Annotation of OpenXM/src/asir-doc/parts/process.texi, Revision 1.3
1.3 ! noro 1: @comment $OpenXM: OpenXM/src/asir-doc/parts/process.texi,v 1.2 1999/12/21 02:47:31 noro Exp $
1.2 noro 2: \BJP
1.1 noro 3: @node $BJ,;67W;;(B,,, Top
4: @chapter $BJ,;67W;;(B
1.2 noro 5: \E
6: \BEG
7: @node Distributed computation,,, Top
8: @chapter Distributed computation
9: \E
1.1 noro 10:
11: @menu
12: * OpenXM::
13: * Mathcap::
1.2 noro 14: \BJP
1.1 noro 15: * $B%9%?%C%/%^%7%s%3%^%s%I(B::
16: * $B%G%P%C%0(B::
17: * $BJ,;67W;;$K4X$9$k4X?t(B::
1.2 noro 18: \E
19: \BEG
20: * Stackmachine commands::
21: * Debugging::
22: * Functions for distributed computation::
23: \E
1.1 noro 24: @end menu
25:
1.2 noro 26: \JP @node OpenXM,,, $BJ,;67W;;(B
27: \EG @node OpenXM,,, Distributed computation
1.1 noro 28: @section OpenXM
29:
1.2 noro 30: \BJP
31: @b{Asir} $B$O(B, $BJ,;67W;;$K$*$1$kDL?.%W%m%H%3%k$H$7$F(B, @b{OpenXM}
1.1 noro 32: (Open message eXchange protocol for Mathematics) $B$r:NMQ$7$F$$$k(B.
1.2 noro 33: @b{OpenXM} $B$O(B, $B<g$H$7$F?t3X%*%V%8%'%/%H$r%W%m%;%94V$G$d$j$H$j$9$k(B
34: $B$?$a$N5,Ls$G$"$k(B. @b{OpenXM} $B$K$*$$$F$O(B
35: \E
36: \BEG
1.3 ! noro 37: On @b{Asir} distributed computations are done under @b{OpenXM}
1.2 noro 38: (Open message eXchange protocol for Mathematics), which
39: is a protocol for exchanging mainly mathematical objects
40: between processes.
41: In @b{OpenXM} a distributed computation is done as follows:
42: \E
1.1 noro 43:
44: @enumerate
1.2 noro 45: \BJP
1.1 noro 46: @item client $B$,(B server $B$KBP$7$F7W;;<B9T0MMj$N%a%C%;!<%8$rAw$k(B.
47: @item server $B$,7W;;$r<B9T$9$k(B.
48: @item client $B$,(B server $B$K7k2LAwIU0MMj$N%a%C%;!<%8$rAw$k(B.
49: @item server $B$O7k2L$rJV$7(B, client $B$O7k2L$r<u$1<h$k(B
1.2 noro 50: \E
51: \BEG
52: @item A client requests something to a server.
53: @item The server does works according to the request.
54: @item The client requests to send data to the server.
55: @item The server sends the data to the client and the client gets the data.
56: \E
1.1 noro 57: @end enumerate
58:
1.2 noro 59: \BJP
1.1 noro 60: $B$H$$$&7A$GJ,;67W;;$,9T$o$l$k(B. server $B$O%9%?%C%/%^%7%s$G$"$k(B. $B$9$J$o$A(B,
61: client $B$+$iAw$i$l$?%G!<%?%*%V%8%'%/%H$O(B, $B;XDj$,$J$$8B$j(B server $B$N%9%?%C(B
62: $B%/$K@Q$^$l(B, $B%3%^%s%I$,Aw$i$l$?;~$K(B, $BI,MW$J$@$1%9%?%C%/$+$i%G!<%?$r<h$j=P(B
63: $B$7$F(B, $B4X?t8F$S=P$7$N0z?t$H$9$k(B.
1.2 noro 64: \E
65: \BEG
66: The server is a stack machine. That is data objects sent by the client
67: are pushed to the stack of the server.
68: If the server gets a command, then the data are
69: popped form the stack and they are used as arguments of a function call.
70: \E
1.1 noro 71:
1.2 noro 72: \BJP
73: @b{OpenXM} $B$K$*$$$FFCD'E*$J$3$H$O(B, $B7W;;7k2L$OC1$K(B server $B$N%9%?%C%/$K(B
1.1 noro 74: $B@Q$^$l$k$@$1$G(B, client $B$+$i$N0MMj$,$J$$8B$j(B, $BDL?.O)$K%G!<%?$ON.$l$J$$(B
75: $B$H$$$&E@$G$"$k(B.
1.2 noro 76: \E
1.1 noro 77:
1.2 noro 78: \BEG
79: In @b{OpenXM}, the result of a computation done in the server
80: is simply pushed to the stack and the data is not written to
81: the communication stream without requests from the client.
82: \E
83:
84: \BJP
1.1 noro 85: $B%W%m%H%3%k$K$O(B, $B%*%V%8%'%/%H$N6&DL%U%)!<%^%C%H$r5,Dj(B
86: $B$9$k(B @b{CMO} (Common Mathematical Object format), $B%W%m%;%9$KBP$9$k(B
87: $BF0:n$r;XDj$9$k(B @b{SM} (Stack Machine command) $B$,4^$^$l$k(B.
1.2 noro 88: $B$3$l$i$O(B, $B%G!<%?$rAw$k:]$K(B, $B%G!<%?$N<oN`$r;XDj$9$k(B
1.1 noro 89: $B$?$a$N(B @b{OX} expression $B$H$7$F%i%C%T%s%0$5$l$k(B.
90:
1.2 noro 91: @b{OpenXM} $B$K$h$kJ,;67W;;$r9T$&>l9g$K$O(B,
1.1 noro 92: $B$^$:(B, server $B$rN)$A>e$2$F(B, $BDL?.$r@.N)$5$;$kI,MW$,$"$k(B. $B$3$N$?$a$K(B,
93: @code{ox_launch()}, @code{ox_launch_nox()}, @code{ox_launch_generic()}
94: $B$J$I$N4X?t$,MQ0U$5$l$F$$$k(B. $B$5$i$K(B, $BDL?.$N@.N)$7$?(B server $B$KBP$7$F(B
95: $B0J2<$N$h$&$JA`:n$,4X?t$H$7$FMQ0U$5$l$F$$$k(B.
1.2 noro 96: \E
97:
98: \BEG
99: @b{OpenXM} protocol consists of two components:
100: @b{CMO} (Common Mathematical Object format) which determines
101: a common format of data representations and
102: @b{SM} (StackMachine command) which specifies actions on servers.
103: These are wrapped as @b{OX} expressions to indicate the sort of
104: data when they are sent.
105:
106: To execute a distributed computation by @b{OpenXM},
107: one has to invoke @b{OpenXM} servers and to establish communications
108: between the client and the servers.
109: @code{ox_launch()}, @code{ox_launch_nox()}, @code{ox_launch_generic()}
110: are preprared for such purposes. Furthermore the following functions
111: are available.
112: \E
1.1 noro 113:
114: @table @code
115: @item @code{ox_push_cmo()}
116:
1.2 noro 117: \JP $B%G!<%?$r(B server $B$N%9%?%C%/$K@Q$`(B
1.3 ! noro 118: \EG It requests a server to push an object to the stack of a server.
1.1 noro 119:
120: @item @code{ox_pop_cmo()}
1.2 noro 121: \JP $B%G!<%?$r(B server $B$N%9%?%C%/$+$i<h$j=P$9(B.
1.3 ! noro 122: \EG It request a server to pop an object from the stack of a server.
1.1 noro 123:
124: @item @code{ox_cmo_rpc()}
125:
1.2 noro 126: \JP server $B$N4X?t$r8F$S=P$7(B, $B7k2L$r%9%?%C%/$K@Q$`(B.
127: \BEG
128: It requests to execute a function on a server.
129: The result is pushed to the stack of the server.
130: \E
1.1 noro 131:
132: @item @code{ox_execute_string()}
133:
1.2 noro 134: \BJP
1.1 noro 135: server $B8GM-$N%f!<%68@8l(B (@b{Asir} $B$J$i(B Asir $B8@8l(B) $B$G=q$+$l$?J8;zNs$r(B
136: server $B$,<B9T$7(B, $B7k2L$r%9%?%C%/$K@Q$`(B.
1.2 noro 137: \E
138: \BEG
139: It requests a server to parse and execute a string
140: by the parser and the evaluater of the server.
141: The result is pushed to the stack of the server.
142: \E
1.1 noro 143:
144: @item @code{ox_push_cmd()}
145:
1.2 noro 146: \JP @b{SM} $B%3%^%s%I$NAw?.(B.
147: \EG It requests a server to execute a command.
1.1 noro 148:
149: @item @code{ox_get()}
150:
1.2 noro 151: \JP $B4{$KDL?.O)$K$"$k%G!<%?$N<h$j=P$7(B.
152: \EG It gets an object from a data stream.
1.1 noro 153: @end table
154:
1.2 noro 155: \JP @node Mathcap,,, $BJ,;67W;;(B
156: \EG @node Mathcap,,, Distributed computation
1.1 noro 157: @section Mathcap
158:
1.2 noro 159: \BJP
160: server, client $B$H$b$K(B, @b{OpenXM} $B$G5,Dj$5$l$F$$$kA4$F$N(B@b{CMO} $B%U%)!<(B
1.1 noro 161: $B%^%C%H(B, @b{SM} $B%3%^%s%I$r<BAu$7$F$$$k$H$O8B$i$J$$(B. $BAj<j$NCN$i$J$$%G!<%?(B,
1.2 noro 162: $B%3%^%s%I$rAw$C$?>l9g(B, $B8=>u$G$O7k2L$OM=A[$G$-$J$$(B. $B$3$N$?$a(B, @b{OpenXM}
1.1 noro 163: $B$G$O(B, $B$"$i$+$8$a8_$$$N%5%]!<%H$9$k(B @b{CMO}, @b{SM} $B$N%j%9%H$r8r49$7$"$C$F(B,
164: $BAj<j$NCN$i$J$$%G!<%?$rAw$i$J$$$h$&$K$9$k;EAH$_$rDs>'$7$F$$$k(B. $B$3$N$?$a$N(B
165: $B%G!<%?$,(B Mathcap $B$G$"$k(B. Mathcap $B$O(B @b{CMO} $B$H$7$F$O%j%9%H$G$"$j(B, $B$=$N(B
166: $BMWAG$O(B 32 bit $B@0?t$^$?$OJ8;zNs$G$"$k(B. $B8=:_$N5,Dj$G$O(B, Mathcap $B$O(B
167: $BD9$5$,(B 3 $B$N%j%9%H$G(B,
168:
1.2 noro 169: [[version $BHV9f(B, server $BL>(B],@b{SM}taglist,[[@b{OX}tag,@b{CMO}taglist],
170: [@b{OX}tag,@b{CMO}taglist],...]]
1.1 noro 171:
1.2 noro 172: $B$H$$$&7A$r$7$F$$$k(B. [@b{OX}tag,@b{CMO}taglist] $B$O(B,
1.1 noro 173: @b{OX}tag $B$G<($5$l$k%+%F%4%j$N%G!<%?$KBP$7$F(B, $B$I$N$h$&$J(B @b{CMO} $B$,;HMQ2D(B
174: $BG=$+$r<($9$b$N$G$"$k(B. $B$3$N;XDj$rJ#?t5v$9$3$H$K$h$j(B, $BNc$($P(B
175: @samp{ox_asir} $B$N$h$&$K(B, @b{CMO} $B%G!<%?0J30$K(B, @b{Asir} $B8GM-$N%G!<%?7A<0(B
176: $B$K$h$j(B, @b{CMO}$B$h$jB?$/$N<oN`$N%G!<%?Aw<u?.$r9T$($k$3$H$r<($;$k(B.
177:
178: $B%G!<%?Aw?.$N:]$K(B, $BAj<j%W%m%;%9$N(B Mathcap $B$,4{$KEPO?$5$l$F$$$k>l9g(B,
179: Mathcap $B$K$h$k%A%'%C%/$r9T$&$+H]$+$O(B,
180: @code{ctrl} $B%3%^%s%I$N(B @code{"ox_check"} $B%9%$%C%A$K$h$j7h$^$k(B.
181: $B$3$N%9%$%C%A$N=i4|CM$O(B 1 $B$G(B, $B%A%'%C%/$r9T$&$3$H$r0UL#$9$k(B.
182: @code{ctrl("ox_check",0)} $B$K$h$j%A%'%C%/$r9T$o$J$$$h$&$K$G$-$k(B.
1.2 noro 183: \E
184: \BEG
185: A server or a client does not necessarily implement full specifications
186: of @b{OpenXM}. If a program sends data unknown to its peer, an unrecoverable
187: error may occur. To avoid such a case @b{OpenXM} provides a scheme not
188: to send data unknown to peers. It is realized by exchanging the list of
189: supported @b{CMO} and @b{SM}. The list is called mathcap.
190: Mathcap is also defined as a @b{CMO} and the elements are 32bit integers
191: or strings.
192: The format of mathcap is as follows.
193:
1.3 ! noro 194: [[version number, server name],@b{SM}taglist,
! 195: [[@b{OX}tag,@b{CMO}taglist],[@b{OX}tag,@b{CMO}taglist],...]]
1.2 noro 196:
197: [@b{OX}tag,@b{CMO}taglist] indicates that available object tags for
198: a category of data specified by @b{OX}tag.
199: For example @samp{ox_asir} accepts the local object format used by @b{Asir}
200: and the mathcap from @samp{ox_asir} reflects the fact.
201:
202: If @code{"ox_check"} switch of @code{ctrl} is set to 1,
203: the check by a mathcap is done before data is sent.
204: If @code{"ox_check"} switch of @code{ctrl} is set to 0,
205: the check is not done.
206: By default it is set to 1.
207: \E
1.1 noro 208:
1.2 noro 209: \BJP
1.1 noro 210: @node $B%9%?%C%/%^%7%s%3%^%s%I(B,,, $BJ,;67W;;(B
211: @section $B%9%?%C%/%^%7%s%3%^%s%I(B
1.2 noro 212: \E
213: \BEG
214: @node Stackmachine commands,,, Distributed computation
215: @section Stackmachine commands
216: \E
1.1 noro 217:
1.2 noro 218: \BJP
1.1 noro 219: $B%9%?%C%/%^%7%s%3%^%s%I$O(B, $B%9%?%C%/%^%7%s$G$"$k(B server $B$K2?$i$+$NA`:n$r9T(B
220: $B$o$;$k$?$a$KMQ0U$5$l$F$$$k(B. $B$$$/$D$+$N%3%^%s%I$O(B, $B$h$/MQ$$$i$l$k7A$G(B, $BB>(B
1.2 noro 221: $B$N%3%^%s%I(B, $B%G!<%?$H$H$b$K(B, @b{Asir} $B$NAH$_9~$_4X?t$K$h$jAw$i$l$k$,(B, $B%f!<(B
1.1 noro 222: $B%6$,L@<(E*$K$"$k%3%^%s%I$rAw$kI,MW$,$7$P$7$P@8$:$k(B. $B%9%?%C%/%^%7%s%3%^%s(B
223: $B%I$O(B 32 bit $B0J2<$N@0?t$G$"$j(B, @code{ox_push_cmd()} $B%3%^%s%I$GAw?.$G$-$k(B.
224: $B0J2<$G(B, $BBeI=E*$J%9%?%C%/%^%7%s%3%^%s%I$K$D$$$F2r@b$9$k(B. @b{SM_xxx=yyy}
225: $B$G(B, @b{SM_xxx} $B$,(B mnemonic, @b{yyy} $B$,CM$G$"$k(B.
226:
227: $B0J2<$G(B, $B%9%?%C%/$+$i%G!<%?$r<h$j=P$9$H$O(B, $B%9%?%C%/$N0lHV>e$+$i%G!<%?$r(B
228: $B<h$j=|$/$3$H$r8@$&(B.
1.2 noro 229: \E
230:
231: \BEG
232: The stackmachine commands are provided to request a server to execute
233: various operations.
234: They are automatically sent by built-in functions of @b{Asir},
235: but one often has to send them manually. They are represented by
236: 32bit integers. One can send them by calling @code{ox_push_cmd()}.
237: Typical stackmachine commands are as follows.
238: @b{SM_xxx=yyy} means that @b{SM_xxx} is a mnemonic and that
239: @b{yyy} is its value.
240: \E
1.1 noro 241:
242: @table @b
243: @item SM_popSerializedLocalObject=258
244:
1.2 noro 245: \BJP
1.1 noro 246: server $B$,(B @samp{ox_asir} $B$N>l9g$K(B, $BI,$:$7$b(B @b{CMO} $B$GDj5A$5$l$F$$$J$$(B
1.2 noro 247: $B%*%V%8%'%/%H$r%9%?%C%/$+$i<h$j=P$7(B, $BDL?.O)$KN.$9(B.
248: \E
249: \BEG
250: An object not necessarily defined as @b{CMO} is popped from the stack
251: and is sent to the client. This is available only on @samp{ox_asir}.
252: \E
1.1 noro 253:
254: @item SM_popCMO=262
255:
1.2 noro 256: \JP @b{CMO} $B%*%V%8%'%/%H$r%9%?%C%/$+$i<h$j=P$7(B, $BDL?.O)$KN.$9(B.
257: \EG A @b{CMO} object is popped from the stack and is sent to the client.
1.1 noro 258:
259: @item SM_popString=263
260:
1.2 noro 261: \JP $B%9%?%C%/$+$i%G!<%?$r<h$j=P$7(B, $B2DFI7A<0$NJ8;zNs$KJQ49$7$FDL?.O)$KN.$9(B.
262: \EG An object is popped from the stack and is sent to the client as a readable string.
1.1 noro 263:
264: @item SM_mathcap=264
265:
1.2 noro 266: \JP server $B$N(B mathcap $B$r%9%?%C%/$K@Q$`(B.
267: \EG The server's mathcap is pushed to the stack.
1.1 noro 268:
269: @item SM_pops=265
270:
1.2 noro 271: \BJP
1.1 noro 272: $B%9%?%C%/$+$i<h$j=P$7$?%G!<%?$r8D?t$H$7$F(B, $B$=$N8D?tJ,%9%?%C%/$+$i(B
273: $B%G!<%?$r<h$j=|$/(B.
1.2 noro 274: \E
275: \BEG
276: Objects are removed from the stack. The number of object to be removed
277: is specified by the object at the top of the stack.
278: \E
1.1 noro 279:
280: @item SM_setName=266
281:
1.2 noro 282: \BJP
1.1 noro 283: $B%9%?%C%/$+$i%G!<%?$rJQ?tL>$H$7$F<h$j=P$7(B, $B<!$K<h$j=P$7$?%G!<%?$r$=$N(B
284: $BJQ?t$K3d$jEv$F$k(B. $B$3$N3d$jEv$F$O(B, server $B8GM-$N=hM}$H$7$F9T$o$l$k(B.
1.2 noro 285: \E
286: \BEG
287: A variable name is popped form the stack. Then an object is
288: popped and it is assigned to the variable. This assignment is done
289: by the local language of the server.
290: \E
1.1 noro 291:
292: @item SM_evalName=267
293:
1.2 noro 294: \JP $B%9%?%C%/$+$i<h$j=P$7$?%G!<%?$rJQ?tL>$H$7$F(B, $B$=$NCM$r%9%?%C%/$K:\$;$k(B.
295: \BEG
296: A variable name is popped from the stack.
297: Then the value of the variable is pushed to the stack.
298: \E
1.1 noro 299:
300: @item SM_executeStringByLocalParser=268
301:
1.2 noro 302: \BJP
1.1 noro 303: $B%9%?%C%/$+$i<h$j=P$7$?%G!<%?$r(B, server $B8GM-$N(B parser, evaluator $B$G(B
304: $B=hM}$7(B, $B7k2L$r%9%?%C%/$K:\$;$k(B.
1.2 noro 305: \E
306: \BEG
307: A string popped from the stack is parsed and evaluated.
308: The result is pushed to the stack.
309: \E
1.1 noro 310:
311: @item SM_executeFunction=269
312:
1.2 noro 313: \BJP
1.1 noro 314: $B%9%?%C%/$+$i(B, $B4X?tL>(B, $B0z?t$N8D?t(B, $B8D?tJ,$N0z?t$r<h$j=P$7(B, $B4X?t$r8F$S=P$7(B
315: $B7k2L$r%9%?%C%/$K:\$;$k(B.
1.2 noro 316: \E
317: \BEG
318: A function name, the number of arguments and the arguments are
319: popped from the stack. Then the function is executed and the result
320: is pushed to the stack.
321: \E
1.1 noro 322:
323: @item SM_beginBlock=270
1.2 noro 324: \JP $B%G!<%?%V%m%C%/$N$O$8$^$j(B.
325: \EG It indicates the beginning of a block.
1.1 noro 326:
327: @item SM_endBlock=271
1.2 noro 328: \JP $B%G!<%?%V%m%C%/$N=*$j(B.
329: \EG It indicates the end of a block.
1.1 noro 330:
331: @item SM_shutdown=272
332:
1.2 noro 333: \JP server $B$H$N8r?.$r@ZCG$7(B, server $B$r=*N;$5$;$k(B.
334: \EG It shuts down communications and terminates servers.
1.1 noro 335:
336: @item SM_setMathcap=273
337:
1.2 noro 338: \JP $B%9%?%C%/$N%G!<%?$r(B client $B$N(B mathcap $B$H$7$F(B, server $B$KEPO?$rMW5a$9$k(B.
339: \BEG
340: It requests a server to register the data at the top of the stack
341: as the client's mathcap.
342: \E
1.1 noro 343:
344: @item SM_getsp=275
345:
1.2 noro 346: \JP $B8=:_%9%?%C%/$K@Q$^$l$F$$$k%G!<%?$N?t$r%9%?%C%/$K:\$;$k(B.
347: \EG The number of objects in the current stack is pushed to the stack.
1.1 noro 348:
349: @item SM_dupErrors=276
350:
1.2 noro 351: \BJP
1.1 noro 352: $B8=:_%9%?%C%/$K@Q$^$l$F$$$k%*%V%8%'%/%H$NFb(B, $B%(%i!<%*%V%8%'%/%H$N$_(B
353: $B$r%j%9%H$K$7$F(B, $B%9%?%C%/$K:\$;$k(B.
1.2 noro 354: \E
355: \BEG
356: The list of all the error objects in the current stack is pushed to
357: the stack.
358: \E
1.1 noro 359:
360: @item SM_nop=300
361:
1.2 noro 362: \JP $B$J$K$b$7$J$$(B.
363: \EG Nothing is done.
1.1 noro 364: @end table
365:
1.2 noro 366: \BJP
1.1 noro 367: @node $B%G%P%C%0(B,,, $BJ,;67W;;(B
368: @section $B%G%P%C%0(B
1.2 noro 369: \E
370: \BEG
371: @node Debugging,,, Distributed computation
372: @section Debugging
373: \E
1.1 noro 374:
1.2 noro 375: \BJP
1.1 noro 376: $BJ,;67W;;$K$*$$$F$O(B, $B0lHL$K%G%P%C%0$,:$Fq$H$J$k(B. @samp{ox_asir} $B$K(B
377: $B$*$$$F$O(B, $B%G%P%C%0$N$?$a$N$$$/$D$+$N5!G=$rDs6!$7$F$$$k(B.
1.2 noro 378: \E
379: \BEG
380: In general, it is difficult to debug distributed computations.
381: @samp{ox_asir} provides several functions for debugging.
382: \E
1.1 noro 383:
384: @menu
1.2 noro 385: \BJP
1.1 noro 386: * $B%(%i!<%*%V%8%'%/%H(B::
387: * $B%j%;%C%H(B::
388: * $B%G%P%C%0MQ%]%C%W%"%C%W%&%#%s%I%&(B::
1.2 noro 389: \E
390: \BEG
391: * Error object::
392: * Resetting a server::
393: * Pop-up command window for debugging::
394: \E
1.1 noro 395: @end menu
396:
1.2 noro 397: \BJP
1.1 noro 398: @node $B%(%i!<%*%V%8%'%/%H(B,,, $B%G%P%C%0(B
399: @subsection $B%(%i!<%*%V%8%'%/%H(B
1.2 noro 400: \E
401: \BEG
402: @node Error object,,, Debugging
403: @subsection Error object
404: \E
1.1 noro 405:
1.2 noro 406: \BJP
407: @b{OpenXM} server $B$,<B9TCf$K%(%i!<$r5/$3$7$?>l9g(B, $B7k2L$N$+$o$j$K(B
1.1 noro 408: @b{CMO} $B%(%i!<%*%V%8%'%/%H$r%9%?%C%/$K@Q$`(B. $B%(%i!<%*%V%8%'%/%H$O(B, $BBP1~$9$k(B
409: @b{SM} $B%3%^%s%I$N%7%j%"%kHV9f$H(B, $B%(%i!<%a%C%;!<%8$+$i$J$j(B, $B$=$l$K$h$C$F(B
410: $B$I$N(B @b{SM} $B%3%^%s%I$,$I$N$h$&$J%(%i!<$r5/$3$7$?$,$"$kDxEYH=L@$9$k(B.
1.2 noro 411: \E
412: \BEG
413: When an error has occurred on an @b{OpenXM} server,
414: an error object is pushed to the stack instead of a result of the computation.
415: The error object consists of the serial number of the @b{SM} command
416: which caused the error, and an error message.
417: \E
1.1 noro 418:
419: @example
420: [340] ox_launch();
421: 0
422: [341] ox_rpc(0,"fctr",1.2*x);
423: 0
424: [342] ox_pop_cmo(0);
425: error([8,fctrp : invalid argument])
426: @end example
427:
1.2 noro 428: \BJP
1.1 noro 429: @node $B%j%;%C%H(B,,, $B%G%P%C%0(B
1.2 noro 430: @subsection $B%j%;%C%H(B
431: \E
432: \BEG
433: @node Resetting a server,,, Debugging
434: @subsection Resetting a server
435: \E
1.1 noro 436:
1.2 noro 437: \BJP
1.1 noro 438: @code{ox_reset()} $B$O8=:_<B9TCf$N(B server $B$r%j%;%C%H$7$F(B, $B%3%^%s%I<u$1IU$1(B
439: $B>uBV$KLa$9(B. $B$3$N5!G=$O(B, $BDL>o$N(B @b{Asir} $B%;%C%7%g%s$K$*$1$k%-!<%\!<%I3d$j9~$_(B
1.2 noro 440: $B$H$[$\F1MM$K(B, @b{OpenXM} server $B$r%j%;%C%H$G$-$k(B. $B$^$?(B, $B2?$i$+$N860x$G(B,
1.1 noro 441: $BDL?.O)$N%G!<%?$,:\$C$?$^$^$N>uBV$G(B @code{ox_rpc()} $B$J$I$r<B9T$9$k$H(B,
442: @code{ox_pop_cmo()} $B$J$I(B, $B%9%?%C%/$+$i$N<h$j=P$7$H(B, $B<B:]$KFI$^$l$k%G!<%?(B
443: $B$NBP1~$,IT@5$K$J$k(B. $B$=$N$h$&$J>l9g$K$bM-8z$G$"$k(B.
1.2 noro 444: \E
1.1 noro 445:
1.2 noro 446: \BEG
447: @code{ox_reset()} resets a process whose identifier is @var{number}.
448: After its execution the process is ready for receiving data.
449: This function corresponds to the keyboard interrupt on an usual @b{Asir}
450: session. It often happens that a request of a client does not correspond
451: correctly to the result from a server. It is caused by remaining data
452: on data streams. @code{ox_reset} is effective for such cases.
453: \E
1.1 noro 454:
1.2 noro 455: \BJP
1.1 noro 456: @node $B%G%P%C%0MQ%]%C%W%"%C%W%&%#%s%I%&(B,,, $B%G%P%C%0(B
457: @subsection $B%G%P%C%0MQ%]%C%W%"%C%W%&%#%s%I%&(B
1.2 noro 458: \E
459: \BEG
460: @node Pop-up command window for debugging,,, Debugging
461: @subsection Pop-up command window for debugging
462: \E
1.1 noro 463:
1.2 noro 464: \BJP
1.1 noro 465: server $B$K$O(B, client $B$K$*$1$k%-!<%\!<%I$KAjEv$9$kF~NO5!G=$,$J$$$?$a(B,
466: server $BB&$GF0:n$7$F$$$k%f!<%68@8l%W%m%0%i%`$N%G%P%C%0$,:$Fq$K$J$k(B. $B$3$N(B
467: $B$?$a(B, server $BB&$G$N%f!<%68@8l%W%m%0%i%`<B9TCf$N%(%i!<$*$h$S(B, client $B$+$i(B
468: $B$N(B @code{ox_rpc(@var{id},"debug")} $B<B9T$K$h$j(B, server $B$K%G%P%C%0%3%^%s%I(B
469: $B$rF~NO$9$k$?$a$N>.$5$J%&%#%s%I%&$,%]%C%W%"%C%W$9$k(B. $B$3$N%&%#%s%I%&$+$i$N(B
470: $BF~NO$KBP$9$k=PNO$O(B, log $BMQ$N(B @samp{xterm} $B$KI=<($5$l$k(B. $B$3$N%&%#%s%I%&$r(B
471: $BJD$8$k$K$O(B, @code{quit} $B$rF~NO$9$l$P$h$$(B.
1.2 noro 472: \E
473: \BEG
474: As a server does not have any standard input device such as a keyboard,
475: it is difficult to debug user programs running on the server.
476: @samp{ox_asir} pops up a small command window to input debug commands
477: when an error has occurred during user a program execution or
478: @code{ox_rpc(@var{id},"debug")} has been executed.
479: The responses to commands are shown in @samp{xterm} to display
480: standard outputs from the server. To close the small window,
481: input @code{quit}.
482: \E
1.1 noro 483:
1.2 noro 484: \BJP
1.1 noro 485: @node $BJ,;67W;;$K4X$9$k4X?t(B,,, $BJ,;67W;;(B
486: @section $BJ,;67W;;$K4X$9$k4X?t(B
1.2 noro 487: \E
488: \BEG
489: @node Functions for distributed computation,,, Distributed computation
490: @section Functions for distributed computation
491: \E
1.1 noro 492:
493: @menu
494: * ox_launch ox_launch_nox ox_shutdown::
495: * ox_launch_generic::
496: * ox_asir::
497: * ox_rpc ox_cmo_rpc ox_execute_string::
498: * ox_push_cmo ox_push_local::
499: * ox_pop_cmo ox_pop_local::
500: * ox_push_cmd ox_sync::
501: * ox_get::
502: * ox_pops::
503: * ox_reset register_handler::
504: * ox_select::
505: * ox_flush::
506: * ox_get_serverinfo::
507: * generate_port try_bind_listen try_connect try_accept register_server::
508: * ifplot conplot plot plotover::
509: @end menu
510:
1.2 noro 511: \JP @node ox_launch ox_launch_nox ox_shutdown,,, $BJ,;67W;;$K4X$9$k4X?t(B
512: \EG @node ox_launch ox_launch_nox ox_shutdown,,, Functions for distributed computation
1.1 noro 513: @subsection @code{ox_launch}, @code{ox_launch_nox}, @code{ox_shutdown}
514: @findex ox_launch
515: @findex ox_launch_nox
516: @findex ox_shutdown
517:
518: @table @t
519: @item ox_launch([@var{host}[,@var{dir}],@var{command}])
520: @itemx ox_launch_nox([@var{host}[,@var{dir}],@var{command}])
1.2 noro 521: \JP :: $B1s3V%W%m%;%9$N5/F0$*$h$SDL?.$r3+;O$9$k(B.
522: \EG :: Initialize OpenXM servers.
1.1 noro 523: @item ox_shutdown(@var{id})
1.2 noro 524: \JP :: $B1s3V%W%m%;%9$r=*N;$5$;(B, $BDL?.$r=*N;$9$k(B.
525: \EG :: Terminates OpenXM servers.
1.1 noro 526: @end table
527:
528: @table @var
529: @item return
1.2 noro 530: \JP $B@0?t(B
531: \EG integer
1.1 noro 532: @item host
1.2 noro 533: \JP $BJ8;zNs$^$?$O(B 0
534: \EG string or 0
1.1 noro 535: @item dir, command
1.2 noro 536: \JP $BJ8;zNs(B
537: \EG string
1.1 noro 538: @item id
1.2 noro 539: \JP $B@0?t(B
540: \EG integer
1.1 noro 541: @end table
542:
543: @itemize @bullet
1.2 noro 544: \BJP
1.1 noro 545: @item
546: @code{ox_launch()} $B$O(B, $B%[%9%H(B @var{host} $B>e$G%3%^%s%I(B @var{command} $B$r5/F0$7(B,
547: $B$3$N%W%m%;%9$HDL?.$r3+;O$9$k(B.
548: $B0z?t$,(B 3 $B$D$N>l9g(B, @var{host} $B>e$G(B,
549: @var{dir} $B$K$"$k(B @samp{ox_launch} $B$H$$$&%5!<%P5/F0MQ%W%m%0%i%`$rN)$A>e$2$k(B.
550: @samp{ox_launch} $B$O(B @var{command} $B$r5/F0$9$k(B.
551: @var{host} $B$,(B 0 $B$N;~(B, @b{Asir} $B$,F0:n$7$F$$$k(B
552: $B%^%7%s>e$G%3%^%s%I$r5/F0$9$k(B.
553: $BL50z?t$N>l9g(B, @var{host} $B$O(B 0, @var{dir} $B$O(B @code{get_rootdir()}
554: $B$GJV$5$l$k%G%#%l%/%H%j(B, @var{command} $B$OF1$8%G%#%l%/%H%j$N(B @samp{ox_asir}
555: $B$r0UL#$9$k(B.
1.2 noro 556:
1.1 noro 557: @item
558: @var{host} $B$,(B 0, $B$9$J$o$A%5!<%P$r(B local $B$K5/F0$9$k>l9g$K$O(B, @var{dir}
559: $B$r>JN,$G$-$k(B. $B$3$N>l9g(B, @var{dir} $B$O(B @code{get_rootdir()} $B$GJV$5$l$k(B
560: $B%G%#%l%/%H%j$H$J$k(B.
1.2 noro 561:
1.1 noro 562: @item
563: @var{command} $B$,(B @samp{/} $B$G;O$^$kJ8;zNs$N>l9g(B, $B@dBP%Q%9$H2r<a$5$l$k(B.
564: $B$=$l0J30$N>l9g(B, @var{dir} $B$+$i$NAjBP%Q%9$H2r<a$5$l$k(B.
1.2 noro 565:
1.1 noro 566: @item
567: UNIX $BHG$K$*$$$F$O(B, @code{ox_launch()} $B$O(B, @var{command} $B$NI8=`=PNO(B, $BI8=`(B
568: $B%(%i!<=PNO$rI=<($9$k$?$a$N(B @samp{xterm} $B$r5/F0$9$k(B.
569: @code{ox_launch_nox()} $B$O(B, @code{X} $B$J$7$N4D6-$N>l9g(B, $B$"$k$$$O(B @samp{xterm}
570: $B$r5/F0$;$:$K%5!<%P$rN)$A>e$2$k>l9g$KMQ$$$k(B. $B$3$N>l9g(B,
571: @var{command} $B$N=PNO$O(B @samp{/dev/null} $B$K@\B3$5$l$k(B.
572: @code{ox_launch()} $B$N>l9g$G$b(B, $B4D6-JQ?t(B @code{DISPLAY} $B$,@_Dj$5$l$F$$$J$$(B
573: $B>l9g$K$O(B, @code{ox_launch_nox()} $B$HF1$8F0:n$r$9$k(B.
574:
575: @item
576: $BJV$5$l$k@0?t$ODL?.$N$?$a$N<1JL;R$H$J$k(B.
577:
578: @item
579: @b{Asir} $B$HDL?.$9$k%W%m%;%9$OF10l$N%^%7%s>e$GF0:n$7$F$$$kI,MW$O$J$$(B. $B$^(B
580: $B$?(B, $BDL?.$K$*$1$k%P%$%H%*!<%@$O(B server, client $B4V$G$N:G=i$N(B negotiation
581: $B$G7h$^$k$?$a(B, $BAj<j@h$N%^%7%s$H%P%$%H%*!<%@$,0[$J$C$F$$$F$b9=$o$J$$(B.
582:
583: @item
584: @var{host} $B$K%^%7%sL>$r;XDj$9$k>l9g(B, $B0J2<$N=`Hw$,I,MW$G$"$k(B.
585: $B$3$3$G(B, @b{Asir} $B$NF0$$$F$$$k%[%9%H$r(B @code{A}, $BDL?.Aj<j$N%W%m%;%9(B
586: $B$,5/F0$5$l$k%[%9%H$r(B @code{B} $B$H$9$k(B.
587:
588: @enumerate
589: @item
590: $B%[%9%H(B @code{B} $B$N(B @samp{~/.rhosts} $B$K(B, $B%[%9%H(B @code{A} $B$N%[%9%H(B
591: $BL>$rEPO?$9$k(B.
592:
593: @item
594: @samp{ox_plot} $B$J$I(B, @code{X} $B$H$N%3%M%/%7%g%s$bMQ$$$i$l$k>l9g(B,
595: @code{Xserver} $B$KBP$7(B, $BI,MW$J%[%9%H$r(B authorize $B$5$;$k(B.
596: @code{xhost} $B$GI,MW$J%[%9%HL>$rDI2C$9$l$P$h$$(B.
597:
598: @item
599: @var{command} $B$K$h$C$F$O(B, $B%9%?%C%/$rBgNL$K;HMQ$9$k(B
600: $B$b$N$b$"$k$?$a(B, @samp{.cshrc} $B$G%9%?%C%/%5%$%:$rBg$-$a(B (16MB $BDxEY(B) $B$K(B
601: $B;XDj$7$F$*$/$N$,0BA4$G$"$k(B. $B%9%?%C%/%5%$%:$O(B @code{limit stacksize 16m}
602: $B$J$I$H;XDj$9$k(B.
603: @end enumerate
604:
605: @item
606: @var{command} $B$,(B, X $B>e$K%&%$%s%I%&$r3+$1$k>l9g(B,
607: @var{display}$B$,;XDj$5$l$l$P$=$NJ8;zNs$r(B, $B>JN,;~$K$O4D6-JQ?t(B
608: @code{DISPLAY} $B$NCM$rMQ$$$k(B.
609:
610: @item
611: @code{ox_shutdown()} $B$O<1JL;R(B @var{id} $B$KBP1~$9$k1s3V%W%m%;%9(B
612: $B$r=*N;$5$;$k(B.
613:
614: @item
615: @b{Asir} $B$,@5>o$7$?>l9g$K$OA4$F$NF~=PNO%9%H%j!<%`$O<+F0E*$KJD$8$i$l(B,
616: $B5/F0$5$l$F$$$k%W%m%;%9$OA4$F=*N;$9$k$,(B, $B0[>o=*N;$7$?>l9g(B, $B1s3V%W%m%;%9(B
617: $B$,=*N;$7$J$$>l9g$b$"$k(B. @b{Asir} $B$,0[>o=*N;$7$?>l9g(B, $B1s3V%W%m%;%9$r(B
618: $B5/F0$7$?%^%7%s>e$G(B @code{ps} $B$J$I$r5/F0$7$F(B, $B$b$7(B @b{Asir} $B$+$i5/F0(B
619: $B$7$?%W%m%;%9$,;D$C$F$$$k>l9g(B, @code{kill} $B$9$kI,MW$,$"$k(B.
620:
621: @item
622: log $BI=<(MQ(B @samp{xterm} $B$O(B @samp{-name ox_term} $B%*%W%7%g%s$G5/F0$5$l$k(B.
623: $B$h$C$F(B, @samp{ox_term} $B$J$k%j%=!<%9L>$KBP$7$F(B @samp{xterm} $B$N%j%=!<%9@_Dj(B
624: $B$r9T$($P(B, log $BMQ(B @samp{xterm} $B$N5sF0$N$_$rJQ$($k$3$H$,$G$-$k(B.
625: $BNc$($P(B,
1.2 noro 626:
1.1 noro 627: @example
628: ox_xterm*iconic:on
629: ox_xterm*scrollBar:on
630: ox_xterm*saveLines:1000
631: @end example
1.2 noro 632:
1.1 noro 633: $B$K$h$j(B, icon $B$G5/F0(B, scrollbar $B$D$-(B, scrollbar $B$G;2>H$G$-$k9T?t(B
634: $B$,:GBg(B 1000 $B9T(B, $B$H$$$&;XDj$,$G$-$k(B.
1.2 noro 635: \E
636:
637: \BEG
638: @item
639: Function @code{ox_launch()} invokes a process to execute @var{command}
640: on a host @var{host} and enables @b{Asir} to communicate with that
641: process.
642: If the number of arguments is 3, @samp{ox_launch} in @var{dir}
643: is invoked on @var{host}. Then @samp{ox_launch} invokes @var{command}.
644: If @var{host} is equal to 0, all the commands are invoked
645: on the same machine as the @b{Asir} is running.
646: If no arguments are specified, @var{host}, @var{dir} and @var{command}
1.3 ! noro 647: are regarded as 0, the value of @code{get_rootdir()} and @samp{ox_asir} in
1.2 noro 648: the same directory respectively.
649:
650: @item
651: If @var{host} is equal to 0, then @var{dir} can be omitted.
652: In such a case @var{dir} is regarded as the value of @code{get_rootdir()}.
653:
654: @item
655: If @var{command} begins with @samp{/}, it is regarded as an absolute
656: pathname. Otherwise it is regarded as a relative pathname from
657: @var{dir}.
658:
659: @item
660: On UNIX, @code{ox_launch()} invokes @samp{xterm} to display
661: standard outputs from @var{command}.
662: If @code{X11} is not available or one wants to invoke servers without
663: @samp{xterm}, use @code{ox_launch_nox()}, where the outputs of
664: @var{command} are redirected to @samp{/dev/null}.
665: If the environment variable @code{DISPLAY} is not set,
666: @code{ox_launch()} and @code{ox_launch_nox()} behave identically.
667:
668: @item
669: The returned value is used as the identifier for communication.
670:
671: @item
672: The peers communicating with @b{Asir} are not necessarily processes
673: running on the same machine.
674: The communication will be successful even if
675: the byte order is different from those of the peer processes,
676: because the byte order for the communication is determined
677: by a negotiation between a client and a server.
678:
679: @item
680: The following preparations are necessary.
681: Here, Let @code{A} be the host on which @b{Asir} is running, and
682: @code{B} the host on which the peer process will run.
683:
684: @enumerate
685: @item
686: Register the hostname of the host @code{A} to the @samp{~/.rhosts} of
687: the host @code{B}.
688: That is, you should be allowed to access the host @code{B} from @code{A}
689: without supplying a password.
690:
691: @item
692: For cases where connection to @code{X} is also used,
693: let @code{Xserver} authorize the relevant hosts.
694: Adding the hosts can be done by command @code{xhost}.
695:
696: @item
697: Some @var{command}'s consume much stack space. You are recommended
698: to set the stack size to about 16MB large in @samp{.cshrc} for safe.
699: To specify the size, put @code{limit stacksize 16m} for an example.
700: @end enumerate
701:
702: @item
703: When @var{command} opens a window on @code{X},
704: it uses the string specified for @var{display};
705: if the specification is omitted, it uses the value set for the
706: environment variable @code{DISPLAY}.
707:
708: @item
709: @code{ox_shutdown()} terminates OpenXM servers whose identifier
710: is @var{id}.
711:
712: @item
713: When @b{Asir} is terminated successfully, all I/O streams are
714: automatically closed, and all the processes invoked are also terminated.
715: However, some remote processes may not terminated when @b{Asir}
716: is terminated abnormally.
717: If ever @b{Asir} is terminated abnormally, you have to kill all the
718: unterminated process invoked by @b{Asir} on every remote host.
719: Check by @code{ps} command on the remote hosts to see if such processed
720: are alive.
721:
722: @item
723: @samp{xterm} for displaying the outputs from @var{command} is
724: invoked with @samp{-name ox_term} option. Thus, by
725: specifying resources for the resource name @samp{ox_term},
726: only the behaviour of the @samp{xterm} can be customized.
727:
728: @example
729: /* iconify on start */
730: ox_xterm*iconic:on
731: /* activate the scroll bar */
732: ox_xterm*scrollBar:on
733: /* 1000 lines can be shown by the scrollbar */
734: ox_xterm*saveLines:1000
735: @end example
736: \E
1.1 noro 737: @end itemize
738:
739: @example
740: [219] ox_launch();
741: 0
742: [220] ox_rpc(0,"fctr",x^10-y^10);
743: 0
744: [221] ox_pop_local(0);
745: [[1,1],[x^4+y*x^3+y^2*x^2+y^3*x+y^4,1],
746: [x^4-y*x^3+y^2*x^2-y^3*x+y^4,1],[x-y,1],[x+y,1]]
747: [222] ox_shutdown(0);
748: 0
749: @end example
750:
751: @table @t
1.2 noro 752: \JP @item $B;2>H(B
753: \EG @item References
754: @fref{ox_rpc ox_cmo_rpc ox_execute_string},
755: @fref{ox_pop_cmo ox_pop_local},
756: @fref{ifplot conplot plot plotover}
1.1 noro 757: @end table
758:
1.2 noro 759: \JP @node ox_launch_generic,,, $BJ,;67W;;$K4X$9$k4X?t(B
760: \EG @node ox_launch_generic,,, Functions for distributed computation
1.1 noro 761: @subsection @code{ox_launch_generic}
762: @findex ox_launch_generic
763:
764: @table @t
765: @item ox_launch_generic(@var{host},@var{launch},@var{server},@var{use_unix},@var{use_ssh},@var{use_x},@var{conn_to_serv})
1.2 noro 766: \JP :: $B1s3V%W%m%;%9$N5/F0$*$h$SDL?.$r3+;O$9$k(B.
767: \EG :: Initialize OpenXM servers.
1.1 noro 768: @end table
769:
770: @table @var
771: @item return
1.2 noro 772: \JP $B@0?t(B
773: \EG integer
1.1 noro 774: @item host
1.2 noro 775: \JP $BJ8;zNs$^$?$O(B 0
776: \EG string or 0
1.1 noro 777: @item launcher, server
1.2 noro 778: \JP $BJ8;zNs(B
779: \EG string
1.1 noro 780: @item use_unix, use_ssh, use_x, conn_to_serv
1.2 noro 781: \JP $B@0?t(B
782: \EG integer
1.1 noro 783: @end table
784:
785: @itemize @bullet
1.2 noro 786: \BJP
1.1 noro 787: @item
788: @code{ox_launch_generic()} $B$O(B,
789: $B%[%9%H(B @var{host} $B>e$G(B, $B%3%s%H%m!<%k%W%m%;%9(B @var{launch} $B$*$h$S(B
790: $B%5!<%P%W%m%;%9(B @var{server} $B$r5/F0$9$k(B. $B$=$NB>$N0z?t$O(B, $B;HMQ$9$k(B
791: protocol $B$N<oN`(B, X $B$N;HMQ(B/$BIT;HMQ(B, rsh/ssh $B$K$h$k%W%m%;%95/F0(B, connect
792: $BJ}K!$N;XDj$J$I$r9T$&%9%$%C%A$G$"$k(B.
1.2 noro 793:
1.1 noro 794: @item
795: @var{host} $B$,(B 0 $B$N>l9g(B, @b{Asir} $B$,F0:n$7$F$$$k%^%7%s>e$K(B, @var{launch},
796: @var{server} $B$rN)$A>e$2$k(B. $B$3$N>l9g(B, @var{use_unix} $B$NCM$K$+$+$o$i$:(B,
797: UNIX internal protocol $B$,MQ$$$i$l$k(B.
1.2 noro 798:
1.1 noro 799: @item
800: @var{use_unix} $B$,(B 1 $B$N>l9g(B, UNIX internal protocol $B$rMQ$$$k(B. 0 $B$N>l9g(B,
801: Internet protocol $B$rMQ$$$k(B.
1.2 noro 802:
1.1 noro 803: @item
804: @var{use_ssh} $B$,(B 1 $B$N>l9g(B, @samp{ssh} (Secure Shell) $B$K$h$j%3%s%H%m!<%k(B,
1.2 noro 805: $B%5!<%P%W%m%;%9$rN)$A>e$2$k(B. @samp{ssh-agent} $B$J$I$rMxMQ$7$F$$$J>l9g(B,
806: $B%Q%9%o!<%I$NF~NO$,I,MW$H$J$k(B.
1.1 noro 807: $BAj<j@h$G(B @samp{sshd} $B$,F0$$$F$$$J$$>l9g(B, $B<+F0E*$K(B @samp{rsh} $B$,MQ$$$i$l$k$,(B,
808: $B%Q%9%o!<%I$,I,MW$H$J$k>l9g$K$O(B, $B$=$N>l$G5/F0$K<:GT$9$k(B.
1.2 noro 809:
1.1 noro 810: @item
811: @var{use_x} $B$,(B 1 $B$N>l9g(B, X $B>e$G$NF0:n$r2>Dj$7(B, $B@_Dj$5$l$F$$$k(B DISPLAY$BJQ(B
812: $B?t$rMQ$$$F(B, log $BI=<(MQ(B @samp{xterm} $B$N$b$H$G(B @var{server} $B$,5/F0$5$l(B
813: $B$k(B. DISPLAY $BJQ?t$,%;%C%H$5$l$F$$$J$$>l9g$K$O(B, $B<+F0E*$K(B X $B$J$7$N@_Dj$H$J(B
814: $B$k(B. DISPLAY $B$,ITE,@Z$K%;%C%H$5$l$F$$$k>l9g$K$O(B, $B%3%s%H%m!<%k(B, $B%5!<%P$,%O(B
815: $B%s%0$9$k$N$GMWCm0U$G$"$k(B.
1.2 noro 816:
1.1 noro 817: @item
818: @var{conn_to_serv} $B$,(B 1 $B$N>l9g(B, @b{Asir} (client) $B$,@8@.$7$?%]!<%H$K(B
819: $BBP$7(B, client $B$,(B bind,listen $B$7(B, $B5/F0$5$l$?%W%m%;%9$,(B connect $B$9$k(B.
820: @var{conn_to_serv} $B$,(B 0 $B$N>l9g(B, $B5/F0$5$l$?%W%m%;%9$,(B bind, listen $B$7(B,
821: client $B$,(B connect $B$9$k(B.
1.2 noro 822: \E
823:
824: \BEG
825: @item
826: @code{ox_launch_generic()} invokes a control process @var{launch}
827: and a server process @var{server} on @var{host}. The other arguments
828: are switches for protocol family selection, on/off of the X environment,
829: method of process invocation and selection of connection type.
830:
831: @item
832: If @var{host} is equal to 0, processes
833: are invoked on the same machine as the @b{Asir} is running.
834: In this case UNIX internal protocol is always used.
835:
836: @item
837: If @var{use_unix} is equal to 1, UNIX internal protocol is used.
838: If @var{use_unix} is equal to 0, Internet protocol is used.
839:
840: @item
841: If @var{use_ssh} is equal to 1,@samp{ssh} (Secure Shell)
842: is used to invoke processes. If one does not use @samp{ssh-agent},
843: a password (passphrase) is required.
844: If @samp{sshd} is not running on the target machine,
845: @samp{rsh} is used instead. But it will immediately fail
846: if a password is required.
847:
848: @item
849: If @var{use_x} is equal to 1, it is assumed that X environment
850: is available. In such a case @var{server} is invoked under
851: @samp{xterm} by using the current @code{DISPLAY} variable.
852: If @code{DISPLAY} is not set, it is invoked without X.
853: Note that the processes will hang up if @code{DISPLAY} is incorrectly set.
854:
855: @item
856: If @var{conn_to_serv} is equal to 1, @b{Asir} (client)
857: executes @code{bind} and @code{listen}, and the invoked processes execute
858: @code{connect}.
859: If @var{conn_to_serv} is equal to 0, @b{Asir} (client)
860: the invoked processes execute @code{bind} and @code{listen}, and
861: the client executes @code{connect}.
862: \E
1.1 noro 863: @end itemize
864:
865: @example
866: [342] LIB=get_rootdir();
867: /export/home/noro/ca/Kobe/build/OpenXM/lib/asir
868: [343] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",0,0,0,0);
869: 1
870: [344] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",1,0,0,0);
871: 2
872: [345] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",1,1,0,0);
873: 3
874: [346] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",1,1,1,0);
875: 4
876: [347] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",1,1,1,1);
877: 5
878: [348] ox_launch_generic(0,LIB+"/ox_launch",LIB+"/ox_asir",1,1,0,1);
879: 6
880: @end example
881:
882: @table @t
1.2 noro 883: \JP @item $B;2>H(B
884: \EG @item References
885: @fref{ox_launch ox_launch_nox ox_shutdown}, @fref{ox_launch_generic}
1.1 noro 886: @end table
887:
1.2 noro 888: \JP @node generate_port try_bind_listen try_connect try_accept register_server,,, $BJ,;67W;;$K4X$9$k4X?t(B
889: \EG @node generate_port try_bind_listen try_connect try_accept register_server,,, Functions for distributed computation
1.1 noro 890: @subsection @code{generate_port}, @code{try_bind_listen}, @code{try_connect}, @code{try_accept}, @code{register_server}
891: @findex generate_port
892: @findex try_bind_listen
893: @findex try_connect
894: @findex try_accept
895: @findex register_server
896:
897: @table @t
898: @item generate_port([@var{use_unix}])
1.2 noro 899: \JP :: port $B$N@8@.(B
900: \EG :: Generates a port number.
1.1 noro 901: @itemx try_bind_listen(@var{port})
1.2 noro 902: \JP :: port $B$KBP$7$F(B bind, listen
903: \EG :: Binds and listens on a port.
1.1 noro 904: @itemx try_connect(@var{host},@var{port})
1.2 noro 905: \JP :: port $B$KBP$7$F(B connect
906: \EG :: Connects to a port.
1.1 noro 907: @itemx try_accept(@var{socket},@var{port})
1.2 noro 908: \JP :: connect $BMW5a$r(B accept
909: \EG :: Accepts a connection request.
1.1 noro 910: @itemx register_server(@var{control_socket},@var{control_port},@var{server_socket},@var{server_port})
1.2 noro 911: \JP :: connection $B$N@.N)$7$?(B control socket, server socket $B$NEPO?(B
912: \EG :: Registers the sockets for which connections are established.
1.1 noro 913: @end table
914:
915: @table @var
916: @item return
1.2 noro 917: \JP @code{generate_port()} $B$N$_@0?t$^$?$OJ8;zNs(B. $B$=$NB>$O@0?t(B.
918: \EG integer or string for @code{generate_port()}, integer for the others
1.1 noro 919: @item use_unix
1.2 noro 920: \JP 0 $B$^$?$O(B 1
921: \EG 0 or 1
1.1 noro 922: @item host
1.2 noro 923: \JP $BJ8;zNs(B
924: \EG string
1.1 noro 925: @item port,control_port,server_port
1.2 noro 926: \JP $B@0?t$^$?$OJ8;zNs(B
927: \EG integer or string
1.1 noro 928: @item socket,control_socket,server_socket
1.2 noro 929: \JP $B@0?t(B
930: \EG integer
1.1 noro 931: @end table
932:
933: @itemize @bullet
1.2 noro 934: \BJP
1.1 noro 935: @item
936: $B$3$l$i$N4X?t$O(B, $B1s3V%W%m%;%9$HDL?.$r@.N)$5$;$k$?$a$N%W%j%_%F%#%V$G$"$k(B.
1.2 noro 937:
1.1 noro 938: @item
939: @code{generate_port()} $B$ODL?.$N$?$a$N(B port $B$r@8@.$9$k(B. $BL50z?t$"$k$$$O(B
940: $B0z?t$,(B 0 $B$N>l9g(B, Internet domain $B$N(B socket $B$N$?$a$N(B port $BHV9f(B, $B$=$l(B
941: $B0J30$N>l9g$K$O(B, UNIX domain (host-internal protocol) $B$N$?$a$N(B, $B%U%!%$%kL>(B
942: $B$r@8@.$9$k(B. port $BHV9f$O(B random $B$K@8@.$5$l$k$,(B, $B$=$N(B port $B$,;HMQCf$G$J$$(B
943: $BJ]>Z$O$J$$(B.
1.2 noro 944:
1.1 noro 945: @item
946: @code{try_bind_listen()} $B$O(B, $BM?$($i$l$?(B port $B$KBP$7(B, $B$=$N(B protocol $B$K(B
1.2 noro 947: $BBP1~$7$?(B socket $B$r@8@.$7(B, bind, listen $B$9$k(B. $B@.8y$7$?>l9g(B,
948: socket $B<1JL;R$rJV$9(B. $B<:GT$7$?>l9g(B, -1 $B$,JV$k(B.
949:
1.1 noro 950: @item
951: @code{try_connect()} $B$O(B, $B%[%9%H(B @var{host} $B$N(B port @var{port} $B$KBP$7(B
1.2 noro 952: connect $B$r;n$_$k(B. $B@.8y$7$?>l9g(B, socket $B<1JL;R$rJV$9(B. $B<:GT$7$?>l9g(B -1 $B$,JV$k(B.
953:
1.1 noro 954: @item
955: @code{try_accept()} $B$O(B, @var{socket} $B$KBP$9$k(B connect $BMW5a$r(B accept
956: $B$7(B, $B?7$?$K@8@.$5$l$?(B socket $B$rJV$9(B. $B<:GT$7$?>l9g(B -1 $B$,JV$k(B.
957: $B$$$:$l$N>l9g$K$b(B, @var{socket} $B$O<+F0E*$K(B close $B$5$l$k(B.
958: $B0z?t(B @var{port} $B$O(B, @var{socket} $B$N(B protocol $B$rH=JL$9$k$?$a$KM?$($k(B.
1.2 noro 959:
1.1 noro 960: @item
961: @code{register_server()} $B$O(B, control, server $B$=$l$>$l$N(B socket $B$r(B
962: $B0lAH$K$7$F(B, server list $B$KEPO?$7(B, @code{ox_push_cmo()} $B$J$I$GMQ$$$k(B
963: $B%W%m%;%9<1JL;R$rJV$9(B.
1.2 noro 964:
1.1 noro 965: @item
966: $B1s3V%W%m%;%9$N5/F0$O(B, @code{shell()} $B$^$?$O<jF0$G9T$&(B.
1.2 noro 967: \E
968: \BEG
969: @item
970: These functions are primitives to establish communications between
971: a client and servers.
972:
973: @item
974: @code{generate_port()} generates a port name for communication.
975: If the argument is not specified or equal to 0, a port number
976: for Internet domain socket is generated randomly. Otherwise
977: a file name for UNIX domain (host-internal protocol) is generated.
978: Note that it is not assured that the generated port is not in use.
979:
980: @item
981: @code{try_bind_listen()} creates a socket according to the protocol
982: family indicated by the given port and executes @code{bind} and @code{listen}.
983: It returns a socket identifier if it is successful. -1 indicates an error.
984:
985: @item
986: @code{try_connect()} tries to connect to a port @var{port} on
987: a host @var{host}.
988: It returns a socket identifier if it is successful. -1 indicates an error.
989:
990: @item
991: @code{try_accept()} accepts a connection request to a socket @var{socket}.
992: It returns a new socket identifier if it is successful. -1 indicates an error.
993: In any case @var{socket} is automatically closed.
994: @var{port} is specified to distinguish the protocol family of @var{socket}.
995:
996: @item
997: @code{register_server()} registers a pair of a control socket and a server
998: socket. A process identifier indicating the pair is returned.
999: The process identifier is used as an argument
1000: of @code{ox} functions such as @code{ox_push_cmo()}.
1001:
1002: @item
1003: Servers are invoked by using @code{shell()}, or manually.
1004: \E
1.1 noro 1005: @end itemize
1006:
1007: @example
1008: [340] CPort=generate_port();
1009: 39896
1010: [341] SPort=generate_port();
1011: 37222
1012: [342] CSocket=try_bind_listen(CPort);
1013: 3
1014: [343] SSocket=try_bind_listen(SPort);
1015: 5
1016:
1017: /*
1.2 noro 1018: \JP $B$3$3$G(B, ox_launch $B$r5/F0(B :
1019: \EG ox_launch is invoked here :
1.1 noro 1020: % ox_launch "127.1" 0 39716 37043 ox_asir "shio:0"
1021: */
1022:
1023: [344] CSocket=try_accept(CSocket,CPort);
1024: 6
1025: [345] SSocket=try_accept(SSocket,SPort);
1026: 3
1027: [346] register_server(CSocket,CPort,SSocket,SPort);
1028: 0
1029: @end example
1030:
1031: @table @t
1.2 noro 1032: \JP @item $B;2>H(B
1033: \EG @item References
1034: @fref{ox_launch ox_launch_nox ox_shutdown},
1035: @fref{ox_launch_generic}, @fref{shell}, @fref{ox_push_cmo ox_push_local}
1.1 noro 1036: @end table
1037:
1.2 noro 1038: \JP @node ox_asir,,, $BJ,;67W;;$K4X$9$k4X?t(B
1039: \EG @node ox_asir,,, Functions for distributed computation
1.1 noro 1040: @subsection @samp{ox_asir}
1041:
1.2 noro 1042: \BJP
1043: @samp{ox_asir} $B$O(B, @b{Asir} $B$N$[$\A4$F$N5!G=$r(B @b{OpenXM} $B%5!<%P(B
1044: $B$H$7$FDs6!$9$k(B.
1045: @samp{ox_asir} $B$O(B, @code{ox_launch} $B$^$?$O(B @code{ox_launch_nox} $B$G(B
1046: $B5/F0$9$k(B. $B8e<T$O(B X $B4D6-$rMQ$$$J$$>l9g$N$?$a$KMQ0U$5$l$F$$$k(B.
1047: \E
1048: \BEG
1049: @samp{ox_asir} provides almost all the functionalities of @b{Asir} as
1050: an @b{OpenXM} server.
1051: @samp{ox_asir} is invoked by @code{ox_launch} or @code{ox_launch_nox}.
1052: If X environment is not available or is not necessary, one can use
1053: @code{ox_launch_nox}.
1054: \E
1.1 noro 1055:
1056: @example
1057: [5] ox_launch();
1058: 0
1059: @end example
1060:
1061: @example
1062: [5] ox_launch_nox("127.0.0.1","/usr/local/lib/asir","/usr/local/lib/asir/ox_asir");
1063: 0
1064: @end example
1065:
1066: @example
1067: [7] RemoteLibDir = "/usr/local/lib/asir/"$
1068: [8] Machines = ["sumire","rokkaku","genkotsu","shinpuku"];
1069: [sumire,rokkaku,genkotsu,shinpuku]
1070: [9] Servers = map(ox_launch,Machines,RemoteLibDir,RemoteLibDir+"ox_asir");
1071: [0,1,2,3]
1072: @end example
1073:
1074: @table @t
1.2 noro 1075: \JP @item $B;2>H(B
1076: \EG @item References
1077: @fref{ox_launch ox_launch_nox ox_shutdown}
1.1 noro 1078: @end table
1079:
1.2 noro 1080: \JP @node ox_rpc ox_cmo_rpc ox_execute_string,,, $BJ,;67W;;$K4X$9$k4X?t(B
1081: \EG @node ox_rpc ox_cmo_rpc ox_execute_string,,, Functions for distributed computation
1.1 noro 1082: @subsection @code{ox_rpc}, @code{ox_cmo_rpc}, @code{ox_execute_string}
1083: @findex ox_rpc
1084: @findex ox_cmo_rpc
1085: @findex ox_execute_string
1086:
1087: @table @t
1088: @item ox_rpc(@var{number},@code{"@var{func}"},@var{arg0},...)
1089: @itemx ox_cmo_rpc(@var{number},@code{"@var{func}"},@var{arg0},...)
1090: @itemx ox_execute_string(@var{number},@code{"@var{command}"},...)
1.2 noro 1091: \JP :: $B%W%m%;%9$NH!?t8F$S=P$7(B
1092: \EG :: Calls a function on an OpenXM server
1.1 noro 1093: @end table
1094:
1095: @table @var
1096: @item return
1097: 0
1098: @item number
1.2 noro 1099: \JP $B?t(B ($B%W%m%;%9<1JL;R(B)
1100: \EG integer (process identifier)
1.1 noro 1101: @item func
1.2 noro 1102: \JP $BH!?tL>(B
1103: \EG function name
1.1 noro 1104: @item command
1.2 noro 1105: \JP $BJ8;zNs(B
1106: \EG string
1.1 noro 1107: @item arg0, arg1, ...
1.2 noro 1108: \JP $BG$0U(B ($B0z?t(B)
1109: \EG arbitrary (arguments)
1.1 noro 1110: @end table
1111:
1112: @itemize @bullet
1.2 noro 1113: \BJP
1.1 noro 1114: @item
1115: $B<1JL;R(B @var{number} $B$N%W%m%;%9$NH!?t$r8F$S=P$9(B.
1.2 noro 1116:
1.1 noro 1117: @item
1118: $BH!?t$N7W;;=*N;$rBT$?$:(B, $BD>$A$K(B 0 $B$rJV$9(B.
1.2 noro 1119:
1.1 noro 1120: @item
1121: @code{ox_rpc()} $B$O(B, $B%5!<%P$,(B @samp{ox_asir} $B$N>l9g$N$_MQ$$$k$3$H$,$G$-$k(B.
1122: $B$=$l0J30$N>l9g$O(B, @code{ox_cmo_rpc()} $B$rMQ$$$k(B.
1.2 noro 1123:
1.1 noro 1124: @item
1125: $BH!?t$,JV$9CM$O(B @code{ox_pop_local()}, @code{ox_pop_cmo()} $B$K$h$j<h$j=P$9(B.
1.2 noro 1126:
1.1 noro 1127: @item
1128: $B%5!<%P$,(B @samp{ox_asir} $B0J30$N$b$N(B ($BNc$($P(B Kan $B%5!<%P(B @samp{ox_sm1}$B$J$I(B)
1129: $B$N>l9g$K$O(B, @b{Open_XM} $B%W%m%H%3%k$G%5%]!<%H$5$l$F$$$k%G!<%?$N$_$r(B
1130: $BAw$k$3$H$,$G$-$k(B.
1.2 noro 1131:
1.1 noro 1132: @item
1133: @code{ox_execute_string} $B$O(B, $BAw$C$?J8;zNs(B @var{command} $B$r%5!<%P$,<+$i$N(B
1134: $B%f!<%68@8l%Q!<%6$G2r@O$7(B, $BI>2A$7$?7k2L$r%5!<%P$N%9%?%C%/$KCV$/$h$&$K(B
1135: $B;X<($9$k(B.
1.2 noro 1136: \E
1137:
1138: \BEG
1139: @item
1140: Calls a function on an @b{OpenXM} server whose identifier is @var{number}.
1141:
1142: @item
1143: It returns 0 immediately. It does not wait the termination of the function
1144: call.
1145:
1146: @item
1147: @code{ox_rpc()} can be used when the server is @samp{ox_asir}.
1148: Otherwise @code{ox_cmo_rpc()} should be used.
1149:
1150: @item
1151: The result of the function call is put on the stack of the server.
1152: It can be received by @code{ox_pop_local()} or @code{ox_pop_cmo()}.
1153:
1154: @item
1155: If the server is not @samp{ox_asir}, only data defined in
1156: @b{OpenXM} can be sent.
1157:
1158: @item
1159: @code{ox_execute_string} requests the server to parse and execute
1160: @var{command} by the parser and the evaluater of the server.
1161: The result is pushed to the stack.
1162: \E
1.1 noro 1163: @end itemize
1164:
1165: @example
1166: [234] ox_cmo_rpc(0,"dp_ht",dp_ptod((x+y)^10,[x,y]));
1167: 0
1168: [235] ox_pop_cmo(0);
1169: (1)*<<10,0>>
1170: [236] ox_execute_string(0,"12345 % 678;");
1171: 0
1172: [237] ox_pop_cmo(0);
1173: 141
1174: @end example
1175:
1176: @table @t
1.2 noro 1177: \JP @item $B;2>H(B
1178: \EG @item References
1179: @fref{ox_pop_cmo ox_pop_local}
1.1 noro 1180: @end table
1181:
1.2 noro 1182: \JP @node ox_reset register_handler,,, $BJ,;67W;;$K4X$9$k4X?t(B
1183: \EG @node ox_reset register_handler,,, Functions for distributed computation
1.1 noro 1184: @subsection @code{ox_reset},@code{register_handler}
1185: @findex ox_reset
1186: @findex register_handler
1187:
1188: @table @t
1189: @item ox_reset(@var{number})
1.2 noro 1190: \JP :: $B%W%m%;%9$N%j%;%C%H(B
1191: \EG :: Resets an OpenXM server
1.1 noro 1192: @item register_handler(@var{func})
1.2 noro 1193: \JP :: $B%W%m%;%9$N%j%;%C%H$N$?$a$N4X?tEPO?(B
1194: \EG :: Registers a function callable on a keyboard interrupt.
1.1 noro 1195: @end table
1196:
1197: @table @var
1198: @item return
1199: 1
1200: @item number
1.2 noro 1201: \JP $B?t(B ($B%W%m%;%9<1JL;R(B)
1202: \EG integer(process identifier)
1.1 noro 1203: @item func
1.2 noro 1204: \JP $B4X?t;R$^$?$O(B 0
1205: \EG functor or 0
1.1 noro 1206: @end table
1207:
1208: @itemize @bullet
1.2 noro 1209: \BJP
1.1 noro 1210: @item
1211: @code{ox_reset()} $B$O(B, $B<1JL;R(B @var{number} $B$N%W%m%;%9$r%j%;%C%H$7(B, $B%3%^%s(B
1212: $B%I<u$1IU$1>uBV$K$9$k(B.
1.2 noro 1213:
1.1 noro 1214: @item
1215: $B$=$N%W%m%;%9$,4{$K=q$-=P$7$?(B, $B$"$k$$$O8=:_=q$-=P$7Cf$N%G!<%?$,$"$k>l9g(B,
1216: $B$=$l$rA4ItFI$_=P$7(B, $B=PNO%P%C%U%!$r6u$K$7$?;~E@$GLa$k(B.
1.2 noro 1217:
1.1 noro 1218: @item
1219: $B;R%W%m%;%9$,(B RUN $B>uBV$N>l9g$G$b(B, $B3d$j9~$_$K$h$j6/@)E*$K7W;;$r=*N;$5$;$k(B.
1.2 noro 1220:
1.1 noro 1221: @item
1222: $BJ,;67W;;$r9T$&H!?t$N@hF,$G(B, $B;HMQ$9$k%W%m%;%9$KBP$7$F<B9T$9$k(B. $B$"$k$$$O(B
1223: $B7W;;ESCf$G$N6/@)CfCG$KMQ$$$k(B.
1.2 noro 1224:
1.1 noro 1225: @item
1226: @code{register_handler()} $B$O(B, @kbd{C-c} $B$J$I$K$h$k3d$j9~$_$N:]$K(B,
1227: @kbd{u} $B$r;XDj$9$k$3$H$G(B, $BL50z?t%f!<%6Dj5A4X?t(B @var{func()} $B$,8F$S=P$5$l$k(B
1228: $B$h$&$K@_Dj$9$k(B. $B$3$N4X?t$K(B, @code{ox_reset()} $B$r8F$S=P$5$;$k$3$H$G(B,
1.2 noro 1229: $B3d$j9~$_$N:]$K<+F0E*$K(B @b{OpenXM} server $B$N%j%;%C%H$r9T$&$3$H$,$G$-$k(B.
1230:
1.1 noro 1231: @item
1232: @var{func} $B$K(B 0 $B$r;XDj$9$k$3$H$G(B, $B@_Dj$r2r=|$G$-$k(B.
1.2 noro 1233: \E
1234:
1235: \BEG
1236: @item
1237: @code{ox_reset()} resets a process whose identifier is @var{number}.
1238: After its execution the process is ready for receiving data.
1239:
1240: @item
1241: After executing @code{ox_reset()}, sending/receiving buffers and
1242: stream buffers are assured to be empty.
1243:
1244: @item
1245: Even if a process is running, the execution is safely stopped.
1246:
1247: @item
1248: @code{ox_reset()} may be used prior to a distirbuted computation.
1249: It can be also used to interrupt a distributed computation.
1250:
1251: @item
1252: @code{register_handler()} registers a function @var{func()}.
1253: If @kbd{u} is specified on a keybord interrupt, @var{func()}
1254: is executed before returning the toplevel.
1255: If @code{ox_reset()} calls are included in @var{func()},
1256: one can automatically reset @b{OpenXM} servers on a keyboard interrupt.
1257:
1258: @item
1259: If @var{func} is equal to 0, the setting is reset.
1260: \E
1.1 noro 1261: @end itemize
1262:
1263: @example
1264: [10] ox_launch();
1265: 0
1266: [11] ox_rpc(0,"fctr",x^100-y^100);
1267: 0
1.2 noro 1268: \BJP
1269: [12] ox_reset(0); /* xterm $B$N%&%#%s%I%&$K$O(B */
1270: 1 /* usr1 : return to toplevel by SIGUSR1 $B$,I=<($5$l$k(B. */
1271: \E
1272: \BEG
1273: [12] ox_reset(0); /* usr1 : return to toplevel by SIGUSR1 */
1274: 1 /* is displayed on the xterm. */
1275: \E
1.1 noro 1276: @end example
1277:
1278: @example
1279: [340] Procs=[ox_launch(),ox_launch()];
1280: [0,1]
1281: [341] def reset() @{ extern Procs; map(ox_reset,Procs);@}
1282: [342] map(ox_rpc,Procs,"fctr",x^100-y^100);
1283: [0,0]
1284: [343] register_handler(reset);
1285: 1
1286: [344] interrupt ?(q/t/c/d/u/w/?) u
1287: Abort this computation? (y or n) y
1288: Calling the registered exception handler...done.
1289: return to toplevel
1290: @end example
1291: @table @t
1.2 noro 1292: \JP @item $B;2>H(B
1293: \EG @item References
1294: @fref{ox_rpc ox_cmo_rpc ox_execute_string}
1.1 noro 1295: @end table
1296:
1.2 noro 1297: \JP @node ox_push_cmo ox_push_local,,, $BJ,;67W;;$K4X$9$k4X?t(B
1298: \EG @node ox_push_cmo ox_push_local,,, Functions for distributed computation
1.1 noro 1299: @subsection @code{ox_push_cmo}, @code{ox_push_local}
1300: @findex ox_push_cmo
1301: @findex ox_push_local
1302:
1303: @table @t
1304: @item ox_push_cmo(@var{number},@var{obj})
1305: @itemx ox_push_local(@var{number},@var{obj})
1.2 noro 1306: \JP :: @var{obj} $B$r<1JL;R(B @var{number} $B$N%W%m%;%9$KAw?.(B
1307: \EG :: Sends @var{obj} to a process whose identifier is @var{number}.
1.1 noro 1308: @end table
1309:
1310: @table @var
1311: @item return
1312: 0
1313: @item number
1.2 noro 1314: \JP $B?t(B($B%W%m%;%9<1JL;R(B)
1315: \EG integer(process identifier)
1.1 noro 1316: @item obj
1.2 noro 1317: \JP $B%*%V%8%'%/%H(B
1318: \EG object
1.1 noro 1319: @end table
1320:
1321: @itemize @bullet
1.2 noro 1322: \BJP
1.1 noro 1323: @item $B<1JL;R(B @var{number} $B$N%W%m%;%9$K(B @var{obj} $B$rAw?.$9$k(B.
1324: @item @code{ox_push_cmo} $B$O(B, Asir $B0J30$N(B @b{Open_XM} $B%5!<%P$KAw?.(B
1325: $B$9$k:]$KMQ$$$k(B.
1326: @item @code{ox_push_local} $B$O(B, @samp{ox_asir}, @samp{ox_plot} $B$K(B
1327: $B%G!<%?$rAw$k>l9g$KMQ$$$k$3$H$,$G$-$k(B.
1328: @item $B%P%C%U%!$,$$$C$Q$$$K$J$i$J$$8B$j(B, $B$?$@$A$KI|5"$9$k(B.
1.2 noro 1329: \E
1330: \BEG
1331: @item
1332: Sends @var{obj} to a process whose identifier is @var{number}.
1333:
1334: @item
1335: @code{ox_push_cmo} is used to send data to an @b{Open_XM} other
1336: than @samp{ox_asir} and @samp{ox_plot}.
1337:
1338: @item
1339: @code{ox_push_local} is used to send data to @samp{ox_asir} and @samp{ox_plot}.
1340:
1341: @item
1342: The call immediately returns unless the stream buffer is full.
1343: \E
1.1 noro 1344: @end itemize
1345:
1346: @table @t
1.2 noro 1347: \JP @item $B;2>H(B
1348: \EG @item References
1349: @fref{ox_rpc ox_cmo_rpc ox_execute_string},
1350: @fref{ox_pop_cmo ox_pop_local}
1.1 noro 1351: @end table
1352:
1.2 noro 1353: \JP @node ox_pop_cmo ox_pop_local,,, $BJ,;67W;;$K4X$9$k4X?t(B
1354: \EG @node ox_pop_cmo ox_pop_local,,, Functions for distributed computation
1.1 noro 1355: @subsection @code{ox_pop_cmo}, @code{ox_pop_local}
1356: @findex ox_pop_local
1357: @findex ox_pop_cmo
1358:
1359: @table @t
1360: @item ox_pop_local(@var{number})
1.2 noro 1361: \JP :: $B%W%m%;%9<1JL;R(B @var{number} $B$+$i%G!<%?$r<u?.$9$k(B.
1362: \EG :: Receives data from a process whose identifier is @var{number}.
1.1 noro 1363: @end table
1364:
1365: @table @var
1366: @item return
1.2 noro 1367: \JP $B<u?.%G!<%?(B
1368: \EG received data
1.1 noro 1369: @item number
1.2 noro 1370: \JP $B?t(B ($B%W%m%;%9<1JL;R(B)
1371: \EG integer(process identifier)
1.1 noro 1372: @end table
1373:
1374: @itemize @bullet
1.2 noro 1375: \BJP
1.1 noro 1376: @item
1377: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$+$i%G!<%?$r<u?.$9$k(B.
1378: @item @code{ox_pop_cmo} $B$O(B, Asir $B0J30$N(B @b{Open_XM} $B%5!<%P$+$i<u?.(B
1379: $B$9$k:]$KMQ$$$k(B.
1380: @item @code{ox_pop_local} $B$O(B, @samp{ox_asir}, @samp{ox_plot} $B$+$i(B
1381: $B%G!<%?$r<u$1<h$k>l9g$KMQ$$$k$3$H$,$G$-$k(B.
1382: @item $B%5!<%P$,7W;;Cf$N>l9g%V%m%C%/$9$k(B. $B$3$l$rHr$1$k$?$a$K$O(B,
1383: @code{ox_push_cmd} $B$G(B @code{SM_popCMO} (262) $B$^$?$O(B @code{SM_popSerializedLocalObject} (258) $B$rAw$C$F$*$-(B, @code{ox_select} $B$G%W%m%;%9$,(B ready
1384: $B$K$J$C$F$$$k$3$H$r3N$+$a$F$+$i(B @code{ox_get} $B$9$l$P$h$$(B.
1.2 noro 1385: \E
1386: \BEG
1.1 noro 1387: @item
1.2 noro 1388: Receives data from a process whose identifier is @var{number}.
1389: @item
1390: @code{ox_pop_cmo} can be used to receive data form an @b{OpenXM} server
1391: other than @samp{ox_asir} and @samp{ox_plot}.
1392: @item
1393: @code{ox_pop_local} can be used to receive data from
1394: @samp{ox_asir}, @samp{ox_plot}.
1395: @item
1396: If no data is available, these functions block.
1397: To avoid it, send @code{SM_popCMO} (262) or
1398: @code{SM_popSerializedLocalObject} (258).
1399: Then check the process status by @code{ox_select}.
1400: Finally call @code{ox_get} for a ready process.
1401: \E
1.1 noro 1402: @end itemize
1403:
1404: @example
1405: [3] ox_rpc(0,"fctr",x^100-y^100);
1406: 0
1407: [4] ox_push_cmd(0,258);
1408: 0
1409: [5] ox_select([0]);
1410: [0]
1411: [6] ox_get(0);
1412: [[1,1],[x^2+y^2,1],[x^4-y*x^3+y^2*x^2-y^3*x+y^4,1],...]
1413: @end example
1414:
1415: @table @t
1.2 noro 1416: \JP @item $B;2>H(B
1417: \EG @item References
1418: @fref{ox_rpc ox_cmo_rpc ox_execute_string},
1419: @fref{ox_push_cmd ox_sync}, @fref{ox_select}, @fref{ox_get}
1.1 noro 1420: @end table
1421:
1.2 noro 1422: \JP @node ox_push_cmd ox_sync,,, $BJ,;67W;;$K4X$9$k4X?t(B
1423: \EG @node ox_push_cmd ox_sync,,, Functions for distributed computation
1.1 noro 1424: @subsection @code{ox_push_cmd}, @code{ox_sync}
1425: @findex ox_push_cmd
1426: @findex ox_sync
1427:
1428: @table @t
1429: @item ox_push_cmd(@var{number},@var{command})
1.2 noro 1430: \JP :: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$K%3%^%s%I(B @var{command} $B$rAw?.$9$k(B.
1431: \EG :: Sends a command @var{command} to a process whose identifier is @var{number}.
1.1 noro 1432: @item ox_sync(@var{number})
1.2 noro 1433: \JP :: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$K(B @b{OX_SYNC_BALL} $B$rAw?.$9$k(B.
1434: \EG :: Sends @b{OX_SYNC_BALL} to a process whose identifier is @var{number}.
1.1 noro 1435: @end table
1436:
1437: @table @var
1438: @item return
1439: 0
1440: @item number
1.2 noro 1441: \JP $B?t(B ($B%W%m%;%9<1JL;R(B)
1442: \EG integer(process identifier)
1.1 noro 1443: @item command
1.2 noro 1444: \JP $B?t(B ($B%3%^%s%I<1JL;R(B)
1445: \EG integer(command identifier)
1.1 noro 1446: @end table
1447:
1448: @itemize @bullet
1.2 noro 1449: \BJP
1.1 noro 1450: @item
1451: $B<1JL;R(B @var{number} $B$N%W%m%;%9$K%3%^%s%I$^$?$O(B @b{OX_SYNC_BALL} $B$rAw?.$9$k(B.
1.2 noro 1452:
1.1 noro 1453: @item
1454: @b{Open_XM} $B$K$*$$$FAw<u?.%G!<%?$O(B @b{OX_DATA}, @b{OX_COMMAND},
1455: @b{OX_SYNC_BALL}$B$N(B 3 $B<oN`$KJ,$+$l$k(B. $BDL>o(B, $B%3%^%s%I$O2?$i$+$NA`:n$K(B
1456: $BIU?o$7$F0EL[$N$&$A$KAw?.$5$l$k$,(B, $B$3$l$r%f!<%6$,8DJL$KAw$j$?$$>l9g$K(B
1457: $BMQ$$$i$l$k(B.
1.2 noro 1458:
1.1 noro 1459: @item
1460: @b{OX_SYNC_BALL} $B$O(B @code{ox_reset} $B$K$h$k7W;;CfCG(B, $BI|5"$N:]$KAw<u?.$5$l$k(B
1461: $B$,(B, $B$3$l$r8DJL$KAw$j$?$$>l9g$KMQ$$$k(B. $B$J$*(B, $BDL>o>uBV$G$O(B @b{OX_SYNC_BALL}
1462: $B$OL5;k$5$l$k(B.
1.2 noro 1463: \E
1464:
1465: \BEG
1466: @item
1467: Sends a command or @b{OX_SYNC_BALL} to a process whose identifier is
1468: @var{number}.
1469:
1470: @item
1471: Data in @b{OpenXM} are categorized into three types:
1472: @b{OX_DATA}, @b{OX_COMMAND}, @b{OX_SYNC_BALL}.
1473: Usually @b{OX_COMMAND} and @b{OX_SYNC_BALL} are
1474: sent implicitly with high level operations, but
1475: these functions are prepared to send these data explicitly.
1476:
1477: @item
1478: @b{OX_SYNC_BALL} is used on the reseting operation by @code{ox_reset}.
1479: Usually @b{OX_SYNC_BALL} will be ignored by the peer.
1480: \E
1.1 noro 1481: @end itemize
1482:
1483: @table @t
1.2 noro 1484: \JP @item $B;2>H(B
1485: \EG @item References
1486: @fref{ox_rpc ox_cmo_rpc ox_execute_string}, @fref{ox_reset register_handler}
1.1 noro 1487: @end table
1488:
1.2 noro 1489: \JP @node ox_get,,, $BJ,;67W;;$K4X$9$k4X?t(B
1490: \EG @node ox_get,,, Functions for distributed computation
1.1 noro 1491: @subsection @code{ox_get}
1492: @findex ox_get
1493:
1494: @table @t
1495: @item ox_get(@var{number})
1.2 noro 1496: \JP :: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$+$i%G!<%?$r<u?.$9$k(B.
1497: \EG :: Receives data form a process whose identifer is @var{number}.
1.1 noro 1498: @end table
1499:
1500: @table @var
1501: @item return
1.2 noro 1502: \JP $B<u?.%G!<%?(B
1.1 noro 1503: @item number
1.2 noro 1504: \JP $B?t(B($B%W%m%;%9<1JL;R(B)
1505: \EG integer(process identifier)
1.1 noro 1506: @end table
1507:
1508: @itemize @bullet
1.2 noro 1509: \BJP
1.1 noro 1510: @item
1511: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$+$i%G!<%?$r<u?.$9$k(B. $B4{$K(B
1512: $B%9%H%j!<%`>e$K%G!<%?$,$"$k$3$H$r2>Dj$7$F$$$k(B.
1.2 noro 1513:
1.1 noro 1514: @item
1515: @code{ox_push_cmd} $B$HAH$_9g$o$;$FMQ$$$k(B.
1.2 noro 1516:
1.1 noro 1517: @item
1518: @code{ox_pop_cmo}, @code{ox_pop_local} $B$O(B, @code{ox_push_cmd} $B$H(B
1519: @code{ox_get} $B$NAH$_9g$o$;$G<B8=$5$l$F$$$k(B.
1.2 noro 1520: \E
1521: \BEG
1522: @item
1523: Receives data form a process whose identifer is @var{number}.
1524:
1525: @item
1526: One may use this function with @code{ox_push_cmd}.
1527:
1528: @item
1529: @code{ox_pop_cmo} and @code{ox_pop_local}
1530: is realized as combinations of @code{ox_push_cmd} and @code{ox_get}.
1531: \E
1.1 noro 1532: @end itemize
1533:
1534: @example
1535: [11] ox_push_cmo(0,123);
1536: 0
1537: [12] ox_push_cmd(0,262); /* 262=OX_popCMO */
1538: 0
1539: [13] ox_get(0);
1540: 123
1541: @end example
1542:
1543: @table @t
1.2 noro 1544: \JP @item $B;2>H(B
1545: \EG @item References
1546: @fref{ox_pop_cmo ox_pop_local}, @fref{ox_push_cmd ox_sync}
1.1 noro 1547: @end table
1548:
1.2 noro 1549: \JP @node ox_pops,,, $BJ,;67W;;$K4X$9$k4X?t(B
1550: \EG @node ox_pops,,, Functions for distributed computation
1.1 noro 1551: @subsection @code{ox_pops}
1552: @findex ox_pops
1553:
1554: @table @t
1555: @item ox_pops(@var{number}[,@var{nitem})
1.2 noro 1556: \JP :: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$N%9%?%C%/$+$i%G!<%?$r<h$j=|$/(B.
1557: \EG :: Removes data form the stack of a process whose identifier is @var{number}.
1.1 noro 1558: @end table
1559:
1560: @table @var
1561: @item return
1562: 0
1563: @item number
1.2 noro 1564: \JP $B?t(B ($B%W%m%;%9<1JL;R(B)
1565: \EG integer(process identifier)
1.1 noro 1566: @item nitem
1.2 noro 1567: \JP $B<+A3?t(B
1568: \EG non-negative integer
1.1 noro 1569: @end table
1570:
1571: @itemize @bullet
1.2 noro 1572: \BJP
1573: @item
1574: $B%W%m%;%9<1JL;R(B @var{number} $B$N%W%m%;%9$N%9%?%C%/$+$i%G!<%?$r<h$j=|$/(B.
1.1 noro 1575: @var{nitem} $B$,;XDj$5$l$F$$$k>l9g$O(B @var{nitem} $B8D(B, $B;XDj$N$J$$>l9g$O(B
1576: 1 $B8D<h$j=|$/(B.
1.2 noro 1577: \E
1578: \BEG
1579: @item
1580: Removes data form the stack of a process whose identifier is @var{number}.
1581: If @var{nitem} is specified, @var{nitem} items are removed.
1582: If @var{nitem} is not specified, 1 item is removed.
1583: \E
1.1 noro 1584: @end itemize
1585:
1586: @example
1587: [69] for(I=1;I<=10;I++)ox_push_cmo(0,I);
1588: [70] ox_pops(0,4);
1589: 0
1590: [71] ox_pop_cmo(0);
1591: 6
1592: @end example
1593:
1594: @table @t
1.2 noro 1595: \JP @item $B;2>H(B
1596: \EG @item References
1597: @fref{ox_pop_cmo ox_pop_local}
1.1 noro 1598: @end table
1599:
1.2 noro 1600: \JP @node ox_select,,, $BJ,;67W;;$K4X$9$k4X?t(B
1601: \EG @node ox_select,,, Functions for distributed computation
1.1 noro 1602: @subsection @code{ox_select}
1603: @findex ox_select
1604:
1605: @table @t
1606: @item ox_select(@var{nlist}[,@var{timeout}])
1.2 noro 1607: \JP :: $BFI$_=P$72DG=$J%W%m%;%9$N<1JL;R$rJV$9(B.
1608: \EG :: Returns the list of process identifiers on which data is available.
1.1 noro 1609: @end table
1610:
1611: @table @var
1612: @item return
1.2 noro 1613: \JP $B%j%9%H(B
1614: \EG list
1.1 noro 1615: @item nlist
1.2 noro 1616: \JP $B?t(B ($B;R%W%m%;%9<1JL;R(B) $B$N%j%9%H(B
1617: \EG list of integers (process identifier)
1.1 noro 1618: @item timeout
1.2 noro 1619: \JP $B?t(B
1620: \EG number
1.1 noro 1621: @end table
1622:
1623: @itemize @bullet
1.2 noro 1624: \BJP
1.1 noro 1625: @item
1626: $B<1JL;R%j%9%H(B @var{nlist} $B$N%W%m%;%9$N$&$A4{$K=PNO$rJV$7$F$$$k(B
1627: $B%W%m%;%9$N<1JL;R%j%9%H$rJV$9(B.
1.2 noro 1628:
1.1 noro 1629: @item
1630: $BA4$F$N%W%m%;%9$,(B RUN $B>uBV$N$H$-(B, $B$$$:$l$+$N%W%m%;%9$N=*N;$rBT$D(B.
1631: $BC"$7(B, @var{timeout} $B$,;XDj$5$l$F$$$k>l9g(B, @var{timeout} $BIC$@$1BT$D(B.
1.2 noro 1632:
1.1 noro 1633: @item
1634: @code{ox_push_cmd()} $B$G(B @code{SM_popCMO} $B$"$k$$$O(B
1635: @code{SM_popSerializedLocalObject} $B$rAw$C$F$*$-(B, @code{ox_select()} $B$G(B
1636: ready $B>uBV$N%W%m%;%9$rD4$Y$F(B@code{ox_get()} $B$9$k$3$H$G(B,
1637: @code{ox_pop_local()}, @code{ox_pop_cmo()}$B$GBT$A>uBV$KF~$k$N$rKI$0$3$H$,(B
1638: $B$G$-$k(B.
1.2 noro 1639: \E
1640: \BEG
1641: @item
1642: Returns the list of process identifiers on which data is available.
1643:
1644: @item
1645: If all the processes in @var{nlist} are running, it blocks until
1646: one of the processes returns data. If @var{timeout} is specified,
1647: it waits for only @var{timeout} seconds.
1648:
1649: @item
1650: By sending @code{SM_popCMO} or @code{SM_popSerializedLocalObject} with
1651: @code{ox_push_cmd()} in advance and by examining the process status with
1652: @code{ox_select()}, one can avoid a hanging up caused by @code{ox_pop_local()}
1653: or @code{ox_pop_cmo()}. In such a case, data can be received by
1654: @code{ox_get()}.
1655: \E
1.1 noro 1656: @end itemize
1657:
1658: @example
1659: ox_launch();
1660: 0
1661: [220] ox_launch();
1662: 1
1663: [221] ox_launch();
1664: 2
1665: [222] ox_rpc(2,"fctr",x^500-y^500);
1666: 0
1667: [223] ox_rpc(1,"fctr",x^100-y^100);
1668: 0
1669: [224] ox_rpc(0,"fctr",x^10-y^10);
1670: 0
1671: [225] P=[0,1,2];
1672: [0,1,2]
1673: [226] map(ox_push_cmd,P,258);
1674: [0,0,0]
1675: [227] ox_select(P);
1676: [0]
1677: [228] ox_get(0);
1678: [[1,1],[x^4+y*x^3+y^2*x^2+y^3*x+y^4,1],
1679: [x^4-y*x^3+y^2*x^2-y^3*x+y^4,1],[x-y,1],[x+y,1]]
1680: @end example
1681:
1682: @table @t
1.2 noro 1683: \JP @item $B;2>H(B
1684: \EG @item References
1685: @fref{ox_pop_cmo ox_pop_local}, @fref{ox_push_cmd ox_sync}, @fref{ox_get}
1.1 noro 1686: @end table
1687:
1.2 noro 1688: \JP @node ox_flush ,,, $BJ,;67W;;$K4X$9$k4X?t(B
1689: \EG @node ox_flush ,,, Functions for distributed computation
1.1 noro 1690: @subsection @code{ox_flush}
1691: @findex ox_flush
1692:
1693: @table @t
1694: @item ox_flush(@var{id})
1.2 noro 1695: \JP :: $BAw?.%P%C%U%!$N6/@)(B flush
1696: \EG :: Flushes the sending buffer.
1.1 noro 1697: @end table
1698:
1699: @table @var
1700: @item return
1701: 1
1702: @item id
1.2 noro 1703: \JP $B;R%W%m%;%9<1JL;R(B
1704: \EG process identifier
1.1 noro 1705: @end table
1706:
1707: @itemize @bullet
1.2 noro 1708: \BJP
1.1 noro 1709: @item $BDL>o$O%P%C%A%b!<%I$O(B off $B$G$"$j(B, $B%G!<%?(B, $B%3%^%s%IAw?.$4$H$K(B
1710: $BAw?.%P%C%U%!$O(B flush $B$5$l$k(B.
1.2 noro 1711:
1.1 noro 1712: @item $B%P%C%A%b!<%I$O(B @code{"ctrl"} $B%3%^%s%I$N(B @code{"ox_batch"} $B%9%$%C%A(B
1713: $B$G(B on/off $B$G$-$k(B.
1.2 noro 1714:
1.1 noro 1715: @item $B:Y$+$$%G!<%?$rB??tAw$k>l9g$K(B, @code{ctrl("ox_batch",1)}
1716: $B$G%P%C%A%b!<%I$r(B on $B$K$9$k$H(B, $B%P%C%U%!$,$$$C$Q$$$K$J$C$?>l9g$K$N$_(B flush
1717: $B$5$l$k$?$a(B, overhead $B$,>.$5$/$J$k>l9g$,$"$k(B. $B$?$@$7$3$N>l9g$K$O(B, $B:G8e$K(B
1718: @code{ox_flush(@var{id})} $B$r<B9T$7$F(B, $B%P%C%U%!$r6/@)E*$K(B flush $B$9$kI,MW$,(B
1719: $B$"$k(B.
1.2 noro 1720:
1.1 noro 1721: @item @code{ox_pop_cmo}, @code{ox_pop_local} $B$N$h$&$K(B, $B%3%^%s%IAw?.8e(B
1722: $B$?$@$A$K%G!<%?BT$A$KF~$k4X?t$,%O%s%0$7$J$$$h$&(B, $B$3$l$i$N4X?t$NFbIt$G$O(B
1723: $B6/@)(B flush $B$,<B9T$5$l$F$$$k(B.
1.2 noro 1724: \E
1725:
1726: \BEG
1727: @item
1728: By default the batch mode is off and the sending buffer is flushed
1729: at every sending operation of data and command.
1730:
1731: @item
1732: The batch mode is set by @code{"ox_batch"} switch of @code{"ctrl"}.
1733:
1734: @item
1735: If one wants to send many pieces of small data,
1736: @code{ctrl("ox_batch",1)} may decrease the overhead of flush operations.
1737: Of course, one has to call @code{ox_flush(@var{id})} at the end of
1738: the sending operations.
1739:
1740: @item
1741: Functions such as @code{ox_pop_cmo} and @code{ox_pop_local}
1742: enter a waiting mode immediately after sending a command.
1743: These functions always flush the sending buffer.
1744: \E
1.1 noro 1745: @end itemize
1746:
1747: @example
1748: [340] ox_launch_nox();
1749: 0
1750: [341] cputime(1);
1751: 0
1752: 7e-05sec + gc : 4.8e-05sec(0.000119sec)
1753: [342] for(I=0;I<10000;I++)ox_push_cmo(0,I);
1754: 0.232sec + gc : 0.006821sec(0.6878sec)
1755: [343] ctrl("ox_batch",1);
1756: 1
1757: 4.5e-05sec(3.302e-05sec)
1758: [344] for(I=0;I<10000;I++)ox_push_cmo(0,I); ox_flush(0);
1759: 0.08063sec + gc : 0.06388sec(0.4408sec)
1760: [345] 1
1761: 9.6e-05sec(0.01317sec)
1762: @end example
1763:
1764: @table @t
1.2 noro 1765: \JP @item $B;2>H(B
1766: \EG @item References
1767: @fref{ox_pop_cmo ox_pop_local}, @fref{ctrl}
1.1 noro 1768: @end table
1769:
1.2 noro 1770: \JP @node ox_get_serverinfo ,,, $BJ,;67W;;$K4X$9$k4X?t(B
1771: \EG @node ox_get_serverinfo ,,, Functions for distributed computation
1.1 noro 1772: @subsection @code{ox_get_serverinfo}
1773: @findex ox_get_serverinfo
1774:
1775: @table @t
1776: @item ox_get_serverinfo([@var{id}])
1.2 noro 1777: \JP :: server $B$N(B Mathcap, $BF0:nCf$N%W%m%;%9<1JL;R$N<hF@(B
1778: \EG :: Gets server's mathcap and proess id.
1.1 noro 1779: @end table
1780:
1781: @table @var
1782: @item return
1.2 noro 1783: \JP $B%j%9%H(B
1784: \EG list
1.1 noro 1785: @item id
1.2 noro 1786: \JP $B;R%W%m%;%9<1JL;R(B
1787: \EG process identifier
1.1 noro 1788: @end table
1789:
1790: @itemize @bullet
1.2 noro 1791: \BJP
1.1 noro 1792: @item $B0z?t(B @var{id} $B$,$"$k$H$-(B, $B%W%m%;%9<1JL;R(B @var{id} $B$N%W%m%;%9$N(B
1793: Mathcap $B$r%j%9%H$H$7$FJV$9(B.
1794: @item $B0z?t$J$7$N$H$-(B, $B8=:_F0:nCf$N%W%m%;%9<1JL;R$*$h$S$=$N(B Mathcap $B$+$i(B
1795: $B$J$k%Z%"$r(B, $B%j%9%H$H$7$FJV$9(B.
1.2 noro 1796: \E
1797: \BEG
1798: @item If @var{id} is specified, the mathcap of the process whose
1799: identifier is @var{id} is returned.
1800: @item If @var{id} is not specified, the list of @var{[id,Mathcap]}
1801: is returned, where @var{id} is the identifier of a currently active process,
1802: and @var{Mathcap} is the mathcap of the process.
1803: identifier @var{id} is returned.
1804: \E
1.1 noro 1805: @end itemize
1806:
1807: @example
1808: [343] ox_get_serverinfo(0);
1809: [[199909080,Ox_system=ox_sm1.plain,Version=2.991118,HOSTTYPE=FreeBSD],
1810: [262,263,264,265,266,268,269,272,273,275,276],
1811: [[514],[2130706434,1,2,4,5,17,19,20,22,23,24,25,26,30,31,60,61,27,33,40,16,34]]]
1812: [344] ox_get_serverinfo();
1813: [[0,[[199909080,Ox_system=ox_sm1.plain,Version=2.991118,HOSTTYPE=FreeBSD],
1814: [262,263,264,265,266,268,269,272,273,275,276],
1815: [[514],[2130706434,1,2,4,5,17,19,20,22,23,24,25,26,30,31,60,61,27,33,40,16,34]]]],
1816: [1,[[199901160,ox_asir],
1817: [276,275,258,262,263,266,267,268,274,269,272,265,264,273,300,270,271],
1818: [[514,2144202544],
1819: [1,2,3,4,5,2130706433,2130706434,17,19,20,21,22,24,25,26,31,27,33,60],[0,1]]]]]
1820: @end example
1821:
1822: @table @t
1.2 noro 1823: \JP @item $B;2>H(B
1824: \EG @item References
1825: @fref{Mathcap}.
1.1 noro 1826: @end table
1827:
1.2 noro 1828: \JP @node ifplot conplot plot plotover,,, $BJ,;67W;;$K4X$9$k4X?t(B
1829: \EG @node ifplot conplot plot plotover,,, Functions for distributed computation
1.1 noro 1830: @subsection @code{ifplot}, @code{conplot}, @code{plot}, @code{plotover}
1831: @findex ifplot
1832: @findex conplot
1833: @findex plot
1834: @findex plotover
1835:
1836: @table @t
1837: @item ifplot(@var{func} [,@var{geometry}] [,@var{xrange}] [,@var{yrange}] [,@var{id}] [,@var{name}])
1.2 noro 1838: \JP :: 2 $BJQ?t4X?t$N<B?t>e$G$NNmE@$rI=<($9$k(B.
1839: \EG :: Displays real zeros of a bi-variate function.
1.1 noro 1840: @item conplot(@var{func} [,@var{geometry}] [,@var{xrange}] [,@var{yrange}] [,@var{zrange}] [,@var{id}] [,@var{name}])
1.2 noro 1841: \JP :: 2 $BJQ?t4X?t$N<B?t>e$G$NEy9b@~$rI=<($9$k(B.
1842: \EG :: Displays real contour lines of a bi-variate function.
1.1 noro 1843: @item plot(@var{func} [,@var{geometry}] [,@var{xrange}] [,@var{id}] [,@var{name}])
1.2 noro 1844: \JP :: 1 $BJQ?t4X?t$N%0%i%U$rI=<($9$k(B.
1845: \EG :: Displays the graph of a univariate function.
1.1 noro 1846: @item plotover(@var{func},@var{id},@var{number})
1.2 noro 1847: \JP :: $B$9$G$KB8:_$7$F$$$k%&%#%s%I%&$XIA2h$9$k(B.
1848: \EG Plots on the existing window real zeros of a bivariate function.
1.1 noro 1849: @end table
1850:
1851: @table @var
1852: @item return
1.2 noro 1853: \JP $B@0?t(B
1854: \EG integer
1.1 noro 1855: @item func
1.2 noro 1856: \JP $BB?9`<0(B
1857: \EG polynomial
1.1 noro 1858: @item geometry, xrange, yrange, zrange
1.2 noro 1859: \JP $B%j%9%H(B
1860: \EG list
1.1 noro 1861: @item id, number
1.2 noro 1862: \JP $B@0?t(B
1863: \EG integer
1.1 noro 1864: @item name
1.2 noro 1865: \JP $BJ8;zNs(B
1866: \EG string
1.1 noro 1867: @end table
1868:
1869: @itemize @bullet
1.2 noro 1870: \BJP
1.1 noro 1871: @item
1872: @code{ifplot()} $B$O(B, 2 $BJQ?t4X?t(B @var{func} $B$N<B?t>e$G$NNmE@$N(B
1873: $B%0%i%U$NI=<($r9T$&(B. @code{conplot()} $B$O(B, $BF1MM$N0z?t$KBP$7(B,
1874: $BEy9b@~$NI=<($r9T$&(B. @code{plot()} $B$O(B 1 $BJQ?t4X?t$N(B
1875: $B%0%i%U$NI=<($r9T$&(B. Windows $BHG$O8=>u$G$OL$%5%]!<%H$G$"$k(B.
1.2 noro 1876:
1.1 noro 1877: @item
1878: UNIX $BHG$O(B, $B1s3V%W%m%;%9$K$h$j<B8=$5$l$F$$$k(B. $B%3%^%s%I$O(B @samp{ox_plot}
1879: $B$G(B, @code{ox_launch()} $B$K$h$j5/F0$7$F$*$/I,MW$,$"$k(B. @samp{ox_plot}
1880: $B$O(B, @b{Asir} $B$NI8=`%i%$%V%i%j%G%#%l%/%H%j$K$"$k(B.
1.2 noro 1881:
1.1 noro 1882: @item
1883: $B0z?t$NFb(B, @var{func} $B$OI,?\$G$"$k(B. $B$=$NB>$N0z?t$O%*%W%7%g%s$G$"$k(B.
1884: $B%*%W%7%g%s$N7A<0$*$h$S$=$N%G%U%)%k%HCM(B ($B%+%C%3Fb(B) $B$O<!$NDL$j(B.
1.2 noro 1885:
1.1 noro 1886: @table @var
1887: @item geometry
1888: $B%&%#%s%I%&$N%5%$%:$r%I%C%HC10L$G(B @var{[x,y]} $B$G;XDj$9$k(B.
1889: (UNIX $BHG$G$O(B @var{[}@code{300},@code{300}@var{]}. )
1.2 noro 1890:
1.1 noro 1891: @item xrange, yrange
1892: $BJQ?t$NHO0O$N;XDj$G(B, @var{[v,vmin,vmax]} $B$G;XDj$9$k(B.
1893: ($B$$$:$l$NJQ?t$b(B @var{[v},@code{-2},@code{2}@var{]}.)
1894: $B$3$N;XDj$,$J$$>l9g(B, @var{func} $B$K4^$^$l$kJQ?t$NFbJQ?t=g=x$N>e$NJQ?t(B
1895: $B$,(B @samp{x}, $B2<$NJQ?t$,(B @samp{y} $B$H$7$F07$o$l$k(B. $B$3$l$rHr$1$k$?$a$K$O(B
1896: @var{xrange}, @var{yrange} $B$r;XDj$9$k(B. $B$^$?(B, @var{func} $B$,(B 1 $BJQ?t$N(B
1897: $B>l9g(B, $B$3$l$i$N;XDj$OI,?\$H$J$k(B.
1.2 noro 1898:
1.1 noro 1899: @item zrange
1900: @code{conplot()} $B$N>l9g$N$_;XDj$G$-$k(B. $B7A<0$O(B
1901: @var{[v,vmin,vmax} @code{[},@var{step} @code{]}@var{]} $B$G(B, @var{step} $B$,;XDj$5$l(B
1902: $B$?>l9g$K$O(B, $BEy9b@~$N4V3V$,(B @var{(vmax-vmin)/step} $B$H$J$k(B.
1903: (@var{[z},@code{-2},@code{2},@code{16}@var{]}.)
1.2 noro 1904:
1.1 noro 1905: @item id
1906: $B1s3V%W%m%;%9$NHV9f(B, $B$9$J$o$A(B @code{ox_launch()} $B$,JV$7$?HV9f$r;XDj$9$k(B.
1907: ($B0lHV:G6a$K:n$i$l(B, $B$+$D%"%/%F%#%V$J%W%m%;%9$KBP1~$9$kHV9f(B.)
1.2 noro 1908:
1.1 noro 1909: @item name
1910: $B%&%#%s%I%&$NL>A0(B. (@code{Plot}.)
1911: $B@8@.$5$l$?%&%#%s%I%&$N%?%$%H%k$O(B @var{name:n/m} $B$H$J$k(B.
1912: $B$3$l$O(B, $B%W%m%;%9HV9f(B @var{n} $B$N%W%m%;%9$N(B, @var{m} $BHV$N%&%#%s%I%&$r0UL#$9$k(B.
1913: $B$3$NHV9f$O(B, @code{plotover()} $B$GMQ$$$i$l$k(B.
1914: @end table
1.2 noro 1915:
1.1 noro 1916: @item
1917: $B0l$D$N%W%m%;%9>e$GIA2h$G$-$k%&%#%s%I%&$N?t$O:GBg(B 128 $B8D$G$"$k(B.
1.2 noro 1918:
1.1 noro 1919: @item
1920: @code{plotover()} $B$O(B, $B;XDj$7$?%&%#%s%I%&>e$K(B, $B0z?t$G$"$k(B 2 $BJQ?tB?9`<0$N(B
1921: $BNmE@$r>e=q$-$9$k(B.
1922:
1923: @item
1924: $BIA2h=*N;8e$N%&%#%s%I%&>e$G(B, $B%^%&%9$N:8%\%?%s$r2!$7$J$,$i$N%I%i%C%0(B
1925: $B$GHO0O$r;XDj$7%\%?%s$rN%$9$H?7$?$J%&%#%s%I%&$,@8@.$5$l(B, $B;XDj$7$?(B
1926: $BHO0O$,3HBg$7$FI=<($5$l$k(B. $B%I%i%C%0$O:8>e$+$i1&2<$X$H9T$&(B.
1927: $B%I%i%C%0$r;O$a$?8e%-%c%s%;%k$9$k>l9g$O(B, $B%^%&%9%]%$%s%?$r;OE@$N>e$+(B
1928: $B:8$K;}$C$F$$$C$F%\%?%s$rN%$;$P$h$$(B. $B?7$7$$%&%$%s%I%&$N7A$O(B, $B;XDj(B
1929: $BNN0h$HAj;w$G(B, $B:GBgJU$,(B, $B85$N%&%#%s%I%&$N:GBgJU$H0lCW$9$k$h$&$K(B
1930: $BDj$a$i$l$k(B. $B0J2<$G@bL@$9$k(B @code{precise} $B$,(B on $B$N>l9g(B,
1931: $BA*Br$7$?NN0h$,F10l(B window $B>e$G=q$-D>$5$l$k(B.
1932:
1933: @item
1934: $B%&%#%s%I%&Fb$G1&%\%?%s$r2!$9$H(B, $B$=$NE@$N:BI8$,%&%#%s%I%&$N2<It$KI=<($5$l$k(B.
1935:
1936: @item
1937: @code{conplot()} $B$G@8@.$7$?%&%#%s%I%&$K$*$$$F(B, $B%&%#%s%I%&$N1&B&$N%^!<%+$r(B
1938: $BCf%\%?%s$G%I%i%C%0$9$k$H(B, $BBP1~$9$kEy9b@~$N?'$,JQ$o$j(B, $B1&>e$N(B
1939: $B%&%#%s%I%&$KBP1~$9$k%l%Y%k$,I=<($5$l$k(B.
1940:
1941: @item
1.2 noro 1942: UNIX $BHG$G$O$$$/$D$+$N%\%?%s$K$h$j(B
1.1 noro 1943: $B$$$/$D$+$N@_DjJQ99(B, $BA`:n$,$G$-$k(B. UNIX $BHG$G$O<!$N%\%?%s$,$"$k(B.
1944:
1945: @table @code
1946: @item quit
1947: window $B$rGK2u$9$k(B. $B7W;;$rCfCG$9$k>l9g(B, @code{ox_reset()} $B$rMQ$$$k(B.
1.2 noro 1948:
1.1 noro 1949: @item wide ($B%H%0%k(B)
1950: $B8=:_$NI=<(ItJ,$r=D2#3F(B 10 $BG\$7$?NN0h$rI=<($9$k(B. $B8=:_I=<($5$l$F$$$kHO0O$O(B
1951: $B$3$NI=<($K$*$$$FCf1{It$KD9J}7A$G<($5$l$k(B. $B$3$NI=<($GHO0O;XDj$r9T$&$H(B,
1952: $B$=$NHO0O$,?7$7$$%&%#%s%I%&$KIA2h$5$l$k(B.
1.2 noro 1953:
1.1 noro 1954: @item precise ($B%H%0%k(B)
1955: $BA*BrNN0h$r(B, $B@0?t1i;;$K$h$j(B, $B$h$j@53N$K:FIA2h$9$k(B. $B$3$l$O(B, @var{func} $B$,(B
1956: $BM-M}?t78?t$N(B 2 $BJQ?tB?9`<0$N>l9g$K$N$_M-8z$G$"$k(B. $B$3$N%b!<%I$G$O(B Sturm $BNs(B
1957: $B$HFsJ,K!$K$h$j(B, $B6h4VFb$NNmE@$N8D?t$r@53N$K5a$a$F$$$/$b$N$G(B, $B%G%U%)%k%H$N(B
1958: $B7W;;K!$h$j$b@53N$JIA2h$,4|BT$G$-$k(B. $B$?$@$7(B, $BIA2h;~4V$OM>7W$K$+$+$k>l9g$,(B
1959: $BB?$$(B. $B$3$N@bL@$+$iL@$i$+$J$h$&$K(B, $B$3$N5!G=$OM-M}?t78?t$NB?9`<0$NIA2h$KBP(B
1960: $B$7$F$N$_M-8z$G$"$k(B. ((x^2+y^2-1)^2 $B$NIA2h$G;n$7$F$_$h(B.)
1961:
1962: @item formula
1963: $BBP1~$9$k<0$rI=<($9$k(B.
1.2 noro 1964:
1.1 noro 1965: @item noaxis ($B%H%0%k(B)
1966: $B:BI8<4$r>C$9(B.
1967: @end table
1968:
1969: @item
1970: @samp{ox_plot} $B$,5/F0$5$l$k%^%7%s$K$h$C$F$O(B, $B%9%?%C%/$rBgNL$K;HMQ$9$k(B
1971: $B$b$N$b$"$k$?$a(B, @samp{.cshrc} $B$G%9%?%C%/%5%$%:$rBg$-$a(B (16MB $BDxEY(B) $B$K(B
1972: $B;XDj$7$F$*$/$N$,0BA4$G$"$k(B. $B%9%?%C%/%5%$%:$O(B @code{limit stacksize 16m}
1973: $B$J$I$H;XDj$9$k(B.
1974:
1975: @item
1976: @code{X} $B$G$O!"%&%$%s%I%&$N3FItJ,$K$D$$$F(B resource $B$K$h$j(B
1977: $B?'IU$1$d!"%\%?%s$N7A$rJQ$($k$3$H$,$G$-$k!#(B
1978: resource $B$N;XDj$N;EJ}$O0J2<$NDL$j!#!J%G%U%)%k%H$r<($7$F$*$/!K(B
1979: @code{plot*form*shapeStyle} $B$O!"(B@t{rectangle, oval, ellipse, roundedRectangle}
1980: $B$,!";XDj$G$-$k!#(B
1.2 noro 1981: \E
1982: \BEG
1983: @item
1984: Function @code{ifplot()} draws a graph of real zeros of a bi-variate
1985: function.
1986: Function @code{conplot()} plots the contour lines for a same argument.
1987: Function @code{plot()} draws the graph of a uninivariate function.
1988: These functions are available on UNIX version (on @code{X11}).
1989:
1990: @item
1991: The plotting functions for UNIX version are realized on remote process
1992: facilities described previously.
1993: The command for this is @samp{ox_plot} in @b{Asir} root directory.
1994: Of course, it must be activated by @code{ox_launch()}.
1995:
1996: @item
1997: Argument @var{func} is indispensable. Other arguments are optional.
1998: The format of optional arguments and their default values (parenthesized)
1999: are listed below.
2000:
2001: @table @var
2002: @item geometry
2003: Window size is specified by @var{[x,y]} in unit `dot.'
2004: (@var{[}@code{300},@code{300}@var{]} for UNIX version;
2005:
2006: @item xrange, yrange
2007: Value ranges of the variables are specified by @var{[v,vmin,vmax]}.
2008: (@var{[v},@code{-2},@code{2}@var{]} for each variable.)
2009: If this specification is omitted, the indeterminate having the higher
2010: order in @var{func} is taken for @samp{x} and the one with lower order
2011: is taken for @samp{y}. To change this selection, specify explicitly
2012: by @var{xrange} and/or @var{yrange}.
2013: For an uni-variate function, the specification is mandatory.
2014:
2015: @item zrange
2016: This specification applies only to @code{conplot()}. The format is
2017: @var{[v,vmin,vmax} @code{[},@var{step} @code{]}@var{]}.
2018: If @var{step} is specified, the height difference of contours is set to
2019: @var{(vmax-vmin)/step}.
2020: (@var{[z},@code{-2},@code{2},@code{16}@var{]}.)
2021:
2022: @item id
2023: This specifies the number of the remote process by which you wish
2024: to draw a graph.
2025: (The number for the newest active process.)
2026:
2027: @item name
2028: The name of the window.
2029: (@code{Plot}.)
2030: The created window is titled @var{name:n/m} which means the @var{m}-th
2031: window of the process with process number @var{n}.
2032: These numbers are used for @code{plotover()}.
2033: @end table
2034:
2035: @item
2036: The maximum number of the windows that can be created on a process is
2037: 128.
2038:
2039: @item
2040: Function @code{plotover()} superposes reals zeros of its argument
2041: bi-variate function onto the specified window.
2042:
2043: @item
2044: Enlarged plot can be obtained for rectangular area which is specified,
2045: on an already existing window with a graph,
2046: by dragging cursor with the left button of mouse
2047: from the upper-left corner to lower-right corner
2048: and then releasing it.
2049: Then, a new window is created whose shape is similar to the specified
2050: area and whose size is determined so that the largest
2051: side of the new window has the same size of the largest side of
2052: the original window.
2053: If you wish to cancel the action, drag the cursor to any point
2054: above or left of the starting point.
2055:
2056: This facility is effective when @code{precise} button switch is
2057: inactive. If @code{precise} is selected and active, the area specified
2058: by the cursor dragging will be rewritten on the same window. This
2059: will be explained later.
2060: @item
2061: A click of the right button will display the current coordinates of
2062: the cursor at the bottom area of the window.
2063:
2064: @item
2065: Place the cursor at any point in the right marker area on
2066: a window created by @code{conplot()},
2067: and drag the cursor with the middle mutton. Then you will find the contour lines changing
2068: their colors depending on the movement of the cursor and the
2069: corresponding height level displayed on the upper right corner of
2070: the window.
2071:
2072: @item
2073: Several operations are available on the window: by button operations
2074: for UNIX version, and pull-down menus for Macintosh version.
2075:
2076: @table @code
2077: @item quit
2078: Destroys (kills) the window. While computing, quit the current
2079: computation.
2080: If one wants to interrupt the computation, use @code{ox_reset()}.
2081:
2082: @item wide (toggle)
2083: Will display, on the same window, a new area enlarged by 10 times
2084: as large as the current area for both width-direction and
2085: height-direction. The current area will be indicated by a rectangle
2086: placed at the center. Area specification by dragging the cursor will
2087: create a new window with a plot of the graph in the specified area.
2088: @item precise (toggle)
2089: When selected and active,
2090: @code{ox_plot} redraws the specified area more precisely by integer
2091: arithmetic.
2092: This mode uses bisection method based on Sturm sequence computation to
2093: locate real zeros precisely. More precise plotting can be expected
2094: by this technique than by the default plotting technique, at the expense
2095: of significant increase of computing time. As you see by above
2096: explanation, this function is only effective to polynomials with
2097: rational coefficients.
2098: (Check how they differ for (x^2+y^2-1)^2.)
2099:
2100: @item formula
2101: Displays the expression for the graph.
2102:
2103: @item noaxis (toggle)
2104: Erase the coordinates.
2105: @end table
2106:
2107: @item
2108: Program @samp{ox_plot} may consume much stack space depending on
2109: which machine it is running.
2110: You are recommended to set the stack size to about 16MB as large
2111: in @samp{.cshrc} for safe.
2112: To specify the size, put @code{limit stacksize 16m} for an example.
2113:
2114: @item
2115: You can customize various resources of a window on @code{X}, e.g.,
2116: coloring, shape of buttons etc.
2117: The default setting of resources is shown below.
2118: For @code{plot*form*shapeStyle} you can select among
2119: @t{rectangle}, @t{oval}, @t{ellipse}, and @t{roundedRectangle}.
2120: \E
2121:
1.1 noro 2122: @example
2123: plot*background:white
2124: plot*form*shapeStyle:rectangle
2125: plot*form*background:white
2126: plot*form*quit*background:white
2127: plot*form*wide*background:white
2128: plot*form*precise*background:white
2129: plot*form*formula*background:white
2130: plot*form*noaxis*background:white
2131: plot*form*xcoord*background:white
2132: plot*form*ycoord*background:white
2133: plot*form*level*background:white
2134: plot*form*xdone*background:white
2135: plot*form*ydone*background:white
2136: @end example
2137: @end itemize
2138:
2139: @example
2140: @end example
2141:
2142: @table @t
1.2 noro 2143: \JP @item $B;2>H(B
2144: \EG @item References
2145: @fref{ox_launch ox_launch_nox ox_shutdown}, @fref{ox_reset register_handler}
1.1 noro 2146: @end table
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