摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques, The S/370 is limit checked prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要翻译:两个虚拟操作系统(例如,S / 370VM,VSE或IX370和S / 88OS)的功能被合并到一个物理系统中。 S / 88处理器的合作伙伴对运行S / 88操作系统,并处理系统的容错和单系统映像方面。 S / 370处理器的一个或多个伙伴对直接和通过S / 88总线耦合到对应的S / 88处理器。 每个S / 370处理器从S / 88主存储器分配从1到16兆字节的连续存储。 每个S / 370虚拟操作系统认为其存储器分配从地址0开始,并且通过正常的S / 370动态存储器分配和寻呼技术管理其存储器。 S / 370被限制检查以防止S / 370访问S / 88存储器空间。 S / 88操作系统是所有系统硬件和I / O设备的主控。 S / 88处理器直接响应S / 88应用程序来访问S / 370地址空间,以便S / 88可以将I / O数据移动到S / 370 I / O缓冲器中并处理S / 370 I / O操作。 S / 88和S / 370对等体处理器对在单个系统环境中执行其各自的操作系统,而不会显着地重写任一操作系统。 操作系统都不知道其他操作系统和其他处理器对。
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contigous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要翻译:两个虚拟操作系统(例如,S / 370VM,VSE或IX370和S / 88OS)的功能被合并到一个物理系统中。 S / 88处理器的合作伙伴对运行S / 88操作系统,并处理系统的容错和单系统映像方面。 S / 370处理器的一个或多个伙伴对直接和通过S / 88总线耦合到对应的S / 88处理器。 每个S / 370处理器从S / 88主存储器分配从1到16兆字节的连续存储。 每个S / 370虚拟操作系统认为其存储器分配从地址0开始,并且通过正常的S / 370动态存储器分配和寻呼技术管理其存储器。 S / 370被限制检查以防止S / 370访问S / 88存储器空间。 S / 88操作系统是所有系统硬件和I / O设备的主控。 S / 88处理器直接响应S / 88应用程序来访问S / 370地址空间,以便S / 88可以将I / O数据移动到S / 370 I / O缓冲器中并处理S / 370 I / O操作。 S / 88和S / 370对等体处理器对在单个系统环境中执行其各自的操作系统,而不会显着地重写任一操作系统。 操作系统都不知道其他操作系统和其他处理器对。
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要翻译:两个虚拟操作系统(例如,S / 370VM,VSE或IX370和S / 88OS)的功能被合并到一个物理系统中。 S / 88处理器的合作伙伴对运行S / 88操作系统,并处理系统的容错和单系统映像方面。 S / 370处理器的一个或多个伙伴对直接和通过S / 88总线耦合到对应的S / 88处理器。 每个S / 370处理器从S / 88主存储器分配从1到16兆字节的连续存储。 每个S / 370虚拟操作系统认为其存储器分配从地址0开始,并且通过正常的S / 370动态存储器分配和寻呼技术管理其存储器。 S / 370被限制检查以防止S / 370访问S / 88存储器空间。 S / 88操作系统是所有系统硬件和I / O设备的主控。 S / 88处理器直接响应S / 88应用程序来访问S / 370地址空间,以便S / 88可以将I / O数据移动到S / 370 I / O缓冲器中并处理S / 370 I / O操作。 S / 88和S / 370对等体处理器对在单个系统环境中执行其各自的操作系统,而不会显着地重写任一操作系统。 操作系统都不知道其他操作系统和其他处理器对。
摘要:
The functions of two virtual operating systems (e. S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要翻译:两个虚拟操作系统(例如S / 370 VM,VSE或IX370和S / 88 OS)的功能被合并到一个物理系统中。 S / 88处理器的合作伙伴对运行S / 88操作系统,并处理系统的容错和单系统映像方面。 S / 370处理器的一个或多个伙伴对直接和通过S / 88总线耦合到对应的S / 88处理器。 每个S / 370处理器从S / 88主存储器分配从1到16兆字节的连续存储。 每个S / 370虚拟操作系统认为其存储器分配从地址0开始,并且通过正常的S / 370动态存储器分配和寻呼技术管理其存储器。 S / 370被限制检查以防止S / 370访问S / 88存储器空间。 S / 88操作系统是所有系统硬件和I / O设备的主控。 S / 88处理器直接响应S / 88应用程序来访问S / 370地址空间,以便S / 88可以将I / O数据移动到S / 370 I / O缓冲器中并处理S / 370 I / O操作。 S / 88和S / 370对等体处理器对在单个系统环境中执行其各自的操作系统,而不会显着地重写任一操作系统。 操作系统都不知道其他操作系统和其他处理器对。
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要:
The functions of two virtual operating systems (e.g., S/370 VM, VSE or IX370 and S/88 OS) are merged into one physical system. Partner pairs of S/88 processors run the S/88 OS and handle the fault tolerant and single system image aspects of the system. One or more partner pairs of S/370 processors are coupled to corresponding S/88 processors directly and through the S/88 bus. Each S/370 processor is allocated from 1 to 16 megabytes of contiguous storage from the S/88 main storage. Each S/370 virtual operating system thinks its memory allocation starts at address 0, and it manages its memory through normal S/370 dynamic memory allocation and paging techniques. The S/370 is limit checked to prevent the S/370 from accessing S/88 memory space. The S/88 Operating System is the master over all system hardware and I/O devices. The S/88 processors access the S/370 address space in direct response to a S/88 application program so that the S/88 may move I/O data into the S/370 I/O buffers and process the S/370 I/O operations. The S/88 and S/370 peer processor pairs execute their respective Operating Systems in a single system environment without significant rewriting of either operating system. Neither operating system is aware of the other operating system nor the other processor pairs.
摘要翻译:两个虚拟操作系统(例如,S / 370VM,VSE或IX370和S / 88OS)的功能被合并到一个物理系统中。 S / 88处理器的合作伙伴对运行S / 88操作系统,并处理系统的容错和单系统映像方面。 S / 370处理器的一个或多个伙伴对直接和通过S / 88总线耦合到对应的S / 88处理器。 每个S / 370处理器从S / 88主存储器分配从1到16兆字节的连续存储。 每个S / 370虚拟操作系统认为其存储器分配从地址0开始,并且通过正常的S / 370动态存储器分配和寻呼技术管理其存储器。 S / 370被限制检查以防止S / 370访问S / 88存储器空间。 S / 88操作系统是所有系统硬件和I / O设备的主控。 S / 88处理器直接响应S / 88应用程序来访问S / 370地址空间,以便S / 88可以将I / O数据移动到S / 370 I / O缓冲器中并处理S / 370 I / O操作。 S / 88和S / 370对等体处理器对在单个系统环境中执行其各自的操作系统,而不会显着地重写任一操作系统。 操作系统都不知道其他操作系统和其他处理器对。
摘要:
To provide for efficient use of computer microcodes, a firmware structure containing a mainline programmable logic array circuit and at least one subroutine programmable logic array circuit may be used. As the states of the mainline programmable logic array circuit are sequenced, the data bits representing the encode number field in its OR array are compared with the data bits representing the encode number field of the AND array of the subroutine programmable logic array circuit. If a match is made, the mainline programmable logic array circuit suspends its operation and sequencing of the subroutine programmable logic array circuit begins, in order to perform the function required. Upon completion of the function, control is automatically transferred from the subroutine programmable logic array circuit back to the mainline programmable logic array circuit, at the point where it was suspended. By nesting a plurality of subroutine programmable logic array circuits, a plurality of functions, many of which may be performed simultaneously, can take place.