Transient overvoltage protection

In electrical circuit engineering the main target is to provide the desired functionality of the product being developed. All engineers take a good care of side affects generated by the used elements themselves, such as heat problems are eliminated by good heat dissipation management, high frequency radiation like EMI or RFI , possible harmonic distortions are limited. However there are external affects that can significantly influence the lifetime of the electric circuit, such as overcurrent or overvoltage of the driving lines. Almost all electric boards should contain some elements, which - in normal circumstances - should be „invisible”, but being able to protect the circuit in case of unexpected events like high voltage transients. These transients are mainly caused by sudden load changes of connected circuits, power source fluctuations, electronic disturbances of coupled cables, switching events, lightning or ESD. This abstract is about discussing the possible circuit protections to suppress transient overvoltage with cost optimized solutions.

Over voltage protection with TVS devices

When the voltage of the input of an electric circuit or element raises above the level it is maximum rated at, it may be overstressing it depending on the overvoltage event’s duration, which can be a transient spike, or a permanent surge. These overvoltage events may be resulted by natural sources like lighting or human origin, like electrostatic discharge, switching of high inductive loads or operating circuits generating electromagnetic interference. Effective protection against overvoltage is essential task next to the functional design. Avalanche Breakdown Diodes (Transient Voltage Suppressor Diodes) from Protek Devices offer a great flexibility in circuit over-voltage protection, as available from 2.8V to 400 Volts, and power rating of from 80 Watts to 30 kWatts.

Effective over-voltage protection solutions for the high speed I/O ports

Electrostatic discharge (ESD) transients are potential threats to the I/O prots of electric circuits, which challenges designers to incorporate an adequate overvoltage protection. The applied soultion however must not have any affect to the operation under normal circumstances and must not decrease the data transmission rate. The possibilities of protection with TVSD devices against ESD caused over voltage have been detailed in the previous paper, this article is more about to give an overview of the application examples, industrial standards and dedicated protective solutions for the most often used communication ports, like USB, HDMI and Ethernet.

Current regulative diodes

There are a number of electronic equipments, which require stabile, regulated supply current. An effective solution could be provided by using Current Regulative Diodes (CRDs). There is a second naming in the technical literature being used: Current Limiting Diodes, that represents the same component. CRD is a special diode which provides constant current to an electric circuit, even when input voltage provided by the power supply or load impedance fluctuations occure. CRD is used for current stabilization and current limiting.

Li-ion batteries and their circuit protection solutions

Lithium-ion is one of the most popular rechargeable battery technology providing energy for today’s consumer applications. Its perfect energy density, not remarkable memory-effect, slow loss of charge in standby mode and the light weight makes Li-ion battery to be used for energy storage for many electric vehicles, especially to provide alternative solution for heavy lead acid batteries. In order to preserve the long cycle life, the very sensitive lithium cells should be protected against overcurrent and overtemperature conditions, that may be caused by short circuit of terminals, abusive charging or changing circuit failures. In this article we would like to make an overview about the lithium-ion technology via introducing a leading manufacturer EVE Battery’s line up as well as the possible circuit protection solutions from TE Circuit protection.

Overvoltage protection of indoor and outdoor luminaires

The LED based indoor and outdoor lighting technology is one of the most dynamically developing target area of electronic research and design. According to recent statements of LEDinside, Europe has a leading position with its 23% share in this sector. The most important task of developers - in addition to maximizing the available luminous intensity and efficiency-, is to achieve the longest lifetime with the most reliable design, which requires to take in account external environmental factors that have the strongest and most critical influence to durability. Crucial environmental values like ambient temperature, supply current and voltage should be kept in a certain safety range. This is the reason not to underestimate the necessity of designing in the proper circuit protection.

Primary lithium metal batteries from leading manufacturer EVE Battery

To find energizing solution for potable electronics devices is a challenge, it is definitively a serious consideration to select the right primary battery no matter if we design the device or we are the user of device. The disposable batteries available on the market today are manufactured in various form factors, and usually their chemical systems are completely different. The old carbon-zinc batteries have been replaced by well know alkaline batteries, and today the focus of engineers turn to the lithium batteries, that are lightweight, more durable and chargeable than everyday batteries. To support selection of lithium disposable batteries, we try to overview the technical possibilities, the technical features and suggested applications of the different types through the product range of the World leading lithium metal primary battery manufacturer EVE Energy.

SPC and ES energy storage systems – EVE Battery

Electronics devices which are designed for applications that require short term operation and stay long be in stand-by mode usually need huge energy impulse immediately after wake-up command. These can be emergency alarm systems, RFID transponders, GPS tracking devices, smart meters’ read-out electronics or the recently obliged E-CALL systems of passenger vehicles. A stabile voltage, low leakage current battery is required, that can pump huge momentary charge in a short time into the system. These requirements are often realized by integrating different super-capacitors, that have ten or even hundred times higher energy density than normal electrolytic capacitors, their charge and discharge times are also shorter, and tolerate much more cycles that e.g. rechargeable batteries. Supercap’s operation is usually based on electrostatic principle, however there are some special devices, like EVE Energy’s own patented SPC devices, that are featured by chemical working principle They usually do not operate alone, but as a part of one of EVE’s energy storage systems, which is in fact a special battery pack. This paper introduces the advantages of such system.

Load dump protection with PROTEK TVS diodes in automotive electronics

As in the previous paper about automotive overvoltage protection we described, automotive electronics is continuously developing features in order to enhance driving experience, which also challenges circuit protection manufacturers to follow the trends by introducing proper circuit protection solutions. Talking about standard bus systems, infotainment systems, LED based lighting systems and Advanced Driving Assistance systems, like park assist and collision avoidance are all getting more or less common in new cars. Mandatory safety enhancements such as TPMS are also made to increase reliance on electronic technologies within the automotive sector and therefore require dedicated attention from circuit protection point of view. We reviewed earlier the TVS based overvoltage solutions for the most common standard interfaces, in this paper we make a study about solution for one of the most massive overvoltage event, the so called load dump.

Overvoltage protection with PROTEK TVS diodes in automotive electronics

Automotive electronics is maybe the area of the automotive industry, which has developed the most in the last decades. It’s been almost 50 busy years since the first engine control unit (ECU) was placed in the car, and today there are dozens of microprocessor controlled systems in each vehicle. Car manufacturers keep on designing more and more IC based systems to provide enhanced features, which also challenge circuit protection manufacturers to follow the trends by introducing proper solutions to decrease servicing and warranty costs. Therefore, proper circuit protection is an important factor of any automotive design process.

The world's smallest transistor output optocoupler

Nowadays, it is exceptional when an electronic part distributor gets also involved in component development. However, Endrich Bauelemente GmbH has engaged in it shoulder to shoulder with an excellent manufacturer (CT Micro) not yet widely known. The developer society shows great expectation for stepping forward in the world of optocouplers despite of the silence in recent decades. The target was to develop the thinnest device ever made and it has been successfully achieved using the CT MICRO DoubleMolded CoPlanar( DMC™) technology. The technical parameters have been defined by Phoenyx Contact, a client of Endrich being a market leader in its own field. In addition to the small size the extremely low profile was the most important requirement, 25% lower than the 2 mm high MiniFlat (SOP) packaging and 60% lower than the most common 4PDIP (DIL) packaging. CTP17 has been warmly welcomed by the visitors of the Electronica exhibition inMunich.

SSD – Solid State Drives (RunCore)

It may be well known by everyone that retailers were raising their prices on Hard Drives because flooding in Thailand had shutdown a number of key production facilities. As forecasted, it could take up to a year more for the industry to return to pre-flood production levels, till then there is a remarkable shortage and price increase on the traditional mechanical hard drive market. This forced a lot of experts all around the World to think whether to buy 120 GB super fast storage SSD or 1 TB of traditional slower storage hard drive for the same price, which was never so closed to each other. In this article we try to summarize the key factors, which characterize the SSD drive technology and briefly compare it to the traditional hard drive technology.

nvSRAM – the non-volatile SRAM memory

Memories are essential elements of today’s consumer electronics devices. These could be volatile versions (SRAM, DRAM), that are losing contents when switched off, and non volatile versions, that could retain data when power loss (EEPROM, FLASH). Combination of the two technologies can provide the advantage of fast memory solution with non-volatility. One of the possible choice is the nvSRAM technology, that we will introduce in this article based on the solutions provided by ANVO-Systems.

DC-DC switching power supply regulators from new japan radio corporation

DC/DC converters are essential elements of today’s battery driven consumer electronics devices, which often contain subsystems with own level of required supply voltage. Mainly the lack of the available space forces designers not to use different batteries but use voltage converters to produce various voltages available, sometimes even higher than the battery voltage, and often provide regulated output, which is important as the battery voltage decreases by loosing the stored power. DC-DC converters, which convert the input voltage to a lower level are called step-down or buck converters, the ones producing higher voltage than the battery voltage are called step up or boost converters.

GigaDevice 32 bit ARMCortex microcontrollers (1.)

ARM (Advanced Reduced Instruction Set Machine) is the industry's leading microprocessor technology, offering the widest range of microprocessor cores to address the performance, power and cost requirements for almost all application markets. With more than 90 billion processors manufactured, the ARM technology is motor of the embedded computers’ World helping solutions to be born and businesses to operate. There are many licensed silicon vendors, software solution providers on this market, but a cost effective fareastern licensed player with its own cost optimized solution helps to keep Worldwide prices on a reasonable lower level. GigaDevice, the well know manufacturer of Flash memories also takes a piece of the cake of ARM® Cortex®M3 technology. Their GD32® family integrates features to simplify system design and provide customers with wide range of comprehensive and superior cost effective MCU portfolios with proven technology and great innovation. In the first part of the series of articles we review the microcontroller architecture, later we show some examples based on evaluation board available for the device.

GigaDevice 32 bit ARMCortex microcontrollers (2.)

In the first part of the series of these articles we reviewed the architecture of the GigaDevice GD32™ARM® Cortex®M3 and CortexM4 RISC MCU families, in this paper we are going to introduce the evaluation boards available for testing the microcontrollers and also a possible way to start working with them using a popular development system called CrossStudio for ARM 4.1. As an example in a later issue we will create a simple code operating a bicolor LED with different blinking frequencies.

GigaDevice 32 bit ARMCortex microcontrollers (3.)

In the first part of the series of these articles we reviewed the architecture of the GigaDevice GD32™ARM® Cortex® RISC MCU families, in the second part of the series the evaluation boards for testing the microcontrollers have been introduced. In this paper we show a possible way to start working with them using a popular development system called CrossStudio for ARM 4.1. and show some software examples using the MCU features.

Industrial purpose SMD power inductors

The arising demand for SMD power inductors is mostly driven by requests arising consumer applications like camera, mobile phone, notebook PCs, however standard industrial applications have also special requirements, that has to be fulfilled. Electrical power supply circuits’ lines always need power inductors as well as chokes in order to accumulate and store electrical energy in the form of magnetic energy (power inductor) and to cut high frequency AC current components (choke). In system design it is also necessary to filter EMI noise or provide low signal losses, therefore power inductors need to be used. For battery operated systems the energy storage feature of these inductors is also essential. The basic condition of designing an outstanding product, is the deep knowledge and understanding the characteristics of the components used in order to make the right choice. This article gives a brief overview of the technologies used by the popular manufacturer ABC distributed by Endrich in Europe.

Development of ABC coil families – the new QS series for automotive industry

The arising demand for SMD power inductors is mostly driven by requests arising consumer applications like camera, mobile phone, notebook PCs, however standard industrial applications have also special requirements, that has to be fulfilled. To design quality equipments engineers must use quality components, so very important measures in case of inductors are the maximum power can be concentrated into the given volume, the high saturation current, and in order to keep losses minimized and efficiency high, the low DC resistance of the coil. In addition to the technical properties also the economical issues has to be considered, like the production costs, that are continueously increasing in China due to the fact the hand made parts involve more and more human resources, while wages are increasing. This trend affecs all manufacturers, who does not have fully automated production. This paper is about to introduce the various technological steps done by leading taiwanese manufacturer of inductors ABC to answer challenges of today’s trends.

Thin film precision resistor families – SUSUMU

Design engineers should be very careful when selecting precision resistors to be used in electric circuits. The low initial tolerance – the maximum difference between the defined and the measured resistance value after component production – provides adequate functionality to the circuit, while precisely kept resistance in time and due to environmental circumstances - such as temperature rise , shock or vibration - is necessary to provide stability of performance during lifetime of the electronic product. Digital electronics in general are less sensitive for resistor tolerances, but analog, especially measuring circuits can fail working right, loosing their stability when the applied resistors are not keeping their values. In this paper we review those factors, that have effect on system stability and introduce some interesting precision resistor families from Japanese leading manufacturer SUSUMU.

Parameters of current–sensing resistors

In order to measure the current in an electric circuit, precisely kept low resistance current sensing chip resistors should be used and the voltage drop over the component is measured. The required characteristics are tight initial tolerance, small TCR, high nominal power and small size. There are however other important factors, like the affect of self heating, the material of the resistive element and on high frequencies the equivalent series inductance (ESL) to take in account. In this article we will discuss these factors and their role to be able to make a precise current measurement with SUSUMU’s unique KRL series of shunt resistors.

Voltage characteristic of capacitors

Very often the multi layer ceramic capacitors (MLCCs) are responsible of unexpected noise appearance in electric circuits. The most usual reason of this negative behavior is the DC biasdependence. The more the applied voltage is approaching the rated voltage, the less effective capacitance the capacitor has. This phenomenon is called the voltage characteristics of the device, and capacitors are said to have good voltage characteristics, when the change is small. This article we are going to review the reasons leading to this effect.

Ripple cancellation with low ESR polymer capacitors

To produce different voltage levels out of the battery voltage could be done on several ways, like using resistor based voltage dividers, or linear regulators, but these solutions can only provide lower level of voltages and the efficiency is low, as − if the voltage drop is high and the current is large − , the excess power will be lost by dissipating remarkable heat. Better to use today switching mode DC/DC converters, which temporarily storing energy in magnetic or electric storage components and releasing this energy to result different voltage level on the output. The efficiency will be remarkable higher resulting better battery lifetime at the end. The high frequency swithching however causes voltage ripple on the output, that has to be minimized in order to avoid mailfunctioning of the supplied device. Most obvious solution is to use a fiter capactor for smoothing ripple voltage on output, which is possible by using e.g. polymer capacitors.

Photometric principles used in LED classification - binning

The photometry is the measurement of the electromagnetic radiation by means of the response of the human eye, which makes it changing with wavelength and different person to person. In order to provide a consistent basis for principles of photometry, international standards define observer functions that can be used. In this abstract we are going to give an overview of definitions used in the LED lighting to describe the light output of the devices, we make a summary on optical definitions (like color temperature, color rendering, brightness) and electrical properties ( e.g. forward voltage), that LED manufacturers base their classification on by means of binning.

Directly on mains voltage - alternative to PSUs

Suitable circuits allow LEDs to be operated directly on mains voltage without a power supply unit. The solution is scalable and space saving. Its also allows LEDs to be dimmed evenly and without flickering. The electric light bulb served us well for over 100 years since it was invented by Edison in 1879. Light emitting diodes were discovered as luminescent crystals about 60 years ago and have made triumphant progress since then. Power supply units for operating LEDs have also been available for many years. But since the invention of ICs which can be operated directly with 230 V AC while supplying LEDs with direct current, the question arises whether conventional power supply units are still required. LED lights operated with alternating current have been successfully sold as series produced items for many years. In the beginning these were Retrofit GU10 lamps with 8 to 10 W, followed by built in spotlights and floodlights with 120W and more.

Alternative circuits for LEDs with 230 V AC driver

Designing a new LED luminaire poses great challenges today – including selecting the right LEDs and a suitable power supply unit. The new AC technology has now substantially simplified this process: It allows direct control of the LEDs with 230 V AC and generates flicker-free light with good dimming properties. Having to develop a dedicated power supply unit can significantly delay a new project. It is much easier to use AC technology with direct control through 230 V AC – with obvious advantages: In addition to considerable cost reductions, LEDs from different manufacturers can be used and combined in one circuit. It is also possible to use a much smaller power supply unit which can be integrated unobtrusively into any housing.

LED drivers – reliability, and performance factors

Today’s general lighting industry targets more and more LED based solutions. The fixtures’ performance, reliability and also the return of investment are significantly influenced by the quality of the LED driver. According to failure analysis of LED lighting fixtures, the results show fewer than 5% probability of LED chip failures, other 5% may be the fault of other elements and 90% of cases originate from LED driver failures. To take critical performance factors in consideration, – as well as understanding the reliability scores, such as MTBF and lifetime – are necessary to be able to select the right driver from the wide range of available solutions on the market. This paper tries to summarize some of the measures, and point out possible issues of a driver in order to help fixture designers to specify right solutions for the optimum financial and the operational requirements.

Acoustic I. – Sound generators

Generate a kind of sound is a common requirement in a lot of electronics circuits. All devices, what we call sounders convert electrical energy into mechanical energy that is called acoustic sound energy. It can be used just for signaling some functions with a simple single frequency beep or a certain melody, but could also be neccessary to reproduce human voice or music. For all these purposes the electronic component industry offers many kind of acoustic sound generators.This article is made to give an overview of the different sound sources in order to be able to select the right device for the right purpose. By clarifying some definitions, working principles, and application areas engineers have easier way to understand the product portfolio of the acoustics manufacturers.

Acoustics II. – The Phenomenon of „acoustic short circuit"

When using dynamic loudspeaker systems, which transform electrical signals into audible acoustical signals called sound waves, their radiation characteristics, and therefore finally the perceived sound quality will be strongly influenced by the mounting situation in the application device, known as "the acoustic environment". For taking this into account, the size of the device and also as its design should be carefully designed. The specific design should take care of the method of mounting, if it is standalone (like for example a kitchen radio), free flowing (like for example a telephone) or fixed (like a communication column or door phone device). In this paper we are going to describe the problems occur in free-cone speaker systems, explain the background of the back-to-front cancellation and suggest preventive solutions.

Movement detection in practice – WaveEye Doppler sensor from New Japan Radio

Engineers of general lighting area are focused on designing compact, intelligent and energy efficient systems, which could be realized by adding the feature of automatic switching off, when no human presence is detected. Today these intelligent sensors are mainly based on passive infrared (PIR) technology, that is perfect for detecting human motion with huge amplitude on a large detection area, however not effective with tiny movements, and also unable to distinguish between approaching and leaving of objects. Radar sensors integrated in an intelligent lighting system could overcome the disadvantages of PIR sensors, being able to detect minor movements, like speaking, typing or even breathing. In the past radar systems could only be set up by the use of expensive, big and heavy components like wave guides. Today, using planar technology, the sensor modules are small, cost effective and robust.

Temperature sensors for different applications

Temperature measurement is one of the most important disciplines in sensor technology. Basically there are contactless and touchcontact measurement methods. This article will make an overview of the possible temperature sensing technologies, but covers in details only the contacting temperature measurement, where the sensor element is in thermal contact with the object of which the temperature has to be measured.

Practical usage of Panasonic GRIDEYE sensor v2.0 – Part 1.

Earlier we compared several movement and presence detection technologies and introduced Panasonic’s GridEye 64 pixels intelligent thermopile array sensor as one of the best options to detect stationary objects. It can be used to detect, count or follow movement of humans, also capable of supporting gesture control. The new generation of tis sensor has been launched, and we would like to draw readers’ attention to this unique technology again.

Practical usage of Panasonic GRIDEYE sensor v2.0 – Part 2.

In the previous article of this series the main features and news of the Panasonic GridEye thermopile matrix sensor have been introduced. In this paper we intend to show how to build a simple, low resolution thermal camera using the evaluation board in Arduino and in PC environment. We will create a device that can detect the approaching of a human hand and based on its presence a relay will be operated simulating a gesturecontrolled switch. The other sample application will be a PC based control for lighting that can follow the movement of an object.

Practical usage of Panasonic GRIDEYE sensor v2.0 – Part 3.

In the first part of our series of articles about Panasonic’s GridEye, we introduced the features of the 2nd generation of this thermopile matrix, and we explained how to use it as a lowresolution thermal camera. In the second part we realized a gesture controlled switching device by using the GridEye development kit as an Arduino shield. We also simulated a movement driven lighting control using this kit connected to a PC. In this closing issue, we are going to realize a standalone Arduino project, which displays the thermal image on an 8x8 high power RGB LED matrix, while a servo motor is used to follow the movement of the target object.

Passive Matrix OLED displays

The organic light emitting diodes (OLEDs) are getting more and more popular devices in display technologies due to their perfect bright image featuring, fast response and wide viewing angles. By today they are considered as the screens of the future. Some of the engineers however are still afraid of the high cost of this solution. The subject of this article is to show a cost effective solution, the passive matrix OLED technology in comparison with the traditional display techniques.

Industrial TFT displays with the new iSi50® interface from Endrich

Switching between different versions of TFT displays, primarily due to the problem of connection, imposes a major design task on product developers. Since manufacturers tend to modify their product from time to time, designers often need to look for alternative suppliers to find TFT panels suiting best for the next series of their product. However, it is often impossible to find a panel featuring exactly the same physical interface layout. Similar issue occurs when a different screen size or a more exclusive design has to be adapted to the same electronics requiring in most cases PCB design change. In response to this challenge, Endrich Bauelemente Vertriebs GmbH has developed the iSi50® intelligent interface integrating all signal lines (data, backlight and touch) into a single 50 pin ribbon cable. iSi50® intelligent Standard interface – with 50 pin connector

Faytech docking station PCs in the Endrich line

Today there is a new trend to use smart displays, where the PC is embedded into the housing of the display, and the HMI can be realized by software solution, therefore, the time–tomarket can be very short. When however, there is a requirement for a large size and robust display, and in the same time enough hardware resources to serve the required control functions, it is worth to think of using a combo of a modular industrial PC and an industrial touch display. To complete this challenge Endrich offers a new family of HMI hardware, the Faytech “Docking Station PC” series. Endrich Bauelemente GmbH as one of the strong display providers on the industrial TFT market focuses to offer solutions for advanced human machine interfaces. Today’s HMI design trends no longer accept to interact using push buttons, mechanical switches or keyboards, or getting feedback through status lamps, seven segment or simple monochrome LCD displays, or via acoustics ways. Today it is basic expectation to have high resolution, even sunlight readable color TFT touch displays, with rugged, robust, but slim and professional industrial design. The applied way of solution is determined by the serial quantity, the human resources available for hardware design and the available time to market the product. One can decide to develop an HMI based on own drivers and TFT modules, which is the economic way in case of high numbers of serial production, or use embedded PCs, where the hardware interfacing of the TFT panel is solved.

New generation of Dlogic industrial touch computers

One year ago we introduced our first Touch Display Computers appearing in our delivery program, which are slim, attractive Panel PCs offering allinone human interface solution in many industrial applications. Today we have further developments to write about, a new generation of these PCs appeared with enhanced features, like new board support package, higher processing power and better connectivity to users’ hardware environment. DLOGIC’s panel PCS are not anymore just “smart displays”.

Developing human machine interfaces using smart display modules part 1.

One of the most important task of developing an interactive electronic device is the definition of the HumanMachine Interface (HMI)The chosen technology should fulfill all required controlling tasks, and in the meantime needs to be easy to implement and operate, affordably priced, rugged, usable in harsh environment and last but not leaststylish, modern in appearance. Further requirement is being able to provide an easy way of facelift in case of implementing new features or changing outlook. In this paper we introduce a possible solution, using DLOGIC’s Smart Display Modules to achieve fast time to market when designing state of the art HMI solution.

Developing human machine interfaces using smart display modules part 2.

The previous article we detailed the properties of DLOGIC’s Smart Display Modules and the possibility of designing a Human Machine Interface. In case of using conventional TFT touch displays the interface design, hardware and software debugging consumes a lot of time, better to take in consideration using a ready, economic, professionally designed smart display module and limit the HMI design to pure software development to minimize human resources and time-to-market of the finished product. After reviewing the advantages of this technology, it is time now to see how easy to implement software HMI by using a cross-platform development tool called Qt on Linux.

SiTime MEMS Oscillators

Micro ElectroMechanicalSystems (MEMS) incorporate nanotechnology in the electro-mechanics. Miniaturized mechanical and electro-mechanical elements under the control of integrated microelectronics are encapsulated into a small vacuum chamber forming complete systems – that is the definition of MEMS. A number of functional elements, like sensors, actuators can be realized as MEMS transducers, devices that convert energy from one form to another. In the case of micro-sensors, the device converts a measured mechanical signal into an electrical signal. The possibilities provided by the MEMS technology by means of downsizing, cost effectiveness of the applied production methods open new areas of usage. One of these areas is the timing with MEMS based resonators that are tiny structures vibrating at high frequencies. This article will give overview through leading manufacturer SiTime’s devices and technologies.

GSM technology in industrial applications – GSM, UMTS or LTE modules

Today, such notions as IoT, Smart Home and Industry4.0 become popular. Behind each of these names, there is a complex network of intelligent devices – sensors, data collection and evaluation modules, medical electronics, or even security systems, – operating in industrial environment, all featuring communication over the Internet.

Live NB-IoT test system from Endrich on Electronica 2018

Endrich, one of Europe’s designinhouse electronic component distributor is going to present a live NBIoT test system on Electronica 2018 inMunich. Networked objects such as smart devices contain a kind of sensor and a communication module that connects them to the Internet of Things. How can we achieve an economical, technically matching and standardized network solution – “The Right Network”?