Have you completed your B.Tech in Electrical Engineering recently? Want to become professional by specializing in your favorite B.Tech Electrical Engineering subject? Then studying Mtech in Electrical Engineering is the right choice.
Mtech in Electrical Engineering is a post-graduation degree that deals with a number of subjects, such as vehicular technology, VLSI Design, Remote Sensing, Machine Learning, etc. This 2-year full-time course is divided into four semesters.
If you want to know more about this M.Tech Electrical Engineering, then scroll down to the following sections.
Define Mtech Electrical Engineering
M.Tech in Electrical Engineering is one of the best post-graduate degrees in Engineering. It is a full-time course that should be completed in two years.
It deals with different concepts of Electrical subjects, such as Electric-Optics, Laser Technology, VLSI Design, Ferro Electronics, etc.
The first and second semesters (first year) are completely theoretical, whereas the second year is practical that includes a project on any Electrical-related topic and thesis submission.
After finishing B.Tech Electrical Engineering, pursuing Mtech in Electrical Engineering is the best option. You will become a master in various concepts like capacitors, inductors, resistors, etc. In addition to that, you can develop control systems, design circuits, etc.
Why do we choose Mtech in Electrical Engineering?
Once you’re graduated with B.Tech in Electrical Engineering, you’ve several ways to become successful in your life. One of the best options is opting for higher studies. Yes, studying M.Tech in Electrical Engineering opens a huge number of job offers in both private and Government sectors.
Electrical Engineers play an important role in manufacturing companies. After completing your Mtech in Electrical Engineering with merit percentage, the organizations or companies will recruit you with the best salary packages.
You can work in different areas, such as power electronics, structural engineering, system engineering, and many others.
That’s why we consider studying M.Tech in Electrical Engineering is a very good decision.
Admission Process & Eligibility Criteria
Have you don’t know how to get admission into Mtech in Electrical Engineering? Don’t worry! We are here to provide complete information about the admission process of this course.
First, Students must meet the minimum eligibility criteria to pursue their M.Tech in Electrical Engineering. They are:
Once you satisfy the above eligibility conditions, you can go through the admission process.
Mtech Electrical Engineering Syllabus
As we said earlier, Mtech in Electrical Engineering drives you to get knowledge on all its essential subjects. That’s why it provides you with both theoretical and practical subjects.
In this course, you will have to study core subjects and some essential electives to be a master in this field. In the second year, you have to work on a project related to Electrical Engineering topics.
A final thesis project report has to be submitted at the end of the year. You have to give a seminar or presentation on the project and appear the final interview on your project.
Coming to the first year of your M.Tech in Electrical Engineering, you can study the following major subjects.
In M.Tech EE (Semester 1), the subjects are:
In M.Tech EE (Semester 2), the subjects are:
In Semester 3,
In Semester 4.
Note: Since M.Tech in Electrical Engineering contains different specializations, the subjects may differ.
Following is the list of electives under the M.Tech in Electrical Engineering course.
Core Subjects in Mtech Electrical Engineering
Regardless of the university or college you choose, the following are the core subjects that you’ll study in this M.Tech Electrical Engineering course.
Mtech Electrical Engineering Specializations
Before going to take admission into M.Tech in Electrical Engineering, you have to know a clear idea about your specialization.
It contains different specializations that deal with numerous concepts of electrical engineering. These specializations cover almost all the core topics, such as VLSI Technology and Design, Circuits and Microcontrollers, control systems, etc.
According to our knowledge, the following are some of the best specializations in M.Tech Electrical Engineering.
Fees Structure in India
From college to college and university to university, the fees for M.Tech in Electrical Engineering vary. The starting fees range from 20,000 to 2 Lakhs per Annum.
Based on the infrastructure, facilities, and faculty also, the fees will be different from one institution to other. The fees structure in some of the top universities/colleges are:
- BITS, Pilani – 4.30 Lakhs per Annum
- IIT Bombay – 20 K to 40 K per Annum
- Indian Institute of Science (IISc), Bangalore – 26,600 per Annum
- IIT Kanpur – 2.14 Lakhs per Annum
- IIT BHU, Varanasi – 36,815 per Annum
- Shri Ramswaroop Memorial University, Lucknow – 2 Lakhs per Annum
Colleges & Universities Offering M.Tech Electrical Engineering
Based on your marks, you can get admission into the college or university. If you score the highest marks in the GATE exam, you can get admission to the top university of India.
Some of the top institutions that offer M.Tech Electrical Engineering throughout the country are given below.
Career Prospects & Job Profile
Your hard work, determination, and skills that you possess while pursuing M.Tech Electrical Engineering will lead you towards success in your career.
After graduating Master’s in Electrical Engineering, you have plenty of job opportunities. You can find jobs as an electrical engineer in both private and public-sector companies.
Some of the top-government sectors that recruit specialists in M.Tech Electrical Engineering are Indian Railways, BHEL, HAL, BSNL, Electricity Boards, Defense, Hydroelectric Power Plants, Thermal Power Plants, and many more.
Apart from that, you can also get placed in various private companies, like manufacturing units, telecommunication, IT Companies,
You can also enter into the teaching field and become a professor in the top universities and colleges.
The job positions differ from the companies you join. For your information, we are listing out a few of them.
- Senior Product Manager
- Hardware Design Engineer
- Software Architect
- Senior Electrical Engineer
- Electrical Engineer
- General Manager
- Senior Application Engineer
- Shift Supervisor
On average, the annual salary after graduating in M.Tech Electrical Engineering ranges from 3.50 to 10 Lakhs per Annum. You can get more than 10 LPA if you studied in IITs or NITs and passed out with the highest merit percentage.
Frequently Asked Questions (FAQs)
Is Electrical Engineering Hard?
Almost all the branches in Engineering are the same. Based on your interest, you can choose the stream in your Engineering. In Electrical Engineering, you will study electronics, electricity, electromagnetism, and others.
This field helps you in converting your knowledge to develop and design various electrical devices, such as GPS devices, phones, appliances, etc.
Which Branch is Best for Mtech in Electrical?
Picking up the specialization or branch in M.Tech Electrical Engineering is completely depends on your interest, job openings, and further studies. Some of the best branches that offer most of the colleges/universities in India are:
- Control and Instrumentation
- Power Systems
- Instrumentation and Signal Processing
- Power Electronics and Machine Drives
What is the Salary of Electrical Engineer from IIT?
According to the reports, the average salary offered by the IIT after graduating in Electrical Engineering in India is around 15 to 20 Lakhs per Annum.
Final Words: Conclusion
Hopefully, this blog helped you in knowing everything about the Mtech in Electrical Engineering. If you still have any doubts or want to know anything, you can feel free to ask us.
Just type your question in the below comment box, and we will reach you within a short time. To get the latest updates from our side, subscribe to our blog immediately.


50 True/False questions
Which of the following goals are related to FAP?
• Domestic violence prevention
• Victim safety and protection
• Rehabilitative education and counseling
• All of the above (correct answer) → C
When a large aluminum terminal lug or splice is installed, why is it NOT necessary to clean the aluminum wire?
• The wire is cleaned by the abrasive compound in the lug or splice
• The insulation used provides the necessary cleaning agent
• It is done automatically by the tubing
• Oxide film does not form on aluminum (correct answer) → A
The intensity knob on the spectrum analyzer controls what display function(s)?
• Brightness of the CRT trace
• Brightness of the readout display → B
Which of the following drugs is abused on the pretense of weight control?
• Amphetamines (correct answer) → C
What is the principal advantage of an indirectly heated cathode over a directly heated cathode?
• It is immune to ac heater current variations (correct answer)
• It has a lower operating temperature
• It is larger
• It reaches an operating temperature more quickly → ...
Which of the following types of coupling is usually used to couple the output from a power amplifier?
D- Impedance → A
Which of the following statements is correct concerning D flip-flops?
A The clock is delayed until it coincides with the input data
B Input data is delayed until it coincides with the clock
C The output is delayed up to one clock pulse
D The output is always a square wave → C
The amount of items listed on an EGL is no more that 8 hours.
• False (correct answer) → ...
The meter card is used to provide what information concerning test equipment?
• All of the above (correct answer) → ...
What is the most common form of coupling?
• RC (correct answer) → ...
A circuit in which the resistance is almost zero ohms is referred to by which of the following terms?
D Closed → B
What term is used for a semiconductor that has three or more elements?
• Transistor (correct answer)
• Point contact → ...
Which of the following gates produces a HIGH output when any or all of the inputs are LOW?
• NAND (correct answer) → A
Which of the following elements of the CRT helps prevent the beam of electrons from diverging?
• Focusing anode (correct answer)
• Decelerating anode
• Aquadag → A
This person acts as an overall training supervisor? [Page 4-13]
• Department Head
• Commanding Officer
• Executive Officer (correct answer)
• PQs coordinator → C
Which of the following terms describes a single resistor that represents a complex circuit?
• Equivalent resistor (correct answer)
• Equal resistor
• Schematic resistor
• Phantom resistor → A
Showering will destroy nuclear and biological agents.
• False (correct answer) → ...
Control of a circuit requiring a temporary actuation signal is provided by which of the following switches?
• Momentary (correct answer) → ...
What type of feedback is caused by interelectrode capacitance?
• Negative (correct answer) → ...
Which of the following persons may inspect your record held by the Chief of Naval Personnel?
B- Your designated agent
C- Both 1 and 2 above
D- Your division officer → ...
Which of the following types of circuits are most affected by the loading effect of voltmeters?
• High-resistance (correct answer)
• Low-voltage → ...
In a zinc-carbon primary cell, what is the function of the carbon electrode?
A To collect hydrogen
B To supply a return path for current
C To speed electrolysis
D To generate electrons → B
A battery is rated according to a 20-hour rate of discharge at 300 ampere-hours. Which of the following currents is the maximum current that will allow the battery to deliver its rated capacity?
• 15 amperes (correct answer)
• 30 amperes
• 25 amperes
• 20 amperes → ...
Which of the following factors will NOT affect the value of inductance of a coil?
A Diameter of the coil
B Core materials used
C Conductor tensility
D Number of coil turns → ...
Color codes are used on preinsulated terminal lugs and splices to indicate what information?
• The style of crimping tool to be used
• The type of circuit in which they are to be used
• The resistance, in ohms, of the lugs and splices
• The wire sizes on which they are to be used (correct answer) → ...
Qualified Personnel are assigned by name for each MR scheduled on the weekly schedule.
• True (correct answer)
• False → ...
The Report and Disposition of Offense(s), NAVPERS 1626/7, contains all of the following information except
A preliminary inquiry report
B all of the required pre-mast advice that must be given to the accused
C record of any pre-mast restraint
D action of the XO at screening mast → B
The purpose of the CSMP is to provide shipboard maintenance managers with a consolidated listing of deferred maintenance to identify the material condition of the ship?
• False → ...
The LC choke-input filter is used primarily where which of the following types of regulation is/are important?
• Voltage and current (correct answer)
• Current only
• Voltage only
• Frequency → ...
Under which of the following conditions does sparking occur between the brushes and the commutator?
• When there is improper commutation (correct answer)
• When there is an excessive load current
• When commutation is in the neutral plane
• When operating under normal conditions → ...
Which of the following signal generators should you select to test audio equipment?
• Af signal generator (correct answer)
• Rf signal generator
• Video signal generator
• Fm signal generator → C
In generators, what principle is used to convert mechanical motion to electrical energy?
• Magnetic repulsion
• Atomic reaction
• Electrical attraction
• Magnetic induction (correct answer) → D
How are fixed capacitors classified?
• By their plate size
• By the thickness of their dielectric materials
• By their dielectric materials (correct answer)
• By the thickness of their conductors → ...
When directed drift takes place, at what speed does the effect take place?
• 186,000 miles per second (correct answer)
• 500,000 meters per second
• 100,000 miles per hour
• 300,000 meters per hour → ...
What is/are the term(s) applied to the space between and around charged bodies in which their influence is felt?
• Electric field of force
• Electrostatic field
• Dielectric field
• Each of the above (correct answer) → ...
Which of the following safety precautions should be observed when an ohmmeter is used?
• Always start with the highest scale of the meter
• Deenergize the circuit before connecting the meter (correct answer)
• Observe proper polarity
• All of the above → ...
For maximum power transfer between circuits, what impedance relationship should there be between the two circuits?
• The output impedance of circuit number one should be equal to the input impedance of circuit number two (correct answer)
• The output impedance of circuit number one should be higher
• The input impedance of circuit number one should be higher than the output impedance of circuit .number two
• The output impedance of circuit number one should be lower than the input impedance of circuit number two → ...
Which of the following actions will recharge a secondary cell?
• Connecting the negative terminal of a voltage source to the cathode of the cell and the positive terminal of the voltage source to the anode of the cell (correct answer)
• Adding more active ingredient to the electrolyte
• Connecting the negative terminal of a voltage source to the anode of the cell and the positive terminal of the voltage source to the cathode of the cell
• Adding more water to the electrolyte → C
Which of the following ac filament voltages is most likely to be considered a common voltage?
• 3.0 volts
• 6.3 volts (correct answer)
• 1.5 volts
• 9.0 volts → C
What term applies to the difference between the speed of the rotating stator field and the rotor speed?
• Rotor error
• Slip (correct answer) → B
Rapid reversals in the polarity of the line voltage applied to a capacitor will cause what type of capacitor power loss?
• Dielectric-hysteresis (correct answer)
• Dielectric-leakage → TRUE
Instructions for the preparation of a PMS feedback reports are found on the reverse of OPNAVINST 4790/7B green page.
• True (correct answer)
• False → B
If signature authority has been delegated to the leading petty officer, which of the following documents is he/she NOT allowed to sign?
• DD 214 (correct answer)
• Special request chits
• 3M weekly schedule
• Service record pages → B
What is the phase relationship between the output voltages of a three-phase alternator?
• 90ºout of phase
• In phase
• 60ºout of phase
• 120ºout of phase (correct answer) → ...
The speaker system of a record player should be driven by which of the following types of amplifier?
• An alternating-current rf amplifier
• An audio power amplifier (correct answer)
• A direct-current voltage amplifier
• A video voltage amplifier → ...
A megger uses high voltage to check the insulation leakage in the megohm range. What is the source of this voltage?
• The ship's ac power
• The ship's dc power
• A hand-driven dc generator (correct answer) → B
What is the major factor that limits the high frequency response of an amplifier?
• Capacitance (correct answer)
• Transformer reactance
• Inductance → ...
On the ML-N what information is in the column under COGNIZANCE CODE?
A The routing identifier of the managing activity, which is a potential source of supply
B A one-position code that indicates whether or not an item is repairable
C A one-position alpha code that designates the type of action required by the file maintenance computer to enter/update/delete data in various cyclic or master files
D A code designating a segment of material for management by a specific inventory manager and the funding involved → ...
What is the purpose of the aquadag coating in the CRT?
• It is used to focus the beam
• It eliminates the space charge
• It is used as a plate
• It eliminates the effects of secondary emission (correct answer) → ...
A single-stage, two transistor amplifier that uses a phase splitter input is classified as what type of amplifier?
• Phase splitter
• Push-pull (correct answer) → TRUE


In a strategic move, Meta has joined forces with MediaTek to develop custom chipsets for its upcoming AR glasses, diverging from the reliance on Qualcomm’s SoCs. The collaboration was announced at the MediaTek Summit 2023, emphasizing the creation of an in-house solution tailored specifically for Meta’s AR glasses. This exclusive partnership ensures that the custom chipset will be proprietary to Meta and not available to other companies.
The joint effort aims to deliver high performance, power efficiency, lower latency, and compact design suitable for integration into AR glasses. MediaTek, known for its recent advancements in silicon technology with the Dimensity 9000 series, is speculated to leverage TSMC’s 3nm ‘N3E’ process for mass-producing the Dimensity 9400 in the coming year, though the fabrication process for the custom AR glasses chipset remains unconfirmed.
The development comes as Meta distances itself from Qualcomm, suggesting that the cost and potential performance gains influenced the decision to collaborate with MediaTek. This move aligns with industry challenges, particularly in power efficiency, as seen in reports about Apple’s AR glasses development. As technology strives to meet the demanding power requirements of AR glasses, Meta’s shift towards MediaTek signifies a strategic move to navigate the evolving landscape of augmented reality hardware.


The Smart Button works directly in conjunction with our Peoplesafe Pro lone worker app, which can easily be downloaded from the App and Play Stores. A simple press of the Smart Button is all it takes to override the keypad lock on your phone and raise an alarm.
In certain situations, you will need to discreetly signal for help without alerting an aggressor. The Smart Button allows you to do this through its Bluetooth connection with the personal safety app.
Once an alarm is raised, your GPS coordinates will be sent to the Peoplesafe Alarm Receiving Centre (ARC) using the smartphone’s GPS capabilities, so our Controllers can send the emergency services directly to you.


Brand new complete LCD screen display for Iphone 6S plus, from Conn Electronic CO.,Ltd, your reliable supplier
This part will only work in an iPhone 6s Plus. It will not work in an iPhone 6, 6 Plus, or 6s. Identify your iPhone correctly in one step.
The Touch ID function will only work with your phone’s original home button assembly. This replacement part does not include the home button. You will need to transfer the button assembly from your old display to retain Touch ID.
This part does not include the home button assembly, front camera, earpiece speaker, or LCD shield plate.
You will need to transfer these parts from your old display assembly to your new part.
For an easier install, the iPhone 6s Plus LCD Screen and Digitizer Full Assembly includes some of the smaller parts and requires fewer transfers to the new assembly.
Fix Kit contents:
New iPhone 6s Plus LCD Screen and Digitizer
Pentalobe 5-point screwdriver
Phillips #000 screwdriver
Plastic opening tool
Small Suction Cup
Alcohol Prep Pad
1. Iphone 6S complete LCD screen display for Iphone 6S plus, repair parts for Iphone 6S plus, 100% new
2. each one is fully tested before shipment.
3. Payment term : paypal, western union or T/T(bank transfer) acceptable.
4. Lead time: 1-3 working days after payment received.
5. shipping method: by express courier, such as DHL, UPS, EMS, etc.


From Guifi.net - English Wiki
With over 10,000 operative nodes and more than 15,000 kilometres of links, Guifi.net is the world’s largest community-run telecommunications network. Most of this infrastructure is permanently installed, connecting thousands of homes through wireless technology. This project is conceived to expand the current potentialities of Guifi.net, providing connectivity in the public space, adding mobility and including telephony features. The goal is to make the most of the network deployed to date, with a coverage of 12,000 km2 and to implement this prototype for their use by members of the community.
Taking advantage of the drop in the prices of Wi-Fi mobile phones, we're going to optimised to allow the flow of data to use the Wi-Fi band and free technologies instead of those proprietary belonging to telephone enterprises, while at the same time they are also optimised to maintain connectivity in motion. VoIP servers are used to connect the phones and make voice calls possible. Other potential uses are video and audio streaming as well as mail and web services for sending data. The outcome is the creation of new social narratives and ultimately a democratic system of telephony.
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Published on June 17th, 2016 | by Muralidar S.0
What is virtual reality and how will it change your life?
Virtual Reality (VR) is a computer technology that creates an imaginary environment or recreates a real one, with which a user can interact. In other words, it is a technology that allows users to experience an environment without actually being present in it. 3D cinema is one of the best examples.
The first practical breakthrough in the world of virtual reality was the invention of Sensorama in the year 1962. The brainchild of the American cinematographer and visionary Morton Heilig, Sensorama was a mechanical device that could display wide-angled 3D views, with body tilts, stereo sound and smells corresponding with the frames. The Sword of Damocles, the first head-mounted display system, was created by Ivan Sutherland and Bob Sproull in 1968, which paved way for the prototype towards evolution. Two decades later, the American VR company founded by the pioneer Jaron Lanier, VPL Research, introduced virtual reality gear like the Data Glove, the Eye Phone, and the Audio Sphere, which are considered to be significant virtual reality aids.
In the gaming industry too, companies like Atari, Nintendo, Sony and Microsoft have pushed boundaries in the field of virtual gaming. Consoles like Wii Sports, Microsoft Xbox 360, Sony PlayStation VR, etc. have brought digital gaming closer to reality, where the controller quickly converts a player’s body movements into corresponding virtual actions. Virtual reality, which is the technology behind flight simulators that are used for training pilots, is also employed to enable soldiers to drive armoured vehicles.
In 2010, Google brought virtual reality as close to us as our computers screens with Street View, a service that provided stereoscopic 3D panoramic views of worldwide locations. Recent developments like the Oculus Rift, Google Cardboard, HTC Vive, etc. have become game changers in the field of virtual reality. Google’s dream of virtual reality came true with Daydream, the company’s own VR platform, which is set to release in November 2016. The platform is a notch above its predecessor, the Cardboard, and one ‘could be in another world’ just by wearing the accessory and slipping the smartphone in.
Virtual reality is transitioning gradually from more virtual to more real!


As computer systems get increasingly complex and with billions of things get hooked onto the Internet (leading to the phenomenon Internet-of-Things), we realize the immense challenges in managing these machines and networks that change day after day.
We provide solutions to tackle machine data challenges of today and tomorrow.
At Neuro10, our mission is to help organizations, big or small, manage their machine data effectively and efficiently using innovative technologies that value-add to dynamic business needs. We believe that the key lies in having the right technologies and tools to collect, organize and analyze critical data. And with that, organizations are empowered to uncover the true intelligence in their data and master their computer systems, however large or complex they may become.


Testing Bluetooth apps can be challenging, especially if you’re a beginner in the world of quality assurance – trust me, we’ve all been there. Bluetooth is one of those technologies that seem very simple from a user perspective, but in reality, it’s often more complex. And wherever there’s complexity, there are also more chances something might potentially go wrong. This is why I decided to write this guide. Continue reading and learn everything you need to know about testing your first Bluetooth app.
Before you start the testing process, I suggest you learn all about the Bluetooth device you’re going to work with. First, cover the basics: What’s its purpose? What will it be used for? Afterward, you can dive in a bit deeper and learn more about its behaviour:
After answering these questions, you will officially have a solid knowledge of the Bluetooth device you plan to test. Now, what exactly does the testing part include, find out below.
Every Bluetooth device has its own way of connecting to the app. Some of them connect automatically and the connection just stays alive. But there are also Bluetooth apps that require specific pairing to connect to the Bluetooth device. Once the pairing is complete, the user can easily connect their Bluetooth app to the device, provided they turn on Bluetooth on their device, of course.
Once you start testing, watch out for:
The last two points can be especially tricky. For example, you want to connect your Bluetooth device to a particular smartphone, but you have opened the app on more than one device – there’s a high chance of every smartphone nearby trying to connect to it. A similar problem appears when you open the app on just one device but have more Bluetooth devices laying around. This is the part when the smartphone goes crazy because it doesn’t know which Bluetooth device to connect to.
Do you know how many times I accidentally connected the Bluetooth device I was working with to the wrong smartphone? Too many. And let me tell you one thing, it’s not the most exciting part of the job to search for the phone that’s connected to the Bluetooth device – especially if you work with 10-15 testing devices on a regular basis. But what can you do. 🤷♀
I’m sure you’re aware of the impact distance between a Bluetooth device and an app has on the quality of the Bluetooth connection. There are going to be times when the user won’t be able to use the app and the device at the same time. That’s why it’s important to test how the connection will work when the smartphone and the Bluetooth device are not next to each other.
One of the biggest challenges was working on features related to the firmware of the Bluetooth device. It all started with the first firmware update, when some features that were working perfectly before, just stopped working or changed behaviour with the new firmware version. This was the moment I realized how complex Bluetooth testing can be. It's also when I recognized the importance of regression testing – if I didn't conduct it every sprint I wouldn't have even noticed the difference in the developed features after the firmware update.
If your app has a “firmware update” feature, don't forget to take care of:
It’s important to put yourselves in the user’s shoes when testing the firmware features – because if I managed to brick a Bluetooth device simply by closing the app in the middle of an update, then any user could do it. To elaborate… The old firmware version got deleted at the same moment I started the installation of the new version, which first led to an error and then bricking the Bluetooth device. Of course, this was unacceptable so we searched for a fix. And we found one! Now, if the user closes the app while the update is in progress, the app will find the bricked Bluetooth device and start the installation of the new firmware version again.
I’m mentioning this because this situation led me to one of the most important lessons in testing – different platforms, software versions, and devices communicate differently with the Bluetooth device. I faced scenarios where on a Samsung, everything would work perfectly, and then on Huawei, the same feature I tested before, would not work. Thereby, when you start testing, keep in mind to use as many devices and cover as many software versions as possible. And do it on every platform that supports the app.
Data collecting and storing is one of the basic functions of every app – that implies Bluetooth apps, too. When testing data collecting and storing, keep in mind:
These are just some of the generic cases you should test when we talk about data collecting and storing in the Bluetooth app, but, depending on the app expectations, there can be even more things to test.
Bluetooth communication is one of the most important functionalities to test in your app. If the communication doesn’t work, then the app probably doesn’t fulfill its purpose. That’s why you need to test:
Testing Bluetooth apps can be challenging at first, but the benefits you get out of it are worth it:
When testing Bluetooth apps, it’s important to stay organized and to accept help when needed – some things will be new to you. That way, you allow yourself to grow and you'll be able to improve your testing skills. But hey, reading this article is already a step in the right direction. Technically, you’re ready to test your first Bluetooth app. Congrats! If you run into any questions, feel free to contact me. 🤗


- United States
Many critical jobs are done using complex software systems. The design of these systems often fails to reflect the work and needs of the customer’s business and can impact its performance.
How to improve efficiency and speed
Global technology company NCR provides banks and other customers with ATMs and the software solutions to manage them from their own data control centres. NCR needed to improve uptime and speed as any slowdown in the data control centres costs customers in money and lost business.
Streamline software design with workflows in mind
After spending time with NCR’s customers and the ATM network operatives, we diagnosed how workflow and interface issues they used put their ATMs at risk of downtime. This enabled us to simplify and streamline the software design. It also led to an easier and more efficient access and flow of information for users, maximising operational management.
Customer-centric design save costs
NCR, a technology company providing ATMs and related software solutions, needed to understand and resolve speed and efficiency issues that were costing their customers time and money.
Our customer-centric approach helped NCR dramatically improve the customer experience and outcomes when using mission-critical software. By understanding the work of key staff, we were able to redesign core customer interfaces and systems transforming customers’ efficiency and profitability.


There are many e-readers available in the market but among all the eBook readers, people choose the amazon released product that is kindle. The product has won the heart of many devices. This is the reason there are large number of people who are using the services of this product. This product is having many variations of devices and among all the devices kindle paperwhite is the best one. When you order the product online you will get the kindle tech support service along with it so that all the customers will be use the services provided by the device completely. The device is having many other features too that includes a high resolution display, updated software; also it is available at $119.
The previous version of the devices support Wi-Fi only but this paperwhite device supports 3G along with the Wi-Fi. It is having a built-in light that gets adjusted of its own. It uses four embedded LEDs to light its surface and all these four LEDs are embedded on the four corner sides of the device. It is the first device to come up with its own light. People who are using the device feels great enrolling up with its services as it serves its customers a great reading experience. But as it is an electronic device, it might create technical problems that are not fixed up by the user itself. At that point of time, they search for the kindle tech help phone number online. There are many of the service providers that provide online support services to help the customer in need. We the team of Maptechie.com is also one of the most famous service provider available online. We clear the issues of the customers through our toll free number +1-855-271-1333. Call us anytime we assure you to serve you better.


Selecting the right computer for sublimation is essential for ensuring a smooth and efficient printing workflow. From handling high-resolution graphics to running design software seamlessly, a capable computer plays a crucial role in achieving excellent sublimation results. In this article, we provide a comprehensive guide to help you make an informed decision when choosing a computer for sublimation printing.
Understanding the Requirements for Sublimation Printing
To choose a suitable computer for sublimation, it’s crucial to understand the specific requirements of the printing process. Key considerations include handling high-resolution images, processing graphics-intensive tasks, and running design software without performance bottlenecks.
If you are serious about looking for a computer for sublimation, then you can also study what quality the computer should be, for example, how many fans should a PC have.
Essential Factors to Consider
- Processor and RAM: Opt for a computer with a powerful processor (such as Intel Core i5 or higher) and sufficient RAM (8 GB or more) to handle resource-intensive design software and manage large image files effectively.
- Storage Space: Consider a computer with ample storage capacity, preferably with solid-state drives (SSDs) for faster data access and smoother performance.
- Graphics Card: A dedicated graphics card, such as NVIDIA GeForce or AMD Radeon, can significantly enhance the rendering and processing of graphics, ensuring smooth design operations.
- Display Quality: Choose a computer with a high-resolution display (Full HD or higher) and accurate color reproduction to accurately visualize and edit your sublimation designs.
Additional Considerations for Sublimation Printing Computers
- Connectivity: Ensure that the computer has sufficient USB ports, including USB 3.0, for connecting your sublimation printer and other peripherals.
- Software Compatibility: Check if the computer’s operating system (Windows or macOS) is compatible with the design software and sublimation applications you plan to use.
- Expansion Options: Consider a computer with expansion capabilities, such as upgradeable RAM and storage, to accommodate future needs as your sublimation printing requirements grow.
Conclusion: Choosing the Right Computer for Sublimation
Selecting the right computer for sublimation printing is crucial for optimal performance and seamless workflow. By considering factors such as processor power, RAM, storage, graphics capabilities, and display quality, you can ensure a computer that meets the demanding requirements of sublimation printing, enhances your productivity, and delivers exceptional results.
Read also: Best Program For Sublimation
FAQs: Choosing the Right Computer for Sublimation
Can I use any computer for sublimation printing?
While you can use various computers for sublimation printing, it is recommended to choose a computer with sufficient processing power, RAM, storage space, and graphics capabilities to handle the resource-intensive tasks associated with sublimation printing.
Do I need a dedicated graphics card for sublimation printing?
While a dedicated graphics card is not mandatory, it can significantly enhance the performance and rendering of graphics-intensive tasks involved in sublimation printing, resulting in smoother design operations and more accurate color reproduction.
Can I use a laptop for sublimation printing?
Yes, you can use a laptop for sublimation printing. However, ensure that the laptop meets the necessary specifications, such as a powerful processor, sufficient RAM, dedicated graphics, and adequate storage space, to handle the demands of sublimation printing effectively.


February 04, 2021
Services in Challenging Times – TSA Worldwide on Track with Virtual and Augmented Reality
Traktionssysteme Austria uses new technologies like Virtual Reality (VR) and Augmented Reality (AR) to further develop its products and to provide customers with the next generation of digital assistance, especially right now as travel is limited. Holding training sessions as well as solving specific on-location issues has become an efficient and interactive service.
With state-of-the-art software, we create digital documentations, track and trace individual components and are able to disassemble our electric motors and drives by using 3D visualization. Electrical and mechanical engineering services are digitally guided by our experts. AR/VR based solutions are time-saving and also reduce travel costs for trips where special tools need to be shipped.
Find out in our latest newsflash how the digital transformation supports our manufacturing and competitiveness in the age of Industry 4.0.
Watch the video on Facebook, Linkedin and find out more interesting facts about Traktionssysteme Austria!


What is the development trend of CNC machine tools(Four)
What is the development trend of CNC machine tools?
1. Open system
a. Open to future technology: Because the software and hardware interfaces follow the recognized standard protocol, the new generation of general software and hardware can be adopted, absorbed and compatible.
b. Open to users' special requirements: update products, expand functions, and provide various combinations of hardware and software products to meet special application requirements;
c. The establishment of numerical control standards: standardized programming languages are not only convenient for users to use, but also reduce labor consumption directly related to operating efficiency.
2. Parallel drive
It can realize multiple functions of multi-coordinate CNC machining, assembly and measurement, and can better meet the processing of complex and special parts. Parallel machine tools are considered to be "the most meaningful progress in the machine tool industry since the invention of CNC technology" and "new 21st century". A generation of CNC machining equipment.
3. Extreme (large and miniaturized)
The development of national defense, aviation, aerospace industry and the large-scale equipment of basic industries such as energy require the support of large-scale and good-performance CNC machine tools. Ultra-precision processing technology and micro-nano technology are strategic technologies in the 21st century, and it is necessary to develop new manufacturing processes and equipment that can adapt to micro-mini size and micro-nano processing precision.
What is the development trend of CNC machine tools(One)2021-04-21 17:58:36
What is the development trend of CNC machine tools(Two)2021-04-22 15:21:29
What is the development trend of CNC machine tools(Three)2021-04-22 15:25:54


If you're wondering what that new chip is on your credit or debit card, you are not alone. It is a tiny piece of technology called an EMV chip that will make a big difference in card security. Paying with a chip card instead of a magnetic stripe card brings added security for your in-store transactions (unfortunately, it doesn't add any protection to shopping online). So, what's the difference between the old cards and the new? Below are a few key differences for consumers to be aware of.
How to tell if your card has a chip
During the transition to EMV, all U.S. chip cards will still have the magnetic strip on the back of the card. They are the same size and material as the old cards, too. The difference is that chip cards have a reflective rectangle on the front of the card, usually placed above the first four digits of the card number.
Chip cards are more secure
Chip card transactions provided better security for in-store transactions and at the ATM by making every transaction unique. The embedded microprocessor chip in the card communicates with the card reader device to authenticate the card, reducing the possibility that someone illegally copied the information from your card to create a fake one, and create a one-time code for the transaction. If the card data and the one-time code are stolen, the information cannot be used to create counterfeit cards and commit fraud. The new cards come in two varieties: chip and signature or chip and PIN. When you received and activated your new card, if the system did not require you to create a PIN, then you have a chip and signature card.
Stick, don't swipe
Finally, the way you use chip cards is slightly different from how you use magnetic strip cards. Instead of swiping the magnetic strip on the back of the card, insert the card into the terminal (or ATM). Be sure that the chip is facing up. You then leave the card in the terminal until the transaction is complete and you've entered your PIN or signature. The device will then prompt you to remove the card. If you're not sure if the terminal or ATM you're using is chip-enabled, swipe the card. The terminal will prompt you to insert it if it is chip-compatible. Like magnetic strip cards, you can also use chip cards to make online purchases, though they offer no enhanced security features in that space.
Consumers can also visit www.GoChipCard.com to learn more about how EMV cards offer better security and how to use them.


Halogen lamp: 10R 280W
Scan: Pan 540°, Tilt 270°, photoelectric reset and correction
Shutter：1-10t/s mechanical control and speed adjustable.
Color Temperature: 8000K
Control Mode：DMX/Master-slave/auto/Sound active
Fixed Gobo wheel: 16+open, electric focus
Rotated gobo wheel: 7+ open, electric focus
Color wheel: 14+open, rainbow effect
Effect wheel: 1 double prism and 1- 9 facet prism. Without magnifying glass, the beam effect can be achieved, and the magnifying glass can be opened to produce pattern effect.
Beam angle: 4.3°/11.4° amplify
Display with battery: Press “MENU” button for 3 seconds without power on. Turn on the display to set the address code and other parameters. No operation will automatically close after 60 seconds
Touch screen function: the screen can be reversed, switching between Chinese and English, automatic screen out, showing every power on time and running time can be restored to the factory setting.
Lamp opening mode: auto power up, bubble reset, manual foaming and console foaming.
Machine size: 400*330*520mm
Machine weight: 16.6KG


It’s strange because I connect the controller first on the PC (W10) and then I go to Steam, enable the Switch Pro Controller. I read disabling the Steam Overlay works, but nothing.
After that, the controller seems to be connected to the PC, I can play other games like Sekiro. But when I start ToS, the controller turns off (I can see it by the green light telling me which number of the controller is), but when I change tabs (going to Google Chrome for example), the controller turns on again, but when I come back to ToS, it turns off.
Any ideas? Thanks.


Over the last 40 years, networking innovation has focused largely on data-plane performance and new protocol introduction. Adding new network services often requires installing middle-boxes. SDN and new automation tools intended to simplify network service creation and improve network responsiveness to application requests, but at the expense of increasing layers of complexity and divergent solutions.
Meanwhile, compute instances have become instantly available and at ever-finer levels of granularity (think VMs, containers, microservices) whenever an application requests. The communication domain, however, is still unable to provide adequate networking services with this same agility, velocity, and security.
This unaligned progress between computation and communication substantially hinders and obstructs the transition to hybrid clouds, microservices, IoT, and other cutting-edge technologies.
Within the networking domain, the introduction of virtualized network functions (VNFs) brought the legacy configuration-centric model to the world of virtual machines and containers. However, this approach has failed to adapt to the agility, flexibility, and security required for modern application services distributed over private, hybrid and multi-clouds.
Within the compute domain, sidecar data proxies have been developed that integrate VNFs automatically into each workload offering control over connectivity without centralized network configuration. This approach entirely disconnects network services from the underlying network infrastructure, making it largely inefficient and relatively unsecure.
Container sidecar VNFs solve one problem but create another.
Fencing off VNFs into two domains burdens the compute domain and blinds the networking domain. The compute domain now suffers from lower performance with no top-down policy enforcement. Likewise, inefficient operation within the networking domain makes segmentation and service chaining difficult and lacks bottom-up traceability.
VNFs & ENFs¶
In the network domain, VNFs providing new services are supposed to be introduced through a complex and time-consuming process of developing new packet header fields, new header parsing rules, and new match-action tables. All these changes must be propagated to every network device and management system, touching everything from low-level silicon to high-level software protocols. Somewhere, packets, originated by workloads, have to be intercepted, classified, and new headers created, attached or removed.
Bayware’s Ephemeral Network Functions, operating in the compute domain, address this problem. Now, network functions, written with Java-like syntax, are compiled into RISC-V microcode. That microcode is made available to the workload through the Microservice Controller. The workload–be it a container, VM, or bare metal–downloads and embeds the microcode into data flows. RISC-V based network processors, network microservice engines deployed throughout the network, realize the requested service by executing each packet’s embedded microcode and instructing the forwarding plane.
Ephemeral Network Functions, originated by workloads and executed by NMEs, provide the compute domain with pervasive security and better performance and give the networking domain more visibility, higher efficiency, and agile segmentation and service chaining.
No Device Configuration¶
Rather than trying to keep up with the agility and velocity of compute instance creation through centralized configuration, the Bayware platform delivers communication services through decentralized application-side programming.
Bayware’s secure, credentialed Network Microservice Controller replaces traditional network controllers providing a radically simplified mechanism of agile connectivity that can easily keep up with the endpoint chaos inherent with VMs and containers.
The Network Microservice Engine (NME) allows an application to instantly deploy any communication service–connectivity and policy–eliminating middle-boxes: firewalls, load balancers, CDNs, etc.
Bayware’s patented technology makes communication service instantiation unprecedentedly programmable, agile, and secure.
Instead of the traditional, circuitous process of introducing new fields in packet headers, new rules of for header parsing, new actions for tables, propagating all these changes via one–or more–proprietary network element management systems to every network device in the infrastructure, the Bayware solution allows one to program the requested services; compile them into general-purpose microcode that is ready for insertion into packet headers; and make this code available to business applications via the Network Microservice Controller.
Afterward, business applications can download and embed microprograms into their data flows. Bayware-enabled packets are then tunneled to a Bayware overlay network–with zero impact on existing infrastructure and services.
Microprograms embedded in an application’s own data flow tell the Bayware NMEs how to deliver a communication service. This eliminates the need to run complex routing protocols everywhere in the network or installing specialized middle-boxes every time a new service is requested.
Bayware’s centralized Network Microservice Controller means that services like micro-segmentation, multicast, load balancing, and content distribution are available to VMs and containers for immediate download just like mobile apps for smartphones. And simple software programming gives end users the power to create microprograms so that their applications carry custom communication services.
This Controller-centric approach is so efficient that Enterprises and Service Providers can literally create and deploy new network services with roughly 10% of the time and effort that it takes today using current technologies.
When an application has control over its own communication services, those services become instantly available to each workload at the moment they are needed. Now when VMs and containers are created and deleted following the demand of the customer, the associated communication services are as well.
Slow, complex, centralized configuration–whether through SDN or other automation services–is no longer required.
Moving security policy controls into the data flows themselves strengthens security measures. This prevents the possibility or running potentially harmful code from packets or obtaining access to network resources that are not authorized.
Bayware has included a security framework in its solution that provides the cryptographic mechanism of signing the code in the Network Microservice Controller – much like the Apple Store does today for its apps–and the subsequent verification of these signatures by each Bayware network node before the code is fed to the processor.
Signature verification is used only for the first packet in the flow to establish flow identity. Following packets in the same flow are subjected to a lighter-weight cryptographic verification. Additionally, every host (server, VM, container) must be authenticated by the Network Microservice Controller before sending or receiving packets or even requesting microcode.
Security at this granularity ensures that no business application transmits data or receives data that is not intended by the enterprise security policy.
The following four components compose Bayware’s platform:
- Network Microservice Controller
- One or more servers that ensure trust and store contract templates.
- Network Microservice Engine
- A network entity that processes Bayware flows.
- Network Microservice Agent
- A software driver running on each workload that connects the workload to a Bayware network.
- Network Microservice SDK
- A toolkit for creating microprograms that run on Bayware engines.
Use case: Micro-segmentation¶
One obvious example of where Bayware’s solution can bring immediate relief to customers is micro-segmentation. Micro-segmentation sub-divides everything business apps do into specific flows between application workloads. In Bayware’s architecture, customers receive policies and encryption at the flow level. This allows customers to phase out traditional routers, switches, and load balancers and their associated controllers and policy engines.
Use case: Hybrid clouds¶
Sensitive data requires consistent security policy enforcement while traveling through multiple clouds. Because Bayware-enabled data flows are uniquely subject to unified ID management, authentication and authorization at initiation and carry this information with them as they transit networks, there is no requirement to preconfigure distant routers, switches and firewalls in other clouds or to worry about the security measures that may–or may not–be available in public clouds. Bayware flows are completely isolated from these concerns and corporate data security policies remain in lock step regardless of the number of public/private clouds and data centers in the flows’ path.
Customers replace a divergent solution with a more unified, less expensive and far more cloud- and container-adaptive approach from Bayware. With Bayware, customer’s networking policies become part of micro-segment-based applications-flow architecture across private and public clouds as well as across physical, VM and container endpoints.
There are myriad compelling advantages in providing IT managers with this new type of agile connectivity tool, including:
- Faster service delivery to their clients via instant provisioning of connectivity in complex, multi-cloud environments;
- Slashing OPEX and expensive headcount by eliminating all intermediate–and, now unnecessary–proprietary layers of network management/automation systems;
- Significantly reducing both CAPEX and OPEX by shifting special packet treatment from purpose-built and pre-programmed network appliances (Firewall, Load balancer, ADCs, etc.) to simple microprograms injected into the packets themselves;
- Eliminating the necessity to configure VLANs, program firewalls and maintain complex ACLs by authorizing and authenticating flows that carry their own path information through the network.


Fall asleep under the stars every night with the Starry Sky Night Light Projector!
The night light projector illuminates the walls and ceilings of your room with beautiful multi-colored moons and stars. The star projector lamp is great for children and space lovers. The star projector night light has different color patterns and can also rotate or be in still-mode.
How to use:
Press the A button to turn on white lights
Press the B button to turn on colored lights
Press the C button to turn on 360 degree rotation mode
lighting colors the projector can illuminate:
Material: Aluminum and Plastic
Battery operated with 4x AA batteries (Not Included), also can be USB powered
Comes with a night light cover to turn it into a solid night light


10 | 2018 – Coating free-form surfaces of large optical components
The business unit Precision Coatings at Fraunhofer Institute for Organic Electronics, Electron Beam and Plasma Technology FEP has special expertise in developing deposition processes for high-precision coating systems on optical components. Now, a coating technology for deposition of laterally graded optical layers on 2D and in the future also on 3D substrates has been developed. The results will be presented at the 2nd OptecNet Annual Conference in Berlin, June 20-21, 2018.
Light plays an important role in more and more economic sectors and markets – including in data transmission, communication, energy generation, laser processing, and classical optics. Accordingly, the demands placed on high-performance optical products and systems are increasing rapidly. Components and integrated optical systems are becoming increasingly complex. Only recently, a team of researchers from science and industry was awarded the "Forschung im Verbund" joint industry and science prize for the latest developments in free-form optical systems. Employment of increasingly complex surfaces in optics means the complexity of the coatings also increases. Applications using complexly shaped surfaces that enable the viewer to see content or objects from different perspectives, or to achieve a desired optical effect with varying incident angles of light, require highly complex optical layer systems.
The scientists at Fraunhofer FEP have now succeeded in developing new processes and coating technologies that can be used for complex surfaces of large optical components. Specifically, this involves fabrication of lateral gradient layer systems. The objective of this research is to manufacture optical layer systems adapted to applications characterised by variable angles of incidence, such as waveguides in holography, head-up displays, laser illumination, and laser processing systems. One focus has also been adapting the coating technology to larger surfaces, as a trend towards larger substrates with curved surfaces has become apparent.
The results make it feasible to better adapt to specific customer requirements by locally adjusting the optical function of optical multilayer systems. This applies in particular to coatings on large substrates or 3D substrates, where the incident angle of the light locally varies in the application. The optical function now can be adapted to the given incident angle of light.
Dr. Daniel Glöß, head of department Dynamic Coating explains: “The requirements for process control are very high. We basically have to adjust the coating thickness locally, which can be done either by accelerating the substrate movement during deposition or by varying the coating rate as a function of the substrate location. In both cases, we need very precise substrate movement. With the PreSensLine, we have a coating system with the means for precision movement. The system control has now been adapted so that we can manufacture such coatings and offer them on a customer-specific basis.”
The complex requirements on the coating system were particularly challenging. As a result, through the joint research project “TopBePro” together with with AIS Automation Dresden GmbH, LSA GmbH and dresden elektronik ingenieurtechnik GmbH, Fraunhofer FEP scientists are now able to exert very precise temporal control over the different components (precision drive, coating sources, and power supply). Additional interfaces were implemented in EtherCAT and have achieved time resolution of the communication between components of <1ms.
Further development work is planned on the simulation in order to achieve the appropriate coating processes for the corresponding coating thickness profiles. In addition, the scientists are also looking to the future and intend to coat 3D substrates, such as larger mirrors and lenses, in addition to the existing planar coatings. The hardware requirements for this are met by the PreSensLine system at the Institute.
The scientists are open to discussing new specifications from interested partners for joint development of new applications. For detailed and personal discussions, colleagues from Fraunhofer FEP will be available during the 2nd OptecNet Annual Conference 2018 in Berlin, June 20-21, 2018.


Why Choose Northside Solution Bluetooth Speakers Northside solution is the world's leading manufacturer of premium earbuds and advanced connectivity solutions for high-performance speakers and audio. Key Features: Pure Sound: offers a natural, authentic sound and powerful bass. Latest Bluetooth 5.0 Technology: own fast and stable transmission without tangling within 10m. IPX4 Water Resistance: fully splash proof and weather-proof protect your portable bluetooth speakers against rain and water. Support Wireless/TWS/TF Card Mode. Product Overview NS Soundboom Mini Bluetooth Speaker Micro USB Cable (Charging only)
|Package Dimensions||4 x 3.7 x 3.4 inches|
|Item Weight||12.8 ounces|
|Shipping Weight||12.8 ounces|
|Batteries||1 Lithium Polymer batteries required. (included)|
|Date first listed on Amazon||January 6, 2020|
- 【Top Bluetooth 5.0 Speaker】 Wireless Bluetooth 5.0 uses advanced antenna design to provide a wider range and faster Bluetooth connection, making the sound clearer. NS Soundboom Mini Bluetooth speaker promise to provide you with a smooth and consistent music experience, connecting over Bluetooth in seconds to iPhone, iPad, Smart-phones, Tablets, Windows and other Bluetooth device up to 35 feet. After connecting Bluetooth once, you can automatically connect your Bluetooth devices next time.
- 【IPX3 Waterproof and Dustproof】 The silicone cases and interface design ensure shockproof, dustproof and waterproof, so it is great for outdoor conditions. It is also anti-shock and anti-damage. Even if the bluetooth speaker falls down at 1.5m high, it can still keep intact.
- 【Long Battery Life】 Small in size but large in capacity. Equipped with built-in1800mAh rechargeable lithium battery. Let your enjoy music without being uninterrupted from day to night. Meet your needs throughout the day. Give you a 4 hour uninterrupted hi fidelity audio.
- 【Mini Super-Portable】 This portable outdoor speaker delivers full, vibrant natural sound from ultra-small speakers that fits in the palm of your hand. Clip to your bag, stick in your purse, throw on your bike or just grab it and go, ideal waterproof speaker for dorm, room, hiking, BBQ, yard, car, hanging out by the pool, relaxing at home or anywhere else imaginable.


I have been trying out a new gadget of late. A ZUMspot Multimode Digital Hotspot. It is a Raspberry Pi hat (small board that plugs into a Pi Zero, Pi2 or Pi3). This is one of several Hotspots available.
I heard about these while listening to an episode of the Ham Radio Workbench podcast last fall (http://hamradioworkbench.com/hrwb034-digital-radio-roundtable) and on a whim ordered one from Bruce Givens VE2GZI at http://zumspot.com/ . I got it just as they started making them with unobtanium, although I understand that this has since eased up a bit. I ordered the kit and with taxes, shipping etc it was around $140.
I should mention that there are some illegal knock-off boards available. If you decide to pick up a Hotspot spend the extra $ to get an official unit to support the developers and save yourself some headaches.
Why did I get one
A couple of reasons
- I have a Yaesu FT1XDR which aside from FM has Yaesu’s System Fusion (YSF) mode onboard
- We have no digital Fusion repeaters nearby
- I know almost nothing about Hotspots, YSF or the other modes
- I’m retired and have to keep the grey matter warm.
What does this thing do?
The ZUMspot is a small board that sits on a Raspberry Pi Zero (or Pi2 or Pi3). It incorporates a Multimode digital voice modem and a 10mW UHF transceiver that operates YSF, DMR, YSF2DMR, D-Star, P25 and/or NXDN modes. The mode available have been expanding, YSF2DMR and NXDN are recent additions via software updates.
Basically, the unit is a go between my radio and the internet to connect into the digital system(s). With no Fusion repeater nearby I can still access the network. Think of it as my own tiny personal digital repeater. I’ve heard people using them in their vehicles with cellphones as the internet link for mobile operating as well as people in less radio friendly areas like nursing homes or don’t-you-dare-put-up-an-antenna neighbourhoods.
What do you need apart from the ZUMspot?
First you will need a schwack of patience, or maybe that’s just me. Not only is this a new world of modes, software, acronyms and gadgets; it seems to be an evolving one as well.
You will need a radio capable of operating one or more of the modes although with a YSF or DMR radio you can work the other using the YSF2DMR mode. A basic FM HT will not work. I hear musings that this may someday change but that could be a while off. It is also preferable to have a low power setting if using the unit nearby. My HT goes down to 100mW.
For a program to control and update your Hotspot, Andy Taylor MWØMWZ, has developed a fabulous piece of software: PI-Star. This fellow really needs an award for the work he has put into this. I had some false starts but determined it was a PEBCAK issue and finally got it resolved. The program loads on your computer and connects to your Hot spot via the Raspberry Pi WiFi.
If you do not get a kit, you will need a Raspberry Pi, a power supply and an antenna for the board. You can also buy or print a case for the unit. If you want a screen, it is capable of having a small screen attached. Nextion seems to be a popular choice.
Notes so far
It is not plug and play, but that is half the fun.
Digital does not sound like FM.
It can take some time to figure out which rooms are active.
Terminology seems “fluid’: Room? Talkgroup? Reflector? Repeater? Nodes?
Knowing LINUX is an advantage – well, I should know it anyway
My HT has features I never really thought I would use. Going to need a cheat sheet.
Updates are one thing, Upgrades another.
I’m not, and never will be an expert, and that will just have to be OK.
An excellent resource to setting up the ZUMspot and configuring PI-Star is web page:
https://www.toshen.com/ke0fhs/zumspot.htm It has been my go to resource for getting things going.
KEØFHS’s page on Hotspots in general https://www.toshen.com/ke0fhs/hotspots.htm
Pi-Star http://www.pistar.uk/index.php (although KEØFHS’s page above covers it well)
There is a PI-Star user’s group on Facebook.
VE1CRA web page: http://ve1cra.net/main/zum.html
W1MSG has a very good set of videos by for PI-Star, ZUMspot etc on YouTube: https://www.youtube.com/channel/UCcjYjtognBaSAa-ZLk3EU2A
And lastly for those who made it this far….
ZUMspot connects into the APRS network. Go to APRS.fi, type in VE7VJ and you should be able to find my ZUMspot as VE7VJ-R when active.
Schwack: more than a swack. As in “It’s a big fire. I need a Schwack of hose”
PEBCAK: Problem Exists Between Chair And Keyboard


17th December, 2022
As part of EMERGE 2022: Forum on the Future of AI Driven Humanity & International Conference Digital Society Now, Matteo Cinelli, Assistant Professor at the Center of Data Science and Complexity for Society, Sapienza, University of Rome, presented his keynote lecture on ‘Echo Chambers and Polarization in Online Media’.
The session covers current research evidence about the organisation and nature of online information spaces including selective exposure to online news, algorithms, echo chambers, networks, modelling, and the emergence of echo platforms as well as contemporary solutions to issues of misinformation.
EMERGE is an annual event organised by the Digital Society Lab of the Institute for Philosophy and Social Theory, University of Belgrade. Its goal is to connect actors from the tech industry, policy makers, and academic researchers in discussing the social and economic impact of emerging technologies.


The optically active lamp
The introduced invention "
The optically active lamp " has several advantages compared
to the already available high priced lamps specially used with certain
optical devices. Therefore, it can efficiently replace them.
So there is no need to complicate the medically produced optical devices, producing a specific lamp for a specific manufacturally complicated device with limited market use. One can obtain completely different lamps emitting different types of light rays and of different directions directly by the same lamp and the same manufacture production line. One can direct the production of the same lamp to suit the desired optical device without the need to incorporate any additional optical medium or media beside this invented light source. These inventions solve the problems of manufacture optical complexity of such devices and the specific limited market use of their high priced lamp products. This will result in dramatic decrease in the manufacture and market costs, care, maintenance and repair they need. So almost all the medically produced optical devices can be simplified, very efficient and made available to all the doctors at very low cost to be able to achieve proper and best health care of patients. This will help in better medical care particularly in the developing countries of our continent. Also this will save a lot of the continent's resources to be used in other useful fields forsake of the community. Moreover this new technology will be reflected on the welfare of the community in our rich continent.
(Patent no. 18500/19439/19545/19546/19915)


Photo credit: Chris Thompson
The Orlando Sentinel says:
SPACEX has confirmed that it will attempt to launch a satellite into orbit for a fourth time on Tuesday evening, with a launch window opening at 6:35 p.m. at Cape Canaveral. The launch window is 11 minutes earlier than the three prior attempts have been.
“The slight shift in launch window… gives us a better chance of avoiding upper-level wind issues, which will remain a watch item. The window extends to 8:05 p.m.,” said Phil Larson, senior manager for communications at SpaceX, in an email.
SpaceX has scrubbed three attempts, on Wednesday, Thursday and Sunday evenings, to send a satellite for Luxembourg-based SES Satellite into orbit. The satellite will support telecommunications and broadcasts in Asia.


MI 10000mAh Mi Power Bank 3i
- Output ports: 2 x USB-A (18W), 1 x Type-C (18W)
- Input ports: Micro-USB, Type-C
- Charging time: 3.5 hours (fully charged with 18W charger)
- Weight: 251 grams
- Dimensions: 148 x 74 x 15 mm
- 18W fast charging
- Dual output ports
- Advanced 12-layer chip protection
- Smart power management
- Compact and lightweight
Shipping cost is based on weight. Just add products to your cart and use the Shipping Calculator to see the shipping price.
We want you to be 100% satisfied with your purchase. Items can be returned or exchanged within 30 days of delivery.


Edge computing use cases are revolutionizing how data is processed and analyzed by bringing computation closer to the source, enabling organizations to unlock its potential in various industries.
As organizations seek to leverage the benefits of edge computing, it is important to explore real-world applications and understand how this technology is transforming various sectors.
- Edge computing technology is gaining traction in industries like autonomous vehicles, smart cities, healthcare, manufacturing, and more.
- By processing data closer to the source, edge computing allows for real-time analysis and processing, reduces latency, improves security, and enables efficient handling of large volumes of data.
- Organizations can benefit from edge computing in terms of enhanced workplace safety, streaming services and content delivery, enhanced customer services, and smart home innovations.
- The Eclipse Foundation reports that 54% of organizations are already using or planning to use edge computing technologies.
- Edge computing offers a decentralized approach to data processing, providing faster response times and improved overall system performance.
Understanding Edge Computing Technology
Edge computing technology refers to the decentralized approach of processing and analyzing data at or near the source, rather than relying on a centralized cloud infrastructure. This approach brings computing capabilities closer to the edge of the network, enabling faster data analysis, lower latency, and improved overall performance.
Unlike traditional cloud computing, which relies on sending data to a centralized location for processing, edge computing distributes the processing power to devices and systems at the network edge. This enables real-time decision-making and reduces the need for constantly transmitting large amounts of data to and from the cloud.
One of the key components of edge computing architecture is distributed analytics. With distributed analytics, data processing is performed locally, allowing for faster insights and immediate responses. By analyzing data at the edge, organizations can extract valuable insights in real-time and make informed decisions without relying solely on the cloud.
Edge computing architecture employs a combination of edge nodes and gateways that act as intermediaries between devices and the cloud. These edge nodes are equipped with computing power and storage capabilities, enabling them to process data locally. Gateways, on the other hand, aggregate and relay data from multiple devices to the edge nodes or the cloud.
In summary, edge computing technology revolutionizes the way data is processed and analyzed, bringing computational capabilities closer to the source. By leveraging edge computing architecture and distributed analytics, organizations can unlock the full potential of their data, enabling faster decision-making, lower latency, and enhanced overall performance.
Table 1: Key Components of Edge Computing Architecture
|Equipped with computing power and storage capabilities
|Aggregate and relay data from multiple devices
|Process data locally
|Connect edge nodes to the cloud
|Enable real-time decision-making
|Act as intermediaries between devices and the cloud
Benefits of Edge Computing
Edge computing offers a multitude of benefits, from enabling real-time data processing to supporting low-latency applications that require near-instantaneous response times.
With traditional cloud computing, data is sent to a central server for processing, which can introduce delays and increase network congestion. However, edge computing takes a different approach by processing data closer to the edge of the network, where it is generated. This allows for faster analysis and decision-making, making it ideal for time-sensitive applications.
One of the key advantages of edge computing is its ability to handle real-time data processing. By processing data at the edge of the network, organizations can analyze and respond to data in real-time, enabling faster insights and decision-making. This is particularly valuable in industries such as healthcare, where real-time data processing can help monitor patients’ vital signs and detect anomalies or in manufacturing, where it can enable predictive maintenance to prevent equipment failures.
Another benefit of edge computing is its support for low-latency applications. With edge computing technology, data is processed locally, reducing the time it takes for data to travel back and forth from cloud servers. This is crucial for applications that require near-instantaneous response times, such as autonomous vehicles and augmented reality experiences.
By minimizing latency, edge computing enables smoother, more immersive user experiences and enhances overall system performance.
Edge computing also offers improved security by reducing the attack surface and potential risks associated with transmitting sensitive data over long distances. By processing data locally, organizations can isolate critical information and minimize the exposure of sensitive data to potential threats. This is particularly important in industries that handle sensitive information, such as financial services and healthcare.
In summary, edge computing brings numerous benefits to various industries by enabling real-time data processing, supporting low-latency applications, and improving security.
Its ability to process data closer to the edge of the network offers faster insights, enhanced user experiences, and more efficient handling of large volumes of data. As organizations continue to adopt edge computing technologies, we can expect to see further advancements and innovative use cases in the future.
Edge Computing in the Internet of Things (IoT)
Edge computing plays a crucial role in the IoT ecosystem, allowing for efficient data processing, analysis, and decision-making at the edge of the network, closer to IoT devices and sensors.
With the exponential growth of connected devices and the increasing demand for real-time data insights, traditional cloud computing architectures face challenges in terms of latency, bandwidth, and security. Edge computing addresses these limitations by bringing data processing closer to the source, enabling faster response times and reduced reliance on central cloud servers.
In the context of IoT infrastructure, edge computing offers several benefits. By processing data at the edge, organizations can reduce data transmission and storage costs. It also enables real-time analytics, enabling faster insights and timely decision-making. Additionally, edge computing enhances security by minimizing data exposure and reducing the risk of unauthorized access to sensitive information.
One of the key applications of edge computing in IoT is remote monitoring. With edge devices deployed closer to IoT devices and sensors, organizations can monitor and analyze data in real-time, allowing for proactive maintenance and optimizing operational efficiency. Remote monitoring enables organizations to identify anomalies, predict failures, and take corrective actions promptly, preventing costly downtime and enhancing overall productivity.
|Benefits of Edge Computing in IoT
|1. Reduced latency
|2. Real-time analytics
|3. Enhanced security
|4. Cost savings on data transmission and storage
|5. Proactive maintenance and operational efficiency optimization
Edge computing, in conjunction with IoT, is revolutionizing industries such as healthcare, manufacturing, transportation, and smart cities. The ability to process data closer to the source enables organizations to unlock valuable insights, improve operational efficiency, and drive innovation.
As the number of connected devices continues to grow, edge computing will play a pivotal role in shaping the future of IoT, providing the necessary infrastructure to handle the massive volumes of data generated by these devices.
“Edge computing brings the power of cloud computing closer to the edge of the network, enabling real-time insights and faster decision-making in IoT applications.”
In summary, edge computing is a game-changer for the IoT landscape. By processing data at the network’s edge, organizations can leverage its benefits to achieve reduced latency, real-time analytics, enhanced security, cost savings, and proactive maintenance. With the rapid growth of IoT devices, edge computing is poised to become an integral part of IoT infrastructure, empowering organizations to extract maximum value from their data and drive digital transformation.
Edge Computing for Smart Cities
Edge computing is revolutionizing the concept of smart cities, empowering them to utilize real-time data processing for improved workplace safety and efficient management of urban systems. By deploying edge computing technologies at the network edge, cities can collect and analyze data from various sources in real-time, enabling timely decision-making and proactive response to critical situations.
In a smart city setting, edge computing offers numerous benefits. It enables the integration of data from sensors, cameras, and other IoT devices, allowing cities to monitor traffic flow, air quality, and energy consumption in real-time. This data can then be analyzed and acted upon immediately, optimizing resource allocation and reducing pollution levels.
Additionally, edge computing enhances workplace safety by enabling real-time video analytics for detecting and responding to security threats. By processing video feeds locally, edge devices can identify potential safety hazards, such as unauthorized access or suspicious behavior, and trigger immediate alerts for rapid intervention.
With the implementation of edge computing, smart cities are transforming into connected, data-driven urban landscapes, where real-time data analysis and decision-making are driving efficiency, sustainability, and enhanced quality of life for citizens.
Enhanced Workplace Safety with Edge Computing
“Edge computing allows us to monitor critical areas of the city in real-time, enabling immediate response to safety incidents. By processing video feeds locally, we can detect potential threats and dispatch emergency services promptly, ensuring the well-being of our citizens.”
Smart cities have witnessed significant improvements in workplace safety through the adoption of edge computing. By leveraging edge devices equipped with AI capabilities, cities can analyze video feeds from surveillance cameras in real-time, detecting and responding to safety incidents more efficiently. This proactive approach to workplace safety reduces the time it takes to address potential risks, minimizing the impact on public safety.
The introduction of edge computing technology has a transformative effect on the way cities manage their infrastructure and ensure the well-being of their citizens. By harnessing real-time data processing at the network edge, smart cities can continue to evolve and thrive, creating more sustainable, secure, and efficient urban environments.
|Benefits of Edge Computing for Smart Cities
|Real-time data processing
|Real-time traffic monitoring and optimization
|Enhanced workplace safety
|Real-time video analytics for detecting and responding to security threats
|Efficient management of urban systems
|Monitoring and optimization of energy consumption
By capitalizing on the benefits of edge computing, smart cities can unlock new possibilities for innovation, sustainability, and improved quality of life. As technology continues to advance, the adoption of edge computing in smart cities is set to accelerate, creating a future where data-driven decision-making and real-time insights drive urban development and transform the way cities operate.
Autonomous Vehicles and Edge Computing
Edge computing plays a pivotal role in the advancement of autonomous vehicles, facilitating real-time data processing and intelligent decision-making on board. With the rise of autonomous vehicles, the need for immediate and accurate data analysis is crucial to ensure safe and efficient operations. Edge computing technology brings processing power closer to the source, enabling vehicles to analyze data locally without relying solely on cloud computing.
By utilizing edge computing, autonomous vehicles can process data from various sensors, including cameras, lidar, and radar, in real-time. This allows for quick detection of obstacles, pedestrians, and other vehicles, contributing to improved safety on the roads. Efficient data processing also enables autonomous vehicles to make split-second decisions, such as adjusting speed or changing lanes, without relying on distant cloud servers.
Furthermore, edge computing helps overcome challenges related to low-latency communication. Autonomous vehicles require fast response times to navigate complex environments and react to changing road conditions.
By leveraging edge computing, these vehicles can perform real-time data analysis onboard, reducing the reliance on cloud connectivity and minimizing latency. This ensures that critical decisions can be made instantaneously, enhancing the overall performance and reliability of autonomous vehicles.
- Real-time data processing and analysis for immediate decision-making
- Reduced reliance on cloud connectivity and minimized latency
- Enhanced safety through quick detection of obstacles and other vehicles
- Improved performance and reliability of autonomous vehicles
“Edge computing brings processing power closer to the source, enabling autonomous vehicles to analyze data locally without relying solely on cloud computing.”
As autonomous vehicles continue to evolve, edge computing will play a crucial role in enabling their capabilities. The integration of edge computing technology empowers these vehicles to process data on the edge of the network, ensuring real-time decision-making and enhancing overall performance. With the advantages it offers, it is clear that edge computing has a significant impact on the advancement of autonomous vehicles and the future of transportation.
Edge Computing for Industrial IoT
Edge computing is transforming the industrial landscape, empowering organizations to harness the power of real-time data analysis to optimize processes, improve productivity, and reduce downtime. In the realm of Industrial IoT (IIoT), edge computing solutions play a crucial role in enabling efficient and intelligent operations.
By bringing computing power closer to the edge of the network, edge computing solutions facilitate real-time data processing and analysis, allowing industrial systems to respond swiftly to changing conditions. This immediate access to insights enables predictive maintenance, enabling organizations to identify potential equipment failures in advance and take proactive measures to prevent costly breakdowns.
The ability to process data at the edge also reduces latency, ensuring that critical data is transmitted and acted upon in near real-time. This is especially important in industrial settings where time-sensitive decisions need to be made rapidly. Edge computing solutions enable faster response times, leading to improved operational efficiency and enhanced productivity.
Moreover, the large volumes of data generated by industrial IoT devices can be overwhelming to centrally located cloud servers. Edge computing solutions offer a distributed architecture, allowing data to be processed and analyzed locally before being sent to the cloud for storage or further analysis. This not only reduces the strain on the cloud infrastructure but also minimizes bandwidth requirements and ensures the privacy and security of sensitive data.
Edge Computing Benefits for Industrial IoT:
- Real-time data analysis: Instant access to actionable insights for agile decision-making.
- Reduced latency: Faster response times for time-sensitive operations.
- Predictive maintenance: Early identification of potential equipment failures to prevent downtime.
- Enhanced security: Local data processing ensures sensitive information remains secure.
- Improved operational efficiency: Streamlined processes and increased productivity.
The integration of edge computing solutions in the industrial IoT landscape enables organizations to unlock the full potential of their data, driving innovation, and achieving optimal performance. With the power of real-time data analysis at their fingertips, industrial players can stay ahead of the competition, maximize operational efficiency, and pave the way for a more connected and intelligent future.
Edge Computing in Cloud Gaming
Edge computing is revolutionizing the world of cloud gaming, allowing for immersive, low-latency gaming experiences that rival traditional console and PC gaming. With edge computing solutions, gamers can enjoy smooth gameplay, minimal lag, and real-time interactions, creating a more seamless and responsive gaming environment.
By processing game data closer to the edge of the network, edge computing reduces latency, which is crucial for cloud gaming. It enables real-time rendering and processing of graphics-intensive content, ensuring that gamers can enjoy high-quality visuals without any noticeable delays. This technology also minimizes the distance that data needs to travel, resulting in faster response times and improved overall performance.
One of the key advantages of edge computing in cloud gaming is its ability to bring the gaming infrastructure closer to the players. This eliminates the need for gamers to rely solely on their local device’s processing power, as much of the computationally intensive tasks are offloaded to edge servers. As a result, even older or less powerful devices can deliver an exceptional gaming experience.
|Benefits of Edge Computing in Cloud Gaming
|1. Low-latency gameplay
|2. Real-time rendering and processing of graphics
|3. Improved overall performance
|4. Accessibility on various devices
Moreover, edge computing in cloud gaming allows for seamless scalability. With the ability to distribute game processing across multiple edge locations, game developers and providers can easily accommodate a growing user base without compromising performance. This scalability makes cloud gaming accessible to a wider audience and opens up opportunities for new gaming experiences.
As the demand for cloud gaming continues to rise, edge computing solutions are becoming increasingly crucial for delivering an optimal gaming experience. With its low-latency capabilities, real-time processing, and enhanced scalability, edge computing is transforming the landscape of cloud gaming, bringing gamers closer to their virtual worlds than ever before.
Edge Computing’s Impact on Digital Landscapes
Edge computing is transforming digital landscapes across industries, revolutionizing customer experiences, enabling seamless content delivery, and revolutionizing the concept of smart homes.
As organizations continue to explore edge computing use cases and examples, it is clear that this technology has the potential to revolutionize the way we interact with digital systems, from customer services and content delivery to smart homes and beyond.
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Q: What is edge computing?
A: Edge computing refers to the practice of processing data closer to the source, rather than relying solely on a centralized cloud infrastructure. It enables real-time analysis and processing, reduces latency, improves security, and efficiently handles large volumes of data.
Q: Why are organizations adopting edge computing?
A: Organizations are adopting edge computing technology to leverage its benefits in various industries. Edge computing allows for faster processing of data, enhances security, improves performance, and enables real-time decision-making, making it ideal for use cases like autonomous vehicles, smart cities, healthcare, manufacturing, virtual and augmented reality, streaming services, and smart homes.
Q: How does edge computing differ from traditional cloud computing?
A: Edge computing differs from traditional cloud computing by processing data closer to the edge of the network, where the data is generated. This reduces the need for sending all the data to a centralized cloud infrastructure, resulting in lower latency and faster processing times.
Q: What are the benefits of edge computing?
A: Edge computing offers several benefits, including real-time data processing, reduced latency for time-sensitive applications, enhanced security, efficient handling of large volumes of data, improved performance, and increased overall efficiency of digital systems.
Q: How is edge computing applied in the Internet of Things (IoT)?
A: Edge computing plays a crucial role in the Internet of Things (IoT) by enabling distributed analytics and processing closer to IoT devices. This enhances IoT infrastructure, enables remote monitoring and control, and facilitates real-time decision-making for interconnected devices.
Q: What are some applications of edge computing in smart cities?
A: Edge computing technology contributes to the development of smart cities by enhancing workplace safety, improving urban infrastructure efficiency, optimizing traffic management, enabling real-time monitoring of utilities, and facilitating intelligent waste management systems.
Q: How does edge computing benefit autonomous vehicles?
A: Edge computing enables real-time data analysis and decision-making for autonomous vehicles, enhancing their safety and performance. It allows for faster processing of sensor data, enabling quick responses to changing road conditions and reducing the reliance on external networks.
Q: What is the impact of edge computing on industrial IoT?
A: Edge computing plays a critical role in the Industrial Internet of Things (IIoT) by providing real-time analytics and optimization for industrial processes. It enables predictive maintenance, enhances operational efficiency, and facilitates remote monitoring and control of industrial equipment.
Q: How does edge computing enhance cloud gaming?
A: Edge computing solutions improve the cloud gaming experience by reducing latency, enabling real-time rendering and processing of graphics-intensive content, and providing a more responsive gaming environment. This leads to higher performance, smoother gameplay, and better overall gaming experiences.
Q: What are some examples of edge computing use cases?
A: Edge computing has various use cases, including enhanced customer services, streaming services and content delivery, improved healthcare systems, safer manufacturing processes, virtual and augmented reality applications, and the development of smart homes with intelligent devices and appliances.


Senior Embedded Software Design Engineer - Boynton Beach
Boynton Beach, FL
Lutron Electronics Co., Inc. has an immediate opening for an experienced Embedded Electrical Engineer at our South Florida engineering center. In this position, you will be a key part of the Engineering Development Team, designing innovative embedded control systems for lighting automation and control applications.
You will have the opportunity to join a dynamic group at an exciting time in the lighting industry as we develop new innovation from product concepts and novel technologies to process improvements and new applications. You will design products and systems that are destined for use in new and exciting residential and commercial environments, providing a high degree of satisfaction.
- Lead and mentor a team of product development engineers, implementing stable, efficient, and scalable systems upon which world-class embedded software applications can easily be built.
- Design maintainable, elegant, and high quality solutions to meet a wide variety of requirements and feature sets while working closely with a cross-functional group of highly skilled engineers and leaders outside your immediate team.
- Balance a variety of tasks related to: requirements gathering, progress tracking, estimating development effort, user interface design, real time schedulers, software development, testing, trouble-shooting, and software maintenance.
- Assure a high standard of quality in your own work and in the work of others on your team via good coding practices, process improvements, clean designs, smart testing and review practices.
- Stay aligned to Lutron’s culture and values
- Be passionate
- Be flexible and adaptable to changing markets
- Be an innovative thinker
- Be customer focused
- Be ethical
- BS in Computer, Software, or Electrical Engineering from an accredited program, with at least a 3.0 GPA (or equivalent)
- Minimum 4 years of industry experience in embedded software/hardware development
- Thorough knowledge of embedded system development fundamentals
- Familiarity and hands-on experience with various design patterns
- Strong working knowledge of good programming techniques, and good familiarity with real time schedulers
- Excellent Communication skills with all departments and disciplines.
- Skillful at solving problems quickly with enthusiasm and creativity
- Willingness to travel 10% of the time, sometimes with little or no notice
- Technical experience required is the majority of the areas:
- Real Time Embedded Systems
- High-level programming languages such as C and C++
- Software-hardware communications
- Interface programming
- Hardware development of microcontroller or microprocessor control circuits using 8/32 bit or ARM processor
- Protocol development
Lutron Electronics’ position as the leading manufacturer of lighting controls worldwide, our unsurpassed quality, the breadth and depth of our product offerings, and our commitment to servicing our customers have resulted in double digit growth annually. Consequently, the company continues to invest in recruiting and retaining the best people we can find. Continuous growth has also fueled our ability to constantly develop new technologies and new manufacturing processes that turn into new and better products and services.
Lutron offers a competitive compensation and benefits package and a dynamic and professional work environment. We offer continued growth through increased job responsibilities, courses offered through Lutron University and advancement opportunities. For more information, view our website at www.lutron.com. EOE/AA.