x86-64 declarations
parent
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commit
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@ -202,7 +202,7 @@
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"combinatorics/index.md": "66efa649c4c87e58fc82c2199096ade4",
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"_journal/2024-02-18.md": "67e36dbbb2cac699d4533b5a2eaeb629",
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"_journal/2024-02/2024-02-17.md": "7c37cb10515ed3d2f5388eaf02a67048",
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"combinatorics/multiplicative-principle.md": "14193048d2f8947cfc4082678bba6c50",
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"combinatorics/multiplicative-principle.md": "7c06835fa34cfefa217a10cf11ef4ab0",
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"combinatorics/additive-principle.md": "d036ac511e382d5c1caca437341a5915",
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"_journal/2024-02-19.md": "30d16c5373deb9cb128d2e7934ae256a",
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"_journal/2024-02/2024-02-18.md": "67e36dbbb2cac699d4533b5a2eaeb629",
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@ -218,7 +218,7 @@
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"_journal/2024-02/2024-02-21.md": "f423137ae550eb958378750d1f5e98c7",
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"_journal/2024-02-23.md": "219ce9ad15a8733edd476c97628b71fd",
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"_journal/2024-02/2024-02-22.md": "312e55d57868026f6e80f7989a889c2b",
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"c17/strings.md": "617821357921374bdb6db10f8c2f91ef",
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"c17/strings.md": "c0893d2eb34f43484af81b3c3d3835ed",
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"c17/index.md": "78576ee41d0185df82c59999142f4edb",
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"c17/escape-sequences.md": "a8b99070336878b4e8c11e9e4525a500",
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"c17/declarations.md": "f55d31e93e67f03577300d9e92129e82",
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@ -246,7 +246,7 @@
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"algebra/sequences/index.md": "91ec81d3aa22d1baef2ab4b24736c43c",
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"_journal/2024-03-02.md": "08c3cae1df0079293b47e1e9556f1ce1",
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"_journal/2024-03/2024-03-01.md": "70da812300f284df72718dd32fc39322",
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"algebra/sequences/triangular-numbers.md": "3623bebc476635cc7f5a3855221e1e31",
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"algebra/sequences/triangular-numbers.md": "e833b69d767fb33594716cb0b2bd6aa3",
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"algebra/sequences/square-numbers.md": "171f7c5a8dac088afba40923ab86c68e",
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"_journal/2024-03-03.md": "c4977a3778ed227b768c3f9ad5512670",
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"_journal/2024-03/2024-03-02.md": "8136792b0ee6e08232e4f60c88d461d2",
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@ -287,7 +287,7 @@
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"_journal/2024-03/2024-03-17.md": "23f9672f5c93a6de52099b1b86834e8b",
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"set/directed-graph.md": "b4b8ad1be634a0a808af125fe8577a53",
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"set/index.md": "b82a215fbee3c576186fc1af93c82fcb",
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"set/graphs.md": "bffffb0caee44f403130edbc1753e803",
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"set/graphs.md": "b2651abacb583dc21292da3dbe422179",
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"_journal/2024-03-19.md": "a0807691819725bf44c0262405e97cbb",
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"_journal/2024-03/2024-03-18.md": "63c3c843fc6cfc2cd289ac8b7b108391",
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"awk/variables.md": "e40a20545358228319f789243d8b9f77",
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@ -304,13 +304,17 @@
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"_journal/2024-03/2024-03-20.md": "0a73ce399d275fe6ee3134a812f3f4f9",
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"_journal/2024-03-22.md": "8da8cda07d3de74f7130981a05dce254",
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"_journal/2024-03/2024-03-21.md": "cd465f71800b080afa5c6bdc75bf9cd3",
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"x86-64/declarations.md": "8efbeca5fa347571f5c3502afc3a6807",
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"x86-64/declarations.md": "75bc7857cf2207a40cd7f0ee056af2f2",
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"x86-64/instructions.md": "240b4ceddf174f48207ba6bed4d25246",
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"git/refs.md": "954fc69004aa65b358ec5ce07c1435ce",
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"set/trees.md": "56ef76493abcbfdb0256a54dc2d72ba3",
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"_journal/2024-03-24.md": "f70f3ae6c75eab485c993869f0e6ffbd",
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"_journal/2024-03-24.md": "1974cdb9fc42c3a8bebb8ac76d4b1fd6",
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"_journal/2024-03/2024-03-23.md": "ad4e92cc2bf37f174a0758a0753bf69b",
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"_journal/2024-03/2024-03-22.md": "a509066c9cd2df692549e89f241d7bd9"
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"_journal/2024-03/2024-03-22.md": "a509066c9cd2df692549e89f241d7bd9",
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"_journal/2024-03-25.md": "e8edd82e6416c558204a321b1d866058",
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"_journal/2024-03-26.md": "c21d80f07a8056a5a0a31ade8f2f6f65",
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"_journal/2024-03/2024-03-25.md": "458bce81efc28130478309b847fa197c",
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"_journal/2024-03/2024-03-24.md": "1974cdb9fc42c3a8bebb8ac76d4b1fd6"
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},
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"fields_dict": {
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"Basic": [
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@ -0,0 +1,11 @@
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---
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title: "2024-03-26"
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---
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- [x] Anki Flashcards
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- [x] KoL
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- [ ] Sheet Music (10 min.)
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- [ ] Go (1 Life & Death Problem)
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- [ ] Korean (Read 1 Story)
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- [ ] Interview Prep (1 Practice Problem)
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- [ ] Log Work Hours (Max 3 hours)
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@ -2,7 +2,7 @@
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title: "2024-03-24"
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---
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- [ ] Anki Flashcards
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- [x] Anki Flashcards
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- [x] KoL
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- [ ] Sheet Music (10 min.)
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- [ ] Go (1 Life & Death Problem)
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@ -0,0 +1,13 @@
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---
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title: "2024-03-25"
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---
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- [x] Anki Flashcards
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- [x] KoL
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- [ ] Sheet Music (10 min.)
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- [ ] Go (1 Life & Death Problem)
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- [ ] Korean (Read 1 Story)
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- [ ] Interview Prep (1 Practice Problem)
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- [ ] Log Work Hours (Max 3 hours)
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* Primary worked on the hide and seek application. Can now create and join rooms using Phoenix Liveview.
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@ -22,7 +22,7 @@ END%%
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%%ANKI
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Basic
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What is a figurate number?
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Back: Polygonal numbers or generalizations of polygonal numbers to other dimensions.
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Back: Polygonal numbers and their generalizations to other dimensions.
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Reference: “Triangular Number,” in _Wikipedia_, January 13, 2024, [https://en.wikipedia.org/w/index.php?title=Triangular_number&oldid=1195279122](https://en.wikipedia.org/w/index.php?title=Triangular_number&oldid=1195279122).
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<!--ID: 1709419325856-->
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END%%
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@ -731,7 +731,7 @@ END%%
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%%ANKI
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Cloze
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The {`%G`} format specifier outputs a {uppercase `double` in fixed-point or standard notation}.
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The {`%G`} format specifier outputs an {uppercase `double` in fixed-point or standard notation}.
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Reference: “Printf,” in *Wikipedia*, January 18, 2024, [https://en.wikipedia.org/w/index.php?title=Printf&oldid=1196716962](https://en.wikipedia.org/w/index.php?title=Printf&oldid=1196716962).
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Tags: printf
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<!--ID: 1710844199536-->
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@ -35,16 +35,9 @@ Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (
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<!--ID: 1710796166572-->
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END%%
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%%ANKI
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Cloze
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A {1:directed} graph $G$ is a pair $\langle V, E \rangle$, where $V$ is a {2:finite set} and $E$ is a {2:binary relation on $V$}.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937771-->
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END%%
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%%ANKI
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Basic
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Let $G = \langle V, E \rangle$ be a directed graph. What conditions must $V$ satisfy?
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Let $G = \langle V, E \rangle$ be a directed graph. What kind of mathematical object is $V$?
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Back: It is a finite set.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937776-->
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@ -52,8 +45,8 @@ END%%
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%%ANKI
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Basic
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Let $G = \langle V, E \rangle$ be a directed graph. What conditions must $E$ satisfy?
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Back: It is a binary relation on $E$.
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Let $G = \langle V, E \rangle$ be a directed graph. What kind of mathematical object is $E$?
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Back: It is a binary relation on $V$.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937779-->
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END%%
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@ -90,16 +83,9 @@ Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (
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<!--ID: 1710793937800-->
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END%%
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%%ANKI
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Cloze
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An {1:undirected} graph $G$ is a pair $\langle V, E \rangle$, where $V$ is a {2:finite set} and $E$ is a {2:set of unordered pairs of vertices}.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937804-->
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END%%
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%%ANKI
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Basic
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Let $G = \langle V, E \rangle$ be an undirected graph. What conditions must $V$ satisfy?
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Let $G = \langle V, E \rangle$ be an undirected graph. What kind of mathematical object is $V$?
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Back: It is a finite set.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937808-->
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@ -107,7 +93,7 @@ END%%
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%%ANKI
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Basic
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Let $G = \langle V, E \rangle$ be an undirected graph. What conditions must $E$ satisfy?
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Let $G = \langle V, E \rangle$ be an undirected graph. What kind of mathematical object is $E$?
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Back: It is a set of unordered pairs of vertices.
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710793937813-->
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@ -1000,15 +986,6 @@ Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (
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<!--ID: 1710807788510-->
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END%%
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%%ANKI
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Basic
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What are the cycles containing vertex $2$?
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![[undirected-graph-example.png]]
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Back: $\langle 1, 2, 5, 1 \rangle$ and $\langle 1, 5, 2, 1 \rangle$
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Reference: Thomas H. Cormen et al., Introduction to Algorithms, Fourth edition (Cambridge, Massachusett: The MIT Press, 2022).
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<!--ID: 1710807788515-->
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END%%
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%%ANKI
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Basic
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What are the simple cycles containing vertex $2$?
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@ -20,7 +20,7 @@ tags:
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%%ANKI
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Basic
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What is the width of a word?
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What is the width of a `word`?
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Back: 16 bits.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523806-->
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@ -28,7 +28,7 @@ END%%
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%%ANKI
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Basic
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What historical reason explains why a word is 16 bits?
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What historical reason explains why a `word` is 16 bits?
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Back: Because the 8086 that introduced x86 was 16 bits.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523813-->
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@ -36,7 +36,7 @@ END%%
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%%ANKI
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Basic
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What is the width of an Intel "byte"?
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What is the width of an Intel `byte`?
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Back: $8$ bits
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523816-->
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@ -45,21 +45,21 @@ END%%
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%%ANKI
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Basic
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Which Intel data types are 1 bytes wide?
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Back: Just the "byte".
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Back: Just the `byte`.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523818-->
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END%%
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%%ANKI
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Cloze
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The "{byte}" Intel data type has assembly-code suffix {`b`}.
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The {`byte`} Intel data type has assembly-code suffix {`b`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523821-->
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END%%
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%%ANKI
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Basic
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What is the width of an Intel "word"?
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What is the width of an Intel `word`?
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Back: $16$ bits
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523824-->
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@ -68,21 +68,21 @@ END%%
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%%ANKI
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Basic
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Which Intel data types are 2 bytes wide?
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Back: Just the "word".
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Back: Just the `word`.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523827-->
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END%%
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%%ANKI
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Cloze
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The "{word}" Intel data type has assembly-code suffix {`w`}.
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The {`word`} Intel data type has assembly-code suffix {`w`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523830-->
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END%%
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%%ANKI
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Basic
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What is the width of an Intel "double word"?
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What is the width of an Intel `double word`?
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Back: $32$ bits
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523833-->
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@ -91,29 +91,29 @@ END%%
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%%ANKI
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Basic
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Which Intel data types are 4 bytes wide?
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Back: The double word and single-precision.
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Back: The `double word` and `single-precision`.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523836-->
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END%%
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%%ANKI
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Cloze
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The "{double word/double-precision}" Intel data type has assembly-code suffix {`l`}.
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The {`double word`/`double-precision`} Intel data type has assembly-code suffix {`l`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523839-->
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END%%
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%%ANKI
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Basic
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*Why* do double words have assembly-code suffix `l`?
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Back: The suffix stands for "long", relative to a 16-bit word.
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*Why* do `double word`s have assembly-code suffix `l`?
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Back: The suffix stands for "long", relative to a 16-bit `word`.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523842-->
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END%%
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%%ANKI
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Basic
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What is the width of an Intel "quad word"?
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What is the width of an Intel `quad word`?
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Back: $64$ bits
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523846-->
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@ -122,21 +122,21 @@ END%%
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%%ANKI
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Basic
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Which Intel data types are 8 bytes wide?
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Back: The quad word and double-precision.
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Back: The `quad word` and `double-precision`.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523850-->
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END%%
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%%ANKI
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Cloze
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The "{quad word}" Intel data type has assembly-code suffix {`q`}.
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The {`quad word`} Intel data type has assembly-code suffix {`q`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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<!--ID: 1711116523853-->
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END%%
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%%ANKI
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Cloze
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C integral declaration {`char`} corresponds to Intel data type "{byte}".
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C integral declaration {`char`} corresponds to Intel data type {`byte`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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Tags: c17
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<!--ID: 1711116523858-->
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@ -144,7 +144,7 @@ END%%
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%%ANKI
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Cloze
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C integral declaration {`short`} corresponds to Intel data type "{word}".
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C integral declaration {`short`} corresponds to Intel data type {`word`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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Tags: c17
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<!--ID: 1711116523862-->
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@ -152,7 +152,7 @@ END%%
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%%ANKI
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Cloze
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C integral declaration {`int`} corresponds to Intel data type "{double word}".
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C integral declaration {`int`} corresponds to Intel data type {`double word`}.
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Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
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Tags: c17
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<!--ID: 1711116523866-->
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@ -160,7 +160,7 @@ END%%
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%%ANKI
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Cloze
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C integral declaration {`long`} corresponds to Intel data type "{quad word}".
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C integral declaration {`long`} corresponds to Intel data type {`quad word`}.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
Tags: c17
|
||||
<!--ID: 1711116523870-->
|
||||
|
|
@ -168,7 +168,7 @@ END%%
|
|||
|
||||
%%ANKI
|
||||
Cloze
|
||||
C declaration `char *` corresponds to Intel data type "{quad word}".
|
||||
C declaration `char *` corresponds to Intel data type {`quad word`}.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
Tags: c17
|
||||
<!--ID: 1711116523874-->
|
||||
|
|
@ -176,7 +176,7 @@ END%%
|
|||
|
||||
%%ANKI
|
||||
Cloze
|
||||
C floating-point declaration {`float`} corresponds to Intel data type "{single-precision}".
|
||||
C floating-point declaration {`float`} corresponds to Intel data type {`single-precision`}.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
Tags: c17
|
||||
<!--ID: 1711116523877-->
|
||||
|
|
@ -184,14 +184,14 @@ END%%
|
|||
|
||||
%%ANKI
|
||||
Cloze
|
||||
The "{single-precision}" Intel data type has assembly-code suffix {`s`}.
|
||||
The {`single-precision`} Intel data type has assembly-code suffix {`s`}.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523881-->
|
||||
END%%
|
||||
|
||||
%%ANKI
|
||||
Cloze
|
||||
C floating-point declaration {`double`} corresponds to Intel data type "{double-precision}".
|
||||
C floating-point declaration {`double`} corresponds to Intel data type {`double-precision`}.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
Tags: c17
|
||||
<!--ID: 1711116523885-->
|
||||
|
|
@ -199,7 +199,7 @@ END%%
|
|||
|
||||
%%ANKI
|
||||
Basic
|
||||
What is the width of an Intel "singe precision"?
|
||||
What is the width of an Intel `single-precision`?
|
||||
Back: $32$ bits
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523889-->
|
||||
|
|
@ -208,7 +208,7 @@ END%%
|
|||
%%ANKI
|
||||
Basic
|
||||
What two Intel data types do floating-point numbers come in?
|
||||
Back: Single-precision and double-precision.
|
||||
Back: `single-precision` and `double-precision`.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523893-->
|
||||
END%%
|
||||
|
|
@ -216,14 +216,14 @@ END%%
|
|||
%%ANKI
|
||||
Basic
|
||||
Assembly-code suffix `l` is used for what two Intel data types?
|
||||
Back: Double words and double-precisions.
|
||||
Back: `double word`s and `double-precision`s.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523898-->
|
||||
END%%
|
||||
|
||||
%%ANKI
|
||||
Basic
|
||||
What is the width of an Intel "double-precision"?
|
||||
What is the width of an Intel `double-precision`?
|
||||
Back: $64$ bits
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523903-->
|
||||
|
|
@ -231,7 +231,7 @@ END%%
|
|||
|
||||
%%ANKI
|
||||
Basic
|
||||
Why is it safe for double words and double-precisions to both use assembly-code suffix `l`?
|
||||
Why is it safe for `double word`s and `double-precision`s to both use assembly-code suffix `l`?
|
||||
Back: Floating-point code uses a different set of instructions and registers.
|
||||
Reference: Bryant, Randal E., and David O'Hallaron. *Computer Systems: A Programmer's Perspective*. Third edition, Global edition. Always Learning. Pearson, 2016.
|
||||
<!--ID: 1711116523908-->
|
||||
|
|
|
|||
Loading…
Reference in New Issue