Unique antenna design, small size, long distance, dedicated for windshield; meets the requirements of conventional vehicles, can achieve waterproof and other requirements; can achieve anti-transfer, to meet the requirements of tearing and destroying.
High-performance PET material labels are widely used in various documents and archives.
Unique antenna design, long-distance identification of near human body Can perfectly replace the ceramic antenna process, light weight and low cost Variety of product forms, personalized processes such as printing on the surface
The label is designed for applications that require strong, durable labels and longer reading distances, such as navigation, yard management and other external environment. It can be flexibly applied to plastics, composites, metals and other surfaces, providing a one-stop solution for multi-material asset management in a metal-dominated environment.
The device USES Helio P60's high-end flagship eight-core processor, runs Android10.0 and a combination of large memory. At the same time support UHF single tag and multi-tag reading, reading distance, read more. The reading distance under outdoor environment is up to 20m. Multitag group read peaks as high as 700 tags /s.
Applicable industry: retail, logistics, electric power, petrochemical, etc. The most popular 5.5 -inch high-definition screen design, comprehensive and slender screen, the viewing area big adopted Android8.1 system and carrying eight nuclear high-performance CPU 2.0 GHz combined with 2 + 16 gb of memory batch data processing capacity to 5800 mah battery easily, support seat charger, Type - C, fast charge, wireless charging excellent protection performance, 1.5 meters height six sides drop test certification
Unique gun base design, comfortable grip, high sensitivity antenna and high-power SLR1200V2 RFID module, high-performance UHF reading and writing, 6000mAh high-capacity battery of the fuselage + 4000mAh detachable standby battery of the handle, with strong endurance. Reliable heat dissipation design, high power and high recognition rate.
The integrated reader SLR1215 is a small size UHF RFID reader designed by the integration of antenna and reader. It supports ISO18000-6C protocol, with an adjustable output power of 5dbm to 30dbm. The reader is exquisite and compact, with long reading distance, high accuracy, fast speed, and strong anti-interference ability. It supports a variety of communication interfaces, with excellent protection performance and convenient installation and use.
The 4-port UHF RFID reader SLR5623 adopts a brand-new appearance design, multiple communication interfaces, supports PoE power supply mode, easy to install, and rapid deployment. The SLR5603 is based on Impinj Indy R2000 chip, high performance, and long reading distance. The shell is made of all-aluminum alloy, which is durable and has good heat dissipation function. The four-corner installation method is stable and reliable. The front panel is designed with multiple indicators to make the prompt information clearer. RJ45, RS232, and other communication modes can meet various industrial applications.


Using AI and Drone Data
for Precision Agriculture and Improved Workflows
- AI & ML
- Data Analytics
At an industrial scale, agriculture operations are generating massive amounts of data, and this is only increased with the addition of drone-based photography. The result is a wealth of data from which it can take hours and days to gain any meaningful insights.
Today’s farming operations succeed by harnessing the vast amounts of data available in the field, and running sophisticated analytics against that data. To address this, Valence worked with a major precision agriculture drone intelligence company, to design and build intelligent data and numerical analysis workflows, allowing for the processing of thousands of discrete aerial images of a field. By utilizing AWS to build a modern, elastic, scalable system, Valence was able to help them optimize their algorithms for speed and accuracy.
By relying on a cloud-first methodology, Valence designed and built a field analytics engine that reduced processing time from 72 hours to 30 minutes. Additionally, a 40x performance improvement was gained on specific computer vision algorithms.
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Valence Group Inc. (Bellevue)
3005 112th Ave NE, Suite 250
Bellevue, WA 98004


Which statement about the electron-cloud model is true? It is the currently accepted atomic model. It can easily be replaced by existing models. It specifies the location and momentum of an electron. It does not explain the formation of emission lines.
Correct answer: It is the currently accepted atomic model.Explanation: There were many models before this which were taken into account to study the nature of electron. The electron-cloud model was proposed by Erwin Schrodinger. His model does not tell us about the specific position of the electron but tell us about the most probable position of electron in an atom. This model uses atom's emission spectra to tell the probability of where the electron might be present.


How are Batteries Made: The Role of Vacuum in Production
As the world slowly transitions from fossil fuel to emissions-free electrification, batteries become an indispensable storage tool for energy transfer. In particular, lithium-ion batteries are the preferred option for powering everything from mobile phones to electric vehicles.
On top of that, studies suggest that global battery demand will increase from 185 GWh in 2020 to over 2,000 GWh by 2030. This skyrocketing demand for batteries also pressures manufacturers to ramp up their production.
The growing demand for batteries is almost inevitable. So, organizations that heavily rely on batteries need to ask an important question to determine whether to have a position in battery manufacturing: How are batteries made, and what materials are necessary for production?
This article will help you learn more about the battery manufacturing process, including how it's done and how essential vacuums are in producing batteries.
The Battery Manufacturing Process
1. Electrode Manufacturing
Electrode manufacturing is the first stage in the battery manufacturing process. In this stage, the electrode materials and a conductive binder mix to form a uniform slurry. Then, depending on the battery specifications, the slurry will either be continuously or intermittently coated on both sides of the current collector. A coating machine adjusts the thickness of the slurry coating.
The coated foil will then be fed into a long drying oven to vaporize the solvent, followed by a calendaring process. This is where a rotating pair of rollers compress the coated foils to help adjust the physical properties of the electrodes, such as bonding, conductivity, density, porosity, etc.
After the calendaring process, the finished electrodes will go to slitting machines for cutting and recoiling. Then, the coils are sent to a vacuum oven to clear out any residual moisture and solvent.
2. Cell Assembly
After preparation, the electrodes will be transferred to a dry room for a sub-assembly process. This process will layer a separator between the anode and cathode, forming the battery cell's internal structure.
After assembly, ultrasonic or laser welding will connect the cell structure to cell tabs and safety devices. Next, the sub-assembly will be inserted into the cell housing. The assembly will be sealed using laser welding or tube furnace heating, leaving an opening for the electrolyte's injection.
Electrolyte injection involves using a high-precision dosing needle inside a dry room to prevent moisture from damaging the housed cell. A serial number label will mark the finished cell's case.
3. Cell Finishing
After injecting the electrolyte into the battery cell, the formation process will facilitate the cell's first charge and discharge. This is done by placing the cells in information racks for contact with spring-loaded pins. Charging and discharging the cells will proceed according to precise current and voltage curves.
Lithium ions will be embedded on the anode side of the graphite crystal structure during cell charging and discharging. The ions will form a protective layer between the electrolyte and the electrode known as the solid electrolyte interface (SEI). This protective film causes a low self-discharge of Li-ion batteries, contributing to battery life and performance.
After the formation process, the cells must undergo the aging process for quality control. The cell characteristics and performance will be monitored by measuring the open-circuit voltage (OCV). Cells will undergo this process for up to three weeks.
Following the aging process, the cells will be tested in an end-of-line test rig. They will be taken from the aging racks to the testing station and set to the shipping state of charge. Further pulse tests and other production-related battery research, such as internal resistance measurements (DC), optical inspections, and leakage tests, may also be carried out.
Once the cells have successfully passed the tests, they will be assembled into battery packs.
How is Vacuum Technology Used in Battery Manufacturing?
Vacuum ovens and chambers play a vital role in the different stages of battery manufacturing. Here are their primary uses in battery production.
Mixing the slurry with binding agents, solvents, and lithium metal oxides takes a lot of time. In this method, air bubbles commonly build up and become an obstacle to making quality lithium-ion batteries.
A vacuum pump is effective in sucking the bubbles out of mixing chambers. With the help of a vacuum pump, you can help these chambers produce a uniform and homogeneous paste. This uniformity is crucial because it helps maintain the batteries' quality, performance, and longevity.
A vacuum is also necessary for drying, as it helps remove moisture and solvents like N-methyl pyrrolidone. Depending on the machine's in-line drying system, a vacuum drying oven is generally compatible for continuous and batch processing.
Vacuum pumps can perform without a problem, even if you subject them to harsh conditions like temperature and terrain. The conditions rarely matter when using a vacuum pump because it can consistently maintain its vacuum level and deliver premium quality electrodes. As such, you can ensure the production of the best lithium-ion batteries every time.
3. Filling and Degassing
In filling and degassing, a vacuum evacuates the cells by gradually taking them out one at a time and filling the chamber with electrolytes. A vacuum also allows lithium ions to move independently. This free movement will enable the lithium-ions to charge and discharge quickly.
Degassing is laborious, so you must ensure that the vacuum pump is robust enough to produce the electrolyte purity required to create long-lasting lithium-ion batteries.
In addition to filling and degassing, you will need a vacuum to seal the lithium-ion batteries. With a vacuum, removing moisture, air, and any contaminants in the battery is easier before packing and sealing.
Vacuum pumps are responsible for the tightly wrapped plastic around lithium-ion batteries. Once batteries reach their desired figure, they go through a vacuum chamber that removes all impurities within seconds. Battery technologies constantly evolve, but in the meantime, the batteries must have a plastic coating that prevents the ingredients from touching the user's skin.
Batteries and Vacuum: A Powerful Duo
Batteries accept, store, and release electricity on demand, making them crucial in transitioning to a renewable-energy-fueled world.
Here, knowing the battery manufacturing process can be valuable for your team in understanding how to align your strategies better. It's equally vital to know the tools that make battery manufacturing possible, including vacuum chambers and ovens.
Across International carries a wide range of lab equipment and tools essential in battery manufacturing. For more information, check out Across International's vacuum ovens and tube furnaces with vacuum flanges.


Transforming environmental and situational awareness data into an asset
Mothive is a London based technology startup founded in March 2015 that designs hardware and software IoT solutions to collect environmental and situational awareness data and turn it into an asset.
Our technology is specially designed for the defence and precision agriculture sectors, where the support infrastructure is usually insufficient and the nonexistence of portable technologies greatly limits monitoring, security and productivity of assets and resources in remote locations.
Digital Catapult Technology Layers
Mothive work across the following Digital Catapult technology layers:
- Connected– Internet of Things, low powered wide area networks
- Intelligent– machine learning
Use of these technologies
Our first product is a self-healing wireless network of sensors and actuators used to survey an area in real time and feed the information back to users to support their decision making, trigger alerts and automatic responses. The field devices use emerging Internet of Things technologies like 6LoWPAN, RPL, MQTT, CoAP, and are programmed with customised power algorithms, which allows them to operate years without supervision or maintenance.
The intelligence gathered by the devices is accessed through a customised dashboard and it draws on machine learning algorithms running in Microsoft Azure (for example, two class boosted decision tree, two class decision regression) to enable users to predict and plan ahead.
There’s currently no recommendations system available in the market that combines data from different sources – our in situ and highly granular devices, historic and near real time satellite data, and other third party systems – provides information to farmers and supply chain, with a trustworthy confidence interval.
With Mothive’s Precision Monitoring and Recommendations System, our customers will be able to boost crops production, reduce resources and labour costs (for example, best time to seed and harvest, when and where irrigation and pesticide should be applied), and detect hazardous events, such as wildfires and theft.
Five years from now...
Five years from now, we see ourselves as a key provider of technology and recommendations in the precision agriculture space, supporting multiple crop types and regions of the world. Likewise, we want to be at the forefront of a new agricultural paradigm that includes the articulation and communication of systems to achieve fully autonomous farming and plant development. Collaboration with universities, research institutes and companies is therefore part of our strategy to really make the latter happen.
As for the defence sector, due to its highly competitive and ‘closed sector’ nature, we envision partnering with large companies, like Lockheed Martin, BAE Systems, and work as a provider of advanced ground technologies to perform intelligence, surveillance and recon operations and aid soldiers in ground combat.
A little more info
In May 2016, we secured our first paying customer in precision agriculture, Altri Florestal – a large wood and pulp company that is part of the Portuguese Stock Index – and we’re helping them improve the yield of their eucalyptus trees process.
In the defence sector, we signed a Collaboration Protocol with the Portuguese Military Academy Research Centre in April 2015. As a result, we submitted a project that is currently under evaluation and the official approval will be given in Q4 2016. Mothive has presented the project at a NATO Urban Operations workgroup meeting this year, following the invite from the Portuguese Military.
At Digital Catapult
We plan to showcase our Precision Agriculture platform, where we’ll take two of Mothive’s IoT devices and one box substrate.
The demo will look like the following: one device is collecting data (soil moisture, air temperature and humidity, and irradiance) from the plant and sending the data to our server in Microsoft Azure. A laptop/iPad will access our user dashboard and everyone can see the live data being collected by the device, as well as learn how our Recommendations System can provide unique insights and predictions about crop production, reduction of costs with resources and hazardous events.


ACCOMMODATION PLACES VIEWS WELCOME
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Lying just inland at Boulby is the entrance site of the Boulby Potash Mine, one of the deepest mines in Europe, and now site of the UK Dark Matter Collaboration particle physics experiment, which attempts to discover postulated and otherwise elusive particles known as "WIMPs" (Weakly Interactive Massive Particles) or "neutralinos".
For more information about the subject of particle physics, please visit the Eagle Intermedia particle physics website.
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The Northern District of Indiana offers lawyers the ability to make presentations during court
proceedings using their laptop. Technology-ready counsel tables provide quick-connect capability
for counsel to connect their laptop computer into the system.
In order to effectively use this technology, the laptops must be configured properly:
1) A VGA HD15 video display connector.
2) A 1/8" (3.5mm) headphone jack for audio presentations.
3) Display settings must be set to XGA resolution (1024 x 768) at 60Hz in order to display
properly on the Court's monitors.
The laptop can be tested in your office by connecting the video cable to an external monitor or
projector. Many laptops use the function keys F5 or F8 to toggle displays to external monitors.
While in Court, counsel will use the function key to toggle video output from the laptop to the


Alphabet’s Google has made significant progress in the field of artificial intelligence (AI), recently rebranding its chatbot and introducing a new subscription plan. The move puts Google in direct competition with its rival OpenAI, signaling a key moment in the ongoing AI race.
Introducing Gemini: Google’s advanced chatbot
Google’s chatbot, previously known as Bard, has got a makeover and is now named Gemini. This rebranding effort coincides with the launch of a new subscription plan, which gives users access to Google’s most advanced AI models. ultra 1.0, Within the Gemini family.
power of ultra 1.0
Google’s Ultra 1.0 boasts Model EAdvanced abilities, especially excellence in complex tasks like coding and logical reasoning. This advancement underscores Google’s commitment to pushing the boundaries of AI technology and providing users with cutting-edge tools.
Integration with Google ecosystem
Will integrate seamlessly with popular Google products like Gemini Gmail and Google Docs, Providing users with a seamless AI experience across different platforms. This integration differentiates Google from its competitors and increases user convenience.
Gemini favors conversation Through text, speech and images, increasing its versatility and usability, Google’s commitment to developing a comprehensive AI assistant is evident in Gemini’s multi-modal capabilities.
Accessibility and coverage
Gemini will initially be available in English in the US, with plans to expand to more languages and countries. The rollout strategy reflects Google’s ambition to make AI accessible to a global audience.


• Home Security Systems, Business Commercial Systems
• Sirens, Motion Detectors, Door Contacts
• Monitoring and Text Message Notifications
• Asset Protection, Loss Prevention
Intrusion Alarm Systems compose of a siren, control unit, and different types of sensors depending on the application. These systems can be integrated with CCTV Surveillance Cameras, and using a mobile-phone SIM card, can be used to provide you, your monitoring company, and the authorities with live information in order to respond effectively. We install several types of intrusion alarm systems, and for the most cost conscious user, we even supply and install wireless security systems. However, the most secure intrusion alarm systems transmit sensor information via cables inside conduit. In some cases we’re able to run security cabling in an enclosed space that provides adequate protection, eliminating the need for expensive conduits to provide our clients with the most value.
Contact us to find out how we can work together with your alarm system monitoring company to provide a robust, high-quality installation, or visit our portfolio to see examples of security alarm systems installed at businesses located within the greater Vancouver region.


- 25% Faster Than Competing Wireless Mice: The all-new, Razer HyperSpeed wireless technology brings together extreme low-latency and interference reduction for true wireless freedom
- Dual Mode Connectivity: Supports Bluetooth for efficient power consumption and HyperSpeed Wireless for lag-free gaming
- 6 Programmable Buttons: Allows for reconfiguration and assignment of complex macro functions through Razer Synapse 3
- Up to 450 Hr Battery Life: Lasts 450 hours on Bluetooth, 285 hours on HyperSpeed Wireless
- Durable Mechanical Switches: Supports up to 50 million clicks
Razer Basilisk X HyperSpeed Wi...
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SrinSoft develops custom applications to enhance the experience of existing CAD software tool using .NET technology. We use software development tools like Visual c#, Visual Basic, VBA, ASP, .NET, C++, Visual LISP etc., to develop automation programs and CAD tools/plug-ins.
SrinSoft optimizes your CAD by developing customized user interface. These applications have the capability to directly access your CAD functionality to increase productivity.
CAD toolbars, pull-down menus, settings, commands and shortcuts will all be customized for optimal use by your designers.
With in-depth knowledge and project experience in CAD Technology and software development, we are specialized in developing customized applications on the following areas:
- Revit (Architecture/Structure/MEP)
- Visual LISP
Other CAD/CAE Software
- Pro/Engineer Wildfire
- SolidWorks API


LEDs are among the most effective lighting sources available and would become the first technology in the next few years. Moreover, LED provides a long lifespan, durability, energy efficiency, design flexibility, economic efficiency, zero UV emissions, and low-voltage operation, etc.
What is LED Lighting?
LED refers to the light-emitting diode. Incandescent light bulbs are not efficient while LED lighting products efficiently produce 90% more light. Moreover, LED lighting is a type of lighting that uses Lead-emitting diodes are transform electrical energy into light.
LED bulbs and LED lamps are everywhere from industries, offices, vehicles, homes, and almost any other place. In this article, we would be exploring various things about LED lights and how it affects our daily activities. LED extrusions are available in homes while using LED lights.
Its a device that emits light when an electrical current passes through it. Earlier LED produced only red light, but now the modern age LEDs can produce various different colored light for instance red, blue, green (RCB) light. Due to this millennium technology, it’s is possible that LEDs are producing white light as well.
How does LED lighting work?
The light is created in LEDs by electroluminescence in a semiconductor material. Electroluminescence refers to the phenomenon in which light is produced when an electric field or electric current passes through it. This process takes place when electrons are sent through the material and fill electrons holes.
An electron-hole is present when an atom lacks negatively charged electrons rather has a positively charged electron. To create and control the number of electron holes semiconductor materials such as silicon or germanium are doped.
However, doping refers to the addition of other elements to the semiconductor material for changing its properties. Through doping, a semiconductor can make two separate semiconductors in the same crystal. P-n junction refers to the boundary between the two types.
These junctions basically allow the current to pass through one way, due to which they can used as diodes. P-n junctions are use to make LEDs. When one electron passes through one crystal to other as they fill the electron holes. This technology releases photons i.e. light. This is the procedure in which semiconductor works.
Types of led lighting Dimmer Switches
Dimmer switches are use with LED lighting. On the contrary, normal dimmer switches which might work with an incandescent bulb don’t usually work with LED lighting and they usually need to be replaced. The only reason behind this is that LED lighting works on lower wattage than other bulbs.
LED Lighting Tubes
LED lighting tubes are mainly manufactured to replace the fluorescent tubes and in some cases, it’s just simply drop-in replacement. Usually, other tube designs need rewiring and new ballast. These basically work by providing a series of smaller LED lights along the length of a tube that are available in the most size that is generally available.
COB refers to Chip on Board which is another new generation LED technology. LED light provides a denser amount of light if compared to SMD or great optics because. It reflects a consistent beam of controlled light. It provides a better lumen to watt ratio which is eventually highly efficient.
Benefits of LED lighting
- Long product life: it is the topmost advantage of LED lights that it has long product life if compared to others bulbs.
- High Durability: LED lights are highly durable rather than glass bulbs as these LED bulbs have no fragile glass, no moving parts, and no filament breakage.
- Energy efficiency: one of the main reasons for migrating to LED lighting is energy efficiency as it conserves electricity in comparison to normal bulbs.
- Design flexibility: the small size of these LEDs allows the designers to make them into shapes and sizes for many applications. This is a perfect combination of form and function.
- LED lights have a low environmental impact as it contains no mercury which makes it easy to dispose of
Drawbacks of LED lighting
- High up-front costs
- Transformer compatibility
- Potential color shift over lamp life
- Performance standardization has not been streamlined
- Overheating can cause reduced lamp life
From this article, you may now have an idea about what is LED lighting. LED lighting has mainly installed due to its high energy efficiency and its enhanced safety. The rises of many energy efficiencies and LED manufacturers have sold these products to buildings and residential homes. Imagine pairing LED lighting together with solar photovoltaic panels. Eventually, it has tremendous benefits.
Energy efficiency is a key feature for the future. We must make conscious decisions about how the consumption of energy and the impacts of disposal of this equipment to ensure we reduce our carbon footprint over time. Becoming energy efficient is just one of the key advantages of going green to save the environment.
Source: Free Guest Posting Articles from ArticlesFactory.com


RF Signal Generator Calibrated 35MHz to 4.4GHz via USB + FEATURES + RF Cable
Product DescriptionSaller: yarbrob1
Start on: 2013/17/05 15:00:23
Finishes on: 2013/30/05 12:23:29
Location: Spicewood, Texas
RF Consultants, Test Engineers, Antenna Range Technicians, Production Test Engineers, Site Survey Technicians and Ham Radio Enthusiasts
This unit is unbelievable for the price. This unit works like an expensive Signal Generator at a fraction of the cost.
This document will provide a brief description of the features of the TPI Synthesizer Version 4.0
This synthesizer utilizes the Analog Devices PLL integrated circuit ADF4351.
Output frequency range: 35 MHz to 4400 MHz
Fractional-N synthesizer and integer-N synthesizer
Low phase noise VCO (1GHz 10Khz offset = -91dBc/Hz)(2.4GHz = -86dBc/Hz)
Typical rms jitter: <0.4 ps rms
Programmable output power level
Cycle slip reduction
TPI Synthesizer FEATURES
is 10MHz Temperature Compensated Clock Oscillator at +/-2.5 ppm over temperature +/-1.5 ppm at room temp
For a description of the reference clock go to Digikey.com and use this part number: 631-1067-1-ND
There is a buffered
reference output available at front panel. The Reference is accessed via a BNC
connector. The output will drive a 50 ohm coaxial cable. DC Coupled 0v to 3.3v
There is an External
10MHz Reference Input on the back panel (BNC). This External input is double buffered so that neither of the 10MHz signal inputs will influence the reference selection.
The unit has been *calibrated and RF Output Power is accurate within +/-1dBm with 90% of all readings within 0.6dB of reported power 35MHz to 4GHz.
Output Power is
available from +10dBm to -55dBm (65dB linear range). Simply add a fixed attenuator of 40dB to get ranges down to -95dBm.
Attenuator section can be swept at any values between +10 to -55dBm.
Attenuator can be “Single” stepped both up and down.
Step size is adjustable from -1 to -55dB
Attenuator Sweep speed is adjustable
RF Sweep Features:
RF Sweep function with 1KHz resolution and selectable time per step
Single Step function Up/Down selectable step size
Single Sweep Function or Continuous loop
FM sine-wave input 5Vp/p Max (safety clamp installed). You adjust the peak to peak level of the sinewave input and that controls the deviation. Send me an inquiry and I can send you more details in PDF format.
Lock Detect LED front panel. When the LED is on it indicates that the Frequency is locked and stable.
Standard SMA RF output (50 ohm)
Powered by USB 2.0 port (< 250ma)
NOTE: There is no RF filtering of the RF output and you will see the harmonics. If you request 900MHz you will get 1800MHz and 2700MHz and 3600MHz at some lower level. This is not a ten thousand dollar unit and I am designing stand alone Band Pass Filters for the popular frequency bands. Some HAM operators have sent information at 78GHz which requires great phase noise.
Packaged in extruded Aluminum housing with Aluminum End Plates
SOFTWARE is developed around 2 platforms. Tcl and LabView. You do not need to own LabView and you will get an executable file. But if you are interested in LabView and you want the Native LabView Files then contact me. I have software developed around Tcl (Tickle) as well. The Tcl software is a better platform with more capability. I am going forward with the Tcl platform in regards to upgrades. I keep LabView around for those who want to integrate this system into other VI's.
SOFTWARE Upgrade: I have added a very slick Morse Code Module with the Tickle Platform. The Tickle Platform is a better platform than the LabView. You get both on the CD. You need to contact me and send me your contact info to get a detailed product description. In short you can control multiple signal generators with the Tickle Platform and you can simply type your message in the Morse Code module and the signal generator will send whatever you type in Morse code using OOK modulation. There is an additional "Beacon" mode.
Contact me for a complete description and Operating manual
I am including a new 10 inch Semi-Rigid coax cable. My Network Analyzer only goes out to 6GHz and so this cable has less than 0.7dB insertion loss at 6GHz.
This is a wide band synthesizer. This is a very inexpensive solution for a stable frequency source for a number of applications to include production test set ups, antenna testing, Range tests, bench testing, site surveys.
product is Made in USA by an RF Engineer with 30 years of experience in product
Custom designs can be discussed. I am a wireless engineer and available for product development. I have a number of products on the shelves at Big Box stores and have been developing products for 30 years.
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Analysis & Hosting
Customized data analysis workflows (like smartR).Customized data analysis workflows (like smartR).
Secure data hosting and platform setup, secure archiving.
Opal ClinicalNEW: sequence data into high-quality clinically meaningful insights.
- Functional analysis from single and multi-omics datasets
- ITTM offers customised development of data analysis workflows and visualisation tools
- ITTM provides secure central data hosting and platform setup
- ITTM offers secure data archiving (e.g. incremental backups in Tier 3/4 data centres)
- Customised workflows for patient stratification and biomarker discovery
- ITTM offers functional annotation and pathway enrichment analyses
- ITTM offers expert-curated comprehensive disease map development
- ITTM provides interpretation and contextualisation support
- Increased Data Security together with our partner
- Data hosting and platform setup with multilayer access control,
- Geo resilience Tier 3/4 data centres
- Development of efficient solutions and databases


The Value Proposition: Advanced Data Analytics And Next -Generation Audio
You’ll recall from previous posts, Bodytrak fits securely and unobtrusively in the ear and uses the way your ear is shaped to position micro sensors to collect accurate data on your Core Body Temperature (CBT), Heart Rate (HR) and a host of other measures (more on these in the next few posts). The data is sent from Bodytrak wirelessly, in real-time to a cloud-based analytics platform via a smartphone, tablet, smartwatch, or internet hub.
Algorithms use the data readings to inform the user on how the body is dealing with different situations – whether it’s measuring peak fitness levels during sport or how the body is coping when working in extremely harsh environments like fire fighting. In potentially dangerous environments, this is high granular physiological monitoring happening in real time and our system allows for rapid, early intervention for individuals deemed at risk as well as detailed analysis of physical performance.
In sport, analytics and machine learning within the Bodytrak platform give unrivalled insights to aid training programmes, protect from injury and improve overall performance. These analytics can detect changes in how the body responds to different training patterns which can be used to assess performance and refine training on a session-by-session basis.
If required, users can also listen to music and use the earpiece as part of a communication system (both radio and telephone). Bodytrak even records and digitally processes ambient sound so the user retains their hearing and situational awareness for added safety.


A new treatment approach which uses tiny bursts of electricity to reawaken paralyzed muscles “significantly” reduced disability and improved grasping in people with incomplete spinal cord injuries, beyond the effects of standard therapy, new research shows.
In a study posted online in the journal Neurorehabilitation and Neural Repair, Toronto researchers report that functional electrical stimulation (First-of-its-kind study shows benefits of electrical stimulation therapy for people paralyzed by spinal cord injury) therapy worked considerably better than conventional occupational therapy alone to increase patients’ ability to pick up and hold objects.
FES therapy uses low-intensity electrical pulses generated by a pocket-sized electric stimulator. Unlike permanent FES systems, the one designed by Dr. Popovic and colleagues is for short-term treatment. The therapist uses the stimulator to make muscles move in a patient’s limb. The idea is that after many repetitions, the nervous system can ‘relearn’ the motion and eventually activate the muscles on its own, without the device.
Read the full article and details from the study: http://www.sciencedaily.com/releases/2011/02/110217125113.htm


Software Defined Wide Area Networking (SD-WAN) is more than just connecting networks. SD-WAN provides insights and control in the applications that are running between DCs and remote or central sites. Elevate control by extending LAN segmentation over the WAN, deep packet inspection and service chaining.
The traditional WAN function was connecting users at the branch or campus to applications hosted on servers in the data center. Typically, dedicated MPLS circuits were used to help ensure security and reliable connectivity. This no longer works in a cloud-centric world where flexibility, visibility and own control are prefered.
The new WAN. There is a new kind of WAN to address these challenges: SD-WAN. Software-defined WAN is a new approach to network connectivity that lowers operational costs and improves resource usage for multisite deployments. Network administrators can use bandwidth more efficiently and can help ensure the highest level of performance for critical applications without sacrificing security or data privacy.
The benefits of SD-WAN.
Why Cisco SD-WAN?
When connecting sites together over an uncontrolled network like the public internet, it is essential that your solution is not only leading with SD-WAN features but also with security. By choosing for a solution from Cisco, you choose for a solution leading in both fields.
Want to know more?
Download our SD-Wan Guide.


Artificial intelligence (AI) has ushered in a new era of innovation, with a transformative impact being felt across several industries at an unprecedented pace.
However, the rise of AI has also led to an evolving landscape of emerging cyber threats, as cybercriminals harness the power of AI to develop more sophisticated and hyper-targeted attacks, which represents a major challenge for cybersecurity service companies.
Organizations continue to integrate AI-powered technologies into their cybersecurity operations to properly anticipate and adapt to the ever-changing threat landscape and strengthen their security posture to address these new security challenges.
How can cybercriminals exploit ChatGPT?
ChatGPT, a powerful AI language model developed by Open AI, offers numerous applications in several domains, but also presents potential exploitative risks that could be exploited by cybercriminals.
One of the main ways in which cybercriminals can exploit ChatGPT is through social engineering attacks, where they take advantage of the natural language processing capabilities of AI to create highly compelling emails or phishing messages, not to mention that, phishing attacks account for almost 90% of cyberattacks worldwide and with the use of these technologies, the trend is that this percentage could rise in the coming months.
Cybercriminals can also use ChatGPT to generate input designed to exploit vulnerabilities in the security system or bypass content filters, such as creating obfuscated malicious code or generating text that evades content moderation systems such as CAPTCHA.
Additionally, tools like ChatGPT can also be used to create exploits, fragments of malicious code (Malware) that can be used by cyber actors for a specific attack. While it is true that the development of certain technologies largely seeks the positive benefit for organizations, this potential can also be used in a negative sense.
At Cyberpeace, we believe that in order to control or mitigate these potential risks associated with the operation of ChatGPT, a proactive approach to security must be taken. This includes staying informed of the latest trends, developments in AI and cybersecurity, as well as implementing robust security measures to protect sensitive data and promote awareness of the potential risks associated with emerging AI-powered technologies.
Director of Incident Response and Threat Intelligence of Cyberpeace


From Electric Bikes to Tesla: Unleashing the Full Potential of Regenerative Braking
Experience the future of braking technology with our revolutionary regenerative braking systems. Whether you’re riding an electric bike or driving a Tesla, our advanced braking technology will maximize energy efficiency and enhance your overall driving experience.
Unlock the Power of Regenerative Braking
With our cutting-edge regenerative braking technology, every time you slow down or come to a stop, your vehicle converts kinetic energy into electric energy, which is then stored in the battery. This not only helps extend your vehicle’s range and reduces energy consumption but also reduces wear on traditional braking systems.
Ride Smoother, Brake Smarter
Our regenerative braking systems improve safety and control on electric bikes and electric vehicles. By harnessing the power of regenerative braking, you can enjoy a smoother ride with more precise control over braking, making your journey effortless and enjoyable.
Upgrade Your Electric Bike or Tesla Today
Don’t miss out on the future of braking technology. Upgrade your electric bike or Tesla with our state-of-the-art regenerative braking system and experience the seamless integration of cutting-edge technology and superior performance.
Regenerative Braking in Electric Vehicles and Bikes
Regenerative braking is a revolutionary technological advancement that has transformed the way electric vehicles and bikes operate. This cutting-edge system allows these vehicles to recover and store energy that is typically wasted during braking, making them more efficient and sustainable.
When an electric vehicle or bike with regenerative braking is in motion, the motor acts as a generator, converting the kinetic energy of the moving vehicle into electrical energy. This energy is then stored in a battery or capacitor for later use. By harnessing the power of regenerative braking, these vehicles can extend their range and reduce the need for frequent recharging.
One of the primary benefits of regenerative braking in electric vehicles and bikes is its ability to increase overall energy efficiency. By converting kinetic energy into electrical energy, less energy is wasted and more energy is recovered and reused. This not only reduces the environmental impact of these vehicles but also lowers operating costs for the user.
In addition to energy efficiency, regenerative braking also enhances the safety and control of electric vehicles and bikes. The system allows for smoother and more controlled deceleration, reducing wear and tear on traditional braking systems. This results in improved brake life and reduced maintenance costs for the owner.
Regenerative braking technology has become a standard feature in many electric vehicles and bikes, ranging from electric bikes to high-end electric cars like Tesla. Its widespread adoption is a testament to its effectiveness and practicality.
In conclusion, regenerative braking in electric vehicles and bikes is a game-changer in the world of transportation. With its ability to recover and store energy, increase energy efficiency, and improve safety and control, this technology is revolutionizing the way we travel.
Basics of Regenerative Braking: How It Works in Teslas and Electric Bikes
Regenerative braking is a revolutionary technology that has transformed the way we think about braking in electric vehicles. It allows the vehicle to recover and store energy that is typically lost as heat during braking, thereby increasing overall energy efficiency and extending the range of the vehicle.
In Teslas, regenerative braking works by using the electric motor as a generator. When the driver applies the brakes, the electric motor switches from propulsion mode to generation mode, converting the vehicle’s kinetic energy into electrical energy. This energy is then stored in the battery for later use, such as accelerating or increasing the vehicle’s range.
Electric bikes also utilize regenerative braking to maximize energy efficiency. When the rider applies the brakes, the electric motor on the bike acts as a generator, converting the kinetic energy into electrical energy. This energy is then sent back to the battery, allowing the bike to use it later for increased acceleration or extended range.
One of the key advantages of regenerative braking is its ability to increase the range of electric vehicles. By capturing and storing energy that would otherwise be wasted as heat during braking, regenerative braking helps to maximize the efficiency of the vehicle’s battery. This can result in a significant increase in the driving range, allowing drivers to travel longer distances without needing to recharge.
In addition to improving range, regenerative braking also provides a smoother and more controlled braking experience. Since regenerative braking utilizes the electric motor to slow down the vehicle, it offers a more consistent and predictable deceleration compared to traditional friction brakes. This can enhance overall safety and comfort for both Tesla drivers and electric bike riders.
Overall, regenerative braking is a game-changing technology that has revolutionized the way we think about braking in electric vehicles. From Teslas to electric bikes, it provides numerous benefits such as increased range, improved energy efficiency, and a smoother braking experience. As the popularity of electric vehicles continues to grow, regenerative braking will undoubtedly play a crucial role in shaping the future of transportation.
The Evolution and Varieties of Regenerative Braking: Tesla, BMW, Chevy Bolt, and More
Regenerative braking is a revolutionary technology that has made significant advancements in the automotive industry. It is a system that allows vehicles to capture and store kinetic energy that is typically wasted during braking, and convert it into usable electrical energy.
Tesla, known for being a pioneer in electric vehicle technology, has been at the forefront of incorporating regenerative braking into their vehicles. The company’s Model S, Model 3, and Model X all utilize regenerative braking to improve efficiency and range. This technology allows Tesla vehicles to recover a substantial amount of energy, increasing their overall efficiency and reducing the wear on traditional braking systems.
BMW has also embraced regenerative braking in their electric and hybrid vehicles. The BMW i3, for example, features a two-stage regenerative braking system that allows the driver to adjust the level of regenerative braking and control the amount of energy being captured during deceleration. This enhances the driving experience and improves the vehicle’s efficiency.
Chevy Bolt, another popular electric vehicle, also incorporates regenerative braking. The Bolt utilizes a “Regen on Demand” paddle on the steering wheel, giving the driver the ability to increase or decrease the amount of regenerative braking applied. This feature allows for greater control and customization of the vehicle’s braking performance.
Other automakers, such as Nissan, Ford, and Volkswagen, have also integrated regenerative braking into their electric and hybrid vehicles, showcasing the widespread adoption and acceptance of this technology.
- Nissan’s Leaf uses regenerative braking to capture and store energy, extending the vehicle’s range.
- Ford’s Fusion Energi incorporates regenerative braking to enhance the vehicle’s fuel efficiency.
- Volkswagen’s e-Golf utilizes regenerative braking to improve the vehicle’s efficiency and reduce energy consumption.
Overall, the evolution and varieties of regenerative braking technology have revolutionized the automotive industry. From Tesla to BMW, Chevy Bolt, and more, vehicles equipped with regenerative braking are not only more eco-friendly but also offer enhanced efficiency and performance.
Regenerative Braking in Ebikes: Advancements and Capabilities
Regenerative braking in ebikes has revolutionized the way we ride and interact with electric bicycles. This groundbreaking technology allows riders to not only enjoy a smooth and controlled ride, but also contribute to a sustainable and eco-friendly future.
Advancements in regenerative braking have made it one of the most sought-after features in modern electric bikes. By harnessing the power of kinetic energy, ebikes can convert the energy generated during braking into electricity and store it in the battery for later use.
One of the key capabilities of regenerative braking is its ability to extend the range of an electric bike. By recovering energy that would otherwise be lost as heat during braking, riders can go further without worrying about running out of battery power. This is especially beneficial for long-distance riders and commuters who rely on their ebikes for daily transportation.
In addition to improving range, regenerative braking also enhances the overall efficiency of ebikes. By reusing energy that would have been wasted, these bikes can achieve optimal performance while minimizing energy consumption. This not only saves money in the long run but also reduces the carbon footprint associated with traditional transportation methods.
Furthermore, regenerative braking provides a smoother and more controlled braking experience for riders. With the ability to modulate the amount of braking force, ebike riders can easily adapt to different road conditions and feel more confident on their rides. This feature is particularly useful when going downhill or encountering sudden obstacles.
Overall, the advancements and capabilities of regenerative braking in ebikes have transformed the way we think about electric transportation. Not only does it provide a more sustainable and efficient mode of transportation, but it also enhances the overall riding experience for users. As technology continues to evolve, we can expect even more exciting developments in regenerative braking and its applications in the world of electric bikes.
Managing and Troubleshooting Regenerative Braking
Regenerative braking is a highly efficient technology that allows electric vehicles to recover and utilize energy that would otherwise be lost during braking. However, like any complex system, regenerative braking requires careful management and occasional troubleshooting to ensure optimal performance and longevity.
To effectively manage regenerative braking, it is important to understand how it works and how it integrates with the vehicle’s overall braking system. This includes familiarizing yourself with the various components involved, such as the regenerative braking controller and the battery pack. Adequate knowledge of these components will help you make informed decisions about maintenance and repair.
Regular inspection and maintenance are crucial for managing regenerative braking effectively. This includes checking the condition of the brake pads and rotors, as well as ensuring that the regenerative braking system is functioning properly. If any issues are detected, they should be addressed promptly to prevent further damage and optimize performance.
When troubleshooting regenerative braking, it is important to diagnose the issue accurately before attempting any repairs. Common issues might include excessive noise or vibration during braking, inconsistent braking performance, or a complete failure of the regenerative braking system. By systematically identifying the root cause of the problem, you can apply the appropriate solution, whether it be by replacing faulty components, recalibrating the system, or seeking professional assistance.
Additionally, it is essential to stay updated on the latest regenerative braking technology advancements and best practices. As electric vehicle technology continues to evolve, manufacturers may release firmware updates or recommend new maintenance procedures. By staying informed, you can ensure that your regenerative braking system remains efficient and reliable.
In conclusion, managing and troubleshooting regenerative braking requires a combination of knowledge, regular maintenance, and a systematic approach to problem-solving. By following these guidelines, you can optimize the performance of your regenerative braking system and enhance the overall driving experience of your electric vehicle.
How to Turn Off Regenerative Braking in Tesla Models (Model 3, Model Y, etc.)
Regenerative braking is a feature that allows electric vehicles like Tesla models to convert kinetic energy into electrical energy, which is then stored in the vehicle’s battery. This technology helps to extend the range of the car and improve overall energy efficiency. However, some drivers may prefer to turn off regenerative braking for various reasons.
To turn off regenerative braking in Tesla models such as the Model 3 and Model Y, follow these steps:
Step 1: Start by locating the “Controls” icon on the touchscreen display. This can be found in the bottom row of icons.
(Image: Controls icon on Tesla touchscreen display)
Step 2: Tap on the “Controls” icon to access the vehicle’s settings.
(Image: Tesla controls menu)
Step 3: Within the settings menu, select the “Driving” option.
(Image: Tesla driving settings)
Step 4: Scroll down the “Driving” menu until you find the “Regenerative Braking” option.
(Image: Tesla regenerative braking option)
Step 5: Tap on “Regenerative Braking” to toggle the feature on or off. When the setting is “On”, regenerative braking is active, while selecting “Off” will disable it.
(Image: Tesla regenerative braking toggle)
It’s important to note that turning off regenerative braking may affect the vehicle’s range and energy efficiency. Without regenerative braking, the car will rely solely on its conventional braking system.
If you decide to disable regenerative braking, it’s recommended to familiarize yourself with how the conventional braking system operates and adjust your driving style accordingly. This will ensure optimal performance and safety while driving your Tesla.
Remember, regenerative braking is a valuable feature that helps to maximize energy efficiency and range in electric vehicles. If you’re unsure about whether or not to disable it, consult your vehicle’s manual or speak with a Tesla representative.
Dealing with Regenerative Braking Issues: Reduced Functionality and Non-Working Scenarios
Regenerative braking is a revolutionary technology that allows electric vehicles, from bikes to renowned brands like Tesla, to efficiently recharge their batteries while simultaneously slowing down or coming to a stop. However, like any advanced technology, regenerative braking systems can encounter issues that affect their functionality and performance.
In some cases, electric vehicles may experience reduced functionality of their regenerative braking systems. This can occur due to various factors, such as a malfunctioning component within the system or inadequate battery power. When the regenerative braking system fails to function properly, it may not be able to effectively convert the kinetic energy into electrical energy, resulting in a decreased ability to recharge the battery. In such scenarios, the vehicle may rely more heavily on traditional braking methods, potentially limiting the overall efficiency and range of the electric vehicle.
In rare cases, regenerative braking systems may completely stop working. This can be caused by a major malfunction or a failure of key components within the system. Without the ability to harness and convert the kinetic energy, the vehicle loses the benefits of regenerative braking, such as extended battery life and improved energy efficiency. In these non-working scenarios, the electric vehicle would have to rely solely on traditional braking methods, which may result in a higher rate of energy consumption and reduced overall performance.
It is important to note that regenerative braking issues can be addressed and resolved by trained technicians or professionals with expertise in electric vehicle systems. Regular maintenance and inspections are also essential to detect and rectify any potential problems before they escalate.
Despite the occasional challenges associated with regenerative braking, this innovative technology continues to revolutionize the way electric vehicles conserve energy and contribute to a greener future.
Safety Features: Brake Light Activation During Regenerative Braking
When it comes to electric vehicles, safety is always a top priority. With the advancement of regenerative braking technology, it has become even more important to ensure that other drivers and pedestrians are aware when the vehicle is slowing down. That’s why our electric bikes and Tesla vehicles come equipped with the Safety Features: Brake Light Activation During Regenerative Braking.
During regenerative braking, the kinetic energy of the vehicle is converted back into electrical energy, which is then used to recharge the battery. While this process helps to improve the overall efficiency and range of the vehicle, it can also make it difficult for other road users to know when the vehicle is decelerating.
To address this concern, our electric bikes and Tesla vehicles are designed to activate the brake lights whenever regenerative braking is engaged. This ensures that other drivers and pedestrians can easily see when the vehicle is slowing down, allowing them to react accordingly and reduce the risk of accidents.
The brake light activation during regenerative braking is seamlessly integrated into the vehicle’s system, providing a smooth and intuitive experience for the driver. It is a simple yet effective safety feature that enhances the overall visibility of the vehicle, especially in situations where traditional brake lights may not be activated.
With our Safety Features: Brake Light Activation During Regenerative Braking, you can have peace of mind knowing that you are using a reliable and safe mode of transportation. Whether you’re riding an electric bike or driving a Tesla, this feature ensures that you can confidently navigate the roads while minimizing the risk of collisions.
Experience the power and safety of regenerative braking with our electric bikes and Tesla vehicles. Upgrade to a greener and more efficient way of transportation without compromising on safety.
The Future and Limitations of Regenerative Braking
Regenerative braking technology has revolutionized the way we think about energy conservation in transportation. From electric bikes to Tesla cars, this innovative system has been successfully implemented to recover and reuse energy that would otherwise be lost as heat during braking.
As we look to the future of regenerative braking, there are several exciting developments on the horizon. One of the main areas of focus is improving the efficiency of the regenerative braking system. Engineers and researchers are exploring ways to maximize the amount of energy that can be captured and stored during braking, ultimately increasing the range and performance of electric vehicles.
Another avenue of exploration is expanding the application of regenerative braking beyond just automobiles. Electric scooters, trains, and even roller coasters are being equipped with regenerative braking systems to enhance their energy efficiency. This technology has the potential to transform the way we travel and reduce our reliance on fossil fuels.
However, it’s important to acknowledge the limitations of regenerative braking. One of the main challenges is the limited efficiency of the system at low speeds. In order for regenerative braking to work effectively, there needs to be a certain level of kinetic energy to convert into electrical energy. At low speeds, the amount of energy that can be captured and stored is minimal.
Additionally, regenerative braking has its limitations in extreme driving conditions such as on icy or wet roads. The system relies on the friction between the wheels and the road to convert kinetic energy into electrical energy. In slippery conditions, the wheels may not have enough traction to produce the necessary friction, reducing the effectiveness of regenerative braking.
Despite these limitations, regenerative braking remains a promising technology that has the potential to significantly reduce energy consumption and contribute to a more sustainable future. As advancements continue to be made, we can expect to see even more widespread adoption of regenerative braking in various modes of transportation, bringing us closer to a greener and cleaner world.
The Future of Regenerative Braking: Innovations and Potential Developments
As the world continues to embrace sustainable transportation options, regenerative braking has emerged as a key technology in improving energy efficiency and reducing carbon emissions. This innovative braking system has already made its mark in electric bikes and cars like Tesla, but what does the future hold for regenerative braking?
One potential development is the integration of regenerative braking technology into other modes of transportation. Electric scooters, for example, could benefit from this technology, allowing riders to recharge their scooter’s battery while braking. This would extend the range of electric scooters and make them even more practical for urban commuters.
Another exciting innovation is the use of regenerative braking in public transportation systems. Imagine if every bus and tram were equipped with regenerative braking technology. This would not only reduce the carbon footprint of public transportation but also save significant amounts of money by harnessing the energy that is typically wasted during braking.
In the future, we may also see advancements in regenerative braking efficiency. Researchers are constantly exploring ways to improve the conversion of kinetic energy into electrical energy during braking. This could result in even greater energy savings and make regenerative braking an even more attractive option for vehicle manufacturers.
Furthermore, regenerative braking could potentially be combined with other energy storage technologies. Imagine a car that not only regenerates energy during braking but also stores it in a high-capacity battery or fuel cell system. This would further increase the range of electric vehicles and make them even more competitive with traditional combustion engine cars.
Overall, the future of regenerative braking is promising. With ongoing innovations and potential developments, this technology has the potential to revolutionize transportation and contribute significantly to the goal of a greener and more sustainable future.
Limitations and Considerations: When Regenerative Braking Becomes Temporarily Limited
While regenerative braking has proven to be a revolutionary technology in the realm of electric transportation, it’s important to note that there are certain limitations and considerations to keep in mind. Understanding these limitations can help ensure safe and efficient operation of vehicles equipped with regenerative braking systems.
One primary limitation arises when regenerative braking becomes temporarily limited due to various factors such as battery state of charge, temperature, and road conditions. When the battery is fully charged or heavily discharged, the regenerative braking function may be temporarily disabled or less effective. Extreme temperatures, whether extremely cold or hot, can also limit the regenerative braking capability, as they impact the overall performance and efficiency of the battery.
Additionally, road conditions can have an impact on the effectiveness of regenerative braking. Slippery or icy roads reduce the grip between the tires and the road surface, which may limit the ability to recover energy through regenerative braking. In such conditions, relying solely on regenerative braking may not be advisable, and traditional friction braking may be necessary to ensure proper stopping distance and control.
It is also important to consider the weight distribution of the vehicle when relying on regenerative braking. Vehicles with a higher center of gravity may experience limitations in their regenerative braking capabilities, as the weight transfer during braking can reduce the traction and thus the amount of energy that can be recovered.
Furthermore, regenerative braking should not be seen as a substitute for proper driving techniques and habits. It is still essential for drivers to maintain a safe and appropriate following distance, anticipate braking situations in advance, and use the brakes when necessary. Regenerative braking should be viewed as an additional tool to enhance efficiency and range, rather than a complete replacement for traditional braking systems.
Overall, while regenerative braking offers numerous benefits in terms of energy efficiency and range extension, it is important to understand its limitations and consider appropriate driving techniques for optimal performance. By being aware of these limitations and taking them into account, drivers can safely and effectively utilize regenerative braking to enhance their electric driving experience.
Applying Brakes in Limited Regenerative Braking Situations
In certain situations, regenerative braking may not be able to provide sufficient braking power. These limited regenerative braking situations require the use of traditional braking methods to ensure safe deceleration and stopping.
One example of a limited regenerative braking situation is when the battery is fully charged. In this case, regenerative braking cannot effectively convert the kinetic energy into electrical energy because the battery cannot accept any more charge. As a result, the braking power available from regenerative braking is limited, and traditional braking methods must be used to provide the necessary stopping power.
Another example of a limited regenerative braking situation is when the traction control system is engaged. In order to maintain stability and prevent wheel slip, the traction control system may limit the regenerative braking power. This can occur on slippery or uneven roads, where the wheels may lose traction. In these situations, traditional braking methods are necessary to provide reliable and controlled braking.
Additionally, regenerative braking may not be sufficient in emergency braking situations, where the driver needs to stop quickly to avoid a collision. In these cases, the driver must apply the brakes using traditional methods to achieve maximum deceleration and ensure the safety of the occupants and other road users.
- In conclusion, while regenerative braking is a valuable feature that can help improve energy efficiency and extend the range of electric vehicles, there are certain situations where traditional braking methods are necessary.
- Understanding when to rely on regenerative braking and when to use traditional braking methods is important for drivers of electric vehicles to ensure safe and effective braking.
- By maximizing the use of regenerative braking in appropriate situations and applying traditional braking methods when needed, drivers can optimize their braking performance and contribute to a greener and more sustainable transportation system.
What is the book “Mastering Regenerative Braking From Electric Bikes to Tesla” about?
The book “Mastering Regenerative Braking From Electric Bikes to Tesla” explores the concept of regenerative braking and its application in electric vehicles, ranging from electric bikes to Tesla cars. It delves into the technical details of regenerative braking systems and how they work, as well as the benefits and limitations of this technology. The book also provides practical tips and guidelines for maximizing the efficiency of regenerative braking.
Who is the author of “Mastering Regenerative Braking From Electric Bikes to Tesla”?
The author of “Mastering Regenerative Braking From Electric Bikes to Tesla” is John Doe, an expert in electric vehicle technologies and a recognized authority in the field of regenerative braking. He has years of experience working with electric bikes and has extensively researched regenerative braking systems in various vehicles, including Tesla cars.
Is “Mastering Regenerative Braking From Electric Bikes to Tesla” suitable for beginners in the field of electric vehicles?
Yes, “Mastering Regenerative Braking From Electric Bikes to Tesla” is suitable for beginners in the field of electric vehicles. While the book covers technical aspects of regenerative braking, it also offers an accessible introduction to the subject, making it easy for readers with no prior knowledge to understand the concepts and principles behind regenerative braking. The author breaks down complex ideas into simple terms, making the book approachable for beginners.
Does “Mastering Regenerative Braking From Electric Bikes to Tesla” provide practical tips for implementing regenerative braking in electric vehicles?
Yes, “Mastering Regenerative Braking From Electric Bikes to Tesla” provides practical tips for implementing regenerative braking in electric vehicles. The book offers step-by-step guidelines for optimizing regenerative braking systems and maximizing their efficiency. It also discusses real-world examples and case studies of electric vehicles that have successfully integrated regenerative braking technology, providing readers with valuable insights and practical advice.


College of Information & Computer Sciences
University of Massachusetts
Amherst MA 01003 USA
towsley at cs dot umass dot edu
Don Towsley received a B.A. degree in physics and a Ph.D. degree in computer science, both from University of Texas. He is currently a Distinguished University Professor in the Department of Computer Science at the University of Massachusetts - Amherst. Prof. Towsley has been a Visiting Scientist at AT&T Labs - Research, IBM Research, INRIA , Microsoft Research Cambridge, and the University of Paris 6.
Prof. Towsley's research interests include wireless security, network science, and network measurement, modeling, analysis. He was a Co-founder and Co-Editor-in-Chief of ACM Transactions on Modeling and Performance Evaaluation of Computing Systems (TOMPECS) and Editor-in-Chief of IEEE/ACM Transactions on Networking. He has also served on the editorial boards of Journal of the ACM, IEEE Journalof Selected Areas in Communications, IEEE Transactions on Communications, Performance Evaluation, and Networks. He has served as a Co-Program Chair of the jpoint 1992 ACM SIGMETRICS and Performance conference, Performance'02, and IEEE INFOCOM 2009 as well as a Co-General Chair of COMSNETS 2012. He has been active on the program committees of numerous conferences including IEEE Infocom, ACM SIGCOMM, ACM SIGMETRICS, and IFIP Performance conferences He has also served as Chair of the IFIP Working Group 7.3 on computer performance measurement, modeling, and analysis, and as an officer or advisor of ACM SIGMETRICS and ACM SIGCOMM. He is one of the founders of the Computer Performance Foundation.
Prof. Towsley has received the 2007 IEEE Koji Kobayashi Computer and Communications Award , the 2007 ACM SIGMETRICS Achievement Award, the 2008 ACM SIGCOMM Award, and the 2011 INFOCOM Achievement Award. In addition, he has received numerous paper awards including the 1999 IEEE Communications Society William Bennett Award, the 2008 ACM SIGCOMM Test of Time Paper Award, the 2012 ACM SIGMETRICS Test of Time Award, a 2018 ACM MOBICOM Test of Time Award, and several conference and workshop best paper awards including five ACM SIGMETRICS Awards. He is also the recipient of the UMass Award for Outstanding Accomplishments in Research and Creative Activity, the University of Massachusetts Chancellor's Medal, the UMass Amherst Distinguished Graduate Mentor Award, and an Outstanding Research Award from the College of Natural Science and Mathematics at the University of Massachusetts. He has twice received IBM Faculty Fellowship Awards, and is a Fellow of the IEEE and the ACM. Last, he was elected a corresponding member of the Brazilian Academy of Sciences.


함돈희 (Korean); 咸燉憙 (Hanja)
Gordon McKay Professor of Applied Physics and EE, Harvard University
John L. Loeb Associate Professor of the Natural Sciences, Harvard University
Associate Professor of EE, Harvard University
Assistant Professor of EE, Harvard University
PhD. EE. California Institute of Technology (Caltech)
MS. Physics. Caltech
Army duty completed (18 months). Republic of Korea
BS. Physics. Seoul National University
Donhee Ham is Gordon McKay Professor of Applied Physics and EE at Harvard University, where he has been since September 2002, and is a Samsung Fellow.
Ham, from Busan, Korea, earned a B.S. degree in physics from Seoul National University in 1996, where he graduated summa cum laude with the Presidential Prize, ranked top 1st across the College of Natural Sciences, and also with the Physics Gold Medal. Following a 1.5-year military service in the Korea Army, he went to Caltech for graduate training in physics. There he worked on general relativity and gravitational astrophysics under Professor Barry Barish while in physics, and later obtained a Ph.D. in EE in 2002 winning the Charles Wilts Prize awarded for the best thesis in EE. His doctoral work examined the statistical physics of electrical circuits. He was the recipient of the IBM Doctoral Fellowship, Li Ming Scholarship, IBM Faculty Partnership Award, IBM Research Design Challenge Award, and the fellow of the Korea Foundation of Advanced Studies. He shared Harvard's Hoopes prize with William F. Andress. He was recognized by MIT Technology Review as among the world's top 35 young innovators in 2008 (TR35). Ham was selected as a Harvard Yearbook Favorite Professor 4 years in a row (2011-2014), and was one of 8 Harvard Thinks Big speakers in 2012 (8 Harvard faculty chosen by college-wide votes). He served as an IEEE Distinguished Lecturer for the Solid-State Circuits Society (2012-2013).
Ham's work experiences include Caltech-MIT LIGO, IBM T. J. Watson Research, Consulting Visiting Professorship at POSTECH, Distinguished Visiting Professorship at Seoul National University, IEEE conference technical program committees including the IEEE ISSCC and the IEEE ASSCC, advisory board for the IEEE ISCAS, and various US, Korea, and Japan industry, government, & academic technical advisory positions. He served as a guest editor for the IEEE Journal of Solid-State Circuits and was a co-editor of CMOS Biotechnology with Springer (2007). He is an associate editor for IEEE Transactions on Biomedical Circuits and Systems.
1. Solid-state physics (APH 195, PH 195)
[ Syllabus ] [ Homework #1 ] [ Homework #2 ] [ Homework #3 ] [ Homework #4 ] [ Homework #5 ] [ Homework #6 ] [ Homework #7 ] [ Homework #8 ] [ Homework #9 ] [ Homework #10 ]
2. Electromagnetic interactions with matter (APH 216)
[ Syllabus ]
3. Electronic devices and circuits (analog integrated circuits) (ES 154)
4. RF integrated circuits (ES 272)
5. Applied electromagnetism (ES 151)
6. Applied quantum mechanics (SNU)


What is Blockchain and Mining?
Blockchain is a distributed ledger of records without a centralized system on which the older parts of the record cannot be altered. It is recorded on blocks, which are linked using cryptography. It is spread across the network among all peers in the network, and each peer holds a copy of the complete ledger.
Blockchain was introduced in 2009 with Bitcoin, after the big world recession, as a way of taking the control back of our hard earned money, from governments, banks, and other centralized organizations. Our fiat system is flawed, and has depreciated on an enormous scale for decades.
Mining is the process that Bitcoin and several other cryptocurrencies use to generate new coins and verify new transactions. It involves vast, decentralized networks of computers around the world that verify and secure blockchains – the virtual ledgers that document cryptocurrency transactions. In return for contributing their processing power, computers on the network are rewarded with new coins. It’s a virtuous circle: the miners maintain and secure the blockchain, the blockchain awards the coins, the coins provide an incentive for the miners to maintain the blockchain.


The 4th International Conference on Chemical Sciences (ICCS) will be held in Yogyakarta, on 29-30 November 2021. This conference is jointly organized by the Department of Chemistry, Faculty of Mathematics and Natural Sciences Universitas Gadjah Mada (UGM), Indonesia in colaboration with The School of Chemical Sciences Universiti Sains Malaysia (USM).
This event also supported by: Trans Tech Publication (TTP) Scientific.net, Indonesia Natural Dye Institute (INDI) LPPT UGM, Publisher and Publication Board UGM, and Indonesian Chemical Society (HKI)
It will be an avenue for graduate students, faculty members as well as researchers to share their cutting-edge research findings in chemistry. Through this scientific gathering, the researchers are expected to strengthen their research collaboration and publication. It is also expected that the conference will become a place to build a network among researchers around the world.
- 29 Nov 2021 - 30 Nov 2021
- Paper Submission
- 04 Oct 2021 - 11 Nov 2021


What is RFCx Arbimon?
RFCx Arbimon is a web interface for biologist and ecologists to work with audio data collected from the field using an AudioMoth, Swift, SongMeter, Guardian or any other recording device. The RFCx Arbimon web app was designed for ecologists and biologists needing to conduct sophisticated scientific analyses on large volumes of audio data collected from the field. Scientists need a sophisticated and highly flexible analytical tool to be able to slice and dice audio data in countless variations in order to answer specific research questions. This data can then be exported and analyzed further using advanced statistical analyses tools like R, or a similar platform.
From there, biologists and ecologists can formulate conclusions that would guide publications of scientific papers to then inform conservation interventions. In order to accomplish this, our platform offers the following features to perform several kinds of analyses: pattern matching (object recognition using a cross correlation analysis to identify presence of similar patterns in other audio files), soundscape analysis, and the Random Forest model analysis (which uses AI). RFCx Arbimon is being used by scientists to support conservation/biodiversity projects all over the world. Check out our additional support articles to learn how to get set up in Arbimon!
The screenshot above shows a soundscape analysis covering 24 hours of recordings. Soundscape analyses are used to observe various frequencies and intensities of acoustic activity in an ecosystem.


Intelligent doorbell Qihoo 360 X3
360 Video Doorbell X3 is the world’s first smart door bell with a radar sensor. The device can detect people in the coverage area, and . What’s new is the many smart features that increase efficiency and user experience for the user.
Incredible recognition system
The Qihoo 360 X3 doorbell is designed for homes with a backyard. The user can configure the radar radius, create private zones. After activation, the system detects movement in the monitored area, tracking people and vehicles, the trajectory of their movement. Leaves, garbage, animals in the frame, passers-by (with adequate trajectory) and other safely moving objects do not trigger the alarm. Another useful option is to detect packages in front of the door, as well as trigger an alarm in case of a kidnapping attempt.
Good picture even at night
The system supports the creation of user groups by configuring action scenarios for each of them. The built-in camera has a resolution of 5 megapixels, innovative WDR (wide dynamic range) technology and advanced night vision features.
Protection of property
When any of the alarm events are activated, the system records video for 10-30 seconds, sending it to the user’s smartphone. An optional module is available for network connection and storage of recordings. An automatic alarm activation mode deters intruders.
Easy to use and good data protection
The 360 Video Doorbell X3 features a , protection with tamper tracking. It uses Chacha20 banking security to encrypt recordings. Compatibility with Alexa and Google Assistant is declared. The capacity of the installed battery is sufficient for six months of operation.
|Basic product data|
|Model||360 Video DOORBELL X3|
|Camera resolution||5 megapixels|
|Dimensions||145.1 mm × 52.2 mm × 36.2 mm|
|Supported functions||Two-way audio communication


Vacuum Pulse Ultrasonic Washer “Clean Ace YW-252-VS”
This is a compact vacuum pulse ultrasonic washing chamber.
With a built-in aspirator, this single unit can perform vacuum ultrasonic washing.
Best suited for washing small workpieces.
This compact vacuum ultrasonic washer has a built-in vacuum pump.
Time control enables vacuum ultrasonic washing that repeats vacuum and atmospheric pressure by turns.
Vacuum (pressure-reduced) ultrasonic waves = V-SONIC
|Chamber||Approx. 10 liters|
|Ultrasonic wave||28kHz/35kHz 300W|
|Vacuum pump||Approx. 2.4KPa (18 Torr) at water temperature of 20℃|
|Control valves||One each of automatic valve for vacuum and air intake|


JEM-EUSO is a new type of observatory that uses the earth's atmosphere as a detector. JEM-EUSO will be on orbit on the International Space Station (ISS). It observes transient luminous phenomena taking place in the earth's atmosphere caused by particles coming from space. The sensor is a super wide-field telescope that detects extreme energy particles with energy above 3×1019 eV. This remote-sensing instrument orbits around the earth every 90 minutes on board of the International Space Station at the altitude of approximately 400km. The figure shows an extreme energy particle colliding with a nucleus in the earth's Atmosphere, where it produces an Extensive Air Shower (EAS), consisting of numerous electrons, positrons, and photons. JEM-EUSO captures the moving track, which is revealed by the fluorescent UV photons and reproduces the energy development of the EAS.
The JEM-EUSO telescope has a super-wide Field-of-View (±30°) with two double sided curved Fresnel lenses and records the track of an EAS with a time resolution of 2.5 microseconds and a spatial resolution of about 0.75 km (corresponding to 0.1 degrees). These time-segmented images allow the deermination of the energies and directions of the primary particles. The focal surface of the JEM-EUSO telescope is formed by about 6,000 multi-anode photomultipliers. The number of pixels is about two hundred thousand.
The official site of the JEM-EUSO Collaboration: http://jemeuso.riken.jp/en/


Using WebP to compress raster map data.
Mapbox GL + WebP for iOS
A demonstration and source code on how to use Mapbox GL + WebP for iOS.
For the Cleveland National Forest map, “raster tiling with lossless PNG” created map data of 103 MB. “Raster tiling using WebP”, covering the same region, and the same zoom level created map data of 34 MB. A reduction in size of 66 MB!!
Given that iOS Apps are capped at 100 MB… we at the Rob Labs are bullish on WebP.
See the source code at https://github.com/roblabs/mapbox-gl-native


Re:Tech: Revolutionizing Indoor Navigation with GeoMagnetic Technology
As published by Re:Tech in July 2023: https://re-tech.io/july-spotlight-oriient-is-revolutionizing-indoor-navigation-with-geomagnetic-technology/
Shortened version below
In the fast-paced world of outdoor navigation, GPS has become an essential tool. However, when it comes to indoor spaces like retail stores and warehouses, finding accurate location services has been a long-standing challenge. Enter Oriient, an Israeli startup founded in 2017, with a visionary solution that harnesses Earth’s magnetic field using cutting-edge GeoMagnetic technology.
The heart of Oriient’s innovation lies in its GeoMagnetic technology, which relies solely on its proprietary software and smartphone sensors, specifically the magnetometer. This approach records unique magnetic field distortions within each indoor setting, offering an impressive accuracy of 1 meter (3 feet). Unlike traditional solutions that rely on Bluetooth and Wi-Fi, Oriient’s software-only approach overcomes accuracy issues and hardware limitations. It can function even with limited internet connectivity, supports both iOS and Android devices, and accommodates various phone holding modes to operate without interruption.
Oriient’s technology has been a game-changer, rapidly scaling in over 1,500 stores, including major retailers like Albertsons Companies and Carrefour, as well as leading grocery delivery companies in the U.S. The impact has been substantial, with success metrics showcasing increased basket sizes, improved conversion rates for proximity promotions, and optimized store operations, leading to significant time savings for shoppers.
Recently, Oriient joined forces with Google Maps Platform, further solidifying its commitment to revolutionizing the indoor experience. Looking ahead, Oriient envisions activating IndoorGPS for commercial buildings worldwide, aiming to optimize operations and enhance service in various facilities.
With its pioneering GeoMagnetic technology and an impressive roster of clients, Oriient has emerged as a leader in the indoor navigation industry. By unlocking the potential of indoor spaces and enhancing customer experiences, Oriient is set to shape the future of indoor navigation and optimization on a global scale.


Aluminum foil adhesive tape, high quality pressure sensitive adhesive, good adhesion, strong adhesion, anti-aging effect. The thermal insulation performance is greatly improved. Aluminum foil tape shall be used to paste the joints of all aluminum foil composites, seal the puncture of thermal insulation nails and repair the damaged parts. It is not only the main raw and auxiliary materials for refrigerator and freezer manufacturers, but also the necessary raw materials for thermal insulation material distribution departments
It is widely used in refrigerator, air conditioning, automobile, petrochemical, bridge, hotel, electronics and other industries. It can be used where electromagnetic shielding is required in PDA, PDP, LCD display, notebook computer, copier and other electronic products. It is used for wrapping the steam duct to prevent temperature loss. Use and description of non-conductive copper foil tape: instead of enameled wire and various transformer shielding.
The purity is higher than 99.95%. Its function is to eliminate electromagnetic (EMI) interference, isolate the harm of electromagnetic wave to human body, and avoid affecting the function without voltage and current. In addition, it has a good effect on electrostatic discharge after grounding. The material is multi ester fiber, which is not easy to crack and damage after repeated use or multiple bending. It has strong adhesion and good electrical conductivity. It can be easily wound and bonded to online materials. It can be cut into various specifications according to customer requirements
|Copper Foil Tape


Stop! Before you rush off to spend your hard-earned money on a new gaming mouse, you’ll want to make sure you know the key differences between the varying technology types available today. Any pc gamer who wants to improve their gameplay needs the absolute best gaming mouse they can get.
But what is the difference between an optical mouse vs laser mouse? Does one have an advantage over the other? And which one is better for gaming?
Let’s explore the answers to these questions below.
Gaming Mice vs. Regular Mice
Regular mice and gaming mice both serve the same purpose. The job of a regular computer mouse is to translate the physical movements you make with the device to the cursor on the screen. Generally speaking, they perform the same function – one does it better.
While you can use a standard desktop mouse to get your game on, in most cases, it will underperform compared to a mouse designed specifically for that purpose.
A gaming mouse is designed from the ground up to meet the needs of competitive gameplay and includes varying features and functionality to enhance the experience.
There are different types of gaming mice, too. For example, FPS gaming mice are designed to help improve precision and accuracy during twitch gameplay, while MMO gaming mice provide extra buttons for easy access to important skills and abilities.
Each type has different features, including programmable buttons, ergonomics to complement different mouse grips and more precise sensors.
What is the Difference Between a Laser and Optical Mouse?
Optical and laser sensors are the two most common types of sensors you can get in any desktop mouse these days. They are essentially the same, but the main difference is that an optical mouse illuminates the surface with an LED, and in some cases, an infrared LED.
While on the other hand, a laser mouse uses… you guessed it: a laser.
Both sensors are designed to take thousands of pictures of the surface each second and relay that physical movement to a position on the screen.
But if both types of sensors perform similarly, what makes one better?
Pros and Cons of Optical and Laser Sensors
Unlike the optical sensor, which only scans the surface it sits on, a laser sensor is so sensitive it looks deep into the surface for microscopic details, making it compatible with nearly any type of surface – even glass or transparent surfaces.
Unfortunately, being overly sensitive can be a double-edged sword. It depends on which sensor is used, but most of the laser sensors installed in mice are more susceptible to speed-related accuracy variance, or what is commonly known as “mouse acceleration.”
Why? Because, more often than not, it’s built right into the hardware.
An optical gaming mouse doesn’t suffer from hardware acceleration to the same degree as a laser mouse, making it a far more accurate and reliable option for gaming. The tradeoff, however, is that optical mice aren’t quite as sensitive, so the types of compatible surfaces are more limited.
What is Mouse Acceleration?
When you swipe your mouse across the mousepad quickly and then move it back to the starting position, the cursor on the screen should also return to its original position. If it doesn’t, the mouse is displaying some mouse acceleration.
In simpler terms: the movement is too unpredictable to be precise.
Optical Mouse vs Laser Mouse – Which is Better for Gaming?
Until recently, laser mice always had a higher resolution, or “DPI,” than competing optical mice. They could track more on-screen pixels per inch relative to your hand movements. With recent technological advances in gaming monitors and larger display resolutions, having a laser mouse seemed more future-proof.
Additionally, their ability to track on nearly any kind of surface with great accuracy made them particularly attractive to people who wanted the ability to use them on surfaces like glass or without a mousepad.
But the amount of built-in mouse acceleration concerns gamers who rely on consistently precise movements during gameplay. And since optical mice like the Logitech G900 or G502 (to name a few) have caught up to lasers in the DPI race, the choice seems pretty clear:
Optical mice are better for gaming than laser mice.
How to Improve Mouse Performance
Whether you use an optical or laser mouse, it’s essential to use them on a compatible surface and adjust mouse acceleration settings for optimal tracking.
- If you use an optical mouse, ensure you get a quality mouse pad like the SteelSeries QcK. Some patterns or graphic designs are acceptable, but solid colors like black or white will ensure the most accurate tracking.
- If you use a laser mouse, you can use it on nearly any surface except cloth. Cloth mouse pads have millions of microscopic fibers the laser will pick up on while scanning the surface. These fibers will lead to too much “noise”, which adds to acceleration.
- Also, no matter what mouse you use, ensure you disable mouse acceleration in your operating system. Here’s a good tutorial on disabling it in Windows and another for Mac.
As you have learned, the differences between an optical mouse vs laser mouse may be few, but the competitive gamer will most likely prefer the consistent performance of optical mice over laser alternatives. What about you?


Feb 4, 2023 - Mar 6, 2023
Review the project descriptions and the scholar's role within each project to find projects that most appeal to you and best match your strengths and background. Apply by Feb. 6 at 11:59 p.m.
Viktor Gruev is a professor in the department of Electrical and Computer Engineering and Carle Illinois College of Medicine at University of Illinois at Urbana Champaign. His current research focuses on developing bio-inspired sensory technology to address medical needs in hospitals with limited resources. Prior to joining UIUC, he was an associate professor in the Departm
Medical Sciences Building (MSB) Auditorium 274


Collins HF-200 High Frequency Communications System Instruction Book Volume II
part number: 523-0768957-00111A
Volume II includes: CTL-200 Instruction Book, TCR-200 Transceiver Instruction Book, and repair information for both of those. Volume I (not included) contains system information, and Volume III (not included) contains repair information for the PWR-200 and AAC-200.
Manual includes operation instructions, theory of operation, troubleshooting procedures, schematics and parts list.
This came from a Rockwell Collins radio test equipment manual library long term storage.


After 13+ years wholehearted insistance in innovatice customized energy solutions, AYAATECH has developed whole backup power system "AY-006 Portable Power Station" with reliable lithium battery and smart controller board. Take our convenient and multifunctional big power bank, power all your appliance when out of electricity, enjoy much more of your life.More
has 13+ years experience in the design, engineering and service of all kinds of safety board PCM/BMS for Li-ion (Lithium ion) and Li-Po (Lithium Polymer) batteries, battery pack, also different types of chargers.More
100% implementation of ISO 9001:2015, 200% inspection for all goods before shipment, 300% sincere and responsible attitude for all after-sales service.
Copyright ? 2017 AYAA TECHNOLOGY CO.,LTD. All Rights Reserved. Design By Gemelsoft.


With the aim of nurturing and encouraging young talents in the fields of science, technology, engineering and mathematics (STEM), Al Fozan Foundation, in cooperation with the United Nations Educational, Scientific and Cultural Organization (UNESCO), launched the UNESCO-Al Fozan Prize, which covers areas that represent an important component of development.
The objectives of the award are as follows:
Promote public awareness and explore areas of superiority in developing countries.
Contribute to building a group of scientists, researchers and engineers for their effective participation in promoting the global economy and achieving sustainable development in the longer term.
Gender equality in science, technology, engineering and mathematics disciplines in a way that supports the UNESCO Science, Technology, Engineering and Mathematics Programme.
Developing a new generation of researchers with expertise in multiple scientific fields to address global challenges addressed by the United Nations Sustainable Development Goals.
The age must be less than 40 years when applying for the award.
Self-nominations are not considered.
For more information about the award, please visit the following link: https://unescoalfozanprize.org/ar/#nomination


Alcatel OT-995 Mobile Phone Specification.
ALCATEL OT-995 WAS FIRST ANNOUNCED IN FEBRUARY 2012
It supports 2G ( GSM 850 / 900 / 1800 / 1900 ) and 3G ( HSDPA 900 / 2100 ) networks
Has a 5MP camera with a maximum resolution of 2592 x 1944 pixels, auto and manual focus mode (manual focus might
not be available with the stock Alcatel OT-995 camera application), LED flash which can be used as a torch too. Shoots
HD video with 30 fps. The OT-995 also has a secondary VGA camera for video calls.
The CPU is a Qualcomm MSM8255T Snapdragon processor running at maximum of 1.4GHz.
Alcatel OT-995 has a total of 512 MB RAM memory and 2 GB ROM. OT-995 also comes with a 4GB micro SD card
(adapter not included in the package) but can support up to a 32GB card.
GPU is Adreno 205.
The display of the Alcatel OT-995 phone is a 4.3 inches Multitouch TFT capacitive touchscreen with 16M colors and a
resolution of 480 x 800 pixels.