CPU Support List GA-MA78GM-S2H(rev.1.0)

Socket AM2+

Motherboard									Model	GA-MA78GM-S2H(rev.1.0)
									PCB	1.0
Vendor	Model	Frequency	L2 Cache	L3 Cache	Core Name	Process	Stepping	Wattage	System Bus(MT/s)	5200
AMD	Phenom II X4 940	3000MHz	512KBx4	6MB	Deneb	45nm	C2	125W	3600	F7
AMD	Phenom II X4 920	2800MHz	512KBx4	6MB	Deneb	45nm	C2	125W	3600	F7
AMD	Phenom X4 9950	2600MHz	512KBx4	2MB	Agena	65nm	B3	140W	4000	-
AMD	Phenom X4 9950	2600MHz	512KBx4	2MB	Agena	65nm	B3	125W	4000	N/A
AMD	Phenom X4 9850	2500MHz	512KBx4	2MB	Agena	65nm	B3	125W	4000	N/A
AMD	Phenom X4 9750	2400MHz	512KBx4	2MB	Agena	65nm	B3	125W	3600	F3
AMD	Phenom X4 9750	2400MHz	512KBx4	2MB	Agena	65nm	B3	95W	3600	F3
AMD	Phenom X4 9650	2300MHz	512KBx4	2MB	Agena	65nm	B3	95W	3600	F3
AMD	Phenom X4 9600	2300MHz	512KBx4	2MB	Agena	65nm	B2	95W	3600	F2
AMD	Phenom X4 9550	2200MHz	512KBx4	2MB	Agena	65nm	B3	95W	3600	F3
AMD	Phenom X4 9500	2200MHz	512KBx4	2MB	Agena	65nm	B2	95W	3600	F1
AMD	Phenom X4 9450e	2100MHz	512KBx4	2MB	Agena	65nm	B3	65W	3600	F7
AMD	Phenom X4 9350e	2000MHz	512KBx4	2MB	Agena	65nm	B3	65W	3200	F5
AMD	Phenom X4 9150e	1800MHz	512KBx4	2MB	Agena	65nm	B3	65W	3200	F5
AMD	Phenom X4 9100e	1800MHz	512KBx4	2MB	Agena	65nm	B2	65W	3200	F5
AMD	Phenom X3 8850	2500MHz	512KBx3	2MB	Toliman	65nm	B3	95W	3600	F7
AMD	Phenom X3 8750	2400MHz	512KBx3	2MB	Toliman	65nm	B3	95W	3600	F3
AMD	Phenom X3 8650	2300MHz	512KBx3	2MB	Toliman	65nm	B3	95W	3600	F3
AMD	Phenom X3 8600	2300MHz	512KBx3	2MB	Toliman	65nm	B2	95W	3600	F3
AMD	Phenom X3 8550	2200MHz	512KBx3	2MB	Toliman	65nm	B3	95W	3600	F5
AMD	Phenom X3 8450	2100MHz	512KBx3	2MB	Toliman	65nm	B3	95W	3600	F5
AMD	Phenom X3 8450e	2100MHz	512KBx3	2MB	Toliman	65nm	B3	65W	3600	F5
AMD	Phenom X3 8400	2100MHz	512KBx3	2MB	Toliman	65nm	B2	95W	3600	F3
AMD	Phenom X3 8250e	1900MHz	512KBx3	2MB	Toliman	65nm	B3	65W	3600	F5
AMD	Athlon X2 7850	2800MHz	512KBx2	2MB	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 7750	2700MHz	512KBx2	2MB	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 7550	2500MHz	512KBx2	2MB	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 7450	2400MHz	512KBx2	2MB	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 6500	2300MHz	512KBx2	2MB	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 5000	2200MHz	512KBx2		Brisbane	45nm	C2	65W	3200	F5

Socket AM3

Motherboard									Model	GA-MA78GM-S2H(rev.1.0)
									PCB	1.0
Vendor	Model	Frequency	L2 Cache	L3 Cache	Core Name	Process	Stepping	Wattage	System Bus(MT/s)	5200
AMD	Phenom II X4 965	3400MHz	512KBx4	6MB	Deneb	45nm	C3	125W	4000	-
AMD	Phenom II X4 965	3400MHz	512KBx4	6MB	Deneb	45nm	C2	140W	4000	-
AMD	Phenom II X4 955	3200MHz	512KBx4	6MB	Deneb	45nm	C3	125W	4000	-
AMD	Phenom II X4 955	3200MHz	512KBx4	6MB	Deneb	45nm	C2	125W	4000	N/A
AMD	Phenom II X4 945	3000MHz	512KBx4	6MB	Deneb	45nm	C3	95W	4000	F11
AMD	Phenom II X4 945	3000MHz	512KBx4	6MB	Deneb	45nm	C2	125W	4000	F8
AMD	Phenom II X4 945	3000MHz	512KBx4	6MB	Deneb	45nm	C2	95W	4000	F8
AMD	Phenom II X4 925	2800MHz	512KBx4	6MB	Deneb	45nm	C3	95W	4000	F11
AMD	Phenom II X4 925	2800MHz	512KBx4	6MB	Deneb	45nm	C2	95W	4000	F7
AMD	Phenom II X4 910	2600MHz	512KBx4	6MB	Deneb	45nm	C2	95W	4000	F7
AMD	Phenom II X4 910e	2600MHz	512KBx4	6MB	Deneb	45nm	C3	95W	4000	F11
AMD	Phenom II X4 905e	2500MHz	512KBx4	6MB	Deneb	45nm	C2	65W	4000	F8
AMD	Phenom II X4 900e	2400MHz	512KBx4	6MB	Deneb	45nm	C2	65W	4000	F8
AMD	Phenom II X4 820	2800MHz	512KBx4	6MB	Deneb	45nm	C2	95W	4000	F8
AMD	Phenom II X4 810	2600MHz	512KBx4	4MB	Deneb	45nm	C2	95W	4000	F7
AMD	Phenom II X4 805	2500MHz	512KBx4	4MB	Deneb	45nm	C2	95W	4000	F7
AMD	Phenom II X3 740	3000MHz	512KBx3	6MB	Heka	45nm	C2	95W	4000	F8
AMD	Phenom II X3 720	2800MHz	512KBx3	6MB	Heka	45nm	C2	95W	4000	F7
AMD	Phenom II X3 710	2600MHz	512KBx3	6MB	Heka	45nm	C2	95W	4000	F7
AMD	Phenom II X3 705e	2500MHz	512KBx3	6MB	Heka	45nm	C2	65W	4000	F8
AMD	Phenom II X3 700e	2400MHz	512KBx3	6MB	Heka	45nm	C2	65W	4000	F8
AMD	Phenom II X2 555	3200MHz	512KBx2	6MB	Callisto	45nm	C3	80W	4000	F11
AMD	Phenom II X2 550	3100MHz	512KBx2	6MB	Callisto	45nm	C2	80W	4000	F8
AMD	Phenom II X2 545	3000MHz	512KBx2	6MB	Callisto	45nm	C2	80W	4000	F8
AMD	Athlon II X4 640	3000MHz	512KBx4	N/A	Propus	45nm	C3	95W	4000	-
AMD	Athlon II X4 635	2900MHz	512KBx4	N/A	Propus	45nm	C3	95W	4000	-
AMD	Athlon II X4 635	2900MHz	512KBx4	N/A	Propus	45nm	C2	95W	4000	F8
AMD	Athlon II X4 630	2800MHz	512KBx4	N/A	Propus	45nm	C2	95W	4000	F8
AMD	Athlon II X4 620	2600MHz	512KBx4	N/A	Propus	45nm	C2	95W	4000	F8
AMD	Athlon II X4 605e	2300MHz	512KBx4	N/A	Propus	45nm	C2	45W	4000	F8
AMD	Athlon II X4 600e	2200MHz	512KBx4	N/A	Propus	45nm	C2	45W	4000	F8
AMD	Athlon II X3 440	3000MHz	512KBx3	N/A	Rena	45nm	C2	95W	4000	F8
AMD	Athlon II X3 435	2900MHz	512KBx3	N/A	Rena	45nm	C2	95W	4000	F8
AMD	Athlon II X3 425	2700MHz	512KBx3	N/A	Rena	45nm	C2	95W	4000	F8
AMD	Athlon II X3 405e	2300MHz	512KBx3	N/A	Rena	45nm	C2	45W	4000	F8
AMD	Athlon II X3 400e	2200MHz	512KBx3	N/A	Rena	45nm	C2	45W	4000	F8
AMD	Athlon II X2 255	3100MHz	1MBx2	N/A	Regor	45nm	C2	65W	4000	F8
AMD	Athlon II X2 250	3000MHz	2MB	N/A	Regor	45nm	C2	65W	4000	F8
AMD	Athlon II X2 245	2900MHz	2MB	N/A	Regor	45nm	C2	65W	4000	F8
AMD	Athlon II X2 240	2800MHz	2MB	N/A	Regor	45nm	C2	65W	4000	F8
AMD	Athlon II X2 215	2700MHz	512KBx2	N/A	Regor	45nm	C2	65W	4000	F8
AMD	Athlon II X2 240e	2800MHz	2MB	N/A	Regor	45nm	C2	45W	4000	F8
AMD	Athlon II X2 235e	2700MHz	2MB	N/A	Regor	45nm	C2	45W	4000	F8
AMD	Sempron 140	2700MHz	1024KB	N/A	Sargas	45nm	C2	45W	4000	F10

Socket AM2

Motherboard								Model	GA-MA78GM-S2H(rev.1.0)
								PCB	1.0
Vendor	Model	Frequency	L2 Cache	Core Name	Process	Stepping	Wattage	System Bus(MT/s)	5200
AMD	Athlon 64 FX-62	2800MHz	1MBx2	Windsor	90nm	F2	125W	2000	F1
AMD	Opteron 1210	1800MHz	1MBx2	Santa Ana	90nm	F2	103W	2000	F1
AMD	Athlon X2 5050e	2600MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F7
AMD	Athlon X2 4850e	2500MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F3
AMD	Athlon X2 4450e	2300MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F3
AMD	Athlon X2 4050e	2100MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F3
AMD	Athlon X2 BE-2400	2300MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F1
AMD	Athlon X2 BE-2350	2100MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F1
AMD	Athlon X2 BE-2350	2100MHz	512KBx2	Brisbane	65nm	G1	45W	2000	F1
AMD	Athlon X2 BE-2300	1900MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F1
AMD	Athlon X2 BE-2300	1900MHz	512KBx2	Brisbane	65nm	G1	45W	2000	F1
AMD	Athlon X2 7750+	2700MHz	512KBx2	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 7550+	2500MHz	512KBx2	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon X2 7450+	2400MHz	512KBx2	Kuma	65nm	B3	95W	3600	F7
AMD	Athlon 64 X2 6400+	3200MHz	1MBx2	Windsor	90nm	F3	125W	2000	F1
AMD	Athlon X2 6000	3100MHz	512KBx2	Brisbane	65nm	G2	89W	2000	F4
AMD	Athlon 64 X2 6000+	3000MHz	1MBx2	Windsor	90nm	F3	89W	2000	F1
AMD	Athlon 64 X2 6000+	3000MHz	1MBx2	Windsor	90nm	F3	125W	2000	F1
AMD	Athlon X2 5800	3000MHz	512KBx2	Brisbane	65nm	G2	89W	2000	F5
AMD	Athlon 64 X2 5600+	2900MHz	512KBx2	Brisbane	65nm	G2	89W	2000	F3
AMD	Athlon 64 X2 5600	2900MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F5
AMD	Athlon 64 X2 5600+	2800MHz	1MBx2	Windsor	90nm	F3	89W	2000	F1
AMD	Athlon 64 X2 5400+	2800MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F3
AMD	Athlon 64 X2 5400+	2800MHz	512KBx2	Windsor	90nm	F3	89W	2000	F1
AMD	Athlon 64 X2 5200+	2600MHz	1MBx2	Windsor	90nm	F3	65W	2000	F1
AMD	Athlon 64 X2 5200+	2600MHz	1MBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 5200+	2700MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F1
AMD	Athlon 64 X2 5200+	2700MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 5000+	2600MHz	512KBx2	Windsor	90nm	F3	65W	2000	F1
AMD	Athlon 64 X2 5000+	2600MHz	512KBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 5000+	2600MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F1
AMD	Athlon 64 X2 5000+	2600MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 4850+	2500MHz	512KBx2	Brisbane	65nm	G2	45W	2000	F3
AMD	Athlon 64 X2 4800+	2400MHz	1MBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 4800+	2400MHz	1MBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 4800+	2500MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F1
AMD	Athlon 64 X2 4800+	2500MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 4600+	2400MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F3
AMD	Athlon 64 X2 4600+	2400MHz	512KBx2	Windsor	90nm	F3	65W	2000	F1
AMD	Athlon 64 X2 4600+	2400MHz	512KBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 4600+	2400MHz	512KBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 4400+	2200MHz	1MBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 4400+	2200MHz	1MBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 4400+	2300MHz	512KBx2	Brisbane	65nm	G2	65W	2000	F1
AMD	Athlon 64 X2 4400+	2300MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 4200+	2200MHz	512KBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 4200+	2200MHz	512KBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 4200+	2200MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 4000+	2000MHz	1MBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 4000+	2000MHz	1MBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 4000+	2100MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon 64 X2 3800+	2000MHz	512KBx2	Windsor	90nm	F3	65W	2000	F1
AMD	Athlon 64 X2 3800+	2000MHz	512KBx2	Windsor	90nm	F2	89W	2000	F1
AMD	Athlon 64 X2 3800+	2000MHz	512KBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 3800+	2000MHz	512KBx2	Windsor	90nm	F2	35W	2000	F1
AMD	Athlon 64 X2 3600+	2000MHz	256KBx2	Windsor	90nm	F2	65W	2000	F1
AMD	Athlon 64 X2 3600+	1900MHz	512KBx2	Brisbane	65nm	G1	65W	2000	F1
AMD	Athlon LE-1660	2800MHz	512KB	Orleans	65nm	G2	45W	2000	F3
AMD	Athlon LE-1640	2600MHz	1MB	Orleans	90nm	F3	45W	2000	F1
AMD	Athlon LE-1620	2400MHz	1MB	Orleans	90nm	F3	45W	2000	F1
AMD	Athlon LE-1600	2200MHz	1MB	Orleans	90nm	F3	45W	2000	F1
AMD	Athlon 64 4000+	2600MHz	512KB	Orleans	90nm	F3	62W	2000	F1
AMD	Athlon 64 3800+	2400MHz	512KB	Orleans	90nm	F3	62W	2000	F1
AMD	Athlon 64 3800+	2400MHz	512KB	Orleans	90nm	F2	62W	2000	F1
AMD	Athlon 64 3800+	2400MHz	512KB	Lima	65nm	G1	45W	2000	F1
AMD	Athlon 64 3500+	2200MHz	512KB	Orleans	90nm	F3	62W	2000	F1
AMD	Athlon 64 3500+	2200MHz	512KB	Orleans	90nm	F2	62W	2000	F1
AMD	Athlon 64 3500+	2200MHz	512KB	Orleans	90nm	F2	35W	2000	F1
AMD	Athlon 64 3500+	2200MHz	512KB	Lima	65nm	G1	45W	2000	F1
AMD	Athlon 64 3200+	2000MHz	512KB	Orleans	90nm	F2	62W	2000	F1
AMD	Athlon 64 3200+	2000MHz	512KBx2	Lima	65nm	G1	45W	2000	F1
AMD	Athlon 64 3000+	1800MHz	512KB	Orleans	90nm	F2	62W	2000	F1
AMD	Sempron X2 2300	2200MHz	256KBx2	Brisbane	65nm	G2	65W	1600	F5
AMD	Sempron X2 2200	2000MHz	256KBx2	Brisbane	65nm	G2	65W	1600	F3
AMD	Sempron X2 2100	1800MHz	256KBx2	Brisbane	65nm	G2	65W	1600	F3
AMD	Sempron X2 2100	1800MHz	256KBx2	Brisbane	65nm	G1	65W	1600	F3
AMD	Sempron LE-1300	2300MHz	512KBx2	Sparta	65nm	G2	45W	2000	F1
AMD	Sempron LE-1250	2200MHz	512KBx2	Sparta	65nm	G2	45W	2000	F1
AMD	Sempron LE-1200	2100MHz	512KBx2	Sparta	65nm	G1	45W	2000	F1
AMD	Sempron LE-1150	2000MHz	256KB	Sparta	65nm	G1	45W	2000	F1
AMD	Sempron LE-1100	1900MHz	256KB	Sparta	65nm	G1	45W	2000	F1
AMD	Sempron 3800+	2200MHz	256KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3600+	2000MHz	256KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3500+	2000MHz	128KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3400+	1800MHz	256KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3400+	1800MHz	256KB	Manila	90nm	F2	35W	1600	F1
AMD	Sempron 3200+	1800MHz	128KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3200+	1800MHz	128KB	Manila	90nm	F2	35W	1600	F1
AMD	Sempron 3000+	1600MHz	256KB	Manila	90nm	F2	62W	1600	F1
AMD	Sempron 3000+	1600MHz	256KB	Manila	90nm	F2	35W	1600	F1
AMD	Sempron 2800+	1600MHz	128KB	Manila	90nm	F2	62W	1600	F1

MSVC and MinGW DLLs | MinGW

MSVC and MinGW DLLs | MinGW
Assume we have a testdll.h, testdll.c, and testmain.c. In the first case, we will compile testdll.c with MinGW, and let the MSVC-compiled testmain call it. You should use

gcc -shared -o testdll.dll testdll.c -Wl,--output-def,testdll.def,--out-implib,libtestdll.a

to produce the DLL and DEF files. MSVC cannot use the MinGW library, but since you have already the DEF file you may easily produce one by the Microsoft LIB tool:

lib /machine:i386 /def:testdll.def

Once you have testdll.lib, it is trivial to produce the executable with MSVC:

cl testmain.c testdll.lib

Now for MinGW programs calling an MSVC DLL. We have two methods. One way is to specify the LIB files directly on the command line after the main program. For example, after

cl /LD testdll.c

use

gcc -o testmain testmain.c testdll.lib

The other way is to produce the .a files for GCC. For __cdecl functions (in most cases), it is simple: you only need to apply the reimp tool from Anders Norlander (since his web site is no longer available, you may choose to download [this version|http://jrfonseca.dyndns.org/projects/gnu-win32/software/reimp/index.html] enhanced by Jose Fonseca):

reimp testdll.lib
gcc -o testmain testmain.c -L. -ltestdll

However, for __stdcall functions, the above method does not work. For MSVC will prefix an underscore to __stdcall functions while MinGW will not. The right way is to produce the DEF file using the pexports tool included in the mingw-utils package and filter off the first underscore by sed:

pexports testdll.dll | sed "s/^_//" > testdll.def

Then, when using dlltool to produce the import library, add `-U' to the command line:

dlltool -U -d testdll.def -l libtestdll.a

And now, you can proceed in the usual way:

gcc -o testmain testmain.c -L. -ltestdll

Hooray, we got it.

Build OpenCV 2.0.0a as static library

In MSVC++ 2008...

Use CMAKE to generate project files

From project files...

1. Change DLL option to LIB
2. Change OUTPUT folder to ..\..\lib\($env)\($projectName)200($d).lib

HIGHGUI200.LIB may build but no use (looking for solution now)...

Alternatevely use shared library of HIGHGUI200.LIB and place CXCORE200.DLL and HIGHGUI200.DLL on the path

To Compile custom project, make sure change /MT(d) to /MD(d) in compiler option and set /NODEFAULTLIB:"libcmt(d).lib"

Build Qt as static library

set qmakespec=(win32-g++ or win32-msvc2008 ...)
configure -release -static -no-exceptions -graphicssystem opengl -nomake examples -nomake demos

Open CV 1.1pre1 MINGW 5.1.6 (GCC 3.4.5) Compile

ren bin bin_original // back up original files
ren lib lib_original // back up original files
cd _make
mingw32-make -f make_all_gnu.mak // for release version
set DEBUG=1
mingw32-make -f make_all_gnu.mak // for debug version

네이버 로그인을 즐겨찾기로 한번에

http://nid.naver.com/nidlogin.login?id=YOURID&pw=YOURPASSWORD&url=http://cafe.naver.com/opencv

snoopy : 윈도우 7 홈 프리미엄 버전에 언어팩 설치하기

snoopy : 윈도우 7 홈 프리미엄 버전에 언어팩 설치하기: "dism /online /add-package /packagepath:d:\lp.cab"
제가 해보니까 언어팩 설치는 윈도우 상에서 가능한데 국가별 설정 변경은 윈도우 상에서 되지 않았습니다. 따라서 윈도우 7 DVD로 부팅을 해주셔야 합니다. 윈도우 7 DVD로 부팅하신 다음 처음 화면에서 Shift + F10 을 눌러서 명령 프롬프트를 띄웁니다. 그리고 다음과 같이 입력합니다.



dism /image:d: /set-skuintldefaults:ko-kr

다시 재부팅해서 윈도우에 진입을 해보면 키보드, 표시언어, 로케일을 포함한 모든 설정이 한글판으로 되어있을 것입니다. 따로 제어판에서 추가로 작업해주실 내용은 없습니다. 그런데 아마 부팅 화면 애니메이션은 그대로 영어로 남아있을 것입니다. 따라서 다시 명령 프롬프트를 관리자 권한으로 띄워주셔서 다음 2개의 명령어를 입력합니다.



bcdedit /set {bootmgr} locale ko-kr



bcdedit /set {current} locale ko-kr



그러면 이제 멀티부팅 화면이나 부팅 애니메이션이 한글판으로 잘 나올 것입니다.

Silverglaze » Canon PowerShot S45 and Windows Vista

Silverglaze » Canon PowerShot S45 and Windows Vista

Canon PowerShot S45 and Windows Vista
Filed under: Useful Tech Tips — Jeffito @ 9:40 pm

250px-Canon_PowerShot_S45I discovered after I installed vista that Canon had not yet provided any vista drivers for the Canon PowerShot S45. I tried using a few other programs and nothing seemed to work to get my images off the camera. Luckily I have other laptops with XP and I have always just used these XP machines to get my images, but today I was stuck at home with just my vista laptop.

I was about to give up when I thought of something….. my iPod. I had bought an ipod camera connector to get my images off my camera when I am traveling. So I just hooked it up and transferred the pictures from the S45 to the iPod. I then plugged my iPod into my Windows Vista Laptop, opened windows explorer and then surfed to the DCIM folder on my iPod and the images were there for me to move to my hard drive… and eventually to Flickr.

Not a solution for everyone…. but it saved me from spending $40 on a USB flash card reader.

bv2.co.uk » Blog Archive » Visual Studio 2008 and CUDA

CUDA with Visual Studio 2008

bv2.co.uk » Blog Archive » Visual Studio 2008 and CUDA

Visual Studio 2008 and CUDA

As promised I received my Visual Studio 2008 on Friday from polyhedron and set about installing it on Saturday. This post will describe how to get VS 2008 to work with CUDA. I use CUDA 2.2 which is still under NDA so I wont be making any comments about its performance improvements today. Rather I will describe how to set up syntax highlighting, building and Intellisense.

Visual Studio is now distributed in DVD format which makes the installation process much easier due to not having to swop disks every few minutes. The installation went smoothly and quickly as I had the prerequisites (.net etc) installed already. I usually install software on my D drive and it didn’t have any complaints or issues with that either.

I already had the CUDA 2.2 SDK and toolkit installed along with the 185 drivers so I could move directly to configuring my Visual Studio to use CUDA:

Syntax highlighting: By default a .cu file is displayed all in black which makes editing rather tricky. NVidia supply a usertype.dat file which you will find under: “NVIDIA Corporation\NVIDIA CUDA SDK\doc\syntax_highlighting\visual_studio_8″ copy this file to: “\Program Files\Microsoft Visual Studio 9.0\Common7\IDE”. Now open up Visual Studio and navigate to: tools->options->text editor->file extension. In the extension box type “cu”, make sure you select “Microsoft Visual C++” in the drop down and not the default of “Microsoft Visual C#”. If you do select the C# one they syntax highlighting will still work but you wont see all the “__syncthreads()” etc highlighted.

Building: This is rather simple to configure, you can either specify the standard “nvcc ” command line for each .cu file in your project by right clicking ->properties->custom build. A better solution is to select a custom build rule for your project by selecting “project -> custom build rules -> find existing”. Again NVidia supply a rules file which you will find under the “\NVIDIA Corporation\NVIDIA CUDA SDK\common” directory. Select this build rule in your project properties and it makes it much easier to configure options for your building of CUDA projects.

Intellisense: Getting intellisense to work on .cu and .cuh files proved to be the most tricky step. I don’t actually use it very much as I try and keep my code fairly simple but its still nice to have when you can’t remember parameters etc. Logically I thought by adding .cu to the file extensions lists in the options wherever there was .c,.cpp etc listed and by the step used in enabling syntax highlighting it would just magically work. Sadly this was not the case. I did find a suggestion on the web mentioning a process that would enable it but it seemed rather clumsy to me. It involves writing your CUDA code in a .c file and then just as you hit compile a pre-build step copies the .c file to a .cu extension. To me it seemed odd that the Intellisense would work with .c,.cpp,.h etc and not with .cu where it is clearly just a different extension but essentially C code. As I ran out of option dialogs in Visual Studio I decided to look in the registry. After about 15 minutes I found what turned out to be the key. The “fix” is really simple: open the registry editor and navigate to “HKEY_CURRENT_USER\Software\Microsoft\VisualStudio\9.0\Languages\Language Services\C/C++” then go to the string entry “NCB Default C/C++ Extensions” and add “;.cu;.cuh” to the end of the list. Restart Visual Studio and Intellisense will work for your CUDA files. Keep in mind it doesnt know about CUDA specific extensions but will still help with all the normal C bits.

Sony PS3Eye Camera DirectShow Capture Source Filter *Update* v2.1.0.0130 « AlexP’s Weblog

Sony PS3Eye Camera DirectShow Capture Source Filter *Update* v2.1.0.0130 « AlexP’s Weblog: "Manual removal of PS3Eye.ax and PS3EyeLib.dll files:

- Close any program that are using PS3Eye camera.
- Press ‘WinKey’+R on your keyboard or alternatively go to Start->Run
- Type the following: regsvr32 /u “C:\Program Files\AlexP\PS3Eye.ax”
- You will see the following dialog box confirming successful un-registration of the PS3Eye.ax file."