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GNSS GPS IMU INS Sensors - for ADAS and Autonomous Vehicles

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Suchit Kr

10:53:24

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  • 1. Introduction.mp4
    09:03
  • 1. Intro.mp4
    01:43
  • 2.1 my ADAS course.html
  • 2. ADAS and Autonomous Driving.mp4
    17:54
  • 3.1 My Automotive Camera online course 1.html
  • 3.2 my Automotive Radar online course.html
  • 3. Sensors in ADAS and Autonomous vehicles.mp4
    11:10
  • 4.1 Research paper GNSS-based Localization for Autonomous Vehicles Prospects and Challenges.pdf
  • 4. GNSS applications in ADAS and Autonomous Driving - Part 1.mp4
    12:11
  • 5.1 Research paper GNSS-based Localization for Autonomous Vehicles Prospects and Challenges.pdf
  • 5.2 Research paper Real-Time Hybrid Multi-Sensor Fusion Framework for Autonomous vehicles.pdf
  • 5. GNSS applications in ADAS and Autonomous Driving - Part 2.mp4
    09:52
  • 6.1 Research paper Application of GNSS technology in surface mining.pdf
  • 6.2 Research paper GNSS in Precision Agricultural Operations.pdf
  • 6.3 Research paper GNSS in railway signaling.pdf
  • 6.4 Research paper GNSS-based navigation systems of autonomous drone .pdf
  • 6.5 Research paper Location based services using geographical information systems.pdf
  • 6. GNSS applications - other domains.mp4
    07:32
  • 7. GNSS, INS sensors available in market.mp4
    06:49
  • 8. Some Terms and definitions.mp4
    13:46
  • 9. Outro.mp4
    02:26
  • 1. Intro.mp4
    02:44
  • 2. What is GNSS .mp4
    27:39
  • 3. GNSS - Segments.mp4
    08:40
  • 4. GNSS - satellites and signal generation.mp4
    18:50
  • 5. GNSS - signal propagation, reception and processing.mp4
    11:26
  • 6. GNSS - Position calculation using trilateration.mp4
    16:33
  • 7. GNSS Errors.mp4
    18:39
  • 8. GNSS - Techniques to resolve errors.mp4
    10:50
  • 9. Multi frequency and multi constellation receivers.mp4
    12:02
  • 10.1 coordinate frames.pdf
  • 10. GNSS coordinate system.mp4
    27:56
  • 11. Different representations of Latitude and longitude.mp4
    17:39
  • 12.1 GPS NMEA-0183 standard message definitions.pdf
  • 12. NMEA-0183 GNSSGPS message standard.mp4
    13:40
  • 13. Concept - Real time GPS measurement using raspberry pi 4.mp4
    08:31
  • 14.1 Concept - Real time GPS measurement using raspberry pi 4.pdf
  • 14.2 GPS NMEA-0183 standard message definitions.pdf
  • 14.3 gps neo 6m with pi4 raspbian.zip
  • 14. Implementation - Real time GPS measurement using raspberry pi 4.mp4
    18:46
  • 15. Outro.mp4
    01:38
  • 16. Quiz.html
  • 1. Intro.mp4
    01:55
  • 2. DGNSS - Differential GNSS and DGPS.mp4
    22:23
  • 3. SBAS - Satellite based Augmentation Systems.mp4
    15:31
  • 4. GBAS - Ground based Augmentation Systems.mp4
    05:37
  • 5. Code phased ranging and carrier phase ranging.mp4
    12:17
  • 6. RTK - Real Time Kinetic.mp4
    12:50
  • 7. PPP - Precise Point Positioning.mp4
    06:51
  • 8. Comparing various correction methods.mp4
    08:05
  • 9. Outro.mp4
    01:41
  • 1. Intro.mp4
    01:14
  • 2. Insights of IMU.mp4
    14:55
  • 3. Concept of Accelerometer - part 1.mp4
    15:11
  • 4. Concept of Accelerometer - part 2.mp4
    23:29
  • 5. Concept of Gyroscope - part 1.mp4
    16:54
  • 6. Concept of Gyroscope - part 2.mp4
    11:58
  • 7. Concept of Magnetometer.mp4
    21:52
  • 8.1 MPU-6000-Register-Map.pdf
  • 8.2 MPU-6050-Datasheet.pdf
  • 8. Concept - Interfacing and using IMU with raspberry pi 4.mp4
    16:30
  • 9.1 imu gy 521 with pi4 raspbian.zip
  • 9.2 Interfacing ACC GYRO with pi.pdf
  • 9. Implementation - Interfacing and using IMU with raspberry pi 4.mp4
    27:33
  • 10. Outro.mp4
    01:01
  • 11. Quiz - 2.html
  • 1. Intro.mp4
    03:20
  • 2.1 Improved Pedestrian Dead Reckoning Based on a robust adaptive kalman filter for indoor inertial location system.pdf
  • 2. INS (Inertial Navigation System).mp4
    23:26
  • 3. AHRS (Attitude and Heading Reference System).mp4
    09:25
  • 4. GNSS aided INS - Part 1.mp4
    13:59
  • 5.1 adaptive kalman filtering for low cost GPS INS localization for autonomous vehicles.pdf
  • 5.2 Direct Kalman filtering approach for GPS INS integration.pdf
  • 5.3 loose coupled GNSS INS fusion using kalman filter for GNSS signal blocking environment.pdf
  • 5. GNSS aided INS - Part 2.mp4
    14:53
  • 6. GNSS aided INS - part 3.mp4
    07:20
  • 7. GNSS CompassINS or Dual GNSSINS.mp4
    12:27
  • 8. Outro.mp4
    01:42
  • 1.1 01 a VINS Mono A Robust and Versatile Monocular Visual Inertial State Estimator.pdf
  • 1.2 01 Adaptive Sensor Fusion of Camera GNSS and IMU for Autonomous Driving Navigation.pdf
  • 1. Case study 1.mp4
    09:24
  • 2.1 02 A Sensor Fusion-Based GNSS Spoofing Attack Detection Framework for Autonomous Vehicles.pdf
  • 2. Case study 2.mp4
    07:26
  • 3.1 03 GNSS INS LiDAR SLAM Integrated Navigation System based on Graph Optimization.pdf
  • 3. Case study 3.mp4
    02:26
  • 4.1 04 Precise Positioning of Robots with Fusion of GNSS INS Odometry LPS and Vision.pdf
  • 4. Case study 4.mp4
    01:50
  • 1. Congratulations.html
  • 2. Reference Material for further learning.html
  • 3. My other courses.html
  • Description


    D-GNSS, DGPS, RTK, PPP, SBAS, GBAS, AHRS, Accelerometer, Gyroscope, Magnetometer, Python, fusion, Raspberry-pi 4

    What You'll Learn?


    • GNSS (Global Navigation Satellite Systems) in detail together with its role in ADAS and Autonomous vehicle test and development
    • Hands on with GPS sensor and raspberry pi 4 using python to receive real-time GPS data
    • Exploring various applications of GNSS based systems in automotive and non-automotive industry
    • Hands on with 3 axis accelerometer and 3 axis gyroscope with raspberry pi 4 and python
    • GNSS based correction methods - Differential GNSS, DGPS, SBAS, GBAS, RTK, PPP in detail
    • Foundation of accelerometer, gyroscope and magnetometer with mathematical insights
    • Understanding IMU - Inertial Measurement Unit and its importance in INS (Inertial Navigation System)
    • Getting deeper (only theoretical) into GNSS and INS based fusion using Kalman filter based approaches.
    • Details of AHRS (Attitude and Heading Reference System) and Dual GNSS / INS system
    • Multiple case-studies covering various fusion techniques (theoritical) and applications with GNSS and INS
    • Additional reference material in form of research litertures and web-links
    • By the end of this course, you will be confident to use GNSS/INS based sensor system for your ADAS / Autonomous vehicle test and validation in your work.

    Who is this for?


  • Anyone interested to learn and understand GNSS INS based measurement technology use for position, speed, time and heading estimation
  • People involved in ADAS and Autonomous vehicle development - it is highly recommended to do this course
  • More details


    Description

    Sensors are an indispensable part of Advanced Driver Assistance Systems (ADAS) and Autonomous Driving (AD) Technology. Sensors - like cameras, radar, lidar and ultrasonic are well known to all. These sensors are used to do external environmental perception around the vehicle and in some cases also to do in-vehicle perception.


    GNSS (Global Navigation Satellite System), GPS (Global Position System) together with INS (Inertial Navigation System) are used to find the location of the ego vehicle itself. These sensors are used for multiple applications in the ADAS and the AD industry. These applications include but are not limited to:

    1. Localization of vehicles on the road

    2. To generate ground truth data for sensor perception (radar, lidar, camera) validation

    3. To generate ground truth data for sensor fusion validation

    4. For validation of various ADAS functions in the deterministic test sites

    5. For using the GNSS/GPS highly accurate time - as a reference clock to synchronize (using NTP, PTP or gPTP) multi-sensor systems for algorithm development.

    6. In V2X (Vehicle to Other) and V2V (Vehicle to Vehicle) applications.

    and many more.......


    GNSS/GPS + INS sensors also have multiple applications in various non-automotive fields like Navigation with mobile phones and cars,  in Rail transport - to track locomotives, in aviation - for aircraft navigation from departure to landing, in marine - to track and navigate ships, in Port Automation, Precise Agriculture, Surface mining, Surveying, Drones, Smart Infrastructure application, etc


    As GPS/GNSS alone cannot provide centimetre-level accuracy (which is necessary for ADAS and AD applications), various add-on technologies are used

    1. DGNSS (Differential GNSS)

    2. DGPS (Differential GPS)

    3. SBAS (Satellite Based Augmentation System)

    4. GBAS (Ground Based Augmentation System)

    5. RTK (Real Time Kinematic)

    6. PPP (Point Precision Positioning)


    Moreover, Inertial Navigation Sensors - Accelerometer, Gyroscope and Magnetometer are also used with GPS /GNSS for better localization and accurate measurement, especially in situations where a GNSS signal is unavailable. This includes

    1. Inertial Navigation systems (INS), 

    2. GNSS-aided INS system,

    3. AHRS (Attitude and Heading Reference System),

    4. Dual GNSS (or GNSS compass) -aided INS system.


    In this course, you will learn all of the above-stated technologies so that you will be able to use them in your work and/or projects. In addition, hands-on practice in measuring real-time GPS and IMU data using low-cost sensors with raspberry pi 4 and python3 is included.


    Through this complete course which consists of 11 hours of videos, you will learn

    • Basics of ADAS (Advanced Driver Assistance systems) with some examples

    • Basics of AD (Autonomous Driving) together with SAE levels of automation

    • Brief understanding of various sensors like Radar, lidar, camera, and ultrasonic used in ADAS and AD.

    • Lots of applications covering the usage of GNSS + INS sensors in ADAS and AD industry as well as non-automotive domains

    • Various GNSS + INS devices available in the market (ranging from high cost to low cost)

    • Deeply understanding GNSS technology, signal processing, pseudo-range calculation, trilateration, GNSS errors, different ways to overcome these errors

    • Various types of coordinate systems and frames used in GNSS technology

    • What are latitude and longitude? Different ways to represent them and their inter-conversions

    • NMEA-0183 message structures for GPS measurement

    • Real-time GPS measurement using a low-cost GPS device, raspberry pi 4 and python 3.

    • Various Differential correction methods - DGNSS, DGPS, SBAS, GBAS, RTK, PPP

    • Understanding IMU (Inertial Measurement Unit) and then deep dive into the working of accelerometer, gyroscope and magnetometer

    • Real-time IMU measurement using  a low-cost IMU with raspberry pi 4 and python 3

    • Understanding INS (Inertial Navigation System) using a case study of pedestrian dead reckoning using INS

    • Deep dive into AHRS (Attitude and Heading reference system), GNSS-aided INS technology and Dual GNSS-aided INS technology.

    • Further case studies were taken from research papers to understand applications of GNSS and INS (along with other sensors) in ADAS, AD and robotics.


    Note: This course focuses more on understanding the concepts and provides insights into various technologies in this domain hence programming is intentionally kept to a minimum.


    Disclaimer: All the reference videos taken from various sources are only used for educational purposes and there is no intention to infringe copyright.


    Who this course is for:

    • Anyone interested to learn and understand GNSS INS based measurement technology use for position, speed, time and heading estimation
    • People involved in ADAS and Autonomous vehicle development - it is highly recommended to do this course

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    I am an Engineer by profession and I have done Masters in Electrical Engineering. I am working in the field of ADAS since several years. I love to teach and share my knowledge to the people to provide skills. With this aim, I am actively contributing to the field of education on this platform. I also do lot of hobby projects with Development boards raspberry pi, machine learning, computer vision, mobile robots, etc.
    Students take courses primarily to improve job-related skills.Some courses generate credit toward technical certification. Udemy has made a special effort to attract corporate trainers seeking to create coursework for employees of their company.
    • language english
    • Training sessions 56
    • duration 10:53:24
    • Release Date 2023/04/10