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MIT 6.S081: Operating System Engineering →0/21
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Operating System Engineering: Introduction and Examples (MIT 6.S081, Lecture 1)

1:19:57
2

OS Organization and System Calls (MIT 6.S081, Lecture 3)

1:20:47
3

Page Tables (MIT 6.S081, Lecture 4)

1:33:05
4

RISC-V Calling Convention and Stack Frames (MIT 6.S081, Lecture 5)

1:15:08
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Isolation & System Call Entry/Exit (MIT 6.S081, Lecture 6)

1:27:30
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Operating System Engineering (MIT 6.S081, Lecture 7 Q&A for Labs)

1:27:14
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Page Faults (MIT 6.S081 Fall 2020, Lecture 8)

1:22:08
8

Interrupts (MIT 6.S081 Fall 2020 Lecture 9)

1:37:18
9

Lecture 10: Multiprocessors and Locks (6.S081)

1:32:56
10

Lecture 11: Thread Switching (6.S081)

1:31:27
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Lecture 13: Sleep & Wakeup (6.S081)

1:25:27
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Lecture 14: File Systems (6.S081)

1:25:39
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Lecture 15: Crash Recovery (6.S081)

1:30:30
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Lecture 16: File System Performance and Fast Crash Recovery (6.S081)

1:39:12
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Lecture 17: Virtual Memory for Applications (6.S081)

1:23:16
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Lecture 18: OS Organization (6.S081)

1:34:20
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Lecture 19: Virtual Machines (6.S081)

1:37:29
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Lecture 20: Kernels and High Level Languages HLL (6.S081)

1:34:28
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Lecture 21: Networking (6.S081)

1:33:15
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Lecture 22: Meltdown (6.S081)

1:30:48
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Lecture 23: RCU (6.S081)

1:28:07

Lecture 11: Thread Switching (6.S081)

Frans KaashoekMIT

Professor

1:31:27·2022·undergraduate level

This lecture from MIT's 6.S081 course meticulously details the mechanisms of thread switching, including saving and restoring CPU state, managing kernel stacks, and the role of the scheduler in context switching within an operating system kernel.

Systems & CSOperating SystemsComputer ArchitectureConcurrencyContext Switching
Previous · Lecture 9

Lecture 10: Multiprocessors and Locks (6.S081)

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Lecture 13: Sleep & Wakeup (6.S081)

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