字节数组字面量 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 8.11 版本号字面量 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 8.12 原始字符串字面量 Julia benchmarks for linear algebra operations different from other languages? . . 371 38.11Julia 版本发布 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 372 Do I want code 1213 93.1 报告和分析崩溃（段错误） . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1213 版本/环境信息 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1213 Segfaults

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324CHAPTER 4. INTEGERS AND FLOATING-POINT NUMBERS 21 The distance between two adjacent representable end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0CHAPTER 8. FUNCTIONS 71 There are three possible points of return from this function, returning the

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0CHAPTER 8. FUNCTIONS 71 There are three possible points of return from this function, returning the

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is r = x/y return y*sqrt(1 + r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is r = x/y return y*sqrt(1 + r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is r = x/y return y*sqrt(1 + r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) 4.2. FLOATING-POINT NUMBERS 19 Floating-point zero Floating-point numbers 1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 4.2. FLOATING-POINT NUMBERS 21 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different

_ can be used as digit separator: julia> 10_000, 0.000_000_005, 0xdead_beef, 0b1011_0010 (10000, 5.0e-9, 0xdeadbeef, 0xb2) Floating-point zero Floating-point numbers have two zeros, positive zero and julia> eps(1000.) 1.1368683772161603e-13 julia> eps(1e-27) 1.793662034335766e-43 julia> eps(0.0) 5.0e-324 The distance between two adjacent representable floating-point numbers is not constant, but is end r = x/y return y*sqrt(1+r*r) end hypot (generic function with 1 method) julia> hypot(3, 4) 5.0 There are three possible points of return from this function, returning the values of three different