Assistive Technology enables individuals with visual impairments or who are blind to gain information and access to education and work. This category includes magnifiers, braille and speech output devices, screen readers and more.
Screen readers are software programs that allow blind or visually impaired users to read the text that is displayed on the computer screen with a speech synthesizer or braille display. Read more about Screen Readers
A video magnifier, uses a stand-mounted or handheld video camera to project a magnified image onto a video monitor, a television (TV) screen, or a computer monitor. Read more about Video Magnifiers
REFRESHABLE BRAILLE DISPLAYS
Braille displays provide access to information on a computer screen by electronically raising and lowering different combinations of pins in braille cells. Read more about Refreshable Braille Displays
Braille printers receive data from computer devices and emboss that information in braille onto paper through the use of solenoids that control embossing pins. Read more about Braille Printers


Semiconductor Silicon Wafer Market Overview:
A new report published by Reports Monitor titled, “Global Semiconductor Silicon Wafer Market Research Report 2019” provides an in-depth and comprehensive analysis of the overall market with forecasts to 2026. The researchers of the study have generated collective and useful information by means of extensive research methodologies that deliver the latest Semiconductor Silicon Wafer market patterns and industry trends.
Semiconductor silicon wafers are key component of integrated circuits such as those used to power computers, cell phones, and a wide variety of other devices. A silicon wafer consists of a thin slice of silicon which can be treated in various ways, depending on the type of electronics that is being used. Silicon has a very high quality semiconductor, making it ideal for the production of such circuits.
Some of key competitors or manufacturers included in the study are:
Shin Etsu (JP), Sumco (JP), Siltronic (DE), MEMC (US), LG Siltron (KR), SAS (TW), Okmetic (FI), Shenhe FTS (CN), SST (CN), JRH (CN), MCL (CN), GRITEK (CN), Jingmeng (CN), Zhonghuan Huanou (CN), Simgui (CN),
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Market by Type
Market by Application
Logic & MPU
Market Analysis by Geographies:
This report is segmented into key Regions North America, Europe, China, Japan, and Southeast Asia with Production Development, Sales, and Regional Trade & Forecast.
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The market research report on Global Semiconductor Silicon Wafer Market covers the various industry prospects including the industry sectors, trends, up-to-date outlines, growth factors, and restraints, ultimately providing market projections for the coming years. It consists of the latest advancements in technology, Porter’s five forces analysis, and company profiles of the hand-picked industry players. Besides, the report expresses an analysis of the high-scale and low-scale factors designated for the new and tenured contenders in the Semiconductor Silicon Wafer market coupled with a methodical value chain analysis.
Some of the Points cover in Global Semiconductor Silicon Wafer Market Research Report is:
Chapter 1: Overview of Global Semiconductor Silicon Wafer Market (2019-2026)
Chapter 2: Market Competition by Players/Suppliers 2014 and 2019
• Manufacturing Cost Structure
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• Industry Chain Structure.
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timeline: a history of touch-screen technology | knkx,1965 e.a. johnson touch screen believed by some to be the world's first touch screen, the screen developed by e.a. johnson of england's royal radar establishment uses touch technology similar to that found in today's tablets but can read only one touch at a time..who invented touch screen technology? - thoughtco.com,history of touch screen technology 1960s . historians consider the first touch screen to be a capacitive touch screen invented by e.a. johnson at the royal radar establishment, malvern, uk, around 1965 - 1967. the inventor published a full description of touch screen technology for air traffic control in an article published in 1968..touch screen – complete history of the touch screen,touch screen. the concept of now ubiquitous touchscreen interface was put into words in october, 1965, when eric arthur johnson, an engineer at the royal radar establishment in malvern, england, who was interested in developing touchscreen for air traffic control, described his ideas for a capacitive touchscreen (see the nearby photo from 1967) in.timeline: a history of touch-screen technology :,today's touch-screen devices seem like a thing of the future, but the technology that runs your ipad or android can actually be traced back to 1948 and something called the electronic sackbut..
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history of touch screen technology. 1971, the first 'touch sensor' was developed by doctor sam hurst (founder of elographics) while he was an instructor at the university of kentucky. 1974, the first true touch screen incorporating a transparent surface was developed by sam hurst and elographics.,history of touch screen technology – iploy spearhead,touch screen technology october 1965 when eric arthur johnson, an engineer at the royal radar establishment in malvern, england invented the first touch screen, a capacitive touchscreen. his interest in developing touchscreen for air traffic control is a success when a full description of his technology was published in 1968 (us3482241). in 1971, a 'touch…
multi-touch technology began in 1982, when the university of toronto developed a tablet that could read multiple points of contact. bell labs developed a touchscreen that,a brief history of touchscreen technology: part one | acante,the screen utilised a transparent capacitive array of touch sensors overlaid on a crt, allowing users to manipulate graphical objects with their fingers. this discovery was instrumental in the development of the multi-touch technology we rely on today in smartphones and tablets. the history of touchscreen technology: to be continued...
this is the selectively combined summary of articles about the history of touch technologies. i referred to a report from morgan stanley research, bill buxton’s article about multitouch, and “touchscreen technologies in phones” at phone arena.. 1954,history of touchscreen technology timeline | timetoast,the nineties introduced smart phones and handhelds with touch screen technology. in 1993, apple released the newton pda, equipped with handwriting recognition; and ibm released the first smart phone called simon, which featured a calendar, note pad, and fax function, and a touch screen interface that allowed users to dial phone numbers.
♤ historians consider the first touch screen to be a capacitive touch screen invented by e.a. johnson at the royal radar establishment, malvern, uk, around 1965 - 1967. the inventor published a full description of touch screen technology for air traffic control in an article published in 1968. ♤ in 1971, a 'touch sensor' was…,what is a touch screen?,touch screen history. the idea of a touch screen was first described and published by e.a. johnson in 1965.in the early 1970s, the first touch screen was developed by cern engineers frank beck and bent stumpe. the physical product was first created and utilized in 1973.the first resistive touch screen was developed by george samuel hurst in 1975 but wasn't produced and used until 1982.
during the last 10 years, the multi-touch technology has rapidly evolved and has been implemented within a multitude of devices, software programs and hardware. in the years to come, the multi-touch technology will be even more used and will soon become part of peoples' day-to-day lives enabling them to easily interact with a computer screen or device using solely the fingers.,history & evolution - touch-screen technologies,the first patent was in 1971 that was exclusive to elographics (the company sam hurst created). the accutouch that was made by elographics was the first transparent touch screen and it was a 5-wire resistive technology and was made in 1974. it is the most popular kind of touch screen today.today.
today's touch-screen devices seem like a thing of the future, but the technology that runs your ipad or android can actually be traced back to 1948 and something called the electronic sackbut.,invention of touch screens - a brief history of small,a touch screen in its current form appeared in 2002 in the model qtek 1010/02 xda, released by htc. it was a full-color display with a fairly good resolution, supporting 4096 colors. to a higher level, touch screens were taken out by xenarc technologies, which burst into the market in 2002 as well.
by mary bellis a special thanks goes to jason ford of elo touchsystems, the company whose founder invented touch screen technology, for providing the following historical information.. in 1971, the first 'touch sensor' was developed by doctor sam hurst (founder of elographics) while he was an instructor at the university of kentucky.,touch screen technology - types, working and its applications,touch screen technology is the direct manipulation type of gesture-based technology. direct manipulation is the ability to manipulate the digital world inside a screen. a touch screen is an electronic visual display capable of detecting and locating a touch over its display area. this is generally referred to as touching the display of the
5-wire resistive touch is the most widely used touch technology today. a resistive touch screen monitor is composed of a glass panel and a ﬁlm screen, each covered with a thin metallic layer, separated by a narrow gap. when a user touches the screen, the two metallic,touch screen patents: what was the the first? and what,initially published 8 august 8 2017, minor updates 7 october 2019. i have recently had the pleasure of reading the new and excellent book by brian merchant 'the one device: the secret history of the iphone' (2017), which really is the history of touch screen phones in general.the author goes into great depth into many aspects of the iphone, and includes a few references to patent in general.
brief history of touchscreens. how have we gotten in touch with this technology? (2) 1965 – first finger-driven touchscreens invented by e.a. johnson. 1970 – dr. g. samuel hurst invents the first resistive touchscreen. 1982 – first human-controlled multi-touch device developed at university of toronto,computer monitor history,touch screen technology was invented by e. a. johnson in 1965. 1973: the xerox alto computer, released on march 1, 1973, included the first computer monitor. the monitor used crt technology and had a monochrome display. 1975: the first resistive touch screen display was developed by george samuel hurst in 1975. however, it was not produced and
welcome back to our three-part series on touchscreen technology. last time , florence ion walked you through the technology's past, from the invention of the first touchscreens in the 1960s all,what is the future of touch screen technology,the rest, as they say, is history. following apple’s implementation of the touch screen in its iphone, the touch screen quickly gained adoption in a variety of applications. now, not too many years later, the touch screen is almost universal. as the technology behind touch screens has evolved, so too have the possibilities.
touch screen technology seminar and ppt with pdf report: it is the most user friendly input device used to interface with a pc.the user touches the screen to select options presented on it, where associated hardware and software locate that touch.,how it works: the technology of touch screens | computerworld,take a look at the technology of mobile touch screen displays -- resistive vs. capacitive, single-touch vs. multitouch and how companies are working to reduce weight while improving quality.
history of touch screen technology. a touch screen is a special type of visual display unit with a screen which is sensitive to pressure or touching. the screen can detect the position of the point of touch. the design of touch screens is best for inputting simple choices and the choices are programmable. the device is very user-friendly since,1965 – the touchscreen,this poster is from a set of 39 developed for an exhibition by mraths (malvern radar and technology history society) and sponsored by mhdc’s route to the hills initiative in summer 2016.. click to enlarge. the idea of a touch interface to a computer arose because in air traffic control duties quick and accurate decisions and consequent communications are needed.
this touch screen allowed drivers to control systems like the heating and radio. this system may look dated now, but its technology is impressive. the gcc screen took a few seconds to start up. buick engineers designed it to begin turning on as soon as the driver’s door handle was touched. after 30 seconds, the screen would automatically shut,how do touchscreens work? | types of touchscreens compared,surprisingly, this touchscreen technology detects your fingers using sound instead of light. ultrasonic sound waves (too high pitched for humans to hear) are generated at the edges of the screen and reflected back and forth across its surface. when you touch the screen, you interrupt the sound beams and absorb some of their energy.
history and evolution of touchscreen. version that could sit over a screen.four years later,in 1977,they came up with what was to become the most popular technology for touch screens today.the five-wire resistive touch screen contains transparent layers that are squeezed together by the pressure of a finger touching them.easily translated,5 common touch screen technologies: advantages,touch screen technology is used in a myriad of devices such as smartphones, supermarket checkouts, restaurant ordering systems, medical devices, and self serve kiosks. by combining the data entry method with the display, the overall size of the computer or device is reduced. this advantage is most obvious when it comes to portable devices


Technik Mfg. has announced the release of its newest custom kiosk product. The IM-RFID1-RW Smart Card dispenser is built using 25 years of experience in custom kiosk design and the latest in kiosk manufacturer technology.
This smart card dispenser is specifically designed and developed for easy integration with any host machine or kiosk. The RFID non-contactless design supports Mifare 1k/4k, Mifare ProX, Mifare PLUS, DESFire and SmartMX cards and tags. The unique design also allows for front or back loading of the cards and has a “reject” feature so no card is ever dispensed that hasn’t been successfully read and encoded. You can learn all about it at https://technikmfg.com/arduinorfid.
At Technik Mfg., our commitment is to provide the best in kiosk technology. Our experience in kiosk manufacturing and vending machine manufacturing allows us to provide custom products that are safe and efficient for users.


Some months ago, I got a Raspberry Pi in the mail and proceeded to install MPD on it. After a few days playing with an embedded MPD server and figuring out what I liked and didn’t like about the arrangement, I decided on a significantly more elaborate project to build on it. I wanted to be able to control the player, even if all of the computers in the house were off. I also wanted to run player while using my desktop, which I couldn’t really do because they shared the same desktop speakers. I ended up with a list of features for an embedded music system:
- MPD installed on a Raspberry Pi with a music library stored on a USB attached hard drive
- A Pulseaudio server installed on the Pi with computers in my apartment configured to stream sound to it
- A physical control panel attached to the Pi, which displayed player information and let me start/stop, mute/unmute, select songs, and change the volume on the device
The first of the features was already done and had taken all of thirty minutes. The second was not done and would take longer, but was still easy. The last item on this list however, required a bit of physical hacking to do. I ended up using all of the GPIO pins to do it. Anyway, here’s a picture of the final product:
I think it turned out well. That’s a 16x2 LCD display, two RGB LEDs, two rotary encoders, some wires and a circuit board, embedded into a homemade Plexiglas and aluminum frame. Together, they use up all of the GPIO pins on the Raspberry Pi. 1 Putting that together took quite a while and was a bit of trial and error. The original plan was to whittle a case out of wood but that turned out to be more labor-intensive that I desired while I don’t think that an ‘international-style’ case is as attractive, it still works for my project.
I wrote the initial code in Python, but found out that the current Python GPIO libraries were unsuited to reading rotary encoders. So I rewrote the project in C using the excellent WiringPi library. It actually constitutes my first return to C in a long while. I had to learn both MPD client library and the ALSA library by reading the code.2 In retrospect, I should have written it against Pulseaudio rather than ALSA, but I hadn’t decided initially that that was the direction I wanted to go. In the end it didn’t matter because I only change the master volume.
One thing I did learn and had to code for, is that the human ear does not perceive volume change linearly, so I had to convert it logarithmically between display and reading. This is apparently a common practice and is why potentiometers are commonly sold which change logarithmically. I was using a rotary encoder to adjust volume, so I had to do it in software.
The code for all this is, if you want it, on github.
Making the physical control panel was harder in the end than writing the code for it. I started with a prototype on a breadboard against which I wrote the code:
This worked of course and I could have left it at that, but it was unfinished and I had to reach through all the wires to use it. Making the finished device however, turned out harder than I thought it would. I initially started carving wood to make the case but changed my mind after I realized that the finished product would probably be pretty ugly. (My whittling skills are not where I’d like them to be.) So instead I bought some acrylic sheets, broke them into smaller sheets and cut out room for the components to fit using a Dremel tool. It took me three tries to get right.3 I then replicated the circuit on the breadboard on a protoboard which I could connect to the Pi with a 13pin ribbon cable. I was going to put the whole thing, Raspberry Pi and all, together into one bit clear acrylic box, but changed my mind to make the control panel separate and connect it using rivets rather than glue. I wish I could say I did this because it looked better (it does) but I really did it because it was easier.
I now have the mostly finished product. I think it’s pretty neat. Here’s a quick demonstration:
- The rotary encoders have built-in press switches. ↩
- The ALSA library was by far the easier to figure out because the amixer program was so simple. If you want to write code for ALSA, read the amixer code. ↩
- In retrospect, I could have gotten away with just drilling holes for the rotary encoders and just attaches the LCD and LEDs behind the clear screen. I didn’t think of that at the time. ↩


What is Computational Medicine?
Computational Medicine is an emerging discipline which takes the quantitative logic of computer sciences and applies them to clinical medicine and research. Simply put, Computational Medicine harnesses the power of computers to solve real problems in the medicine and clinical research. This can be on a large scale, such as developing a complex computer system that allows you to capture and use national cancer survival data in a meaningful way. Or it can be on a smaller, more local scale, such as developing an app that allows patients and their relatives to navigate the hospital or a simple program that allows junior doctors to prioritise patients on the ward round.
How can I learn more?
Computational-medicine.com is currently being developed but we hope in the future it provide resources, useful contacts and articles to those doctors, medical students and researchers that are interested in this topic. For the time being we offer a two-day instructional course to medical students and doctors at Imperial College (see ‘Coding for Medics’ page). In the academic year 2017-18, we launched a new 10 week computational medicine module which was available for medical students and biomedical sciences.
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In accordance with the best methods for conserving energy and in support of the green economy, RTA is eager to make its assets more sustainable. Such initiatives aid in promoting a healthy environment and sustainable growth in Dubai and the rest of the UAE.
CEO of the Traffic and Roads Agency, Maitha Bin Adai, stated: "The lighting upgrade project on Airport and Al Ittihad Roads took close to 6 months. As part of the work, the operational system of the lighting units was redesigned to incorporate highly effective, environmentally conscious, and sustainable lighting."
"Considering on the project demonstrates RTA's dedication to implementing the most cutting-edge strategies for maximising the usage of assets, prolonging their lifespan and reducing power consumption throughout the lighting network," according to Bin Adai.
He claims that the RTA is dedicated to sustainability and continually works to improve Dubai's road lighting systems by implementing the most cutting-edge, clever and cutting-edge technology that are adapted to the climatic conditions of the UAE.
She said that the LED technology has many benefits for the environment, including a 55% decrease in energy consumption when compared with conventional lighting units and a lifespan increase of up to 173% over older streetlamps.
Especially, the recently introduced lights last 60,000 hours as opposed to the 22,000 hours that are normal for ordinary lamps.
As a result, it lowers the frequency of lamp replacements as well as maintenance and operational expenses. In comparison to conventional bulbs, it also minimises energy loss and heat emission by 20%. She continued by saying that it enhances the operating efficiency of the lamp system as well as the effectiveness of the energy grid used to light Dubai's streets.
"The updated lamps provide higher brightness and colour accuracy than previous versions, enhancing overnight visibility and enhancing driver safety in Dubai. The illumination quality is improved by 100% due to to the LED bulbs' 4000K colour temperature, which is twice as high as the earlier lamps' 2000K colour temperature," according to Bin Adai.
In line with RTA's mission and Dubai's dedication to environmental sustainability, these new bulbs are also devoid of pollutants, she stated.


The framework can display pictures from broadcast television on devices that support it.
For this functionality to work, the application must be launched with broadcast trust. This can be achieved by launching the application via MHEG or similar.
It is also possible to query information from the TV broadcast - currently the framework’s API exposes the friendly name of the current TV channel and, for HbbTV devices, the current play state of the broadcast.
Support for this is currently available in a selection of modern HbbTV, hybrid HbbTV/HTML5 and Samsung devices. Framework device configurations determine whether the functionality is enabled or not.
This can be done in a device-agnostic way via the device abstraction layer.
First, obtain a reference to
device. For instance, to get a reference to the device if you are extending from a
You can then instantiate a broadcast source player like this:
For devices that do not support playing from Broadcast TV, calling
device.createBroadcastSource() will throw an exception.
device.createBroadcastSource() will also throw an exception if the underlying device-specific broadcast API cannot be initialised for any reason.
To check for device support first, before attempting to create the broadcast source object, call the following method which returns a Boolean value:
This function simply returns true if the broadcast source functionality is enabled; it does not query the device itself.
You must destroy the broadcast source object when you are finished.
Destroy the broadcast source in the example above by calling:
The following API is available on the BroadcastSource object.
||N/A||Display the currently tuned channel|
||N/A||Stops the currently playing programme and turns the screen black|
||String (or exception)||Get the current channel name from broadcast and return as a string.|
||N/A||Get the list of currently available channels names. The params object takes
||N/A||Set the on-screen position and size of the broadcast. By default, the broadcast fills the screen.|
||BaseTvSource.STATE||Indicates the current state of the broadcast source:
UNKNOWN: tuner state not known
UNAVAILABLE: no tuner available
CONNECTING: tuner attempting to connect
PRESENTING: tuner is presenting a channel
STOPPED: tuner is stopped
||N/A||Takes a parameters object with
||N/A||Takes a parameters object with
||N/A||Reverts the current screen settings and performs any clean up required before the user exits the application back to standard broadcast.|
In addition events may be emitted for various state changes in the broadcast object. These are sent to every widget
currently within the application’s widget tree, starting at the application’s root widget and working down. The event
can be prevented from being run on further widgets by using the event’s
stopPropagation() call. Having events sent to
every widget within a complex application may not be performant, so listening for these events on the root widget and
stopping propagation may be appropriate.
||antie.events.TunerPresentingEvent||Indicates broadcast has started playing. Has a property,
||antie.events.TunerStoppedEvent||Indicates broadcast has stopped playing.|
||antie.events.TunerUnavailableEvent||Indicates broadcast has been interrupted, for example because the broadcast signal has stopped. (e.g. the antenna has been removed from the device.)|
Changing a channel within an application requires an appropriate AIT (Application Information Table) set-up, otherwise the device should exit the application on channel change. Details of the AIT, whether in the broadcast signal, or as an external AITX (AIT XML) file, are beyond the scope of this document.
At a low level, there are three things required to change channel, sometimes known as the DVB triplet. These are the
ONID (Original Network ID), TSID (Transport Stream ID) and SID (Service ID). Dependent on the broadcast infrastructure
it is possible for these to vary by region even for a single channel. While it is therefore possible to tune via the
DVB triplet using the
setChannel call, it is possible that you will not know the full triplet in advance.
setChannelByName call works at a slightly higher level, taking the name of the channel (as held in the broadcast
signal and displayed on the EPG) and determining the required tuning information from the device.
There are two flavours of broadcast source implementation available:
Each implementation provides the same API.


A package for angular differential imaging (ADI) along with its variants, such as reference differential imaging (RDI) and spectral differential imaging (SDI).
ADI.jl is a registered package and can be installed using the Julia package manager. From the Julia REPL, enter Pkg mode (by pressing
julia>] (@v1.5) pkg> add ADI
To exit Pkg mode, just backspace. Once the package is installed it can be imported with
julia> using ADI
For more information, see the Pkg documentation.
If you use ADI.jl or derivatives in your work, please consider citing both the JOSS paper and the code record. The JOSS paper citation can be found in
CITATION.bib. The code will have a unique reference for each released version, so visit the Zenodo record to grab the BibTeX for whichever version you used.
In general contributions should follow ColPrac. If you are interested in extending/improving ADI.jl, head to the discussions to reach out. For support with using ADI.jl, please open an issue describing the problem and steps to reproduce it.
This work is distributed under the MIT "expat" license. See
LICENSE for more information.


Sun Simulator Xenon Light
Xenon lamp light source:
Xenon lamp light source can realize high energy density, long time continuous irradiation.
Combine with all sorts of filter as various methods, to realize the narrow waveband catalyst
improvement effect evaluation and broad waveband overall catalytic effect evaluation.
This product can cooperate with various reactor (system), to analysis solid, liquid, and gas
phases in online and offline experiment.
1.” Lelesil “ make XER 300W Xenon Lamp Special Power Supply.
2. Light box and cooling block.
3. Steering head and Light filter device.
4. Transmission – reflection type filter
5. The original imported XE-LIS 300W xenon lamp.
6. Equipped with SS lifting Table.
7. External interface of optical feedback on the control box , increase the optical feedback
circuit and the stability of the light.
1. Lamp bulb power: 300W (imported).
2. Power adjusting range: 150 ~ 300W continuous adjustable.
3. Lamp bulb life: no less than 1500 h (full power operation).
4. Maximum current: 22A.
5.Total light power: 50 w.
6. Parallel light spot diameter: 30 ~ 52 mm (according to the shot distance).
7. Parallel light divergence Angle: the average 6 °. 8. Cooling methods: import metal fan + metal cooling block.
9. Light collection methods: ellipsoid total reflection
10. Optical window diameter: 24.0 mm (round spot)
11. Work spot diameter: 40-52 mm (round spot)
12. Light output form: horizontal, vertical irradiation or arbitrary Angle exposure (along the
optical axis can be free rotation)
13. Incident 45 degrees to the vertical downward (also can level exposure)
14. Infrared transmission: transmission rate ≥ 80%, wavelength range: 800 nm – 1100 nm
15. Visible reflection: reflectivity ≥95%, wavelength range: 350 nm – 780 nm
16. Optical filter placed positon: yes, diameter for 52 mm
17. Standard configuration: special 300
|Light Source Type||Xenon|
|Country of Origin||Made in India|
We at Lelesil Offer Multi Lamp Photochemical Reactors


For a number of years, HEA has provided “on-call” consulting and engineering services to a consortium of member companies providing high-end data services and internet connectivity. Projects have included cooling improvements, equipment procurement, and various other M/E/P consulting and engineering assignments.
HEA’s most notable project was the design a new 5,200-sf colocation facility. The data center features redundant capacity components and multiple independent distribution paths. After calculating the power and cooling requirements for both present and anticipated future needs, HEA’s engineers sized and specified new electrical and mechanical equipment for the center and designed redundant power systems to ensure stringent uptime requirements were met.
The data center includes:
Fire Protection Systems


Avast SecureLine VPN is actually a virtual privately owned network company that protects users via hacker scratches and privateness violations simply by masking all their IP addresses with encryption. The company offers a totally free trial period to let new customers to Recommended Reading make an effort the software ahead of committing to a subscription. The organization also offers multiple subscription programs with different rates based on the quantity of devices secured.
In order to makes use of the Avast SecureLine VPN program, a customer need to have an activation code. This is obtained getting a subscription straight from the company or through an licensed reseller. The activation code can then be entered into the software to unlock its full features and capabilities.
Making use of the Avast SecureLine VPN service can help protect about 10 units at one time. This program encrypts the user’s web connection, preventing data leaks, and allows those to bypass geo-blocking to access articles not available inside their region. It can be used on a selection of devices, which include Windows, Apple pc, iOS, and Android. It also includes a number of useful features, such as DNS leak safeguards and WebRTC leak security.
The Avast SecureLine VPN software is a multi-device solution that can be activated about up to 12 additional units (including mobile devices and Android os TV) using a single permit. To stimulate the software on another gadget, select ‘Start pairing’ in the existing COMPUTER to generate a 6-digit pairing code. Enter this code in the new machine to begin the process of activating avast secureline vpn.


Are you in need of captivating sun images for your projects? Look no further! We’ve compiled a list of online sources where you can find a wide range of stunning sun imagery, including photos, illustrations, and graphics. Whether you’re looking for pictures of the sun, sun photos, sun illustrations, sun graphics, sun pictures, sun artwork, or sun stock photos, these websites are sure to have what you need.
From scientific observatories and space agencies to popular platforms, there are countless options to explore. Let’s dive into the world of sun images and discover where you can find the perfect visuals to enhance your projects.
But first, let’s take a moment to appreciate the sheer beauty of the sun. Just look at this magnificent image:
- There are various online sources where you can find stunning sun images for your projects.
- Scientific observatories and space agencies provide high-quality sun imagery.
- Platforms like Unsplash and Helioviewer.org offer a wide range of sun images.
- Ensure you give proper credit and respect copyright when using sun images.
- Keep exploring and discovering the wonders of our solar system through these incredible visuals.
Solar Dynamics Observatory (SDO) Atmospheric Imaging Assembly (AIA)
The Solar Dynamics Observatory (SDO) Atmospheric Imaging Assembly (AIA) is an excellent resource for high-quality sun images. Through their website, you can access the most recent full-resolution solar images by clicking on the thumbnail images available. The AIA provides a diverse range of sun images captured in different wavelengths, including Fe XVIII 94 Å, Fe XX 131 Å, Fe IX/X 171 Å, and more.
If you’re looking for detailed and captivating sun images, the SDO’s Atmospheric Imaging Assembly is the perfect source. Take a moment to explore the stunning visuals captured by this remarkable observatory.
Sample Table: SDO AIA Wavelengths
|Fe XVIII 94 Å
|Shows hot regions in the solar corona
|Fe XX 131 Å
|Highlights active regions and solar flares
|Fe IX/X 171 Å
|Depicts the Sun’s atmosphere, particularly the transition region
Solar Dynamics Observatory (SDO) Helioseismic and Magnetic Imager (HMI)
The Solar Dynamics Observatory (SDO) Helioseismic and Magnetic Imager (HMI) is another reliable source for captivating sun images. By utilizing advanced technology, the HMI provides valuable insights into the magnetic fields on the Sun, allowing scientists to study solar activity and identify active regions.
The HMI offers two types of images: magnetograms and intensitygrams. Magnetograms provide visual representations of the Sun’s magnetic fields, helping scientists analyze and understand the complex dynamics of our star. Intensitygrams, on the other hand, highlight the varying intensities of solar features, providing a deeper understanding of the Sun’s behavior.
With the HMI’s magnetograms and intensitygrams, researchers and enthusiasts alike can delve into the intricate workings of our closest star. These images contribute to ongoing studies and investigations, unraveling the mysteries of the Sun’s inner workings and its impact on our planet.
Understanding the Data
When analyzing the images captured by the HMI, it’s essential to familiarize yourself with the different types of data they provide:
- Magnetograms: Magnetograms offer visual representations of the Sun’s magnetic fields. These images showcase regions of positive and negative polarity, showcasing areas of magnetic activity. By examining magnetograms, scientists can gain critical insights into the formation and evolution of sunspots, solar flares, and other magnetic phenomena.
- Intensitygrams: Intensitygrams focus on the varying intensities of solar features. They highlight the level of brightness and detail in specific regions of the Sun’s surface, providing valuable information about the Sun’s composition, temperature, and energy output. Intensitygrams are particularly useful for studying solar flare activity and monitoring changes in the Sun’s overall intensity.
By studying both magnetograms and intensitygrams, researchers can paint a comprehensive portrait of the Sun’s complex behavior and dynamics. These images are pivotal in advancing our understanding of solar physics and the impact of solar activity on our planet.
“The HMI’s magnetograms and intensitygrams offer a glimpse into the intricate world of solar magnetism and activity, opening doors to new realms of scientific exploration.” – Dr. Sarah Johnson, Solar Physics Researcher
A Visual Representation of Solar Magnetism
To illustrate the significance of magnetograms and intensitygrams, the table below presents a comparison of key features observed in these images:
|Captures the Sun’s magnetic field structure
|Reveals varying levels of brightness and intensity
|Showcases regions of positive and negative polarity
|Proves insight into the Sun’s composition and temperature
|Highlights magnetic activity and sunspot evolution
|Aids in the study of solar flares and energy output
The combination of magnetograms and intensitygrams provides a comprehensive understanding of solar magnetism, allowing scientists to track changes in magnetic fields, monitor active regions, and predict solar phenomena that may impact our planet.
Other Sources for Solar Imagery
Apart from the Solar Dynamics Observatory (SDO), there are several other resources available for solar imagery and related solar-terrestrial observations. These include the Solar Mass Ejection Imager (SMEI), the Improved Solar Observing Optical Network (ISOON), and the Solar and Heliospheric Observatory (SOHO). Each of these sources provides unique data and images of the Sun, contributing to our understanding of solar activity and its impact on Earth.
Solar Mass Ejection Imager (SMEI)
The Solar Mass Ejection Imager (SMEI) is a space-based instrument specifically designed to detect and track solar mass ejections (CMEs) in real-time. It provides valuable information about these powerful eruptions from the Sun, which can have significant effects on Earth’s magnetic field and space weather. The SMEI captures images of CMEs as they propagate through space, allowing scientists to study their characteristics and predict potential impacts on our planet.
Improved Solar Observing Optical Network (ISOON)
The Improved Solar Observing Optical Network (ISOON) is a global network of ground-based observatories that continuously monitor the Sun’s surface and atmosphere. ISOON combines high-resolution solar imagers with advanced data analysis techniques to provide detailed images of solar features such as sunspots, flares, and prominences. These observations are crucial for understanding the Sun’s dynamics and its influence on space weather. ISOON data is freely available to researchers and the public, contributing to ongoing solar research and education.
Solar and Heliospheric Observatory (SOHO)
The Solar and Heliospheric Observatory (SOHO) is a joint mission between NASA and the European Space Agency (ESA) dedicated to studying the Sun and its impact on the solar system. SOHO carries a suite of scientific instruments that capture images and collect data about the Sun’s structure, magnetic field, and solar wind. These observations help scientists better understand the processes occurring within the Sun and their effects on Earth. SOHO provides an extensive collection of solar imagery, including white-light images, ultraviolet images, and coronagraph images that reveal the Sun’s corona and solar wind.
To get a glimpse of the incredible solar imagery and data captured by these sources, explore the links below:
- Solar Mass Ejection Imager (SMEI)
- Improved Solar Observing Optical Network (ISOON)
- Solar and Heliospheric Observatory (SOHO)
By utilizing the resources offered by these organizations and projects, scientists and enthusiasts alike can delve deeper into the mysteries of the Sun and its complex interactions with our solar system.
Unsplash – High-Quality Sun Images
If you’re looking for breathtaking sun images, Unsplash is the perfect platform for you. They offer an extensive collection of high-quality photos featuring the sun in various awe-inspiring settings. From stunning nature landscapes to mesmerizing sunrises, Unsplash has it all.
Unsplash provides a diverse range of sun images that capture the beauty of this celestial body. Whether you’re searching for images of the sun illuminating the outdoor world or the colorful sky during sunrise, Unsplash has the perfect image to suit your needs. You can explore their collection of sun images and discover the wonders of nature and the great outdoors.
With Unsplash, you can find captivating sun images that showcase the brilliance of sunlight, the warm hues of a flare, and the beauty of the sky. Each image is carefully curated and of exceptional quality, allowing you to elevate your projects and captivate your audience.
Unsplash’s collection of sun images encompasses not only the vibrant daytime scenes but also the enchanting moments of the night sky. Explore moonlit landscapes and images of the night sky, revealing the beauty of the moon and the wonders of outer space. These images add a touch of mystique and wonder to your projects.
Highlighted Features of Unsplash:
- Extensive collection of high-quality sun images
- Images showcasing nature, outdoor landscapes, and the sky
- Breathtaking sunrises and vibrant sunsets
- Stunning images capturing the beauty of flares and sunlight
- Enchanting moonlit landscapes and images of the night sky
Unsplash is a treasure trove of visual inspiration, providing incredible sun images that evoke emotions and convey the splendor of the natural world. Don’t miss the opportunity to enhance your projects with these captivating visuals.
Sun Images on SolarMonitor.org and NASA
When it comes to finding reliable sources for sun images, SolarMonitor.org and NASA are two excellent options. Both platforms offer a wealth of resources and current solar images that can enhance your understanding of the Sun’s activity and beauty.
SolarMonitor.org serves as a comprehensive hub for solar activity information and current solar images. It provides valuable insights into active regions and allows you to stay updated on the latest developments in solar science. With a collection of images from various observatories, SolarMonitor.org offers a visual representation of the Sun’s dynamic nature.
NASA, renowned for its advancements in space exploration, provides a treasure trove of sun images. Its collection includes stunning visuals captured by satellites, telescopes, and spacecraft. You can explore breathtaking images that highlight the Sun’s intricate features and different phases of solar activity.
By accessing resources from SolarMonitor.org and NASA, you can witness the majesty of our nearest star and delve into the fascinating world of solar imagery.
Table 1: Comparison of SolarMonitor.org and NASA
|Provides information on active regions and solar activity.
|Offers current solar images captured by various instruments and missions.
|Collects images from multiple observatories for a comprehensive view.
|Captures stunning visuals from satellites, telescopes, and spacecraft.
|Focuses on solar science research and real-time updates.
|Enables exploration of the Sun’s intricate features and different phases of solar activity.
Resources for Solar Imagery
- SolarMonitor.org: https://solarmonitor.org/
- NASA Image Gallery: https://www.nasa.gov/multimedia/imagegallery/index.html
Helioviewer.org – Visualize Solar and Heliospheric Data
If you’re looking to explore and analyze solar and heliospheric data, look no further than Helioviewer.org. This open-source project provides a user-friendly platform for visualizing a wealth of information about the Sun. From stunning sun images to zooming capabilities and customizable image layers, Helioviewer.org offers an immersive experience for enthusiasts and scientists alike.
With Helioviewer.org, you can easily zoom in on specific areas of interest, allowing for a closer examination of solar phenomena. Whether you’re observing solar flares, prominences, or sunspots, this platform lets you get up close and personal with the incredible details of our nearest star.
One of the standout features of Helioviewer.org is its ability to superimpose image layers. This means you can overlay different types of data, such as magnetograms or intensitygrams, on top of each other to gain a comprehensive understanding of the solar dynamics and magnetic fields at work. Adjusting the opacity of these image layers allows for clearer visualizations and in-depth analysis.
Searching for specific sun images is made easy on Helioviewer.org. Whether you’re looking for the latest solar activity or trying to access images from a specific date, this platform provides a user-friendly search function that makes navigating the vast collection of sun images a breeze. Simply input your desired date range, and Helioviewer.org will fetch the relevant images for your exploration.
Helioviewer.org is a valuable tool for both researchers and educators. Its intuitive interface and robust capabilities make it an essential resource for anyone studying the Sun or seeking to share its wonders with others. Whether you’re an astronomer, a student, or simply fascinated by the beauty and power of our star, Helioviewer.org is your gateway to exploring solar and heliospheric data like never before.
|Key Features of Helioviewer.org:
|Allows for close examination of sun images
|Superimpose different data layers for comprehensive analysis
|Easily find sun images based on specific dates
|Accessible for researchers, educators, and enthusiasts
The Solar and Heliospheric Observatory (SOHO)
The Solar and Heliospheric Observatory (SOHO) is a joint mission between NASA and ESA that captures sun images in various wavelengths. They provide images in white light, giving us a clear view of the Sun’s surface. Additionally, SOHO offers farside images that help scientists locate rotating sunspots. They also provide magnetograms to study the Sun’s complex magnetic fields and synoptic charts to track solar activity.
SOHO has been instrumental in advancing our understanding of the Sun and its dynamics. Through its comprehensive imaging capabilities, scientists can observe and analyze various aspects of the Sun’s behavior, contributing to our knowledge of space weather and its impact on Earth.
|The white light images captured by SOHO provide a detailed view of the Sun’s surface, enabling scientists to study sunspots, solar flares, and other surface phenomena.
|Farside images from SOHO help scientists locate and track the movement of rotating sunspots that are not visible from Earth’s perspective.
|Magnetograms provided by SOHO allow scientists to study the Sun’s complex magnetic fields and better understand the mechanisms behind solar activity.
|Synoptic charts offered by SOHO enable researchers to monitor and analyze the overall solar activity and identify patterns and trends.
With its cutting-edge technology and consistent data collection, SOHO continues to be a valuable resource for researchers and the broader scientific community. The wealth of sun images and accompanying data provided by SOHO contributes to our understanding of the Sun’s behavior and its impact on our planet.
Where to Find Sun Images in Different Colors
If you’re interested in exploring sun images in different colors, you can find them through specific instruments. These instruments capture the beauty of the sun in unique hues, allowing you to experience the vibrant diversity of our closest star. Let’s take a look at three instruments that provide sun images in different colors:
EIT Instrument: Blue Images
The EIT (Extreme ultraviolet Imaging Telescope) instrument captures stunning sun images in blue. This wavelength helps reveal the sun’s outer atmosphere, known as the corona. By observing the sun in blue light, scientists gain valuable insights into the dynamics and structure of this celestial body.
The EIT instrument enables us to see the sun’s corona in all its remarkable blue glory, shedding light on the mysteries of this fascinating cosmic phenomenon.
MDI Instrument: Orange Images
The MDI (Michelson Doppler Imager) instrument provides artificially colored orange images of the sun. These images offer a different perspective on the sun’s surface features and solar activity. By utilizing innovative techniques, scientists enhance the visual representation of the sun, allowing for a better understanding of its complex dynamics.
The MDI instrument harnesses the power of color to showcase the sun’s majestic beauty, unveiling its secrets with every shade of orange that graces the images captured.
H-Alpha Images: Revealing Solar Activity
H-alpha images focus on a specific wavelength of light emitted by hydrogen atoms in the sun’s chromosphere. These images provide a glimpse into intense solar activity, such as flares and prominences. By observing the sun in the H-alpha wavelength, scientists gain valuable insights into the dynamic processes occurring on its surface.
H-alpha images serve as gateways into the extraordinary solar theater, unveiling the captivating dance of flares and prominences that enrapture our imagination.
By utilizing these instruments and their unique color capabilities, you can explore a world of sun images that showcase the awe-inspiring beauty and complexity of our closest star.
Additional Sources for Sun Images
In addition to the mentioned sources, there are other platforms where you can find fascinating sun images and explore related solar data. These resources offer valuable insights into current solar images and contribute to our understanding of the sun’s activities. Whether you’re a scientist, a space enthusiast, or simply curious about the wonders of our solar system, these platforms provide a wealth of information and captivating visuals.
Global H-alpha Network
The Global H-alpha Network is dedicated to observing and monitoring solar flares and other significant solar events. Their network of observatories captures high-resolution images in the H-alpha wavelength, allowing scientists to study the sun’s surface activity and analyze its dynamics. These images provide valuable data for solar research and contribute to our understanding of the sun’s behavior.
GONG+ (Global Oscillations Network Group) is a collaborative effort between multiple institutions and observatories worldwide. Their primary goal is to study the oscillations of the sun and their impact on solar activity. GONG+ provides real-time images and data, allowing researchers to monitor changes in the sun’s structure and observe phenomena such as sunspots and solar flares. These images offer a comprehensive view of the sun’s dynamics and contribute to ongoing scientific investigations.
The National Oceanic and Atmospheric Administration (NOAA) collects and analyzes a vast amount of solar data. Their space weather monitoring systems provide valuable information about solar flares, coronal mass ejections, and other solar events that can affect our planet. NOAA offers a range of images and visualizations depicting current solar activity, enabling scientists and the public to stay informed about potential impacts on Earth’s environment and technological systems.
Helioviewer.org is an open-source platform that enables users to explore solar and heliospheric data. With its intuitive interface and powerful tools, Helioviewer.org allows you to visualize and analyze the sun’s activity in different wavelengths and at various time intervals. From zooming in on specific areas to overlaying image layers and searching for images based on specific dates, this platform provides a unique and interactive way to study sun images and their related data.
Through the Global H-alpha Network, GONG+, NOAA, and Helioviewer.org, you can access a wealth of current solar images and data, enhancing your understanding of the sun and its influence on our planet. These platforms serve as valuable resources for both scientific research and public engagement with solar activity.
Image Credits and Copyright
When using sun images, it is essential to acknowledge the image credits and respect copyright. SolarMonitor.org, NASA, SOHO, and Helioviewer.org are reputable organizations and projects that provide sun images with specific image credits and usage permissions.
Always ensure that you follow the guidelines and give proper credit when using these images to show appreciation for the hard work and expertise of the photographers and organizations behind them.
|Image credits available on the website
|Detailed usage permissions provided
|Image credits available on the website
|Detailed usage permissions provided
|Image credits available on the website
|Detailed usage permissions provided
|Image credits available on the website
|Detailed usage permissions provided
By respecting copyright and giving proper credit, we can maintain a collaborative and ethical approach to using sun images while appreciating the efforts of those who capture and share these captivating visuals.
In conclusion, there are numerous online sources where you can find an abundance of captivating sun images. From reputable scientific observatories and space agencies to popular platforms like Unsplash and Helioviewer.org, these sources offer a wide range of stunning imagery that perfectly captures the awe-inspiring beauty of the Sun. Whether you’re in need of high-resolution photographs, detailed illustrations, or visually appealing graphics, you can easily find the perfect sun image to enhance your projects.
By exploring these incredible visuals, you can continue to discover and appreciate the wonders of our solar system. Each image provides a unique opportunity to marvel at the magnificent nature of the Sun and gain a deeper understanding of its significance in our lives and the universe.
So, don’t hesitate to dive into the vast collection of sun images available from these diverse sources. Let the stunning imagery provided by scientific institutions and creative platforms inspire your work, ignite your curiosity, and foster a greater appreciation for the celestial beauty that shines above us every day.
Where can I find sun images for my projects?
There are various online sources where you can find stunning sun images for your projects. These include the Solar Dynamics Observatory (SDO) Atmospheric Imaging Assembly (AIA), the Solar Dynamics Observatory (SDO) Helioseismic and Magnetic Imager (HMI), Unsplash, SolarMonitor.org, NASA, Helioviewer.org, the Solar and Heliospheric Observatory (SOHO), and more.
How can I access full-resolution solar images?
The Solar Dynamics Observatory (SDO) Atmospheric Imaging Assembly (AIA) provides full-resolution solar images. You can click on the thumbnail images on their website to access the most recent solar images in different wavelengths.
What kind of information can I find in magnetograms and intensitygrams?
The Solar Dynamics Observatory (SDO) Helioseismic and Magnetic Imager (HMI) offers magnetograms and intensitygrams that provide information about the magnetic fields on the Sun. These images help scientists study solar activity and identify active regions.
Are there any other sources for solar imagery?
Apart from the SDO, there are several other resources for solar imagery and related solar-terrestrial observations. These include the Solar Mass Ejection Imager (SMEI), the Improved Solar Observing Optical Network (ISOON), and the Solar and Heliospheric Observatory (SOHO).
Where can I find high-quality sun images?
Unsplash is a popular platform for high-quality sun images. They have a wide collection of photos featuring the sun in various settings such as nature, outdoor landscapes, the sky, sunrise, and more.
Which platforms provide current solar images?
SolarMonitor.org and NASA are reliable sources for current solar images. SolarMonitor.org offers information on active regions and solar activity, along with current solar images from various observatories. NASA also provides current solar images along with links to resources for solar imagery.
How can I visualize solar and heliospheric data?
Helioviewer.org is an open-source project that allows users to visualize solar and heliospheric data. It has an easy-to-use interface that lets you zoom in, superimpose image layers, adjust layer opacity, and search for earlier images based on specific dates.
What can I find on the Solar and Heliospheric Observatory (SOHO)?
The Solar and Heliospheric Observatory (SOHO) captures sun images in various wavelengths. They provide images in white light, farside images, magnetograms, and synoptic charts to track solar activity and study the Sun’s complex magnetic fields.
Where can I find sun images in different colors?
If you’re interested in exploring sun images in different colors, you can find them through specific instruments. The EIT instrument captures images in blue, while the MDI instrument provides an artificially colored orange image of the Sun. Additionally, you can find h-alpha images that highlight specific solar activity such as flares and prominences.
Are there any additional sources for sun images and solar data?
In addition to the mentioned sources, you can find sun images and related solar data from the Global H-alpha Network, GONG+, NOAA, and Helioviewer.org. These platforms provide a comprehensive view of solar activity and help scientists monitor and analyze solar phenomena.
How should I credit and respect copyright when using sun images?
It’s important to acknowledge the image credits and respect copyright when using sun images. SolarMonitor.org, NASA, SOHO, and Helioviewer.org are among the organizations and projects that provide sun images with specific image credits and usage permissions. Always ensure you follow the guidelines and give proper credit when using these images.


User authentication technology is an integral part of the business applications security system. The security system must ensure authentication of the user making an attempt to login to the application. Xafari platform supports two authentication methods: Standard Authentication and Windows Authentication.
Standard Authentication provides access to the application basing on the username and password entered into the login window. The user is granted access to the application if the provided credentials match the respective record in the database.
Windows Authentication uses the Windows Active Dicrectory service to get the user credentials (username, password used to login to Windows). The user is granted access to the application, if an object corresponding to the specified account exists in the database.
The user authentication technology of the Xafari platform is implemented in such a manner that users specify the input method of the account credentials in the runtime mode themselves.
The system login windows, that are displayed when launching the application, are shown in the figure below.


Jesse and Joe will be looking at some of the predictions for the tech world in 2013. We'll also look at some of the predictions we made in 2012 http://northcountryconsulting.com/content/jesses-list-2012-tech-predictions and 2011 http://northcountryconsulting.com/content/roundtable-wamc-tuesday-122020...
2013 will be the year of WiFi and Web enabled appliances
Philips Hue bulbs controlled by WiFi and web.
Nest thermostat controlled by WiFi
(both available at Apple Store)
Gartner predicts 85% of TVs will be web enabled by 2016.


The metaverse is the set of three-dimensional virtual environments in which people can interact with each other through personalized avatars.
In Ball’s formulation, which is quickly assumed to the status of sacred writing, the Metaverse is an online-only virtual world that blends seamlessly with the real world and in the flesh, thanks to augmented reality, virtual reality and mixed reality.
By 2025, 25% of the world population (1/4) will spend at least 1 hour a day in the metaverse.
This will generate an additional $ 800 billion.
Cacelli helps worldwide companies and their board of directors in building the metaverse, a communication tool that is now indispensable for business.


Introducing the EZVIZ Pan and Tilt camera. Should there be an intruder in your home the Pan/Tilt WiFi Smart Camera will alert you straight away with a message via the EZVIZ app to your smartphone, take a snapshot and even proceed to record the events and the suspicious activity. The camera will also track and follow them, gathering up as much footage as possible.
Great for monitoring your pets, little ones or elderly relatives. Furthermore, with the two way talk, you can see, hear and speak all through the EZVIZ app, whether you are at home or away.
With the 340 degree Horizontal and 105 degree vertical rotation Pan and Tilt feature, you can see everything in the room. The camera will track movement automatically across the room, providing the best footage possible. This can also be manually moved around via your EZVIZ smartphone app.
Motion Detection Alerts will trigger a notification to be sent to your smartphone via the EZVIZ app which brings attention to the event occurring from wherever you are.


Netgear Tech Support
Netgear Tech Support
Netgear Tech Support Phone Number
Call Now 1-888-294-8062
At present, most people are connected to the internet. Therefore, in this situation, no one can ignore the value for the protection of internet and internet devices. Routers can be helpful to connect people and outside world via the internet. Netgear is one of the most growing company when you and is a very good wireless router to provide internet connections. Net gear can provide various ranges of the routers with some special specification. It also offers Netgear Tech Support to provide the best solution for routers.
Router and Their Ports
When it comes any model, I will suggest Wireless Router N150. You need to plug it into the modem and power it on. Generally, it is beneficial to give up the unplugged modem for some time before plug it into the router. Just plug one end of the modem and now attach another side with your router, where it indicates WAN or Uplink. If you do not find it on any router, just you need to find correct port because it may be indicated with a different color.
You can find some Ethernet ports on the backside of each router and identify that one of them has a different color. You need to attach this different color port to the internet and the other ports can be connected to other devices and computer on your network. It can also connect more devices through wireless. You can contact our Netgear Tech Support Phone Number 1-888-294-8062 for more information and solving issues.
Netgear Router Installation
To set up the router you need to plug in your modem back and wait until boot up the modem. Now you can attach your router to your computer system. You need to use one of its ports and hook it into the computer system. Now your computer is able to communicate with the router and the router is acting same with the modem. Now you may process installation through Netgear CD that you find with the router. Insert CD into the computer and start the run wizard, which will help you to install the router. Follow installation process steps, which will be asked, on your computer screen. Feel free to contact on Netgear Router Support phone number if you find any problem or issue in installing a router.
It will help you to install three tasks. First, communicate with the router that how to connect to the internet and how to react to the modem. A second is how installing wireless by giving your wireless username and password. Therefore, that no one can use it, besides you. The third is creating an admin password, which will secure your router from others. If someone wants to edit your settings of the router, it does not allow anyone to try that. You can use any web browser such as Safari, Chrome, or Firefox. You can access manually at the address listed below of the Router and configure your router according to you. It is able to work on both Windows and Macs. It has the same process to install on Mac computer. Just contact on Netgear tech support number, if you have any error or problem on your router.
Issues Fixed by Netgear Tech Support
- Unable to set up Netgear router wirelessly
- Unable to reset forgotten router password
- Showing error information about IP conflict error
- Unable to solve error during router installation or reinstallation
- Low Bandwidth error
- Unable to search signals on Wi-Fi
- No light indication or indicator error
- Unable to solve Issues during Netgear configuration
- Unable to solve disconnection of internet issues
Are you facing slow speed, dropped connection or overall poor performance on your Wi-Fi router? Here are some simple tips on troubleshooting your Wi-Fi network. It is first to step to solve your Wi-Fi network related issues, just ensure that every cord is attached strongly or not. That is attached to both your modem and router because it is often ignored. We recommend that you check your Netgear router lights situated in the front. It will show you about internet status, provided by your Internet service provider. Our Netgear Customer Support service is able to solve all issues, feel free to contact if you have related issues.
You need to restart the modem or contact directly to our Netgear Technical Support phone number. If it is possible then move aside your device closer to the router and try to connect with the network. If you are not able to connect to wireless network, then try to connect your Ethernet port. That has a connection with a cord connected to your router. Now update your router from firmware to the current version to solve your network issues. It can solve your maximum issues and ensure the best functionality. Even in such cases, it may be difficult for you to do so. We recommend you to call on our Netgear Tech Support phone number for quick assistance.
Netgear Customer Service Phone Number
We will help you to change your username and password, and we will reset it if you have forgotten. We will help you to update the firmware to the latest version, change your network settings and much more. Therefore, it can perform faster and better. Note that multiple bands router has the ability to change network names and passwords separately. Wi-Fi runs on different channels. So if you are experiencing slow Wi-Fi speed, when many devices are connected to the network. It can improve performance through changing wireless mode and channel. Now if there are problems connecting to a single computer, make sure your all drivers and computer are up-to-date.
If you still have trouble then reset your Netgear router to factory settings, then your problem will solve. It is notable that a factory reset will remove all settings you currently have on your router. We strongly advised that if you have decided to go for it. Just call our Network Tech Support Team for help. The completing the entire process can give you panics in the near future. So do not hesitate to call Netgear Tech Support phone number.


About Sibel Ebru Yalcin
I am a physicist and spectroscopist who specializes in biological imaging. I have performed chemical imaging-based multimodal nanospectroscopy on biological molecules and environmental materials under their physiologically relevant conditions such as pH and humidity. My structural studies led to the discoveries of atomic structure of conductive “Geobacter” OmcS nanowires (Cell, 2019) and electric field stimulated production of 1000 times more conductive OmcZ nanowires (Nature Chemical Biology, 2020). Discovery of cytochrome OmcZ nanowires explains the mystery of high biofilm conductivity scientists observed even in the absence of cytochrome OmcS! Proteopedia selected Geobacter’s microbial cytochrome nanowires as the most influential structure discovered in the 21st century. Other than biological systems, I have performed the first Nanoscale Chemical Imaging on reactive minerals (Gibbsite, Lepidocrocite) through their water binding chemistry. My studies are critical to understand how mineral morphology plays key role on water chemistry (Science Advances, 2020). I have considerable experiences in Ultrafast Spectroscopy and Nanoscale Near-field Imaging of many low dimensional systems. At Los Alamos National Laboratory (LANL), I have built single molecule spectroscopy setup to study Carbon Nanotubes (Nanoscale, 2015) with Steve Doorn and other low dimension materials such as Graphene Oxide (ACS Nano, 2015), MoS2 (Nature Materials, 2014) with Manish Chhowalla. At University of Massachusetts Amherst, I have developed an Electrostatic Force Microscopy (EFM) based imaging method that has enabled the first visualization of electron transport in individual bacterial protein nanowires under biologically relevant conditions (Nature Nanotechnology, 2014) with Nikhil Malvankar & Derek Lovley. Currently I am a research faculty at Yale’s Department of Molecular Biophysics & Biochemistry and Microbial Sciences Institute. I lead the nanoscale functional imaging research to understand structural, physical and biochemical components and pathways involved in biological electron transfer. I have PhD in Physics, and extensive experience in Biochemistry, Geochemistry and Microbiology.


The use of virtual reality in the medical field has been steadily developing over the past decade. Currently, the most effective methods of direct medical application are for psychiatric treatment. VR has been used to treat individuals with irrational fears and post-traumatic stress disorder. Virtual reality programs offer a controlled, gradual method of introducing otherwise troubling ideas and experiences. Despite the realism of virtual reality, there is still a physical disconnect from the experience generated in the screen, which offers patients a sense of safety from what is occurring in the headset. Yet, it is this same sense of disconnect which has posed a challenge to practitioner-sided VR applications.
Virtual reality in surgery training has slowly become more mainstream since 2010, as VR technology has become increasingly open sourced. However, not all virtual reality is created equal, and there are actually quite a few types of virtual reality. For example, what the company, GIBLIB, refers to as their virtual reality surgical stream, is in actuality a live broadcast of 360 degree video in an operating room. While this is irrefutably a positive use of technology for furthering surgical observation, it is difficult to truly describe GIBLIB’s interface as an implementation of virtual reality. This level, would be classified as the lowest tier of integrated virtual reality implementation.
Senior Vice President and Chief Architect of Advanced Micro Devices (AMD), Raja Koduri, describes what he refers to as “good” and “bad” VR. To him, good VR is well integrated, often proprietarily developed, but as a byproduct, is incredibly expensive. The benefit of good VR is that it looks great, performs well, and has a specific purpose. However, good VR does not come cheap. While personal gaming machines may cost a few thousand dollars in hardware (already a significantly higher price point than “bad VR”), a professionally designed, proprietary, medical training system can easily command unattractive asking prices. Furthermore, this kind of virtual reality is not easily accessible to students and medical staff due to its exclusivity and relative lack of portability. On the other hand, bad virtual reality refers to virtual reality designed for mobile platforms, usually through smartphones. In these cases, not only is the hardware much less capable, but the software is clearly less refined, and few applications are designed with proprietary controllers or involvement of user input. That being said, the underpowered smartphones are relatively affordable, not to mention readily accessible by many smartphone users. For reference, only the headset for the HTC Vive (good VR) costs 800 dollars at the moment (PC bundles listed in the 2,000 to 3,000 USD range), more than the price of a Samsung GearVR smartphone and headset cost combined.
Currently, one of the strongest available virtual reality simulations is developed by Conquer Mobile, in their PeriopSim VR, which utilizes the use of handheld controllers in the place of medical instruments and offers users a fairly realistic simulation of a few surgical operations. Another current development is occurring at Stanford University, where researchers are developing programs specifically designed for different surgeries. For example, bone and sinus surgical simulations are currently available. The developers behind this project seem specifically interested in simulating otolaryngology operations. Another innovating implementation has come from a company called NeuroTouch, which uses a dedicated station for users to access handheld controllers and view the simulation through its own display. In this case, the entire contraption is proprietary, but is capable of simulating touch through haptic vibrational feedback. Interestingly, NeuroTouch’s implementation has been on the market for quite a few years now, and seemingly has not seen major developments within the last five years. As the name may suggest, the machine currently specializes in neurosurgery simulations and has been particularly noted for offering a realistic brain tumor removal simulation in which doctors are able to use to replicate the surgery of a specific patient in preparation for the actual procedure.
As technology advances, Robotics are also becoming more and more relevant in the medical field. One of the most well-known and widely used instruments from this category is the Da Vinci, a machine which allows surgeons to regularly perform minimally invasive operations impossible by hand.
Da Vinci machines are incredibly expensive and not readily accessible for many medical students who would greatly benefit from training on these machines. Products like the Robotic Surgery Simulator (R.O.S.S) have been developed to fill this niche, essentially functioning as a replica of the Da Vinci system in which the user is able to simulate real world procedures through R.O.S.S’s interface. Applications such as R.O.S.S. aim to help increase medical proficiency with robotic systems and allow users to be more comfortable and familiar with the hardware during a real operation.
As seen by the last decade of virtual reality development, there is room for both the advancement of current surgical VR applications, as well as the introduction of new VR technologies to better the experience of both the patient and doctor. Future developments of “good” and “bad” VR will likely be tailored toward different uses. Until technology has advanced to make virtual reality readily available and affordable to implement, “good” VR will likely continue to be developed for in-class use for students, or hospital department use for doctors. “Bad” VR will continue to allow for those in the medical field to access recordings and observe surgery in 360 video, using rudimentary, non-precise simulation tools.


Active damping of vibrating vanes in a wind tunnel (UWB/FST)
The task of the active vibration damping of vanes in the wind tunnel was proposed to research a relative motion of the turbine vanes. The system in the wind tunnel fig.1 contains the eight vanes. The order of the vanes in the tunnel is following: two stationary, four active and two stationary vanes in the direction of the wind. The active vanes have their natural frequency approximately 84 Hz and the damping ratio 0.015. Therefore the control system and the identification process must satisfy the requirements on the high speed. The system REX was used for real-time control. The system of active vibration damping belongs to the class of oscillatory processes. We prefer to use the controller with autotuning function, because there will be many experiments with different configurations of the system. It is necessary to tune the controllers after each modification of the vanes system in the wind tunnel. The autotuning controller is based on the frequency identification, the internal model principle and the state feedback control and the controller parameters are obtained by the pole placement method. Two industrial PCs with the operating system PharLap were used to control these oscillating vanes. The main aim of this article is the presentation of the designed control algorithm and the measured results.
HW and SW used
- HW: Industrial PC with PharLap ETS, Advantech I/O boards
- SW: REX control system
- SW: Visualization - NI LabView


The Johnny Stewart Attractor Call is a great call for those hunters on a budget who want a great sounding product backed by a proven name like Johnny Stewart. This handheld caller features five pre-programmed, 16-bit sounds with a 180 degree pivoting speaker. The 30-second sounds can be played in a loop for continuous action.
It includes remote holster, belt clip, batteries and molded loop for placing speaker in trees. The base unit uses 4 AA batteries (not included). The remote uses a 12 volt, A23 battery (included) with a range up to 50 yards


Maker Commons Workshops
3D Modeling with TinkerCAD
This workshop introduces the use of TinkerCAD for simple geometric 3D modeling and preparing the models for 3D printing.
This workshop introduces the concepts of Design Thinking and rapid prototyping using littleBits to quickly invent and test ideas to solve real problems.
This advanced training will introduce the littleBits Arduino microcontroller and IDE to build familiarity with user customized programming options for input and output control. Other topics covered will include covering the workflow for accessing and using the Invention Studio.
Schedule Your Workshop
Ready to book a workshop with us for your department, group, or class? Let us know what you are hoping to accomplish, where and when.


The Systems Division of Polyamp specializes in the design, manufacture and delivery of Underwater Electrical Signature Management and Control Systems for Worldwide Application in the International Naval Industry
The Power Division of Polyamp designs and manufactures mainly DC/DC converters and some power supplies. Our DC/DC converters are used in applications that require high reliability in tough environments.
World class technology - worldwide
Here's why Polyamp is the obvious choice:
Polyamp is a high-tech company that has concentrated on DC/DC for more than 50 years. This means that we have the broadest experience on the market. Our designs and products are reliable. According to independent market institutes, our customers have the same opinion about us.
Polyamp's products are "A safe part of your system", and require less monitoring.
High service level.
Polyamp is an open company and we are happy to cooperate with companies/schools/organizations. We are happy to share our long experience.
At the same time, parts of our business are surrounded by confidentiality when we manufacture and handle defense equipment that is strictly regulated by special rules and regulations.
Our business areas
Production of switched (DC/DC) converters and power supplies.
In the 50+ years since Polyamp was founded, we have become known for our high product quality in both performance, function, reliability and electrical performance. With long experience, our own design and production of switched DCs (DC/DC), we have been able to adapt our products to the demands our customers in Sweden and around the globe. We manufacture our switched power supplies in Åtvidaberg.
Lab and power supplies (AC/DC) from Delta Electronika
We also sell lab assemblies and power supplies (AC/DC) from Delta Electronics, a Dutch company. They have the same high product and delivery quality as Polyamp. Delta Electronics's lab assemblies constitute a well-established standard in electronics and electrical labs and for test equipment around the world.
Power supplies (AC/DC) and inverters (DC/AC) from Powernet.
Powernet is a Finnish quality manufacturer developing customized power supplies, along with standard power supplies, battery chargers (AC/DC) and modular inverters (DC/AC).
System for magnetic and electrical signature adaptation of ships and submarines.
The Polyamp Systems Division specializes in supplying systems for magnetic and electrical signature adaptation of ships and submarines. Systems delivered are reduced, power supply and signature generation of electromagnetic sweeps, electric sensors for underwater use - UEP & ELFE sensors and measuring systems. With the SWECADE© software, we can measure, document and predict magnetic and electrical underwater signatures from vessels at fixed or moving measuring paths.


IBM Just Put A Quantum Computer On The Cloud For Anyone To Use
Quantum computers, which will harness the power of atoms and molecules to perform memory and processing tasks, will enable us to perform some computations that would take more than the age of the universe to do on a classical computer.
Now IBM is offering students, researchers, and general science enthusiasts hands-on access to IBM’s experimental cloud-enabled quantum computing platform, and allowing users to run algorithms and experiments, work with quantum bits (qubits), and explore tutorials and simulations around what might be possible with quantum computing.
The results of more than 35 years of IBM Quantum Computing research are now available for exploration at the click of a button. Join IBM to help accelerate innovation in the quantum field, and help discover new applications for this technology. http://www.research.ibm.com/quantum/


报告题目：Advanced Applications of Boron Chemistry in Medicinal and Material Chemistry
Nanostructured boron compounds possess unique physical and chemical properties in comparison with classical small boron compounds. These species generally have large amounts of boron contents and thus have the potential to deliver significant amount of boron to the tumor cells, that is crucial for boron neutron capture therapy (BNCT). In addition, nanostructured boron compounds have emerged as one of the promising frontiers in material chemistry due to their outstanding physical capability. This seminar covers the latest development of boron compounds in medicinal chemistry and material chemistry.
Dr. Zhu Yinghuai received his Ph. D degree in 1997. He has been studying boron chemistry for 20 years. Several new boron agents such as boron-enriched single-walled carbon nanotubes, synthetic technology (e.g. 10B/11B-isotope exchange, nanocatalysis for carbonyl synthesis) and other applications have been successfully developed by Zhu and co-workers. He has published approximately 78 papers in peer reviewed journals, 11 book chapters, 5 patents and applications and more than 40 conference contributions. These works have been well-recognized by global colleagues and scientists with more than 2300 citations.


This is a WWW server for multiple alignment of protein and
nucleic acid sequences using DIALIGN with user-defined anchor points.
Alignments can be created either fully automatically or by using a list
of user-defined constraints.
By specifying such anchor points, the user can force the program to
align selected segments of the sequences to each other. The remaining parts
of the sequences are then
aligned automatically, respecting the constraints imposed by
the selected anchor points.
An anchor point consists of a pair of
equal-length segments from different input sequences that are to
be aligned. An
explains all features of the anchored alignment procedure.
Our method is described in
Please note that the present server is designed for protein and
nucleotide sequences of moderate length (up to a few kb). For alignment
of larger genomic sequences, we offer a
WWW server using the integrated CHAOS/DIALIGN software described by
et al. (2004), Nucleic Acids Res. 32, W41-W44.
The program source code is available for


September 13, 2017
Apple’s September Event Just Broke the Internet
Apple’s annual event had everyone on the edge of their seats at the newly opened Steve Jobs Theater yesterday. The iPhone X (pronounced “iPhone Ten”) celebrates the iPhone’s 10th anniversary, and was the event’s most anticipated reveal. At 5.8 inches, the iPhone X is larger than the 4.7-inch iPhone 8, and comes with FaceID, Apple’s version of facial recognition technology. The iPhone X also boasts the highest ever pixel density in an iPhone (458 ppi) and a battery life that is two hours longer than that of the iPhone 7. The iPhone 8 and X both feature an edge-to-edge glass screen (Apple has officially ditched the Home button), and are the first iPhones to have wireless charging capabilities, something that Android phones have offered for years. Apple also revealed the AirPower wireless charging mat, the Apple Watch Series 3 (with LTE connectivity!), and Apple TV 4K. Wall Street Journal
What Else You Need to Know
While the new features might have Apple devotees’ tongues wagging, the new pricing sure won’t: the iPhone 8 will start (let’s emphasize start here, people) at US $699, while the iPhone X will start at US $999. (The 256GB model will cost an whopping US $1,149.) The Apple TV 4K is a major upgrade since users will now be able to rent or buy 4K movies through iTunes (for the same price as regular HD movies). Finally, Apple announced the second-coming of emojis, called animojis, which can be animated based on your very own facial expressions (creepy, and so, so cool).
The new Apple Watch will be available to order on September 15. The iPhone 8 and Apple TV 4K will begin shipping September 22, and the iPhone X will ship November 3.


We welcome and encourage all members of the MIT community. Questions of AI ethics span engineering, humanities, business, and the sciences, so the more perspectives and thoughtful participants, the better! We expect all reading group members to conduct themselves in a respectful, inclusive, and considerate manner.
Irene Chen is a PhD student at MIT in EECS in the Clinical Machine Learning Group. Her research focuses on building machine learning methods that to solve questions in health care and fairness. Before MIT, she received her AB/SM from Harvard and worked at Dropbox for two years as a Data Scientist, Machine Learning Engineer, and Chief of Staff. In her free time, she enjoys broccoli and long distance running.
Leilani H. Gilpin is a PhD student in Electrical Engineering and Computer Science at MIT. Her area of focus is explanatory artificial intelligence, which enables autonomous vehicles, and other autonomous machines to explain themselves. She is currently working on a Toyota Research Initiative Project, “The Car Can Explain!” in the Computer Science and Artificial Intelligence Lab under the supervision of Professor Gerald Jay Sussman. Before returning to academia, Leilani worked at Palo Alto Research Center (PARC) and earned a M.S. from Stanford University and a B.S. in Mathematics (with honors), B.S. in Computer Science (with highest honors), and a music minor from UC San Diego in 2011.
Harini Suresh is a PhD student in EECS at MIT. She's particularly interested in the complications and societal implications that arise when machine learning is used with imperfect real-world data. Harini did her undergrad and M.Eng. at MIT as well, and worked on developing interpretable methods for predicting onset and weaning of invasive interventions for patients in Intensive Care Units. She also likes photography and making/eating bread.
Bernardo Aceituno is an SM student in Mechanical Engineering at MIT. His research interests lie in the area of robotic manipulation. In particular, he studies applications of optimization and AI to mitigate the effects of uncertainty in precise and safe manipulation tasks. Bernardo did his undergrad at Universidad Simon Bolivar (USB), Venezuela, where he worked on locomotion of quadruped robots over rough terrains, also in collabaoration with Toyota Research Institute (TRI) and Istituto Italiano di Tecnologia (IIT).


Modern vehicle electronic control systems “know” and monitor the operating parameters of every component. When the system sees a signal that is outside normal limits, or fails to see an expected change in a signal, it stores a Diagnostic Trouble Code (DTC). To access DTCs, technicians connect a “scan” tool to a Diagnostic Link Connector. The scan tool displays any stored codes, but that is only the beginning of a full computer diagnosis. DTCs don’t tell a technician if a particular part is bad, this is why you need a professional to diagnose and repair the vehicle correctly.


IoT With Raspberry Pi
- Overview of IoT and High level Architecture
- Setting up IoT Workflow
- Advanced / Embedded C Programming
- Micro-controller programming using Arduino platform
- Building IoT Applications using Raspberry Pi
- Performance and Security in IoT (Only Intro)
Course Duration: 3 months.
Industrial/Live Projects(In-house/client-based) in the course
Session Content: PDF and Video content will provide after the session
Detailed Course Content: Register Free & Download Syllabus
What Will I Learn?
- Businesses are responding to changing customer needs by providing automated support through IoT. It allows businesses to provide real-world solutions and maintenance while scaling back on the resources needed to provide those services. Connected things give the power company faster response times through smart meters, for example, or business the ability to pivot with machine-to-machine sharing. It gives elevator companies the option of predictive maintenance, making machines both safer and more convenient.
- The physical world is on the edge of transformation as wi-fi expands and more physical objects are networked. It's time you learned how to build, maintain, and analyze these connections. With the cost of technology falling, organizations like McKinsey predicting the rise of machine learning analytics, and wi-fi penetration reaching new highs, it's an IoT perfect storm.
- Better pay package : As a very hot employment opportunity an IoT development will also offer good remuneration packages to the candidates having certification and experience. An IoT is a good platform that offers a lucrative pay package even to freshers compared to other fields.
- Practical knowledge : Students joining the IoT course with us will get practical knowledge and doing real-time projects with clients or in-house of what it takes to create an automation app and this will help them have a strong foundation that will also increase their chances of getting hired by employers.
Topics for this course
Overview of IoT and High level Architecture
Arduino Simulation Environment
Arduino Uno Architecture
Setup the IDE, Writing Arduino Software
Advanced C Programming
Embedded C Programming
Micro-controller programming using Arduino platform
Arduino Platform Applications
Programming with Python
Raspberry Pi for IoT
Linux for Raspberry Pi
IoT Applications with Raspberry Pi
About the instructor
IT Corporate Trainer With 20 Years Of Industrial Training Experience.
The trainers at Voyage Logics are all experts in their field. That is why they know better than anyone how to connect theory with practice. Moreover, they possess good teaching skills, so they are able to communicate their knowledge and experience in an inspiring and interactive manner to the participants.


Byron Lowens’ recent work on Wearable Privacy was published and presented at IEEE International Conference on Healthcare Informatics in Park City, Utah. ICHI is the premier community forum concerned with the application of computer science principles, information science principles, information technology, and communication technology to address problems in healthcare, public health, and everyday wellness. The conference highlights the most novel technical contributions in computing-oriented health informatics and the related social and ethical implications.
Byron presented his work entitled “Wearable Privacy: Skeletons in The Data Closet.” In this work, 32 semi-structured interviews were conducted to understand how users perceive privacy in wearable computing. Results suggest that user concerns toward wearable privacy have different levels of variety ranging from no concern to highly concerned. In addition, while user concerns and benefits are similar among participants in our study, these variables should be investigated more extensively for the development of privacy-enhanced wearable technologies.
Read the paper Wearable Privacy: Skeletons in The Data Closet


IBM today announced its collaboration with the following European companies - Volkswagen (Germany), Moovster (Germany) and Vinturas (the Netherlands) - which could redefine the future of these automotive industries through AI and Cloud Hybrid.
"Our relationship with vehicles and the way we experience mobility can change drastically over the next ten years," said Dirk Wollschlaeger, general manager of Global Automotive, Aerospace & Defense Industries, IBM. "AI and the Hybrid Cloud are perceived as key factors for the evolution of business models and driver relationships, involving personalized digital services integrated into and around the vehicle."
A survey conducted by IBM in September 2017 among automotive industry executives around the world showed that 73% of those surveyed believe that future mobility services will need to be created with consumers as digital technologies redefine the relationship that we have it with our vehicles.
IBM is working on introducing Cloud Hybrid and AI solutions - including IoT and Blockchain - into the automotive industry to boost their digital reinvention.
IBM announces collaboration in developing process
Volkswagen Sachsen GmbH in Zwickau, Germany, supports the Volkswagen Group's commitment to annually sell more than one million electric vehicles by 2025. VW Sachsen is working with IBM to implement SAP S / 4HANA ™, which serves as a driver to make global financial activity more efficient for the Volkswagen Passenger Cars brand.
Moovster, the Mobility and Artificial Intelligence Initiative based in Munich, has developed a new Mobility-as-a-Service platform for employers, employees, citizens and smart cities who want to contribute to the development of mobility in big cities.
Moovster makes day-to-day mobility more flexible, saves money for users and rewards sustaining sustainable and healthy mobility.
The Moovster solution for increasingly crowded cities is motivating users to choose alternative transport options such as personal bicycle, electric scooter, sharing offers, or public transport. The solution runs in the IBM Cloud. More details on getmoovster.com.
Vinturas, a Dutch logistics company, uses IBM Blockchain technologies to help improve the experience of buying a new or second-hand machine.
Using the blockchain to replace previous paper systems, the Vinturas platform will create greater transparency and efficiency in vehicle circulation between manufacturers, dealers and leasing companies, helping to increase consumer confidence and reduce VAT, mileage and tax on import taxes , which costs billions of dollars in Europe each year.
Other recent examples of how industry uses IBM Cloud and AI technologies to change their work methods include:
Slovenia's Elaphe Propulsion Technologies selected IBM Cloud to access IBM's Internet of Things (IoT) technologies and to help improve the safety of future-generation autonomous and hybrid electric and hybrid vehicles. With IBM Cloud, Elaphe can analyze real-time information about driving conditions and vehicle performance to generate valuable information to help develop and operate vehicles that use the company's in-wheel propulsion systems.
Audi UK chose BBH and IBM iX to develop a new digital branding experience, renewing all digital contact points on different Audi channels. IBM iX and BBH work together to combine strategy, creativity and technology to support the digital reinvention of Audi UK.