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Mastering Real-Time OS: Predictability, Scheduling & Design

By Peter Alkema

A real-time system needs to consider when a response occurs as well as what the response is.

$79.00 Buy this course

Format
Course
Lessons
101
License
PLR
Mastering Real-Time OS: Predictability, Scheduling & Design

What's in the PLR package

1 file · 3.5 GB · Included with the PLR license

  • Mastering RTOS Concepts_ Determinism, Scheduling M_c15214dc-5eb4-49d9-9e03-5e491d946f30.zip 3.5 GB

Download links unlock in your account right after purchase.

Curriculum

101 lessons

  1. Lesson: What Makes an Operating System Real Time Focused a
  2. Lesson: Comparing General-Purpose Operating Systems with Real-Time System Principles
  3. Lesson: Key Characteristics That Distinguish Real-Time from Classic Operating System Design
  4. Lesson: Why Real-Time Predictability Matters in Safety-Critical Embedded Environments
  5. Lesson: Timeline of Real-Time Operating System Development and Notable Industry Examples
  6. Lesson: Understanding Predictability in Embedded Systems for Automotive and Aerospace Domains
  7. Lesson: How Real-Time Design Shapes Telecommunication and Control System Infrastructures
  8. Lesson: Critical Needs for RTOS in Medical, Industrial Automation, and Robotics Examples
Show 93 more
  1. Lesson: Essential Terminology in Real-Time Scheduling, Latency, and Task Responsibility
  2. Lesson: Life-Cycle Impact and Product Consequences of Real-Time System Design Errors
  3. Lesson: Determinism in Context: Timely, Repeatable Behavior Versus Non-Deterministic Systems
  4. Lesson: Why Deterministic Execution is Crucial in Healthcare, Automotive, and Robotics Domains
  5. Lesson: Design Techniques Assuring Consistent Responsiveness in Critical System Tasks
  6. Lesson: Influence of Hardware and Software Architectures on Deterministic Behavior
  7. Lesson: Case Study Analysis: Aviation Control System Determinism Failures and Remediation
  8. Lesson: Measuring and Ensuring Response Time Accuracy in Embedded Environments
  9. Lesson: Software and Hardware Factors Affecting Determinism and Time Predictability
  10. Lesson: Practical Examples: Manufacturing Line Robotics Requiring Tight Time Constraints
  11. Lesson: Effects of Operating System Overheads on Predictable Task Scheduling Outcomes
  12. Lesson: Industry Lessons Learned from Real-World Response Time Failures
  13. Lesson: Role of Microcontroller Architectures for Real-Time Operations and Determinism Support
  14. Lesson: Impact of Interrupts and Interrupt Latency in Embedded Software Design
  15. Lesson: Memory Management Techniques for Task Response Control and Predictability
  16. Lesson: Data Sharing and Task Synchronization Methods to Prevent Timing Violations
  17. Lesson: Case Example: Automotive Anti-lock Braking Systems Demanding Determinism
  18. Lesson: Understanding Task Life Cycle and State Transition Diagrams in Embedded Systems
  19. Lesson: How Prioritization Ensures Timely Execution in Safety and Security Critical Systems
  20. Lesson: Analysis: Task Overload, Preemption, and Task Deadline Management Strategies
  21. Lesson: Workflow of Task Switching and Context Saving in Real-Time Configurations
  22. Lesson: Insights from Real Vehicle Network Management with Dynamic Task Scheduling
  23. Lesson: Cooperative Versus Preemptive Task Scheduling Explained with Industrial Examples
  24. Lesson: Understanding Static and Dynamic Priority Scheduling and Their Trade-Offs
  25. Lesson: Designing Earliest-Deadline-First and Fixed-Priority Schedulers for Safety
  26. Lesson: Scheduler Overhead: Measuring the Impact on System Responsiveness and Performance
  27. Lesson: Scheduling Model Case Study: Medical Device Task Scheduling for Predictable Outcomes
  28. Lesson: What Preemption Brings to Multi-tasking and Emergency Response in Real-Time Use Cases
  29. Lesson: Latency Considerations and Impact of Unpredictable Interrupts in Design Decisions
  30. Lesson: Challenges in Preemptive Schedulers: Resource Contention and Starvation Risks
  31. Lesson: Examples: Preemptive Scheduling in Industrial Control Panels and Assembly Lines
  32. Lesson: Analyzing Scheduler Anomalies in Real-World Preemptive Environments
  33. Lesson: Definition and Operational Workflow of Cooperative Schedulers in Embedded Devices
  34. Lesson: Pros and Cons: Determinism Versus Lost Responsiveness in Cooperative Models
  35. Lesson: Case Example: Home Appliance Embedded Designs Using Cooperative Scheduling
  36. Lesson: Critical Pitfalls When Collaborative Tasks Miss Timely Responses in Real Environments
  37. Lesson: Lessons Learned from Commercial Products Experiencing Cooperative Scheduler Issues
  38. Lesson: How Priority Assignment Strategies Map to Application Requirements and Constraints
  39. Lesson: Priority Inversion: Risks, Causes, and Solutions in Product Environments
  40. Lesson: Priority Ceiling and Priority Inheritance Protocols for Resource Conflict Management
  41. Lesson: Real-World Case Study: Robotics Control Systems Relying on Priority-Based Scheduling
  42. Lesson: Designing for Multiple Priority Levels in Highly-Responsive System Architectures
  43. Lesson: Latency: Definition, Sources, and Impact on Real-Time Software Behaviors
  44. Lesson: Measuring and Diagnosing Latency in Control Systems and Medical Devices
  45. Lesson: Techniques to Minimize System and Interrupt Latency for Safety-Critical Devices
  46. Lesson: Impact of Network and Communication Latency in Distributed Embedded Systems
  47. Lesson: Industry Stories: Latency Control in Industrial Robots and Automated Systems
  48. Lesson: Jitter: Understanding Unpredictable Variations in Response Times and Deadlines
  49. Lesson: Analyzing Sources of Jitter in Embedded Software, Hardware, and Device Interactions
  50. Lesson: Design Techniques for Minimizing Jitter in Automotive and Consumer Electronics
  51. Lesson: Case Example: Jitter Impacts on Telemetry Data Acquisition in Medical Equipment
  52. Lesson: Why Predictable Jitter Control Saves Lives in Transportation and Aeronautics
  53. Lesson: Resource Sharing Issues and Their Effect on Real-Time Decision Execution
  54. Lesson: Semaphore, Mutex, and Event Usage for Synchronization in Embedded Systems
  55. Lesson: Deadlock and Livelock: Risks and Preventive Measures in Real-Time Scheduling
  56. Lesson: Examples: Synchronization Failures in Consumer Electronics and the Aftermath
  57. Lesson: Strategies for Time-Aware Resource Management in Industrial Control Systems
  58. Lesson: Trade-Offs in Highly Responsive Versus Simple System Architectures for Real-Time
  59. Lesson: Reliability and Fault-Tolerance Considerations in Safety-Critical Real-Time Devices
  60. Lesson: Design Patterns: Balancing System Complexity with Predictability and Maintainability
  61. Lesson: Assessing Project Risk When Altering System Responsiveness or Reducing Complexity
  62. Lesson: Case Study: Airbag Control Module�Trade-Offs for Reliability and Predictable Timing
  63. Lesson: Introduction to Task, Soft, and Hard Deadlines in Product and Safety Systems
  64. Lesson: Dealing Effectively with Deadline Overruns in Life-Saving Embedded Applications
  65. Lesson: Graceful Degradation Versus Catastrophic Failure in Missed Deadline Scenarios
  66. Lesson: Applying Deadline Management Models in Medical and Industrial Automation
  67. Lesson: Real-World Deadlines: Power Grid Control Systems and Emergency Shutdowns
  68. Lesson: Architectural Considerations for Satisfying Response, Latency, and Throughput Goals
  69. Lesson: End-to-End Timing Analysis Workflow for Embedded and Connected Devices
  70. Lesson: Tension between Schedulability, Performance, and Real-World Communication Constraints
  71. Lesson: Systems Engineering Approach: From Concept to Certification in Real-Time Domains
  72. Lesson: Case Study: Automotive Communication Buses Meeting End-to-End Timing Requirements
  73. Lesson: How Safety Standards Shape Determinism and Scheduling in Industrial Environments
  74. Lesson: Security Risks Introduced by Real-Time System Predictability and Scheduling Behavior
  75. Lesson: Certification Processes for Automotive, Medical, and Aerospace Real-Time Devices
  76. Lesson: Enabling Continuous Compliance in Long-Lived Embedded Product Lifecycles
  77. Lesson: Lessons from Certification Failures and Global Industry Recalls Impacting Real-Time Safety
  78. Lesson: Understanding Fault Types in Real-Time Embedded Products and Response Mechanisms
  79. Lesson: Designing Watchdog Timers for Timely Detection and Recovery from Failures
  80. Lesson: Graceful Degradation Versus Immediate Restart for Maintaining Essential Functionality
  81. Lesson: Case Example: Industrial Machinery Handling Partial System Failures Sustainably
  82. Lesson: Evaluating Diverse Recovery Schemes for Predictable Post-Fault Behavior
  83. Lesson: Multi-Core Real-Time Embedded Systems: Challenges and Deterministic Scheduling
  84. Lesson: Virtualization Impacts on Predictability and Scheduling in Critical Product Environments
  85. Lesson: Integrating Artificial Intelligence with Real-Time Constraints in Edge Computing
  86. Lesson: Emerging Trends: Time-Sensitive Networking and Internet of Things for Real-Time Control
  87. Lesson: Case Study: Drones and Autonomous Vehicles Coordinating via Real-Time Constraints
  88. Lesson: Key Lessons from Decades of Real-Time System Failures, Improvements, and Innovations
  89. Lesson: Future Trends and Predicted Shifts in Real-Time Scheduling and Embedded Design
  90. Lesson: Ethical Considerations for Engineers Building Safety-Critical Real-Time Systems
  91. Lesson: Lifelong Learning: Continuing Professional Development in Real-Time and Embedded Design
  92. Lesson: Final Reflections: Shaping Future Industries with Expertise in Real-Time Constraints
  93. Lesson: Resources

About this course

A real-time system needs to consider when a response occurs as well as what the response is. This course examines real-time operating-system concepts through predictable execution, scheduling and embedded-application constraints.

Real-time and general-purpose operating systems provide the initial comparison. Determinism, interrupts, latency and jitter then connect the terminology with the timing behavior of a system.

Consider the schedule and shared resources

Preemptive and cooperative scheduling are discussed alongside synchronization, mutexes and priority inversion. Hard, firm and soft deadlines provide different ways to examine what a timing requirement means.

Watchdogs, recovery and end-to-end timing extend the material beyond one task or interrupt. These subjects connect the RTOS with the wider behavior and reliability of an embedded application.

The course is a conceptual overview for learners exploring real-time systems. Safety-critical development requires the validation and professional processes appropriate to the application.

Use PLR for RTOS concepts education

With PLR, you can modify, rebrand and resell the training. You could tailor it for embedded-computing learners or place it alongside your own platform-specific teaching. Your own scheduling examples can help make the timing concepts relevant to your audience.

License rights

What each license lets you do. The full text is in the License terms.

License rights
Right PLR
Selling the course
Product may be sold separately YES
Product may be bundled with other products YES
Product can be a bonus for another product YES
Can be sold as a physical product YES
Can be sold as a digital product YES
Passing on rights
Can offer Resale Rights NO
Can offer Master Resale Rights NO
Can offer Private Label Rights NO
Show all 23 rights Show fewer rights
License rights, continued
Right PLR
Memberships, bonuses and lists
Can be added to paid membership sites YES
Can add bonuses to the Product for sale YES
Can be used to build a list YES
Rebranding and editing
You may put your own name on the sales letter YES
You may rename the product YES
You may edit the sales material YES
You may edit the content of the product YES
You may use the source code/material to create new products YES
You may use the name(s) of the author/creator/seller of the Product YES
Can translate the course into other languages YES
Not allowed with any license
Can be used for YouTube or other free video sites NO
Can be added to free membership sites NO
Can be given away for free NO
Can be used or sold on Uthena NO
Can be used or sold on Soofos, Udemy, Skillshare or other course marketplaces you don't own NO

Questions

What do I receive with a PLR or MRR license?

Downloadable package available: the complete course comes as files you download. The lessons are listed below; their online videos are still being added. PLR and MRR include a license key. Sales copy, editable formats and extras depend on the supplied package; check the listed contents.

What does lifetime access mean?

You can follow the course online for as long as it is available on Uthena. Downloadable files are guaranteed for 12 months from your purchase, so download them and keep your own copy.

Can I cancel my order?

Yes, within 7 days of your purchase: request a refund from your Uthena account. After 7 days an order can no longer be cancelled.

What if I want to speak to someone?

Email info@uthena.com, or support@uthena.com about an order, or use the contact form. We reply within two business days.

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