Context Navigation

source: trunk/kernel/kern/rpc.c @ 619

Last change on this file since 619 was 619, checked in by alain, 5 years ago

1) Fix a bug in KSH : after the "load" command,

the [ksh] prompt is now printed after completion
of the loaded application.

2) Fix a bug in vmm_handle_cow() : the copy-on-write

use now a hal_remote_memcpy() to replicate the page content.

File size: 96.0 KB

Line
1	/*
2	* rpc.c - RPC operations implementation.
3	*
4	* Author Alain Greiner (2016,2017,2018)
5	*
6	* Copyright (c) UPMC Sorbonne Universites
7	*
8	* This file is part of ALMOS-MKH.
9	*
10	* ALMOS-MKH is free software; you can redistribute it and/or modify it
11	* under the terms of the GNU General Public License as published by
12	* the Free Software Foundation; version 2.0 of the License.
13	*
14	* ALMOS-MKH is distributed in the hope that it will be useful, but
15	* WITHOUT ANY WARRANTY; without even the implied warranty of
16	* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
17	* General Public License for more details.
18	*
19	* You should have received a copy of the GNU General Public License
20	* along with ALMOS-MKH; if not, write to the Free Software Foundation,
21	* Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA
22	*/
23
24	#include <kernel_config.h>
25	#include <hal_kernel_types.h>
26	#include <hal_atomic.h>
27	#include <hal_remote.h>
28	#include <hal_irqmask.h>
29	#include <hal_special.h>
30	#include <printk.h>
31	#include <user_dir.h>
32	#include <remote_sem.h>
33	#include <core.h>
34	#include <mapper.h>
35	#include <chdev.h>
36	#include <bits.h>
37	#include <thread.h>
38	#include <cluster.h>
39	#include <process.h>
40	#include <vfs.h>
41	#include <fatfs.h>
42	#include <rpc.h>
43
44
45	/////////////////////////////////////////////////////////////////////////////////////////
46	// Array of function pointers and array of printable strings.
47	// These arrays must be kept consistent with enum in rpc.h file.
48	/////////////////////////////////////////////////////////////////////////////////////////
49
50	rpc_server_t * rpc_server[RPC_MAX_INDEX] =
51	{
52	&rpc_pmem_get_pages_server, // 0
53	&rpc_pmem_release_pages_server, // 1
54	&rpc_undefined, // 2 unused slot
55	&rpc_process_make_fork_server, // 3
56	&rpc_user_dir_create_server, // 4
57	&rpc_user_dir_destroy_server, // 5
58	&rpc_thread_user_create_server, // 6
59	&rpc_thread_kernel_create_server, // 7
60	&rpc_undefined, // 8 unused slot
61	&rpc_process_sigaction_server, // 9
62
63	&rpc_vfs_inode_create_server, // 10
64	&rpc_vfs_inode_destroy_server, // 11
65	&rpc_vfs_dentry_create_server, // 12
66	&rpc_vfs_dentry_destroy_server, // 13
67	&rpc_vfs_file_create_server, // 14
68	&rpc_vfs_file_destroy_server, // 15
69	&rpc_vfs_fs_get_dentry_server, // 16
70	&rpc_vfs_fs_add_dentry_server, // 17
71	&rpc_vfs_fs_remove_dentry_server, // 18
72	&rpc_vfs_inode_load_all_pages_server, // 19
73
74	&rpc_vmm_get_vseg_server, // 20
75	&rpc_vmm_global_update_pte_server, // 21
76	&rpc_kcm_alloc_server, // 22
77	&rpc_kcm_free_server, // 23
78	&rpc_undefined, // 24 unused slot
79	&rpc_mapper_handle_miss_server, // 25
80	&rpc_vmm_delete_vseg_server, // 26
81	&rpc_vmm_create_vseg_server, // 27
82	&rpc_vmm_set_cow_server, // 28
83	&rpc_vmm_display_server, // 29
84	};
85
86	char * rpc_str[RPC_MAX_INDEX] =
87	{
88	"PMEM_GET_PAGES", // 0
89	"PMEM_RELEASE_PAGES", // 1
90	"undefined", // 2
91	"PROCESS_MAKE_FORK", // 3
92	"USER_DIR_CREATE", // 4
93	"USER_DIR_DESTROY", // 5
94	"THREAD_USER_CREATE", // 6
95	"THREAD_KERNEL_CREATE", // 7
96	"undefined", // 8
97	"PROCESS_SIGACTION", // 9
98
99	"VFS_INODE_CREATE", // 10
100	"VFS_INODE_DESTROY", // 11
101	"VFS_DENTRY_CREATE", // 12
102	"VFS_DENTRY_DESTROY", // 13
103	"VFS_FILE_CREATE", // 14
104	"VFS_FILE_DESTROY", // 15
105	"VFS_FS_GET_DENTRY", // 16
106	"VFS_FS_ADD_DENTRY", // 17
107	"VFS_FS_REMOVE_DENTRY", // 18
108	"VFS_INODE_LOAD_ALL_PAGES", // 19
109
110	"GET_VSEG", // 20
111	"GLOBAL_UPDATE_PTE", // 21
112	"KCM_ALLOC", // 22
113	"KCM_FREE", // 23
114	"undefined", // 24
115	"MAPPER_HANDLE_MISS", // 25
116	"VMM_DELETE_VSEG", // 26
117	"VMM_CREATE_VSEG", // 27
118	"VMM_SET_COW", // 28
119	"VMM_DISPLAY", // 29
120	};
121
122	//////////////////////////////////////////////////////////////////////////////////
123	void __attribute__((noinline)) rpc_undefined( xptr_t xp __attribute__ ((unused)) )
124	{
125	assert( false , "called in cluster %x", local_cxy );
126	}
127
128	/***************************************************************************************/
129	/********** Generic function supporting RPCs : client side *************************/
130	/***************************************************************************************/
131
132	///////////////////////////////////////
133	void rpc_send( cxy_t server_cxy,
134	rpc_desc_t * rpc )
135	{
136	lid_t server_core_lid;
137	lid_t client_core_lid;
138	volatile error_t full;
139	thread_t * this;
140
141	full = 0;
142	this = CURRENT_THREAD;
143	client_core_lid = this->core->lid;
144
145	// check calling thread can yield when is not the IDLE thread
146	// RPCs executed by the IDLE thread during kernel_init do not deschedule
147	if( this->type != THREAD_IDLE ) thread_assert_can_yield( this , __FUNCTION__ );
148
149	// select a server_core : use client core index if possible / core 0 otherwise
150	if( client_core_lid < hal_remote_l32( XPTR( server_cxy , &LOCAL_CLUSTER->cores_nr ) ) )
151	{
152	server_core_lid = client_core_lid;
153	}
154	else
155	{
156	server_core_lid = 0;
157	}
158
159	// register client_thread and client_core in RPC descriptor
160	rpc->thread = this;
161	rpc->lid = client_core_lid;
162
163	// build extended pointer on the RPC descriptor
164	xptr_t desc_xp = XPTR( local_cxy , rpc );
165
166	// get local pointer on rpc_fifo in remote cluster,
167	remote_fifo_t * rpc_fifo = &LOCAL_CLUSTER->rpc_fifo[server_core_lid];
168	xptr_t rpc_fifo_xp = XPTR( server_cxy , rpc_fifo );
169
170	// post RPC in remote fifo / deschedule without blocking if fifo full
171	do
172	{
173	full = remote_fifo_put_item( rpc_fifo_xp , (uint64_t )desc_xp );
174
175	if ( full )
176	{
177	printk("\n[WARNING] %s : cluster %x cannot post RPC to cluster %x\n",
178	__FUNCTION__ , local_cxy , server_cxy );
179
180	// deschedule without blocking
181	sched_yield("RPC fifo full");
182	}
183	}
184	while( full );
185
186	#if DEBUG_RPC_CLIENT_GENERIC
187	uint32_t cycle = (uint32_t)hal_get_cycles();
188	uint32_t items = remote_fifo_items( rpc_fifo_xp );
189	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
190	printk("\n[%s] thread[%x,%x] / rpc %s / server[%x,%d] / items %d / cycle %d\n",
191	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index],
192	server_cxy, server_core_lid, items, cycle );
193	#endif
194
195	// send IPI to the selected server core
196	dev_pic_send_ipi( server_cxy , server_core_lid );
197
198	// wait RPC completion before returning if blocking RPC :
199	// - deschedule without blocking if thread idle (in kernel init)
200	// - block and deschedule policy for any other thread
201	if ( rpc->blocking )
202	{
203	if( this->type == THREAD_IDLE ) // deschedule without blocking policy
204	{
205
206	#if DEBUG_RPC_CLIENT_GENERIC
207	cycle = (uint32_t)hal_get_cycles();
208	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
209	printk("\n[%s] thread[%x,%x] enter waiting loop for rpc %s / cycle %d\n",
210	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index], cycle );
211	#endif
212	while( 1 )
213	{
214	// check responses counter
215	if( hal_remote_l32( XPTR( local_cxy , rpc->rsp ) ) == 0 ) break;
216
217	// deschedule
218	sched_yield("busy_waiting RPC completion");
219	}
220
221	#if DEBUG_RPC_CLIENT_GENERIC
222	cycle = (uint32_t)hal_get_cycles();
223	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
224	printk("\n[%s] thread[%x,%x] received response for rpc %s / cycle %d\n",
225	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index], cycle );
226	#endif
227
228	}
229	else // block and deschedule policy
230	{
231
232	#if DEBUG_RPC_CLIENT_GENERIC
233	cycle = (uint32_t)hal_get_cycles();
234	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
235	printk("\n[%s] thread[%x,%x] blocks & deschedules for rpc %s / cycle %d\n",
236	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index], cycle );
237	#endif
238
239	// block client thread
240	thread_block( XPTR( local_cxy , this ) , THREAD_BLOCKED_RPC );
241
242	// deschedule
243	sched_yield("blocked on RPC");
244
245	#if DEBUG_RPC_CLIENT_GENERIC
246	cycle = (uint32_t)hal_get_cycles();
247	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
248	printk("\n[%s] thread[%x,%x] resumes after rpc %s / cycle %d\n",
249	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index], cycle );
250	#endif
251	}
252
253	// response must be available for a blocking RPC
254	assert( (*rpc->rsp == 0) , "illegal response for RPC %s\n", rpc_str[rpc->index] );
255
256	}
257	else // non blocking RPC
258	{
259
260	#if DEBUG_RPC_CLIENT_GENERIC
261	cycle = (uint32_t)hal_get_cycles();
262	if( DEBUG_RPC_CLIENT_GENERIC < cycle )
263	printk("\n[%s] thread[%x,%x] returns for non blocking rpc %s / cycle %d\n",
264	__FUNCTION__, this->process->pid, this->trdid, rpc_str[rpc->index], cycle );
265	#endif
266
267	}
268	} // end rpc_send()
269
270
271	/***************************************************************************************/
272	/********** Generic functions supporting RPCs : server side ************************/
273	/***************************************************************************************/
274
275	////////////////////////////
276	void rpc_server_func( void )
277	{
278	error_t empty; // local RPC fifo state
279	xptr_t desc_xp; // extended pointer on RPC request
280	cxy_t desc_cxy; // RPC request cluster (client)
281	rpc_desc_t * desc_ptr; // RPC request local pointer
282	uint32_t index; // RPC request index
283	thread_t * client_ptr; // local pointer on client thread
284	xptr_t client_xp; // extended pointer on client thread
285	lid_t client_lid; // local index of client core
286	thread_t * server_ptr; // local pointer on server thread
287	xptr_t server_xp; // extended pointer on server thread
288	lid_t server_lid; // local index of server core
289	remote_fifo_t * rpc_fifo; // local pointer on RPC fifo
290	uint32_t * rsp_ptr; // local pointer on responses counter
291	xptr_t rsp_xp; // extended pointer on responses counter
292	uint32_t responses; // number of expected responses
293
294	// makes RPC thread not preemptable
295	hal_disable_irq( NULL );
296
297	server_ptr = CURRENT_THREAD;
298	server_xp = XPTR( local_cxy , server_ptr );
299	server_lid = server_ptr->core->lid;
300	rpc_fifo = &LOCAL_CLUSTER->rpc_fifo[server_lid];
301
302	// "infinite" RPC thread loop
303	while(1)
304	{
305	// try to take RPC_FIFO ownership
306	if( hal_atomic_test_set( &rpc_fifo->owner , server_ptr->trdid ) )
307	{
308
309	#if DEBUG_RPC_SERVER_GENERIC
310	uint32_t cycle = (uint32_t)hal_get_cycles();
311	if( DEBUG_RPC_SERVER_GENERIC < cycle )
312	printk("\n[%s] RPC thread[%x,%x] on core[%d] takes RPC_FIFO ownership / cycle %d\n",
313	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid, server_lid, cycle );
314	#endif
315	// try to consume one RPC request
316	empty = remote_fifo_get_item( rpc_fifo , (uint64_t *)&desc_xp );
317
318	// release RPC_FIFO ownership
319	rpc_fifo->owner = 0;
320
321	// handle RPC request if success
322	if ( empty == 0 )
323	{
324	// get client cluster and pointer on RPC descriptor
325	desc_cxy = GET_CXY( desc_xp );
326	desc_ptr = GET_PTR( desc_xp );
327
328	// get relevant infos from RPC descriptor
329	index = hal_remote_l32( XPTR( desc_cxy , &desc_ptr->index ) );
330	client_ptr = hal_remote_lpt( XPTR( desc_cxy , &desc_ptr->thread ) );
331	rsp_ptr = hal_remote_lpt( XPTR( desc_cxy , &desc_ptr->rsp ) );
332	client_lid = hal_remote_l32( XPTR( desc_cxy , &desc_ptr->lid ) );
333
334	rsp_xp = XPTR( desc_cxy , rsp_ptr );
335	client_xp = XPTR( desc_cxy , client_ptr );
336
337	#if DEBUG_RPC_SERVER_GENERIC
338	cycle = (uint32_t)hal_get_cycles();
339	uint32_t items = remote_fifo_items( XPTR( local_cxy , rpc_fifo ) );
340	if( DEBUG_RPC_SERVER_GENERIC < cycle )
341	printk("\n[%s] RPC thread[%x,%x] got rpc %s / client_cxy %x / items %d / cycle %d\n",
342	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid, rpc_str[index], desc_cxy, items, cycle );
343	#endif
344	// register client thread in RPC thread descriptor
345	server_ptr->rpc_client_xp = client_xp;
346
347	// call the relevant server function
348	rpc_server[index]( desc_xp );
349
350	#if DEBUG_RPC_SERVER_GENERIC
351	cycle = (uint32_t)hal_get_cycles();
352	if( DEBUG_RPC_SERVER_GENERIC < cycle )
353	printk("\n[%s] RPC thread[%x,%x] completes rpc %s / client_cxy %x / cycle %d\n",
354	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid, rpc_str[index], desc_cxy, cycle );
355	#endif
356	// decrement expected responses counter
357	responses = hal_remote_atomic_add( rsp_xp , -1 );
358
359	// unblock client thread if last response
360	if( responses == 1 )
361	{
362	// unblock client thread
363	thread_unblock( client_xp , THREAD_BLOCKED_RPC );
364
365	hal_fence();
366
367	#if DEBUG_RPC_SERVER_GENERIC
368	cycle = (uint32_t)hal_get_cycles();
369	trdid_t client_trdid = hal_remote_l32( XPTR( desc_cxy , &client_ptr->trdid ) );
370	process_t * process = hal_remote_lpt( XPTR( desc_cxy , &client_ptr->process ) );
371	pid_t client_pid = hal_remote_l32( XPTR( desc_cxy , &process->pid ) );
372	if( DEBUG_RPC_SERVER_GENERIC < cycle )
373	printk("\n[%s] RPC thread[%x,%x] unblocked client thread[%x,%x] / cycle %d\n",
374	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid,
375	client_pid, client_trdid, cycle );
376	#endif
377	// send IPI to client core
378	dev_pic_send_ipi( desc_cxy , client_lid );
379	}
380	} // end RPC handling if fifo non empty
381	} // end if RPC_fIFO ownership successfully taken and released
382
383	// sucide if too many RPC threads
384	if( LOCAL_CLUSTER->rpc_threads[server_lid] >= CONFIG_RPC_THREADS_MAX )
385	{
386
387	#if DEBUG_RPC_SERVER_GENERIC
388	uint32_t cycle = (uint32_t)hal_get_cycles();
389	if( DEBUG_RPC_SERVER_GENERIC < cycle )
390	printk("\n[%s] RPC thread[%x,%x] suicides / cycle %d\n",
391	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid, cycle );
392	#endif
393	// update RPC threads counter
394	hal_atomic_add( &LOCAL_CLUSTER->rpc_threads[server_lid] , -1 );
395
396	// RPC thread blocks on GLOBAL
397	thread_block( server_xp , THREAD_BLOCKED_GLOBAL );
398
399	// RPC thread set the REQ_DELETE flag to suicide
400	hal_remote_atomic_or( server_xp , THREAD_FLAG_REQ_DELETE );
401	}
402	// block and deschedule otherwise
403	else
404	{
405
406	#if DEBUG_RPC_SERVER_GENERIC
407	uint32_t cycle = (uint32_t)hal_get_cycles();
408	if( DEBUG_RPC_SERVER_GENERIC < cycle )
409	printk("\n[%s] RPC thread[%x,%x] blocks & deschedules / cycle %d\n",
410	__FUNCTION__, server_ptr->process->pid, server_ptr->trdid, cycle );
411	#endif
412	// RPC thread blocks on IDLE
413	thread_block( server_xp , THREAD_BLOCKED_IDLE );
414
415	// RPC thread deschedules
416	sched_yield("RPC_FIFO empty");
417	}
418	} // end infinite loop
419
420	} // end rpc_server_func()
421
422
423	/////////////////////////////////////////////////////////////////////////////////////////
424	// [0] Marshaling functions attached to RPC_PMEM_GET_PAGES (blocking)
425	/////////////////////////////////////////////////////////////////////////////////////////
426
427	///////////////////////////////////////////////
428	void rpc_pmem_get_pages_client( cxy_t cxy,
429	uint32_t order, // in
430	page_t ** page ) // out
431	{
432	#if DEBUG_RPC_PMEM_GET_PAGES
433	thread_t * this = CURRENT_THREAD;
434	uint32_t cycle = (uint32_t)hal_get_cycles();
435	if( cycle > DEBUG_RPC_PMEM_GET_PAGES )
436	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
437	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
438	#endif
439
440	uint32_t responses = 1;
441
442	// initialise RPC descriptor header
443	rpc_desc_t rpc;
444	rpc.index = RPC_PMEM_GET_PAGES;
445	rpc.blocking = true;
446	rpc.rsp = &responses;
447
448	// set input arguments in RPC descriptor
449	rpc.args[0] = (uint64_t)order;
450
451	// register RPC request in remote RPC fifo
452	rpc_send( cxy , &rpc );
453
454	// get output arguments from RPC descriptor
455	page = (page_t )(intptr_t)rpc.args[1];
456
457	#if DEBUG_RPC_PMEM_GET_PAGES
458	cycle = (uint32_t)hal_get_cycles();
459	if( cycle > DEBUG_RPC_PMEM_GET_PAGES )
460	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
461	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
462	#endif
463	}
464
465	///////////////////////////////////////////
466	void rpc_pmem_get_pages_server( xptr_t xp )
467	{
468	#if DEBUG_RPC_PMEM_GET_PAGES
469	thread_t * this = CURRENT_THREAD;
470	uint32_t cycle = (uint32_t)hal_get_cycles();
471	if( cycle > DEBUG_RPC_PMEM_GET_PAGES )
472	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
473	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
474	#endif
475
476	// get client cluster identifier and pointer on RPC descriptor
477	cxy_t cxy = GET_CXY( xp );
478	rpc_desc_t * desc = GET_PTR( xp );
479
480	// get input arguments from client RPC descriptor
481	uint32_t order = (uint32_t)hal_remote_l64( XPTR( cxy , &desc->args[0] ) );
482
483	// call local pmem allocator
484	page_t * page = ppm_alloc_pages( order );
485
486	// set output arguments into client RPC descriptor
487	hal_remote_s64( XPTR( cxy , &desc->args[1] ) , (uint64_t)(intptr_t)page );
488
489	#if DEBUG_RPC_PMEM_GET_PAGES
490	cycle = (uint32_t)hal_get_cycles();
491	if( cycle > DEBUG_RPC_PMEM_GET_PAGES )
492	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
493	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
494	#endif
495	}
496
497	/////////////////////////////////////////////////////////////////////////////////////////
498	// [1] Marshaling functions attached to RPC_PMEM_RELEASE_PAGES
499	/////////////////////////////////////////////////////////////////////////////////////////
500
501	//////////////////////////////////////////////////
502	void rpc_pmem_release_pages_client( cxy_t cxy,
503	page_t * page ) // out
504	{
505	#if DEBUG_RPC_PMEM_RELEASE_PAGES
506	thread_t * this = CURRENT_THREAD;
507	uint32_t cycle = (uint32_t)hal_get_cycles();
508	if( cycle > DEBUG_RPC_PMEM_RELEASE_PAGES )
509	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
510	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
511	#endif
512
513	uint32_t responses = 1;
514
515	// initialise RPC descriptor header
516	rpc_desc_t rpc;
517	rpc.index = RPC_PMEM_RELEASE_PAGES;
518	rpc.blocking = true;
519	rpc.rsp = &responses;
520
521	// set input arguments in RPC descriptor
522	rpc.args[0] = (uint64_t)(intptr_t)page;
523
524	// register RPC request in remote RPC fifo
525	rpc_send( cxy , &rpc );
526
527	#if DEBUG_RPC_PMEM_RELEASE_PAGES
528	cycle = (uint32_t)hal_get_cycles();
529	if( cycle > DEBUG_RPC_PMEM_RELEASE_PAGES )
530	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
531	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
532	#endif
533	}
534
535	///////////////////////////////////////////////
536	void rpc_pmem_release_pages_server( xptr_t xp )
537	{
538	#if DEBUG_RPC_PMEM_RELEASE_PAGES
539	thread_t * this = CURRENT_THREAD;
540	uint32_t cycle = (uint32_t)hal_get_cycles();
541	if( cycle > DEBUG_RPC_PMEM_RELEASE_PAGES )
542	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
543	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
544	#endif
545
546	// get client cluster identifier and pointer on RPC descriptor
547	cxy_t cxy = GET_CXY( xp );
548	rpc_desc_t * desc = GET_PTR( xp );
549
550	// get input arguments from client RPC descriptor
551	page_t * page = (page_t *)(intptr_t)hal_remote_l64( XPTR( cxy , &desc->args[0] ) );
552
553	// release memory to local pmem
554	kmem_req_t req;
555	req.type = KMEM_PAGE;
556	req.ptr = page;
557	kmem_free( &req );
558
559	#if DEBUG_RPC_PMEM_RELEASE_PAGES
560	cycle = (uint32_t)hal_get_cycles();
561	if( cycle > DEBUG_RPC_PMEM_RELEASE_PAGES )
562	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
563	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
564	#endif
565	}
566
567	/////////////////////////////////////////////////////////////////////////////////////////
568	// [2] undefined slot
569	/////////////////////////////////////////////////////////////////////////////////////////
570
571	/////////////////////////////////////////////////////////////////////////////////////////
572	// [3] Marshaling functions attached to RPC_PROCESS_MAKE_FORK
573	/////////////////////////////////////////////////////////////////////////////////////////
574
575	///////////////////////////////////////////////////
576	void rpc_process_make_fork_client( cxy_t cxy,
577	xptr_t ref_process_xp, // in
578	xptr_t parent_thread_xp, // in
579	pid_t * child_pid, // out
580	thread_t ** child_thread_ptr, // out
581	error_t * error ) // out
582	{
583	#if DEBUG_RPC_PROCESS_MAKE_FORK
584	thread_t * this = CURRENT_THREAD;
585	uint32_t cycle = (uint32_t)hal_get_cycles();
586	if( cycle > DEBUG_RPC_PROCESS_MAKE_FORK )
587	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
588	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
589	#endif
590
591	uint32_t responses = 1;
592
593	// initialise RPC descriptor header
594	rpc_desc_t rpc;
595	rpc.index = RPC_PROCESS_MAKE_FORK;
596	rpc.blocking = true;
597	rpc.rsp = &responses;
598
599	// set input arguments in RPC descriptor
600	rpc.args[0] = (uint64_t)ref_process_xp;
601	rpc.args[1] = (uint64_t)parent_thread_xp;
602
603	// register RPC request in remote RPC fifo
604	rpc_send( cxy , &rpc );
605
606	// get output arguments from RPC descriptor
607	*child_pid = (pid_t)rpc.args[2];
608	child_thread_ptr = (thread_t )(intptr_t)rpc.args[3];
609	*error = (error_t)rpc.args[4];
610
611	#if DEBUG_RPC_PROCESS_MAKE_FORK
612	cycle = (uint32_t)hal_get_cycles();
613	if( cycle > DEBUG_RPC_PROCESS_MAKE_FORK )
614	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
615	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
616	#endif
617	}
618
619	//////////////////////////////////////////////
620	void rpc_process_make_fork_server( xptr_t xp )
621	{
622	#if DEBUG_RPC_PROCESS_MAKE_FORK
623	thread_t * this = CURRENT_THREAD;
624	uint32_t cycle = (uint32_t)hal_get_cycles();
625	if( cycle > DEBUG_RPC_PROCESS_MAKE_FORK )
626	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
627	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
628	#endif
629
630	xptr_t ref_process_xp; // extended pointer on reference parent process
631	xptr_t parent_thread_xp; // extended pointer on parent thread
632	pid_t child_pid; // child process identifier
633	thread_t * child_thread_ptr; // local copy of exec_info structure
634	error_t error; // local error status
635
636	// get client cluster identifier and pointer on RPC descriptor
637	cxy_t client_cxy = GET_CXY( xp );
638	rpc_desc_t * desc = GET_PTR( xp );
639
640	// get input arguments from cient RPC descriptor
641	ref_process_xp = (xptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
642	parent_thread_xp = (xptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
643
644	// call local kernel function
645	error = process_make_fork( ref_process_xp,
646	parent_thread_xp,
647	&child_pid,
648	&child_thread_ptr );
649
650	// set output argument into client RPC descriptor
651	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)child_pid );
652	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)(intptr_t)child_thread_ptr );
653	hal_remote_s64( XPTR( client_cxy , &desc->args[4] ) , (uint64_t)error );
654
655	#if DEBUG_RPC_PROCESS_MAKE_FORK
656	cycle = (uint32_t)hal_get_cycles();
657	if( cycle > DEBUG_RPC_PROCESS_MAKE_FORK )
658	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
659	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
660	#endif
661	}
662
663	/////////////////////////////////////////////////////////////////////////////////////////
664	// [4] Marshaling functions attached to RPC_USER_DIR_CREATE
665	/////////////////////////////////////////////////////////////////////////////////////////
666
667	////////////////////////////////////////////////////
668	void rpc_user_dir_create_client( cxy_t cxy,
669	vfs_inode_t * inode,
670	xptr_t ref_xp,
671	user_dir_t ** dir )
672	{
673	#if DEBUG_RPC_USER_DIR_CREATE
674	thread_t * this = CURRENT_THREAD;
675	uint32_t cycle = (uint32_t)hal_get_cycles();
676	if( cycle > DEBUG_RPC_USER_DIR_CREATE)
677	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
678	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
679	#endif
680
681	uint32_t responses = 1;
682
683	// initialise RPC descriptor header
684	rpc_desc_t rpc;
685	rpc.index = RPC_USER_DIR_CREATE;
686	rpc.blocking = true;
687	rpc.rsp = &responses;
688
689	// set input arguments in RPC descriptor
690	rpc.args[0] = (uint64_t)(intptr_t)inode;
691	rpc.args[1] = (uint64_t)ref_xp;
692
693	// register RPC request in remote RPC fifo
694	rpc_send( cxy , &rpc );
695
696	// get output argument from RPC descriptor
697	dir = (user_dir_t )(intptr_t)rpc.args[2];
698
699	#if DEBUG_RPC_USER_DIR_CREATE
700	cycle = (uint32_t)hal_get_cycles();
701	if( cycle > DEBUG_RPC_USER_DIR_CREATE)
702	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
703	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
704	#endif
705	}
706
707	////////////////////////////////////////////
708	void rpc_user_dir_create_server( xptr_t xp )
709	{
710	#if DEBUG_RPC_USER_DIR_CREATE
711	thread_t * this = CURRENT_THREAD;
712	uint32_t cycle = (uint32_t)hal_get_cycles();
713	if( cycle > DEBUG_RPC_USER_DIR_CREATE)
714	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
715	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
716	#endif
717
718	vfs_inode_t * inode; // pointer on inode in server cluster
719	xptr_t ref_xp; // extended pointer on reference user process
720	user_dir_t * dir; // pointer on user_dir structure in server cluster
721
722	// get client cluster identifier and pointer on RPC descriptor
723	cxy_t client_cxy = GET_CXY( xp );
724	rpc_desc_t * desc = GET_PTR( xp );
725
726	// get input argument from RPC descriptor
727	inode = (vfs_inode_t *)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
728	ref_xp = (xptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
729
730	// call kernel function
731	dir = user_dir_create( inode , ref_xp );
732
733	// set output argument into RPC descriptor
734	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (intptr_t)dir );
735
736	#if DEBUG_RPC_USER_DIR_CREATE
737	cycle = (uint32_t)hal_get_cycles();
738	if( cycle > DEBUG_RPC_USER_DIR_CREATE)
739	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
740	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
741	#endif
742	}
743
744	/////////////////////////////////////////////////////////////////////////////////////////
745	// [5] Marshaling functions attached to RPC_USER_DIR_DESTROY
746	/////////////////////////////////////////////////////////////////////////////////////////
747
748	////////////////////////////////////////////////////
749	void rpc_user_dir_destroy_client( cxy_t cxy,
750	user_dir_t * dir,
751	xptr_t ref_xp )
752	{
753	#if DEBUG_RPC_USER_DIR_DESTROY
754	thread_t * this = CURRENT_THREAD;
755	uint32_t cycle = (uint32_t)hal_get_cycles();
756	if( cycle > DEBUG_RPC_USER_DIR_DESTROY)
757	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
758	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
759	#endif
760
761	uint32_t responses = 1;
762
763	// initialise RPC descriptor header
764	rpc_desc_t rpc;
765	rpc.index = RPC_USER_DIR_DESTROY;
766	rpc.blocking = true;
767	rpc.rsp = &responses;
768
769	// set input arguments in RPC descriptor
770	rpc.args[0] = (uint64_t)(intptr_t)dir;
771	rpc.args[1] = (uint64_t)ref_xp;
772
773	// register RPC request in remote RPC fifo
774	rpc_send( cxy , &rpc );
775
776	#if DEBUG_RPC_USER_DIR_DESTROY
777	cycle = (uint32_t)hal_get_cycles();
778	if( cycle > DEBUG_RPC_USER_DIR_DESTROY)
779	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
780	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
781	#endif
782	}
783
784	/////////////////////////////////////////////
785	void rpc_user_dir_destroy_server( xptr_t xp )
786	{
787	#if DEBUG_RPC_USER_DIR_DESTROY
788	thread_t * this = CURRENT_THREAD;
789	uint32_t cycle = (uint32_t)hal_get_cycles();
790	if( cycle > DEBUG_RPC_USER_DIR_DESTROY)
791	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
792	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
793	#endif
794
795	user_dir_t * dir; // pointer on user_dir structure in server cluster
796	xptr_t ref_xp; // extended pointer on reference process
797
798	// get client cluster identifier and pointer on RPC descriptor
799	cxy_t client_cxy = GET_CXY( xp );
800	rpc_desc_t * desc = GET_PTR( xp );
801
802	// get input argument from RPC descriptor
803	dir = (user_dir_t *)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
804	ref_xp = (xptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
805
806	// call kernel function
807	user_dir_destroy( dir , ref_xp );
808
809	#if DEBUG_RPC_USER_DIR_DESTROY
810	cycle = (uint32_t)hal_get_cycles();
811	if( cycle > DEBUG_RPC_USER_DIR_DESTROY)
812	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
813	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
814	#endif
815	}
816
817	/////////////////////////////////////////////////////////////////////////////////////////
818	// [6] Marshaling functions attached to RPC_THREAD_USER_CREATE
819	/////////////////////////////////////////////////////////////////////////////////////////
820
821	/////////////////////////////////////////////////////////
822	void rpc_thread_user_create_client( cxy_t cxy,
823	pid_t pid, // in
824	void * start_func, // in
825	void * start_arg, // in
826	pthread_attr_t * attr, // in
827	xptr_t * thread_xp, // out
828	error_t * error ) // out
829	{
830	#if DEBUG_RPC_THREAD_USER_CREATE
831	thread_t * this = CURRENT_THREAD;
832	uint32_t cycle = (uint32_t)hal_get_cycles();
833	if( cycle > DEBUG_RPC_THREAD_USER_CREATE)
834	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
835	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
836	#endif
837
838	uint32_t responses = 1;
839
840	// initialise RPC descriptor header
841	rpc_desc_t rpc;
842	rpc.index = RPC_THREAD_USER_CREATE;
843	rpc.blocking = true;
844	rpc.rsp = &responses;
845
846	// set input arguments in RPC descriptor
847	rpc.args[0] = (uint64_t)pid;
848	rpc.args[1] = (uint64_t)(intptr_t)start_func;
849	rpc.args[2] = (uint64_t)(intptr_t)start_arg;
850	rpc.args[3] = (uint64_t)(intptr_t)attr;
851
852	// register RPC request in remote RPC fifo
853	rpc_send( cxy , &rpc );
854
855	// get output arguments from RPC descriptor
856	*thread_xp = (xptr_t)rpc.args[4];
857	*error = (error_t)rpc.args[5];
858
859	#if DEBUG_RPC_THREAD_USER_CREATE
860	cycle = (uint32_t)hal_get_cycles();
861	if( cycle > DEBUG_RPC_THREAD_USER_CREATE)
862	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
863	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
864	#endif
865	}
866
867	///////////////////////////////////////////////
868	void rpc_thread_user_create_server( xptr_t xp )
869	{
870	#if DEBUG_RPC_THREAD_USER_CREATE
871	thread_t * this = CURRENT_THREAD;
872	uint32_t cycle = (uint32_t)hal_get_cycles();
873	if( cycle > DEBUG_RPC_THREAD_USER_CREATE)
874	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
875	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
876	#endif
877
878	pthread_attr_t * attr_ptr; // pointer on attributes structure in client cluster
879	pthread_attr_t attr_copy; // attributes structure copy in server cluster
880	thread_t * thread_ptr; // local pointer on thread descriptor
881	xptr_t thread_xp; // extended pointer on thread descriptor
882
883	pid_t pid; // process identifier
884	void * start_func;
885	void * start_arg;
886	error_t error;
887
888	// get client cluster identifier and pointer on RPC descriptor
889	cxy_t client_cxy = GET_CXY( xp );
890	rpc_desc_t * desc = GET_PTR( xp );
891
892	// get input arguments from RPC descriptor
893	pid = (pid_t) hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
894	start_func = (void *)(intptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
895	start_arg = (void *)(intptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[2]));
896	attr_ptr = (pthread_attr_t *)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[3]));
897
898	// makes a local copy of attributes structure
899	hal_remote_memcpy( XPTR( local_cxy , &attr_copy ),
900	XPTR( client_cxy , attr_ptr ),
901	sizeof(pthread_attr_t) );
902
903	// call kernel function
904	error = thread_user_create( pid,
905	start_func,
906	start_arg,
907	&attr_copy,
908	&thread_ptr );
909	// set output arguments
910	thread_xp = XPTR( local_cxy , thread_ptr );
911	hal_remote_s64( XPTR( client_cxy , &desc->args[4] ) , (uint64_t)thread_xp );
912	hal_remote_s64( XPTR( client_cxy , &desc->args[5] ) , (uint64_t)error );
913
914	#if DEBUG_RPC_THREAD_USER_CREATE
915	cycle = (uint32_t)hal_get_cycles();
916	if( cycle > DEBUG_RPC_THREAD_USER_CREATE)
917	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
918	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
919	#endif
920	}
921
922	/////////////////////////////////////////////////////////////////////////////////////////
923	// [7] Marshaling functions attached to RPC_THREAD_KERNEL_CREATE (blocking)
924	/////////////////////////////////////////////////////////////////////////////////////////
925
926	////////////////////////////////////////////////////
927	void rpc_thread_kernel_create_client( cxy_t cxy,
928	uint32_t type, // in
929	void * func, // in
930	void * args, // in
931	xptr_t * thread_xp, // out
932	error_t * error ) // out
933	{
934	#if DEBUG_RPC_THREAD_KERNEL_CREATE
935	thread_t * this = CURRENT_THREAD;
936	uint32_t cycle = (uint32_t)hal_get_cycles();
937	if( cycle > DEBUG_RPC_THREAD_KERNEL_CREATE)
938	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
939	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
940	#endif
941
942	uint32_t responses = 1;
943
944	// initialise RPC descriptor header
945	rpc_desc_t rpc;
946	rpc.index = RPC_THREAD_KERNEL_CREATE;
947	rpc.blocking = true;
948	rpc.rsp = &responses;
949
950	// set input arguments in RPC descriptor
951	rpc.args[0] = (uint64_t)type;
952	rpc.args[1] = (uint64_t)(intptr_t)func;
953	rpc.args[2] = (uint64_t)(intptr_t)args;
954
955	// register RPC request in remote RPC fifo
956	rpc_send( cxy , &rpc );
957
958	// get output arguments from RPC descriptor
959	*thread_xp = (xptr_t)rpc.args[3];
960	*error = (error_t)rpc.args[4];
961
962	#if DEBUG_RPC_THREAD_KERNEL_CREATE
963	cycle = (uint32_t)hal_get_cycles();
964	if( cycle > DEBUG_RPC_THREAD_KERNEL_CREATE)
965	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
966	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
967	#endif
968	}
969
970	/////////////////////////////////////////////////
971	void rpc_thread_kernel_create_server( xptr_t xp )
972	{
973	#if DEBUG_RPC_THREAD_KERNEL_CREATE
974	thread_t * this = CURRENT_THREAD;
975	uint32_t cycle = (uint32_t)hal_get_cycles();
976	if( cycle > DEBUG_RPC_THREAD_KERNEL_CREATE)
977	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
978	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
979	#endif
980
981	thread_t * thread_ptr; // local pointer on thread descriptor
982	xptr_t thread_xp; // extended pointer on thread descriptor
983	lid_t core_lid; // core local index
984	error_t error;
985
986	// get client cluster identifier and pointer on RPC descriptor
987	cxy_t client_cxy = GET_CXY( xp );
988	rpc_desc_t * desc = GET_PTR( xp );
989
990	// get attributes from RPC descriptor
991	uint32_t type = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
992	void * func = (void*)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
993	void * args = (void*)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[2] ) );
994
995	// select one core
996	core_lid = cluster_select_local_core();
997
998	// call local kernel function
999	error = thread_kernel_create( &thread_ptr , type , func , args , core_lid );
1000
1001	// set output arguments
1002	thread_xp = XPTR( local_cxy , thread_ptr );
1003	hal_remote_s64( XPTR( client_cxy , &desc->args[1] ) , (uint64_t)error );
1004	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)thread_xp );
1005
1006	#if DEBUG_RPC_THREAD_KERNEL_CREATE
1007	cycle = (uint32_t)hal_get_cycles();
1008	if( cycle > DEBUG_RPC_THREAD_KERNEL_CREATE)
1009	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1010	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1011	#endif
1012	}
1013
1014	/////////////////////////////////////////////////////////////////////////////////////////
1015	// [8] undefined slot
1016	/////////////////////////////////////////////////////////////////////////////////////////
1017
1018
1019	/////////////////////////////////////////////////////////////////////////////////////////
1020	// [9] Marshaling functions attached to RPC_PROCESS_SIGACTION
1021	/////////////////////////////////////////////////////////////////////////////////////////
1022
1023	////////////////////////////////////////////////////
1024	void rpc_process_sigaction_client( cxy_t cxy,
1025	pid_t pid,
1026	uint32_t action )
1027	{
1028	#if DEBUG_RPC_PROCESS_SIGACTION
1029	uint32_t cycle = (uint32_t)hal_get_cycles();
1030	thread_t * this = CURRENT_THREAD;
1031	if( DEBUG_RPC_PROCESS_SIGACTION < cycle )
1032	printk("\n[%s] thread[%x,%x] on core %d : enter to %s process %x / cycle %d\n",
1033	__FUNCTION__, this->process->pid, this->trdid, this->core->lid,
1034	process_action_str( action ), pid, cycle );
1035	#endif
1036
1037	uint32_t responses = 1;
1038	rpc_desc_t rpc;
1039
1040	// initialise RPC descriptor header
1041	rpc.index = RPC_PROCESS_SIGACTION;
1042	rpc.blocking = true;
1043	rpc.rsp = &responses;
1044
1045	// set input arguments in RPC descriptor
1046	rpc.args[0] = (uint64_t)pid;
1047	rpc.args[1] = (uint64_t)action;
1048
1049	// register RPC request in remote RPC fifo
1050	rpc_send( cxy , &rpc );
1051
1052	#if DEBUG_RPC_PROCESS_SIGACTION
1053	cycle = (uint32_t)hal_get_cycles();
1054	if( DEBUG_RPC_PROCESS_SIGACTION < cycle )
1055	printk("\n[%s] thread[%x,%x] on core %d : exit after %s process %x / cycle %d\n",
1056	__FUNCTION__, this->process->pid, this->trdid, this->core->lid,
1057	process_action_str( action ), pid, cycle );
1058	#endif
1059	} // end rpc_process_sigaction_client()
1060
1061	//////////////////////////////////////////////
1062	void rpc_process_sigaction_server( xptr_t xp )
1063	{
1064	// get client cluster identifier and pointer on RPC descriptor
1065	cxy_t client_cxy = GET_CXY( xp );
1066	rpc_desc_t * desc = GET_PTR( xp );
1067
1068	// get arguments from RPC descriptor
1069	pid_t pid = (pid_t) hal_remote_l64( XPTR(client_cxy , &desc->args[0]) );
1070	uint32_t action = (uint32_t)hal_remote_l64( XPTR(client_cxy , &desc->args[1]) );
1071
1072	#if DEBUG_RPC_PROCESS_SIGACTION
1073	uint32_t cycle = (uint32_t)hal_get_cycles();
1074	thread_t * this = CURRENT_THREAD;
1075	if( DEBUG_RPC_PROCESS_SIGACTION < cycle )
1076	printk("\n[%s] thread[%x,%x] on core %d : enter to %s process %x / cycle %d\n",
1077	__FUNCTION__, this->process->pid, this->trdid, this->core->lid,
1078	process_action_str( action ), pid, cycle );
1079	#endif
1080
1081	// get client thread pointers
1082	thread_t * client_ptr = hal_remote_lpt( XPTR( client_cxy , &desc->thread ) );
1083	xptr_t client_xp = XPTR( client_cxy , client_ptr );
1084
1085	// get local process descriptor
1086	process_t * process = cluster_get_local_process_from_pid( pid );
1087
1088	// call relevant kernel function if found / does nothing if not found
1089	if( process != NULL )
1090	{
1091	if ( action == DELETE_ALL_THREADS ) process_delete_threads ( process , client_xp );
1092	if ( action == BLOCK_ALL_THREADS ) process_block_threads ( process );
1093	if ( action == UNBLOCK_ALL_THREADS ) process_unblock_threads( process );
1094	}
1095
1096	#if DEBUG_RPC_PROCESS_SIGACTION
1097	cycle = (uint32_t)hal_get_cycles();
1098	if( DEBUG_RPC_PROCESS_SIGACTION < cycle )
1099	printk("\n[%s] thread[%x,%x] on core %d : exit after %s process %x / cycle %d\n",
1100	__FUNCTION__, this->process->pid, this->trdid, this->core->lid,
1101	process_action_str( action ), pid, cycle );
1102	#endif
1103	} // end rpc_process_sigaction_server()
1104
1105	/////////////////////////////////////////////////////////////////////////////////////////
1106	// [10] Marshaling functions attached to RPC_VFS_INODE_CREATE
1107	/////////////////////////////////////////////////////////////////////////////////////////
1108
1109	/////////////////////////////////////////////////////
1110	void rpc_vfs_inode_create_client( cxy_t cxy,
1111	uint32_t fs_type, // in
1112	uint32_t inode_type, // in
1113	uint32_t attr, // in
1114	uint32_t rights, // in
1115	uint32_t uid, // in
1116	uint32_t gid, // in
1117	xptr_t * inode_xp, // out
1118	error_t * error ) // out
1119	{
1120	#if DEBUG_RPC_VFS_INODE_CREATE
1121	thread_t * this = CURRENT_THREAD;
1122	uint32_t cycle = (uint32_t)hal_get_cycles();
1123	if( cycle > DEBUG_RPC_VFS_INODE_CREATE )
1124	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1125	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1126	#endif
1127
1128	uint32_t responses = 1;
1129
1130	// initialise RPC descriptor header
1131	rpc_desc_t rpc;
1132	rpc.index = RPC_VFS_INODE_CREATE;
1133	rpc.blocking = true;
1134	rpc.rsp = &responses;
1135
1136	// set input arguments in RPC descriptor
1137	rpc.args[0] = (uint64_t)fs_type;
1138	rpc.args[1] = (uint64_t)inode_type;
1139	rpc.args[2] = (uint64_t)attr;
1140	rpc.args[3] = (uint64_t)rights;
1141	rpc.args[4] = (uint64_t)uid;
1142	rpc.args[5] = (uint64_t)gid;
1143
1144	// register RPC request in remote RPC fifo
1145	rpc_send( cxy , &rpc );
1146
1147	// get output values from RPC descriptor
1148	*inode_xp = (xptr_t)rpc.args[6];
1149	*error = (error_t)rpc.args[7];
1150
1151	#if DEBUG_RPC_VFS_INODE_CREATE
1152	cycle = (uint32_t)hal_get_cycles();
1153	if( cycle > DEBUG_RPC_VFS_INODE_CREATE )
1154	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1155	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1156	#endif
1157	}
1158
1159	/////////////////////////////////////////////
1160	void rpc_vfs_inode_create_server( xptr_t xp )
1161	{
1162	#if DEBUG_RPC_VFS_INODE_CREATE
1163	thread_t * this = CURRENT_THREAD;
1164	uint32_t cycle = (uint32_t)hal_get_cycles();
1165	if( cycle > DEBUG_RPC_VFS_INODE_CREATE )
1166	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1167	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1168	#endif
1169
1170	uint32_t fs_type;
1171	uint32_t inode_type;
1172	uint32_t attr;
1173	uint32_t rights;
1174	uint32_t uid;
1175	uint32_t gid;
1176	xptr_t inode_xp;
1177	error_t error;
1178
1179	// get client cluster identifier and pointer on RPC descriptor
1180	cxy_t client_cxy = GET_CXY( xp );
1181	rpc_desc_t * desc = GET_PTR( xp );
1182
1183	// get input arguments from client rpc descriptor
1184	fs_type = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1185	inode_type = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
1186	attr = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[2] ) );
1187	rights = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[3] ) );
1188	uid = (uid_t) hal_remote_l64( XPTR( client_cxy , &desc->args[4] ) );
1189	gid = (gid_t) hal_remote_l64( XPTR( client_cxy , &desc->args[5] ) );
1190
1191	// call local kernel function
1192	error = vfs_inode_create( fs_type,
1193	inode_type,
1194	attr,
1195	rights,
1196	uid,
1197	gid,
1198	&inode_xp );
1199
1200	// set output arguments
1201	hal_remote_s64( XPTR( client_cxy , &desc->args[6] ) , (uint64_t)inode_xp );
1202	hal_remote_s64( XPTR( client_cxy , &desc->args[7] ) , (uint64_t)error );
1203
1204	#if DEBUG_RPC_VFS_INODE_CREATE
1205	cycle = (uint32_t)hal_get_cycles();
1206	if( cycle > DEBUG_RPC_VFS_INODE_CREATE )
1207	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1208	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1209	#endif
1210	}
1211
1212	/////////////////////////////////////////////////////////////////////////////////////////
1213	// [11] Marshaling functions attached to RPC_VFS_INODE_DESTROY
1214	/////////////////////////////////////////////////////////////////////////////////////////
1215
1216	/////////////////////////////////////////////////////////////
1217	void rpc_vfs_inode_destroy_client( cxy_t cxy,
1218	struct vfs_inode_s * inode )
1219	{
1220	#if DEBUG_RPC_VFS_INODE_DESTROY
1221	thread_t * this = CURRENT_THREAD;
1222	uint32_t cycle = (uint32_t)hal_get_cycles();
1223	if( cycle > DEBUG_RPC_VFS_INODE_DESTROY )
1224	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1225	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1226	#endif
1227
1228	uint32_t responses = 1;
1229
1230	// initialise RPC descriptor header
1231	rpc_desc_t rpc;
1232	rpc.index = RPC_VFS_INODE_DESTROY;
1233	rpc.blocking = true;
1234	rpc.rsp = &responses;
1235
1236	// set input arguments in RPC descriptor
1237	rpc.args[0] = (uint64_t)(intptr_t)inode;
1238
1239	// register RPC request in remote RPC fifo
1240	rpc_send( cxy , &rpc );
1241
1242	#if DEBUG_RPC_VFS_INODE_DESTROY
1243	cycle = (uint32_t)hal_get_cycles();
1244	if( cycle > DEBUG_RPC_VFS_INODE_DESTROY )
1245	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1246	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1247	#endif
1248	}
1249
1250	//////////////////////////////////////////////
1251	void rpc_vfs_inode_destroy_server( xptr_t xp )
1252	{
1253	#if DEBUG_RPC_VFS_INODE_DESTROY
1254	thread_t * this = CURRENT_THREAD;
1255	uint32_t cycle = (uint32_t)hal_get_cycles();
1256	if( cycle > DEBUG_RPC_VFS_INODE_DESTROY )
1257	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1258	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1259	#endif
1260
1261	vfs_inode_t * inode;
1262
1263	// get client cluster identifier and pointer on RPC descriptor
1264	cxy_t client_cxy = GET_CXY( xp );
1265	rpc_desc_t * desc = GET_PTR( xp );
1266
1267	// get argument "inode" from client RPC descriptor
1268	inode = (vfs_inode_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1269
1270	// call local kernel function
1271	vfs_inode_destroy( inode );
1272
1273	#if DEBUG_RPC_VFS_INODE_DESTROY
1274	cycle = (uint32_t)hal_get_cycles();
1275	if( cycle > DEBUG_RPC_VFS_INODE_DESTROY )
1276	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1277	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1278	#endif
1279	}
1280
1281	/////////////////////////////////////////////////////////////////////////////////////////
1282	// [12] Marshaling functions attached to RPC_VFS_DENTRY_CREATE
1283	/////////////////////////////////////////////////////////////////////////////////////////
1284
1285	//////////////////////////////////////////////////////////////
1286	void rpc_vfs_dentry_create_client( cxy_t cxy,
1287	uint32_t type, // in
1288	char * name, // in
1289	xptr_t * dentry_xp, // out
1290	error_t * error ) // out
1291	{
1292	#if DEBUG_RPC_VFS_DENTRY_CREATE
1293	thread_t * this = CURRENT_THREAD;
1294	uint32_t cycle = (uint32_t)hal_get_cycles();
1295	if( cycle > DEBUG_RPC_VFS_DENTRY_CREATE )
1296	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1297	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1298	#endif
1299
1300	uint32_t responses = 1;
1301
1302	// initialise RPC descriptor header
1303	rpc_desc_t rpc;
1304	rpc.index = RPC_VFS_DENTRY_CREATE;
1305	rpc.blocking = true;
1306	rpc.rsp = &responses;
1307
1308	// set input arguments in RPC descriptor
1309	rpc.args[0] = (uint64_t)type;
1310	rpc.args[1] = (uint64_t)(intptr_t)name;
1311
1312	// register RPC request in remote RPC fifo
1313	rpc_send( cxy , &rpc );
1314
1315	// get output values from RPC descriptor
1316	*dentry_xp = (xptr_t)rpc.args[2];
1317	*error = (error_t)rpc.args[3];
1318
1319	#if DEBUG_RPC_VFS_DENTRY_CREATE
1320	cycle = (uint32_t)hal_get_cycles();
1321	if( cycle > DEBUG_RPC_VFS_DENTRY_CREATE )
1322	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1323	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1324	#endif
1325	}
1326
1327	//////////////////////////////////////////////
1328	void rpc_vfs_dentry_create_server( xptr_t xp )
1329	{
1330	#if DEBUG_RPC_VFS_DENTRY_CREATE
1331	thread_t * this = CURRENT_THREAD;
1332	uint32_t cycle = (uint32_t)hal_get_cycles();
1333	if( cycle > DEBUG_RPC_VFS_DENTRY_CREATE )
1334	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1335	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1336	#endif
1337
1338	uint32_t type;
1339	char * name;
1340	xptr_t dentry_xp;
1341	error_t error;
1342	char name_copy[CONFIG_VFS_MAX_NAME_LENGTH];
1343
1344	// get client cluster identifier and pointer on RPC descriptor
1345	cxy_t client_cxy = GET_CXY( xp );
1346	rpc_desc_t * desc = GET_PTR( xp );
1347
1348	// get arguments "name", "type", and "parent" from client RPC descriptor
1349	type = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1350	name = (char *)(intptr_t) hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
1351
1352	// makes a local copy of name
1353	hal_remote_strcpy( XPTR( local_cxy , name_copy ),
1354	XPTR( client_cxy , name ) );
1355
1356	// call local kernel function
1357	error = vfs_dentry_create( type,
1358	name_copy,
1359	&dentry_xp );
1360	// set output arguments
1361	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)dentry_xp );
1362	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)error );
1363
1364	#if DEBUG_RPC_VFS_DENTRY_CREATE
1365	cycle = (uint32_t)hal_get_cycles();
1366	if( cycle > DEBUG_RPC_VFS_DENTRY_CREATE )
1367	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1368	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1369	#endif
1370	}
1371
1372	/////////////////////////////////////////////////////////////////////////////////////////
1373	// [13] Marshaling functions attached to RPC_VFS_DENTRY_DESTROY
1374	/////////////////////////////////////////////////////////////////////////////////////////
1375
1376	///////////////////////////////////////////////////////
1377	void rpc_vfs_dentry_destroy_client( cxy_t cxy,
1378	vfs_dentry_t * dentry )
1379	{
1380	#if DEBUG_RPC_VFS_DENTRY_DESTROY
1381	thread_t * this = CURRENT_THREAD;
1382	uint32_t cycle = (uint32_t)hal_get_cycles();
1383	if( cycle > DEBUG_RPC_VFS_DENTRY_DESTROY )
1384	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1385	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1386	#endif
1387
1388	uint32_t responses = 1;
1389
1390	// initialise RPC descriptor header
1391	rpc_desc_t rpc;
1392	rpc.index = RPC_VFS_DENTRY_DESTROY;
1393	rpc.blocking = true;
1394	rpc.rsp = &responses;
1395
1396	// set input arguments in RPC descriptor
1397	rpc.args[0] = (uint64_t)(intptr_t)dentry;
1398
1399	// register RPC request in remote RPC fifo
1400	rpc_send( cxy , &rpc );
1401
1402	#if DEBUG_RPC_VFS_DENTRY_DESTROY
1403	cycle = (uint32_t)hal_get_cycles();
1404	if( cycle > DEBUG_RPC_VFS_DENTRY_DESTROY )
1405	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1406	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1407	#endif
1408	}
1409
1410	///////////////////////////////////////////////
1411	void rpc_vfs_dentry_destroy_server( xptr_t xp )
1412	{
1413	#if DEBUG_RPC_VFS_DENTRY_DESTROY
1414	thread_t * this = CURRENT_THREAD;
1415	uint32_t cycle = (uint32_t)hal_get_cycles();
1416	if( cycle > DEBUG_RPC_VFS_DENTRY_DESTROY )
1417	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1418	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1419	#endif
1420
1421	vfs_dentry_t * dentry;
1422
1423	// get client cluster identifier and pointer on RPC descriptor
1424	cxy_t client_cxy = GET_CXY( xp );
1425	rpc_desc_t * desc = GET_PTR( xp );
1426
1427	// get arguments "dentry" from client RPC descriptor
1428	dentry = (vfs_dentry_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1429
1430	// call local kernel function
1431	vfs_dentry_destroy( dentry );
1432
1433	#if DEBUG_RPC_VFS_DENTRY_DESTROY
1434	cycle = (uint32_t)hal_get_cycles();
1435	if( cycle > DEBUG_RPC_VFS_DENTRY_DESTROY )
1436	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1437	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1438	#endif
1439	}
1440
1441
1442	/////////////////////////////////////////////////////////////////////////////////////////
1443	// [14] Marshaling functions attached to RPC_VFS_FILE_CREATE
1444	/////////////////////////////////////////////////////////////////////////////////////////
1445
1446	//////////////////////////////////////////////////////////////
1447	void rpc_vfs_file_create_client( cxy_t cxy,
1448	struct vfs_inode_s * inode, // in
1449	uint32_t file_attr, // in
1450	xptr_t * file_xp, // out
1451	error_t * error ) // out
1452	{
1453	#if DEBUG_RPC_VFS_FILE_CREATE
1454	thread_t * this = CURRENT_THREAD;
1455	uint32_t cycle = (uint32_t)hal_get_cycles();
1456	if( cycle > DEBUG_RPC_VFS_FILE_CREATE )
1457	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1458	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1459	#endif
1460
1461	uint32_t responses = 1;
1462
1463	// initialise RPC descriptor header
1464	rpc_desc_t rpc;
1465	rpc.index = RPC_VFS_FILE_CREATE;
1466	rpc.blocking = true;
1467	rpc.rsp = &responses;
1468
1469	// set input arguments in RPC descriptor
1470	rpc.args[0] = (uint64_t)(intptr_t)inode;
1471	rpc.args[1] = (uint64_t)file_attr;
1472
1473	// register RPC request in remote RPC fifo
1474	rpc_send( cxy , &rpc );
1475
1476	// get output values from RPC descriptor
1477	*file_xp = (xptr_t)rpc.args[2];
1478	*error = (error_t)rpc.args[3];
1479
1480	#if DEBUG_RPC_VFS_FILE_CREATE
1481	cycle = (uint32_t)hal_get_cycles();
1482	if( cycle > DEBUG_RPC_VFS_FILE_CREATE )
1483	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1484	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1485	#endif
1486	}
1487
1488	////////////////////////////////////////////
1489	void rpc_vfs_file_create_server( xptr_t xp )
1490	{
1491	#if DEBUG_RPC_VFS_FILE_CREATE
1492	thread_t * this = CURRENT_THREAD;
1493	uint32_t cycle = (uint32_t)hal_get_cycles();
1494	if( cycle > DEBUG_RPC_VFS_FILE_CREATE )
1495	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1496	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1497	#endif
1498
1499	uint32_t file_attr;
1500	vfs_inode_t * inode;
1501	xptr_t file_xp;
1502	error_t error;
1503
1504	// get client cluster identifier and pointer on RPC descriptor
1505	cxy_t client_cxy = GET_CXY( xp );
1506	rpc_desc_t * desc = GET_PTR( xp );
1507
1508	// get arguments "file_attr" and "inode" from client RPC descriptor
1509	inode = (vfs_inode_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1510	file_attr = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
1511
1512	// call local kernel function
1513	error = vfs_file_create( inode,
1514	file_attr,
1515	&file_xp );
1516
1517	// set output arguments
1518	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)file_xp );
1519	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)error );
1520
1521	#if DEBUG_RPC_VFS_FILE_CREATE
1522	cycle = (uint32_t)hal_get_cycles();
1523	if( cycle > DEBUG_RPC_VFS_FILE_CREATE )
1524	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1525	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1526	#endif
1527	}
1528
1529	/////////////////////////////////////////////////////////////////////////////////////////
1530	// [15] Marshaling functions attached to RPC_VFS_FILE_DESTROY
1531	/////////////////////////////////////////////////////////////////////////////////////////
1532
1533	///////////////////////////////////////////////////
1534	void rpc_vfs_file_destroy_client( cxy_t cxy,
1535	vfs_file_t * file )
1536	{
1537	#if DEBUG_RPC_VFS_FILE_DESTROY
1538	thread_t * this = CURRENT_THREAD;
1539	uint32_t cycle = (uint32_t)hal_get_cycles();
1540	if( cycle > DEBUG_RPC_VFS_FILE_DESTROY )
1541	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1542	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1543	#endif
1544
1545	uint32_t responses = 1;
1546
1547	// initialise RPC descriptor header
1548	rpc_desc_t rpc;
1549	rpc.index = RPC_VFS_FILE_DESTROY;
1550	rpc.blocking = true;
1551	rpc.rsp = &responses;
1552
1553	// set input arguments in RPC descriptor
1554	rpc.args[0] = (uint64_t)(intptr_t)file;
1555
1556	// register RPC request in remote RPC fifo
1557	rpc_send( cxy , &rpc );
1558
1559	#if DEBUG_RPC_VFS_FILE_DESTROY
1560	cycle = (uint32_t)hal_get_cycles();
1561	if( cycle > DEBUG_RPC_VFS_FILE_DESTROY )
1562	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1563	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1564	#endif
1565	}
1566
1567	/////////////////////////////////////////////
1568	void rpc_vfs_file_destroy_server( xptr_t xp )
1569	{
1570	#if DEBUG_RPC_VFS_FILE_DESTROY
1571	thread_t * this = CURRENT_THREAD;
1572	uint32_t cycle = (uint32_t)hal_get_cycles();
1573	if( cycle > DEBUG_RPC_VFS_FILE_DESTROY )
1574	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1575	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1576	#endif
1577
1578	vfs_file_t * file;
1579
1580	// get client cluster identifier and pointer on RPC descriptor
1581	cxy_t client_cxy = GET_CXY( xp );
1582	rpc_desc_t * desc = GET_PTR( xp );
1583
1584	// get arguments "dentry" from client RPC descriptor
1585	file = (vfs_file_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1586
1587	// call local kernel function
1588	vfs_file_destroy( file );
1589
1590	#if DEBUG_RPC_VFS_FILE_DESTROY
1591	cycle = (uint32_t)hal_get_cycles();
1592	if( cycle > DEBUG_RPC_VFS_FILE_DESTROY )
1593	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1594	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
1595	#endif
1596	}
1597
1598	/////////////////////////////////////////////////////////////////////////////////////////
1599	// [16] Marshaling functions attached to RPC_VFS_FS_GET_DENTRY
1600	/////////////////////////////////////////////////////////////////////////////////////////
1601
1602	/////////////////////////////////////////////////////////
1603	void rpc_vfs_fs_get_dentry_client( cxy_t cxy,
1604	vfs_inode_t * parent_inode, // in
1605	char * name, // in
1606	xptr_t child_inode_xp, // in
1607	error_t * error ) // out
1608	{
1609	#if DEBUG_RPC_VFS_FS_GET_DENTRY
1610	thread_t * this = CURRENT_THREAD;
1611	uint32_t cycle = (uint32_t)hal_get_cycles();
1612	if( cycle > DEBUG_RPC_VFS_FS_GET_DENTRY )
1613	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1614	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1615	#endif
1616
1617	uint32_t responses = 1;
1618
1619	// initialise RPC descriptor header
1620	rpc_desc_t rpc;
1621	rpc.index = RPC_VFS_FS_GET_DENTRY;
1622	rpc.blocking = true;
1623	rpc.rsp = &responses;
1624
1625	// set input arguments in RPC descriptor
1626	rpc.args[0] = (uint64_t)(intptr_t)parent_inode;
1627	rpc.args[1] = (uint64_t)(intptr_t)name;
1628	rpc.args[2] = (uint64_t)child_inode_xp;
1629
1630	// register RPC request in remote RPC fifo
1631	rpc_send( cxy , &rpc );
1632
1633	// get output values from RPC descriptor
1634	*error = (error_t)rpc.args[3];
1635
1636	#if DEBUG_RPC_VFS_FS_GET_DENTRY
1637	cycle = (uint32_t)hal_get_cycles();
1638	if( cycle > DEBUG_RPC_VFS_FS_GET_DENTRY )
1639	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1640	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1641	#endif
1642	}
1643
1644	//////////////////////////////////////////////
1645	void rpc_vfs_fs_get_dentry_server( xptr_t xp )
1646	{
1647	#if DEBUG_RPC_VFS_FS_GET_DENTRY
1648	thread_t * this = CURRENT_THREAD;
1649	uint32_t cycle = (uint32_t)hal_get_cycles();
1650	if( cycle > DEBUG_RPC_VFS_FS_GET_DENTRY )
1651	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1652	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1653	#endif
1654
1655	error_t error;
1656	vfs_inode_t * parent;
1657	xptr_t child_xp;
1658	char * name;
1659
1660	char name_copy[CONFIG_VFS_MAX_NAME_LENGTH];
1661
1662	// get client cluster identifier and pointer on RPC descriptor
1663	cxy_t client_cxy = GET_CXY( xp );
1664	rpc_desc_t * desc = GET_PTR( xp );
1665
1666	// get arguments "parent", "name", and "child_xp"
1667	parent = (vfs_inode_t*)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
1668	name = (char*)(intptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
1669	child_xp = (xptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[2]));
1670
1671	// get name local copy
1672	hal_remote_strcpy( XPTR( local_cxy , name_copy ) ,
1673	XPTR( client_cxy , name ) );
1674
1675	// call the kernel function
1676	error = vfs_fs_get_dentry( parent , name_copy , child_xp );
1677
1678	// set output argument
1679	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)error );
1680
1681	#if DEBUG_RPC_VFS_FS_GET_DENTRY
1682	cycle = (uint32_t)hal_get_cycles();
1683	if( cycle > DEBUG_RPC_VFS_FS_GET_DENTRY )
1684	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1685	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1686	#endif
1687	}
1688
1689	/////////////////////////////////////////////////////////////////////////////////////////
1690	// [17] Marshaling function attached to RPC_VFS_FS_ADD_DENTRY
1691	/////////////////////////////////////////////////////////////////////////////////////////
1692
1693	void rpc_vfs_fs_add_dentry_client( cxy_t cxy,
1694	vfs_inode_t * parent, // in
1695	vfs_dentry_t * dentry, // in
1696	error_t * error ) // out
1697	{
1698	#if DEBUG_RPC_VFS_FS_ADD_DENTRY
1699	thread_t * this = CURRENT_THREAD;
1700	uint32_t cycle = (uint32_t)hal_get_cycles();
1701	if( cycle > DEBUG_RPC_VFS_FS_ADD_DENTRY )
1702	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1703	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1704	#endif
1705
1706	uint32_t responses = 1;
1707
1708	// initialise RPC descriptor header
1709	rpc_desc_t rpc;
1710	rpc.index = RPC_VFS_FS_ADD_DENTRY;
1711	rpc.blocking = true;
1712	rpc.rsp = &responses;
1713
1714	// set input arguments in RPC descriptor
1715	rpc.args[0] = (uint64_t)(intptr_t)parent;
1716	rpc.args[1] = (uint64_t)(intptr_t)dentry;
1717
1718	// register RPC request in remote RPC fifo
1719	rpc_send( cxy , &rpc );
1720
1721	// get output values from RPC descriptor
1722	*error = (error_t)rpc.args[2];
1723
1724	#if DEBUG_RPC_VFS_FS_ADD_DENTRY
1725	cycle = (uint32_t)hal_get_cycles();
1726	if( cycle > DEBUG_RPC_VFS_FS_ADD_DENTRY )
1727	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1728	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1729	#endif
1730	}
1731
1732	//////////////////////////////////////////////
1733	void rpc_vfs_fs_add_dentry_server( xptr_t xp )
1734	{
1735	#if DEBUG_RPC_VFS_FS_ADD_DENTRY
1736	thread_t * this = CURRENT_THREAD;
1737	uint32_t cycle = (uint32_t)hal_get_cycles();
1738	if( cycle > DEBUG_RPC_VFS_FS_ADD_DENTRY )
1739	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1740	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1741	#endif
1742
1743	error_t error;
1744	vfs_inode_t * parent;
1745	vfs_dentry_t * dentry;
1746
1747	// get client cluster identifier and pointer on RPC descriptor
1748	cxy_t client_cxy = GET_CXY( xp );
1749	rpc_desc_t * desc = GET_PTR( xp );
1750
1751	// get input arguments
1752	parent = (vfs_inode_t*)(intptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
1753	dentry = (vfs_dentry_t*)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
1754
1755	// call the kernel function
1756	error = vfs_fs_add_dentry( parent , dentry );
1757
1758	// set output argument
1759	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)error );
1760
1761	#if DEBUG_RPC_VFS_FS_ADD_DENTRY
1762	cycle = (uint32_t)hal_get_cycles();
1763	if( cycle > DEBUG_RPC_VFS_FS_ADD_DENTRY )
1764	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1765	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1766	#endif
1767	}
1768
1769	/////////////////////////////////////////////////////////////////////////////////////////
1770	// [18] Marshaling function attached to RPC_VFS_FS_REMOVE_DENTRY
1771	/////////////////////////////////////////////////////////////////////////////////////////
1772
1773	void rpc_vfs_fs_remove_dentry_client( cxy_t cxy,
1774	vfs_inode_t * parent, // in
1775	vfs_dentry_t * dentry, // in
1776	error_t * error ) // out
1777	{
1778	#if DEBUG_RPC_VFS_FS_REMOVE_DENTRY
1779	thread_t * this = CURRENT_THREAD;
1780	uint32_t cycle = (uint32_t)hal_get_cycles();
1781	if( cycle > DEBUG_RPC_VFS_FS_REMOVE_DENTRY )
1782	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1783	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1784	#endif
1785
1786	uint32_t responses = 1;
1787
1788	// initialise RPC descriptor header
1789	rpc_desc_t rpc;
1790	rpc.index = RPC_VFS_FS_REMOVE_DENTRY;
1791	rpc.blocking = true;
1792	rpc.rsp = &responses;
1793
1794	// set input arguments in RPC descriptor
1795	rpc.args[0] = (uint64_t)(intptr_t)parent;
1796	rpc.args[1] = (uint64_t)(intptr_t)dentry;
1797
1798	// register RPC request in remote RPC fifo
1799	rpc_send( cxy , &rpc );
1800
1801	// get output values from RPC descriptor
1802	*error = (error_t)rpc.args[2];
1803
1804	#if DEBUG_RPC_VFS_FS_REMOVE_DENTRY
1805	cycle = (uint32_t)hal_get_cycles();
1806	if( cycle > DEBUG_RPC_VFS_FS_REMOVE_DENTRY )
1807	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1808	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1809	#endif
1810	}
1811
1812	/////////////////////////////////////////////////
1813	void rpc_vfs_fs_remove_dentry_server( xptr_t xp )
1814	{
1815	#if DEBUG_RPC_VFS_FS_REMOVE_DENTRY
1816	thread_t * this = CURRENT_THREAD;
1817	uint32_t cycle = (uint32_t)hal_get_cycles();
1818	if( cycle > DEBUG_RPC_VFS_FS_REMOVE_DENTRY )
1819	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1820	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1821	#endif
1822
1823	error_t error;
1824	vfs_inode_t * parent;
1825	vfs_dentry_t * dentry;
1826
1827	// get client cluster identifier and pointer on RPC descriptor
1828	cxy_t client_cxy = GET_CXY( xp );
1829	rpc_desc_t * desc = GET_PTR( xp );
1830
1831	// get input arguments
1832	parent = (vfs_inode_t*)(intptr_t) hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
1833	dentry = (vfs_dentry_t*)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[1]));
1834
1835	// call the kernel function
1836	error = vfs_fs_remove_dentry( parent , dentry );
1837
1838	// set output argument
1839	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)error );
1840
1841	#if DEBUG_RPC_VFS_FS_REMOVE_DENTRY
1842	cycle = (uint32_t)hal_get_cycles();
1843	if( cycle > DEBUG_RPC_VFS_FS_REMOVE_DENTRY )
1844	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1845	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1846	#endif
1847	}
1848
1849	/////////////////////////////////////////////////////////////////////////////////////////
1850	// [19] Marshaling functions attached to RPC_VFS_INODE_LOAD_ALL_PAGES
1851	/////////////////////////////////////////////////////////////////////////////////////////
1852
1853	////////////////////////////////////////////////////////////
1854	void rpc_vfs_inode_load_all_pages_client( cxy_t cxy,
1855	vfs_inode_t * inode, // in
1856	error_t * error ) // out
1857	{
1858	#if DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES
1859	thread_t * this = CURRENT_THREAD;
1860	uint32_t cycle = (uint32_t)hal_get_cycles();
1861	if( cycle > DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES )
1862	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1863	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1864	#endif
1865
1866	uint32_t responses = 1;
1867
1868	// initialise RPC descriptor header
1869	rpc_desc_t rpc;
1870	rpc.index = RPC_VFS_INODE_LOAD_ALL_PAGES;
1871	rpc.blocking = true;
1872	rpc.rsp = &responses;
1873
1874	// set input arguments in RPC descriptor
1875	rpc.args[0] = (uint64_t)(intptr_t)inode;
1876
1877	// register RPC request in remote RPC fifo
1878	rpc_send( cxy , &rpc );
1879
1880	// get output values from RPC descriptor
1881	*error = (error_t)rpc.args[1];
1882
1883	#if DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES
1884	cycle = (uint32_t)hal_get_cycles();
1885	if( cycle > DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES )
1886	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1887	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1888	#endif
1889	}
1890
1891	/////////////////////////////////////////////////////
1892	void rpc_vfs_inode_load_all_pages_server( xptr_t xp )
1893	{
1894	#if DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES
1895	thread_t * this = CURRENT_THREAD;
1896	uint32_t cycle = (uint32_t)hal_get_cycles();
1897	if( cycle > DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES )
1898	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1899	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1900	#endif
1901
1902	error_t error;
1903	vfs_inode_t * inode;
1904
1905	// get client cluster identifier and pointer on RPC descriptor
1906	cxy_t client_cxy = GET_CXY( xp );
1907	rpc_desc_t * desc = GET_PTR( xp );
1908
1909	// get input argument
1910	inode = (vfs_inode_t*)(intptr_t)hal_remote_l64(XPTR(client_cxy , &desc->args[0]));
1911
1912	// call the kernel function
1913	error = vfs_inode_load_all_pages( inode );
1914
1915	// set output argument
1916	hal_remote_s64( XPTR( client_cxy , &desc->args[1] ) , (uint64_t)error );
1917
1918	#if DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES
1919	cycle = (uint32_t)hal_get_cycles();
1920	if( cycle > DEBUG_RPC_VFS_INODE_LOAD_ALL_PAGES )
1921	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1922	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1923	#endif
1924	}
1925
1926	/////////////////////////////////////////////////////////////////////////////////////////
1927	// [20] Marshaling functions attached to RPC_VMM_GET_VSEG
1928	/////////////////////////////////////////////////////////////////////////////////////////
1929
1930	//////////////////////////////////////////////////
1931	void rpc_vmm_get_vseg_client( cxy_t cxy,
1932	process_t * process, // in
1933	intptr_t vaddr, // in
1934	xptr_t * vseg_xp, // out
1935	error_t * error ) // out
1936	{
1937	#if DEBUG_RPC_VMM_GET_VSEG
1938	thread_t * this = CURRENT_THREAD;
1939	uint32_t cycle = (uint32_t)hal_get_cycles();
1940	if( cycle > DEBUG_RPC_VMM_GET_VSEG )
1941	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1942	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1943	#endif
1944
1945	uint32_t responses = 1;
1946
1947	// initialise RPC descriptor header
1948	rpc_desc_t rpc;
1949	rpc.index = RPC_VMM_GET_VSEG;
1950	rpc.blocking = true;
1951	rpc.rsp = &responses;
1952
1953	// set input arguments in RPC descriptor
1954	rpc.args[0] = (uint64_t)(intptr_t)process;
1955	rpc.args[1] = (uint64_t)vaddr;
1956
1957	// register RPC request in remote RPC fifo
1958	rpc_send( cxy , &rpc );
1959
1960	// get output argument from rpc descriptor
1961	*vseg_xp = rpc.args[2];
1962	*error = (error_t)rpc.args[3];
1963
1964	#if DEBUG_RPC_VMM_GET_VSEG
1965	cycle = (uint32_t)hal_get_cycles();
1966	if( cycle > DEBUG_RPC_VMM_GET_VSEG )
1967	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
1968	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1969	#endif
1970	}
1971
1972	/////////////////////////////////////////
1973	void rpc_vmm_get_vseg_server( xptr_t xp )
1974	{
1975	#if DEBUG_RPC_VMM_GET_VSEG
1976	thread_t * this = CURRENT_THREAD;
1977	uint32_t cycle = (uint32_t)hal_get_cycles();
1978	if( cycle > DEBUG_RPC_VMM_GET_VSEG )
1979	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
1980	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
1981	#endif
1982
1983	process_t * process;
1984	intptr_t vaddr;
1985	vseg_t * vseg_ptr;
1986	xptr_t vseg_xp;
1987	error_t error;
1988
1989	// get client cluster identifier and pointer on RPC descriptor
1990	cxy_t client_cxy = GET_CXY( xp );
1991	rpc_desc_t * desc = GET_PTR( xp );
1992
1993	// get input argument from client RPC descriptor
1994	process = (process_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
1995	vaddr = (intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
1996
1997	// call local kernel function
1998	error = vmm_get_vseg( process , vaddr , &vseg_ptr );
1999
2000	// set output arguments to client RPC descriptor
2001	vseg_xp = XPTR( local_cxy , vseg_ptr );
2002	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)vseg_xp );
2003	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)error );
2004
2005	#if DEBUG_RPC_VMM_GET_VSEG
2006	cycle = (uint32_t)hal_get_cycles();
2007	if( cycle > DEBUG_RPC_VMM_GET_VSEG )
2008	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2009	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2010	#endif
2011	}
2012
2013
2014	/////////////////////////////////////////////////////////////////////////////////////////
2015	// [21] Marshaling functions attached to RPC_VMM_GLOBAL_UPDATE_PTE
2016	/////////////////////////////////////////////////////////////////////////////////////////
2017
2018	///////////////////////////////////////////////////////
2019	void rpc_vmm_global_update_pte_client( cxy_t cxy,
2020	process_t * process, // in
2021	vpn_t vpn, // in
2022	uint32_t attr, // in
2023	ppn_t ppn ) // in
2024	{
2025	#if DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE
2026	thread_t * this = CURRENT_THREAD;
2027	uint32_t cycle = (uint32_t)hal_get_cycles();
2028	if( cycle > DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE )
2029	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2030	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2031	#endif
2032
2033	uint32_t responses = 1;
2034
2035	// initialise RPC descriptor header
2036	rpc_desc_t rpc;
2037	rpc.index = RPC_VMM_GLOBAL_UPDATE_PTE;
2038	rpc.blocking = true;
2039	rpc.rsp = &responses;
2040
2041	// set input arguments in RPC descriptor
2042	rpc.args[0] = (uint64_t)(intptr_t)process;
2043	rpc.args[1] = (uint64_t)vpn;
2044	rpc.args[2] = (uint64_t)attr;
2045	rpc.args[3] = (uint64_t)ppn;
2046
2047	// register RPC request in remote RPC fifo
2048	rpc_send( cxy , &rpc );
2049
2050	#if DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE
2051	cycle = (uint32_t)hal_get_cycles();
2052	if( cycle > DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE )
2053	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2054	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2055	#endif
2056	}
2057
2058	//////////////////////////////////////////////////
2059	void rpc_vmm_global_update_pte_server( xptr_t xp )
2060	{
2061	#if DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE
2062	thread_t * this = CURRENT_THREAD;
2063	uint32_t cycle = (uint32_t)hal_get_cycles();
2064	if( cycle > DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE )
2065	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2066	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2067	#endif
2068
2069	process_t * process;
2070	vpn_t vpn;
2071	uint32_t attr;
2072	ppn_t ppn;
2073
2074	// get client cluster identifier and pointer on RPC descriptor
2075	cxy_t client_cxy = GET_CXY( xp );
2076	rpc_desc_t * desc = GET_PTR( xp );
2077
2078	// get input argument "process" & "vpn" from client RPC descriptor
2079	process = (process_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
2080	vpn = (vpn_t) hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
2081	attr = (uint32_t) hal_remote_l64( XPTR( client_cxy , &desc->args[2] ) );
2082	ppn = (ppn_t) hal_remote_l64( XPTR( client_cxy , &desc->args[3] ) );
2083
2084	// call local kernel function
2085	vmm_global_update_pte( process , vpn , attr , ppn );
2086
2087	#if DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE
2088	cycle = (uint32_t)hal_get_cycles();
2089	if( cycle > DEBUG_RPC_VMM_GLOBAL_UPDATE_PTE )
2090	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2091	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2092	#endif
2093	}
2094
2095	/////////////////////////////////////////////////////////////////////////////////////////
2096	// [22] Marshaling functions attached to RPC_KCM_ALLOC
2097	/////////////////////////////////////////////////////////////////////////////////////////
2098
2099	//////////////////////////////////////////
2100	void rpc_kcm_alloc_client( cxy_t cxy,
2101	uint32_t kmem_type, // in
2102	xptr_t * buf_xp ) // out
2103	{
2104	#if DEBUG_RPC_KCM_ALLOC
2105	thread_t * this = CURRENT_THREAD;
2106	uint32_t cycle = (uint32_t)hal_get_cycles();
2107	if( cycle > DEBUG_RPC_KCM_ALLOC )
2108	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2109	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2110	#endif
2111
2112	uint32_t responses = 1;
2113
2114	// initialise RPC descriptor header
2115	rpc_desc_t rpc;
2116	rpc.index = RPC_KCM_ALLOC;
2117	rpc.blocking = true;
2118	rpc.rsp = &responses;
2119
2120	// set input arguments in RPC descriptor
2121	rpc.args[0] = (uint64_t)kmem_type;
2122
2123	// register RPC request in remote RPC fifo
2124	rpc_send( cxy , &rpc );
2125
2126	// get output arguments from RPC descriptor
2127	*buf_xp = (xptr_t)rpc.args[1];
2128
2129	#if DEBUG_RPC_KCM_ALLOC
2130	cycle = (uint32_t)hal_get_cycles();
2131	if( cycle > DEBUG_RPC_KCM_ALLOC )
2132	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2133	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2134	#endif
2135	}
2136
2137	//////////////////////////////////////
2138	void rpc_kcm_alloc_server( xptr_t xp )
2139	{
2140	#if DEBUG_RPC_KCM_ALLOC
2141	thread_t * this = CURRENT_THREAD;
2142	uint32_t cycle = (uint32_t)hal_get_cycles();
2143	if( cycle > DEBUG_RPC_KCM_ALLOC )
2144	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2145	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2146	#endif
2147
2148	// get client cluster identifier and pointer on RPC descriptor
2149	cxy_t client_cxy = GET_CXY( xp );
2150	rpc_desc_t * desc = GET_PTR( xp );
2151
2152	// get input argument "kmem_type" from client RPC descriptor
2153	uint32_t kmem_type = (uint32_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
2154
2155	// allocates memory for kcm
2156	kmem_req_t req;
2157	req.type = kmem_type;
2158	req.flags = AF_ZERO;
2159	void * buf_ptr = kmem_alloc( &req );
2160
2161	// set output argument
2162	xptr_t buf_xp = XPTR( local_cxy , buf_ptr );
2163	hal_remote_s64( XPTR( client_cxy , &desc->args[1] ) , (uint64_t)buf_xp );
2164
2165	#if DEBUG_RPC_KCM_ALLOC
2166	cycle = (uint32_t)hal_get_cycles();
2167	if( cycle > DEBUG_RPC_KCM_ALLOC )
2168	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2169	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2170	#endif
2171	}
2172
2173	/////////////////////////////////////////////////////////////////////////////////////////
2174	// [23] Marshaling functions attached to RPC_KCM_FREE
2175	/////////////////////////////////////////////////////////////////////////////////////////
2176
2177	/////////////////////////////////////////
2178	void rpc_kcm_free_client( cxy_t cxy,
2179	void * buf, // in
2180	uint32_t kmem_type ) // in
2181	{
2182	#if DEBUG_RPC_KCM_FREE
2183	thread_t * this = CURRENT_THREAD;
2184	uint32_t cycle = (uint32_t)hal_get_cycles();
2185	if( cycle > DEBUG_RPC_KCM_FREE )
2186	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2187	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2188	#endif
2189
2190	uint32_t responses = 1;
2191
2192	// initialise RPC descriptor header
2193	rpc_desc_t rpc;
2194	rpc.index = RPC_KCM_FREE;
2195	rpc.blocking = true;
2196	rpc.rsp = &responses;
2197
2198	// set input arguments in RPC descriptor
2199	rpc.args[0] = (uint64_t)(intptr_t)buf;
2200	rpc.args[1] = (uint64_t)kmem_type;
2201
2202	// register RPC request in remote RPC fifo
2203	rpc_send( cxy , &rpc );
2204
2205	#if DEBUG_RPC_KCM_FREE
2206	cycle = (uint32_t)hal_get_cycles();
2207	if( cycle > DEBUG_RPC_KCM_FREE )
2208	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2209	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2210	#endif
2211	}
2212
2213	/////////////////////////////////////
2214	void rpc_kcm_free_server( xptr_t xp )
2215	{
2216	#if DEBUG_RPC_KCM_FREE
2217	thread_t * this = CURRENT_THREAD;
2218	uint32_t cycle = (uint32_t)hal_get_cycles();
2219	if( cycle > DEBUG_RPC_KCM_FREE )
2220	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2221	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2222	#endif
2223
2224	// get client cluster identifier and pointer on RPC descriptor
2225	cxy_t client_cxy = GET_CXY( xp );
2226	rpc_desc_t * desc = GET_PTR( xp );
2227
2228	// get input arguments "buf" and "kmem_type" from client RPC descriptor
2229	void * buf = (void *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
2230	uint32_t kmem_type = (uint32_t)hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
2231
2232	// releases memory
2233	kmem_req_t req;
2234	req.type = kmem_type;
2235	req.ptr = buf;
2236	kmem_free( &req );
2237
2238	#if DEBUG_RPC_KCM_FREE
2239	cycle = (uint32_t)hal_get_cycles();
2240	if( cycle > DEBUG_RPC_KCM_FREE )
2241	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2242	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2243	#endif
2244	}
2245
2246	/////////////////////////////////////////////////////////////////////////////////////////
2247	// [24] undefined slot
2248	/////////////////////////////////////////////////////////////////////////////////////////
2249
2250	/////////////////////////////////////////////////////////////////////////////////////////
2251	// [25] Marshaling functions attached to RPC_MAPPER_HANDLE_MISS
2252	/////////////////////////////////////////////////////////////////////////////////////////
2253
2254	//////////////////////////////////////////////////////////
2255	void rpc_mapper_handle_miss_client( cxy_t cxy,
2256	struct mapper_s * mapper,
2257	uint32_t page_id,
2258	xptr_t * page_xp,
2259	error_t * error )
2260	{
2261	#if DEBUG_RPC_MAPPER_HANDLE_MISS
2262	thread_t * this = CURRENT_THREAD;
2263	uint32_t cycle = (uint32_t)hal_get_cycles();
2264	if( cycle > DEBUG_RPC_MAPPER_HANDLE_MISS )
2265	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2266	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2267	#endif
2268
2269	uint32_t responses = 1;
2270
2271	// initialise RPC descriptor header
2272	rpc_desc_t rpc;
2273	rpc.index = RPC_MAPPER_HANDLE_MISS;
2274	rpc.blocking = true;
2275	rpc.rsp = &responses;
2276
2277	// set input arguments in RPC descriptor
2278	rpc.args[0] = (uint64_t)(intptr_t)mapper;
2279	rpc.args[1] = (uint64_t)page_id;
2280
2281	// register RPC request in remote RPC fifo
2282	rpc_send( cxy , &rpc );
2283
2284	// get output values from RPC descriptor
2285	*page_xp = (xptr_t)rpc.args[2];
2286	*error = (error_t)rpc.args[3];
2287
2288	#if DEBUG_RPC_MAPPER_HANDLE_MISS
2289	cycle = (uint32_t)hal_get_cycles();
2290	if( cycle > DEBUG_RPC_MAPPER_HANDLE_MISS )
2291	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2292	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2293	#endif
2294	}
2295
2296	///////////////////////////////////////////////
2297	void rpc_mapper_handle_miss_server( xptr_t xp )
2298	{
2299	#if DEBUG_RPC_MAPPER_HANDLE_MISS
2300	thread_t * this = CURRENT_THREAD;
2301	uint32_t cycle = (uint32_t)hal_get_cycles();
2302	if( cycle > DEBUG_RPC_MAPPER_HANDLE_MISS )
2303	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2304	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2305	#endif
2306
2307	mapper_t * mapper;
2308	uint32_t page_id;
2309	xptr_t page_xp;
2310	error_t error;
2311
2312	// get client cluster identifier and pointer on RPC descriptor
2313	cxy_t client_cxy = GET_CXY( xp );
2314	rpc_desc_t * desc = GET_PTR( xp );
2315
2316	// get arguments from client RPC descriptor
2317	mapper = (mapper_t *)(intptr_t)hal_remote_l64( XPTR( client_cxy , &desc->args[0] ) );
2318	page_id = hal_remote_l64( XPTR( client_cxy , &desc->args[1] ) );
2319
2320	// call local kernel function
2321	error = mapper_handle_miss( mapper,
2322	page_id,
2323	&page_xp );
2324
2325	// set output argument to client RPC descriptor
2326	hal_remote_s64( XPTR( client_cxy , &desc->args[2] ) , (uint64_t)page_xp );
2327	hal_remote_s64( XPTR( client_cxy , &desc->args[3] ) , (uint64_t)error );
2328
2329	#if DEBUG_RPC_MAPPER_HANDLE_MISS
2330	cycle = (uint32_t)hal_get_cycles();
2331	if( cycle > DEBUG_RPC_MAPPER_HANDLE_MISS )
2332	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2333	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2334	#endif
2335	}
2336
2337	/////////////////////////////////////////////////////////////////////////////////////////
2338	// [26] Marshaling functions attached to RPC_VMM_DELETE_VSEG
2339	/////////////////////////////////////////////////////////////////////////////////////////
2340
2341	//////////////////////////////////////////////////
2342	void rpc_vmm_delete_vseg_client( cxy_t cxy,
2343	pid_t pid,
2344	intptr_t vaddr )
2345	{
2346	#if DEBUG_RPC_VMM_DELETE_VSEG
2347	thread_t * this = CURRENT_THREAD;
2348	uint32_t cycle = (uint32_t)hal_get_cycles();
2349	if( cycle > DEBUG_RPC_VMM_DELETE_VSEG )
2350	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2351	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
2352	#endif
2353
2354	uint32_t responses = 1;
2355	rpc_desc_t rpc;
2356
2357	// initialise RPC descriptor header
2358	rpc.index = RPC_VMM_DELETE_VSEG;
2359	rpc.blocking = true;
2360	rpc.rsp = &responses;
2361
2362	// set input arguments in RPC descriptor
2363	rpc.args[0] = (uint64_t)pid;
2364	rpc.args[1] = (uint64_t)vaddr;
2365
2366	// register RPC request in remote RPC fifo
2367	rpc_send( cxy , &rpc );
2368
2369	#if DEBUG_RPC_VMM_DELETE_VSEG
2370	cycle = (uint32_t)hal_get_cycles();
2371	if( cycle > DEBUG_RPC_VMM_DELETE_VSEG )
2372	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2373	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
2374	#endif
2375	}
2376
2377	////////////////////////////////////////////
2378	void rpc_vmm_delete_vseg_server( xptr_t xp )
2379	{
2380	#if DEBUG_RPC_VMM_DELETE_VSEG
2381	uint32_t cycle = (uint32_t)hal_get_cycles();
2382	thread_t * this = CURRENT_THREAD;
2383	if( DEBUG_RPC_VMM_DELETE_VSEG < cycle )
2384	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2385	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
2386	#endif
2387
2388	// get client cluster identifier and pointer on RPC descriptor
2389	cxy_t client_cxy = GET_CXY( xp );
2390	rpc_desc_t * desc = GET_PTR( xp );
2391
2392	// get arguments from RPC descriptor
2393	pid_t pid = (pid_t) hal_remote_l64( XPTR(client_cxy , &desc->args[0]) );
2394	intptr_t vaddr = (intptr_t)hal_remote_l64( XPTR(client_cxy , &desc->args[1]) );
2395
2396	// call relevant kernel function
2397	vmm_delete_vseg( pid , vaddr );
2398
2399	#if DEBUG_RPC_VMM_DELETE_VSEG
2400	cycle = (uint32_t)hal_get_cycles();
2401	if( DEBUG_RPC_VMM_DELETE_VSEG < cycle )
2402	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2403	__FUNCTION__, this->process->pid, this->trdid, this->core->lid, cycle );
2404	#endif
2405	}
2406
2407	/////////////////////////////////////////////////////////////////////////////////////////
2408	// [27] Marshaling functions attached to RPC_VMM_CREATE_VSEG
2409	/////////////////////////////////////////////////////////////////////////////////////////
2410
2411	////////////////////////////////////////////////////////
2412	void rpc_vmm_create_vseg_client( cxy_t cxy,
2413	struct process_s * process,
2414	vseg_type_t type,
2415	intptr_t base,
2416	uint32_t size,
2417	uint32_t file_offset,
2418	uint32_t file_size,
2419	xptr_t mapper_xp,
2420	cxy_t vseg_cxy,
2421	struct vseg_s ** vseg )
2422	{
2423	#if DEBUG_RPC_VMM_CREATE_VSEG
2424	thread_t * this = CURRENT_THREAD;
2425	uint32_t cycle = (uint32_t)hal_get_cycles();
2426	if( cycle > DEBUG_RPC_VMM_CREATE_VSEG )
2427	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2428	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2429	#endif
2430
2431	uint32_t responses = 1;
2432
2433	// initialise RPC descriptor header
2434	rpc_desc_t rpc;
2435	rpc.index = RPC_VMM_CREATE_VSEG;
2436	rpc.blocking = true;
2437	rpc.rsp = &responses;
2438
2439	// set input arguments in RPC descriptor
2440	rpc.args[0] = (uint64_t)(intptr_t)process;
2441	rpc.args[1] = (uint64_t)type;
2442	rpc.args[2] = (uint64_t)base;
2443	rpc.args[3] = (uint64_t)size;
2444	rpc.args[4] = (uint64_t)file_offset;
2445	rpc.args[5] = (uint64_t)file_size;
2446	rpc.args[6] = (uint64_t)mapper_xp;
2447	rpc.args[7] = (uint64_t)vseg_cxy;
2448
2449	// register RPC request in remote RPC fifo
2450	rpc_send( cxy , &rpc );
2451
2452	// get output values from RPC descriptor
2453	vseg = (vseg_t )(intptr_t)rpc.args[8];
2454
2455	#if DEBUG_RPC_VMM_CREATE_VSEG
2456	cycle = (uint32_t)hal_get_cycles();
2457	if( cycle > DEBUG_RPC_VMM_CREATE_VSEG )
2458	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2459	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2460	#endif
2461	}
2462
2463	////////////////////////////////////////////
2464	void rpc_vmm_create_vseg_server( xptr_t xp )
2465	{
2466	#if DEBUG_RPC_VMM_CREATE_VSEG
2467	thread_t * this = CURRENT_THREAD;
2468	uint32_t cycle = (uint32_t)hal_get_cycles();
2469	if( cycle > DEBUG_RPC_VMM_CREATE_VSEG )
2470	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2471	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2472	#endif
2473
2474	// get client cluster identifier and pointer on RPC descriptor
2475	cxy_t cxy = GET_CXY( xp );
2476	rpc_desc_t * desc = GET_PTR( xp );
2477
2478	// get input arguments from client RPC descriptor
2479	process_t * process = (process_t *)(intptr_t)hal_remote_l64( XPTR(cxy , &desc->args[0]));
2480	vseg_type_t type = (vseg_type_t)(uint32_t)hal_remote_l64( XPTR(cxy , &desc->args[1]));
2481	intptr_t base = (intptr_t) hal_remote_l64( XPTR(cxy , &desc->args[2]));
2482	uint32_t size = (uint32_t) hal_remote_l64( XPTR(cxy , &desc->args[3]));
2483	uint32_t file_offset = (uint32_t) hal_remote_l64( XPTR(cxy , &desc->args[4]));
2484	uint32_t file_size = (uint32_t) hal_remote_l64( XPTR(cxy , &desc->args[5]));
2485	xptr_t mapper_xp = (xptr_t) hal_remote_l64( XPTR(cxy , &desc->args[6]));
2486	cxy_t vseg_cxy = (cxy_t)(uint32_t) hal_remote_l64( XPTR(cxy , &desc->args[7]));
2487
2488	// call local kernel function
2489	vseg_t * vseg = vmm_create_vseg( process,
2490	type,
2491	base,
2492	size,
2493	file_offset,
2494	file_size,
2495	mapper_xp,
2496	vseg_cxy );
2497
2498	// set output arguments into client RPC descriptor
2499	hal_remote_s64( XPTR( cxy , &desc->args[8] ) , (uint64_t)(intptr_t)vseg );
2500
2501	#if DEBUG_RPC_VMM_CREATE_VSEG
2502	cycle = (uint32_t)hal_get_cycles();
2503	if( cycle > DEBUG_RPC_VMM_CREATE_VSEG )
2504	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2505	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2506	#endif
2507	}
2508
2509	/////////////////////////////////////////////////////////////////////////////////////////
2510	// [28] Marshaling functions attached to RPC_VMM_SET_COW
2511	/////////////////////////////////////////////////////////////////////////////////////////
2512
2513	/////////////////////////////////////////////
2514	void rpc_vmm_set_cow_client( cxy_t cxy,
2515	process_t * process )
2516	{
2517	#if DEBUG_RPC_VMM_SET_COW
2518	thread_t * this = CURRENT_THREAD;
2519	uint32_t cycle = (uint32_t)hal_get_cycles();
2520	if( cycle > DEBUG_RPC_VMM_SET_COW )
2521	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2522	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2523	#endif
2524
2525	uint32_t responses = 1;
2526
2527	// initialise RPC descriptor header
2528	rpc_desc_t rpc;
2529	rpc.index = RPC_VMM_SET_COW;
2530	rpc.blocking = true;
2531	rpc.rsp = &responses;
2532
2533	// set input arguments in RPC descriptor
2534	rpc.args[0] = (uint64_t)(intptr_t)process;
2535
2536	// register RPC request in remote RPC fifo
2537	rpc_send( cxy , &rpc );
2538
2539	#if DEBUG_RPC_VMM_SET_COW
2540	cycle = (uint32_t)hal_get_cycles();
2541	if( cycle > DEBUG_RPC_VMM_SET_COW )
2542	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2543	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2544	#endif
2545	}
2546
2547	////////////////////////////////////////
2548	void rpc_vmm_set_cow_server( xptr_t xp )
2549	{
2550	#if DEBUG_RPC_VMM_SET_COW
2551	thread_t * this = CURRENT_THREAD;
2552	uint32_t cycle = (uint32_t)hal_get_cycles();
2553	if( cycle > DEBUG_RPC_VMM_SET_COW )
2554	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2555	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2556	#endif
2557
2558	process_t * process;
2559
2560	// get client cluster identifier and pointer on RPC descriptor
2561	cxy_t cxy = GET_CXY( xp );
2562	rpc_desc_t * desc = GET_PTR( xp );
2563
2564	// get input arguments from client RPC descriptor
2565	process = (process_t *)(intptr_t)hal_remote_l64( XPTR(cxy , &desc->args[0]));
2566
2567	// call local kernel function
2568	vmm_set_cow( process );
2569
2570	#if DEBUG_RPC_VMM_SET_COW
2571	cycle = (uint32_t)hal_get_cycles();
2572	if( cycle > DEBUG_RPC_VMM_SET_COW )
2573	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2574	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2575	#endif
2576	}
2577
2578	/////////////////////////////////////////////////////////////////////////////////////////
2579	// [29] Marshaling functions attached to RPC_VMM_DISPLAY
2580	/////////////////////////////////////////////////////////////////////////////////////////
2581
2582	/////////////////////////////////////////////
2583	void rpc_vmm_display_client( cxy_t cxy,
2584	process_t * process,
2585	bool_t detailed )
2586	{
2587	#if DEBUG_RPC_VMM_DISPLAY
2588	thread_t * this = CURRENT_THREAD;
2589	uint32_t cycle = (uint32_t)hal_get_cycles();
2590	if( cycle > DEBUG_RPC_VMM_DISPLAY )
2591	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2592	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2593	#endif
2594
2595	uint32_t responses = 1;
2596
2597	// initialise RPC descriptor header
2598	rpc_desc_t rpc;
2599	rpc.index = RPC_VMM_DISPLAY;
2600	rpc.blocking = true;
2601	rpc.rsp = &responses;
2602
2603	// set input arguments in RPC descriptor
2604	rpc.args[0] = (uint64_t)(intptr_t)process;
2605	rpc.args[1] = (uint64_t)detailed;
2606
2607	// register RPC request in remote RPC fifo
2608	rpc_send( cxy , &rpc );
2609
2610	#if DEBUG_RPC_VMM_DISPLAY
2611	cycle = (uint32_t)hal_get_cycles();
2612	if( cycle > DEBUG_RPC_VMM_DISPLAY )
2613	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2614	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2615	#endif
2616	}
2617
2618	////////////////////////////////////////
2619	void rpc_vmm_display_server( xptr_t xp )
2620	{
2621	#if DEBUG_RPC_VMM_DISPLAY
2622	thread_t * this = CURRENT_THREAD;
2623	uint32_t cycle = (uint32_t)hal_get_cycles();
2624	if( cycle > DEBUG_RPC_VMM_DISPLAY )
2625	printk("\n[%s] thread[%x,%x] on core %d enter / cycle %d\n",
2626	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2627	#endif
2628
2629	process_t * process;
2630	bool_t detailed;
2631
2632	// get client cluster identifier and pointer on RPC descriptor
2633	cxy_t cxy = GET_CXY( xp );
2634	rpc_desc_t * desc = GET_PTR( xp );
2635
2636	// get input arguments from client RPC descriptor
2637	process = (process_t *)(intptr_t)hal_remote_l64( XPTR(cxy , &desc->args[0]));
2638	detailed = (bool_t) hal_remote_l64( XPTR(cxy , &desc->args[1]));
2639
2640	// call local kernel function
2641	vmm_display( process , detailed );
2642
2643	#if DEBUG_RPC_VMM_DISPLAY
2644	cycle = (uint32_t)hal_get_cycles();
2645	if( cycle > DEBUG_RPC_VMM_DISPLAY )
2646	printk("\n[%s] thread[%x,%x] on core %d exit / cycle %d\n",
2647	__FUNCTION__, this->process->pid, this->trdid, this->core->lid , cycle );
2648	#endif
2649	}
2650
2651

Note: See TracBrowser for help on using the repository browser.

Download in other formats: