要作那些事? • 集群標準化和生命週期管理 • 安全訪問和環境隔離 • 維運可觀察性和流程透通性 • 治理與合規 • 持續第三方元件整合和維護 9 Ref. Use Platform Engineering to Implement DevOps Workflows with Kubernetes (Gartner) Click to edit Master title style Click to edit Master title style 12 馴服 Kubernetes Day2 Ops 複雜性 12 • A single pane of glass platform • 運營團隊需要能夠通過一個統一的儀 表板在一個地方可視化整個系統。 • Complete separation of concerns • 應用程序開發人員應該能夠盡可能地 自助服務，依靠一小群平台工程師來

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: must be literal constants.CHAPTER 27. CALLING C AND FORTRAN CODE 347 Note Currently, only the platform-default C calling convention is supported. This means that @cfunction- generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: must be literal constants.CHAPTER 27. CALLING C AND FORTRAN CODE 347 Note Currently, only the platform-default C calling convention is supported. This means that @cfunction- generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall

conflict with some numeric literal syntaxes: hexadecimal, octal and binary integer literals and engineering notation for floating-point literals. Here are some situations where syntactic conflicts arise: @ccall, the return type and the input types must be literal constants. Note Currently, only the platform-default C calling convention is supported. This means that @cfunction-generated pointers cannot @ccall macro currently does not support giving a calling convention). Without any specifier, the platform-default C calling convention is used. Other supported conventions are: stdcall, cdecl, fastcall