Google Drive

Google Drive

In this session we will discuss what is internet of things and why to learn internet of things. Further we will see the growth and history of Internet of things and the concepts necessary to understand internet of things.

In this session we will discuss the power of IOT and how an IOT system actually works. Further we will see the fundamentals system on which IOT works.

In this session we will see more fundamentals of IOT system and further we will discuss the application of IOT. The term Internet of Things generally refers to scenarios where network connectivity and computing capability extends to objects, sensors and everyday items not normally considered computers, allowing these devices to generate, exchange and consume data with minimal human intervention.

In this session we will discuss an overview of Devices and Sensors and the different types of Sensors and devices. We will see about the properties of a sensor, such as Range, Sensitivity and Resolution. Further we will learn about the 10 most popular types of IOT sensors such as, Temperature Sensor, Humidity Sensor, Pressure Sensor, Proximity Sensor etc.

In this session we will discuss about the different IOT Device Hardware and its functions. We will also learn about the 4 building blocks of IOT Hardware with data acquisition module and communication modules.

In this session we will discuss about the Manufacturing and Shipping of Sensors and Devices. Further we will see the processes in manufacturing and shipping and importance of IOT Gateway device/ Software program.

In this session we will learn about the next component of IOT system, i.e. Connectivity and its introduction. Further we will see the role of cellular, Wi-Fi, satellite, Bluetooth and LPWAN.

In this session we will we will see the further part of connectivity. Basically in this video we will be covering Wi-Fi, Bluetooth and LPWAN as components of connectivity.

In this session we will learn about the Data processing in IOT. Further we will see the Introduction to the cloud and introduction to the IOT platform. This video further talks about when should your organization use an IOT Platform.

In this session we will see about the IOT platform types and its characteristics. Further we will see when to choose which IOT platform. This video talks about when do we need an IOT platform and API’s.

In this session we going to see another important component of IOT system, i.e. user interface and user experience in IOT. This video talks about the introduction to UI and UX for IOT. Further we will learn about user interface and history of UI.

In this session we will further talk about the User Interface and User Experience in IoT component. This video talks about the user experience and how IOT will change user experience. Further into the video we will learn about the Key consideration for UI.

In this session we will discuss about the IOT protocols and machine Learning for IOT. This video talks about the overview of protocols and IOT network protocols such as HTTP, LoRaWan, Bluetooth and ZigBee.

In this session we will discuss further about the IoT Protocols and Machine Learning for IoT. This video talks about the IOT Data protocols MQTT, CoAP, AMQP, M2M communication protocol, XMPP.

In this session we will further discuss about the Machine Learning Protocol for IOT. This video talks about the Machine to machine communication protocol and extensible messaging and presence protocol.

In this session we will discuss about the IOT for Smart cities. This videos tells us about what is a smart city, why do we need smart cities and what is the role of IOT in smart cities.

In this session we will further discuss about the IOT for Smart Cities. In this video we will see the practical part by doing smart city case study eg. Barcelona, Spain .

In this lecture session we learn that Legacy Embedded Systems can be defined as the hardware and software/firmware systems performing useful tasks traditionally but requiring reengineering and upgrades due to obvious reasons.

In this lecture session we learn about hardware in power plants, manufacturing machines controlled by computers running MS-DOS, or outdated financial systems. In reality, however, legacy applications still power important business processes in plenty of other companies around the world.

In this lecture session we learn about a legacy platform. Also called a legacy operating system, legacy platform is an operating system (OS) that is no longer in widespread use, or that has been supplanted by an updated version of earlier technology.

In this lecture session we learn about Legacy technologies which are essentially systems, technologies, software, or hardware that are outdated or obsolete. Often, legacy technologies are vital technologies, used in multiple processes and interdepartmental in an organization.

In this lecture session we learn that an embedded system is designed to perform one function with real-time applications. Embedded systems are found in simple devices like calculators, microwave & television remote controls, and also in more complicated devices such as home security and neighborhood traffic control systems.

In this tutorial we learn that Embedded Portfolio is written specifically for the particular hardware that it runs on and usually has processing and memory constraints because of the device's limited computing capabilities.

In this lecture session we learn how to fix (an object) firmly and deeply in a surrounding mass. It means that the system is part of a larger product (or system). For example virtually all modern vehicles have an Electronic Engine Controller (EEC).

In this lecture session we learn about Embedded firmware is the flash memory chip that stores specialized software running in a chip in an embedded device to control its functions. Firmware in embedded systems fills the same purpose as a ROM but can be updated more easily for better adaptability to conditions or interconnecting with additional equipment.

In this tutorial we learn about Embedded Software. Firmware is a layer of software on top of which operating systems and other applications run. Embedded software is stand-alone software capable of running the entire system which might or might not include an Operating system.

In this tutorial we learn about As an Embedded Test Engineer, you will join a group of hands-on, passionate, and seasoned professionals developing innovative products. Testing is primarily focused on qualifying and releasing custom hardware, embedded Linux distributions, embedded firmware, and maintaining releases.

In these lecture sessions we learn about An embedded systems or software engineer helps design, develop, and maintain embedded systems in products. The role often includes software development. But it also requires knowledge of entire embedded systems. There isn't a concrete definition of the role of an embedded engineer because it can vary by organization.

In this tutorial we learn about Embedded developers who are skilled software engineers that design and write code to control machines and devices. They specialize in developing programs for specific hardware used in cars, modems, appliances, and cellular devices, among others.

In this lecture session we learn about It is written specifically for the particular hardware that it runs on and usually has processing and memory constraints because of the device's limited computing capabilities. Examples of embedded software include those found in dedicated GPS devices, factory robots, some calculators and even modern smartwatches.

In this lecture session we learn about An embedded systems or software engineer helps design, develop, and maintain embedded systems in products. The role often includes software development. But it also requires knowledge of entire embedded systems.

In this lecture session we learn about An embedded hardware engineer is the person who helps to design and program the functions of these dedicated computer chips and systems. Embedded hardware can refer, of course, to mobile devices.

In this tutorial we learn about the main duties of embedded hardware engineers include selection of components, designing PCBs, Designing and performing hardware tests.

In this lecture session we learn about An embedded system is a microprocessor-based computer hardware system with software that is designed to perform a dedicated function, either as an independent system or as a part of a large system. At the core is an integrated circuit designed to carry out computation for real-time operations.

In this lecture session we learn about Embedded testing is the process of verification and validation of both software and hardware. It ensures the defect free whole system including software and hardware. It is basically performed on hardware in order to find the defects. It also ensures that the system meets the end user's requirements.

In this lecture session we learn about An embedded systems or software engineer helps design, develop, and maintain embedded systems in products. The role often includes software development. But it also requires knowledge of entire embedded systems.

In this lecture session we learn about Design For Testability (or Design for Test, or DFT) refers to design techniques that make products easier to test. Examples include the addition of test points, parametric measurement devices, self-test diagnostics, test modes, and scan design.

In this tutorial we learn about A fault simulator evaluating how a digital circuit will behave in the presence of manufacturing defects. It was a necessary tool for grading the goodness of a vector set when chips were tested by feeding functional patterns into them and looking to see that the chip produced known good results.

In this lecture session we learn about Iddq testing is a method for testing CMOS integrated circuits for the presence of manufacturing faults. It relies on measuring the supply current (Idd) in the quiescent state (when the circuit is not switching and inputs are held at static values).

In this tutorial we learn about Timing Verification consists of validating the path delays (primary input or storage element to primary output or storage element) to be sure they are not too long or too short and checking the clock pulses to be sure they are not too wide or too narrow.

In this lecture session we learn about A boundary scan is a testing standard which helps in defining the architecture and the techniques for solving hardware issues related to components such as printed circuit boards (PCBs) and integrated circuits. Traditional in-circuit testers are not well suited to testing highly complex and dense PCBs.

In this lecture session we learn that VHDL can be used for designing hardware and for creating test entities to verify the behavior of that hardware. VHDL is used as a design entry format by a variety of EDA

In this lecture session we learn about VHDL (which stands for VHSIC Hardware Description Language) was developed in the early 1980s as a spin-off of a high-speed integrated circuit research project funded by the U.S. Department of Defense.

In this tutorial we learn about VHDL is one of the commonly used Hardware Description Languages (HDL) in digital circuit design. VHDL stands for VHSIC Hardware Description Language. In turn, VHSIC stands for Very-High-Speed Integrated Circuit. VHDL was initiated by the US Department of Defense around 1981.

In this lecture session we learn about Sequential designs are developmental research designs that include elements of both cross-sectional and longitudinal studies; they are configured in ways to address confounds between age, cohort, and time of measurement.

In this tutorial we learn about a state machine is any device that stores the status of something at a given time and can operate on input to change the status and/or cause an action or output to take place for any given change.

In this lecture session we learn about Sometimes certain properties of sequential circuits may be used to reduce the number of gates and flip-flops during the design. STATE REDUCTION & ASSIGNMENT.

In this tutorial we learn about The reduction of the number of flip-flops in a sequential circuit is referred to as the state reduction problem. State-reduction algorithms are concerned with procedures for reducing the number of states in a state table, while keeping the external input-output requirements unchanged.

In this lecture session we learn about In digital circuit design, register-transfer level (RTL) is a design abstraction which models a synchronous digital circuit in terms of the flow of digital signals (data) between hardware registers, and the logical operations performed on those signals.

In this tutorial we learn about Verilog is an HDL used to model electronic systems while VHDL is an HDL used in electronic design automation to describe digital and mixed-signal systems such as field programmable gate arrays and integrated circuits.

In this lecture session we learn about Verilog HDL for designing hardware and for creating test entities to verify the behavior of a piece of hardware. Verilog HDL is used as an entry format by a variety.

In this tutorial we learn about Verilog, just like VHDL, is meant to describe hardware. Instead, programming languages such as C or C++ provide a high level description of software programs, that is, a series of instructions that a microprocessor executes.

In this lecture session we learn about SystemVerilog is a hardware description and verification language extended from Verilog and C++, and is based extensively on Object Oriented Programming techniques. UVM (Universal Verification Methodology) is a verification methodology standardized for Integrated Circuit (IC) Designs.

In this lecture session we learn about SystemVerilog is the most preferred language for the IP & Sub-system verification that demands constrained random verification. Also, it's an IEEE standard Hardware Design and Verification Language [HDVL] which can be used for both the RTL design and verification.

In this lecture session we learn about Designers of electronic hardware describe the behavior and structure of system and circuit designs using hardware description languages (HDLs)—specialized programming languages commonly known as VHDL, Verilog, and SystemVerilog.

In this lecture session we learn about A testbench is an HDL module that is used to test another module, called the device under test (DUT). The testbench contains statements to apply inputs to the DUT and, ideally, to check that the correct outputs are produced.

In this lecture session we learn that FPGA enables you to program product features, adapt to new standards, and reconfigure hardware for specific applications even after the product has been installed in the field — hence the term 'field-programmable'.

In this tutorial we learn that FPGAs are particularly useful for prototyping application-specific integrated circuits (ASICs) or processors. An FPGA can be reprogrammed until the ASIC or processor design is final and bug-free and the actual manufacturing of the final ASIC begins. Intel itself uses FPGAs to prototype new chips.

In this lecture session we learn about An FPGA (Field Programmable Gate Arrays) is a programmable chip used in various industry applications such as 4G/5G Wireless systems, Signal Processing Systems, and Image Processing Systems. FPGAs are also used as accelerators for CPU, prototyping of ASIC designs and in Emulation.