their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give

their binary in-memory representations as objects are numeric primitives. Julia provides a broad range of primitive numeric types, and a full complement of arithmetic and bitwise operators as well as concrete type used for strings (and string literals) in Julia is String. This supports the full range of Unicode characters via the UTF-8 encoding. (A transcode function is provided to convert to/from attempt to access 14-codeunit String at index [15] [...] You can also extract a substring using range indexing: julia> str[4:9] "lo, wo" Notice that the expressions str[k] and str[k:k] do not give