Thursday, 12 November 2015

Radio Frequency and Wireless Design Importance

RF stands for Radio Frequency and is a well implemented and used subset of engineering that composes of devices that are designed to operate on radio frequency (RF). This technology is implemented in any device that is capable of a sending or receiving radio waves such as mobile phones, and Wi-Fi networks. One of the aspects that is most important and adds significant success towards the popularity of the rf/wireless circuit design is its overall power consumption and compact designs. As devices especially mobile phones have gotten slimmer and smaller as technology has progressed, to prolong the time between battery recharge and the overall use, companies have started to use power conscious ICs for radio frequency, baseband and DSP.

RF and wireless features have become an important and highly sought after aspect of any device in today’s age of connectivity and with the dawn of the Internet of Things and its inevitable mass scale implementation just around the corner has made the requirement of devices being wirelessly connected all the more important. There are some aspects that must be taken into consideration however when developing rf/wireless circuits. First of all the designer should have a good understanding of the requirements and the overall design of the device in which the wireless circuit is to be implemented. Bulky and large circuits had become obsolete even before they became popular since they were never feasible in devices. For example, mobile phones in the past usually were very large and bulky with limited functions and actually had large antennas as part of their designs as opposed to today’s slimmer phones that have larger screen sizes, tons of functions, high connectivity options, and smaller sized radio circuits. A good practice to have useable and high-quality wireless circuits for a device is to have help from professionals who are experts in taking trough designs and bring them up to optimum efficiency.


Rf/wireless circuit designs are useless if they are not cost efficient. No matter how good the initial design and application of a circuit, it is just not bound for success if it is expensive to manufacture as the single circuit is composed of many smaller components. During the planning stages, a balance between the feasibility and the cost required should be worked out and as progress is made, the economic value of developing the circuit should be kept as low as possible. There are many companies in the world that specialize in radio frequency and wireless circuit design processes and are usually experts in different fields such as installations, designing, and maintenance. Technology is evolving at a rapid rate and as mentioned, the new phenomenon that is the Internet of Things will make Rf and Wireless technology essential towards not only mobile devices but towards every electronic device.



Posted by Whizz Systems

Wednesday, 4 November 2015

What Turned the World into a Village through Telecommunication



Telecommunication can be described as the exchange of information between two or more than two entities through technological means. Telecommunication uses channels to send out information as electrical signals either over physical or digital mediums. Physical mediums can be signal cables and digital medium can be electromagnetic waves. Telecom devices usually have a transmitter and a receiver and the most common example of modern telecom devices are the mobile phones that are connected to a vast net of a telecommunications network that is used to share information between people and device.A network is usually a telecommunications network which allows computers and other devices that are connected to it share data between them and those on other networks through data connections.

Telecom and networking product design and development are a service that is offered by many companies that provide engineering services and it is one of the most sought after and important services required to an organization or individuals. There are many challenges associated with telecom products developments and some of the most important things that need to be kept in perspective during development are functional performance, availability and reliability of the telecom product. These products include the likes of Broadband Infrastructure Products, IP Networks, Cable Modems and Set-Top Boxes, DSL Modems and Routers, FO Switches, GSM, GPRS and 3G/4G Wireless Protocols, WLAN and Bluetooth. As technology is movie forward a new type of communications network is slowly but surely taking hold in the world of electronic devices. This new technology is Internet of Things which will allow billions of devices to be always connected. This has given arise to the need for developing devices that have some form of telecommunications and networking infrastructure present within them which will allow them to be connected consistently to a network and work more efficiently. 

Telecom and networking product design and development have similar procedures to other electronic devices. When designing a telecom product it is best to capture the core requirements of what the device has to accomplish when put to work in a telecommunications network. A product that is required to perform telecommunications services while being connected to a network like a router must be capable and reliable and be free of needless complexities that may hinder it to reach its full potential and become a problem for the user. To avoid such problems, proper planning and in-depth refining of the requirements to be fulfilled by the product should be done before the idea has been finalized. The hardware and software used should be as per the requirements. Networking devices require thorough testing for they are needed to establish and maintain constant and clean connections between two devices through a network.
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What Embedded Software Really Is For Electronic Designs And Production



Embedded software is a specially programmed to perform specific tasks and is installed on chips or firmware’s which are found in embedded devices. Embedded software could perform a single basic or complex task, but as technology has evolved today, embedded devices programmed with embedded firmware can perform many complex tasks today. Contrary to popular and uneducated belief, embedded software and firmware development is different from software development. For one thing, unlike a software developer who programming an application, any team or individual working on embedded software and firmware development is required to have in-depth knowledge of hardware it is being developed for embedded software’s are made specifically for devices that are supposed to perform a single or set of task. Embedded software development unlike IT software is not dependent on how many lines of code there are, meaning a complex task might actually have only 20 lines of code as opposed to hundreds of lines for a regular software. One thing that significantly differentiates the two fields is the fact that where software developers work on PC for PC, embedded software developers work on PC for PCB and write all their coded software’s and firmware’s for these BOARDS and micro-controllers.

Electronic product design, development and manufacturing Company has the three steps through which every device no matter how small or how big, how basic or how complex passes through on its way to becoming a useable and marketable product. First the basic concept of a new device is conceived in which it is decided what the purpose and uses will be; this step also includes early concept sketches about the shape and size of the device. Once that is finalized, the next step is development. In the development stages, the concept on paper is converted into a physical device which is thoroughly tested by prototyping and made sure that it performs accordingly to its desired function. After it has passed inspections and testing, the device is deemed appropriate for manufacturing and mass production and finds its way to the consumer.


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Monday, 19 October 2015

How it is Made Efficient FPGA Verification Significance



FPGA is the abbreviation used for Field Programmable Gate Array which is essentially an integrated circuit specifically designed in such a way that it can be easily configured or programmed by a user be they a customer or a designer after it has been manufactured, hence why they are named as ‘field programmable’. The configuration of an FPGA is dependent on the hardware description language or HDL used. In the early times of FPGA design, circuit diagrams used to identify its configuration but since then as technology has evolved, this has become very rare but not obsolete. As technology has come a long way, FPGAs have become faster, and much more efficient in size and power and are now capable of a number of tasks such as field update and multi-functionality devices to name a few. Today’s advanced FPGAs are much more complex than their predecessors which are evident in the fact that unlike the older models, latest FPGA design verification has become a complex and in-depth process.

FPGA design verification in its earlier form revolved around entering a schematic design that was gate-level, downloading on a test board of a device and then substantiate the entire system through test data. As the design technologies for FPGAs evolved, new and more advanced methods came into existence such as hardware description languages (HDL) that combined with the conversion from simple gates to register transfer level (RTL) code allowed precise simulations to be used in the verification of the design before it was finalized. IC fabrications along with ASIC fabrications are a rigorous process that are not only time-consuming but also quite costly. FPGS design verification, on the other hand, is far more feasible post-synthesis for they can easily be updated with advanced and newer design codes a number of times before the can be finalized. The ability of an FPGA to instantly enable prototyping designs is indispensable for instant verifications. It must be kept in mind however that, FPGA designs can plague by bugs that can either be introduced by human error which is easy to detect or systematic issues which can be avoided by the high-end potency and reliability of the toolchain. FPGA advancements are also responsible for creating a new and more vigorous form of Equivalence Checking (EC) which has become and almost necessary part of effectively removing systematic bugs from designs. EC has a number of pros such as the confirmation that no bugs or errors will be present in the final design and has a direct implication on the quality and reliability including the efficiency of the final design.

The evolution and advancements in FPGA designs have also brought significant improvements in the implementations verification methods and have pushed EC to become an important and necessary part of the FPGA design and development process.

Posted by Whizz Systems

Designing an Intelligent Hybrid IoT Enabled Devices



The internet of things is a concept fast turning into a reality that is its most basic form can be explained as every device and object on the planet earth being connected with each other through the internet. More appropriately it can be summed up as being a network of things that are electronic in nature being they software or hardware that allows the exchange of data between them. As the world is ushering headlong into an era where internet of things (IoT) will be a common reality, it has already made many people around to give a thought of how to design their products that will be IoT-enabled which will essentially be Hybrid products.

Internet of things IoT design that offers by the internet of things IoT Design company will no longer be focused on the physically tangible. Any product that will be designed to be connected will have to ensure the acquiring and sharing of the data streams, which basically means that how they will get the data they need to work on and produce information that will be processed by other devices for them to work, be thoroughly efficient and be tangible enough to be easily upgradable.Internet of things IoT design process will require the designers to implement also the old hard and fast tenets of product design such as building an IoT-enabled device to be useful, simple yet elegant, innovative and marketable.

Internet of things IoT application is a big as of yet unanswered question even though many though it has already begun to take root. In theory, if the internet of things IoT application does indeed become a reality on a worldwide scale it will definitely make the world a more efficient yet a more internet dependent place. A recent example of the application of the IoT-enabled device is the Mimo monitor that provides real-time information about an infant’s symptom. A greater and more common example is the mobile phone. With all the sensors actively connected to the internet, a person can now monitor their every move, location and even workout throughout the day and instantly share this information with others.
For more info visit: http://www.whizzsystems.com/
Posted by Whizz Systems

Thursday, 17 September 2015

Testing the Future with Prototyping a Device

The world is full of intelligent people working in all of the fields ranging from art and engineering, all contributing to the betterment of humanity. Though many people consider painters and entertainers as artists, they fail to appreciate that engineering is an art in itself albeit of a different kind. People who are well versed in the study of engineering technologies often end up creating valuable devices and machines that serve a testament to the ever need of humans to make their life easier. Though we have use of many machines and technologies at our disposal, it is always a humble practice to consider how these machines and devices actually come into being.

Electronics engineering is the discipline from which all of the electronic devices that have come into existence stem from. Though they are easy to use and reliable they are not from the start found in their final states, indeed in the electronics engineering field, a device that has been brainstormed goes through detailed and long process to final come into existence. a part of this process is testing. Prototyping is one of the final and most robust ways of testing out a device to work out its complexities and design flaws. Prototyping a device is highly useful albeit costly for most companies for it allows them to gain full confidence in the capabilities and uses of the device along with potential problems it may face before it can be made ready for the market. 

Thermal analysis is another form of testing, but this is unique since it is usually done before the prototyping and after it. Thermal analysis is the detailed study of the changing effects heat can have on materials. Electronic devices run on electricity, the passing current causes the components of a device to heat up and may result in damages. To avoid such hazards, this is one of the most useful tests that can be done to produce a nearly flawless and robust device.

For more info visit: http://www.whizzsystems.com/