0x00000005

setprocessaffinitymask (Handle hprocess,Dword_ptr dwprocessaffinitymask ); The first parameter of this function specifies the process to be restricted, and the second parameter is a "bit shielded" data. Each bit in it represents a CPU code (starting from 0 ), for example, 0x00000001 indicates that CPU 0 is selected, that is, "threads in the process" can only run on CPU 0; 0x00000005 indicates that both CPU 0 and CPU 2 are selected. A sub-process in

)0x6ffffffa (relcount) 43800x00000006 (symtab) 0x1140x0000000b (syment) 16 (bytes)0x00000005 (strtab) 0xe2640x0000000a (strsz) 148452 (bytes)0x00000004 (hash) 0x326480x00000001 (needed) Shared Library: [liblog. So]0x00000001 (needed) Shared Library: [libcutils. So]0x00000001 (needed) Shared Library: [libutils. So]0x00000001 (needed) Shared Library: [libbinder. So]0x00000001 (needed) Shared Library: [libssl. So]0x00000001 (needed) Shared Library: [libc

. Sets the service status. If the service starts for a long time, you can set the status of the service display in your code. public enum ServiceState { service_stopped = 0x00000001, service_start_pending = 0x00000002, service_stop_pending = 0x00000003, Service_running = 0x00000004, service_continue_pending = 0x00000005, service_pause_pending = 0x00000006, service_paused = 0x00000007, } [StructLayout (LayoutKind.Sequential)] public s

Register 0xFE4 Gicd_pidr1 Ro 0x000000B4 Peripheral ID 1 Register 0xFE8 Gicd_pidr2 Ro 0x0000002B Peripheral ID 2 Register 0xFEC Gicd_pidr3 Ro 0x00000000 Peripheral ID 3 Register 0xFF0 Gicd_cidr0 Ro 0x0000000D Component ID 0 Register 0xFF4 Gicd_cidr1 Ro 0x000000F0 Component ID 1 Register 0xFF8 Gicd_cidr2 R

#defineFile_device_controller 0x00000004 - #defineFile_device_datalink 0x00000005 - #defineFile_device_dfs 0x00000006 the #defineFile_device_disk 0x00000007 - #defineFile_device_disk_file_system 0x00000008 - #defineFile_device_file_system 0x00000009 - #defineFile_device_inport_port 0x0000000a + #defineFile_device_keyboard 0x0000000b - #defineFile_device_mailslot 0x0000000c + #defineFile_device_midi_in 0x0000000d A #defineFile_device_midi_out 0x000000

x86 platform has LDD can be very convenient to view the dependencies of the library, but in the embedded Linux environment does not have this command, instead of it iscc=$ (cross_compile) gccLdd=$ (cross_compile)readelfExample$ (cross_compile) readelf-d sdkdemo_video Dynamic section at offset 0x1a88 contains (Entries:tag Type) Name/value 0x00000001 (NEEDED) Shared library: [libtxdevicesdk.so] 0x00000001 (NEEDED) Shared library: [libpthread.so.0] 0x00000001 (NEEDED) shared lib

short from 0x00000002-0x00000003 The second takes a short from 0x00000004-0x00000005 and then combines the desired data, and if the variable is on the 0x00000003 address, it accesses three memory, the first char, the second is short, and the third is char, Then combine to get the integer data. If the variable is in the natural alignment position, the data can be fetched once. Some systems have strict alignment requirements, such as SPARC systems, whe

, which should represent a normal breakpoint. So the instructions will show illegal.Open the menu, found here the 4C was changed back.We 0x1858f0 the next data breakpoint, reopen the menu, and find that the memory breakpoint will not be triggered, and it will be changed back. Well, let's go ahead and find the data we need. At least we can tell if the breakpoint is cleared or not.You can see that R4 is emptied to 0, we step down and see how R4 becomes A8.Perform the discovery, jump directly to th

Register for example:(since MT48LC4M32B2 's datasheet)The data to be configured correctly, RAM ability to work correctly. The next step is the configuration of the Memory Protection Unit (MPU), the combination of which is Jlink initialization and configuration of RAM.Ram_debug.ini files such as the following are seen:INCLUDE Mt48lc4m32lfb5.iniinitsdram (); Initialize Memoryload. \SDRAM_OBJ\UC1788.AXF INCREMENTAL //Download program/* RNR */_wdword (0xe000ed98, 0

final int. Network_type_umtscurrent NETWORK is umtsconstant value:3 (0x00000003) (3G) Unicom-----------------Added in API level 4---------------------public static final int network_type_cdmacurrent Network is Cdma:either is95a or is95bconstant value:4 (0x00000004) (2G telco) public static final int Network_type_evdo_0curr ENT Network is EVDO revision 0Constant value:5 (0x00000005) (3G) telecommunications public static final int network_type_evdo_acu

(Transferred from: http://www.cnblogs.com/qsl568/archive/2012/03/14/2395636.html)Gets the version number of the current app:Private throws Exception { // get an instance of Packagemanager Packagemanager Packagemanager = Getpackagemanager (); // Getpackagename () is the package name of your current class, and 0 means to get version information PackageInfo packinfo = Packagemanager.getpackageinfo (Getpackagename (), 0); = packinfo.versionname;

static final intRESULT_ERROR_NO_SERVICEIndicates that the service is currently unavailable. The value is 4 (0x00000004) Public static final intRESULT_ERROR_NULL_PDUPDUS are not provided. The value is 3 (0x00000003) Public static final intRESULT_ERROR_RADIO_OFFIndicates that the wireless broadcast is explicitly disabled. The value is 2 (0x00000002) Public static final intSTATUS_ON_ICC_FREEFree Space. The value is 0 (0x00000000) Public static final intSTATUS_ON_ICC_READReceived and read. The

" [_ thread_in_vm, id = 5408, stack (0x00160000, 0x001b0000)]Siginfo: ExceptionCode = 0xc0000005, reading address 0x00000009Registers:EAX = 0x00000005, EBX = 0x00002000, ECX = 0x00000006, EDX = 0x23b47f28ESP = 0x001afa9c, EBP = 0x001afaa8, ESI = 0x01aa6400, EDI = 0x01aa6400EIP = 0x6d91c1db, EFLAGS = 0x00010202Top of Stack: (sp = 0x001afa9c)0x001afa9c: 01aa6400 37b19738 3851d3b8 001afaf80x001afaac: 01b89f47 01aa6518 001afb00 001afb180x001afabc: 23b23bc

Transferred from: https://www.cnblogs.com/ransn/p/5081198.htmlFirst, the conceptAlignment is related to the location of the data in memory. If the memory address of a variable is exactly the integer multiple of its length, he is called natural alignment. For example, under a 32-bit CPU, assuming an integer variable has an address of 0x00000004, it is naturally aligned.Second, why byte alignmentThe root cause of the need for byte alignment is the efficiency of CPU access data. Assuming that the a

byte alignmentByte alignment is the location of the data in memory.Assuming that the memory address of a variable is exactly the integer multiple of its length, he is called natural alignment. For example, under 32-bit CPUs. Assuming the address of an integer variable is 0x00000004, it is naturally aligned.The necessity of byte alignmentThe root cause of the need for byte alignment is the efficiency of the CPU access data. If the address of an integer variable is not naturally aligned. For examp

#include #include #include #include #include #include #include #include #include #define OPEN_DSP_FAILED 0x00000001/* Failed to open DSP!*/ #define Samplerate_status 0x00000002/*samplerate STATUS failed*/ #define Set_samplerate_failed 0x00000003/*set samplerate failed*/ #define Channels_status 0x00000004/*channels STATUS failed*/ #define SET_CHANNELS_FAILED 0x00000005/*set channels failed*/ #define Fmt_status 0x00000006/*fmt STATUS failed*/ #define S

--------------- Current thread (0x01aa6400): Javathread "Main" [_thread_in_vm, id=5408, Stack (0x00160000,0x001b0000)] siginfo:exceptioncode=0xc0000005, reading address 0x00000009 Registers: eax=0x00000005, ebx=0x00002000, ecx=0x00000006, edx=0x23b47f28 esp=0x001afa9c, Ebp=0x001afaa8, esi=0x01aa6400, edi=0x01aa6400 EIP=0X6D91C1DB, eflags=0x00010202 Top of Stack: (sp=0x001afa9c) 0x001afa9c:01aa6400 37b19738 3851d3b8 001afaf8 0x001afaac:01b89f47 01aa651

Original source: http://blog.csdn.net/sujunzy666/article/details/18732153 The summary is very good, understand thoroughly. The end of the article I made a picture, a look at it, this problem on the Internet to speak a lot, but did not put the problem through. First, the conceptAlignment is related to the location of the data in memory. If the memory address of a variable is exactly the number of integers in its length, he is called a natural alignment. For example, under the 32-bit CPU, assumi

Memory Alignment 1. Concept Alignment is related to the location of the data in memory. If the memory address of a variable is exactly the integer multiple of its length, he is called natural alignment. For example, under a 32-bit CPU, assuming an integer variable has an address of 0x00000004, it is naturally aligned. 　　 1.1 Why byte alignment The root cause of the need for byte alignment is the efficiency of CPU access data. Assuming that the address of the integer variable above is not natur

First, the conceptAlignment is related to the location of the data in memory. If the memory address of a variable is exactly the integer multiple of its length, he is called natural alignment. For example, under a 32-bit CPU, assuming an integer variable has an address of 0x00000004, it is naturally aligned.Second, why byte alignmentThe root cause of the need for byte alignment is the efficiency of CPU access data. Assuming that the address of the integer variable above is not naturally aligned,