參數(shù)資料
型號: 935266871557
廠商: NXP SEMICONDUCTORS
元件分類: 消費家電
英文描述: SPECIALTY CONSUMER CIRCUIT, PBGA292
封裝: PLASTIC, SOT-553-1, BGA-292
文件頁數(shù): 423/532頁
文件大?。?/td> 1895K
代理商: 935266871557
第1頁第2頁第3頁第4頁第5頁第6頁第7頁第8頁第9頁第10頁第11頁第12頁第13頁第14頁第15頁第16頁第17頁第18頁第19頁第20頁第21頁第22頁第23頁第24頁第25頁第26頁第27頁第28頁第29頁第30頁第31頁第32頁第33頁第34頁第35頁第36頁第37頁第38頁第39頁第40頁第41頁第42頁第43頁第44頁第45頁第46頁第47頁第48頁第49頁第50頁第51頁第52頁第53頁第54頁第55頁第56頁第57頁第58頁第59頁第60頁第61頁第62頁第63頁第64頁第65頁第66頁第67頁第68頁第69頁第70頁第71頁第72頁第73頁第74頁第75頁第76頁第77頁第78頁第79頁第80頁第81頁第82頁第83頁第84頁第85頁第86頁第87頁第88頁第89頁第90頁第91頁第92頁第93頁第94頁第95頁第96頁第97頁第98頁第99頁第100頁第101頁第102頁第103頁第104頁第105頁第106頁第107頁第108頁第109頁第110頁第111頁第112頁第113頁第114頁第115頁第116頁第117頁第118頁第119頁第120頁第121頁第122頁第123頁第124頁第125頁第126頁第127頁第128頁第129頁第130頁第131頁第132頁第133頁第134頁第135頁第136頁第137頁第138頁第139頁第140頁第141頁第142頁第143頁第144頁第145頁第146頁第147頁第148頁第149頁第150頁第151頁第152頁第153頁第154頁第155頁第156頁第157頁第158頁第159頁第160頁第161頁第162頁第163頁第164頁第165頁第166頁第167頁第168頁第169頁第170頁第171頁第172頁第173頁第174頁第175頁第176頁第177頁第178頁第179頁第180頁第181頁第182頁第183頁第184頁第185頁第186頁第187頁第188頁第189頁第190頁第191頁第192頁第193頁第194頁第195頁第196頁第197頁第198頁第199頁第200頁第201頁第202頁第203頁第204頁第205頁第206頁第207頁第208頁第209頁第210頁第211頁第212頁第213頁第214頁第215頁第216頁第217頁第218頁第219頁第220頁第221頁第222頁第223頁第224頁第225頁第226頁第227頁第228頁第229頁第230頁第231頁第232頁第233頁第234頁第235頁第236頁第237頁第238頁第239頁第240頁第241頁第242頁第243頁第244頁第245頁第246頁第247頁第248頁第249頁第250頁第251頁第252頁第253頁第254頁第255頁第256頁第257頁第258頁第259頁第260頁第261頁第262頁第263頁第264頁第265頁第266頁第267頁第268頁第269頁第270頁第271頁第272頁第273頁第274頁第275頁第276頁第277頁第278頁第279頁第280頁第281頁第282頁第283頁第284頁第285頁第286頁第287頁第288頁第289頁第290頁第291頁第292頁第293頁第294頁第295頁第296頁第297頁第298頁第299頁第300頁第301頁第302頁第303頁第304頁第305頁第306頁第307頁第308頁第309頁第310頁第311頁第312頁第313頁第314頁第315頁第316頁第317頁第318頁第319頁第320頁第321頁第322頁第323頁第324頁第325頁第326頁第327頁第328頁第329頁第330頁第331頁第332頁第333頁第334頁第335頁第336頁第337頁第338頁第339頁第340頁第341頁第342頁第343頁第344頁第345頁第346頁第347頁第348頁第349頁第350頁第351頁第352頁第353頁第354頁第355頁第356頁第357頁第358頁第359頁第360頁第361頁第362頁第363頁第364頁第365頁第366頁第367頁第368頁第369頁第370頁第371頁第372頁第373頁第374頁第375頁第376頁第377頁第378頁第379頁第380頁第381頁第382頁第383頁第384頁第385頁第386頁第387頁第388頁第389頁第390頁第391頁第392頁第393頁第394頁第395頁第396頁第397頁第398頁第399頁第400頁第401頁第402頁第403頁第404頁第405頁第406頁第407頁第408頁第409頁第410頁第411頁第412頁第413頁第414頁第415頁第416頁第417頁第418頁第419頁第420頁第421頁第422頁當前第423頁第424頁第425頁第426頁第427頁第428頁第429頁第430頁第431頁第432頁第433頁第434頁第435頁第436頁第437頁第438頁第439頁第440頁第441頁第442頁第443頁第444頁第445頁第446頁第447頁第448頁第449頁第450頁第451頁第452頁第453頁第454頁第455頁第456頁第457頁第458頁第459頁第460頁第461頁第462頁第463頁第464頁第465頁第466頁第467頁第468頁第469頁第470頁第471頁第472頁第473頁第474頁第475頁第476頁第477頁第478頁第479頁第480頁第481頁第482頁第483頁第484頁第485頁第486頁第487頁第488頁第489頁第490頁第491頁第492頁第493頁第494頁第495頁第496頁第497頁第498頁第499頁第500頁第501頁第502頁第503頁第504頁第505頁第506頁第507頁第508頁第509頁第510頁第511頁第512頁第513頁第514頁第515頁第516頁第517頁第518頁第519頁第520頁第521頁第522頁第523頁第524頁第525頁第526頁第527頁第528頁第529頁第530頁第531頁第532頁
TM1300 Data Book
Philips Semiconductors
2-4
PRODUCT SPECIFICATION
Although the processor core runs a real-time operating
system to coordinate all activities in the TM1300 system,
the core is not intended for true general-purpose comput-
er use. For example, the TM1300 processor core does
not implement demand-paged virtual memory, memory
address translation, or 64-bit floating point - all essential
features in a general-purpose computer system.
TM1300 uses a VLIW architecture to maximize proces-
sor throughput at the lowest possible cost. VLIW archi-
tectures have performance exceeding that of supersca-
lar
general-purpose
CPUs
without
the
cost
and
complexity of a superscalar CPU implementation. The
hardware saved by eliminating superscalar logic reduces
cost and allows the integration of multimedia-specific
features that enhance the power of the processor core.
The TM1300 operation set includes all traditional micro-
processor operations. In addition, multimedia operations
are included that dramatically accelerate standard video
and audio compression and decompression algorithms.
As just one of the five operations issued in a single
TM1300 instruction, a single ‘custom’ or ‘media’ opera-
tion can implement up to 11 traditional microprocessor
operations. These multimedia operations combined with
the VLIW architecture result in tremendous throughput
for multimedia applications.
The DSPCPU core is supported by separate 16-KB data
and 32-KB instruction caches. The data cache is dual-
ported to allow two simultaneous accesses; both caches
are 8-way set-associative with a 64-byte block size.
2.5.3
Video In Unit
The Video In (VI) unit interfaces directly to any CCIR
601/656-compliant device that outputs 8-bit parallel,
4:2:2 YUV time-multiplexed data. Such devices include
direct digital camera systems, which can connect glue-
lessly to TM1300 or through the standard CCIR 656 con-
nector with only the addition of ECL level converters. A
single chip external device can be used to convert to/
from serial D1 professional video. Non-CCIR-compliant
devices can use a digital video decoder chip, such as the
Philips SAA7113H, to interface to TM1300.
The VI unit demultiplexes the captured YUV data before
writing it into local TM1300 SDRAM. Separate planar
data structures are maintained for Y, U, and V.
The VI unit can be programmed to perform on-the-fly
horizontal resolution subsampling by a factor of two if
needed. Many camera systems capture a 640-pixel/line
or 720-pixel/line image. With subsampling, direct conver-
sion to a 320-pixel/line or a 360-pixel/line image can be
performed with no DSPCPU intervention. Performing
this function during video input reduces initial storage
and bus bandwidth requirements for applications requir-
ing reduced resolution.
2.5.4
Enhanced Video Out Unit
The Enhanced Video Out (EVO) unit essentially per-
forms the inverse function of the VI unit. EVO generates
an 8-bit, CCIR656 digital video data stream that contains
a composited video and graphics overlay image. The vid-
eo image is taken from separate Y, U, and V planar data
structures in SDRAM. The graphics overlay is taken from
a pixel-packed YUV data structure in SDRAM. Compos-
iting allows both alpha-blending and chroma keying.
The EVO unit can also upscale the video image horizon-
tally by a factor of two to convert from CIF/SIF to CCIR
601 resolution. The overlay image, if enabled, is always
in full-pixel resolution.
The EVO unit is capable of pixel emission rates up to 40
Mpix/sec and allows full programming of a horizontal and
vertical frame/field structure. It is thus capable of refresh-
ing both interlaced and non-interlaced (‘two fh’) video dis-
plays with 4:3 or 16:9 or other aspect ratios.
The sample rate for EVO unit pixels is independently and
dynamically programmable. The high-quality, on-chip
sample clock generator circuit allows the programmer
subtle control over the sampling frequency so that audio
and video synchronization can be achieved in any sys-
tem configuration. When changing the sample frequen-
cy, the instantaneous phase does not change, which al-
lows sample frequency manipulation without introducing
audio or video distortion.
2.5.5
Image Coprocessor
The ICP off-loads common image scaling or filtering
tasks from the DSPCPU. Although these tasks can be
easily performed by the DSPCPU, they are a poor use of
the relatively expensive CPU resource. When performed
in parallel by the ICP, these tasks are performed effi-
ciently by simple hardware, which allows the DSPCPU to
continue with more complex tasks.
The ICP can operate as either a memory-to-memory or
a memory-to-PCI coprocessor device.
In memory-to-memory mode, the ICP can perform either
horizontal or vertical image filtering and resizing. A high
quality algorithm is used (5-tap polyphase filter in each
direction). Filtering or scaling is done in either the hori-
zontal or vertical direction in one pass. Two invocations
of the ICP are required to filter or resize in both direc-
tions.
In memory-to-PCI mode, the ICP can perform horizontal
resizing followed by color-space conversion. For exam-
ple, assume an n
× m pixel array is to be displayed in a
window on the PC video screen while the PC is running
a graphical user interface. The first step (if necessary)
would use the ICP in memory-to-memory mode to per-
form a vertical resizing. The second step would use the
ICP in memory-to-PCI mode to perform horizontal resiz-
ing and optional colorspace conversion from YUV to
RGB.
While sending the final, resampled and converted pixels
over the PCI bus to the video frame buffer, the ICP uses
a full, per-pixel occlusion bit mask—accessed in destina-
tion coordinates—to determine which pixels are actually
written to the graphics card frame buffer for display. Con-
ditioning the transfer with the bit mask allows TM1300 to
accommodate an arbitrary arrangement of overlapping
windows on the PC video screen.
相關(guān)PDF資料
PDF描述
935266917557 SPECIALTY CONSUMER CIRCUIT, PBGA292
935268386557 SPECIALTY CONSUMER CIRCUIT, PBGA292
935267050025 SPECIALTY CONSUMER CIRCUIT, UUC
935267053005 SPECIALTY CONSUMER CIRCUIT, UUC
935267052005 SPECIALTY CONSUMER CIRCUIT, UUC
相關(guān)代理商/技術(shù)參數(shù)
參數(shù)描述
935267356112 制造商:NXP Semiconductors 功能描述:IC TEA1507PN
935268081112 制造商:NXP Semiconductors 功能描述:SUB ONLY IC
935268721125 制造商:NXP Semiconductors 功能描述:Buffer/Line Driver 1-CH Non-Inverting 3-ST CMOS 5-Pin TSSOP T/R
935269304128 制造商:ST-Ericsson 功能描述:IC AUDIO CODEC W/TCH SCRN 48LQFP
935269544557 制造商:NXP Semiconductors 功能描述:SUB ONLY TDA9587-2US1-V1.3