µn¤J
¡U
µù¥U
¡U
·|û¤¤¤ß
¡U
µ²±b
¡U
°ö°V½Òµ{
Å]ªk§Ì¤l
¡U
¦Û¸ê¥Xª©
¡U
¹q¤l®Ñ
¡U
«ÈªA¤¤¤ß
¡U
´¼¼z«¬¥ßÊ^·|û
®Ñ¦W
¥Xª©ªÀ
§@ªÌ
isbn
½s¸¹
5050Å]ªk²³Äw
|
NG®Ñ«°
|
°ê»Ú¯Å«~µP½Òµ{
|
Àu´f³qª¾
|
ÅRÆE^¶¯µ¼Öºë¿ï
|
89S51/52 ³æ´¹¤ù»P±MÃD»s§@³Ì¨Î½d¥»¡G¨Ï¥ÎKeil(ªþ½d¨Òµ{¦¡ÀɮפÎKeil C³nÅé)
¦¹§@ªÌµL¬ÛÃö®ÑÄy
¤å¾Ç¤p»¡
¤å¾Ç
¡U
¤p»¡
°ÓºÞ³Ð§ë
°]¸g§ë¸ê
¡U
¦æ¾P¥øºÞ
¤H¤åÃÀ§{
©v±Ð¡Bõ¾Ç
ªÀ·|¡B¤H¤å¡B¥v¦a
ÃÀ³N¡B¬ü¾Ç
¡U
¹q¼vÀ¸¼@
Ày§Ó¾i¥Í
ÂåÀø¡B«O°·
®Æ²z¡B¥Í¬¡¦Ê¬ì
±Ð¨|¡B¤ß²z¡BÀy§Ó
¶i׾Dzß
¹q¸£»Pºô¸ô
¡U
»y¨¥¤u¨ã
Âø»x¡B´Á¥Z
¡U
x¬F¡Bªk«ß
°Ñ¦Ò¡B¦Ò¸Õ¡B±Ð¬ì¥Î®Ñ
¬ì¾Ç¤uµ{
¬ì¾Ç¡B¦ÛµM
¡U
¤u·~¡B¤uµ{
®a®x¿Ë¤l
®a®x¡B¿Ë¤l¡B¤H»Ú
«C¤Ö¦~¡Bµ£®Ñ
ª±¼Ö¤Ñ¦a
®È¹C¡B¦a¹Ï
¡U
¥ð¶¢®T¼Ö
º©µe¡B´¡¹Ï
¡U
¨î¯Å
CHARGER-BASED MOS TRANSISTOR MODELING¡GTHE EKV MODEL FOR LOW-POWER AND RF IC DESIGN
§@ªÌ¡G
ENZ¡BVITTOZ
¤ÀÃþ¡G
¤u·~¡E¤uµ{
¡þ
¹q¤l¡E¹q¾÷
ÂO®Ñ¨t¦C¡G¹ê¥Î¹q¤l
¥Xª©ªÀ¡G
¥þµØ¹Ï®Ñ
¥Xª©¤é´Á¡G2006/9/30
ISBN¡G047085541X
®ÑÄy½s¸¹¡Gkk0159472
¶¼Æ¡G384
©w»ù¡G
1200
¤¸
®Ñ»ùY¦³²§°Ê¡A¥H¥Xª©ªÀ¹ê»Ú©w»ù¬°·Ç
qÁÊ«á¥ß§Y¬°±z¶i³f
qÁÊ«á¥ß§Y¬°±z¶i³f¡G¥Ø«eµL®w¦s¶q,ŪªÌ¤Uq«á,¶}©l¶i¤J½Õ®Ñµ{§Ç,¤@¯ë¤Ñ¼Æ¬ù¬°2-10¤u§@¤é(¤£§t¨Ò°²¤é)¡C
¹ÎÁʼƳ̧C¬° 20 ¥»¥H¤W
µû»ù¼Æ¡G
(½Ð±N·Æ¹«²¾¦Ü¬P¬P³B¶i¦æµû»ù)
¥Ø«e¥§¡µû»ù¡G
¤å¦r³sµ²
½Æ»s»yªk
CHARGER-BASED MOS TRANSISTOR MODELING¡GTHE EKV MODEL FOR LOW-POWER AND RF IC DESIGN
¹Ï¤ù³sµ²
½Æ»s»yªk
¤À
¨É
¤º®e²¤¶
¦PÃþ±ÀÂË
內容簡介
Modern, large-scale analog integrated circuits (ICs) are essentially composed of metal-oxide semiconductor (MOS) transistors and their interconnections. As technology scales down to deep sub-micron dimensions and supply voltage decreases to reduce power consumption, these complex analog circuits are even more dependent on the exact behavior of each transistor. High-performance analog circuit design requires a very detailed model of the transistor, describing accurately its static and dynamic behaviors, its noise and matching limitations and its temperature variations. The charge-based EKV (Enz-Krummenacher-Vittoz) MOS transistor model for IC design has been developed to provide a clear understanding of the device properties, without the use of complicated equations. All the static, dynamic, noise, non-quasi-static models are completely described in terms of the inversion charge at the source and at the drain taking advantage of the symmetry of the device. Thanks to its hierarchical structure, the model offers several coherent description levels, from basic hand calculation equations to complete computer simulation model. It is also compact, with a minimum number of process-dependant device parameters.
目¿ý
Modern, large-scale analog integrated circuits (ICs) are essentially composed of metal-oxide semiconductor (MOS) transistors and their interconnections. As technology scales down to deep sub-micron dimensions and supply voltage decreases to reduce power consumption, these complex analog circuits are even more dependent on the exact behavior of each transistor. High-performance analog circuit design requires a very detailed model of the transistor, describing accurately its static and dynamic behaviors, its noise and matching limitations and its temperature variations. The charge-based EKV (Enz-Krummenacher-Vittoz) MOS transistor model for IC design has been developed to provide a clear understanding of the device properties, without the use of complicated equations. All the static, dynamic, noise, non-quasi-static models are completely described in terms of the inversion charge at the source and at the drain taking advantage of the symmetry of the device. Thanks to its hierarchical structure, the model offers several coherent description levels, from basic hand calculation equations to complete computer simulation model. It is also compact, with a minimum number of process-dependant device parameters.
¥b¾ÉÅé²£·~·§½×
¾÷¾¹¾Ç²ß¡G±q²z½×¨ì¹ê
¥b¾ÉÅé¿nÅé¹q¸ô»sµ{§Þ
LabVIEWµ{¦¡³]
¹q¤l¾Ç(°ò¦·§©À)(
¬Ý¹Ï¾ÇC»y¨¥»P¹Bºâ«ä
¹q¸£ºô»Úºô¸ô¡G¥Ñ¤W¦Ó
LabVIEW»P·P´ú
¹Ï¸Ñ¹qºÏ¾Ç¡G±q·§©À¨ì
¶W¹Ï¸Ñ¹q°Ê¨®ªººc³y»P
¬°¤F«O»Ù±zªºÅv¯q¡A·sµ·¸ôºô¸ô®Ñ©±©ÒÁʶRªº°Ó«~§¡¨É¦³¨ì³f¤C¤ÑªºÅ²½à´Á¡]§t¨Ò°²¤é¡^¡C°h¦^¤§°Ó«~¥²¶·©óŲ½à´Á¤º±H¦^¡]¥H¶lÂW©Î¦¬°õÁp¬°¾Ì¡^¡A¥B°Ó«~¥²¶·¬O¥þ·sª¬ºA»P§¹¾ã¥]¸Ë(°Ó«~¡Bªþ¥ó¡B¤º¥~¥]¸Ë¡BÀH³f¤å¥ó¡BÃØ«~µ¥)¡A§_«h®¤¤£±µ¨ü°h³f¡C