Je was op zoek naar: buffer (Maleis - Engels)

salary buffer
buffer solution

buffer fail berganda
multiple file buffers

logical buffer gatestencils
logical buffer gate

buffer ditulis ke %s
buffer written to %s

benarkan beberapa buffer fail
enable multiple file buffers

e86: buffer %ld tidak wujud
e86: buffer %ld does not exist

tiada apa dalam buffer nyahbuat!
nothing in undo buffer!

tidak dapat memperoleh saiz buffer paip
could not get size of pipe buffer

e94: tiada padanan buffer bagi %s
e94: no matching buffer for %s

buffer tidak ditulis ke %s: %s
buffer not written to %s: %s

e87: tidak dapat melangkaui buffer terakhir
e87: cannot go beyond last buffer

toggle kegunaan buffer barutoggle milky way in the display
toggle constellation boundaries

saiz buffer input lebih kecil daripada saiz minimum %dkb
input buffer size smaller than minimum size of %dkb.

arahan untuk dilaksanakan dalam buffer baru [daripada% s]
command execution:: before connect

simpan buffer ubahsuai (jawab "tidak" akan menghilangkan perubahan) ?
save modified buffer (answering "no" will destroy changes) ?

--audio-buffer n guna penimbal output audio daripada 'n' kilobait
--audio-buffer n use an output audio buffer of 'n' kilobytes

e89: tiada pindaan sejak pindaan terakhir pada buffer %ld (untuk teruskan juga, tambahkan ! )
e89: no write since last change for buffer %ld (add ! to override)

jika anda memerlukan buffer kosong tambahan, jangan masukkan sebarang namafail, atau taip namafail yang tidak wujud pada prom dan tekan enter. kekunci fungsi berikut terdapat didalam mod sisipan fail:
if you need another blank buffer, do not enter any filename, or type in a nonexistent filename at the prompt and press enter. the following function keys are available in insert file mode:

the performance of semiconductor devices depends strongly upon the materials microstructure. therefore the microstructural control to reduce the density of lattice defects is intrinsically important for fabrication of high performance devices. in this research, the microstructures have been analysed in detail and the mechanisms of microstructural changes in aln thin films have been clarified for the establishment of the growth method of aln on sapphire substrate. aln templates for overgrowth of aln thin layer were made by growing an aln buffer layer grown on a (0001) sapphire substrate by the metal organic vapor phase epitaxy (movpe) growth process in a rather conventional way, but annealing treatments were added before and after the deposition of aln buffer layer. the surface roughness of aln was observed with an atomic force microscope (afm) and xrc .the cross section of aln template was observed by using conventional transmission electron microscopy (ctem) at 200kv. high-angle annular dark-field (haadf) scanning-tem images were also observed with a scanning transmission electron microscope (stem) at 300 kv. thin foil specimens for tem observation were made using a focused ion beam (fib) mill with accelerating voltage of 15kv~3 kv. prior to the deposition of a mt-aln layer, the sapphire substrate was annealed at a high temperature tan under the atmosphere of h2. for tan<1250°c, the crystallinity improved but twisting domains appear above the temperature. threading disloactions type c, type (a + c) and twisting domains with 200 - 500 nm in diameter along [2-1-10], with 108 cm-2 dislocation density was observed. however when the temperature was increased to 1350°c the threading dislocations were reduced and enhanced the adhesion between sapphire and aln buffer layer. on the other hand, post deposition annealing at a high temperature between 1500oc to 1700oc for 2 hours under the atmosphere of n2+co was carried out. cross sectional tem has revealed that after annealing at 1500oc, cone-shaped domains and threading dislocations remained. the morphology and the diffraction condition for the image contrast strongly suggest that the domains were inversion domains. threading dislocations type-a and type-a+c dislocations were visible for g =01-10 under the two beam condition. however, after annealing at 1550oc, the inversion domains coalesced with each other to leave a single inversion domain boundary running in a zigzag laterally at the center of aln buffer layer. the upper layer has al- polarity where else the lower layer has n-polarity according to the haadf and cbed images. the inversion domain boundary become smooth and flatter with the rising annealing temperature. it can be considered that domain boundaries can be eliminated by the lateral growth and mutual coalescence of domains even if boundaries penetrate vertically up to the top surface. the surface of mt-aln buffer was finely rugged before the annealing, but became coarser and smoother with annealing. the changes in the surface morphology indicates the occurrence of grain coalescence. the density of tds was reduced to 5×108 cm-2 after annealing at 1650oc roughly. in conclusion from this present research, it has been confirmed that pre deposition and post deposition annealing has been an effective treatment to control the microstructure and reduce dislocation density for advancement in the high quality fabrication of semiconductor devices.
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