with high precision and tight tolerances have been manufactured using 3D printing. Bioengineering is really another interesting area where AM has been widely implemented and has found many applications. Other areas such as architecture, art and others are also using AM techniques and there are a lot of potential for engaging the University of Tehran AM lab.
Followings are some descriptions of the many aspects of the AM processes:
- Parts with complicated geometries: one of the main limitations in conventional manufacturing methods is that parts with complicated and spatial geometries are difficult or in some cases impossible to make. This has severe impact on the design of the parts. Development of AM techniques has solved these problems provided new design opportunities. One of the important aspects in part design is the topological optimization which could be done by numerical analysis using software like ABBAQUS. Hence AM techniques have made it possible to design parts with complicated geometries.
- Materials for 3D Printing: from the birth of the additive manufacturing the choice of the materials used in this process has always been a challenge. Polymers, ceramics, composites and metals are being used for the 3D printing processes but each one has its own limitations and shortcomings. FDM is the main process used for the 3D printing and commonly uses a polymer which is heated up to melt and extruded through a nozzle to form the required geometry. However metallic alloys could not be printed in this way and metal powders are used in conjunction with laser beams to print the parts. Low strength, cavities and pores are amongst the defects which form during printing. It would be ideal if one could use metallic wires just like polymeric wires are used in the FDM process to print metallic parts.
To achieve such a goal a PhD project is currently is being done in the AM LAB at the School of Mechanical Engineering, College of Engineering, University of Tehran using semi solid metal alloy. This process has been named Semi Solid Metal Extrusion and Deposition (SSMED). It is a promising technique to overcome the existing limitation paused by the present metal 3D printing techniques.
- New AM Methods: Although AM process have been developed in a variety of methods nevertheless there is still plenty of room to progress. For example 3D printing of a components containing more than one material is such goal. Materials, processes, properties and performance go hand in hand and new AM methods could definitely help to promote different aspect for each of these parameters.
- Optimization of the present AM techniques: Most of the already developed AM techniques need further improvement and could be optimized in one way or another. For example advancements in areas such as geometric size tolerances, strength, hardness, flexibility, toughness, smoothness, process control parameters such as production speed, and other factors could be tackled by researchers. These are also amongst the objectives of this lab.


Last Amazon price update was: November 30, 2021 6:04 pm
Product prices and availability are accurate as of the date/time indicated and are subject to change. Any price and availability information displayed on Amazon.com (Amazon.in, Amazon.co.uk, Amazon.de, etc) at the time of purchase will apply to the purchase of this product.
Mi Notebook Horizon Edition 14 Core i5 10th Gen Whether you want to work on a PowerPoint presentation or you want to binge-watch your favourite series, this Mi Notebook has got you covered. While its 35.56 cm FHD anti-glare display produces stunning visuals on the screen, the 10th Gen Intel Core i5 processor will ensure a smooth multitasking experience. Also, its 10 hours of battery life will keep you entertained for hours on end without having to charge it frequently.
Full HD Anti-glare Horizon Display
This Mi laptop comes with a 35.56 cm (14) full HD anti-glare Horizon display that features thin 3 mm bezels and an impressive 91% screen-to-body ratio. Thus, it is ideal for working, gaming, and watching videos without distractions. Furthermore, a 178° wide-viewing angle lets you want clear visuals from multiple angles.
This is a lightweight laptop that weighs about 1.35 kg. As a result, it can conveniently carry this laptop that features an elegant anodized sandblasted finish.
10th Generation Intel Core i5
This Mi laptop runs on an Intel Core i5-10210U Comet Lake processor that is ideal for creative works, multitasking, working on spreadsheets, and even watching webinars.
Mi Notebook Horizon Edition 14 Core i5 10th Gen with NVIDIA GeForce MX350
Equipped with the NVIDIA GeForce MX350, this notebook lets you play games and edit photos and videos easily and efficiently.
At amazon.in you can purchase Mi Notebook Horizon Edition 14 Intel Core i5-10210U 10th Gen 14-inch (35.56 cms) Thin and Light Laptop(8GB/512GB SSD/Windows 10/Nvidia MX350 2GB Graphics/Grey/1.35Kg), XMA1904-AR+Webcam for only Rs. 54,999
The lowest price of Mi Notebook Horizon Edition 14 Intel Core i5-10210U 10th Gen 14-inch (35.56 cms) Thin and Light Laptop(8GB/512GB SSD/Windows 10/Nvidia MX350 2GB Graphics/Grey/1.35Kg), XMA1904-AR+Webcam was obtained on November 30, 2021 6:04 pm.
Didn't find the right price? Set price alert below
Set Alert for Product: Mi Notebook Horizon Edition 14 Core i5 10th Gen - (8 GB/512 GB SSD/Windows 10 Home/2 GB Graphics) JYU4245IN Thin and Light Laptop(14 inch, Grey, 1.35 kg) - Rs. 54,999
512 GB SSD
You can transfer files in no time and store all your new and old files in one place, thanks to the 512 GB SSD of this Mi laptop.
8 GB of DDR4 RAM
The 8 GB of DDR4 RAM with a clock speed of up to 2666 MHz delivers a smooth and fast computing experience.
Large Cooling Vents
This laptop has a wide air intake area of 2530 mm along with a fan featuring a large diameter. So, this cooling solution ensures that this laptop stays cool, and you can work for a long time.
Stereo Speakers with DTS Audio Processing
You can enjoy the high-fidelity sound of stereo speakers that are thoughtfully placed along this laptop’s smooth curves to prevent muffling. Furthermore, it also features a DTS sound processing application that finetunes the sound signatures while watching movies, playing games, and listening to music.
Mi Notebook Horizon Edition 14 Core i5 10th Gen With Mi Blaze Unlock and Mi Smart Share
This feature lets you unlock this Mi Notebook using your Mi Band. It also has the Mi Smart Share feature that lets you transfer images, videos, word docs, and more from your smartphone to this laptop quickly and easily.
Networking Opportunities Galore
This Mi laptop features various connectivity options to make data transfer, entertainment, and device charging easy. This laptop is equipped with a 3.5 mm jack that works as a headphone and also a mic in. Also, it has a Mi Webcam HD 720p for smooth video calling and effortless viewing.
In Budget with Great Perfomance
If you can compromise with storage and a backlit Keyboard then it is great a choice in this range.
After applying bank discount I got Core i5 in Rs 49100 aprx. And you will get premium built quality like Macbook Pro and good graphic card MX 350 in this price range. Which is best.. in this price segment.
Storage and RAM
Light Weight and handy
Display is top class
you can find many but cons are also somewhat to be noticed
you cannot work in the dark as there is no backlight keyboard
camera quality is not good
In the future, you cannot upgrade RAM
Specification: Mi Notebook Horizon Edition 14 Core i5 10th Gen
Laptop, Power Adaptor, Power Cord, User Guide, Warranty Documents
SSD Capacity (GB)
Processor Variant (U)
1.6 GHz with Turbo Boost Upto 4.2 GHz
RAM Frequency (MHz)
Number of Cores
NVIDIA GeForce MX350
OS Architecture (bit)
Notebook Horizon Edition 14
Thin and Light Laptop
Processing & Multitasking
Upto 10 hours
65 W AC Adapter
Battery Cell (cell)
MS Office Provided
Dedicated Graphic Memory Type
Dedicated Graphic Memory Capacity (GB)
Windows 10 Home
System Architecture (bit)
Covered in Warranty
Finger Print Sensor
Full-size Textured Island Style Keyboard
Touchpad with Multi-touch Gesture Support
Mi Blaze Unlock, Mi Smart Share
1 Year Manufacturer Warranty from the Date of Purchase
Warranty Service Type
321.3 x 206.8 x 17.15 mm
Not Covered in Warranty
1 x USB 2.0, 2 x USB 3.1
1 x HDMI Port
35.56 cm (14 inch)
1920 x 1080 Pixel
Full HD LED Backlit Anti-glare Display
Built-in Dual Speakers
Dual Speakers with DTS Audio
Domestic Warranty (Year)
Mi Notebook Horizon Edition 14 Core i5 10th Gen Videos
GetPriceCut is a gadget research destination where we help users to find the best products at the best price for product categories like mobiles, laptops, electronics, TVs, home appliances, audio products, etc. With News,Reviews and Expert Score, Price Comparison and Upcoming Products


Q: How can you convert amps to volts using the power formula?
A: The voltage (V) in volts can be calculated using the power formula: V(V) = P(W) / I(A), where P is power in watts and I is current in amps.
Q: Is there another method to convert amps to volts?
A: Yes, you can also convert amps to volts using Ohm's Law. The formula is: V(V) = I(A) × R(Ω), where I is current in amps and R is resistance in ohms.
Q: What does voltage measure in an electric circuit?
A: Voltage measures the electric potential in a circuit, indicating the ability to move electric charge. It's measured in volts, where 1 Volt signifies the potential needed to move 1 ampere of current against 1 ohm of resistance.
Q: How can the power formula be used to convert amps to volts?
A: To convert amps to volts using the power formula, divide the power (P) in watts by the current (I) in amps. The formula is: V(V) = P(W) / I(A).
Q: Can you provide an example of converting amps to volts using the power formula?
A: Certainly. Let's say a device uses 120 watts of power with a current of 10 amps. Using the formula V(V) = P(W) / I(A), the calculation would be: V(V) = 120 W / 10 A = 12 V.
Q: How does Ohm's Law come into play when converting amps to volts?
A: Ohm's Law relates voltage (V), current (I), and resistance (R). To convert amps to volts using Ohm's Law, multiply the current (I) in amps by the resistance (R) in ohms. The formula is: V(V) = I(A) × R(Ω).
Q: Are both methods equally applicable for any scenario?
A: Both methods are applicable for different scenarios. The power formula is useful when you know the power and current, while Ohm's Law is helpful when you know the current and resistance.
Q: What are the key units involved in the conversion from amps to volts?
A: The conversion involves units like amps (A), watts (W), ohms (Ω), and volts (V). Amps measure current, watts measure power, ohms measure resistance, and volts measure voltage.
Q: Can you summarize the two methods for converting amps to volts?
A: Yes. To convert amps to volts, you can use the power formula (V(V) = P(W) / I(A)) when power and current are known, or you can use Ohm's Law (V(V) = I(A) × R(Ω)) when current and resistance are known. Both methods provide a way to determine voltage in an electric circuit.


Senior Wireless Network Engineer
The Senior Wireless Network Engineer (WNE) will serve as the subject matter expert for wireless technologies and capabilities supporting the business needs of Rice University and executing wireless projects.
The Senior WNE will work very closely with other Network Architects, Network Engineers, Information Technology Directors, Assistant Directors, and Managers in order to properly design and support these systems. The Senior WNE is responsible for the technical aspects of the design, management, and support of the wireless systems and related networking systems that support the successful operation of Rice’s campus networks.
They will lead the analysis of customer requirements and development of wireless solutions to meet required performance and coverage and mentor more junior staff. Lead and oversee the work of tech services staff for wireless.
This position will do the following:
Develop wireless coverage/heat maps utilizing industry standard tools.
Recommend wireless hardware and software to meet requirements and minimize cost. Plan, schedule, and execute entire end-to-end installations.
Interface directly with campus representatives, and subcontractors to communicate project plans and status.
Coordinate and execute site surveys to determine the actual layout and placement of the Wi-Fi equipment to provide optimal Wi-Fi coverage, data rates, network capacity, roaming capability, and QoS.
Develop and execute wireless test plans to include test strategy, criteria, test cases, schedule, locations, and expected & actual results.
Install and Configure servers, routers, switches, and access points.
Integrate new wireless capabilities into existing network infrastructure and systems.
Install and configure wireless software solutions.
Salary Commensurate with Experience and Qualifications


Electro Motors specializes in motor rewinds and repairs.
At Electro Motors, we use the latest equipment which allow us to rewind and repair all types of motors such as AC & DC motors, generators, pumps, transformers and coils.
Electric Motor Rewinds and Repairs
Electro Motors specializes in motor rewinds and repairs. We use the industries’ latest equipment which allow us to repair many types of products by changing motor voltages, speeds and frequencies.
Electro Motors specializes in both medium and low voltage electric motor repair. Additionally, we service pumps, generators and redesign motors.
- AC Induction Motors
- DC Motors & Traction Motors
- Shaft Replacement
- Overhauling Repairs
- 3 Phase AC Motors
- Motor Redesign
- Rewind to suit voltage changes
- Speed change
- Frequency change
Other Rewinds and Repairs
We also rewind, service and repair other products such as generators, pumps, transformers and other electrical devices.
- Electro Mechanical Brakes
- Auto Transformers
- Step Down Transformers
Generator Rewinds and Repairs
- Tachometer Generators
- Welder Generators
Our expert technicians can provide the following services:
- Rebuild of worn motor shafts
- Complete overhaul and rebuild of all types of pumps
- Cooling fan repairs
- Bearing and bush replacement


As technology evolves, challenges evolve. A major consideration that requires microscopic attention in a digital world, is the Cybersecurity. Organizations cannot afford to become modern and more productive while compromising their security.
ICT offers two kinds of Cybersecurity disciplines:
A - Operation Technology Cybersecurity
This is to protect industrial environments operations from Cybersecurity threats as they become more technology aware. ICT in collaboration with GE Digital offers end-to-end cybersecurity solutions for industrial operation such as DCS, ICS, SCADA, BMS, Smart Cities, Utilities, Transport, Banking, Education and Healthcare.
B- Information Technology Cybersecurity
This is to protect computer networks and systems from Cyber threats. ICT offers a complete suite of solutions for virtually any kind of business environment. Managed and/or Local Security Operation Center – SOC are offered by ICT, while partnering with the leading players in this space.


YOKOHAMA (Kyodo) -- Kanagawa police said Wednesday they have installed traffic lights powered by solar energy in the city of Kawasaki on a trial basis to prepare for an emergency blackout in case of a major natural disaster.
The prefectural police department said it hopes to develop a new type of traffic lights in cooperation with Yokohama-based Kyosan Electric Manufacturing Co., which can be installed across the country in the future.
The prototype traffic lights, which use two 120x53 centimeter solar panels that supply electricity during the day, are installed at a street crossing in Saiwai Ward of Kawasaki.
The nighttime power will be provided by Tokyo Electric Power Co., while surplus electricity will be stored in a battery in case of a blackout.
In Kanagawa, traffic lights temporarily became unusable at some 15,000 locations in the wake of the power rationing following the March 11 earthquake and tsunami as well as subsequent nuclear emergency at the Fukushima Daiichi power plant.
However, the local police could send police officers only to 3,400 points among them.


Search the Community
Showing results for tags 'Bluetooth'.
Found 3 results
Hi guys, Does anyone in the forum know if Magneto Speed have a way to connect the V3 Chrono through Bluetooth, instead of their XFR adapter, which only works if your phone has a 3.5 mm jack interface? I emailed Magneto Speed about it, I just haven't received and response from them yet. I figure I should ask the forum, just in case anyone had ask this same question before. Thank you! BASTi
This thread is a carry-over from the one covering the DIY cable for the ProChrono Digital USB interface. I figured a new thread would be appropriate to keep the wired vs. wireless discussions organized. The detailed instructions in the attached PDF file cover building a Bluetooth interface for the ProChrono Digital chronograph. In short, it describes how to build a Bluetooth receiver and use it to make a wireless connection between the ProChrono Digital and the PCRemote software on a PC. Two warnings, though: First, If you attempt this build there is a chance you could break any and all of the parts, including your chronograph. Do not attempt this if you are not comfortable installing Windows drivers & software, using a soldering iron, and guarding against electrostatic discharge (ESD). You alone are responsible for what happens to your equipment.Second, getting serial devices working over Bluetooth in Windows is straight-up voodoo. Seriously. There's about a 50/50 chance the Bluetooth receiver will work on the first pass through the instructions, and it's entirely possible to do everything right and still end up with a receiver that doesn't work. YMMV, but just know this up front.Having said that, here's a list of the components you'll need: Bluetooth-to-Serial Module ($7-18) CP2102 USB-to-Serial UART/TTL Module ($5-10) Switching Voltage Regulator ($5-6) Battery(ies) ($2-5) Battery Holder ($2-3) ⅛” (3.5mm) stereo cord and/or jack ($3-7) Power Switch (optional) ($1-2) 10kΩ Resistor ($1) Small Project Box/Enclosure ($3-7) So, depending on what components you select and how particular you are, you can build the Bluetooth receiver for +/- $45. I had a lot of fun working on this build. The majority of my electronics projects up to this point usually involved either a PC power supply or a 12V car battery. What you see in the instructions is a culmination of the lessons learned and the do-overs I worked through over the course of building the prototype. If you have any suggestions to add, please post them here or PM me. (I'm still looking for a 3.5mm stereo jack with an isolated SPDT switch that closes when the plug is inserted.) On my wish list of future projects: Get the Bluetooth receiver integrated inside the ProChrono Digital housing. Find some enterprising coder(s) to write an Android equivalent of the PCRemote software now that we have a Bluetooth option. Edit 6/9/13: I'll try to post some pics of the build once I clear the minimum post limit. DIY Bluetooth Interface for ProChrono Digital v1.0.pdf


Today we truly live in a connected world. Almost every device we use on a daily basis relies on a connection to the internet from smart phones and tablets, to smart thermostats and lights, to streaming audio and video devices, and yes our venerable PCs and Macs.
At Premier, we feature network solutions that include technologies to self-heal and deal with many of the typical network pitfalls automatically so you don’t even know when they happen.
We focus on providing scaled distributed networks, both wired and wireless (WiFi), for homes, business, and organizations. Our networks are designed to offer the coverage you need, where you need it, reliably.