#Linux Kernel Programming Training

[emblogicsblog]

Character Device Driver Training

Character Device Driver Training - Dive into the fascinating world of Linux kernel programming with our Linux Character Device Driver Development Course. Designed for embedded systems engineers, aspiring kernel developers, and advanced computing students, this course provides an in-depth understanding of creating, managing, and debugging character device drivers.

Character device drivers are a vital component in Linux systems, facilitating seamless communication between hardware and software. Through this course, you’ll learn how to write efficient device drivers from scratch, manage hardware resources, and ensure smooth interaction between kernel space and user space.

With a mix of theory and practical labs, we’ll cover key topics such as file operations, memory management, interrupt handling, and synchronization techniques. Whether you’re new to device driver development or looking to enhance your skills, this course offers valuable hands-on experience. You’ll work on real-world projects, exploring how drivers integrate with user applications and interact with the hardware in real-time.

Our expert instructors will guide you through complex kernel programming concepts in a simple, easy-to-follow way. By the end of the course, you’ll be equipped with the skills to confidently tackle low-level programming challenges and build robust, scalable device drivers for Linux systems.

If you’re passionate about system-level programming and eager to enhance your career opportunities in embedded systems or kernel development, this course is for you. Gain certification, boost your expertise, and unlock exciting possibilities in the world of Linux development.

Start your journey into Linux Character Device Driver Development today and take the first step towards becoming an expert in kernel programming. Enroll now and transform your understanding of Linux systems!

Linux Device Driver Development, Character Device Driver Course, Linux Kernel Programming Training, Embedded Systems Driver Development, Linux Kernel Driver Tutorial, Device Driver Coding Workshop, Linux Hardware Interface Programming Kernel Module Development Course, Linux Driver Development Certification Linux System Level Programming.

[bliiot-jerry]

ARMxy Edge Controller with CODESYS for Industrial Automation Solutions

Case Details

CODESYS (Controller Development System) is an industrial control system development environment compliant with the IEC 61131-3 standard. It provides a comprehensive suite of tools for PLC (Programmable Logic Controller) programming, debugging, simulation, and commissioning. The combination of ARMxy Industrial Edge Controller and CODESYS delivers an efficient, flexible, and cost-effective solution for industrial automation. Below is a detailed analysis and summary of its advantages:

1. Core Component Analysis

ARMxy Industrial Edge Controller

Low Power Consumption & Compact Design: ARM architecture processors balance low power consumption with sufficient performance, ideal for space-constrained environments and long-term operation.

Industrial-Grade Reliability: Supports wide-temperature operation, vibration/electromagnetic interference resistance, and harsh industrial conditions.

Expandability: Rich interfaces (e.g., GPIO, CAN, Ethernet) enable seamless connectivity to sensors, actuators, and industrial networks.

CODESYS Development Platform

IEC 61131-3 Compliance: Supports five programming languages, including Ladder Diagram (LD) and Structured Text (ST), reducing the learning curve for engineers.

Cross-Platform Runtime: Transforms ARMxy Industrial Edge Controller into powerful soft PLCs via CODESYS Runtime, decoupling hardware from control logic.

Integrated Toolchain: Offers debugging, simulation, HMI visualization, and data management tools to streamline development.

2. Combined Advantages

Cost Efficiency Replaces traditional proprietary PLC hardware, reducing costs while leveraging the computational power of industrial PCs for complex tasks (e.g., data analysis, machine vision).

Flexibility and Scalability

Software-Defined Control: Rapidly adapt control logic to production line changes through CODESYS.

Multi-Protocol Support: Integrates Modbus TCP, EtherCAT, PROFINET, and other industrial protocols for seamless device integration.

Edge Computing Capabilities: Local execution of data preprocessing, AI inference, and other tasks reduces reliance on cloud resources.

Ease of Integration and Maintenance

Open Ecosystem: Supports OPC UA, MQTT, and other standards for MES/ERP system interoperability.

Remote Monitoring & OTA Updates: Enables remote diagnostics and firmware updates via the industrial PC’s networking capabilities.

3. Typical Application Scenarios

Smart Production Line Control: Coordinates robotic arms, conveyors, and inspection systems for flexible manufacturing.

Energy Management: Real-time monitoring of power and hydraulic systems to optimize efficiency.

Packaging and Logistics Automation: High-speed sorting, palletizing, and AGV scheduling.

Data-Intensive Applications: Predictive maintenance (vibration/temperature analysis) or visual quality inspection.

4. Challenges and Solutions

Real-Time Performance

Solution: Use real-time Linux kernels (e.g., Preempt-RT) or RTOS (e.g., FreeRTOS) to ensure microsecond-level response.

Validation: Test motion control performance using CODESYS’s PLCopen Motion library.

Hardware Compatibility

Solution: Choose CODESYS-certified ARMxy Industrial Edge Controller (e.g., ARMxy BL410 series) for driver and Runtime stability.

Custom Development: Extend functionality for specialized I/O modules via CODESYS’s C/C++ interfaces.

Developer Skillset

Training: Provide IEC 61131-3 training for traditional PLC engineers or adopt hybrid programming (e.g., Python integration).

5. Implementation Recommendations

Requirement Analysis: Define real-time requirements, communication protocols, and environmental conditions (temperature, EMC).

Hardware Selection: Choose CODESYS Runtime-certified ARMxy Industrial Edge Controller with long-term supply chain support.

Architecture Design: Separate real-time control tasks from non-real-time data processing for optimal resource allocation.

Testing & Validation: Conduct stress tests and fault injection in simulated environments to verify system robustness.

6. Future Trends

AIoT Integration: Embed lightweight AI frameworks (e.g., TensorFlow Lite) into CODESYS for edge intelligence.

Virtualization: Deploy multiple Runtime instances via containerization for task isolation.

Open-Source Collaboration: Deep integration between CODESYS communities and ARM ecosystems to drive standardized solutions.

Conclusion: The combination of ARMxy Industrial Edge Controller and CODESYS provides a highly flexible, scalable, and future-proof platform for industrial automation. It is particularly suited for SMEs and smart upgrade projects requiring rapid adaptation to market changes. With proper design and ecosystem support, this solution effectively balances performance, cost, and reliability.

[modulesap]

A new SAP BASIS consultant faces several challenges when starting in the role. Here are the most common ones:

1. Complex Learning Curve

SAP BASIS covers a broad range of topics, including system administration, database management, performance tuning, and security.

Understanding how different SAP components (ERP, S/4HANA, BW, Solution Manager) interact can be overwhelming.

2. System Installations & Migrations

Setting up and configuring an SAP landscape requires deep knowledge of operating systems (Windows, Linux) and databases (HANA, Oracle, SQL Server).

Migration projects, such as moving from on-premise to SAP BTP or HANA, involve risks like downtime and data loss.

3. Performance Tuning & Troubleshooting

Identifying bottlenecks in SAP system performance can be challenging due to the complexity of memory management, work processes, and database indexing.

Log analysis and troubleshooting unexpected errors demand experience and knowledge of SAP Notes.

4. Security & User Management

Setting up user roles and authorizations correctly in SAP is critical to avoid security breaches.

Managing Single Sign-On (SSO) and integration with external authentication tools can be tricky.

5. Handling System Upgrades & Patching

Applying support packs, kernel upgrades, and enhancement packages requires careful planning to avoid system downtime or conflicts.

Ensuring compatibility with custom developments (Z programs) and third-party integrations is essential.

6. High Availability & Disaster Recovery

Understanding failover mechanisms, system clustering, and backup/restore procedures is crucial for minimizing downtime.

Ensuring business continuity in case of server crashes or database failures requires strong disaster recovery planning.

7. Communication & Coordination

Working with functional consultants, developers, and business users to resolve issues can be challenging if there’s a lack of clear communication.

Managing stakeholder expectations during system outages or performance issues is critical.

8. Monitoring & Proactive Maintenance

New BASIS consultants may struggle with configuring SAP Solution Manager for system monitoring and proactive alerts.

Setting up background jobs, spool management, and RFC connections efficiently takes practice.

9. Managing Transport Requests

Transporting changes across SAP environments (DEV → QA → PROD) without errors requires an understanding of transport logs and dependencies.

Incorrect transport sequences can cause system inconsistencies.

10. Staying Updated with SAP Evolution

SAP is rapidly evolving, especially with the shift to SAP S/4HANA and cloud solutions.

Continuous learning is required to stay up-to-date with new technologies like SAP BTP, Cloud ALM, and AI-driven automation.

Mail us on contact@anubhavtrainings.com

Website: Anubhav Online Trainings | UI5, Fiori, S/4HANA Trainings

[technoscoe]

Top 10 Skills You’ll Learn in an Embedded System Development Course in India

Today, with advanced technology in every field, the world has taken a big step toward creating new industries and innovations. It is one of the most challenging and exciting fields, and it's worth investing in by enrolling in an embedded system development course in India. The knowledge and skills gained are useful for outstanding performance in various domains such as IoT, robotics, and automotive technology. Here, we look at the top 10 skills you would learn in an embedded system development course, including a fascinating project initiative, TechnosCOE.

1. Familiarity with Microcontrollers and Microprocessors

Microcontrollers and microprocessors are the foundation base for embedded systems. Courses include architecture, functioning, and programming, with hands-on experience in popular controllers such as Arduino, PIC, and ARM, which form the backbone of most embedded applications.

2. Programming Languages

One of the main emphases of an embedded system development course in India is acquiring skills in programming languages such as C and C++. These skills are essential to writing firmware and developing applications for embedded systems. It also makes some courses introduce Python for scripting and debugging purposes to improve a student's versatility.

3. Real-Time Operating Systems (RTOS)

The creation of efficient and reliable systems is based on the understanding of how RTOS works. These courses cover the principles of multitasking, scheduling, and inter-process communication. By mastering RTOS concepts, students can develop systems for industries such as telecommunications and healthcare.

4. Circuit Design and PCB Development

These contain custom circuitry designs and a printed circuit board (PCB). The knowledge gained from developing circuitry robust and efficient within Eagle and Altium Designer gives immense value toward the prototyping and product development phase.

5. Sensor integration and data acquisition

Modern embedded systems interact with the physical world through sensors. Courses teach students how to integrate sensors, process their data, and use it in meaningful ways. Applications include temperature monitoring, motion detection, and environmental sensing, among others.

6. IoT (Internet of Things) Development

IoT has changed the face of industries, and at the center of this change is the concept of embedded systems. Students are taught to design devices that are internet-enabled, which can talk to other devices, and perform analytics in real-time data. The same skill can be applied to smart home automation and industrial applications.

7. Embedded Linux

Training on Embedded Linux is generally a part of an embedded system development course in India. It is a highly versatile and widely used open-source software in the world of embedded systems. A student learns how to develop applications, configure the kernel, and build custom distributions for different types of devices.

8. Debugging and Testing Techniques

Debugging is a key tool in embedded system development. Students become experts in using tools like JTAG debuggers and oscilloscopes to identify and debug those issues. Techniques on testing address all the requirements for the performance and safety of the system.

9. Communication Protocols

Understanding communication protocols is very important to the embedded engineers. The curriculum covers some popular protocols such as I2C, SPI, UART, CAN, and Ethernet, which are usually used in applications such as car systems and automation in industrial places.

10. Project Management and Documentation

Beyond technical skills, students also learn project management techniques and documentation practices. These soft skills ensure that they can efficiently collaborate with teams, manage timelines, and maintain accurate records of their work.

Role of TechnosCOE in Embedded Learning

Most embedded system courses include real-world projects that allow students to apply their skills practically. TechnosCOE is one such project, an initiative designed to bridge the gap between theoretical knowledge and practical application. TechnosCOE offers students opportunities to work on cutting-edge projects involving IoT, robotics, and smart devices.

This initiative focuses on teamwork, innovation, and problem-solving, ensuring learners are industry-ready. Through the TechnosCOE, students are exposed to real-world challenges and learn how to apply embedded system principles to develop effective solutions.

Why Choose an Embedded System Development Course in India?

India is turning out to be a fast-growing hub for embedded technology. Industries like automotive, healthcare, and consumer electronics will have a vast number of opportunities. Embedded system development courses offered in India will ensure expert faculty members, state-of-the-art labs, and industrial collaborations. They also offer internship and placement support, which proves to be perfect for career growth.

Conclusion

The course on embedded system development course in India not only gives the students technical expertise but also prepares them for dynamic and rewarding careers. Mastering microcontrollers to developing IoT solutions, these skills are invaluable in today's technology-driven world. Initiatives like TechnosCOE further enhance the learning experience, making these courses a worthwhile investment for aspiring engineers.

[marketresearchauthority]

Emertxe Embedded Systems Online Course – A Gateway to a Thriving Career

Are you looking to kickstart your career in embedded systems but don't have the time to attend traditional classroom-based courses? Emertxe's Embedded Systems Online Course offers the perfect solution to gain in-depth knowledge and practical experience in this rapidly growing field from the comfort of your home.

Why Choose Emertxe’s Embedded Systems Online Course?

Emertxe is a leading provider of embedded systems training, offering specialized online courses designed to bridge the gap between academic knowledge and industry requirements. With its embedded systems online program, you can gain expertise in key areas such as microcontrollers, real-time operating systems (RTOS), device drivers, communication protocols, and much more.

Here’s why Emertxe’s embedded systems online course stands out:

1. Industry-Recognized Curriculum

Emertxe’s course content is developed in collaboration with industry experts and aligned with the latest trends and technologies in embedded systems. The online embedded systems program includes everything from the basics to advanced topics, ensuring that you are well-prepared for industry challenges.

2. Hands-on Learning Experience

Emertxe’s online embedded systems course focuses heavily on practical learning. You will work on real-time projects, assignments, and simulations that help solidify your understanding and improve your problem-solving skills. Emertxe’s online platform makes it easy to access tutorials, lab sessions, and code examples anytime, anywhere.

3. Experienced Trainers

Learn from highly qualified instructors who have hands-on experience in embedded systems development. Emertxe’s trainers are industry veterans who share their insights and guide you through the complexities of embedded system design and implementation.

4. Flexible Learning Pace

One of the key advantages of the Emertxe embedded systems online course is the flexibility it offers. You can learn at your own pace, revisit lessons whenever needed, and balance your studies with personal and professional commitments.

5. Job Placement Assistance

Emertxe provides placement assistance to its students. With its strong industry connections and a network of partner companies, Emertxe helps students get placed in top tech companies. Graduates of the online embedded systems program are highly sought after for roles such as Embedded Engineer, Firmware Developer, and Hardware Design Engineer.

Key Topics Covered in Emertxe’s Embedded Systems Online Course

Introduction to Embedded Systems: Learn the fundamentals of embedded systems, including their applications in various industries like automotive, consumer electronics, healthcare, and more.

Microcontroller Programming: Get hands-on experience in programming microcontrollers like ARM and AVR to build embedded solutions.

Real-Time Operating Systems (RTOS): Dive into RTOS concepts such as task scheduling, inter-process communication, and memory management to design responsive embedded systems.

Embedded C and C++ Programming: Master the core languages used in embedded systems programming and develop efficient, resource-constrained applications.

Device Drivers and Communication Protocols: Learn to develop device drivers and implement protocols like UART, SPI, I2C, and CAN to ensure seamless communication between components in embedded systems.

Embedded Linux: Explore the power of Linux in embedded systems and understand how to work with Linux kernel, drivers, and file systems.

Career Opportunities After Completing Emertxe’s Embedded Systems Online Course

Graduating from Emertxe’s embedded systems online program opens the doors to a wide range of career opportunities. The demand for skilled embedded systems professionals is soaring in sectors like automotive, aerospace, telecommunications, and consumer electronics. Emertxe’s curriculum equips you with the expertise needed to take on roles such as:

Embedded Systems Engineer

Firmware Developer

Embedded Software Developer

Hardware Engineer

Embedded Systems Consultant

How to Enroll in Emertxe’s Embedded Systems Online Course

Enrolling in the Emertxe embedded systems online course is simple. Visit the Emertxe website, select the online course option, and follow the easy steps to complete your registration. With flexible payment plans and a dedicated support team, Emertxe ensures that the entire process is smooth and hassle-free.

Final Thoughts

Emertxe's embedded systems online course is the perfect way to build a solid foundation in embedded systems while balancing your existing commitments. With a comprehensive curriculum, hands-on projects, and job placement assistance, Emertxe ensures that you are ready to take on exciting career opportunities in embedded systems development.

Ready to kickstart your career in embedded systems? Visit Emertxe Embedded Systems Online Course and enroll today!

[govindhtech]

PyTorch 2.5: Leveraging Intel AMX For Faster FP16 Inference

Intel Advances AI Development through PyTorch 2.5 Contributions

New features broaden support for Intel GPUs and improve the development experience for AI developers across client and data center hardware.

PyTorch 2.5 supports new Intel data center CPUs. Inference capabilities on Intel Xeon 6 processors are improved by Intel Advanced Matrix Extensions(Intel AMX) for eager mode and TorchInductor, which enable and optimize the FP16 datatype. Windows AI developers can use the TorchInductor C++ backend for a better experience.

Intel Advanced Matrix Extensions(Intel AMX)

Overview of Intel Advanced Matrix Extensions (Intel AMX) to fulfill the computational needs of deep learning workloads, Intel Corporation AMX extends and speeds up AI capabilities. The Intel Xeon Scalable CPUs come with this inbuilt accelerator.

Use Intel AMX to Speed Up AI Workloads

A new built-in accelerator called Intel AMX enhances deep learning training and inference performance on the CPU, making it perfect for tasks like image recognition, recommendation systems, and natural language processing.

What is Intel AMX?

Your AI performance is improved and made simpler using Intel AMX. Designed to meet the computational demands of deep learning applications, it is an integrated accelerator on Intel Xeon Scalable CPUs.

AI Inference Performance Enhancement

Improvement of AI Inference Performance Fourth-generation Intel Xeon Scalable processors with Intel AMX and optimization tools were used by Alibaba Cloud‘s machine learning platform (PAI). When compared to the prior generation, this enhanced end-to-end inferencing.

Optimizing Machine Learning (ML) Models

Improving Models for Machine Learning (ML)Throughput increases using the BERT paradigm over the previous generation were shown by Intel and Tencent using Intel AMX. Tencent lowers total cost of ownership (TCO) and provides better services because to the streamlined BERT model.

Accelerate AI with Intel Advanced Matrix Extensions

Use Intel Advanced Matrix Extensions to Speed Up AI. AI applications benefit from Intel AMX’s performance and power efficiency. It is an integrated accelerator specifically designed for Intel Xeon Scalable CPUs.

PyTorch 2.5

PyTorch 2.5, which was recently published with contributions from Intel, offers artificial intelligence (AI) developers enhanced support for Intel GPUs. Supported GPUs include the Intel Data Center GPU Max Series, Intel Arc discrete graphics, and Intel Core Ultra CPUs with integrated Intel Arc graphics.

These new capabilities provide a uniform developer experience and support, and they aid in accelerating machine learning processes inside the PyTorch community. PyTorch with preview and nightly binary releases for Windows, Linux, and Windows Subsystem for Linux 2 may now be installed directly on Intel Core Ultra AI PCs for researchers and application developers looking to refine, infer, and test PyTorch models.

What is PyTorch 2.5?

A version of the well-known PyTorch open-source machine learning framework is called PyTorch 2.5.

New Featuers of PyTorch 2.5

CuDNN Backend for SDPA: SDPA users with H100s or more recent GPUs may benefit from speedups by default with to the CuDNN Backend for SDPA.

Increased GPU Support: PyTorch 2.5 now supports Intel GPUs and has additional tools to enhance AI programming on client and data center hardware.

Torch Compile Improvements: For a variety of deep learning tasks, Torch.compile has been improved to better inference and training performance.

FP16 Datatype Optimization: Intel Advanced Matrix Extensions for TorchInductor and eager mode enable and optimize the FP16 datatype, improving inference capabilities on the newest Intel data center CPU architectures.

TorchInductor C++ Backend: Now accessible on Windows, the TorchInductor C++ backend improves the user experience for AI developers working in Windows settings.

SYCL Kernels: By improving Aten operator coverage and execution on Intel GPUs, SYCL kernels improve PyTorch eager mode performance.

Binary Releases: PyTorch 2.5 makes it simpler for developers to get started by offering preview and nightly binary releases for Windows, Linux, and Windows Subsystem for Linux 2.Python >= 3.9 and C++ <= 14 are supported by PyTorch 2.5.

Read more on govindhtech.com

[spacenutspod]

Screenshot of Copernicus with the Artemis I trajectoryNASA/JSC Copernicus, a generalized spacecraft trajectory design and optimization system, is capable of solving a wide range of trajectory problems such as planet or moon centered trajectories, libration point trajectories, planet-moon transfers and tours, and all types of interplanetary and asteroid/comet missions. Latest News August 13, 2024: Copernicus Version 5.3.2 is now available. December 18, 2023: Copernicus Version 5.3.1 is now available. This is a bugfix release. November 15, 2023: Copernicus Version 5.3 is now available. This update includes many bug fixes and various new features and refinements. Including: a new Copernicus mission file format, updates to kernels, a significant expansion of the beta Python API, and various new integration methods. In addition, we have upgraded to Python 3.10, and all dependencies are now obtained via conda. January 21, 2022: Copernicus Version 5.2 is now available. This update includes many bug fixes and various new features and refinements. June 17, 2021: Copernicus was selected as winner of the 2021 NASA Software of the Year Award. March 4, 2021: Copernicus Version 5.1 is now available. This update includes many bug fixes and various new features and refinements. June 26, 2020: Copernicus Version 5.0 is now available. This is a significant update to Copernicus and includes: A new modern Python-based GUI that is now cross-platform and fully functional on Windows, Linux, and macOS, 3D graphics upgrades including antialiasing and celestial body shadowing, a new Python scripting interface, many other new features and options, and bug fixes. May 1, 2018: Copernicus Version 4.6 is now available. The release includes the following changes: a new cross-platform JSON kernel file format, various new reference frame features, including new capabilities for user-defined reference frame plugins, and numerous bug fixes and other minor enhancements. January 24, 2018: Copernicus Version 4.5 is now available. The new version includes a new experimental Mac version, faster exporting of segment data output files (including the addition of a new binary HDF5 format), some new GUI tools, new plugin capabilities, and numerous other new features and bug fixes. October 1, 2016: Copernicus Version 4.4 is now available. The new version includes 3D graphics improvements and various other new features and bug fixes. February 8, 2016: Copernicus Version 4.3 is now available. The new version includes updates to the plugin interface, a new differential corrector solution method, updated SPICE SPK files, updates to the Python interface, new training videos, as well as numerous other refinements and bug fixes. July 21, 2015: Copernicus Version 4.2 is now available.  The update includes further refinements to the new plugin feature, as well as various other new features and some bug fixes. April 13, 2015: Copernicus Version 4.1 is now available.  This update includes a new plugin architecture to enable extending Copernicus with user-created algorithms.  It also includes a new Python interface, as well as various other new features and bug fixes. August 13, 2014: Copernicus Version 4.0 is now available.  This is an update to version 3.1, which was released in June 2012.  The new release includes many new features, bug fixes, performance and stability improvements, as well as a redesigned GUI, a new user guide, and full compatibility with Windows 7.  The update is recommended for all Copernicus users. Development The Copernicus Project started at the University of Texas at Austin in August 2001. In June 2002, a grant from the NASA Johnson Space Center (JSC) was used to develop the first prototype which was completed in August 2004. In the interim, support was also received from NASA’s In Space Propulsion Program and from the Flight Dynamics Vehicle Branch of Goddard Spaceflight Center. The first operational version was completed in March 2006 (v1.0). The initial development team consisted of Dr. Cesar Ocampo and graduate students at the University of Texas at Austin Department of Aerospace Engineering and Engineering Mechanics. Since March 2007, primary development of Copernicus has been at the Flight Mechanics and Trajectory Design Branch of JSC. Request Copernicus The National Aeronautics and Space Act of 1958 and a series of subsequent legislation recognized transfer of federally owned or originated technology to be a national priority and the mission of each Federal agency. The legislation specifically mandates that each Federal agency have a formal technology transfer program, and take an active role in transferring technology to the private sector and state and local governments for the purposes of commercial and other application of the technology for the national benefit. In accordance with NASA’s obligations under mandating legislation, JSC makes Copernicus available free of charge to other NASA centers, government contractors, and universities, under the terms of a US government purpose license.  Organizations interested in obtaining Copernicus should click here. For Copernicus-based analysis requests or specific Copernicus modifications that would support your project, please contact Gerald L. Condon (gerald.l.condon@nasa.gov) at the NASA Johnson Space Center. Current Version The current version of Copernicus is 5.3.2 (released August 13, 2024). References Publications about Copernicus C. A. Ocampo, “An Architecture for a Generalized Trajectory Design and Optimization System”, Proceedings of the International Conference on Libration Points and Missions, June, 2002. C. A. Ocampo, “Finite Burn Maneuver Modeling for a Generalized Spacecraft Trajectory Design and Optimization System”, Annals of the New York Academy of Science, May 2004. C. A. Ocampo, J. Senent, “The Design and Development of Copernicus: A Comprehensive Trajectory Design and Optimization System”, Proceedings of the International Astronautical Congress, 2006. IAC-06-C1.4.04. R. Mathur, C. A. Ocampo, “An Architecture for Incorporating Interactive Visualizations into Scientific Simulations”, Advances in the Astronautical Sciences, Feb. 2007. C. A. Ocampo, J. S. Senent, J. Williams, “Theoretical Foundation of Copernicus: A Unified System for Trajectory Design and Optimization”, 4th International Conference on Astrodynamics Tools and Techniques, May 2010. J. Williams, J. S. Senent, C. A. Ocampo, R. Mathur, “Overview and Software Architecture of the Copernicus Trajectory Design and Optimization System”, 4th International Conference on Astrodynamics Tools and Techniques, May 2010. J. Williams, J. S. Senent, D. E. Lee, “Recent Improvements to the Copernicus Trajectory Design and Optimization System”, Advances in the Astronautical Sciences, 2012. J. Williams, “A New Architecture for Extending the Capabilities of the Copernicus Trajectory Optimization Program”, Advances in the Astronautical Sciences, 2015, volume 156. J. Williams, R. D. Falck, and I. B. Beekman. “Application of Modern Fortran to Spacecraft Trajectory Design and Optimization“, 2018 Space Flight Mechanics Meeting, AIAA SciTech Forum, (AIAA 2018-1451) J. Williams, A. H. Kamath, R. A. Eckman, G. L. Condon, R. Mathur, and D. Davis, “Copernicus 5.0: Latest Advances in JSC’s Spacecraft Trajectory Optimization and Design System”, 2019 AAS/AIAA Astrodynamics Specialist Conference, Portland, ME, August 11-15, 2019, AAS 19-719 Some studies that have used Copernicus C. L. Ranieri, C. A. Ocampo, “Optimization of Roundtrip, Time-Constrained, Finite Burn Trajectories via an Indirect Method”, Journal of Guidance, Control, and Dynamics, Vol. 28, No. 2, March-April 2005. T. Polsgrove, L. Kos, R. Hopkins, T. Crane, “Comparison of Performance Predictions for New Low-Thrust Trajectory Tools”, AIAA/AAS Astrodynamics Specialist Conference, August, 2006. L. D. Kos, T. P. Polsgrove, R. C. Hopkins, D. Thomas and J. A. Sims, “Overview of the Development for a Suite of Low-Thrust Trajectory Analysis Tools”, AIAA/AAS Astrodynamics Specialist Conference, August, 2006. M. Garn, M. Qu, J. Chrone, P. Su, C. Karlgaard, “NASA’s Planned Return to the Moon: Global Access and Anytime Return Requirement Implications on the Lunar Orbit Insertion Burns”, AIAA/AAS Astrodynamics Specialist Conference and Exhibit, August, 2008. R. B. Adams, “Near Earth Object (NEO) Mitigation Options Using Exploration Technologies”, Asteroid Deflection Research Symposium, Oct. 2008. J. Gaebler, R. Lugo, E. Axdahl, P. Chai, M. Grimes, M. Long, R. Rowland, A. Wilhite, “Reusable Lunar Transportation Architecture Utilizing Orbital Propellant Depots”, AIAA SPACE 2009 Conference and Exposition, September 2009. J. Williams, E. C. Davis, D. E. Lee, G. L. Condon, T. F. Dawn, “Global Performance Characterization of the Three Burn Trans-Earth Injection Maneuver Sequence over the Lunar Nodal Cycle”, Advances in the Astronautical Sciences, Vol. 135, 2010. AAS 09-380 J. Williams, S. M. Stewart, D. E. Lee, E. C. Davis, G. L. Condon, T. F. Dawn, J. Senent, “The Mission Assessment Post Processor (MAPP): A New Tool for Performance Evaluation of Human Lunar Missions”, 20th AAS/AIAA Space Flight Mechanics Meeting, Feb. 2010. J. W. Dankanich, L. M. Burke, J. A. Hemminger, “Mars sample return Orbiter/Earth Return Vehicle technology needs and mission risk assessment”, 2010 IEEE Aerospace Conference, March 2010. A. V. Ilin, L. D. Cassady, T. W. Glover, M. D. Carter, F. R. Chang Diaz, “A Survey of Missions using VASIMR for Flexible Space Exploration”, Ad Astra Rocket Company, Document Number JSC-65825, April 2010. J. W. Dankanich, B. Vondra, A. V. Ilin, “Fast Transits to Mars Using Electric Propulsion”, 46th AIAA/ASME/SAE/ASEE Joint Propulsion Conference & Exhibit, July 2010. S. R. Oleson, M. L. McGuire, L. Burke, J. Fincannon, T. Colozza, J. Fittje, M. Martini, T. Packard, J. Hemminger, J. Gyekenyesi, “Mars Earth Return Vehicle (MERV) Propulsion Options”, 46th AIAA/ASME/SAE/ASEE Joint Propulsion Conference & Exhibit, July 2010, AIAA 2010-6795. J. S. Senent, “Fast Calculation of Abort Return Trajectories for Manned Missions to the Moon”, AIAA/AAS Astrodynamics Specialist Conference, August 2010. D. S. Cooley, K. F. Galal, K. Berry, L. Janes, G. Marr. J. Carrico. C. Ocampo, “Mission Design for the Lunar CRater Observation and Sensing Satellite (LCROSS)”, AIAA/AAS Astrodynamics Specialist Conference, August, 2010. A. V. Ilin, L. D. Cassady, T. W. Glover, F. R. Chang Diaz, “VASIMR Human Mission to Mars”, Space, Propulsion & Energy Sciences International Forum, March 15-17, 2011. J. Brophy, F. Culick, L. Friedman, et al., “Asteroid Retrieval Feasibility Study,” Technical Report, Keck Institute for Space Studies, California Institute of Technology, Jet Propulsion Laboratory, April 2012. A. V. Ilin, “Low Thrust Trajectory Analysis (A Survey of Missions using VASIMR for Flexible Space Exploration – Part 2), Ad Astra Rocket Company, Document Number JSC-66428, June 2012. P. R. Chai, A. W. Wilhite, “Station Keeping for Earth-Moon Lagrangian Point Exploration Architectural Assets”, AIAA SPACE 2012 Conference & Exposition, September, 2012, AIAA 2012-5112. F. R. Chang Diaz, M. D. Carter, T. W. Glover, A. V. Ilin, C. S. Olsen, J. P. Squire, R. J. Litchford, N. Harada, S. L. Koontz, “Fast and Robust Human Missions to Mars with Advanced Nuclear Electric Power and VASIMR Propulsion”, Proceedings of Nuclear and Emerging Technologies for Space, Feb. 2013. Paper 6777. J. Williams, “Trajectory Design for the Asteroid Redirect Crewed Mission”, JSC Engineering, Technology and Science (JETS) Contract Technical Brief JETS-JE23-13-AFGNC-DOC-0014, July, 2013. J.P. Gutkowski, T.F. Dawn, R.M. Jedrey, “Trajectory Design Analysis over the Lunar Nodal Cycle for the Multi-Purpose Crew Vehicle (MPCV) Exploration Mission 2 (EM-2)”, Advances in the Astronautical Sciences Guidance, Navigation and Control, Vol. 151, 2014. AAS 14-096. R. G. Merrill, M. Qu, M. A. Vavrina, C. A. Jones, J. Englander, “Interplanetary Trajectory Design for the Asteroid Robotic Redirect Mission Alternate Approach Trade Study”, AIAA/AAS Astrodynamics Specialist Conference, 2014. AIAA 2014-4457. J. Williams, G. L. Condon. “Contingency Trajectory Planning for the Asteroid Redirect Crewed Mission”, SpaceOps 2014 Conference (AIAA 2014-1697). J. Williams, D. E. Lee, R. J. Whitley, K. A. Bokelmann, D. C. Davis, and C. F. Berry. “Targeting cislunar near rectilinear halo orbits for human space exploration“, AAS 17-267 T. F. Dawn, J. Gutkowski, A. Batcha, J. Williams, and S. Pedrotty. “Trajectory Design Considerations for Exploration Mission 1“, 2018 Space Flight Mechanics Meeting, AIAA SciTech Forum, (AIAA 2018-0968) A. L. Batcha, J. Williams, T. F. Dawn, J. P. Gutkowski, M. V. Widner, S. L. Smallwood, B. J. Killeen, E. C. Williams, and R. E. Harpold, “Artemis I Trajectory Design and Optimization”, AAS/AIAA Astrodynamics Specialist Conference, August 9-12, 2020, AAS 20-649

[tccicomputercoaching]

Learn C and C++ after 12th

C is a high level language and structured programming language that was originally developed by Dennis M. Ritchie to develop the UNIX operating system at Bell Labs. While C++ contains object oriented concepts which has so many advantages as compared to C lang.

C is very popular because of Reliability, Portability, Flexibility, Interactivity, and Modularity. While C++ mostly focus on objects, polymorphism, programming to interfaces and dependency injection.

C is very popular because of Reliability, Portability, Flexibility, Interactivity, and Modularity.

C is a middle level programming language. Main feature of C is we can divide programme into the smaller modules which increases efficiency of programme.

C contains following topics at TCCI:

Introduction to C, Basic Syntax, Token, Data Types and Variables, Constants, Literals, Storage class, Operators, Loop Controls, For Loop, While Loop, Do-While Loop, Decision Making, Arrays, String, Function, Pointer, Structure, Union, Type Casting, Recursion, Files, Command Line Argument.

C++ is a general-purpose programming language.

C++ contains object oriented concepts which has so many advantages. It is designed in terms of System Programming and Embedded system.

You can learn languages, arrays, strings, inheritance, constructors/destructors, exception handling, files, etc. C++ is totally based on ASCII characters. It works well on different platforms such as Windows, Linux, Mac OS X, Android, iOS. So you can run your C programs wherever you live.

C++ is a high-level programming language that can be treated as both a low-level language and a high-level language, useful for developing games and desktop applications, and low-level language features useful for writing kernels and drivers.

C++ contains following topics at TCCI:

Introduction to C++, Basic Syntax, Object Oriented Concept, Data Types and Variables, Constants, Literals, Modifiers, Operators, Loop Controls, Decision Making, Class Structure with Object, Function, Arrays, String, Inheritance, Constructor-Destructor, Exception Handling, Files etc…..

TCCI Computer classes provide the best training in online computer courses through different learning methods/media located in Bopal Ahmedabad and ISCON Ambli Road in Ahmedabad.

For More Information:

Call us @ +91 98256 18292

Visit us @ http://tccicomputercoaching.com

[uswanth-123]

SAP Basis Details

SAP Basis: The Backbone of Your SAP System

If you’re involved with the world of SAP software, you’ve undoubtedly heard the term “SAP Basis” tossed around. But what exactly is it, and why does it play such a vital role? Let’s dive in and explore the essentials of SAP Basis!

What is SAP Basis?

Think of SAP Basis as the technological foundation upon which your entire SAP system rests. It’s a collection of programs and tools that act as the middleware – the translator and facilitator – between several key components:

Operating Systems: SAP Basis ensures your SAP system functions seamlessly on different operating systems like Windows, Linux, or Unix.

Databases: It manages the interactions between your SAP applications and the database (such as Oracle, SQL Server, or IBM DB2) where all your critical business data is stored.

SAP Applications: SAP Basis provides core services and the runtime environment necessary for different SAP modules (like Finance, Sales, or Production) to operate and communicate with each other.

Responsibilities of an SAP Basis Administrator

An SAP Basis administrator is responsible for keeping your SAP landscape running smoothly. Their core duties include:

Installation and Configuration: Setting up the SAP system, tuning it according to your organization’s specific needs, and applying updates or patches when needed.

System Administration: Managing user accounts, authorizations, and security to ensure only the right people have access to the right data.

Monitoring and Troubleshooting: Proactively keeping an eye on system health, performance, resolving technical hiccups, and preventing problems from escalating.

Backup and Recovery: Implementing a data backup strategy to safeguard your business information and the ability to recover if a disaster occurs.

Performance Optimization: Analyzing how the SAP system is running and making adjustments so everything functions at peak efficiency.

Transport Management: Overseeing the organized process of moving changes and developments between SAP environments (development, testing, and production).

Key Components of SAP Basis

SAP Basis includes various elements critical to system operation:

NetWeaver: This is the broader technical platform upon which Basis is built. It can host both classic SAP applications written in ABAP (the native SAP programming language) and newer applications developed in Java.

SAP GUI: The classic user interface many SAP users work with.

Work Processes: These are the core units of execution within the SAP system, handling user requests, background jobs, and system tasks.

Kernel: The very heart of the SAP system, controlling essential functions.

Why is SAP Basis Important?

A well-run SAP Basis environment provides:

Stability: It establishes a dependable foundation for business-critical operations, minimizing downtime.

Performance: It ensures that your SAP applications work quickly and responsively, enhancing user experience.

Security: Through proper configuration, Basis helps safeguard sensitive data.

Agility: It allows for seamless updates, upgrades, and integration with other systems, so your SAP environment can adapt to changing needs.

Let’s Wrap Up

If SAP is the engine powering your organization’s operations, then SAP Basis is the reliable chassis keeping everything together and moving forward. A strong understanding of SAP Basis concepts is crucial for anyone involved in managing or supporting SAP systems.

You can find more information about SAP  BASIS  in this  SAP BASIS Link

 

Conclusion:

Unogeeks is the No.1 IT Training Institute for SAP  BASIS Training. Anyone Disagree? Please drop in a comment

You can check out our other latest blogs on  SAP  BASIS here – SAP BASIS Blogs

You can check out our Best In Class SAP BASIS Details here – SAP BASIS Training

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[emblogicsblog]

🚀 Online Course Linux USB Device Driver Development with Emblogic! 🔥

Are you looking to enhance your expertise in an Online Course Linux USB Device Driver? Our online course is designed to provide hands-on, project-based training, covering everything from USB protocols to driver implementation and kernel integration. Whether you're a beginner or a professional, this course will help you build essential skills!

🎯 Why Learn USB Device Driver Development?

USB (Universal Serial Bus) is a crucial industry standard that enables communication and power supply between computers and electronic devices. Understanding USB driver development is essential for professionals in embedded systems, operating systems, and hardware integration.

🔍 What You Will Learn:

✔ USB Architecture & Protocols – Learn how USB communication works ✔ Linux Kernel & Device Drivers – Understand driver interaction with the kernel ✔ Writing & Debugging USB Drivers – Develop and test custom USB drivers ✔ Project-Based Learning – Gain hands-on experience through real-world projects

💡 Who Should Enroll?

This course is perfect for software developers, embedded engineers, and students who want to master USB driver development on Linux. Prior knowledge of C programming and basic Linux kernel concepts is recommended.

⭐ Why Choose Emblogic?

�� Expert-Led Training ✅ Hands-On, Project-Based Learning ✅ Flexible Online Access

🚀 Advance your career in embedded systems & Linux kernel development! 📢 Enroll now and start your journey to becoming a skilled Linux USB Device Driver Developer!

🔗 Register Here: https://www.emblogic.com/108/block-device-driver 📞 Call Us: +91-8527567776 💬 Chat on WhatsApp: Click Here 📍 Address: Bhagwan Sahai Palace, Metro Station Road, Sector 15, Noida, Uttar Pradesh 201301

📌 Follow us for more updates! 🚀💻

[my-internship]

Automotive Embedded Systems and Embedded Training Online

Course Overview:

The Automotive Embedded Systems and Embedded Training Online course offered by Embedded Box provides comprehensive training in the design, development, and implementation of embedded systems tailored specifically for the automotive industry. This course equips students with the knowledge and practical skills required to excel in the rapidly evolving field of automotive electronics and embedded systems.

Course Duration: 6 months

Course Content:

1. Introduction to Automotive Embedded Systems

Overview of automotive embedded systems

Importance of embedded systems in automotive applications

Trends and advancements in automotive electronics

2. Embedded C Programming for Automotive Applications

Introduction to the C programming language

Data types, operators, and expressions

Control structures and functions in C

Memory management and optimization techniques

Debugging and testing techniques for embedded systems

3. Microcontrollers and Microprocessors in Automotive Systems

Introduction to microcontrollers and microprocessors

Architecture and features of popular automotive-grade microcontrollers

Embedded development tools and IDEs

Interfacing peripherals and sensors with microcontrollers

Real-time operating systems (RTOS) for automotive applications

4. Automotive Communication Protocols

CAN (Controller Area Network) protocol fundamentals

LIN (Local Interconnect Network) protocol overview

FlexRay and Ethernet in-vehicle networking

Introduction to automotive diagnostic protocols (OBD-II, UDS)

5. Embedded Software Development Tools

Introduction to Integrated Development Environments (IDEs)

Debugging tools and techniques (emulators, simulators)

Version control systems (Git, SVN) for collaborative development

Code optimization and profiling tools

6. Automotive Embedded Software Design

Software architecture and design principles for automotive systems

Model-Based Design (MBD) using tools like Simulink

Design considerations for safety-critical automotive applications

Implementing automotive standards such as ISO 26262

7. Embedded Linux for Automotive Systems

Introduction to Linux kernel architecture

Customizing and configuring the Linux kernel for embedded systems

Device drivers development and integration

Embedded Linux filesystems and bootloaders

Yocto Project for building custom Linux distributions

8. Hands-on Projects and Case Studies

Design and implementation of automotive embedded systems projects

Integration of sensors, actuators, and communication modules

Real-world automotive system simulations and testing

Case studies on automotive embedded systems applications and challenges

9. Career Development and Industry Insights

Guidance on building a career in automotive embedded systems

Industry trends, job opportunities, and emerging technologies

Interview preparation and resume building workshops

Guest lectures from industry experts and professionals

10. Capstone Project

Final project where students apply their skills to design and develop a complete automotive embedded system

Project presentation and demonstration to showcase proficiency in automotive embedded systems development

Prerequisites:

Basic understanding of programming concepts

Familiarity with electronics and digital circuits

Access to a computer with internet connectivity

Certification:

Upon successful completion of the Automotive Embedded Systems and Embedded Training Online course, students will receive a certificate from Embedded Box, validating their proficiency in automotive embedded systems development.

[ishitablogs]

Aws services - Best quality tranning with 100%

Acent India Technoarts is Gurgaon’s best institute for providing quality industrial training and educational courses in Gurgaon. With Acent India the best AWS training in Gurgaon. At, accent India, we have the latest course content and training curriculum designed as per real-world industrial requirements standards. We have highly experienced and qualified professionals to provide high-quality practical Amazon web services AWS training in Gurgaon.

Acent India provides the best AWS training in Gurgaon as our trainers are highly qualified corporate trainers with experience working with big MNCs like Accenture and Google.

With Acent India( AIT India Technoarts) we assure quality training with 100% job-oriented training programs. We have the industry expert trainers for Amazon AWS training so that we can ensure students with high-quality Amazon AWS training and job placements offered by us.

The training program covers all basics to advance level concepts with live AWS projects and Interview preparation.

AWS (Amazon Web Services ) Training Curriculum- Acent India AWS training Syllabus Linux OS Installation & Setup

Linux Installation, Package Selection Anatomy of a Kickstart File, Command line Bash Commands Shell System Initialization, Starting the Boot Process: GRUB commands Boot Manager and Package Management:

How to Configure services to run at boot-up Single-user mode (SU login) Shutting down and rebooting the system RPM Package Manager, Installing and Removing Software, Updating a Kernel RPM Yum Command set, Install packages by using yum Apt-get commands set, Apt-cache package management Creating and Managing User Groups

Understanding different types of groups and creation of groups Creation of users in different groups Password aging Passwd, Shadow Files Understanding user’s security files The different commands for Monitoring the users System and Files Troubleshoot Setting up Server automation like Cron Jobs Run levels:

Different types of run-levels Understanding different types of shutdown commands Understanding run control scripts Understanding the different types

Website: https://www.acentindia.com/best-aws-amazon-web-services-training-institute-in-gurgaon/

[varunsngh007]

What is kube-proxy in Kubernetes?

In Kubernetes, kube-proxy is a component that runs on each node of the cluster and enables network communication between different services and pods. It acts as a network proxy and load balancer, facilitating the routing of network traffic to the appropriate destinations within the cluster.

The primary function of kube-proxy is to maintain network rules and implement the Kubernetes Service concept. It monitors the Kubernetes API server for changes to services and endpoints and ensures that the network rules are updated accordingly. It dynamically configures network routes and performs the necessary load balancing to ensure that network traffic is correctly distributed to the pods associated with a service.

Kube-proxy provides several modes of operation:

1. Userspace Mode: In this mode, kube-proxy runs as a userspace program and redirects traffic to the appropriate pods by implementing virtual IP tables. However, this mode is deprecated and is no longer recommended for production use.

2. IPVS Mode: IPVS (IP Virtual Server) mode leverages the Linux kernel's IPVS feature to perform load balancing. It offers improved performance and scalability compared to userspace mode. Kube-proxy configures IPVS rules and services to direct traffic to the appropriate pods.

3. IPTables Mode: In IPTables mode, kube-proxy uses IPTables rules to route and load balance traffic. This mode is the default and widely used. It sets up IPTables rules to forward traffic to the correct pods based on the service's cluster IP and port.

By maintaining network rules and load balancing, kube-proxy ensures that the services in the cluster are accessible and highly available. It allows clients to connect to services by using a single virtual IP and port combination, abstracting the complexity of managing individual pods.

In addition to service routing and load balancing, kube-proxy also provides features like proxy health checking, which monitors the health of backend pods, and session affinity, which allows traffic to be routed consistently to the same pod for a particular client session.  By obtaining a Kubernetes Training, you can advance your career in Google Cloud. With this course, you can demonstrate your expertise in the basics of set up your own Kubernetes Cluster, configure networking between pods and secure the cluster against unauthorized access, many more fundamental concepts, and many more critical concepts among others.

Overall, kube-proxy plays a crucial role in the networking layer of Kubernetes, enabling service discovery, load balancing, and reliable communication between services and pods within the cluster. It abstracts the complexities of network routing and load balancing, providing a seamless and reliable networking experience for applications running on Kubernetes.

[marketresearchauthority]

Master the Art of Device Driver Development with Emertxe’s Embedded System Course

In the world of embedded systems, device drivers play a crucial role. They are essential for enabling communication between the operating system and hardware devices. For anyone looking to build a career in embedded systems, mastering device driver development is a must. Emertxe’s Embedded System Course provides an in-depth understanding of how to create efficient device drivers and opens up a world of opportunities in embedded Linux development.

Why Learn Device Driver Development?

Device drivers act as a bridge between software and hardware, allowing applications to communicate with hardware components. Whether it's enabling a sensor to function in an IoT device or managing communication between a computer's peripherals, device drivers are at the heart of these operations. Key reasons to learn device driver development include:

High Demand: With the surge in IoT, automotive, and other smart devices, there is a growing need for skilled professionals who can write and optimize device drivers.

Core Embedded Knowledge: Developing device drivers enhances your knowledge of hardware architecture, operating systems, and real-time processing, making you a well-rounded embedded systems professional.

Career Growth: Expertise in device driver development can lead to lucrative job roles in industries like automotive, aerospace, telecommunications, and consumer electronics.

Emertxe’s Embedded System Course: A Gateway to Device Driver Mastery

Emertxe is one of India’s top training institutes for embedded systems, offering a comprehensive device driver in embedded system course. This course is designed for both beginners and professionals looking to expand their knowledge in embedded Linux and device drivers. Here’s what you can expect:

1. Hands-On Learning

At Emertxe, theory is only part of the learning process. The primary focus is on practical, hands-on experience. You will work with real hardware platforms and develop drivers for various devices such as GPIOs, UART, and more. This kind of exposure is invaluable in building the skills needed to thrive in the industry.

2. Comprehensive Curriculum

The curriculum covers everything from the basics of Linux internals to the complexities of writing custom device drivers. You will dive into topics like:

Kernel modules and system calls

Character and block drivers

Interrupt handling

Memory management

Synchronization mechanisms

Debugging and performance optimization

This structured approach ensures that you not only learn the theoretical aspects of device drivers but also get plenty of hands-on experience to reinforce your understanding.

3. Expert Mentorship

One of the key highlights of Emertxe’s training program is the access to experienced mentors who have real-world expertise in embedded systems and device driver development. They provide continuous support throughout your learning journey, helping you navigate challenges and improve your coding skills.

4. Industry-Relevant Projects

The course is project-driven, with industry-relevant assignments that mimic real-world problems. By the end of the course, you’ll have developed multiple device drivers for different types of hardware. These projects serve as a strong portfolio, enhancing your employability in the embedded domain.

Career Opportunities After Completing the Course

After completing Emertxe’s Embedded System course with a focus on device drivers, you’ll be well-prepared for various roles in the embedded systems industry, such as:

Embedded Software Developer

Device Driver Developer

Firmware Engineer

Linux Kernel Developer

IoT Engineer

These roles are in high demand in industries ranging from consumer electronics to automotive systems and industrial automation.

Why Choose Emertxe?

Emertxe offers a unique combination of theoretical knowledge, practical skills, and industry exposure that sets you apart from the competition. With its strong placement record and ties to top companies in the embedded domain, the institute ensures that you are job-ready by the time you complete the course.

100% Placement Assistance: Emertxe offers excellent placement services, ensuring you get access to opportunities in top embedded systems companies.

State-of-the-Art Infrastructure: The institute is equipped with modern labs and the latest tools, providing an optimal learning environment.

Flexible Learning Options: Emertxe offers both classroom and online training options, making it accessible to students across the country and abroad.

Conclusion

Emertxe’s Embedded System Course, with its emphasis on device driver development, is a perfect stepping stone for anyone looking to make a mark in the embedded systems industry. Whether you're a fresher or an experienced professional, the skills you gain here will open up new career opportunities and help you stay ahead in the fast-evolving world of embedded technology.

Ready to master device driver development? Join Emertxe today and kickstart your career!

[govindhtech]

PyTorch 2.4 to Speed Up AI Tasks Support for Intel GPUs

PyTorch 2.4 Launches to Speed Up AI Tasks with Initial Support for Intel GPUs. In order to further speed up AI tasks, PyTorch 2.4 now offers initial support for the  Intel Data Centre GPU Max Series, which integrates  Intel GPUs and the SYCL software stack into the standard PyTorch stack.

Advantages

With Intel GPU support, customers have more options for GPUs and can use a consistent front-end and back-end GPU programming model. Workloads can now be deployed and operated on Intel GPUs with little coding required. To support streaming devices, this version generalizes the PyTorch device and runtime (device, stream, event, generator, allocator, and guard). The generalization facilitates not only PyTorch’s deployment on widely available hardware but also the integration of many hardware back ends.

Integrated PyTorch provides continuous software support, standardized software distribution, and consistent product release schedules, all of which will improve the experience for users of Intel GPUs.

An Overview of Support for Intel GPUs

Eager mode and graph mode are supported in the PyTorch built-in front end thanks to Intel GPU support that has been up streamed into the program. The SYCL programming language is now utilized to implement popular Aten operators in the eager mode. OneAPI Math Kernel Library (oneMKL) and oneAPI Deep Neural Network Library (oneDNN) are used to highly optimize the most performance-critical graphs and operators. To perform the optimization for Intel GPUs and to integrate Triton, the graph mode (torch.compile) now has an enabled Intel GPU back end.

PyTorch 2.4 now includes the necessary parts of Intel GPU support: Aten operators, oneDNN, Triton, Intel GPU source build, and integration of Intel GPU tool chains. In the meantime, PyTorch Profiler which is built on an integration between Kineto and oneMKL is being actively worked on in front of the forthcoming PyTorch 2.5 release. The front-end and back-end enhancements for Intel GPUs that are currently being implemented into PyTorch are depicted in Figure 1.Image Credit To Intel

PyTorch 2.4 Features

Apart from offering essential functionalities for training and inference on the Intel Data Centre GPU Max Series, the PyTorch 2.4 release for Linux maintains the same user interface as other supported hardware for PyTorch.

Using an Intel GPU, PyTorch 2.4 features include:

Workflows for inference and training.

The core eager functions as well as torch.compile are supported, and both eager and compile modes can fully run a Dynamo Hugging Face benchmark.

Data types like automated mixed precision (AMP), BF16, FP32, and so on.

operates on the Intel Data Centre GPU Max Series and Linux.

PyTorch 2.5

The first Intel GPU from the Intel Data Centre GPU Max Series is now available in the PyTorch ecosystem for AI workload acceleration thanks to the Intel GPU on PyTorch 2.4 first support (prototype) release.

In order to achieve beta quality in the PyTorch 2.5 release, they are constantly improving the functionality and performance of the Intel GPU support. Intel Client GPUs will be added to the list of GPUs supported for AI PC use cases as the product develops further. They’re also investigating more features for PyTorch 2.5, like:

Eager Mode: Completely execute Dynamo Torchbench and TIMM eager mode, and implement additional Aten operators.

Torch.compile: Optimise performance while running Dynamo Torchbench and TIMM benchmark compile mode in full.

To support Intel GPU, enable torch.profile under the profiler and utilities section.

Distribution of PyPI wheels.

Support for Windows and the  Intel Client GPU Series.

They invite the community to assess these latest additions to PyTorch’s  Intel GPU support.

Intel Extensions For PyTorch

The most recent performance enhancements for Intel devices are added to PyTorch using the Intel Extension. The Intel XeMatrix Extensions (XMX) AI engines on Intel discrete GPUs and Intel Advanced Vector Extensions 512 (Intel AVX-512) Vector Neural Network Instructions (VNNI) and Intel Advanced Matrix Extensions (Intel AMX) on Intel CPUs are utilized in optimizations. Additionally, the PyTorch xpu device, in conjunction with Intel Extension for PyTorch, facilitates simple GPU acceleration for Intel discrete GPUs.

Workloads and models for Generative AI (GenAI) have become increasingly common in today’s technological environment. These GenAI applications are mostly driven by large language models, or LLMs. The Intel Extension for PyTorch has added special optimizations for a few Large Language Models (LLMs) as of version 2.1.0. See Large Language Models (LLMs) section for additional details on LLM optimizations.

For Python programs, the extension can be loaded as a module, and for C++ projects, it can be linked as a library. It can be dynamically enabled in Python programs by importing intel_extension_for_pytorch.

Buildings

Eager Mode: Custom Python modules (including fusion modules), optimum optimizers, and INT8 quantization APIs are added to the PyTorch frontend in the eager mode. Using extended graph fusion passes, eager-mode models can be transformed into graph mode to further increase performance.

Graph Mode: Performance is enhanced by fusions’ reduction of operator/kernel invocation overhead in the graph mode. In PyTorch, the graph mode typically produces better results from optimization techniques like operation fusion than the eager mode does.

They are enhanced by the Intel Extension for PyTorch, which offers more thorough graph optimizations. Supported graph modes are PyTorch Torchscript and TorchDynamo. They advise you to use torch.jit.trace() instead of torch.jit.script() when using Torchscript since it typically supports a larger variety of workloads. The ipex backend can deliver strong performance with TorchDynamo.

CPU Optimization: Based on the detected instruction set architecture (ISA), Intel Extension for PyTorch automatically assigns operators to underlying kernels on the CPU. The addon makes use of the Intel hardware’s vectorization and matrix acceleration units. For enhanced performance, the runtime extension provides weight sharing and more precise thread runtime management.

Intel GPU

GPU Optimisation: The PyTorch dispatching method is used to implement and register optimized operators and kernels on the GPU. The intrinsic vectorization and matrix calculating capabilities of Intel GPU hardware enhance certain operators and kernels. The DPC++ compiler, which supports both the most recent SYCL standard and several extensions to the SYCL standard, is used by the Intel Extension for PyTorch for GPU. These extensions are located in the sycl/doc/extensions directory.

Encouragement

GitHub issues are used by the team to keep track of bugs and enhancement requests. Check to see whether your issue has previously been reported on GitHub before making a proposal or bug report.

Read more on govindhtech.com

[tccicomputercoaching]

C++ class in Iscon Ambli road Ahmedabad

C++ is a high-level programming language that can be treated as both a low-level language and a high-level language, useful for developing games and desktop applications, and low-level language features useful for writing kernels and drivers.

Basic overview of C++, syntax, object-oriented concepts, data types and variables, constants, literals, modifiers, operators, loop control, decision-making, class structure with objects and functions, etc. in a simple way.

You can learn languages, arrays, strings, inheritance, constructors/destructors, exception handling, files, etc. C++ is totally based on ASCII characters. It works well on different platforms such as Windows, Linux, Mac OS X, Android, iOS. So you can run your C programs wherever you live.

These OOP concepts such as polymorphism, encapsulation, inheritance and abstraction make C++ superior to other programming languages. This feature is missing in C, but has proven to be very important as it helps users treat data as objects and classes.

Writing efficient code is essential for C++ programming as it allows you to make the most of the language’s low-level access to the computer’s hardware.

Programming is a constantly evolving field, and there is always something new to learn. Stay curious and stay updated with the latest developments, tools, and techniques in C++ programming.

TCCI provides the best training in C++ programming through different learning methods/media is located in Bopal Ahmedabad and ISCON Ambli Road in Ahmedabad.

For More Information:                                    

Call us @ +91 9825618292

Visit us @ http://tccicomputercoaching.com