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  1. The Role Of IoT in Industrial Automation

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    Internet of Things in industrial automation is a game changer that will reap new benefits. It not only creates scope for innovation, but also helps solve problems at the micro level, enhance operations, and increase productivity. The main aim of industrial automation is to reduce the necessity of people in the manufacturing process and eliminate errors.

    IoT in industrial automation can be achieved by mapping industrial processes, understanding micro and macro process, and their relations with machines to automate the process. This entire process involves the interconnection of sensors, instruments, and other devices over a common network to accomplish a task. 

    Let’s quickly drive through detailed explanations, advantages, and the role of IoT in industrial automation engineering.

    What Does IoT Do For Industrial Automation?

    IIoT refers to sensors, instruments, and other devices networked with industrial computer applications, such as manufacturing and energy management. This connectivity enables data collection, exchange, and analysis, which may improve productivity and efficiency and have other economic benefits. The IIoT is a Distributed Control System (DCS) evolution that uses cloud computing to refine and optimize process controls.

    This is enabled by integrating multiple technologies like cybersecurity, cloud computing, machine-to-machine, 3D printing, advanced robotics, big data, cognitive computing, etc.

    Practical Advantages of IoT in Industrial Automation

    1. Scalability

    Scalability in production is attained by increasing output, two goals that the digital industrial transformation facilitates and accelerates. Humans are sometimes the weakest link in production processes, which is unfortunate for the workforce. However, by removing humans from a process and delegating production to robots, businesses are able to increase their throughput.

    1. System uptime enhancement

    Like production, uptime is limited by humans. People need rest, food, a safe workplace, and ethics. Machines don’t need breaks or food. Because of automation, many factory floors are safe.

    1. Operational efficiency

    Operational automation means interconnecting and integrating systems to share information and improve operations exponentially. Computer logic lets systems respond to other needs. This basic application is everywhere now, from turning off lights to alerting global suppliers that a factory will soon run out of raw materials and need resupply.

    1. High-security access and control

    IoT introduces many attack vectors to automation systems, but it also offers a solution. Automation can be used to defend against cyberattacks. It helps defenders make their entire network visible, adhere to a policy-based approach to system configuration, management, and security, and automate many low-level maintenance tasks while alerting IT teams of more serious breaches or attack patterns.

    Role of IoT in Industrial Automation

    1. Internet of Things (IoT)

    IoT concepts and technology are being explored and implemented in industrial automation. IoT helps create effective, affordable, and responsive system architectures. The goal is to create frictionless communications and interaction from manufacturing field input/output, including analyzers, actuators, and robotics, to increase flexibility and manufacturing. Industrial automation has used IoT in major applications, such as PLCs replacing banks of relays.

    1. Internet of Things Products and Devices

    Internet-connected IoT devices and systems can collect and exchange data. These products have many forms and use. Some of the examples include:

    • Smart thermostats, security cameras, and light bulbs can be controlled remotely via smartphone apps.
    • Smartwatches and fitness trackers track a user’s activity and health metrics.
    • Connected cars can communicate with each other and with traffic infrastructure using sensors and other technologies.
    • Industrial IoT systems can monitor and control factory and warehouse equipment.

    IoT products make our lives more convenient and efficient by allowing us to easily collect and access physical data.

    1. Internet of Things Gateway Devices

    IoT gateways connect a network of connected devices to the internet. These devices are used in industrial IoT systems with hundreds or thousands of devices to connect and manage work.

    IoT gateways are equipped with hardware and software to perform various tasks. IoT gateway devices have user-friendly interfaces that make configuration and management easy. This can include web-based interfaces, mobile apps, and other tools that make it easy for users to set up and maintain their IoT systems

    1. Industrial IoT Development Kits

    Industrial IoT (IIoT) development kits include hardware and software to help developers create applications and solutions. These kits include sensors, actuators, and other physical components for building and testing IIoT systems, as well as software libraries and other tools for developing and deploying IIoT applications.

    IIoT development kits can be customized to meet the needs of a specific industry or application. A manufacturing company’s IIoT development kit may include sensors and other components used in manufacturing, while a transportation company’s kit may include GPS and other location-tracking technologies.

    A Quick Recap on Industrial Automation Engineering

    The Internet of Things, or IoT, is a network of interconnected, data-collecting and -exchanging devices. By allowing machines to communicate with one another and with central systems, IoT-enabled devices can be used to increase efficiency and productivity in the context of industrial automation. 

    In industry, for instance, an IoT system could be used to monitor the performance of individual machines and determine when maintenance is required, as well as to automatically adjust production processes based on real-time data. This can help to decrease downtime and increase operational efficiency overall.

    Final Thoughts

    Want to leverage the best technology for IoT industrial automation? Technosoft Engineering IoT Services will take your Industrial Automation processes to the next level of connectivity and intelligence.

    Get in touch with us today for our industrial automation engineering.

  2. What Is Product Design

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    Product design is a set of strategic and tactical activities that cultivates ideas for product commercialization. It combines art, science, and technology to create new products. Product designers conceptualize and evaluate ideas in a systematic manner, transforming them into tangible inventions and products.

    The forecasted market of product design and development is expected to be USD 8.21 billion by 2029, with a CAGR of 5.30%. This suggests that the integration of growing technology with product design will boom in the upcoming years. This is also because developing distinctive products significantly to sales revenue.

    The objective of product design is to create a product or service with superior functional utility and sales appeal at a reasonable price and in a reasonable amount of time. To understand its importance more precisely, keep reading.

    What Is Product Design?

    Product design is defined as the process of imagining, creating, and iterating products that solve users’ problems or address specific market needs.

    Understanding the end-user, or the individual for whom the product is being created, is essential for successful product design. Product designers use empathy and knowledge of their prospective customers’ habits, behaviors, frustrations, needs, and wants to solve real problems for real people.

    Example Of Product Design 

    When it comes to product design development, designers have numerous options for tools. Before going into production, they can use the conventional method of sketching out concepts on paper and then creating models. Frequently, contemporary designers create 3-D computer models using specialized software that simulates the final appearance of the object.

    The best example of product design is Belt Testing Gang Dynamometer Machine, a special-purpose machine made by Technosoft Engineering. The scope of this project was to design a Gand Dynamometer for accelerated failure testing of one-size drive belts. This machine will be able to test 4–8 belts at a time. 

    The dynamometer integrated mechanical and electrical designs to monitor, record, and notify the belt failure or in case of exceeding a defined percentage of slippage.

    What Is The Product Design Process?

    There are three basic steps involved in the product design development process.

    1. Analysis
    1. Acceptance: Here, the designers commit to the project and find a solution to the issue. They combine their resources to determine the most effective solution to the problem.
    2. Analysis: In this phase, everyone on the team conducts research. They collect general and specific information that will aid in determining how to solve their problem. This can include, among other things, statistics, questionnaires, and articles.
    1. Concept: This section defines the central issue of the matter. The problem’s conditions become objectives, and the situation’s constraints become the parameters within which the new design must be developed.
    1. Synthesis
    1. Ideate: Here, the designers generate various ideas and solutions for their design problem. The ideal brainstorming session is devoid of bias and judgment, instead focusing on developing original concepts.
    2. Select: At this point, the designers have narrowed their ideas down to a select few that are guaranteed to be successful, and they can now outline their plan for creating the product.
    3. Implement: At this stage, prototypes are constructed, the plan outlined in the previous step is realized, and the product begins to take on a physical form.
    4. Evaluate: In the final phase, the product is evaluated and improvements are made based on the results. Even though this is the final step, the process is not complete. The finished prototype may not function as expected, so it is necessary to generate new ideas.

    Why Is The Product Design Important?

    Product design is not limited to the product’s aesthetics; it also defines how the product functions.

    1. If your product design is superior to that of the competitor, it will be chosen over the competition on the market.
    2. Product design is essential because it provides the consumer with an original and imaginative experience. As a result, the design of the product can attract new customers and foster brand loyalty. The design of a product can go a long way toward creating a memorable experience, which in turn fosters brand loyalty.
    3. Design is crucial in heavy machinery and services because it can be the difference between efficiency and chaos.
    4. Product design is a crucial component of the product development procedure. It ensures that the final product is customer-friendly, aesthetically pleasing, and profitable to produce.
    5. Design can take many forms, and the greater the acceptability of the product’s design over time, the stronger the organization’s brand will be.
    6. Packaging plays a significant role in product design because it is the final point of influence and, therefore, the company’s final sales point. Good packaging integrated into the design of a product can make a substantial difference.

    Get GenX Product Design Development Solutions Here

    As mentioned above, product design is the USP of a business, and it needs to be uniquely perfect. So to meet that need, Technosoft Engineering gets you the best solutions. Our process starts from idea generation to execution. We aim to reduce the cycle time and increase the scope and functionality of the product.

    Our product design services include market research, product styling, DFA, DMF, reverse engineering, prototyping, material selection, engineering change management, and product costing. You get a solution bundle in one place.So, wait no further and get feature-rich unique product design solutions.

  3. 8 Benefits Of Outsourcing Engineering Services

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    Engineering organizations are considering outsourcing as the mainstream for top-quality services and long-term strategies. This implies that outsourcing engineering services are becoming an integral part of the organization’s product development process. 

    The global product engineering services market size is expected to reach 2041.4 billion by 2028, with stable growth of 8.5% CAGR each year. Interpreting, outsourcing is more popular than ever as businesses get ample advantages from streamlining business processes to reducing capital and overhead costs.

    This article shall elaborate on why outsourcing engineering services are a must to consider.

    Before analyzing what to outsource, companies must understand product development outsourcing. Cost savings, labor arbitrage, and innovation-led SLAs are all reasons for outsourcing. 

    It’s important to understand what constitutes a benefit and what directly and indirectly influences the cost of outsourcing engineering services to ensure that benefits outweigh costs.

     

     

    Before analyzing what to outsource, companies must understand product development outsourcing. Cost savings, labor arbitrage, and innovation-led SLAs are all reasons for outsourcing. 

    It’s important to understand what constitutes a benefit and what directly and indirectly influences the cost of outsourcing engineering services to ensure that benefits outweigh costs.

    outsourcing is the best option

    If Value = Benefit – Cost, is positive, outsourcing is the best option. 

    Benefits Of Outsourcing Engineering Services

    In 2021, the global engineering services outsourcing market was worth USD 1.3 trillion. From 2022 to 2030, its CAGR is expected to be 24.6%. Engineering Service Providers (ESP) and Original Equipment Manufacturer (OEM) alliances are expected to grow as Engineering Services Outsourcing (ESO) becomes more popular. This popularity is due to the reasons mentioned below.

    1. Reduction in overhead costs

    According to research, outsourcing engineering services can help engineering companies reduce labor costs by 20%–30% while simultaneously reducing revenue spent on other engineering-related services. The revenue saved through outsourcing can be invested in product development, marketing, or other crucial business operations.

    1. Access to sophisticated engineering services

    Customers today demand complex engineering services that may exceed the capabilities of a company with limited in-house executives. However, this issue is easily solvable through engineering outsourcing. Through outsourcing, engineering companies are able to meet the needs of their clients, whether they require advanced 3D animation or intricate geometry.

    1. Greater focus on core business

    When IT isn’t a core business, opting for an engineering service provider is the best choice. This saves time and distractions spared on resources to set up IT, maintenance, and its upgradation. 

    Additionally, when engineering services are outsourced, a business is able to devote more hours to marketing initiatives. You will be able to devote your time to enhancing your designs and developing more efficient methods. In turn, this will assist you in promoting and marketing your business in new markets.

    1. Quicker turnaround time

    Outsourced engineering services providers work around the clock to measure and accomplish the project, and hence, the turnaround time is faster. They are able to meet the demand for a quick turnaround time more effectively than an in-house team. 

    In addition, due to the caliber of the provider’s personnel and technology, things are not “rushed through” in a manner that compromises the final product.

    1. Access to the latest technology

    Reputable outsourced engineering services providers typically subscribe to the most recent frameworks and development tools and have access to specialized technologies that they employ on all of their projects. Therefore, you can claim to use cutting-edge technology for your projects without the nightmare expenses and hassles of actually implementing it.

    Additionally, you get trained professionals with technological expertise. This will help you leverage high-end technology and software without having to make additional investments.

    1. Increased customer satisfaction

    Customers always have high expectations for precision and speed. However, outsourcing allows you to easily meet both of these requirements. A customer who is satisfied is more likely to request your services in the future. The best way to maintain a consistent level of customer satisfaction is to select a service provider who is both experienced and focused.

    1. Using as-per-need services

    The need for engineering services is not constant. In that case, even when there is a lull in the engineering industry, companies must pay full-time wages to their employees. It is not comparable to outsourcing. Outsourcing engineering services provides greater flexibility because engineering firms will only pay for the services they require when they require them.

    1. Improves risk management

    Working with experts not only reduces the number of bugs but also reduces the risk of product failure by ensuring expert assistance is available during times of crisis. Moreover, if you are launching a new product or offering a new service, an offshore team can be quickly adjusted to meet soaring demand, as compared to a team from a developed nation.

    Engineering Services At Technosoft

    Outsourcing engineering services has added advantages, including a reduction in overhead costs, access to sophisticated engineering services, a quick turnaround time, a greater focus on core business, improved risk management, and much more. 

    Technosoft is the leading engineering services provider, with a team of over 400 engineers and designers. Technosoft is able to provide multidisciplinary engineering services in its five business lines—engineering, consulting, innovation, resources, and content—due to the flexibility and breadth of its resources.

    So wait no further and book your consultation call today!

     

  4. IoT In Manufacturing: 2023 Edition

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    The research suggests that the global IoT in the manufacturing market was valued at USD 205.8 billion in 2021 and is expected to touch USD 1.53 trillion by 2030, with a CGAR of 24.91% between 2022 and 2030.

    These statistics proclaim that the path of digital transformation in manufacturing is through IoT manufacturing. This sector uses a network of sensors to gather production data and uses cloud software to transform that data into insightful knowledge. Today, industrial IoT solutions are the core driving force behind Industry 4.0.

    This article will discuss the role of IoT in manufacturing.

     

    What is the industrial internet of things (IIoT)?

    IIoT refers to interconnected sensors, instruments, and other devices networked together with computers’ industrial applications. These applications include manufacturing and energy management. IoT device connectivity enables the collection, exchange, and analysis of data, which may facilitate productivity and efficiency improvements as well as other economic benefits.

    The main motive of industrial IoT solutions is to improve efficiency in manufacturing, supply chain, and management contexts. 

    The architecture of IoT in manufacturing

    Traditionally, IIoT systems are developed as digital technology with a modular layered architecture.

    Contact Layer User interface devices like computer screens, PoS stations, smart glasses, touch surfaces, tablets, buttons, etc.
    Service Layer Software to analyze data and transform it into actionable data, which is displayed on the driver’s dashboard.
    Network Layer Wi-Fi, Bluetooth, LoRa, communication protocols, cellular, cloud computing
    Device Layer Hardware components like sensors, machines, CPS, etc

    Impact of Industrial Internet of Things in three verticals

    1. Shop floor and field operations

    Embedded sensors in machinery and equipment collect real-time data on operational conditions and the condition of spare parts. The provided data is subsequently analyzed by the cloud platform. The results are then shown in a user application, providing shop floor supervisors with a comprehensive perspective of the production process.

    Its applications can be divided into two groups:

    1. Supporting manufacturing operations: This involves monitoring of equipment utilization, product quality control based on condition, and safety.
    2. Facilitating industrial asset management: This involves industrial asset tracking, inventory management, and predictive maintenance (based on condition monitoring).
    3. The manufacturing supply chain

    IoT devices ensure end-to-end supply chain management. Manufacturers can, for example, monitor the movement of vehicles delivering supplies and commodities, view extensive information on things in warehouses, and manage the conditions (temperature, humidity) under which products are stored or moved.

    1. Remote and outsourced operations

    Typically, modern businesses are not located in a particular region; rather, they have several affiliates and branches dispersed across the globe. Moreover, they can outsource their manufacturing processes to third-party manufacturers in order to save money on shipping or infrastructure.

    IoT solutions and services provide centralized monitoring of all decentralized and outsourced processes. This is the most effective method for guaranteeing that all contractors adhere to the technological process and that all manufactured goods meet predetermined requirements.

    Applications of IoT in manufacturing

    1. Smart packaging

    It uses IoT that allows customers to engage and generate data for better product management in the future. IoT and packaging interact through sensors, QR codes, AR, VR, and mixed reality. Smart asset tracking provides consumer value while collecting data and improving operations and efficiency.

    1. Predictive maintenance

    Embedded IoT devices in machines can detect temperature, pressure, voltage, etc. malfunctions and warn appropriate staff, leaving employees to take remedial action. Predictive maintenance helps technical support staff find and fix defects before they cause catastrophic equipment failure, lowering downtime and costs.

    IoT-connected equipment can be combined with advanced analytics tools for predictive maintenance.

    1. Remote production control

    IoT in manufacturing allows remote process monitoring and equipment configuration. First, workers can remotely collect data on industrial processes to verify if they comply with norms and requirements.

    Second, they may remotely configure equipment, saving time and effort. Businesses can use IoT software development services to simplify equipment administration and control via virtual networks.

    1. Asset management

    Manufacturers can collect and monitor real-time asset data via the web or mobile apps. IIoT devices provide industrial asset tracking by doing the following.

    • Goods-carrying vehicle
    • Inventory
    • Resource-related production

    With the industrial internet of things, you can track and optimize assets from the supply chain to the finished product.

    Asset monitoring detects problems that affect product quality or time-to-market early and accurately.

    1. Digital twins

    These include IoT, AI, ML, and cloud computing. Digital twins facilitate the digital transition in production and may be advantageous on the factory floor. Using virtual reproductions of equipment and replacement parts, engineers and management can mimic operations, run tests, detect defects, and achieve desired results without destroying actual assets.

    4.0 Industrial IoT solutions trends in 2022

    1. Sensor advances and innovations

    With advances in communications technology, especially the deployment of 5G networking, facilities will be able to install more sensors, collect more data, and act on more information. Multiple sensors give a high-end view of operations and more insight into unforeseen events—and the potential to prevent them. 

    1. Analyzing data at source

    With vast amounts of data being continuously collected and analyzed, some smart factories are modifying their technical architecture by bringing data analysis and artificial intelligence (AI) technology to the “edge” — the point of data collection — to drive technical decision-making and analytics without the need for a massive, overloaded central repository, which can slow down analysis and action.

    Final Word

    With a bag of applications, IoT in manufacturing also comes with benefits like cost-efficiency, improved decision-making, quicker time-to-market, improved safety, high customer satisfaction, and much more. Businesses can adopt this technology to maximize productivity by ensuring production uptime, lowering expenses, and eliminating waste.

    Technosoft Engineering specializes in advanced embedded systems, IoT solutions, IIoT solutions, automation, sensor technology, and much more. Our aim is to leverage IoT data to increase demand forecasting and boost supply chain operations. Though complex in nature, we try to simplify every solution and augment your output.

     

  5. Engineering Design Process – Technosoft Engineering

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    Engineering design is the creation of systems curated with human effort. It is the result of integrating multiple technologies to solve a problem or meet user needs. The engineering design process involves step-by-step methodology from describing the problem statement to providing its solution.

    Solving design problems is an iterative process as the solution to the design problem evolves and requires continuous refinement. It is a decision-making process that applies basic sciences, mathematics, and engineering science to meet the stated objective. The key elements of the engineering design process are the establishment of objectives and criteria; synthesis; analysis; prototyping; testing; and post-analysis.

    This blog specifically targets elaboration at every stage of the design process.

    Stages Of Engineering Design Process

    1. Defining problem

    The design process starts with asking questions about the observed problems.

    • What is the need for design?
    • Who has this problem?
    • Why is it important to solve?
    • How will the design address the pain point?
    • What resources are needed to curate the solution?
    • How is the solution better than other solutions in the market?

    This set of the right questions helps to justify the design solution in the first place. 

    1. Research

    This includes interacting with individuals from a variety of backgrounds and expertise to assist in determining what products or solutions already exist or what technologies could be adapted to meet end needs. In the existing relevant literature, problems and successes associated with existing solutions, costs, and market demands should be considered. 

    Here are some questions to consider.

    • Is the problem real and the statement accurate?
    • Is there a need for a solution?
    • What are the existing solutions to the problem?
    • What is the right way of solving the problem?
    • What are the economic factors revolving around the solution?
    • What are the important factors (e.g., safety, aesthetics, effect on the environment, etc.) to the solution?

    The information source should be pertinent. If alternative solutions are commercially available, reverse engineering can be a useful technique. The Internet, local libraries, available government documents, personal organizations, trade journals, vendor catalogs, and available experts are additional sources of information.

    1. Design requirements

    It is also termed “problem definition,” which includes establishing design requirements and analysis of the same. Throughout the engineering design process, the product or process being developed is designed in accordance with the design requirements. 

    These include functions, attributes, and specifications, which are determined by analyzing user requirements. Hardware and software parameters, maintainability, availability, and testability are some of the design requirements.

    1. Feasibility

    A feasibility study is an evaluation and analysis of a proposed project’s potential to support the decision-making process. It outlines and evaluates potential alternatives or methods for attaining the desired result. The feasibility study narrows the project’s scope in order to identify the optimal scenario.

    The objective of feasibility analysis is to determine if the engineer’s project can proceed to the design phase. This is based on two criteria: the project must be based on a feasible concept, and it must be feasible financially. 

    1. Conceptualization

    Here, the pros and cons of the proposed idea are weighed. This stage is important because it mitigates the risk of errors, odds, manages costs, assesses risk, and also evaluates the potential success of the project. It is always suggested to propose multiple solutions, and potential solutions must be identified.

    The noted ones are different ways to approach different solutions.

    • Morphological analysis: In a chart, independent design characteristics are listed, and various engineering solutions are proposed for each solution. Typically, a preliminary sketch and brief report are presented alongside the morphological chart.
    • Brainstorming: This popular technique entails generating multiple ideas, typically in a small group, and adopting them in some form as a solution to a problem.
    1. Preliminary design

    This stage bridges the gap between design conceptualization and detailed design. In this, the general project location and design concepts are determined. It involves preliminary engineering and analysis activities like-

    • Environmental assessments
    • Topographic surveys 
    • Meters and bonds surveys
    • Geotechnical investigations
    • Hydrologic analysis
    • Hydraulic analysis
    • Utility engineering
    • Revenue estimations, etc.

    Subsequently, the overall system configuration is defined in this task, and schematics, diagrams, and layouts of the project may provide early configuration information.

    1. Detailed design

    This procedure entails conceptual design, embodiment design, and detail design, which, when executed professionally, results in a solution that is well-designed. This further involves the following stages-

    • Specifications checking
    • Defining subsystems, checking, and assembling parts
    • Finalizing individual parts and completing technical calculations
    • Conforming every part with standards
    • Documentation 

    CAD programs can be used in a detailed design process that can provide optimization with greater accuracy.

    1. Building a prototype

    A prototype is a functioning model of a solution. Generally, it is made with different materials than the final product and is less polished. Prototypes are crucial to the development of a final solution because they allow the designer to test the solution’s functionality.

    1. Testing and redesigning

    The design process involves numerous redesigns and iterations of the final solution. Before settling on a final design, it is likely that you will test your proposed solution, discover new issues, make modifications, and test new solutions.

    Final Thoughts

    The engineering design process, when systematically executed, generates better products with the seamless integration of multiple technologies. The whole point behind performing detailed research, analysis, and documentation is to come up with a product that solves the problem and adds further value to existing products in the market.

    As the whole process requires expertise, outsourcing engineering design becomes a preferable choice. To add value to that choice, Technosoft Engineering is here to process the design stage. Our expertise is but is not limited to-

    • General Arrangements & Layout preparation,
    • Intelligent part/sub-assembly/assembly/drawing creation
    • Geometric Dimensioning & Tolerance, Tolerance Stack-up
    • Hydraulic, Pneumatic Circuits & Piping Drawings
    • Machining, Fabrication, Weldment drawings for Manufacturing
    • BOM/Part list
    • Spare/Operation/Maintenance Manuals

    So, wait for no further and contact us today. Let’s invent a revolutionary solution!

  6. IT-Enabled Services – Technosoft Engineering

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    The global industry of IT grew from $8.4 billion in 2021 to $9.4 billion in 2022, i.e., at a rate (CGAR) of 11.6%. This growth is proportional to the ITeS (Information Technology Enabled Services) sectors’ growth. IT-enabled services cover the entire gamut of operations that involve information technology for improving the efficiency of a company. 

    By optimizing and managing the entire process, or by enhancing customer acquisition through efficient delivery funneling, IT promotes the exponential growth of a business. Every solution in IT is an integration of several technologies that help streamline the process and deliver better ROI. 

    Technosoft Engineering is an ITeS service provider company that equips innovative solutions with modern methodologies to generate a structured process for a successful business. This blog shall cover technology-enabled services by Technosoft, the benefits, and threats of ITeS.

    What are ITeS services?

    ITeS stands for Information Technology Enabled Services. It is also known as remote services and web-enabled services. ITeS encompasses a wide array of techniques and procedures that leverage IT to expand and improve the efficiency of a company. Additionally, it includes customer relationship management solutions and an improved database outlook to create seamless processes.

    IT-enabled services at Technosoft

    1. Design and development

    This is the creation of apps for mobile devices including PDAs, EDAs, and mobile phones. These apps can be pre-installed on phones during manufacturing or supplied as web apps using server-side or client-side processing (e.g., JavaScript) to create an “application-like” experience in a web browser. 

    The Mobile back-end supports data routing, security, authentication, authorization, offline work, and service orchestration.

    This is the creation of application software that runs in a web browser. The crux of designing a web application is developing user-friendly designs, responsive web pages, applications that are flexible with different web structures, and compelling functionality. 

    As this application runs in an open browser, it becomes important to integrate it with processes for authentication, authorization, asset handling, input, logging, and auditing to avoid security issues.

    “Web design” refers to the front-end (client side) design of a website, including markup. In web development, web design overlaps web engineering. Web design involves numerous techniques and disciplines in website creation and maintenance. Web design includes web graphic design, UI design, authoring (including standard code and proprietary tools), UX design, and SEO.

    1. Custom engineering and software applications

    These ITES services are tailored for specific organizations or users that are developed in iterative processes. It involves many departments like marketing, engineering, R&D, and general management. The custom solutions are used for content management, inventory management, customer management, HR management, etc.

    1. Data services

    This includes services like technical publishing with proper conceptualization and management. The entire process involves the collection, analysis, write-up, and publishing of the data. The process of publication incorporates creation, acquisition, copy-editing, production, circulation, marketing, and distribution of the material across various channels.

    1. Catalog data management

    To circulate the products digitally, catalog data management is essential. This involves centralizing technical and marketing information of all products in one place. It is nucleated in further stages that imply data extraction, capture, configuration, indexing, classification, and technical writing about every product.

    1. SEO and inbound marketing
    • Search engine optimization (SEO)

    This incorporates all the means of allowing the webpage to rank in SERPs. It involves detailed on-page and off-page activities like updating meta tags, uploading XML sitemap, URL restructuring, solving overall page health, bookmarking, classifieds submission, guest post submissions, outreach campaigning, and much more.

    • Search engine marketing (SEM)

    It is a valuable asset for any company to improvise digital visibility by setting up campaigns, setting accurate demographics, maximizing CTR, optimizing a landing page, analyzing each campaign, and optimizing performance.

    • Social media optimization (SMO)

    This involves handling all social media handles to optimize the implementation of marketing strategies. The minor segments incorporated into this are the implementation of analytics to target prospects, integration of CRM with lead generation campaigns, designing and engaging prospects with the designs, and much more.

    1. Email/Chat technical support

    Emails have become primary standards for business communications and establishing CRM. Email support services include scalable non-voice contact center support services, automated email generation, economical, and non-invasive email services. 

    Benefits and Threats of ITeS

    Benefits

    1. Flexibility: ITeS services offer complete flexibility and allow the company to change its structure and management at a reasonable cost. It focuses on core competencies and increases the speed of business.
    2. Scaling staff: IT-enabled services expand the reach to an additional workforce that grants unprecedented control over project management.
    3. Improved security: ITeS services come with additional security services like data monitoring, protection, and backup. 
    4. Improved focus: These services avail experts on desks and allow staff to focus on dedicated tasks and prioritize goals.

    Threats

    1. Security: Outsourcing an information system poses security threats from both the communication and privacy perspectives.
    2. Communication: Lapses in communication can be problematic and slow down the organizational process. 
    3. Morale: Depending on the extent to which a corporation utilizes external resources, morale is a factor to consider. Despondent employees may work less or become dissatisfied with their surroundings, resulting in a decline in quality and, in some situations, turnover.

    Nevertheless, threats can be mitigated by managing goals and outsourcing in a structured way.

    Final Thoughts

    IT-enabled services are looked up to increase the productivity and growth of a company. These are cumulative of all the services from addressing the target audience, analyzing the market, and 360-degree marketing solutions.

    Technosoft Engineering is your one-stop ITeS service provider where you get top-to-bottom solutions that shall escalate your business. We try to supply leading industries with IT solutions of the highest quality. Due to the increasing complexity and importance of the IT industry, we have developed cutting-edge approaches to provide you with creative solutions.

    If you are looking for technology enables services, connect with us and take your business to a next level.

  7. Mechanical vs. Electrical Engineering

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    Engineering is a dynamic field that offers impactful and lucrative opportunities along with the scope for advancements. This field requires a unique set of math, science, and computer skills. The term “engineering” refers to a wide range of specializations, including but not limited to computer, telecommunication, civil, mining, information technology, and so on, of which mechanical and electrical engineering are two subsets.

    Mechanical and electrical engineering are the driving forces behind technological progress and change in the world of design. These disciplines work closely in building projects and hence, it becomes to establish a thin line between the both. Possessing an understanding of the difference between the two gives a better idea of projecting and executing a successful project plan.

    Difference between Mechanical and Electrical Engineering

    Electrical Engineering – Power Generation

    Electrical engineering focuses on the study, design, and implementation of devices and systems that make use of electrical current, electronic circuitry, and electromagnetism. It is nucleated into different fields like computer engineering, system, power, telecommunication, radio-frequency, signal processing, instrumentation, photovoltaic cells, optics engineering, etc. 

    1. Power and energy

    Engineers’ design here deals with the generation, transmission, and distribution of electricity and the design of connected devices. This involves working on the power grid and off-grid systems. The technological future in this sector is a real-time feedback loop controlled by satellites to prevent power surges and blackouts.

    1. Telecommunications

    Engineers’ design here deals with the information transmission across a communication channel like cables, optical fibers, or free space. This involves modulation techniques like amplitude modulation and frequency modulation. Later, communication is established between transmitters and receivers, via a transceiver.

    1. Control engineering

    This focuses on the modeling of dynamic systems and the design of controllers that will help systems to perform in the desired manner. Electrical products used in this case are electronic circuits, digital signal processors, microcontrollers, and programmable logic controllers. These intricate designs are used in automobiles, airlines, cruise control, industrial automation, robotics, etc. 

    1. Electronics

    Electronic engineering entails the design and testing of electronic circuits that utilize the properties of components such as resistors, capacitors, inductors, diodes, and transistors to achieve a specific function. Integrated circuits are the modern electrical components that allow a device to generate the expected output.

    1. Microelectronics and nanoelectronics

    Microelectronics engineering designs and microfabricates small electronic circuit components for use in integrated circuits or as general electronic components. Nanoelectronics is the reduction of devices to nanometer dimensions. Both these involve the integration of chemistry and material science along with engineering postulates to redefine technology. 

    1. Signal processing

    It deals with the analysis and manipulation of signals. These signals can either be analog or digital, based on the information transferred. Signal Processing is the mathematical core of digital signal processing. It is rapidly expanding with new applications in every field of electrical engineering, such as communications, control, radar, audio engineering, biomedical engineering, etc., as analog systems are replaced with digital counterparts.

    1. Photonics and optics

    Photonics and optics involve the production, transmission, amplification, modulation, detection, and examination of electromagnetic radiation. The application of optics involves the design of optical-electrical products, such as lenses, microscopes, telescopes, electro-optical sensors, etc., that utilize the properties of electromagnetic radiation.

    Mechanical Engineering – Power Applications

    Mechanical engineering is a discipline that combines engineering physics and math principles with material science to design, analyze, and manufacture mechanical systems. The core of this field is an understanding of mechanics, dynamics, thermodynamics, material science, structural analysis, and electricity. 

    It involves the use of tools like computer-aided design, computer-aided manufacturing, management and design of manufacturing plants, industrial equipment, aircraft, robotics, home automation, medical devices, transport systems, etc. It is nucleated into-

    1. Mechanics

    It is the study of forces that act upon matter and is used to analyze and predict the acceleration and deformation of objects under forces. This involves subdisciplines of statics, dynamics, mechanics of materials, fluid mechanics, kinematics, and continuum mechanics. 

    1. Mechatronics and robotics

    Mechatronics combines mechanics and electronics. This interdisciplinary branch of mechanical, electrical, and software engineering integrates electrical and mechanical engineering to create hybrid automation systems. Electric motors, servo-mechanisms, and other electrical systems can automate machines with special software.

    Robots are used in industrial automation processes to perform labor-intensive tasks like bomb disposal, space exploration, heavy-load transportation, etc.

    1. Structural analysis

    It is a branch of mechanical engineering that deals with the performance of objects. This involves two modes- static failure and fatigue failure. Mechanical engineers design frequently use structural analysis after a failure has occurred or when designing to prevent failure.

    1. Thermodynamics and thermo-science

    Thermodynamics is the study of energy and its transformation through a system. Engineering thermodynamics is concerned with changing energy, eg., in automobiles chemical energy is converted to heat energy. It is used in fields of heat transfer, thermofluids, and energy conservation. 

    Thermo-science on the other hand is used to design power plants, heating, ventilation, HVAC, heat exchangers, radiators, refrigeration, etc.

    1. Design and drafting

    Mechanical engineers use drafting or technical drawing to design products and create instructions for manufacturing parts. They use computer-aided design (CAD) to create 3D designs. CAD-created three-dimensional models are also commonly used in finite element analysis (FEA) and computational fluid dynamics (CFD) (CFD).

    Mechanical Engineering vs Electrical Engineering

    1. Electrical engineering is more concerned with electricity and power generation systems, whereas mechanical engineering is more concerned with machines and their efficiency.
    2. Electrical engineering is more abstract because it discusses invisible waves, whereas mechanical engineering is less abstract because students can see what they are studying.
    3. Mechanical engineering is an older branch of engineering than electrical engineering, which developed rapidly after the invention of electricity and Michael Faraday’s formulation of its laws.
    4. Electrical engineering is significantly more theoretical and mathematical than mechanical engineering.

    Final Thoughts

    Engineering is all about making current processes work better and integrating them with modern technology. Mechanical and electrical engineering helps in creating solutions and boosting performance-oriented businesses. The thin line between both disciplines is visible, but their integration is important to bring an idea to reality.

    Technosoft Engineering provides mechanical and electrical engineering solutions to bring your ideas to reality. With a cross-functional approach, we aim to merge ideas with ultra-modern technology and use the same to solve a problem statement. Our services are, but are not confined to home automation, medical devices, plant automation, automobile, smart packaging, embedded systems, etc. 

    Get in touch with us today and bring in ultra-modern solutions in the real world.

  8. About Automotive Electrical Systems & Automotive Electrical Engineering

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    The automotive electrical systems and automotive electrical engineering industry have hyped the popularity of electric and hybrid vehicles. The advancements in vehicular technology with safety features, infotainment, body electronics, and powertrain have flooded the sector with increased demand. With respect to the same demand, the expected market size of automotive electronics is valued at $8.12 billion by 2028, with a CAGR of 7.48% every year.

    From classic electronics to passive safety features, automotive electrical Engineering comprises it all. All these features draw their power from a battery. It is a loop where the current flows from the positive terminal of the battery to generate an output like the lighting of gauges and flows back to the negative terminal.

    Thus, to get a basic understanding, this article will briefly explain how Automotive Electrical Engineering and automotive electrical systems work.

    What is an automotive electrical system & automotive electrical engineering?

    The automotive electrical systems & automotive electrical engineering include engine management, ignition, radio, telematics, car puters, infotainment systems, and many more. This system primarily generates, stores, and supplies electricity to vehicle systems. It also controls vehicle electrics like electrical gauges, digital gadgets, power windows, central locking mechanisms, etc.

    Components of an automotive electrical system

    1. Magneto

    Also known as ignition magneto, is a magneto (electrical generator that uses permanent magnets to produce alternating current) that provides current for the ignition system for a spark-ignition engine, like, a petrol engine. It consists of 3 components-

    1. Permanent magnets
    2. Coil
    3. Cranking mechanism

    This converts mechanical energy into electrical energy. With a constant magnetic field strength, it generates a steady output regardless of load variations.

    1. Generator/Dynamo

    It supplies the electrical energy for charging the battery that gets the drive from the engine through the fan belt. The generator converts mechanical energy into electrical energy, i.e., direct current (DC). This is because the electric components need DC to function, which they can directly consume. It consists of 3 components-

    1. Frame
    2. Armature
    3. Field coils

    A Dynamo takes the help of a commutator and uses rotating coils and a magnetic field to convert mechanical rotation into an electrical supply. They are placed on the tires of electric cars to produce energy and to maintain the efficiency of the car even when the accelerator is not pressed.

    1. Alternator

    Also known as AC generator. It is an inevitable part of a vehicle’s charging system. The alternator provides the electrical power that charges the battery, however, the current produced is alternating current (AC). Because vehicles use a 12-volt DC electrical system, this alternating current (AC) power is quickly converted to direct current (DC).

    It consists of 4 components-

    1. Frame or housing
    2. Rotor with electromagnets
    3. Stator
    4. Slip rings and bushes

    Its efficiency is not limited to fan cooling loss, bearing loss, iron loss, copper loss, and the voltage drop in the diode bridges, but also extends when combined with permanent magnets.

    1. Cut-out relay

    Also known as a circuit breaker, regulates and cuts the current output going to the battery. When the engine is running at low speeds, the generator output is frequently lower than the 12-volt battery output voltage. As a result, it is insufficient for charging the battery. 

    Because the battery voltage is greater than the generator output, in this case, the battery begins to drain into the generator. A voltage regulator/Cut-Out is used to prevent the battery from draining. It is responsible for connecting and disconnecting the generator from the battery.

    The DC generator is connected to a battery through a cut-out relay and an ammeter. It also maintains the voltage between 13.5 and 14.5 volts to protect other electric parts in the vehicle.

    1. Battery

    The battery stores electrical energy in DC form for future use. The positive terminal is directly connected to the engine starter motor. It aids in starting the engine by cranking the starter. The alternator immediately charges the battery while the engine is running. When the engine is turned off, the battery can power the electrical components.

    Working principle of an automotive electrical system

    1. The Automotive electrical systems in a vehicle are designed with switches or relay systems and are connected to the battery.
    2. When the engine starts, the electrical motor receives power from the battery.
    3. Via the combustion process, the engine keeps running and the alternator keeps charging the battery.
    4. When the engine slows down, the cut-off cuts the power between the battery and the generator.
    5. The alternate output voltage is maintained above the battery voltage to prevent it from draining and ensure smooth operation.

    Summing Up

    automotive electrical engineering work on the simple principle of electromagnetic induction. They are responsible for advanced automotive features like ABS, ASR, PA, airbags, emergency brakes, driver assistance, navigation systems, and passenger comfort systems. This requires the immense assistance of tools, both hardware and software.

    Technosoft is an automotive electrical engineering services provider company. We offer an extensive portfolio of product solutions, including 

    1. Designing and developing individual electrical components
    2. Chassis Electronics and Power Distribution
    3. 2D and 3D Wiring Harness Routing
    4. Wiring Harness Design
    5. Climate Control and Body Electronics
    6. Electrical Components Selection
    7. Electrical & Electronics Schematic System Design
    8. Manufacturing Process Setup
    9. Value Analysis/Value Engineering

    We try to merge the latest technology and serve advanced products to our clients!

     

  9. Electronic Hardware Design

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    The product development process & Electronic hardware design is the integration of two individual processes-

    1. Embedded hardware development
    2. Software development

    The Hardware Design Services shape the physical connection between users and technology. The hardware designs draw upon industrial design, interaction design, and electrical engineering. Its interface elements include touchscreens, buttons, knobs, sliders, switches, etc., and acquire high-end technology for seamless functioning. 

    Thus, to make the design and development of real and touchable products attainable, Technosoft engineering is here to design a cohesive vision alongside businesses that are more deeply embedded with technology at every product development stage. Our hardware design services are maturing day by day as our aim is to automate products and connect them to the internet.

    This article is a brief about our hardware design services.

    Hardware Design Services By Technosoft

    In the last decade, global trends have evolved in the area of human-machine-communication interfaces, and so have our Hardware Design Services. For modernized humanistic tools like aircraft, home automation, etc., the certainty that the embedded software runs through the body is essential. Whether it be a computer design or modern homes, the basic hardware components like IC wired logic gates, analog and hybrid devices, and other digital components remain constant. 

    To dig deeper, here are our four Hardware Design Services that provide an edge to the product.

    1. System Architecture Design

    Hardware architecture is the identification of a system’s physical components and their interrelationships. This stage of product development allows hardware designers to understand how components fit into the system and what software can be integrated to provide full functionality. 

    The need for hardware architecture design and optimization is that, if you enter a detailed design with architecture flaws, you may not be able to recover. Thus, a planning flow modulated by Technosoft is-

    1. Designing functional block diagram
    2. Plotting blocks with a partial BOM (Bill Of Materials) as a placeholder
    3. Assigning the functional blocks to PCBs
    4. Analyzing PCBs’ routability
    5. Optimizing functional blocks by moving them and establishing signal integrity
    6. Re-checking that the boards meet parametric and product requirements

    As product complexity rise and error limits shrink, hardware architecture design becomes a competitive requirement. 

    1. Verification and Validation

    These are essential stages as they define what outcome you expect and its validation. Verification determines whether you are building the right product (does the device meet end users’ needs), and validation determines whether you are building the product right (does the device output matches its inputs). 

    Stages of Verification and Validation:

    Design Verification Design Validation
    Designing output as expected Examining whether the design meets end users’ needs
    Testing systems, subsystems, and units Testing the system
    Processed during development Performed after development
    Testing individual modules or completed systems at every stage and under any conditions Testing modules under user conditions
    Inspecting, analyzing, and testing modules Testing of products under real-use conditions
    Preparing reports on tests and traceability. Preparing reports with test results, traceability, and regulatory view conditions.

    As the development stages proceed, it becomes important to ensure that the product being developed meets the needs.

    1. Custom PCB and Mechanical Design

    A PCB is a plate made of dielectric material with electrical circuits formed on its surface and volume. It is the heart of all electronic devices, and their designs can be customized based on the client’s requirements. Our modulated PCB design service delivery steps are noted below.

    1. Placing the components on the indicated area in technical specification
    2. Preparation of PCB layout 3D model
    3. Coordinating the placement of the components with the client on the 3D model
    4. Carrying out traces between elements
    5. Modeling the design and complying with signal integrity, power requirements, electromagnetic compatibility, and temperature distribution.
    6. Preparing final PCB 3D model
    7. Preparing a list of components for procurement
    8. Preparation of Gerber files for production of PCB

    Besides this, our mechanical design services include-

    1. Technical task analysis
    2. Sketching initial design and 3D modeling
    3. Prototyping and testing
    4. Preparation of technical documentation
    5. Production of the final product

    This line of execution makes it easy to build any product like engines, generators, smart housing, elevators, or even air conditioning. 

    1. Prototype Design

    The purpose of prototyping in hardware design is to answer questions from technical specifications to understand the clientele. Our prototyping support revolves around 3 stages-

    1. Ideation: This involves research and conceptualization 
    2. Prototyping: This involves two segments
    1. Alpha prototyping: Ths involves examining the core functionality, look, and feel of the proposed device in a controlled environment to demonstrate the actual functioning of the device.
    2. Beta prototyping: This involves functional testing and determines how well the device functions relative to consumer expectations.
    3. Productization: This involves bringing a product to actual reality by answering all questions and iterations.

    Prototyping is a multidisciplinary journey that involves answering questions after research and executing functionalities as required.

    Conclusion

    The hardware design services by Technosoft are the sum of all the aspects of product development, i.e., from research to production. Our services are not confined to hardware systems but extend to embedded software services and connectivity solutions. This enables us to produce a feature-rich product in-house. With our innovative practices and methods for hardware design, we have served our clients in industries like consumer products, surveillance, automation, and IoT with top-notch hardware design solutions.

    We have and will always deliver customized technology-rich products each time!

     

  10. Embedded Electronics & System Design – Define, Design, And Process

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    An Embedded Electronics Design is part of a device that uses electronic hardware and mechanical parts. These systems control the physical operations of the machine. Earlier, embedded systems development was based on microprocessors, and now they are based on microcontrollers (i.e., microprocessors with integrated memory and peripheral interfaces). 

    Embedded systems range from low complexity with a single microcontroller chip to high complexity with multiple chips. The systems are dedicated to specific tasks, and thus, they require proper optimization and an increase in reliability and performance. Specifically speaking about embedded system design, the complexities are not confined to chips, but also extend to the design of hardware and software components.

    In this article, we shall walk through the basics of embedded system design and also its applications.

    Embedded systems

    An embedded system is a computer system that consists of a combination of a processor, memory, and input/output peripherals. The total system generates the desired output in a mechanical or electronic system. There are billions of embedded systems devices like automobiles, digital devices, electronic appliances like washing machines, microwaves, and other devices like telephones, etc.

    All these devices have memory, a processor, peripherals, sensors, imaging systems, etc. Thus, the embedded system design is much more sophisticated and designed for specific use. Here, the input and output are specific. In some systems, where the real-time desired output is to be generated, real-time embedded systems are curated, which are intricate.

    Embedded system design

    As discussed, an embedded system = hardware + software.

    Hardware → to perform the task

    Software → to process the task

    Both hardware and software are interlinked to generate the desired output. The processor is the core part of the entire system. Depending on the needs, several interfaces and peripherals are interconnected to the system.

    The systematic architecture of an embedded system can be depicted below.

    1. Processor

    It is the heart of an embedded system that takes an input and produces an output after processing data. It consists of two units:

    1. Control Unit (CU) – It fetches instructions from the memory.
    2. Execution Unit (EU) – It has circuits that implement instructions for data transfer and conversion instructions.

    A processor runs these units over and over as the instructions are fetched from memory.

    There are different types of processors-

    1. General Purpose Processors (GPP) like Microprocessors, Microcontrollers, Embedded Processors, Digital Signal Processors, and Media Processors
    2. Application Specific System Processors (ASSP)
    3. Application Specific Instruction Processors (ASIPs)
    4. GPP core(s) or ASIP core(s) on either an Application Specific Integrated Circuit (ASIC) or a Very Large Scale Integration (VLSI) circuit.

    The choice of a process depends on the desired output and the complexity of the application.

    1. Interfaces

    Every physical device uses an interface to connect with the outside world. It selects two important boundaries:

    1. Between CPU software and digital interface logic.
    2. Between digital and analog sides of the interface.

    This communication is established with peripherals and other microcontrollers as a part of the whole embedded world. 

    There are many interfaces like-

    1. Serial communication interfaces
    2. Synchronous serial communication interface
    3. USB
    4. Networks like WiFi
    5. Debugging like JTAG
    6. Field buses like CAN

    The choice of interfaces differ based on the desired output.

    1. Peripherals

    The different peripheral devices establish communication between the embedded system and the outside environment in combination with the microcontroller. The choice of peripherals depends on:

    1. Operational speed of the microcontroller
    2. Space and prototyping of end-product
    3. Memory storage for data and programs
    4. A number of input and output devices connected
    5. Power consumption for maintaining the efficiency of the embedded system

    There are various interfaces like-

    1. Displays, e.g: Graphic LCD
    2. Multimedia cards, e.g: SD Cards
    3. Timers, Counters
    4. Analog to Digital Converters
    5. Input devices, e.g: keypad
    6. Output devices, e.g: LED
    7. Serial Communication Interface

    1. Firmware

    The flash memory chip in an embedded device is where the special software that controls the device’s functions is stored. It acts as a-

    1. Bridge between hardware and software applications.
    2. Channel of communication between human and machine

    The services associated with firmware are-

    1. System Architecture
    2. Design and Development
    3. RTOS/ OS/ Bare Metal Applications
    4. Porting & Optimization
    5. System Integration & Security

    It enables direct control of circuits and hardware components that include the above services to make execution seamless.

    1. Embedded Software

    This software is embedded inside the system that runs on top of firmware to provide unique features. They control different parts of the mechanical system. Embedded software is-

    1. Easy to configure and updatable.
    2. Are customizable and functionalities can be increased.

    There are different types of embedded software like-

    1. Embedded bare-metal software
    2. Embedded Linux software
    3. Embedded RTOS software
    4. Embedded networking software

    Some applications do need real-time data processing, which gives rise to real-time embedded systems, which are prominently used in today’s systems.

    Designing Embedded Systems

    All the parts mentioned above are integrated together in the following steps.

    1. Defining system specifications
    2. Defining system hardware and software requirements
    3. Selecting mainframe and associated technologies
    4. Defining the resources required and analyzing the budget
    5. Selecting hardware and software components
    6. Designing hardware, i.e., schematics, layout, PCB, and board
    7. Developing firmware and testing
    8. Entire system integration and testing

    Summing Up

    Embedded system design is an interesting field that integrates various skills and tasks. The advanced embedded system serves its applications in medical and industrial equipment, transportation systems, military equipment, consumer devices, and much more.

    Technosoft Engineering helps companies make smart and connected products by working with them on advanced embedded systems, embedded solutions, home automation, metering, sensor technology, home appliances, and medical devices. From consultation to designing custom PCB and embedded systems, the services cover 360-degrees embedded, connectivity, applications, mobility, and cloud solutions.

    If you too want to develop an outstanding technology with greater applicability in any field, you can connect with us!

  11. IoT Consulting Services – Technosoft Engineering

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    The Internet of things (IoT) is a physical object that connects and allows the exchange of data. The exchange of data among devices is done with objects having sensors, processing ability, software, and other technologies. These devices are connected over the internet or other communication networks to establish data transfer.

    IoT converges multiple technologies like ubiquitous computing, embedded systems, commodity sensors, and machine learning. Its rapid evolution has led to estimates that it could have an economic impact of up to $12.6 trillion by 2025. This opens the doors for IoT consulting companies that can grow enormously.

    Technosoft is an engineering solutions provider company. We work with customer electronics, home automation, sensor technology, and many more to create smart and connected devices. IoT technology integrates ambient intelligence and autonomous control that supports more than one common ecosystem and controls devices. And at Technosoft, we take the same technology to the next level and provide a dynamic and interactive environment.

    IoT Solutions and Services By Technosoft

    Our approach to development is direct integration of the physical world into computer-based systems, which results in economic benefits, reduced human exertion, and enhanced efficiency. Cutting intelligence is offered on three levels-

    1. IoT devices – Consists of networked things like sensors, actuators, etc., that connect with edge nodes/gateways.
    2. Edge nodes – Consists of data collection systems that provide pre-processing of data, secure connectivity to the cloud, edge analytics, etc.
    3. Cloud computing – Consists of database systems that store sensor data and handle communication that transpires in IoT devices and edge notes.

    We bring smart objects closer to reality by analyzing IoT data, extracting hidden information, and predicting control decisions.

    To meet the requirements of this intricate architecture, our IoT consulting services are divided into four stages.

    1. Embedded Systems Development

    “Change is the only constant.” With the integration of IoT, embedded systems are in a rapid rush to change their hardware, firmware, and electronics. This enhances the response or expected output. In this stage, we lay out a system architecture design. It involves the mapping of-

    • Hardware and software components
    • Embedded systems and IoT
    • Planning of software for IoT embedded systems
    • Interaction of humans and desired output

    Embedded systems transfer real-time data over the internet for extended applications like monitoring, tracking, analysis, etc.

    1. Connectivity Solutions

    It represents communications, transmission, and receiving data for a device to function properly. It involves methods including applications, sensors, trackers, gateways, and network routers. Our IoT connectivity services include-

    • Network enablement and stack integration
    • Stack development and porting
    • Gateway implementation and integration
    • Compliance with standard bodies

    The latest cellular 5G networks may actually become a universal solution for IoT connectivity, and we will try to integrate the same into our technologies. Furthermore, the requirements of satellite, extraterrestrial, cellular, and LPWA are served specifically.

    1. Applications and Mobility Solutions

    These are the actual connected digital gadgets. We build feature-rich connected applications from scratch or transfer and update existing legacy systems. We also look into UI/UX and follow design standards, workflows, and guidelines to ensure a seamless experience for web and mobile applications. Our services include-

    • Mobile – Android | iOS -Objective C & Swift | Cordova React Native | ionic | Mobile Angular UI
    • Web – HTML/CSS/PHP/Java/Python | Angular JS, React JS, Node JS | MySQL, PostgreSQL, MS SQL, MongoDB
    • Custom engineering – ASP.net, VB, VB.NET, Java, J2EE, PHP Microsoft.NET, C++, and C

    The main focus is a major shift to unlock backend values and express client-driven information in content that converts a system of record into a system of commitment.

    1. Analytics and Cloud

    We provide a centralized system that helps deliver and transport data across the Internet to data centers. The files and data can be accessed, stored, and used across different geographies. It also offers management and analysis of big data across multiple platforms and systems. Our services for analytics include-

    • Data Extraction, Transformation, and Loading (ETL)
    • Report Generation
    • Dash Boarding and Visualization
    • Real-time and Predictive Analytics

    Our services for Cloud include-

    • AWS & Microsoft Azure Based
    • Device to Cloud Connectivity
    • Cloud Applications
    • Cloud Analytics

    When every service is integrated together, IoT proves its potential in delivering values, enabling disruptive business models, seamless customer experience, resilient value chains, and productive resources.

    Technosoft –  Finest IoT Consulting Firm

    The elaborated services offered by us are applicable to the industries of home automation, customer electronics, smart metering, smart lighting, and medical devices. Our idea is to enable IoT for communication between devices to fulfill addressability, standards, ease of data storage, security, and safety, by designing for anarchic scalability and revealing the entire potential of IoT.

    If you are convinced that we can cater to your needs, get in touch with us today!

  12. Benefits Of PCB Design Services – Technosoft

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    Printed Circuit Boards (PCBs) are used in nearly all electronic devices. It is a laminated sandwich structure of conductive and insulating layers. PCB Design Services mechanically support electronic components by integrating conductive pads in the form of the component’s terminals. Due to their extreme versatility, PCBs have been used for electronic and biomedical engineering. They have been used to fabricate sensors like accelerometers, and actuators like microheaters, PCRs, and fuel cells. 

    What are Printed Circuit Boards (PCBs)?

    PCB Design Services are well-designed and manufactured boards comprising electrical components that are directly assembled to form a series of circuits. They primarily have two complementary functions-

    1. To affix the electronic components in designated locations on the outer layer by soldering
    2. To provide reliable electrical connections between component terminals

    Every conductive layer is designed with an artwork pattern of conductors that provide electrical connections. This sensitive and intricate work isn’t possible without a PCB Design Service. 

    What do PCB Design Services provide?

    A PCB design service provides the designing, manufacturing, testing, distributing, and repairing of a circuit board. Detailed steps are mentioned below.

    1. Design and Output
    2. From File to Film (mapping)
    3. Printing of inner layers (introducing copper)
    4. Removal of unwanted copper
    5. Alignment of layers and optical inspection
    6. Layering up and bonding
    7. Drilling
    8. Plating and copper deposition
    9. Outer layer imaging
    10. Plating
    11. Final etching
    12. Solder mask application
    13. Surface finish
    14. Silkscreening
    15. Electrical test
    16. Profiling and V-scoring

    The printed circuit board manufacturing process involves a lot of work. To guarantee the manufacturing of your PCBs with the expected quality, performance, and durability, it becomes important to choose the right manufacturer. Once you choose a high-level expert product design company, you get complete satisfaction with your device’s electrical and mechanical circuit requirements. 

    Advantages of Hiring A PCB Design Services

    Delegation is the only way for businesses to thrive. Technosoft Engineering provides PCB Design Services and has years of experience and expertise in this industry. If you partner with us, you get a wealth of knowledge and experience to apply to your printed circuit boards.

    The numerous advantages of employing a design service for your PCBs are mentioned below.

    1. Technical Competency

    The outsourcing of PCB layout gives you access to a team with a broader skillset without having to hire a full-time team internally. The professionals ensure that the layout and components meet your needs, while you focus on serving your existing customers. You avail the expert advice on concept ideas, schematics, and prototypes. You also get access to advanced areas like microwave/mmWave design and electro-optics. These areas require cutting-edge collaboration tools that are availed by PCB design companies. 

    1. Simplifies Your Product

    The PCB layout services offer you an additional advantage in pointing out and analyzing the locations on the product that needs to be improved. They review the schematics and the printed circuit board. This is to streamline the design and improve the product. It reduces the cost and time in the long run by maintaining circuit performance and introducing new features. This also reduces the chances of unnecessary rework. 

    1. Reduces Design Flaws

    If you have design errors in your printed circuit boards, having industry specialists on your side will help you overcome any issues with the design. This will also add a new perspective on the issue, which may be of great use when it comes to resolving the problem faster. They can add new features, improvements, and updates to the existing problem and enhance functionality with the wisdom of experts. 

    1. Rapid prototyping

    Prototypes are fundamental to the final development stage of PCBs, and it is important that you manufacture prototypes on time to stay on schedule. The new ideas can be designed and developed as PCBs quickly with the help of outsourcing company specialists. You can assure your product will go through procedures involving careful planning and thorough training. This will provide your product with maximum functionality.

    1. Easy diagnosis and repair

    When you work with a PCB design company, the components are identified and organized on the board in certain areas according to their function. As a consequence, diagnosing and correcting issues is simplified. The traces are visible, and the repair crew merely needs to check the route of the traces to discover the exact position of the issue.

    Summary

    It is clear that having expert PCB design services comes with benefits. From planning to prototyping, and from prototyping to testing and upgrading, every step is taken by the company. Having a back of expertise ensures optimum functionality of the product. 

    Technosoft Engineering provides PCB design services. We are committed to fulfilling your custom PCB design layouts and providing you with end-to-end product design and development services. With our 20+ years of experience, we guarantee your product will be reliable.

    To get in touch with us, visit our website at technosofteng.com.