CPC_LFMM_CONFIG LfmmConfig;
RtlFillMemory(&LfmmConfig, sizeof(LfmmConfig), 0);
LONG PoolSizes[16];
RtlFillMemory(&PoolSizes, sizeof(PoolSizes), 0);

const LONG MAX_CONTEXTS = 5;
PoolSizes[MP_PRIME_M] += 2*1024 * (MAX_CONTEXTS) + 1024*1024;
PoolSizes[MP_SEC_M] += 2*1024 * (MAX_CONTEXTS) + 1024*1024;
PoolSizes[MP_BIG] += 2*1024 * (MAX_CONTEXTS) + 1024*1024;
PoolSizes[MP_WORK] += 64*1024 * (MAX_CONTEXTS) + 5*1024*1024;
PoolSizes[MP_WORK_M] += 128*1024;

//   PoolSizes[MP_BIG] = PoolSizes[MP_WORK] = 10000 * (250 + MAX_CONTEXTS);
//   PoolSizes[MP_PRIME_M] = PoolSizes[MP_SEC_M] = 1024 * (400 + MAX_CONTEXTS);
//   PoolSizes[MP_WORK_M] = 2 * PoolSizes [MP_PRIME_M];

LfmmConfig.PoolSizes = PoolSizes;
LfmmConfig.nPools = sizeof(PoolSizes)/sizeof(PoolSizes[0]);
LfmmConfig.nCPUs = 2;
LfmmConfig.fSMP = TRUE;

LfmmConfig.Size = 65536;
for (size_t i = 0; i < LfmmConfig.nPools; ++i)
	LfmmConfig.Size += PoolSizes[i];

arenaBuffer = ExAllocatePoolWithTag(PagedPool, LfmmConfig.Size, POOL_TAG);;
if(!arenaBuffer)
{
	DbgPrint(MODNAME "! Out of memory: size=%d\n", LfmmConfig.Size);
	ntStatus = STATUS_INSUFFICIENT_RESOURCES;
	return;
}
LfmmConfig.Buffer = arenaBuffer;

LPCPC_MEMORY_ARENA MemoryArena = NULL;
ULONG res = InitMemoryLF(&MemoryArena, &LfmmConfig);
if(res || MemoryArena)
{
	DbgPrint(MODNAME "! InitMemoryLF(%d) failed: 0x%.8X\n", LfmmConfig.Size, res);
	ntStatus = STATUS_UNSUCCESSFUL;
	return;
}