FreeCalypso > hg > fc-magnetite
view src/gpf2/osl/os_mem_ir.c @ 547:c3f2f79dc5b8
l1_rf12.c compiled-in default RF band tables: a round of cleanup
* Uncalibrated default g_magic values changed from old Clara RF numbers
(yes, Clara, not even Leonardo) to the approximately correct value
for our current hw;
* Uncalibrated default Rx and Tx channel calibration tables providing
neutral correction values: fixed bogus ARFCNs from blind copy-n-paste
between different bands;
* Restored #if (ORDER2_TX_TEMP_CAL==1) in the Tx temperature compensation
tables;
* Fully rewrote the big comment before these rf_XXX structures to reflect
the current situation.
This change is part of the larger transition in FreeCalypso from reverse
to forward engineering, from reconstruction of lost original bits to
ongoing forward development and maintenance.
| author | Mychaela Falconia <falcon@freecalypso.org> |
|---|---|
| date | Sat, 17 Nov 2018 19:57:34 +0000 |
| parents | e9bdc8184d50 |
| children |
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/* * This C module is a reconstruction based on the disassembly of * os_mem.obj in frame_na7_db_ir.lib from the Leonardo package. */ /* set of included headers from COFF symtab: */ #include <stdio.h> #include <string.h> #include "nucleus.h" #include "typedefs.h" #include "os.h" #include "gdi.h" #include "os_types.h" #include "os_glob.h" extern T_OS_PART_GRP_TABLE_ENTRY PartGrpTable[]; extern T_OS_POOL_BORDER PoolBorder[]; GLOBAL LONG os_is_valid_partition(T_VOID_STRUCT *Buffer) { int i; for (i = 0; i <= MaxPoolGroups; i++) { if (PoolBorder[i].End == 0) return(OS_ERROR); if ((char *)Buffer < PoolBorder[i].Start) continue; if ((char *)Buffer >= PoolBorder[i].End) continue; return(OS_OK); } return(OS_ERROR); } GLOBAL LONG os_PartitionCheck(ULONG *ptr) { PM_HEADER *phdr; PM_PCB *pool; phdr = (PM_HEADER *)(ptr - 2); if (phdr->pm_next_available) return(OS_PARTITION_FREE); pool = phdr->pm_partition_pool; if (ptr[(pool->pm_partition_size - 4) >> 2] == GUARD_PATTERN) return(OS_OK); else return(OS_PARTITION_GUARD_PATTERN_DESTROYED); } GLOBAL LONG os_DeallocatePartition(OS_HANDLE TaskHandle, T_VOID_STRUCT *Buffer) { if (os_is_valid_partition(Buffer) != OS_OK) return(OS_ERROR); if (NU_Deallocate_Partition(Buffer) != NU_SUCCESS) return(OS_ERROR); return(OS_OK); } GLOBAL LONG os_AllocatePartition(OS_HANDLE TaskHandle, T_VOID_STRUCT **Buffer, ULONG Size, ULONG Suspend, OS_HANDLE GroupHandle) { T_OS_PART_POOL *pool, *requested_pool; ULONG nu_suspend; STATUS sts; int ret; for (pool = PartGrpTable[GroupHandle].grp_head; pool; pool = pool->next) if (Size <= pool->size) break; if (!pool) return(OS_ERROR); requested_pool = pool; ret = OS_OK; nu_suspend = NU_NO_SUSPEND; try_alloc: sts = NU_Allocate_Partition(&pool->pcb, (VOID **) Buffer, nu_suspend); switch (sts) { case NU_SUCCESS: return(ret); case NU_TIMEOUT: case NU_INVALID_SUSPEND: *Buffer = 0; return(OS_TIMEOUT); case NU_NO_PARTITION: pool = pool->next; if (pool) { ret = OS_ALLOCATED_BIGGER; goto try_alloc; } pool = requested_pool; if (Suspend) { nu_suspend = Suspend; ret = OS_WAITED; goto try_alloc; } return(OS_TIMEOUT); default: *Buffer = 0; return(OS_ERROR); } }
