       %                               DIGITAL    Software Product  Description   C ___________________________________________________________________   C PRODUCT NAME:  Digital PHIGS Version 5.0 for OpenVMS Alpha      SPD  44.45.09   DESCRIPTION   D Digital PHIGS (Programmers Hierarchical Interactive Graphics System)H (formerly DEC PHIGS) for OpenVMS Alpha Systems is a sophisticated three-F dimensional graphics support system that defines, modifies, organizes,E and displays hierarchical, graphical data. Digital PHIGS manages this , data in a conceptually centralized database.  F Digital PHIGS for OpenVMS Alpha is Digital Equipment Corporation's im-F plementation of the 1988 ANSI/ISO PHIGS standard for three-dimensionalD device-independent graphics. Digital PHIGS supports DECwindows MotifC for OpenVMS Alpha, and is supported on most Digital processors run- ( ning the OpenVMS Alpha Operating System.  I Digital PHIGS is device-independent; the same program can generate graph- C ical output on different devices without modification to the source F code. The graphical output formats supported by Digital PHIGS include:  # o  CGM (Computer Graphics Metafile)   / o  DDIF (Digital's Document Interchange Format)   , o  Hewlett-Packard Graphics Language (HP-GL)  
 o  PostScript   E Digital PHIGS provides five language bindings in which graphical data E can be created and managed: ISO Fortran, ISO C, Ada, DEC C (Digital's C version of the C binding), and PHIGS$ (a language-independent bind- E ing). Each of these bindings is packaged as a set of shareable images   C                                                        October 1996        D with which application programs are linked. The shareable images are% then activated at run-time as needed.   D In addition to the features specified in the PHIGS standard, DigitalD PHIGS provides PHIGS PLUS features and GM/EDS extensions. These fea- tures and extensions include:   - o  Hidden line/hidden surface removal (HLHSR)   & o  Lighting, shading, and depth cueing   o  Additional primitives:   
       Circles        Circular arcs        Triangle strips        Quadrilateral meshes       Indexed polygonsA       Trimmed and untrimmed NURBs (nonuniform rational B-splines)   E The result of this additional functionality is that application soft- C ware need not generate complex graphics, because these graphics are  provided in graphics libraries.    OpenGL Support  D Digital PHIGS supports output to Digital OpenGL Version 1.0 servers.D For OpenVMS Alpha, the OpenGL server extension and the OpenGL object@ library are available as part of the Digital Open3D for OpenVMS  Alpha product.   PEX Support   G Digital PHIGS supports output to Digital's PEX Version 5.0 and PEX Ver- E sion 5.1 servers. For OpenVMS Alpha, the PEX server extension and the E PEXlib object library are available as part of the Digital Open3D for  OpenVMS Alpha product.      "                                  2        Elements and Structures   C In Digital PHIGS, the smallest component of data is an element. One F or more elements can be grouped together in a structure that describesC a graphical object. The elements supported by Digital PHIGS include A output primitives (polylines, polymarkers, and so on), attribute  E elements, transformation and clipping elements, control structure el- C ements, and application data elements. These elements can be edited & at any time by an application program.  E Structures are maintained in a graphical database known as the struc- H ture store. Graphical output is generated by a structure traversal mech-F anism that interprets the elements in the structure store and displays< them on the screen. This mechanism is called structure mode.  D Digital PHIGS provides an alternate traversal mechanism called imme-D diate mode. In this mode, PHIGS elements can be rendered directly to@ the display surface without being placed in the structure store.   Output Primitives   F Digital PHIGS provides a variety of output primitive elements for cre-E ating basic two-dimensional and three-dimensional graphics components + in the structure store. These elements are:   > Annotation -    Text that is transformed from modeling coordi-B Text            nates to normalized projection coordinates (always>                 readable). This text can be in 8-bit or 16-bitB                 format, and can be displayed in a variety of fonts>                 and orientations. Text position is affected by6                 transformations, but text size is not.  ? Cell       -    A two- or three-dimensional array of cells with B Array           individual colors (OpenGL workstation types only).  B Circular   -    An arc of a circle, specified by a center point, a7 Arc             radius, and starting and ending angles.   B Fill       -    A filled circular area specified by a center point Circle          and a radius.   "                                  3         B Elliptical -    An arc of an ellipse, specified by a center point,> Arc             major and minor axis vectors, and starting and                 ending angles.  B Fill       -    A filled ellipse, specified by a center point, and- Ellipse         major and minor axis vectors.   = Fill       -    A polygonal area that can be hollow or filled @ Area            with a uniform color or a hatch style. The edges>                 of the area are not defined and cannot be con-?                 trolled. A variant of this primitive allows you A                 to specify the fill area shape, and thus optimize                  performance.  A Fill       -    A set of polygonal areas with holes or disjointed A Area            regions that are treated as a single entity. Con- A Set             trol of edge attributes is provided. A variant of B                 this primitive allows you to specify the fill area9                 set shape, and thus optimize performance.   @ Index      -    A set of polygons (possibly nonplanar) that per-@ Polygons        mits PHIGS to take advantage of shared vertices.  A NURBs      -    A nonuniform rational B-spline, which is a three- A                 dimensional curve or surface generated from user- A                 specified control points, approximation criteria, -                 and possibly trimming curves.   ; Pixmap     -    A pixmap element formatted for X11 display.   ? Polyline   -    A set of connected lines defined by a series of ?                 points and having line type, line width, color, /                 and shading attributes defined.   * Polyline   -    A collection of polylines. Set   = Polymarker -    One or more symbols that can mark significant ?                 points in a display and have type, size, scale, -                 and color attributes defined.   @ Quadrila-  -    An array of quadrilaterals, each of which shares@ teral Mesh      an edge with the next quadrilateral in the mesh.  "                                  4         B Text       -    A character string at a given position in modeling@                 coordinate space. This string can be in 8-bit or@                 16-bit format, and can be displayed in a variety@                 of fonts and orientations. Text size is affected#                 by transformations.   @ Triangle   -    A sequence of triangles, each of which shares an9 Strip           edge with the next triangle in the strip.   
 Attributes  D Each output primitive element has an associated set of attribute el-E ements that control the primitive's appearance. Attributes can be de- F fined in groups (bundles) or individually. Some examples of attributes are:  = Line Type    -    The style of a line, for example, dotted or                    dashed.   ( Line         -    The width of the line. Width   B Color        -    The color of the line. You can select one of theB                   predefined colors or specify the red, green, andB                   blue intensities required to define a particular)                   color on color devices.   B Character    -    Text attributes, including font, character spac-: Attributes        ing, height, angle, path, and alignment.   Transformations and Views   C Digital PHIGS allows the definition of objects in their own "model- B ing" coordinate systems. Transformation functions are provided to E position these objects with respect to one another in a "world" coor-  dinate system.  H World coordinates can have any scale. For example, one application mightF have a maximum range from 0 to 1000.0; another application might limitE the range from 0.01 to 0.1. Digital PHIGS automatically converts from   "                                  5       C world coordinates to coordinates appropriate for the display device  being used.   E The user can control multiple, simultaneous views of the same objects D on one or more display surfaces, as well as the position and size ofE the picture on the surface. In addition, Digital PHIGS provides func- E tionality for posting structures to specific views, as well as to the 1 display (as in the standard PHIGS viewing model).   
 Modeling Clip   E The modeling clip feature enables you to define clipping limits to be H applied to a model before viewing transformations are applied. The clip-G ping limits can be defined to specify a simple or complex volume within C the world coordinate system. This capability is available on OpenGL  workstation types only.    Control Functions   E Control functions are used to perform system management tasks related F to the Digital PHIGS environment, the workstation environment, and theF graphics display. These tasks include turning Digital PHIGS on and offC when requested by the application, and directing the flow of graph- A ics data from the structure store to one or more logical devices.    Inquiry Functions   G Digital PHIGS includes a complete set of inquiry functions. These func- G tions are used to obtain information about the PHIGS state, the archive B storage, workstation capabilities, or the workstation state. This D information is essential for developing modular, device-independent 	 programs.                 "                                  6        Structure Search and Inquiry  C Digital PHIGS provides several methods for interrogating the struc-  ture store:   D o  Inquire element functions-These functions provide complete infor-?    mation about a structure, including element type, size, and      content.   D o  Element search function-This function searches a single structure"    for an element of a given type.  D o  Incremental spatial search (ISS) functions-These functions searchD    a structure network for the next occurrence of a graphical outputH    structure element that meets a given criteria. This feature is avail-)    able on OpenGL workstation types only.    Escape Functions  D Escape functions are included with Digital PHIGS to enable access toC functionality not provided in the PHIGS standard. The Digital PHIGS  escape functions include:    o  Anti-aliasing   o  Batch quick updates   o  Double buffering control    o  Transparency    o  Background pixmap control   o  User-defined line types   o  User-defined marker types   o  Render element range     "                                  7        Logical Input Devices   G Digital PHIGS supports synchronous and asynchronous input from the fol-  lowing logical input devices:   @ Locator   -    Allows the user to select a point on the display.  A Stroke    -    Allows the user to input a series of points on the                 display.   = Valuator  -    Allows the user to select a real number from a B                given range, for example, by sliding a pointer to a(                position on a radio dial.  @ Choice    -    Allows the user to make a selection, for example,0                from a list of choices in a menu.  ? String    -    Allows the user to input a character string, for -                example, as input to a prompt.   B Pick      -    Allows the user to select an object that is visible@                on the display. The information returned consists@                of a structure identifier, a pick identifier, and@                an element number for each level in the structure                network.   	 Name Sets   @ Name sets are used by Digital PHIGS to group individual graphic E elements together when determining eligibility for highlighting, vis- C ibility, and picking. For example, in an architectural drawing, all @ steam pipes can be grouped in a name set and all water pipes in C another. These sets of pipes can then be made invisible, pickable,   or highlighted as a group.   Archive Storage   D Digital PHIGS provides an interface for archiving files in which allC or part of the structure store can be saved permanently. The struc- C ture store can be accessed later by the same or other applications.  Archive files can be used to:   : o  Save and restore graphical information between sessions  "                                  8       N o  Transfer graphical information between compatible versions of Digital PHIGS  D o  Transfer graphical information between Digital PHIGS applications  . o  Store accompanying nongraphical information   Character Fonts   D Digital PHIGS includes a series of stroke-precision character fonts.C These character fonts were digitized by Dr. Allen V. Hershey of the I Naval Surface Weapons Laboratory, and supplied to Digital by the National  Bureau of Standards.   Language Bindings   H Digital PHIGS functions can be accessed by five sets of subroutine callsD or "bindings," as they are referred to by the PHIGS standards. These
 bindings are:   E o  An ISO C binding that conforms to the final PHIGS ANSI/ISO C bind-     ing standard   H o  A DEC C binding that conforms to a draft version of the PHIGS C bind-D    ing (provided for compatibility with previous versions of Digital	    PHIGS)   C o  An ISO Fortran binding that conforms to the final PHIGS ANSI/ISO     Fortran binding standard   D o  An Ada binding that conforms to a draft of the PHIGS ANSI/ISO Ada    binding standard   ( o  A PHIGS$ binding specified by Digital  F The ISO Fortran, ISO C, and Ada binding interfaces allow users to portC Digital PHIGS applications written in ISO Fortran, ISO C, or Ada to K other operating systems running conformant implementations of Digital PHIGS C and these bindings. Note that calls to the ISO C and DEC C language I bindings cannot be mixed with calls to the other language bindings within  the same application.   "                                  9       ' Computer Graphics Metafile (CGM) Output   E Digital PHIGS provides support for storing information using the Com- E puter Graphics Metafile (CGM), an approved ANSI standard format (ANSI B X3.122-1986). Digital PHIGS supports CGM output for the following  formats:  D o  Clear Text Encoding - Graphical output data stored in this formatC    is easily created, viewed, and modified using a common text edi- @    tor. This format is also suitable for transferring graphical G    output data through networks that support the transfer of text files     only.  D o  Character Encoding - Graphical output data is typically stored inH    this format to reduce the file size. This format is especially suitedF    to transfers through networks that do not support binary transfers.  C o  Binary Encoding - Graphical output data stored in this format is E    very compact and the fastest to read and write. This format is the C    least suitable for transmission over communication lines because *    all 8 bits in each byte are meaningful.   CONFORMANCE TO STANDARDS  @ Digital PHIGS is designed to conform to the following standards:  4 o  MIT X Window System Version 11 Release 5 (X11R5).   o  PEX Version 5.0 and 5.1.   C o  The ISO C binding conforms to the final PHIGS ANSI/ISO C binding     ISO/IEC 9593-4:1991.   D o  The ISO Fortran binding conforms to the final PHIGS ANSI/ISO For-$    tran binding ISO/IEC 9593-1:1989.  F o  The Ada binding conforms to a draft of the PHIGS ANSI/ISO Ada bind-    ing ISO/IEC 9593-3:1990.     "                                 10        HARDWARE REQUIREMENTS   5 The following systems are supported by Digital PHIGS:   C ___________________________________________________________________                           Graphics$ Graphics                Accelerators! Processor               Supported_C ___________________________________________________________________p> DEC 3000 Model 300      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-L1 Alpha Workstationn  C ___________________________________________________________________e DEC 3000 Model 300L  Alpha Workstation   C ___________________________________________________________________s> DEC 3000 Model 300LX    ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-L1 Alpha Workstationc  C ___________________________________________________________________p> DEC 3000 Model 300X     ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-L1 Alpha Workstationd  C ___________________________________________________________________o DEC 3000 Model 400 AlphaServeri  C ___________________________________________________________________e? DEC 3000 Model 400      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,r& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________p DEC 3000 Model 500 AlphaServer   C ___________________________________________________________________I? DEC 3000 Model 500      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,G& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________d  "                                 11 t  ,    C ___________________________________________________________________l                          Graphics$ Graphics                Accelerators! Processor               Supported C ___________________________________________________________________  DEC 3000 Model 500Xa AlphaServer   C ___________________________________________________________________d DEC 3000 Model 600 AlphaServere  C ___________________________________________________________________e? DEC 3000 Model 600      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,c& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________o? DEC 3000 Model 700      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,r& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________r DEC 3000 Model 800 AlphaServeru  C ___________________________________________________________________e? DEC 3000 Model 800      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,v& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________e? DEC 3000 Model 900      ZLX-E1, ZLX-E2, ZLX-E3, ZLX-M1, ZLX-M2,e& Alpha Workstation       ZLX-L1, ZLX-L2  C ___________________________________________________________________  DEC 4000 Model 610 Alpha System  C ___________________________________________________________________l DEC 4000 Model 700 AlphaServer   C ___________________________________________________________________   "                                 12         C ___________________________________________________________________l                          Graphics$ Graphics                Accelerators! Processor               SupportedtC ___________________________________________________________________  DEC 7000 Model 610 Alpha System  C ___________________________________________________________________n DEC 10000 Model 610n Alpha System  C ___________________________________________________________________e; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,  200 4/100               ZLXp-L2a  C ___________________________________________________________________e; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,  200 4/166               ZLXp-L2r  C ___________________________________________________________________m; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,s 200 4/233               ZLXp-L2i  C ___________________________________________________________________ ; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,i 250 4/266               ZLXp-L2v  C ___________________________________________________________________a: Digital AlphaStation    ZLXp-L1, ZLXp-L2, PowerStorm 3D30,' 255/233                 PowerStorm 4D20i  C ___________________________________________________________________ : Digital AlphaStation    ZLXp-L1, ZLXp-L2, PowerStorm 3D30,' 255/300                 PowerStorm 4D20b  C ___________________________________________________________________ ; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,a 400 4/233               ZLXp-L2f  C ___________________________________________________________________e  "                                 13         C ___________________________________________________________________a                          Graphics$ Graphics                Accelerators! Processor               Supported C ___________________________________________________________________i: Digital AlphaStation    ZLXp-L1, ZLXp-L2, PowerStorm 3D30,' 500/266                 PowerStorm 4D20c  C ___________________________________________________________________ : Digital AlphaStation    ZLXp-L1, ZLXp-L2, PowerStorm 3D30,' 500/333                 PowerStorm 4D20p  C ___________________________________________________________________x: Digital AlphaStation    ZLXp-L1, ZLXp-L2, PowerStorm 3D30,' 500/400                 PowerStorm 4D20a  C ___________________________________________________________________ ; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,AA 600 5/266               ZLXp-L2, PowerStorm 3D30, PowerStorm 4D20t  C ___________________________________________________________________ ; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,nA 600 5/300               ZLXp-L2, PowerStorm 3D30, PowerStorm 4D20C  C ___________________________________________________________________ ; Digital AlphaStation    ZLXp-E1, ZLXp-E2, ZLXp-E3, ZLXp-L1,lA 600 5/333               ZLXp-L2, PowerStorm 3D30, PowerStorm 4D20   C ___________________________________________________________________y Digital AlphaServerS 2100 4/200 and 4/275  C ___________________________________________________________________c   Disk Space Requirements   C The disk space requirements for Digital PHIGS depend on the kit you  install, as shown.   Digital PHIGS Development Kit:    "                                 14         * Disk space required for      60,000 blocks
 installation: * With Ada binding option:     91,000 blocks  * Disk space required for      55,000 blocks use (permanent):* With Ada binding option:     86,000 blocks    Digital PHIGS Run-Time-Only Kit:  * Disk space required for      35,000 blocks
 installation:   * Disk space required for      30,000 blocks use (permanent):  E These counts refer to the disk space required on the system disk. TheoD sizes are approximate; actual sizes may vary depending on the user's8 system environment, configuration, and software options.  0 Memory Requirements for DECwindows Motif Support  F The minimum supported memory for Digital PHIGS running in a standaloneE DECwindows Motif environment, with both the client and server execut-aD ing on the same system, is 32 MB. The memory size suggested for mostC typical hardware configurations, however, is 64 MB or more, depend-  ing on the system.  C The system configuration and performance requirements of DECwindowseD Motif applications can determine the memory needed on your system as follows:  D o  Less memory may be required on the client system (where the soft-<    ware is installed and executed) if the server (component 9    displaying the application) resides on another system.d  E o  More memory may be required on a system where improved performancel9    is desired, or where several applications are running.h  "                                 15 e  n   OPTIONAL HARDWARE   C If Digital Open3D for OpenVMS Alpha is installed, Digital PHIGS for E OpenVMS Alpha supports the following input device with the DECwindows  Motif device handler:i  ?    Graphics Peripheral Set (32 Function Key Box and 8 Dial Box)s  F Digital PHIGS supports a variety of interactive and hard copy devices.E At least one of these devices is required to display graphics output.a   Compatible Sixel Devices:H  K o  Digital DEClaser 1100, 2100, 2150, 2200, 2250, 2300, 2400 Laser Printerst  ) o  Digital LN03 with LN03S-UA upgrade kit   " o  Digital LN03 PLUS Laser Printer  ! o  Digital LN03S-JA Laser Printeri  2 o  Digital LA50 (restricted to a 2:1 aspect ratio)   o  Digital LA75p   o  Digital LA84e   o  Digital LA86o   o  Digital LA100   o  Digital LA280  & o  Digital LA324 (Color Sixel Printer)   o  Digital LA380  5 Compatible Hewlett-Packard Graphics Language Devices:    o  Digital LVP16 Pen Plotter  % o  HP7475 Hewlett-Packard Pen Plotterc  % o  HP7550 Hewlett-Packard Pen Plotterm  % o  HP7580 Hewlett-Packard Pen Plotterb  % o  HP7585 Hewlett-Packard Pen Plottera  "                                 16 i  r  ' o  LASERGRAPHICS MPS-2000 Film RecorderS  / Compatible Hewlett-Packard PCL Level 4 Devices:t   o  Hewlett-Packard LaserJet II   Compatible PostScript Devices:   o  Apple LaserWriter   o  Apple LaserWriter Plusg  $ o  Digital DEClaser 1150, 2150, 2250   o  Digital LN03R ScriptPrinter   o  Digital LPS20 Laser Printer  ! o  Digital LPS20-GJ Laser Printer    o  Digital LPS32 Laser Printer   o  Digital LPS40 Laser Printer  ! o  Digital LPS40-AJ Laser Printery  ! o  Digital LPS40-DJ Laser Printer    SOFTWARE REQUIREMENTSu  < The software requirements for Digital PHIGS Version 5.0 are:  7 o  OpenVMS Alpha Operating System Version 6.2 or highero  3 o  DECwindows Motif Version 1.2-3 for OpenVMS Alpha   G For the development of applications and programs that use Digital PHIGScD on OpenVMS Alpha, one of the languages supported by Digital PHIGS is also required.  "                                 17 n      OpenVMS Alpha Tailoringc  G The following OpenVMS Alpha classes are required for full Digital PHIGSf functionality:  " o  OpenVMS Alpha required save set   o  Network support   o  Programming support  C o  OpenVMS Alpha workstation support-if you are using Digital PHIGSe    on a workstation    OPTIONAL SOFTWARE   ? The following optional software can be used with Digital PHIGS:y  / o  Digital Open3D Version 3.4 for OpenVMS Alphar  D This product is required to use PEX workstation types and the Graph- ics Peripheral Set.m  ( o  DEC Ada Version 3.2 for OpenVMS Alpha  & o  DEC C Version 4.1 for OpenVMS Alpha  , o  DEC Fortran Version 6.2 for OpenVMS Alpha  + o  DEC Pascal Version 5.3 for OpenVMS Alphan  E Note: Certain versions of these products depend on a specific version F of the operating system. Please refer to the Software Product Descrip-C tion (SPD) of the product in question to determine which version iss
 necessary.   GROWTH CONSIDERATIONS   E The minimum hardware and software requirements for future versions ofuC this product may be different from the requirements for the currentd version.  "                                 18 f  t   DISTRIBUTION MEDIA  G This product is distributed on the OpenVMS Alpha Software Library Pack- & age CD-ROM (order number QA-03XAA-H8).  D Online documentation only is distributed on the OpenVMS Alpha OnlineF Documentation Library CD-ROM (order number QA-4KM8A-G8). Binaries onlyE are distributed on the OpenVMS Alpha Software Products Library CD-ROMy (order number QA-4KL8A-A8).   F These library packages contain the Digital PHIGS software binaries andK online documentation in Bookreader and PostScript format. The Digital PHIGSsE documentation is also available in printed form, which can be orderedh separately.e   ORDERING INFORMATION   Development Option  / Personal Use License Digital PHIGS: QL-0KBAA-2B 0 Unlimited Use License Digital PHIGS: QL-0A6A*-AA, Software Library Package CD-ROM: QA-03XAA-H81 Software Documentation Digital PHIGS: QA-0A6AA-GZa4 Software Product Services Digital PHIGS: QT-0A6A*-**   Run-Time-Only Option  1 Concurrent Use License Digital PHIGS: QL-VK1AA-3B 0 Unlimited Use License Digital PHIGS: QL-0A7A*-AA, Software Library Package CD-ROM: QA-03XAA-H84 Software Product Services Digital PHIGS: QT-0A7A*-**  F *  Denotes variant fields. For additional information on available li-D    censes, services, and media, refer to the appropriate price book.            "                                 19 p  d   SOFTWARE LICENSING  D Digital PHIGS is available in two forms: as a Development Kit and asC a Run-Time-Only Kit. These kits are furnished only under a license.a  C The Development Kit license enables you to develop and run your ownTF graphics applications. The Run-Time-Only Kit license allows you to runI applications that were developed on a system where the full Digital PHIGSoE product has been installed under a Concurrent Use License option (ex-aE plained in the following section). As a result, the Run-Time-Only KitaF license is available at a substantially lower cost per system than the Development Kit license.  # License Management Facility Support   D Digital PHIGS supports the OpenVMS Alpha License Management FacilityF (LMF). This facility allocates license units for Digital PHIGS as fol- lows:w  B o  For the Development option-on a Personal Use and Unlimited Use     basis  E o  For the Run-Time-Only option-on a Concurrent Use and Unlimited Useo    basis  I Each Personal Use License allows one identified individual to use Digital G PHIGS. Each Concurrent Use License allows only one individual at a timeaE to use Digital PHIGS. Each Unlimited Use License allows any number ofn2 individuals to use Digital PHIGS at the same time.  D For further details on the License Management Facility, refer to theJ OpenVMS Alpha Operating System Software Product Description (SPD 41.87.xx)C or the OpenVMS Alpha Operating System documentation. To obtain more F information about Digital's licensing terms and policies, contact your local Digital office.f          "                                 20    t   SOFTWARE PRODUCT SERVICESA  E A variety of service options are available from Digital. For more in- - formation, contact your local Digital office.g   SOFTWARE WARRANTYI  G Warranty for this software product is provided by Digital with the pur- E chase of a Digital PHIGS license, as defined in the Software WarrantyS Addendum of this SPD.a  H The information in this document is valid at the time of release. PleaseF contact your local Digital office for the most up-to-date information.  > [R]   Apple and LaserWriter are registered trademarks of Apple       Computer, Inc.  = [R]   Hewlett-Packard, HP, HP-GL, and LaserJet are registered ,       trademarks of Hewlett-Packard Company.  ? [R]   LASERGRAPHICS MPS-2000 is a registered trademark of Laser        Graphics, Inc.  @ [R]   Motif and OSF/1 are registered trademarks of Open Software       Foundation, Inc.  A [R]   PostScript is registered trademark of Adobe Systems, Incor-h       porated.  B [TM]  X Window System is a trademark of Massachusetts Institute of       Technology.i  @ [TM]  AlphaServer, AlphaStation, Bookreader, DDIF, DEC, DEC Ada,:       DEC Fortran, DEC C, DEC PHIGS, DEClaser, DECwindows,@       Digital, Digital GKS, Digital Open3D, Digital PHIGS, LN03,<       LN03 PLUS, LN03 ScriptPrinter, LVP16, OpenVMS, and the?       DIGITAL logo are trademarks of Digital Equipment Corpora-g       tion.a  9 1996 Digital Equipment Corporation. All Rights Reserved.a  "                                 21