|
2290 | 2290 | "container-title": "ACM SIGART Bulletin", |
2291 | 2291 | "page": "31–32", |
2292 | 2292 | "issue": "77", |
2293 | | - "abstract": "The Interslip-D project was formed to develop a personal machine inplementation of Interlisp for use as an environment for research in artificial intelligence and cognitive science [Burton et al., 80b]. This note describes the principal developments since our last report almost a year ago [Burton et al., 80a].", |
| 2293 | + "abstract": "The Interslip-D project was formed to develop a personal machine implementation of Interlisp for use as an environment for research in artificial intelligence and cognitive science [Burton et al., 80b]. This note describes the principal developments since our last report almost a year ago [Burton et al., 80a].", |
2294 | 2294 | "URL": "https://doi.org/10.1145/1056743.1056745", |
2295 | 2295 | "DOI": "10.1145/1056743.1056745", |
2296 | 2296 | "shortTitle": "Interlisp-D", |
|
2367 | 2367 | "page": "81-87", |
2368 | 2368 | "event": "the 1982 ACM symposium", |
2369 | 2369 | "event-place": "Pittsburgh, Pennsylvania, United States", |
2370 | | - "abstract": "This paper presents some of the issues involved in implementing Interlisp [19] on a VAX computer [24] with the goal of producing a version that runs under UNIX[17], specifically Berkeley VM/UNIX. This implementation has the following goals:\n• To be compatible with and functionally equivalent to Interlisp-10.\n\n• To serve as a basis for future Interlisp implementations on other mainframe computers. This goal requires that the implementation to be portable.\n\n• To support a large virtual address space.\n\n• To achieve a reasonable speed.\n\nThe implemention draws directly from three sources, Interlisp-10 [19], Interlisp-D [5], and Multilisp [12]. Interlisp-10, the progenitor of all Interlisps, runs on the PDP-10 under the TENEX [2] and TOPS-20 operating systems. Interlisp-D, developed at Xerox Palo Alto Research Center, runs on personal computers also developed at PARC. Multilisp, developed at the University of British Columbia, is a portable interpreter containing a kernel of Interlisp, written in Pascal [9] and running on the IBM Series/370 and the VAX. The Interlisp-VAX implementation relies heavily on these implementations. In turn, Interlisp-D and Multilisp were developed from The Interlisp Virtual Machine Specification [15] by J Moore (subsequently referred to as the VM specification), which discusses what is needed to implement an Interlisp by describing an Interlisp Virtual Machine from the implementors' point of view. Approximately six man-years of effort have been spent exclusively in developing Interlisp-VAX, plus the benefit of many years of development for the previous Interlisp implementations.", |
| 2370 | + "abstract": "This paper presents some of the issues involved in implementing Interlisp [19] on a VAX computer [24] with the goal of producing a version that runs under UNIX[17], specifically Berkeley VM/UNIX. This implementation has the following goals:\n• To be compatible with and functionally equivalent to Interlisp-10.\n\n• To serve as a basis for future Interlisp implementations on other mainframe computers. This goal requires that the implementation to be portable.\n\n• To support a large virtual address space.\n\n• To achieve a reasonable speed.\n\nThe implementation draws directly from three sources, Interlisp-10 [19], Interlisp-D [5], and Multilisp [12]. Interlisp-10, the progenitor of all Interlisps, runs on the PDP-10 under the TENEX [2] and TOPS-20 operating systems. Interlisp-D, developed at Xerox Palo Alto Research Center, runs on personal computers also developed at PARC. Multilisp, developed at the University of British Columbia, is a portable interpreter containing a kernel of Interlisp, written in Pascal [9] and running on the IBM Series/370 and the VAX. The Interlisp-VAX implementation relies heavily on these implementations. In turn, Interlisp-D and Multilisp were developed from The Interlisp Virtual Machine Specification [15] by J Moore (subsequently referred to as the VM specification), which discusses what is needed to implement an Interlisp by describing an Interlisp Virtual Machine from the implementors' point of view. Approximately six man-years of effort have been spent exclusively in developing Interlisp-VAX, plus the benefit of many years of development for the previous Interlisp implementations.", |
2371 | 2371 | "URL": "http://portal.acm.org/citation.cfm?doid=800068.802138", |
2372 | 2372 | "DOI": "10.1145/800068.802138", |
2373 | 2373 | "ISBN": "978-0-89791-082-6", |
|
4341 | 4341 | "id": "9296070/SYHYTLHH", |
4342 | 4342 | "type": "patent", |
4343 | 4343 | "title": "Design system using visual language", |
4344 | | - "abstract": "A computer-based tool, in the form of a computer system and method, for designing, constructing and interacting with any system containing or comprising concurrent asychronous processes, such as a factory operation. In the system according to the invention a variety of development and execution tools are supported. The invention features a highly visual user presentation of a control system, including structure, specification, and operation, offering a user an interactive capability for rapid design, modification, and exploration of the operating characteristics of a control system comprising asynchronous processes. The invention captures a representation of the system (RS) that is equivalent to the actual system (AS)--rather than a simulation of the actual system. This allows the invention to perform tests and modification on RS instead of AS, yet get accurate results. RS and AS are equivalent because AS is generated directly from RS by an automated process. Effectively, pressing a button in the RS environment can \"create\" the AS version or any selected portion of it, by \"downloading\" a translation of the RS version that can be executed by a programmable processor in the AS environment. Information can flow both ways between AS and RS. That AS and RS can interact is important. This allows RS to \"take on\" the \"state\" of AS whenever desired, through an \"uploading\" procedure, thereby reflecting accurately the condition of AS at a specific point in time.", |
| 4344 | + "abstract": "A computer-based tool, in the form of a computer system and method, for designing, constructing and interacting with any system containing or comprising concurrent asynchronous processes, such as a factory operation. In the system according to the invention a variety of development and execution tools are supported. The invention features a highly visual user presentation of a control system, including structure, specification, and operation, offering a user an interactive capability for rapid design, modification, and exploration of the operating characteristics of a control system comprising asynchronous processes. The invention captures a representation of the system (RS) that is equivalent to the actual system (AS)--rather than a simulation of the actual system. This allows the invention to perform tests and modification on RS instead of AS, yet get accurate results. RS and AS are equivalent because AS is generated directly from RS by an automated process. Effectively, pressing a button in the RS environment can \"create\" the AS version or any selected portion of it, by \"downloading\" a translation of the RS version that can be executed by a programmable processor in the AS environment. Information can flow both ways between AS and RS. That AS and RS can interact is important. This allows RS to \"take on\" the \"state\" of AS whenever desired, through an \"uploading\" procedure, thereby reflecting accurately the condition of AS at a specific point in time.", |
4345 | 4345 | "URL": "https://patents.google.com/patent/US4914567A/en", |
4346 | 4346 | "number": "US4914567A", |
4347 | 4347 | "author": [ |
|
4698 | 4698 | "publisher-place": "New York, NY, USA", |
4699 | 4699 | "page": "609–618", |
4700 | 4700 | "event-place": "New York, NY, USA", |
4701 | | - "abstract": "We describe enhancements to graphical search and replace that allow users to extend the capabilities of a graphical editor. Interactive constraint-based search and replace can search for objects that obey user-specified sets of constraints and automatically apply other constraints to modify these objects. We show how an interactive tool that employs this technique makes it possible for users to define sets of constraints graphically that modify existing illustrations or control the creation of new illustrations. The interace uses the same visual language as the editor and allows users to understand and create powerful rules without conventional programming. Rules can be saved and retrieved for use alone or in combination. Examples, generated with a working implementation, demonstrate applications to drawing beautification and transformation.", |
| 4701 | + "abstract": "We describe enhancements to graphical search and replace that allow users to extend the capabilities of a graphical editor. Interactive constraint-based search and replace can search for objects that obey user-specified sets of constraints and automatically apply other constraints to modify these objects. We show how an interactive tool that employs this technique makes it possible for users to define sets of constraints graphically that modify existing illustrations or control the creation of new illustrations. The interface uses the same visual language as the editor and allows users to understand and create powerful rules without conventional programming. Rules can be saved and retrieved for use alone or in combination. Examples, generated with a working implementation, demonstrate applications to drawing beautification and transformation.", |
4702 | 4702 | "URL": "https://doi.org/10.1145/142750.143053", |
4703 | 4703 | "DOI": "10.1145/142750.143053", |
4704 | 4704 | "ISBN": "978-0-89791-513-5", |
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