Fix #651, Use resource ID for memory pools

Instead of identifying a memory pool by its memory address,
use a resource ID.  IDs are a constant size, regardless of
whether the host machine is 32 or 64 bits.

- IDs can be put into commands/telemetry and maintain a more
  consistent format with consistent alignment requirements.
- IDs can be independently verified without dereferencing
  memory.  Previously the only way to validate a memory pool
  was to read the address pointed to, which results in a SEGV
  if the address was bad.

cmake/sample_defs/cpu1_platform_cfg.h

@@ -1365,6 +1365,40 @@
 #define CFE_PLATFORM_ES_MAX_PROCESSOR_RESETS           2
 
 
+/** \cfeescfg Maximum number of block sizes in pool structures
+**
+**  \par Description:
+**      The upper limit for the number of block sizes supported in the generic
+**      pool implementation, which in turn implements the memory pools and CDS.
+**
+**  \par Limits:
+**       Must be at least one.  No specific upper limit, but the number is
+**       anticipated to be reasonably small (i.e. tens, not hundreds).  Large
+**       values have not been tested.
+**
+**       The ES and CDS block size lists must correlate with this value
+ */
+#define CFE_PLATFORM_ES_POOL_MAX_BUCKETS      17
+
+/** \cfeescfg Maximum number of memory pools
+**
+**  \par Description:
+**      The upper limit for the number of memory pools than can concurrently
+**      exist within the system.
+**
+**      The CFE_SB and CFE_TBL core subsystems each define a memory pool.
+**
+**      Individual applications may also create memory pools, so this value
+**      should be set sufficiently high enough to support the applications
+**      being used on this platform.
+**
+**  \par Limits:
+**       Must be at least 2 to support CFE core - SB and TBL pools.  No
+**       specific upper limit.
+ */
+#define CFE_PLATFORM_ES_MAX_MEMORY_POOLS        10
+
+
 /**
 **  \cfeescfg Define Default ES Memory Pool Block Sizes
 **

fsw/cfe-core/src/es/cfe_es_apps.c

@@ -1088,6 +1088,8 @@ int32 CFE_ES_CleanUpApp(CFE_ES_AppRecord_t *AppRecPtr)
    CFE_ES_ResourceID_t CurrTaskId;
    int32  ReturnCode = CFE_SUCCESS;
    CFE_ES_TaskRecord_t *TaskRecPtr;
+   CFE_ES_MemPoolRecord_t *MemPoolRecPtr;
+   CFE_ES_MemHandle_t PoolId;
    CFE_ES_ResourceID_t AppId;
 
    /*
@@ -1191,6 +1193,38 @@ int32 CFE_ES_CleanUpApp(CFE_ES_AppRecord_t *AppRecPtr)
 
    CFE_ES_AppRecordSetFree(AppRecPtr);
 
+   /*
+   ** Delete any memory pools associated with this app
+   */
+   MemPoolRecPtr = CFE_ES_Global.MemPoolTable;
+   for ( i = 0; i < CFE_PLATFORM_ES_MAX_MEMORY_POOLS; i++ )
+   {
+      if ( CFE_ES_MemPoolRecordIsUsed(MemPoolRecPtr) &&
+          CFE_ES_ResourceID_Equal(MemPoolRecPtr->OwnerAppID, AppId))
+      {
+          PoolId = CFE_ES_MemPoolRecordGetID(MemPoolRecPtr);
+
+          /*
+           * This needs to release the lock first because
+           * CFE_ES_PoolDelete acquires the lock.
+           */
+          CFE_ES_UnlockSharedData(__func__, __LINE__);
+          Status = CFE_ES_PoolDelete(PoolId);
+          CFE_ES_LockSharedData(__func__, __LINE__);
+
+          if ( Status != CFE_SUCCESS )
+          {
+              CFE_ES_SysLogWrite_Unsync("CFE_ES_MemPoolCleanupApp: delete pool %lu returned Error: 0x%08X\n",
+                      CFE_ES_ResourceID_ToInteger(PoolId), (unsigned int)Status);
+              ReturnCode = CFE_ES_APP_CLEANUP_ERR;
+          }
+      }
+
+      ++MemPoolRecPtr;
+   } /* end for */
+
+
+
    CFE_ES_UnlockSharedData(__func__,__LINE__);
 
    return(ReturnCode);