Scope AR, the pioneer of enterprise-class augmented reality (AR) solutions, today at Augmented World Expo 2018 (AWE) announced the industry’s first AR platform that offers both real-time remote assistance and access to AR guided smart instructions simultaneously in one application. By combining the functionality of the company’s AR-based live support video calling application, Remote AR, with the company’s AR content creation platform, WorkLink, into one product, organizations can now experience an unprecedented level of support and collaboration.
“The ability for workers to connect in real-time with an expert to get the remote assistance they might need while also having access to rich, animated step-by-step AR instructions in one, unified interface truly has the potential to transform the way people work, while also saving companies valuable time, resources and significant costs,” said Scott Montgomerie, CEO and co-founder of Scope AR. “We are pushing the boundaries of what’s possible in AR with products already in use by Fortune 500 companies. With our newly integrated platform, we are thrilled to address a common request we receive and offer our customers an even better AR experience.”
Users will now have immediate access to the best practices and expert knowledge they need to complete complex tasks in the field, shop floor or office. A demo video showcasing the power of the unified solution is available here.
The full press release is available here.


Photoshop is a powerful image processing and graphics program. It operates using pixels, which are the smallest units of a digital image. If you were to magnify (zoom in on) an image displayed in Photoshop, you would see that it consists of a grid of pixels.
What is image processor in Photoshop?
The Image Processor converts and processes multiple files. Unlike the Batch command, the Image Processor lets you process files without first creating an action.
What is image processing function?
About Image Processing Functions. Use the image processing built-in functions for transforming, manipulating, and analyzing images. With image transformation and manipulation, you can enhance the appearance of an image. For example, you can make an image clearer and sharper by removing distortions and using filters.
Why is image processing required?
Image processing is a method to perform some operations on an image, to get an enhanced image or to extract some useful information from it. … However, to get an optimized workflow and to avoid losing time, it is important to process images after the capture, in a post-processing step.
What is image quality in Photoshop?
Resolution is the fineness of detail in a bitmap image and is measured in pixels per inch (ppi). The more pixels per inch, the greater the resolution. Generally, an image with a higher resolution produces a better printed image quality. Same image at 72‑ppi and 300‑ppi; inset zoom 200%
Where is the Image Processor in Photoshop?
To access the Image Processor when you have all the files open in Photoshop, go to File>Scripts>Image Processor. USING BRIDGE: To access the Image Processor when you have all the files in a separate folder in Bridge, go to Tools>Photoshop>Image Processor.
How do I use image processing in Photoshop?
To open Image Processor in Photoshop, look under Scripts in the File menu and choose Image Processor. For photographers who use Bridge, the Image Processor is available there under the Photoshop heading of the Tools menu.
What is image processing with example?
4.5 Fundamentals of image processing
|Image processing technique||Applications|
|Geometric operation||Rotation, translation, scaling or wrapping to remove distortion|
|Segmentation||To divide an image into meaningful regions (e.g. background + foreground)|
|Fast Fourier Transform||Used for noise reduction and to extract detail|
Where is image processing used?
Image processing is used to find out various patterns and aspects in images. Pattern Recognition is used for Handwriting analysis, Image recognition, Computer-aided medical diagnosis, and much more.
What is pixel in image processing?
A: In digital imaging, a pixel(or picture element) is the smallest item of information in an image. Pixels are arranged in a 2-dimensional grid, represented using squares. Each pixel is a sample of an original image, where more samples typically provide more-accurate representations of the original.
Why do we use digital image processing?
Digital image processing is the use of a digital computer to process digital images through an algorithm. … It allows a much wider range of algorithms to be applied to the input data and can avoid problems such as the build-up of noise and distortion during processing.


Commonly used equalization charging technologies include constant shunt resistor equalization charging, on-off shunt resistor equalization charging, average battery voltage equalization charging, switched capacitor equalization charging, buck converter equalization charging, and inductive equalization charging. When groups of lithium batteries are charged in series, each battery should be balanced and charged, otherwise the performance and life of the entire battery will be affected during use. The existing single-cell lithium battery protection chip does not include the balanced charging control function, and the multi-cell lithium battery protection chip equalization charging control function needs an external CPU; through serial communication with the protection chip ( such as I2C bus ) , the The complexity and design difficulty of the protection circuit, the efficiency and reliability of the system are reduced, and the power consumption is increased.
In this paper, the power lithium battery is used in groups. The lithium batteries of each section require the protection of charging over voltage, discharge under voltage, over current and short circuit. In the charging process, the problem of equalizing the charging of the whole battery should be realized. Lithium battery protection chip Design of a battery protection board with balanced charging function for protecting any series of lithium batteries in series. The simulation results and industrial production application prove that the protection board has perfect protection function, stable operation, high cost performance, and the balanced charging error is less than 50mV.
1 lithium battery pack protection board equalization charging principle structure
The block diagram of the lithium battery pack protection board with balanced charging capability designed by a single-cell lithium battery protection chip is shown in Figure 1 .
Figure 1 lithium battery pack protection board structure block diagram
Among them: 1 is a single-cell lithium-ion battery ; 2 is a charging over-voltage shunt discharge branch resistor ; 3 is a shunt discharge branch control switching device ; 4 is an overcurrent detection protection resistor ; 5 is an omitted lithium battery protection chip and circuit Connection part ; 6 is a single-cell lithium battery protection chip ( generally including charging control pin CO, discharge control pin DO, discharge overcurrent and short-circuit detection pin VM, battery positive terminal VDD, battery negative terminal VSS, etc. ); The charging overvoltage protection signal is isolated by the optocoupler to form a parallel relationship driving the gate of the MOS transistor for charging control in the main circuit ; 8 is a discharge undervoltage, overcurrent, short circuit protection signal is isolated by the optocoupler to form a series relationship driving the main circuit discharge Control MOS tube gate ; 9 is charge control switching device ; 10 is discharge control switching device ; 11 is control circuit ; 12 is main circuit ; 13 is shunt discharge branch. The number of single-cell lithium battery protection chips is determined according to the number of lithium battery cells, and is used in series to protect the charge, discharge, overcurrent and short circuit conditions of the corresponding single-cell lithium battery. The system realizes balanced charging by controlling the on/off of the shunt discharge branch switching device while protecting the chip. This scheme is different from the traditional method of achieving balanced charging at the charger end, and reduces the design of the lithium battery pack charger. The cost of the application.
2 hardware design
2.1 charging circuit
When the lithium battery pack is charged, the positive and negative poles of the external power supply are respectively connected to the positive and negative terminals of the battery pack BAT+ and BAT- , the charging current flows through the battery pack positive pole BAT+ , the battery pack single-cell lithium battery 1~N , the discharge control switch device , charge control switch device, battery pack negative BAT-, current flow as shown in Figure 2 .
Figure 2 lithium battery pack charging circuit
In the control circuit part of the control circuit, the single-cell lithium battery protection chip's charging over-voltage protection control signal is isolated by optocoupler and then connected in parallel to provide the gate voltage for the conduction of the charging switch device in the main circuit ; such as a certain section or several lithium batteries When the overvoltage protection state is first entered during the charging process, the overcurrent protection signal is controlled to discharge the shunt discharge branch connected in parallel between the positive and negative terminals of the single-cell lithium battery, and the corresponding single lithium battery connected in series in the charging circuit is broken. Leaving the charging circuit.
2.2 main circuit and shunt discharge branch
When the lithium battery pack is charged in series, the influence of the difference in the capacity of the single battery is ignored, and the battery with a small internal resistance is first filled. At this time, the corresponding overvoltage protection signal controls the switching device of the shunt discharge branch to be closed, and a shunt resistor is connected in parallel across the primary battery. According to the PNGV equivalent circuit model of the battery, the shunt branch resistance is equivalent to the load of the first full-cell lithium battery, and the battery is discharged through it to maintain the battery terminal voltage within a very small range near the full state. First assume that the first charging a lithium battery is completed, into the overvoltage protection state, the main circuit and the shunt branch discharge current flows as shown in FIG. When all the single-cell batteries are charged into the over-voltage protection state, the voltages of all single-cell lithium batteries are completely equal within the error range, and the protection protection signals of the protection chips of each section become low, and the charging control switching devices in the main circuit cannot be obtained. The gate bias is provided to turn off, and the main circuit is disconnected, that is, balanced charging is achieved, and the charging process is completed.
Figure 3 main circuit and shunt discharge branch
The discharge branch resistance of the single-cell battery connected in parallel can be calculated according to the charging voltage of the lithium battery charger and the parameters of the lithium battery and the discharge current. The equalization current should be reasonably selected. If it is too small, the equalization effect is not obvious ; if it is too large, the system has large energy loss and low equalization efficiency. The lithium battery pack has high thermal management requirements, and the general current can be designed between 50 and 100 mA .
2.3 discharge circuit
When the battery pack is discharged, the external load is respectively connected to the positive and negative terminals BAT+ and BAT- of the battery pack, and the discharge current flows through the battery pack negative BAT- , the charge control switch device, the discharge control switch device, and the single-cell lithium battery N in the battery pack. ~1 and battery pack positive BAT+, current flow as shown in Figure 4 . In the control circuit part of the control circuit, the single-cell lithium battery protection chip discharge undervoltage protection, overcurrent and short circuit protection control signals are isolated by optocoupler and then connected in series to provide the gate voltage for the conduction of the discharge switch components in the main circuit ; once the battery During the discharge process, the group encounters a special condition such as undervoltage or overcurrent and short circuit of a single lithium battery. The corresponding single-cell lithium battery discharge protection control signal becomes low, and the gate bias voltage cannot be provided to the discharge control switching device in the main circuit. , so that it is turned off, the main circuit is disconnected, that is, the discharge process is terminated.
Figure 4 battery pack discharge circuit
Generally, the lithium battery adopts a constant current - constant voltage (TAPER) type charging control, and the charging current is approximately exponentially reduced when the constant voltage is charged. The switching device of the main circuit of the charging and discharging system in the system can be selected according to the maximum working current and working voltage that the external circuit requires.
The single-cell lithium battery protection chip of the control circuit can be selected according to the voltage level of the single-cell lithium battery to be protected, the protection delay time, and the like. The shunt discharge branch resistor can be implemented by a power resistor or a resistor network. Here, the resistor network is used to realize the shunt discharge branch resistance, which can effectively eliminate the influence of the resistance deviation, and can also reduce the thermal power consumption.
3 balanced charging protection board circuit simulation
According to the basic principle of the above-mentioned balanced charging protection board circuit operation, the system simulation model is built in Matlab/Simulink environment to simulate the working condition of the protection board during the charging and discharging process of the lithium battery pack, and the feasibility of the design scheme is verified. For simplicity, the simulation model is given only by lithium batteries lithium series Section 2, as shown in FIG.
Figure 5 2- cell lithium battery series equalization protection simulation model
In the model, a controlled voltage source is used instead of a single-cell lithium battery to simulate the charge and discharge of the battery. In Figure 5 , Rs is the total internal resistance of the battery in series, RL is the load resistance, and Rd is the shunt discharge branch resistance. The single-cell lithium battery protection chip S28241 is packaged as a subsystem, which makes the overall model expression more concise.
The protection chip subsystem model mainly uses the logic operation module, the symbol function module, the one-dimensional table lookup module, the integral module, the delay module, the switch module, the mathematical operation module, etc. to simulate the timing and logic of the protection action. Because there is a certain difference between the simulation environment and the real circuit, no filtering and strong and weak electrical isolation are needed for the simulation, and the redundant modules are easy to lead to lengthy simulation time. Therefore, in the actual simulation process, the filtering, optocoupler isolation, level conditioning and other circuits are removed, and the resistor network designed for high current shunting is changed to a single resistor, which reduces the complexity of the simulation system. When establishing a complete system simulation model, it should be noted that the input and output data and signal types of different modules may be different. The connection order of the modules must be correctly arranged. If necessary, the data type is converted. The voltage detection module is used to implement the strong and weak signals. The conversion connection problem.
The given signal of the controlled voltage source in the simulation model may have a slight difference under the premise that the waveform is substantially uniform, to represent the difference in charge and discharge of the battery individual. Figure 6 shows the simulation results of the single-cell battery voltage detection in the battery pack. It can be seen that the circuit can work normally by using the over-current discharge branch equalization method.
Figure 6 lithium battery voltage detection simulation results
4 system experiment
In practical application, for the demand of a brand of electric bicycle production plant, two sets of parallel and 10 series series of 36V8A Â· h- manganese lithium battery pack protection boards were designed and implemented. The single-cell lithium battery protection chip adopts S28241 of Seiko Co., Ltd. The protection board is mainly composed of a main circuit, a control circuit, a shunt discharge branch, and a filter, an optocoupler isolation and a level conditioning circuit. The basic structure is shown in FIG. 7 . The discharge branch current is selected to be around 800 mA, and a 510 Î© resistor is connected in series to form a resistor network.
Figure 7 lithium battery pack protection board debugging
The debugging work is mainly divided into two parts: voltage test and current test. The voltage test includes two steps of charging performance detection overvoltage, equalization, and discharge performance detection undervoltage. You can choose to use a battery analog power supply instead of the actual battery pack for testing. Because of the multi-cell battery connection, the cost of testing this solution is high. You can also use the assembled battery pack to directly test, charge and discharge the battery pack, observe whether the protection device operates normally during overvoltage and undervoltage, record the real-time voltage of each battery during overcharge protection, and judge the performance of balanced charging. However, this program takes a long time to test. When the battery pack is tested for charging performance, the charging voltage of 10 batteries is monitored by a 3 -digit half-precision voltmeter. It can be seen that the batteries in each section are within the normal working voltage range, and the difference between the monomers is small, during charging. The voltage deviation is less than 100mV, the full charge voltage is 4.2V , and the voltage deviation is less than 50mV. The current test part includes two steps of overcurrent detection and short circuit detection. Overcurrent detection can connect a current meter in series between the resistive load and the power supply circuit to slowly reduce the load. When the current increases to the overcurrent value, see if the ammeter indicates a current interruption. Short-circuit detection can directly short the positive and negative of the battery pack to observe the status of the ammeter. Under the premise of determining that the device is intact and the circuit is soldered correctly, the current test can also be performed directly through the state of the power indicator on the protection board.
In actual use, considering the external interference may cause the battery voltage to be unstable, which will cause overvoltage or undervoltage of the voltage for a very short time, resulting in incorrect judgment of the battery protection circuit, so the protection chip is equipped with a corresponding delay. Logic, if necessary, add a delay circuit on the protection board, which will effectively reduce the possibility of external circuit interference causing the protection circuit to malfunction. Since the battery pack does not work, the protective plate of each switching device in the OFF state, so that the static loss of nearly 0. When the system works, the main loss in the main circuit 2 on-state losses in the MOS transistor, when the state of charge When the equalization circuit works, the resistance heat loss in the shunt branch is large, but the time is short, and the overall dynamic loss is at an acceptable level during the normal working period of the battery pack.
After testing, the protection circuit is designed to meet the needs of series lithium battery pack protection, complete protection functions, reliable overcharge and overdischarge protection, and balanced charging.
According to the needs of the application, after changing the protection chip type and series number, the power level of the switching device and the energy-consuming component in the circuit, the power lithium battery pack of any structure and voltage level can be protected and equalized. For example, the FS361A single-cell lithium battery protection chip from Taiwan Fujing Company can realize the design of three sets of parallel and 12- string lithium iron phosphate battery pack protection boards. The final batch of industrial products is reasonably priced, and there is no repair product after three years of market inspection.
In this paper, a single-cell lithium battery protection chip design is used to realize a multi-cell lithium battery series battery pack protection board. In addition to the necessary over-voltage, under-voltage, over-current and short-circuit protection functions, the balanced charging function can also be realized. The simulation and experimental results verify the feasibility of the scheme, and the market usage test the stability of the design.
We are putting most of our resource and effort into Ratchet Straps and their accessories.
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This is another PCB design exercise I did. It's a LEDs controller with the following features: - Allows the regulation of LED brightness. - Allows the choice of color if it's an RGB LED. -Allows a supply voltage of 100-240V AC. - It has 12V DC / 5A and 24V DC / 2.5A outputs. - It has WiFi and Bluetooth communication by ESP32 Microcontroller. - And more.
This is a PCB design exercise I did for a temperature controller with the following features: - Shows the current temperature value. - Shows the desired temperature value. - It has two buttons to raise and lower the temperature. - Allows a supply voltage of 100-240V AC. - It has Bluetooth communication. - Allows entry of thermocouple and PT100 type sensors.
¿Qué es un dispositivo IoT?
IoT son las siglas de Internet of Things. Básicamente se refiere a la conexión de dispositivos cotidianos a Internet.


Writing and building a program
First, getting a working compiler
Before you can compile Prog8 programs, you’ll have to download or build the compiler itself. First make sure you have installed the Required additional tools. Then you can choose a few ways to get a compiler:
Download a precompiled version from github:
download a recent “fat-jar” (called something like “prog8compiler-all.jar”) from the releases on Github
run the compiler with “java -jar prog8compiler-all.jar” to see how you can use it.
Using the Gradle build system to build it yourself:
The Gradle build system is used to build the compiler. The most interesting gradle commands to run are probably:
Builds the compiler code and runs all available checks and unit-tests. Also automatically runs the installDist and installShadowDist tasks.
Builds the compiler and installs it with scripts to run it, in the directory
Creates a ‘fat-jar’ that contains the compiler and all dependencies, in a single executable .jar file, and includes few start scripts to run it. The output can be found in
Creates a zipfile with the above in it, for easy distribution. This file can be found in
For normal use, the
installDist target should suffice and after succesful completion, you can start the compiler with:
./compiler/build/install/p8compile/bin/p8compile <options> <sourcefile>
(You should probably make an alias…)
Development and testing is done on Linux using the IntelliJ IDEA IDE, but the compiler should run on most operating systems that provide a fairly modern java runtime (11 or newer). If you do have trouble building or running the compiler on your operating system, please let me know!
What is a Prog8 “Program” anyway?
A “complete runnable program” is a compiled, assembled, and linked together single unit. It contains all of the program’s code and data and has a certain file format that allows it to be loaded directly on the target system. Prog8 currently has no built-in support for programs that exceed 64 Kb of memory, nor for multi-part loaders.
For the Commodore-64, most programs will have a tiny BASIC launcher that does a SYS into the generated machine code. This way the user can load it as any other program and simply RUN it to start. (This is a regular “.prg” program). Prog8 can create those, but it is also possible to output plain binary programs that can be loaded into memory anywhere.
Running the compiler
Make sure you have installed the Required additional tools.
You run the Prog8 compiler on a main source code module file. Other modules that this code needs will be loaded and processed via imports from within that file. The compiler will link everything together into one output program at the end.
If you start the compiler without arguments, it will print a short usage text. For normal use the compiler can be invoked with the command:
$ java -jar prog8compiler-7.3-all.jar sourcefile.p8
(Use the appropriate name and version of the jar file downloaded from one of the Git releases. Other ways to invoke the compiler are also available: see the introduction page about how to build and run the compiler yourself)
By default, assembly code is generated and written to
It is then (automatically) fed to the 64tass assembler tool
that creastes the final runnable program.
Command line options
- One or more .p8 module files
Specify the main module file(s) to compile. Every file specified is a separate program.
Prints short command line usage information.
-target <compilation target>
Sets the target output of the compiler, currently ‘c64’ and ‘cx16’ are valid targets. c64 = Commodore 64, c128 = Commodore 128, cx16 = Commander X16, atari = Atari 800 XL Default = c64
Specify a list of extra paths (separated with ‘:’), to search in for imported modules. Useful if you have library modules somewhere that you want to re-use, or to switch implementations of certain routines via a command line switch.
Auto-starts target system emulator after successful compilation. emu2 starts the alternative emulator if available. The compiled program and the symbol and breakpoint lists (for the machine code monitor) are immediately loaded into the emulator..
sets directory location for output files instead of current directory
Do not create assembly code and output program. Useful for debugging or doing quick syntax checks.
Don’t perform any code optimizations. Useful for debugging or faster compilation cycles.
Don’t create code to reinitialize the global (block level) variables on every run of the program. Also means that all such variables are no longer placed in the zero page. Sometimes the program will be a lot shorter when using this, but sometimes the opposite happens. When using this option, it is no longer be possible to run the program correctly more than once! Experimental feature: still has some problems!
Also optimize float expressions if optimizations are enabled. Warning: can increase program size significantly if a lot of floating point expressions are used.
Enables continuous compilation mode (watches for file changes). This greatly increases compilation speed on subsequent runs: almost instant compilation times (less than a second) can be achieved in this mode. The compiler will compile your program and then instead of exiting, it waits for any changes in the module source files. As soon as a change happens, the program gets compiled again. Note that it is possible to use the watch mode with multiple modules as well, but it will recompile everything in that list even if only one of the files got updated.
Shows debug warnings about slow or problematic assembly code generation. Ideally, the compiler should use as few stack based evaluations as possible.
Don’t print assembler output results.
Generate an assembler listing file as well.
Use experimental code generation backend (incomplete).
Module source code files
A module source file is a text file with the
.p8 suffix, containing the program’s source code.
It consists of compilation options and other directives, imports of other modules,
and source code for one or more code blocks.
Prog8 has various LIBRARY modules that are defined in special internal files provided by the compiler. You should not overwrite these or reuse their names. They are embedded into the packaged release version of the compiler so you don’t have to worry about where they are, but their names are still reserved.
Importing other source files and specifying search location(s)
You can create multiple source files yourself to modularize your large programs into
multiple module files. You can also create “library” modules this way with handy routines,
that can be shared among programs. By importing those module files, you can use them in other modules.
It is possible to tell the compiler where it should look for these files, by using
srcdirs command line option.
Debugging (with Vice)
There’s support for using the monitor and debugging capabilities of the rather excellent Vice emulator.
%breakpoint directive (see Directives) in the source code instructs the compiler to put
a breakpoint at that position. Some systems use a BRK instruction for this, but
this will usually halt the machine altogether instead of just suspending execution.
Prog8 issues a NOP instruction instead and creates a ‘virtual’ breakpoint at this position.
All breakpoints are then written to a file called “programname.vice-mon-list”,
which is meant to be used by the Vice emulator.
It contains a series of commands for Vice’s monitor, including source labels and the breakpoint settings.
If you use the emulator autostart feature of the compiler, it will take care of this for you.
If you launch Vice manually, you’ll have to use a command line option to load this file:
$ x64 -moncommands programname.vice-mon-list
Vice will then use the label names in memory disassembly, and will activate any breakpoints as well. If your running program hits one of the breakpoints, Vice will halt execution and drop you into the monitor.
Getting an assembler error about undefined symbols such as
not defined 'floats'?
This happens when your program uses floating point values, and you forgot to import
If you use floating points, the compiler needs routines from that library.
Fix it by adding an
A couple of example programs can be found in the ‘examples’ directory of the source tree. Make sure you have installed the Required additional tools. Then, for instance, to compile and run the rasterbars example program, use this command:
$ java -jar prog8compiler.jar -emu examples/rasterbars.p8
$ ./p8compile.sh -emu examples/rasterbars.p8


If you are using an enterprise data center, it is likely that you are already using flash memory, especially if you need to deal with applications that are sensitive to deferred exceptions, high-definition movies, mobile computing, or applications that require only flash memory to provide performance.
Do not ignore your network
Flash memory can provide better performance or throughput, and less delay these two advantages, but if your infrastructure operations, storage, and network elements do not match, it is impossible to play the potential of flash technology. When the industry is actively deploying flash memory to improve performance, this problem will only say that you will become bigger.
You may have considered buying the latest flash drives, improved full flash series or network hardware solutions, but you may still be unclear which solution can help you overcome this problem at the moment. Another option for you is the Nonvolatile Memory Express (NVMe), a storage protocol built for flash memory, designed to improve data and delay-sensitive applications.
While NVMe is now commonly used for direct storage of servers, the need to extend this low-latency agreement on storage networks is growing, and shared storage solutions can benefit from it. In addition, NVMe guarantees up to 1,000 shared storage devices.
To enhance this agreement, a new industry standard, NVMe over Fabrics, was announced in June last year. It allows NVMe instructions to be transmitted locally on an existing network, so you can use this protocol on a large storage network.
NVMe can run on a variety of network architectures, including Fiber Channel and Ethernet. It can be unified in a variety of network structure type running on the general abstraction layer, so you can continue to use the existing network architecture. Compared with NVMe over fabrics, 40Gbe and iSCSI, file-based network file system (NFS) or server message block (SMB) and 16G Fiber Channel will cause network bottlenecks, Driving high-performance vehicles on the road lack performance.
What does this mean to your business?
Most companies today need to perform ultra-fast data transfers on large-scale networks to meet business-critical applications.
NVMe over Fabric directs end-to-end transport NVMe instructions and structures, significantly reducing latency and eliminating the need for SCSI conversion, making applications faster or faster.
The main goal of NVMe is to reduce the cost of agreements in traditional, including Fiber Channel and Ethernet encapsulation techniques, thereby reducing latency and increasing IOPs between host and target storage devices. The NVMe over Fiber Channel (FC-NVMe) works with flash memory to ensure performance and low latency while preserving the additional reliability and performance of the Fiber Channel network.
Running NVMe on a Fiber Channel network machine can extend the benefits of flash memory, keeping the flash memory simple and efficient while eliminating the need for conversion. This means that you can enjoy higher application performance, more data storage space, better analysis and more personalized information.
For many people, NVMe over Fabrics represents a low-latency, high-performance solution. Its main advantage is the ability to scale continuously without compromising performance.
Because NVMe over Fabrics offers low latency for all flash memory families, it is becoming an ideal solution for large enterprise and SAN infrastructures.Even if you are not ready to make a change today, you can also configure your sixth-generation Fiber Channel solution during the transition to NVMe.


Charge controller EPSolar PWM LS-EU Series
The LS-EU solar charge controller is a new member of the LandStar family and is ideal for small solar installations, especially household systems.
The LS-EU series also has a + 5V / 1.2 A USB port to charge e.g. mobile phones, fans and other electronic devices.
- Highly efficient PWM charging technology to increase battery life and improve solar yield
- Using MOSFET as an electronic switch, without mechanical switches or relays
- Intuitive LED indicators for battery voltage status
- 3 different battery types adjustable Gel, AGM or open lead acid battery
- Manual control of the consumer output possible
- Temperature compensation for optimal charging and discharging of the battery
- User-friendly, comfortable and easy to adjust
Electronic protection functions
- Overload protection
- Short circuit protection
- Battery deep discharge protection
- Battery reverse polarity protection


Based on the timing chart 2. September Students will learn how to apply the Canadian Electrical Code for industrial and commercial electrical system design. Students in this course will be introduced to C language computer programming for electronics. Students will focus on the application of control in the marine and industrial domains throughout the course using simulated environments. Computer software tools such as assemblers, compilers and IDEs are used for program design, implementation and testing.
Students will study the use of recurrence relations and generating functions in engineering problems, as well as engineering modeling with graphs, graph representation and traversal techniques, and their computational complexity. Students will learn to program microcontrollers in both assembly and C programming languages and practice simulation and code development techniques in an embedded environment. The students will be exposed to AC current analysis, power, transformers and 3 phase circuits. This course introduces systems concepts in communications. Lab activities include computer simulation of manufacturing processes and equipment. Students will study open and closed loop systems, a second order model for system responses, transfer function analysis, stability of control systems, PID controller design, gain and phase margins, and fuzzy control. Protocols, flow control, buffering and network security are covered.
Students will be introduced to techniques of signal and nomework analysis. Students focus on designing a complex embedded system and its implementation, and use computer software such as assemblers, compilers and emulators. This course introduces data structures lists, strings, stacks, queues, treesdata encapsulation, as well as algorithms for recursion, sorting and searching. Processing measurements using statistical methods are considered, as are safety issues.
September Students will be introduced to design techniques using object-oriented programming. This course introduces design and analysis of digital circuits – bases for all computer systems and virtually all other electronic systems in use today.
Restricted course Open to hmework who have met the Co-operative Education participation requirements. They will study digital signals, filtering homewor difference equations and convolution, z transforms, frequency responses, spectra, the design of FIR and IIR filters, discrete Fourier transforms and fast Fourier transforms, DSP hardware and applications. Students will be introduced to the Linux operating system for the Raspberry Pi.
ECET Week 3 iLab Designing Adders and Subtractors – Online Homework Help
This course introduces microprocessor interfacing to peripheral devices. Students will use complex numbers and phasor diagrams to analyze AC circuits.
They will also examine design methodology for the various materials and equipment used in the manufacture of electronic products. Students will learn how to apply power control devices and develop skills such as soldering and terminal crimping.
ECET – Electronics and Computer Engineering – Course descriptions – Camosun College
Students will be provided with an introduction to digital technology, using discrete logic gates and advanced programmable logic devices. To design a Gray cod Students use development and analysis software and instrumentation for circuit verification.
In the lab, students model systems presented in case studies involving alternative energy deployment, biomedical technologies and industrial process controls.
September Students will program, interface, and troubleshoot real-world processes using a PLC. This course provides an overview of processes and equipment employed in a typical semiconductor manufacturing environment.
Electronics and Computer Engineering
Students will be introduced to concepts of circuit analysis in passive DC and AC circuits. Students will study device characteristics and behaviour and learn how to analyze, design, modify and combine them to perform complex functions. They will also cover communication with embedded devices such as the Netduino or other ARM microcontroller platforms. This course examines conservation laws of mass, eect, charge and momentum.
Test a 74LS74 D flip-flop and compare against predictions. Students will have an opportunity to explore the many diverse careers available in the networking, electronics and computer engineering industry. Write the Boolean equations for each of the following codes if an active-LOW decoder output is required: Applications of the microprocessor as a computing element used with storage devices and embedded controllers are covered.
They will learn software problem specification, algorithm development, program development, debugging and homswork. September Students will be introduced to the fundamentals of AC and DC electrical motors, generators, electrical voltage conversion and transmission. Assume that the register is initially cleared.
Students will learn how to analyze a requirement specification and break it down into a modular design following both the Canadian Electrical Code and equipment manufacturing standards. When a HIGH is on the output of the decoding circuit below, what is the binary code appearing on the inputs? This course homewoork the product development cycle from initial concept through final product. Then using the eSOC board, I will Sketch the Q output for the waveforms shown.
Students will complete a project that tries to simulate the workplace environment.


Super small, light and simple design
Half size of a normal business card, and super lightweight with 27g (45g for two) makes it perfect to carry it anywhere and anytime.
Award winning design
Winner of reddot award 2020 which is designed to fit anywhere
Powerful sanitization in just three minutes with UV-C LED lamp
UV-C is short ultraviolet light in the range of 200~280nm. It is a healthy light that destroys DNA and sanitizes 99.9% of various bacteria and germs.
Attach on wall with magnet!
Magnet inserted at the back of the toothbrush sanitizer lets it attach on flat iron-based wall. Spare magnet attached in a box can also be used to attach the sanitizer anywhere. ※ Toothbrush sanitizer for two has a detachable holder at the back to stick it on any surface
Simple charging without battery replacement
USB 5-pin cable allows battery charges without battery replacement. Guaranteed for lasting a month by single charge . Only takes two hours to be fully charged (based on using two times a day)


Manufacturers increasingly require machine builders to furnish them with digital twins for use in virtual factory acceptance tests. By harnessing digital twin technology in their design processes and practices, machine builders not only meet their clients’ demands, they also increase their productivity, and that of their clients, in other important ways.
“With a comprehensive digital twin solution and virtual commissioning, manufacturers can reduce costs and time to market. They can create 3D CAD models of machines that simulate the machine’s real behavior, with the simulations controlled by a virtual PLC. Thanks to these tools, mechanical, electrical and automation engineers can work collaboratively to increase first-time quality,” said Colm Gavin, portfolio development manager, Siemens Digital Industries Software.
Gavin was speaking as a presenter on a recent CFE Media & Technology webcast sponsored by Siemens. As outlined in the webcast, additional benefits of digital twin technology are listed on the next page.


OS X Mavericks introduced a new tab in Activity Monitor: Energy. The nice thing about this new pane is that it includes an average. If you run on battery a lot, and are looking for ways to maximize your battery life, this gives you instant insight into the power hogs on your system:
I'm definitely not going to kill Chrome or Propane, but it's interesting to notice that the simple Little Snitch Network Monitor is using so much battery, compared to Evernote for example (which is also running all the time). A quick change of settings and you get an instant battery win:
Looking at this section regularly, I was able to tweak the settings of a few applications (I'm looking at you Crashplan) and got a noticeable improvement in overall battery life. I've also been enjoying FruitJuice, which tells you when to plug and when to use the battery.
So if you are running Mavericks and looking for ways to maximize your time away from an outlet, take a look at Activity Monitor: it's fast and easy.
That's it for today, cheers!


Robotics is the branch of Mechanical Engineering, Electrical Engineering, Computer Science and Mathematics that deals with the design, construction, operation, and application of robots. In this professional course, we are focusing children aged 4-13 years to learn based on their age group. We are enlightening them about the basics of robotic assemble, principles of electrical and electronic structure. Children can build and program many different functional robots. Robotics for Kids uses fun, hands-on projects to get your child’s creative juices flowing. Your child will learn how to build and program robots with LEGO bricks and software, all while making friends, developing new skills and having a great time with STEM. For many kids, robotics class is a highlight of their week.
We have several kid’s robotics programs available to fully engage and challenge your aspiring engineer, computer programmer or scientist. A great way to learn STEM!!!!
How we teach kids robotics each week:
In each Robotics for Kids class, your child and a buddy work together to plan and build a new robot using LEGO bricks, letting their creativity and imaginations loose. Along the way, they learn science and engineering concepts, such as how pulleys, levers and motors work.
As the kids’ robots take shape, they experiment with LEGO. They discover how to apply computer programming concepts and find new ways to get their “bot” moving.
Then, the energy levels (and smiles) really reach a high point, as the kids challenge other teams to friendly match or take part in imaginative play.
At the end of each robotics class, your child enjoys a wrap-up activity to reinforce the STEM skills he or she learned in class.
Few reasons your child will love Robotics for Kids:
Founded in 2000 by Ph.D doctors of Engineering from Seoul National University in Seoul, South Korea, RoboRobo strives to study and develop educational robot courses and tools from elementary schools to universities in a global scale.
RoboRobo strives to promote the science education incorporating STEM education with creativity of students. RoboRobo education system includes sensor, electronics, and machinery and computer technology education and equips intelligence to robots using computer programs. RoboRobo intends to make every endeavor to establish true STEM education at the standpoint of educators and cultivate all students to grow up with scientific talents who are equipped with the capabilities to obtain new aspect of challenging the world.
RoboRobo continues to equip students with the capabilities to obtain new results by developing their own areas through creative thinking abilities, logical and scientific problem-solving abilities, inspiring students to challenge 21st century.
RoboRobo’s focus on STEM education incorporates students’ Scientific, Technological, Engineering, and Mathematical aspects of learning.
ROGIC PROGRAM AND SMART ROGIC:
SMART ROGIC BLUETOOTH CONTROL:
A. ROBO KIT EDUCATION:
EDUCATIONAL ROBO KITS:
Robot Kits are designed for children 8 and up. Thoughtfully created to develop skills and knowledge in robotics. Each kit contains a CPU, DC Motors, Sensors and much more to have students build their own robots with bolts and nuts. Programming of the robot is done with a Rogic Program, which is developed in a GUI environment for easy understanding and enjoyment. The Rogic Program is available on PC, as well as Smartphone and Tablets in Android and iOS. With so many options students can continue their programming excitements everywhere they go.
ROBO KIT SERIES:
Consists of six different levels:
Instead of simple assemblies, Robo Kit Series incorporates science focused on safe circuits and modules, activating students’ brains through hands-on robot building. It can be easily disassembled with a screwdriver.
Robo Kit is designed to build upon previous levels students have learned to move on to the next stage of programming. Our curriculum is designed with real pictures for easy understanding and assembly, as well as step by step guidance of programming. Students are also asked to review their own work, so as to encourage their self-esteem and problem-solving skills.
Students can understand complex programming within the GUI environment in the Rogic Program. It is designed with a flowchart concept, which builds in-depth logical thinking and math skills. The Rogic Program will help to control everything from simple functions to complex functions. It also introduces the C-Language, which leads to more professional and technical details of the programming.
ROBO KIT 1:
Robo Kit 1 is a beginner course of the Robo Kit series, designed to help students learn the basic knowledge of assembling robots, as well as principles of electricity and electronic structure, all in process of making their first robot. Using simply a driver and nuts and bolts, students will have opportunities to build their own robots from scratch. Likewise, Students also can learn about various types of components, such as LEDs, buzzers, DC motors and the basic function of sensors. Besides assembling, students will also be introduced to the GUI Rogic Program. Students will learn easy programming processes and understand concepts of coding and various movements through Rogic Program with PC, Smart Phone, or Tablet.
ROBO KIT 2:
Robo Kit 2 includes Upgrade Kit 1-2, which allows upgrade from Robo Kit 1. This course introduces more complicated programming of robots with additional parts. Robo Kit 2 includes Servomotors and IR sensors, which introduce more movement and sensibility, limited only by the student's own creativity. Each of the robots includes the ability to program new chips in Rogic Program. Students will find it fun to see more complex programming.
ROBO KIT 3:
Robo Kit 3 includes Upgrade Kit 2-3, which allows upgrade from Robo Kit 2. At this level, students will be introduced to a high speed DC motor along with more sensors. In this course, students can coordinate fancy robots with accessories to compete in class or at home.
ROBO KIT 4:
Robo Kit 4 includes Upgrade Kit 3-4, which allows upgrade from Robo Kit 3. In this course, students will be introduced to assembly and driving of a more complicated structure by using the interface board, which supports longer power. With extra servomotors and parts, students can also program more complex and exciting motions for the robot. Robo Kit 4 includes more missions in each chapter as well as more complex programming through Rogic.
ROBO KIT 5:
Robo Kit 5 includes Upgrade Kit 4-5, which allows upgrade from Robo Kit 4. In this course, students will be introduced Bluetooth technology. The Bluetooth module will help wireless communication in a short distance between robot and students. Students will learn the difference between IR communication and Bluetooth. Using Bluetooth Chip in the Rogic Program, Students will be able to control their own robot from distance.
ROBO KIT 6:
Robo Kit 6 includes Upgrade Kit 5-6, which allows upgrade from Robo Kit 5. In this course, students will use all previous programming skills and parts at a professional level. Students can study a more complicated program that is necessary to control the robot in-depth. More accessories will help to create more robust robots and allow students to compete with family and friends to see which robot has more programs to complete their missions first.
B. KIDS EDUCATION
EDUCATIONAL ROBO KIDS
Robo Kids are designed for children 5 to 7, thoughtfully created to help younger children understand robot technology. Each kit is based on the useful and various assembly blocks that contain special circuits such as CPUs, contact sensors, and IR sensor blocks. Programming of the robots is done with a card-reader system called "Funny Cards." Robo Kids is specially developed to foster their creativity and activate their brain by assembling robots.
ROBO KIDS SERIES
All the parts consist of blocks, which are easy to assemble. Blocks contain special circuits for robotic movements. By using simple cable connections and buttons, you can move your own robots. Each chapter includes a lesson goal with a story to understand robotics. Students will understand how to program their own robots and create their own ways to control them.
Funny Card Program: Easy Programming Cards that are barcoded will help students program their own robots through a Card-Reader system without needing a computer!
Fun Programming: By using the Funny Cards, students can easily program their robots. Simply choose the movement of cards and swipe through card-reader system!
ROBO KID 1:
Robo Kids 1 is designed to help students with easy understanding of basic knowledge of robots. Robo Kids can learn basic understanding of robotics and build skills through assembling parts in blocks. Blocks contain special circuits that will help students to create movement through Card-reader system with funny cards. Each Robot will have three to four different cards to operate special movements by swiping a card through the Card-reader system. Robo Kids will help young children to enjoy assembling blocks while easily programming without computer.
ROBO KID 2:
Robo Kids 2 in bring more in-depth learning of Robots by assembling complicated sensors and special circuit blocks. Through the Card-reader system and the wired remote control, Robo Kids 2, will help deepen children’s creativity. Children can make more complicated robots with various types of sensors and blocks available. This system will allow students to create various robots and build logical thinking and understand operation without needing computer programming skills.
C. ELECTRONIC EDUCATION
Electronic Kit provides education with entertainment, which students will learn about complex electronic fundamentals just like playing with blocks it is expandable with the use of different circuit boards, which will increase the systematic learning experience of electronics. The Electronic Kit is designed to be flexible on age, skills and time, Principles of electronics will lead to a further understanding of studies as well as a problem-solving ability. The fundamental story of robots to problem-solving steps will help students to expand their knowledge and creativity.
Previous Circuit Studies:
Previous education in electronics was based on the Breadboard, which was a complicated process of connecting several circuit parts...
RoboRobo Circuit Studies:
Using the circuit blocks, connection between circuits is easy to understand. Student’s approach to electronics education is made fun and easy through step by step practice.
ANIMAL KIT SERIES:
Animal Kit is designed for students to learn about robotics without any programming. Each kit can be transformed into four different shapes of animals. It is suitable for beginners and parts can be easily assembled with bolts, nuts, and animal stickers.
Animal bot uses the bilateral-axle DC motor, so it can walk around you! Be the first one to find out how to move the legs and decorate its face with cute animal stickers!
Upgrade kit is designed for flexibility of students who already have Animal Kit 1 to move on to the next level. Upgrade Kit consists of additional parts that are required in the next level of Animal Kit series. Currently, Animal Kit upgrades are 1-2.
Copyright 2023. IDEAL WAY EDUCATION. All rights reserved.


The Tesla Powerwall, a sleek, wall-mounted battery system used to power your residential space, could be a good option if you want to get away from traditional energy sources. This beginner’s guide will explore the steps to add Tesla Powerwall to your home and gain energy independence.
- Evaluate Your Energy Needs. The first step in going off the grid with Tesla Powerwall is to evaluate your energy needs. At 3 Guys Solar, LLC, we’re certified Tesla installers. Our team of professionals will determine how much energy your residence consumes and assess your current energy sources. This step will help decide how many Tesla Powerwalls you need to power your home.
- Install Solar Panels. To use a Tesla Powerwall most efficiently, you must install solar panels on the rooftop or in an open area with access to sunlight. Solar panels capture energy from the sun and store it in the Tesla Powerwall.
- Tesla Powerwall Installation. Once your solar panels are installed, the Tesla Powerwall can be installed indoors or outdoors.
- Connect Your Powerwall to Your Residential Electrical System. A licensed electrician must connect your Tesla Powerwall to your electrical system. Once connected, the Tesla Powerwall will automatically switch your power source from the traditional grid to the stored energy in the Powerwall.
- Watch Your Energy Usage. Monitoring your energy usage is essential to ensure you consume less energy than your solar panels and the Tesla Powerwall generates and stores. Tesla’s mobile app allows you to track your energy usage and battery level in real-time, making it easy to adjust your energy consumption.
Going off the grid with a Tesla Powerwall promotes sustainability, reduces energy costs, and increases energy independence. To find out more about Tesla Powerwalls, contact us.


IoT WORLD2015 CONFERENCE HITS THE CLOUDS
NOT CONNECTED = NOT RELEVANT!
The IoT has the power to reach a very wide consumer base and delve deeply into enterprise use, while bringing up more questions than answers. A hive of seemingly contradictory developments, the IoT around us represents a combination of the ad-hoc with the deliberately structured.
Only a few accurately know what that role of IoT will be, or have a realistic estimation of the size of the opportunity. We can look at technology presented at World 2015 in two extremes: either as a paranoid or a polyanna. We either love or hate a new technology and it´s clear that we need to find that middle ground. IoT turns people into idealistic visionaries or doom and gloom naysayers. We have to take reasonable steps and move forward.
Currently available "things“with internet capabilities include wearables, smart thermostats, and connected cars, among others. But the market is preparing for an onslaught of similar products for both consumers and businesses. Based on IoT World 2015, we will start to see swarms but they will all be siloed products from a single company mostly because it´s the easiest thing to do, the worlds of devices vs swarms is very different.
For example let´s look at fitness trackers, one example of a major hurdle that enterprise IoT devices must leap: simplicity despite complexity. Such wearables need to offer the user a practical yet appealing interface, monitor health conditions of the user, reliably store or relay data to necessary parties. Though most patients are ready for wearable devices that sync with medical software. the IoT industry has yet to fully break into mainstream enterprise usage. Wearables in healthcare are “certainly going to be a major area of development over the next few years“ says Gavin Whitechurch founder of IoT World.
“The ways consumers can use technology nowadays in all areas and aspect of their lives is very exciting “ says Samsung Electronics President Joung Sohn. Focusing in on the ability to help people for example save energy, very relevant especially in Europe, one of the many ways of making a real difference in people´s homes and lives.
Samsung´s smallest module in the series, ARTIK 1 for example (just 12mm by 12mm) intended for use in wearables and end nodes, includes a 9-axis motion sensor and Bluetooth low energy connectivity. Samsung claims it can run for one week on a single charge. The largest board, the ARTIK 10, has an eight-processor chip, 32 gigabytes of storage, and can handle video encoding and playback. ARTIK´s users already include Boogio, which makes sensors for shoes, and Weenat, which helps farmers monitor their fields.
The important issues related to the IoT are reducing complexity, whether of the devices themselves, or the software platforms and communications methods they use, creating strong user experiences, and ensuring that devices work together in a smooth manner. Everyone wants, and is likely very hard, an open system where everything can work together. That is likely going to take a while to pull together.
It seems that given the progress IoT has already made, it´s not a matter of if these obstacles will be overcome“” but when.
more information: https://www.ambassadorialroundtable.org


Course Date: May 4 – May 13, 2016
Deadline: January 25, 2016 | 2016 Application Coming Soon
2015 Schedule (PDF format)
A comprehensive and intensive course in light microscopy for researchers in biology, medicine, and material sciences. This course provides a systematic and in-depth examination of the theory of image formation and application of video and digital methods for exploring subtle interactions between light and the specimen. This course emphasizes the quantitative issues that are critical to the proper interpretation of images obtained with modern wide-field and confocal microscopes. This course is limited to 32 students.
Laboratory exercises, demonstrations, and discussions include: (1) geometrical and physical optics of microscope image formation including Abbe’s theory of the microscope and Fourier optics; (2) interaction of light and matter; (3) phase contrast polarization and interference microscopy for the nondestructive analysis of molecular and fine-structural organization in living cells; (4) fluorescence microscopy, quantification of fluorescence, and GFP; (5) principles and application of digital video imaging, recording, analysis, and display; (6) digital image processing and quantitative digital image deconvolution; (7) ratiometric measurement of intracellular ion concentrations; (8) confocal microscopy; and (9) new advances in light microscopy such as FRET, FLIM, TIRF, and patterned illumination.
The program is designed primarily for: (1) university faculty, professional researchers, postdoctoral fellows, and advanced graduate students in the life sciences who wish to expand their experience in microscopy and to understand the quantitative issues associated with analysis of data obtained with optical microscopes; (2) individuals well-grounded in the physical sciences, who wish to exploit microscopy techniques for analyzing dynamic fine-structural and chemical changes; and (3) industrial scientists and engineers interested in advancing the design of equipment and techniques involving video and digital microscopy.
Lectures are followed by small group laboratory sessions and demonstrations. As a result, students will have opportunities for extensive hands-on experience with state-of-the-art optical, electronic, and digital imaging equipment guided by an experienced staff from universities and industry.
Partial support is provided by:
Howard Hughes Medical Institute
2014 Course Faculty & Lecturers:
Allen, John, Florida State University
Cameron, Lisa, Dana-Farber Cancer Institute (Harvard Medical School)
Hodgson, Louis, Albert Einstein College of Medicine
Jaqaman, Khuloud, UT Southwestern Medical Center
Kumar, Abhishek, Yale University School of Medicine
Maddox, Paul, University of North Carolina, Chapel Hill
Murray, John, University of Pennsylvania
Oldenbourg, Rudolf, Marine Biological Laboratory
Ross, Jennifer, University of Massachusetts Amherst
Rottenfusser, Rudolf, Carl Zeiss MicroImaging LLC
Salmon, Edward (Ted), University of North Carolina, Chapel Hill
Simon, Sanford, The Rockefeller University
Sluder, Greenfield, University of Massachusetts Medical School
So, Peter, Massachusetts Institute of Technology
Sochacki, Kem, National Institutes of Health
Tam, Jenny, Massachusetts General Hospital
Tani, Tomomi, Marine Biological Laboratory
Williams, Elizabeth, The Rockefeller University
York, Andrew, National Institutes of Health


AUTHORS: Azam Beg, Chandanna Withana, and Faheem Ahmed
PUBLICATION/VENUE: IEEE Conference on Innovative Technologies in Intelligent Systems & Industrial Applications (CITISIA 2009), Jul 2009, pp. 61-65.
Groups of code basic blocks have been employed in the past as software-related input parameters of processor models. In this paper, we use different block group variations to study their relationship to the execution efficiency of a superscalar processor. For this purpose, we utilized frequencies of blocks to represent dynamic nature of 10 benchmark programs. We were able to get a reduced set of hardware and software parameters by employing correlation coefficients and principal component analysis.
CITATIONS: Google | Yahoo


Laser CO2 Synrad pulsé Firestar ti100 W
Voir ce laser avec accès aux pdf sur Synrad ti100p
The firestar ti100 pulse features:
|Synrad continues its 30 year tradition of providing the best in industrial laser solutions with the introduction of the firestar ti100p pulsed laser.
The ti100p is a pulsed laser design based on the high-performance ti100 platform and delivers over 300 watts of peak pulse power with 100+ watts of average output power.
Like our other ti-Series lasers, the ti100p is lighter and more compact than competing lasers and with its fully integrated RF design the ti100p easily installs into any type of motion system without the added weight of external RF power supplies and cables. In addition, lower weight translates into lower inertia which is important when the laser is mounted on a gantry or robotic actuator.
The ti100p has the same familiar LED indicators and I/O interface found on all ti-Series lasers and also shares common mounting and beam exit dimensions. In addition, all ti100p lasers feature a factory-installed 4X beam expander. In harsh operating environments, a larger output beam reduces the potential for developing hot spots that can damage exposed optical surfaces.
The ti100p is available in 9.3 µm, 10.2 µm, and 10.6 µm wavelengths. See the ti100p data sheet or below for specifications
Produits dans la même catégorie
Laser CO2 Synrad pulsé, série Pulsar 400 W
Voir ce laser avec accès aux pdf sur Synrad p400 Synrad proudly introduces the newest addition to highly acclaimed Pulstar pulsed laser family. The p400 addresses customer needs for a larger pulsed laser for greater versatility, faster processing speeds, and exceptional beam quality combined with high average power and high peak power for superior cut edge […]


Techsphere Odyssey Unveiled In the ever-evolving realm of technology, where innovation is the guiding star, a groundbreaking revelation has recently taken center stage – the Techsphere Odyssey Unveiled. This extraordinary development has sent ripples through the tech community, promising a future that transcends our current understanding of technological possibilities.
The Genesis of Techsphere Odyssey
To comprehend the significance of this unveiling, let’s delve into the genesis of the Techsphere Odyssey. Emerging from the minds of visionary engineers and tech enthusiasts, the Odyssey represents a paradigm shift in the way we perceive and interact with technology.
A Symphony of Hardware and Software
At its core, the Techsphere Odyssey is a harmonious blend of cutting-edge hardware and sophisticated software. The fusion of these elements creates a technological symphony that promises to redefine our digital experience. Imagine a seamless integration of hardware capabilities and software intelligence, working in tandem to unlock new dimensions of user interaction.
Key Features that Define the Odyssey Experience
1. Immersive Interface Redefined
The Odyssey boasts an immersive interface that transcends the boundaries of conventional user experiences. With state-of-the-art display technology and responsive touch interfaces, users are transported into a realm where the digital and physical seamlessly converge. The term ‘user interface’ takes on a whole new meaning as the Odyssey responds to gestures and commands with unparalleled accuracy.
2. Next-Level AI Integration
Artificial Intelligence (AI) is not just a buzzword; it’s the backbone of the Techsphere Odyssey. The unveiling showcases a level of AI integration that surpasses expectations. From intelligent voice assistants to predictive algorithms that anticipate user needs, the Odyssey adapts and learns, creating a personalized and intuitive tech environment.
3. Quantum Leap in Processing Power
One cannot discuss the Techsphere Odyssey without acknowledging its quantum leap in processing power. The unveiling ceremony showcased the prowess of its processors, capable of handling complex computations and tasks with lightning speed. This leap is not merely incremental; it’s a giant stride toward a future where computing barriers are shattered.
4. Revolutionary Design Aesthetics
In the world of Techsphere Odyssey, aesthetics meet functionality in a dance of innovation. The device’s design is not merely an afterthought; it’s a testament to the commitment to creating a product that seamlessly integrates into the user’s lifestyle. Sleek, ergonomic, and visually stunning, the Odyssey is a masterpiece of design ingenuity.
5. Eco-Friendly Technological Marvel
Tech innovation meets environmental consciousness in the Odyssey. The creators have taken a bold step towards sustainability by incorporating eco-friendly materials and energy-efficient components. In an era where environmental impact is a crucial consideration, the Techsphere Odyssey sets a commendable standard for responsible tech manufacturing.
Unveiling Event Highlights
The grand unveiling event was a spectacle that left attendees in awe, as the Techsphere Odyssey took center stage amidst a symphony of lights and futuristic visuals. Here are some highlights from the unforgettable event:
Keynote Address: Visionaries Speak
The unveiling commenced with a keynote address by the visionaries behind Techsphere Odyssey. Their impassioned speech outlined the journey, challenges, and triumphs that culminated in the creation of this technological marvel. It was a glimpse into the minds that dared to dream beyond the ordinary.
Live Demonstrations: Odyssey in Action
What truly set the unveiling event apart were the live demonstrations showcasing the Odyssey in action. Attendees witnessed the device seamlessly navigating through complex tasks, responding to voice commands, and adapting to user preferences in real-time. The live demos left no room for skepticism; the Techsphere Odyssey was as impressive in action as it was on paper.
Panel Discussions: Future Tech Discourse
To add depth to the unveiling event, panel discussions were organized, featuring experts from various tech domains. The discourse revolved around the implications of Techsphere Odyssey on future technological landscapes, its potential impact on industries, and the ethical considerations that accompany such leaps in innovation.
Industry Reactions and Anticipated Impact
As news of the Techsphere Odyssey Unveiled spread like wildfire, the tech industry and beyond couldn’t help but react to this monumental revelation.
Industry Leaders Applaud Innovation
Prominent figures in the tech industry took to social media to express their admiration for the Techsphere Odyssey. Citing its groundbreaking features, industry leaders lauded the Odyssey as a game-changer that would shape the trajectory of technological advancement in the coming years.
Anticipated Impact on Consumer Electronics
Consumers are the ultimate judges of technological success, and early indications suggest that the Odyssey has struck a chord with tech enthusiasts. Anticipation is building as consumers eagerly await the commercial release, eager to get their hands on a device that promises to redefine their digital experience.
Implications for Tech Education
The unveiling of the Techsphere Odyssey has also sparked discussions within the education sector. As the device introduces new standards in AI and user interaction, educators are contemplating how such advancements can be integrated into tech curricula to prepare the next generation for the evolving tech landscape.
Finish : Techsphere Odyssey Unveiled
Techsphere Odyssey Unveiled In conclusion, the unveiling of the Techsphere Odyssey marks a pivotal moment in the timeline of technological evolution. It is not merely a product release; it’s a statement that echoes through the corridors of innovation, challenging the status quo and inspiring a new era of possibilities.
As we eagerly await the commercial availability of the Techsphere Odyssey, one thing is certain – the Odyssey is not just a device; it’s a journey into the future, where technology becomes an integral and seamless part of our lives. Buckle up, tech enthusiasts, for the Odyssey has just begun, and the destination is nothing short of extraordinary.


Congratulations to our Biological Lab Manager Dr. Linoy Golani-Zaidie on the birth of her twin sons !!!Read more
A three-day symposium, "Infectious Disease Symposium: Innovative Approaches to Diagnostics and Research", was held at the Institute of Nanotechnology and Advanced Materials of Bar Ilan University on September 5-7th. The National Scientific Committee for the conference was comprised of four distinguished professors, including Prof. Amos Danielli from the Faculty of Engineering & the Institute of Nanotechnology and Advanced Materials at Bar Ilan University, Prof. Avi Peretz from Tzafon Medical Center & Azrieli Faculty of Medicine at Bar Ilan University, Prof. Yonat Shemer from Ben Gurion University of the Negev, and Prof. Eli Schwartz from Sheba Medical Center & Tel Aviv University.
Dozens of laboratory directors, virologists, Internal medicine physicians, infectious
diseases experts, clinical chemists, laboratory technologists, and biomedical engineers, participated in the conference and learned about early diagnosis and treatment of intrauterine infections, flaviviruses diagnosis, and challenges in the diagnosis of bacterial and parasitic infections, as well as detecting the emergence of the next disease X. Among the various presentations, Prof. Amos Danielli has given a talk about "Rapid and highly sensitive diagnosis of Zika, dengue, and West Nile viruses infection using Magnetic Modulation Biosensing technology". Also, as part of the program, the conference attendees were privileged to hear a lecture by our lab Ph.D. graduate, Dr. Michael Margulis, on "Saliva-based diagnosis of respiratory diseases".
As part of the Israeli-Vietnam scientific cooperation, our Vietnamese partners, Prof. Nguyen Vu Trung (MD. Ph.D.), the director of Pasteur Institute in Ho Chi Minh City, and Dr. Le Thi Hoi from Hanoi Medical University, visited at the Optical Imaging and Biosensing laboratory. Prof. Amos Danielii presented and discussed the medical research done in the lab with our distinguished guests.Read more
Prof. Danielli specializes in Electro-optics and Bio-photonics. After completing his Bachelor’s and Master’s degrees in the field of optical communication at Tel Aviv University, he worked in industry for eight years and then return to the Academy. During his studies for P.hD, he developed a new technology to rapidly detect fluorescent-labeled probes at very low concentrations in homogenous solutions and continued developing it during his post-doctoral studies in Washington University, St. Louis.
In 2014, he has returned to Israel and joined the faculty of Engineering at Bar Ilan University.
During his stay in the US, he founded a company that commercializes this technology, and established connections with key figures in the fields of medical laboratory and diagnostics, and especially among troponin and heart attack specialists.
We are always happy to hear from postdocs and students at all levels (BSc., MSc. and PhD.) with various backgrounds (mathematics, engineering, physics, biology) who are interested by the kind of research we are doing. send an email to firstname.lastname@example.org


GTiMA to Attend SPAR 3D Expo & Conference
Location: Houston, TX | Date: March 27, 2017
Ray Mandli, GTiMA board member and President of Mandli Communications, along with Steve Caya, fellow GTiMA board member and Head of Production at Mandli Communications, will attend the upcoming SPAR 3D Expo & Conference, which is billed as the premier international event for the application of 3D technology and industry, this April.
Ray Mandli will be one of the speakers at the conference, presenting “New Approach to 3D Modeling: NCAA Division I Cross Country Course” during the “Unique Applications” forum.
“We’re looking forward to showcasing what we’ve done with LiDAR,” Mandli said. “With new technology, you’ve got to get creative, and that’s what we did in assisting the University of Wisconsin in their bid to host the NCAA Cross Country championship run.”
“LiDAR’s precision allowed us to create a map of the course that is truly innovative,” Caya added. “And it could enable people to watch the race virtually, turning cross country into a spectator sport.”
In addition to Mandli’s presentation, the group will have an exhibit at the expo. They’ll be setting up shop at booth 705. “We’re looking forward to interfacing with other people in the industry,” Mandli said. “We have a great team and a multifaceted approach to LiDAR-based mapping, and we think 3D buffs are going to be very interested in what we’ve been doing.”
Since 2004, SPAR 3D has been showcasing best-in-class professional 3D products, from input to output technologies. Conference content covers 3D sensing, 3D processing and 3D visualization tools that are changing the landscape of how assets are managed, projects are pitched, and designs are created. As the global leader in 3D technology, SPAR 3D brings together the top hardware, software, and visualization solutions providers from across the globe under one roof for three action-packed days of education, exhibits and live demonstrations. Technologies explored include 3D devices from close and long range cameras, sensors and scanners to VR and 3D visualization and printing technologies.
The Geospatial Transportation Information Management Association (GTiMA) works to promote sustainable economic growth by improving the management of transportation systems. In concert with its membership and industry partners, GTiMA develops and sponsors industry standards, best practices and legislative policies that advance the selection and use of geospatial transportation mapping technology in three key areas: smart grid solutions, autonomous vehicle solutions, and smart city solutions.


Today’s households hold convenience as a priority. Trane’s line of programmable thermostats put you in control, giving you the temperature you want at the time you want it. You’ll also save money by programming your thermostat to change temperatures while you are away each day, in addition to choosing a wall unit that doesn’t distract from your home décor.
Trane ComfortLink™ II Control—Award-Winning Technology
In 2010, Popular Mechanics gave this programmable thermostat its Breakthrough Award, citing it as one of “The Year’s Most Transformative Products.” Its high-definition, 7-inch color display makes it stand out from the crowd, providing an easy-to-understand interface that will help you take control of your home’s system and automate your life.
The ComfortLink™ II gives you control areas of your house, allowing you to change the temperature downstairs from upstairs and vice versa, saving trips and saving electricity. Imagine being able to keep the upstairs at a completely different temperature than upstairs. This not only accounts for the varying comfort levels of family members, but it allows households with unused areas to keep those areas cooler in the winter and warmer in the summer, providing savings on electric bills.
With the ComfortLink™ II, you can customize your screens, as well, making your system look as you desire. Included with this model is a five-day weather forecast screen for your convenience. This forecast includes radar views, as well as weather alerts, using your wireless network to transmit the data to your thermostat. The ComfortLink™ II will also give alerts when your air filter needs to be changed or cleaned, as well as when maintenance is required.
The ComfortLink™ II’s easy-to-use scheduling allows you to easily set your thermostat to change temperatures after you leave for the day and cut back on an hour or two before you return home, saving energy while you’re away for the day or even out of town. This model also has remote access, allowing you to control your system from anywhere using an Internet connection or even your smart phone.
Trane ComfortLink™ Remote Thermostat—Access from Anywhere
Today’s consumer has grown accustomed to being able to do everything from one place—a cell phone. The Trane ComfortLink™ allows you to change the temperature in your house no matter where you are. As long as your phone can get to the Internet, you can adjust your thermostat, as well as check the status of any Z Wave® appliances you have. Thanks to ComfortLink’s™ weather feature, you can also use your smart phone to check the five-day forecast wherever you are.
To provide remote access, Trane has partnered with Schlage LiNK™, a respected provider of home security products. This access does require a small monthly subscription, but you’ll receive a six-month trial upon purchase of your thermostat that you’re free to cancel if remote access isn’t for you. You’ll also need a web-enabled cell phone with Internet access to log into your system from your phone, as well as having text enabled to receive alerts from your system.
The ComfortLink™ also sends notifications to your phone, letting you know when your system needs serviced. Any system alarms will also be sent to your phone, as well.
XL900 Digital Thermostat—Technology Equals Convenience
Imagine being able to turn the heat in your house down to fifty degrees when you leave for work, only to have it cut back up to seventy an hour before you get home. Programmable thermostats can help reduce energy use by up to 15 percent, according to Trane. The XL900 has a programmable thermostat that will allow you to determine what your HVAC will do.
The XL900 also can include the Telephone Access Module, an add-on, allowing you to control your unit remotely from your phone. The XL900 includes ComfortLink™, which has each of your unit’s parts speaking to each other, keeping your system working at optimum capacity.
The XL900 includes additional convenience features, as well, with a humidity sensor, as well as dehumidification control. The fan is programmable, as well, and the keypad allows you to program seven days of temperature control.
5/2 Programmable Thermostat—Different Schedules for Weekends and Weekdays
Most people have set schedules five days of the week, with two special days of rest. The Trane 5/2 thermostat addresses those changes, allowing users to program differently for weekends. With easy-to-learn programming, the 5/2 thermostat allows you to see the temperature inside your house and adjust it without having to switch screens.
The 5/2 programmable thermostat remembers your settings, keeping you from having to enter tem again. Even if there is a power interruption, you need not worry about resetting your schedule. The 5/2 thermostat remembers your settings.
Non-Programmable Thermostat—Simple System Control
Some people just want a thermostat. For those consumers, Trane has non-programmable thermostats for simple system control. Trane’s non-programmable thermostats are a digital version of the old-fashioned wall thermostat, with temperature settings that are so straightforward, anyone can learn it.
Trane’s thermostats are completely electric, with no batteries required. They also remember your settings so even if your power goes out, you don’t have to reset everything. Each Trane non-programmable thermostat has three switches: heat, cool, and off. The auto on fan switch is also included in this thermostat. The digital display makes this thermostat easy to use and easy to read.
There are two series of the Trane non-programmable thermostat. The XR400 series has two models—both having a large backlit display and a reminder when your filter needs to be changed. Both also have automatic change from heat to air. The upper-level model of the XR400 series also includes an outdoor temperature sensor, plus an optional indoor remote sensor is available as an add-on.
The XR200 series of the Trane non-programmable thermostat has a key lock and a large backlit display. This model features 1 heat/1 cool stage.
With more than a century of experience in the HVAC business, Trane provides quality service and support on all of its products. Trane’s programmable thermostats come in a variety of models to match your household’s needs, making programming as complicated or as simple as you prefer.


QUEST PLUS LED HB
High-quality highbay with inbuilt LED source. The body is made of die-cast aluminium, powder coated in grey (RAL 9006), and the mounting bracket is made of black-painted steel. The diffuser is made of 5 mm thick tempered glass.
The luminaire is dedicated for surface or suspended installation (with chains) for both internal and external use. It is designed for industrial plants, production halls and large area warehouses.
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We use cameras without internal logic in our applications because we handle the logic on a PC, which provides access to greater computational power and processing capabilities. All “GigE Vision” cameras are compatible with our systems. However, we do consider cameras with internal logic for specific applications.
We have experience with linescan cameras, 3D cameras, and cameras with area sensors (standard). The choice of camera will depend on your application.
Inspection of tire lettering quality with over 100 types and 50+ patterns per type, barcode association, and SQL integration.
Inspection of position and authentication of numbers during tire engraving.
Inspection of needles at 800 images per second.
Inspection of web handling equipment — Vision and robotics
We have acquired specialized knowledge in inspecting and controlling web equipment by leveraging our expertise with linescan cameras, servomotors and real-time system programming. This particular application demands meticulous coordination and seamless interaction among different electrical and mechanical elements.
Please consider us if you have rotating parts that require inspection or if you have processes involving web handling, such as printing, textiles, paper, rubber, etc.
Control and inspection of rubber cutting at speeds exceeding 800mm/sec and 250 images/sec, with a cutting accuracy of +/- 0.3mm.
Inspection of web edges.
Axis control — Robotics
We have a strong experience with servo motors, and our first project (prototype) dating back to 2009 was a significant challenge. We designed a three-axis motion assembly for deburring metal tubes of various sizes. The motion control was custom-programmed on an FPGA, allowing the synchronization of the three axes to create custom-shaped deburring based on the tube type, in conjunction with a fourth axis.
Currently, we work with EtherCAT drives, but certain technological complexities may still require FPGA-level motion programming if necessary.
- 3-axis servo control deburring machine (metal industry).
Data acquisition and signal analysis tools are essential for the success of automation projects. They allow us to verify the robustness of our solutions, and using real and offline available data enables us to simulate machine behaviors. This phase of the project prepares and reduces the probability of problematic commissioning.
From a quality standpoint, data also allows us to verify the statistics of an inspection process and helps pinpoint problematic machines.
From a maintenance perspective, diagnosing complex machines can be challenging. Designing visualization tools enables simultaneous monitoring of multiple sensors based on a specific variable. Analyzing these signals helps detect anomalies, whether through human analysis or AI techniques.
Even if these data may seem abstract and unnecessary at the moment, it is recommended to retain them and seek the assistance of an expert to store them intelligently.
- Acquisition software for diagnosing complex machines in a tire factory.
- Control and inspection project for rubber on web handling equipment, including calculations.


Removing the Operating System Barrier with Platform as a Service
This session will cover the major advances of platform as a service technology, what's available in the OSS space to enable faster, easier, higher quality software development cycles in the cloud. The session will complete with a demo of PAAS technology in use, deploying a highly scalable, distributed & dispersed web application. This presentation will show why PAAS is the way of the future for application deployments. Enterprise, small business, and especially startups will want to learn more about the available PAAS OSS technology and also learn about what is coming in the near future. The presentation is setup to not only cover the immediate technologies of IAAS and SAAS in relation to PAAS but also real life examples of how PAAS gives a competitive advantage to any software development effort. I'll be using a presentation, asking the audience questions to involve them, and also some prospective video along with a real production style deployment of code to involve the audience.
Votes: 0 Score: 3.43


Mt Buller is Australia’s premier mountain resort, located only three hours from Melbourne in the heart of Victoria’s Alpine region. The mountain has the most accessible skiable terrain and excellent facilities.
The need for replacing the current server hardware has arisen due to the age of the current infrastructure and the need for a highly available environment. Some of the current servers have been operating on the network since late 2006 and a number of the hardware warranty contracts have expired.
With an ever-increasing need to provide improved performance and flexibility while reducing costs associated with providing network services to users, Grollo Group needed to make the transition to a new VMware virtual infrastructure. This new VMware infrastructure will allow Grollo Group to consolidate their server infrastructure to a smaller physical hardware footprint while providing higher availability of servers through VMware technologies.
The virtual environment consists of 2 x HP DL360 G10 VMware host servers set up in a high availability cluster. The virtual cluster is managed by vCenter which is running on a virtual machine on the cluster. The storage environment is running a StoreVirual virtual storage cluster group on 2 x HP P4330 StoreVirtual appliances. The network consists of 2 x Aruba 2930F stacked switches, each device is connected to both switches to prevent outages from the failure of a single device or connection. The network stack is connected to the core network by an LACP trunk.
All workloads and servers were migrated to the brand new SAN and VMware installation, consolidated their server infrastructure to a smaller physical hardware footprint while providing higher availability of servers to the business. This was achieved without any outages or disruptions to the business.
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Special Edition LaserFest Photon Plush Toy
These massless "quanta of light" come in three colors, red, green, and blue. Each photon color represents the wavelength of light produced by a specific type of laser. The first working laser used a synthetic ruby to produce red laser light at 624 nanometers wavelength. The Helium-Cadmium laser produces blue laser light at 442 nanometers wavelength, while the Copper vapor laser produces green laser light at 511 nanometers wavelength.


Starting version 0.8, you can emulate multiple devices/hosts with ARP/NDP and ping support. Streams can be configured to resolve their MAC addresses using ARP/NDP if corresponding device(s) are configured.
Before triggering stream transmit, invoke ARP/NDP resolution using the Resolve Neighbors button in the Statistics Window (see Statistic Window Actions). The agent will resolve all the Gateway IP addresses and all the destination IP addresses configured in each stream by sending a ARP/NDP request to the DUT. If ARP/NDP is not resolved (or failed),
00:00:00:00:00:00 will be used as the MAC address. You can check if all ARP/NDP are resolved in the Device Information pane.
In the reverse direction, if the DUT sends ARP/NDP request for any of the emulated device's IP address, the agent will reply back with a suitable ARP/NDP reply. Similarly, if the DUT sends a ping (IPv4 or IPv6) request, it would reply with a ping reply.
Instead of configuring each device individually, you configure a device group and specify the number of devices in the group. This makes it easy to configure multiple devices by configuring only a single device group.
To create a device group, first select the appropriate port in the ports list and then goto Devices | New Device Group (alternatively, click the Devices Tab and use the right-click context menu).
Prior to v1.2.0, device related menu items were under the File menu
To configure a device group's properties such as vlan, IP address etc, double-click the device group (or alternatively use the right-click context menu). You will be presented with the Device Configuration Dialog Box where you can configure the various attributes of the device group.
To delete a device group, select the device group(s) and then goto Devices | Delete Device Group (alternatively use the right-click context menu)
NOTE: Unlike streams, the order of device groups does not matter.
IMPORTANT: The controller sends device group configuration information to the agent only when you click the "Apply" button. So if you add/delete/edit device groups but forget to click "Apply", your changes won't be reflected.
To see how the configured device groups are expanded to multiple devices, see Device Information
Click on the Information radio button to see a list of expanded device groups with one device per row. This information is fetched from the agent, so make sure you click "Apply" if you don't see any information here.
Starting with version 1.0, this list also includes host devices. A host device represents the underlying host's network config for that port (Mac, IP, Gateway) - since this is retrieved from the OS, you don't need to configure a device group for it.
To view the ARP/NDP cache corresponding to each device, click on the ARP/NDP column corresponding to the device
Click on the Refresh button to fetch updated information from the agent. Note that this just fetches information and does not trigger ARP/NDP resolution.
To trigger ARP/NDP resolution, use the Resolve Neighbors button in the Statistics Window (see Statistic Window Actions)
A video tutorial is available -


Today, nuclear power plants are utilized to harness and generate heat and electricity that is produced by nuclear fission in a controlled environment. Learn what about an application for electric immersion heaters.
You may be asking yourself what all this fuss about nuclear fission is, right?
In simple words, nuclear fission is the disintegration of the nucleus of atoms into lose parts or components. Inside a nuclear reactor, the process of nuclear fission results to high amounts of thermal energy used to convert water to steam through heating. The steam turns a turbine contained in an electrical generator, and in the process, thermal energy is converted to electrical energy.
Nuclear energy today is viewed as a vital energy source with regard to its efficiency in electricity production. As a consumer, what does this mean?
Producing energy from nuclear power plants, be they fuelled with vanadium stocks or uranium, implies that systems within nuclear facilities need to be controlled through monitoring and adjusting parameters that are essential for nuclear fission. Important systems that help in the facilitation of nuclear fission processes are electric immersion heaters.
For many years, AccuTherm has been designing, engineering and manufacturing industrial heating systems and controls for nuclear power plants. An electric immersion heater is important for applications in pressurizers, since it is efficient and versatile in terms of size and design.
AccuTherm provides you a solution to meet your industrial heating needs. you may opt to have customized electric immersion heaters designed to suit your needs; and with the support of men and women behind AccuTherm, you are guaranteed to get the best solutions. With the ease of maintaining electric immersion heaters, your pressurizer’s life is increased significantly, reducing exposure to radiation on employees when replacing the pressurizer.
Electric immersion heaters are commonly inside pressurizers of pressurized water nuclear reactors for their reliability, efficiency, unique designs and versatility, as well as easy maintenance techniques. These electrical devices are not only important but also can be lifesaving in certain instances. It is therefore essential to ensure they are working at peak efficiency at all times. However, when they malfunction, it is time to call electrical contracting companies who are equipped with right knowledge of reparations. Residents and business owners based out of southern U.S. and Georgia in particular, could get more information (regarding electrical solution of this sort) from the likes of Kalahari Electrical services (https://kalahari-electrical.com/tucker/).
Talking about the construction of the immersion heaters, stainless steel is optimally used in the elements for designing and producing these electrical appliances. The design considerations and constant nuclear radiation, immersion heaters are manufactured to withstand high temperatures and pressure.
If you are thinking about heating solutions for your nuclear power plant needs or any AccuTherm product, AccuTherm is your esteemed partner. Professionals in the industrial heating industry will always serve you with respect.
For more details about electric immersion heaters designs or configuration parameters, contact us and one of AccuTherm technical consultants will get back to you.