Aa!b ``p` @  P p `H d TQH0̀̀̀ff@{  d{ Footnote TableFootnote**. . / - :;,.!? fX5 haAGAHAQAAnAAA   EquationVariables - ,5 +R7 ,8 ,:2 ,<3 ,>4 ( ' & & & & & & & & & & & & & & & & & & & & & & & & * ) ) * *! *" *# *$ *% *& *' *( * ) * * )+ ), )- ). )/ '0 '1 + + + + + + + + + + ,@5 ,B6 ,D7 ,F8 ,H9 ,J: ,L; ,N< ,P= ,R> ,T? ,W@ ,XA ,YB ,ZC ,\D ,^E ,`F ,bG ,dH ,fI ,iJ -K *pQ  + + + + + + + + + +J gotolink chapX.doc:firstpage $gotolink spectreHDLTOC.doc:firstpage 68893: annx.nmbr: Annex D '61619: chap.title: Standard DefinitionsCurrentChargeVoltageFlux electricalcurrentMagneto_Motive_Forcemagnetic TemperatureWattsthermalPositionVelocity AccelerationImpulse Force! kinematic" kinematic_v#angle$Angular_Velocity%Angular_Acceleration& Angular_Force' rotational(rotational_omega)M_E*M_LOG2E+M_LOG10E,M_LN2-M_LN10.M_PI/M_TWO_PI0M_PI_21M_PI_42M_1_PI3M_2_PI4 M_2_SQRTPI5M_SQRT26 M_SQRT1_27P_Q8P_C9P_K:P_K;P_EPS0<P_U0= P_CELSIUS0 gotolink preface.doc:firstpage gotolink chap1.doc:firstpage gotolink chap2.doc:firstpageJ gotolink chap3.doc:firstpageK gotolink chap4.doc:firstpageL gotolink chap5.doc:firstpageM gotolink chap6.doc:firstpageN gotolink chap7.doc:firstpageO gotolink chap8.doc:firstpageP gotolink chap9.doc:firstpageQ gotolink appA.doc:firstpageR gotolink appB.doc:firstpageS gotolink gloss.doc:1T gotopage spectreHDLIX.doc:1U gotolink ../../dir/doc:firstpageV gotolink ../../dir/doc:firstpageW Ealert Use an openlink not a gotolink to your workbench titles screen.X gotolink Y gotolink titlcopy:lastpageZ %gotolink preface.doc:customer support[ gotolink kpns\ gotolink productnotes] gotolink critique:firstpage^ gotolink ../profile:firstpage_ lalert Use a gotolink to the next chapter first page, place this frame over the right arrow on the body page.l -68660: annxsec1: D.3 The driver_access.v file 36212: chap.nmbr: Section 5      ?<$lastpagenum><$monthname> <$year>"<$monthnum>/<$daynum>/<$shortyear>;<$monthname> <$daynum>, <$year> <$hour>:<$minute00> <$ampm>"<$monthnum>/<$daynum>/<$shortyear><$monthname> <$daynum>, <$year>"<$monthnum>/<$daynum>/<$shortyear> <$fullfilename> <$filename> <$paratext[annx.title]> <$paranumonly[annx.nmbr]>- <$curpagenum> <$paratext[annxsec1,sec2.alt]> <$marker2>DateSeptember 2004%, continuedFigure #, title,<$paranum>, <$paratext>, Figure #, title.<$paranum>, <$paratext>. section on page:<$paratext> section (<$paranumonly> on page <$pagenum>) Chapter,.Chapter <$paratext[chap.nmbr]>, <$paratext>, Appendix,/Appendix <$paratext[chap.nmbr]>, <$paratext>,+ (Sheet <$tblsheetnum> of <$tblsheetcount>) Manual Name%Verilog-AMS Language Reference Manual Release DateSeptember 2004Version Version 2.2IEEE1364$IEEE 1364-1995 Verilog HDLVAMS HDLVerilog-AMS HDLFigure #Figure<$paranumonly> Appendix./Appendix <$paratext[chap.nmbr]>, <$paratext>.Chapter..Chapter <$paratext[chap.nmbr]>, <$paratext>.Figure #, title, on pageD<$paranum>, <$paratext>, on page <$paratext[chap.nmbr]><$pagenum>Appendix.Appendix <$paratext[chap.nmbr]>, <$paratext>Chapter-Chapter <$paratext[chap.nmbr]>, <$paratext>Figure # on page4<$paranum> on page <$paratext[chap.nmbr]><$pagenum>Pagepage<$pagenum>Heading & Page <$paratext> on page<$pagenum>Section & Page%section <$paranum> on page <$pagenum> help topic4see the help topic <$paratext>.chapter<$paranum[chap.nmbr]> section title <$paratext>section number <$paranum>See Heading & Page%See <$paratext> on page<$pagenum>. Table All7Table<$paranumonly>, <$paratext>, on page<$pagenum>Table Number & Page'Table<$paranumonly> on page<$pagenum>paranum <$paranum>App <$paranum>section # only <$paranum>SectionSection<$paranum>TableTable<$paranumonly>figurefigure <$paranumonly> see sectionSee section <$paranumonly>$paranum <$paranum>ASection<$paranum[Section,SubSection]>sectionsection <$paranum[sec2]>Section # on page
on page <$paratext[chap.nmbr]><$pagenum> Section All9Section<$paranumonly>, <$paratext>, on page<$pagenum>Section NumberSection<$paranumonly> Chapter num <$paranum> chapter name <$paratext>Syntax #Syntax<$paranumonly> $paratext <$paratext> table_foot<$paranumonly> <$chapnum>A  A A 99contents;;other==@@BBPJAqqAssuuww +p +o +q ,6n +`Annex C +l +m Annex D ,7} +o  +o ,9} ,;} ,=} ,?} +| ,A} ,C} ,E} ,G} *  +oG  s (D.1 & &  ' !(   & &    !u ( . 4u 6 & Lw Su U a n {    u       %k ( D.2 )uu *u * , -z *T )z - -z *V D.3 &z &z { (s ,I} ,K} ,M} ,O} ,Q} ,S} ,U} ,V} ,[} ,]} ,_} ,a} ,c} ,e} ,g} ,h~ ,j ,k~ )uu  *Wz *Xz *Yz )΀z *Zz )܀zz )zz )zz *[z *\z *bz *cz *dz *ez +p +o +q +od + d + HTs +HTs l HTs +HTsW d H +H  l H +H TW.|m>Version 2.2.?@Verilog-AMS Language Reference ManualAD#/E. H* + H*  l H* +H* W.l;FRunning H/F 3G0.HRunning H/F 1I H +H  l H +H  W .d r + r  l r +rr l 8d W nd 0l + 0l l 0l +0l  W .d d +z` +z`l z` +z` W d 0l +0ll 0l +0l W.d . d -;GGd , E` p$ ,"` p$!!  l ` p$ ,` p$ W-UTUTm H/Rn , #H/RnHH Footnote HE/n ,"$HE/nHMHM Single LineH$ ,#&%%Footnote  ,$   HlTn ,$'HlTnHuHu Double LineHz$ ,&*() Double Line ,')   1 ,'(111HT$ ,',++ Single Line  ,*     HZ ,*- TableFootnoteF ,,/..sec1 , -D晙x$ , -100sec2x$ , /x$wAx$ , /322sec3x$ ,! 1x$x$DDƧ ,"1544sec2.top ,#3 D1@n ,$ 36D1@nD:D: sec2.top B@Rn ,% 57B@RnB B  sec3 C@Rn ,& 68C@RnCC sec2 E@Rn ,' 79E@RnEE sec1Bb ,(8;Bb:: l Bb ,)Bb9 eSpectre HDL Reference Manual  mTable of Contents   mPreface : Before You Start m"Chapter 1: Modeling Concepts  m"Chapter 2: Module Definition m$Chapter 3: Simulator InterfaceJ m"Chapter 4: Advanced ModelingK m$Chapter 5: Lexical ConventionsL mChapter 6: DeclarationsM Pm"Chapter 7: Accessing SignalsN QmChapter 8: ExpressionsO RmChapter 9: StatementsP Sm1Appendix A: SpectreHDL Sample Model LibraryQ Tm6Appendix B: Useful Constants and Function SyntaxR UmGlossaryS AVm Index T yd_q@ ,*9=yd_q@<< l yd_q@ ,+yd_q@];W4eOTHER INFORMATION : X m,Spectre Reference ManuaUVWX YmCopyrightsY ZmCustomer SupportZ [m Known Problems & Solutions[ \mProduct Notes\ ]mReader Critique] A^mReader Profile^ UH ,,;?UH >> l UH ,-UH =W_5e Click here. $ ,.=@$ ! ,/?B !AA l  ! ,0 !@W`-UTUTm_ v ,1@DEDv CC l v ,2v BWa5e6Place this text frame over the last page of the file. {$ ,3BEEB{${{v ,4 Dv BD HTs -<HTsnLKKG KUTUTl+lThe driver_access.vams file id?define DRIVER_UNKNOWN32b00000000000// No information jdJdefine DRIVER_DELAYED 32b00000000001// driver has fixed delay kdIdefine DRIVER_GATE 32b00000000010// driver is a primitive mdPdefine DRIVER_UDP 32b00000000100// driver is a user defined primitive qdRdefine DRIVER_ASSIGN 32b00000001000// driver is a continuous assignment rdCdefine DRIVER_BEHAVIORAL 32b00000010000// driver is a reg FdUdefine DRIVER_SDF 32b00000100000// driver is from backannotated code JULUUUClPdefine DRIVER_NODELETE 32b00001000000// events wont be deleted` vUBdNdefine DRIVER_NOPREEMPT 32b00010000000// events wont be preempted wwdKdefine DRIVER_KERNEL32b00100000000 // added by kernel (wor/wand) xdCdefine DRIVER_WOR32b01000000000// driver is on a wor net ydEdefine DRIVER_WAND32b10000000000// driver is on a wand net WO d HTs ->HTseJFF ld -EJJ 0Ts -FH0TsJ 0Ts -HH0TsGIIl~H» -H»F`WI;dFor optimization d PP HTsoNHTsPl 8lStandard definitions  n$UThis annex contains the standard definition packages (disciplines.vams  and R|D*constants.vams ) for Verilog-AMS HDL. HTs 'NHTsSOO ld SS 0TsoQ0Ts%%SUTUTd$The disciplines.vams file ,$`ifdef  DISCIPLINES_VAMS `else D `define  DISCIPLINES_VAMS 1  M$// Y// Natures and Disciplines ED//  ,w$discipline  logic  ,domain discrete ; ,IDenddiscipline ! $/* B* Default absolute tolerances may be overridden by setting the 6* appropriate _ABSTOL prior to including this file D*/ "תd// Electrical #“$// Current in amperes , nature Current ,units = "A"; ,access = I; v ,idt_nature = Charge; ,v`ifdef CURRENT_ABSTOL ),abstol = `CURRENT_ABSTOL; ,`else ,abstol = 1e-12; ",`endif D endnature $s$// Charge in coulombs , nature Charge ߉ ,units = "coul"; Mq,access = Q; i!,ddt_nature = Current; ,b`ifdef CHARGE_ABSTOL b(,abstol = `CHARGE_ABSTOL; ,`else ,abstol = 1e-14; b,`endif D endnature 0Ts 'Q0TsPVRRld VV HTsoTHTs=--V%$// Potential in volts , nature Voltage ,units = "V"; 0,access = V; ,idt_nature = Flux; ,`ifdef VOLTAGE_ABSTOL ),abstol = `VOLTAGE_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature &$// Flux in Webers , nature  Flux  _,units = "Wb"; ,access = Phi; !,ddt_nature = Voltage; ,`ifdef FLUX_ABSTOL &,abstol = `FLUX_ABSTOL; ,`else ,abstol = 1e-9; ",`endif D endnature '$// Conservative discipline ,& discipline electrical V*!,potential Voltage; x!,flow Current; ,Denddiscipline (\$// Signal flow disciplines ,hdiscipline voltage !,potential Voltage; ,Denddiscipline ),discipline current !,potential Current; ,:Denddiscipline *d // Magnetic +$(// Magnetomotive force in Ampere-Turns. , &nature Magneto_Motive_Force UR",units = "A*turn"; UR,access = MMF; ,?kZ(`ifdef MAGNETO_MOTIVE_FORCE_ABSTOL =r6,abstol = `MAGNETO_MOTIVE_FORCE_ABSTOL; ,=r`else ,abstol = 1e-12; b,`endif D endnature HTs 'THTsSYUU ld !YY 0Tso W0Ts%++Y,$// Conservative discipline , discipline magnetic B.,potential Magneto_Motive_Force; G,flow Flux; ,Denddiscipline -تd // Thermal .Ž$// Temperature in Kelvin , nature Temperature ,units = "K"; ",access = Temp; ,w`ifdef TEMPERATURE_ABSTOL U:-,abstol = `TEMPERATURE_ABSTOL; ,U:`else ,abstol = 1e-4; ",`endif D endnature /h,// Power in Watts ,tnature Power P\,units = "W"; \,access = Pwr; ,~`ifdef POWER_ABSTOL 0*',abstol = `POWER_ABSTOL; ,uV`else uV,abstol = 1e-9; ",`endif D endnature 0檅$// Conservative discipline , discipline thermal H%,potential Temperature; (:,flow Power; ,x(Denddiscipline 1d // Kinematic 2$// Position in meters , nature Position UR,units = "m"; UR,access = Pos;  <",ddt_nature = Velocity; ,`ifdef POSITION_ABSTOL k*,abstol = `POSITION_ABSTOL; ,L`else L,abstol = 1e-6; b,`endif D endnature 0Ts 'W0TsV\XXld !\\ HTso$ZHTsm22\3$!// Velocity in meters per second , nature Velocity CUJ,units = "m/s"; IUD,access = Vel; &,ddt_nature = Acceleration; ",idt_nature = Position; ,`ifdef VELOCITY_ABSTOL *,abstol = `VELOCITY_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature 48$-// Acceleration in meters per second squared ,D nature Acceleration * !,units = "m/s^2"; ,access = Acc; 6\!,ddt_nature = Impulse;  ",idt_nature = Velocity; ,  `ifdef ACCELERATION_ABSTOL .,abstol = `ACCELERATION_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature 5Ϊ$&// Impulse in meters per second cubed ,ڪ nature Impulse 7V!,units = "m/s^3"; q,access = Imp; ܓ&,idt_nature = Acceleration; ,ٹV`ifdef IMPULSE_ABSTOL ),abstol = `IMPULSE_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature 6$// Force in Newtons , nature  Force ,units = "N"; ,access = F; ,`ifdef FORCE_ABSTOL ^',abstol = `FORCE_ABSTOL; ,`else w,abstol = 1e-6; 2,w`endif D endnature 7$// Conservative disciplines , discipline !kinematic Z",potential Position; UL,flow Force; R,SDenddiscipline HTs 'ZHTsY_[[ ld !__ 0Tso(]0Tsg11_8,ƪ,!discipline "kinematic_v Ҫ",potential Velocity; Ъ,flow Force; ,Denddiscipline 9d// Rotational :,O$// Angle in radians , nature #Angle ث# ,units = "rads"; hk,access = Theta; !V*,ddt_nature = Angular_Velocity; ,!V`ifdef ANGLE_ABSTOL ',abstol = `ANGLE_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature ;$*// Angular Velocity in radians per second , "nature $Angular_Velocity ž",units = "rads/s"; <,access = Omega; ‚.,ddt_nature = Angular_Acceleration; ,idt_nature = Angle; ,$`ifdef ANGULAR_VELOCITY_ABSTOL 2,abstol = `ANGULAR_VELOCITY_ABSTOL; ,`else ,abstol = 1e-6; ",`endif D endnature <$6// Angular acceleration in radians per second squared , &nature %Angular_Acceleration $,units = "rads/s^2"; ,access = Alpha; Ġ*,idt_nature = Angular_Velocity; ,fC(`ifdef ANGULAR_ACCELERATION_ABSTOL t186,abstol = `ANGULAR_ACCELERATION_ABSTOL; ,t18`else ,abstol = 1e-6; ",`endif D endnature =$// Torque in Newtons , nature &Angular_Force _,units = "N*m"; ,access = Tau; ,e^!`ifdef ANGULAR_FORCE_ABSTOL JH/,abstol = `ANGULAR_FORCE_ABSTOL; ,`else ٔ,abstol = 1e-6; r,ٔ`endif D endnature 0Ts ']0Ts\b^^ld ! bb HTso,`HTsD  b>$// Conservative disciplines , discipline 'rotational ,potential Angle; -U',flow Angular_Force; ,MUDenddiscipline ?P,&discipline (rotational_omega \*,potential Angular_Velocity; ~',flow Angular_Force; ,_Denddiscipline Q@d`endif HTs '`HTs_eaa ld ! ee 0Tso0c0TsD&&eAUTUTd"The constants.vams file gd'// Mathematical and physical constants ,$`ifdef CONSTANTS_VAMS A`else HD`define CONSTANTS_VAMS 1 C_d // M_ is a mathmatical constant D,o,6`define)M_E2.7182818284590452354 } :`define*M_LOG2E1.4426950408889634074 { <`define+M_LOG10E0.43429448190325182765 d 9`define,M_LN20.69314718055994530942 0d  :`define-M_LN102.30258509299404568402  8`define.M_PI3.14159265358979323846  <`define/M_TWO_PI6.28318530717958647652  :`define0M_PI_21.57079632679489661923  :`define1M_PI_40.78539816339744830962  :`define2M_1_PI0.31830988618379067154  :`define3M_2_PI0.63661977236758134308  >`define4M_2_SQRTPI1.12837916709551257390  ;`define5M_SQRT21.41421356237309504880 L=`define6M_SQRT1_20.70710678118654752440 Gd EdH// The following constants have been taken from http://physics.nist.gov B7d// P_ is a physical constant lf$#// charge of electron in coulombs ,UL0`define7P_Q1.602176462e-19 Hg$*// speed of light in vacuum in meters/sec ,sL-`define8P_C2.99792458e8 p$)// Boltzmann's constant in joules/kelvin ,L.`define9P_K1.3806503e-23 o$#// Plancks constant in joules*sec ,L/`define:P_K6.62606876e-34 n$/// permittivity of vacuum in farads/meter ,ͪL.`define;P_EPS08.854187817e-12 Lߪ$*// permeability of vacuum in henrys/meter ,몇LD`define<P_U0(4.0e-7 * `M_PI) (12.566370614e-7) M$// zero celsius in kelvin , L.`define=P_CELSIUS0273.15 QNd`endif 0Ts '`c0TsbGddl d +qw0Ts +ps0Tsrrl 0Ts +p0TsqW{ d 0 +pqu0 ttl 0 +p0 TsW||gu#/v.wVerilog-AMS Language Reference ManualxyVersion 2.2.z 0* +psw0* vvl 0* +p0* uW}.l;{Running H/F 1|0.}Running H/F 3~ 0 +pu0xxl 0 +p0 wW~.d dpLeftdRightdChapterdchap.toc d Referenced Nd Qd Td Wd Zd ]d `dcdd H f@GE   A1FigTitleG:Figure.T,Text. f@QE   A1TableTitleQ:Table.T,Text. f@GE   AFigTitleG:Figure.T, Text. f@   6 Q l       ) D _ CellBody. f@   CellHeading. @@AE  annx.nmbr A:Annex chap.title. @@Q  0 annxsec3 ...< =0>< >< >< >\tpara.12. @@AE  annx.nmbr A:Annex chap.title. f@QE   ATableTitleQ:Table.T,Text.  @@Q 0 annxsec1$.< =0>< =0>< =0>< >< >< >\tpara.12.  @@Q 0 annxsec1$.< =0>< =0>< =0>< >< >< >\tpara.12. $@@P  annx.titlesec1TOC. $@@P  annx.titlesec1TOC. @@@  6         , > P b deftabledeftable. f@ Body.  @@Q 0 annxsec1%.< =0>< =0>< =0>< >< >< >\tpara.12. HH@@  problem. ff@  $ H l      D h  CellCode. @@  6         , > P b deftable.  @@Q  0 gloss.sym< >para.12. 7@@E  chap.nmbr Annex chap.title. @@A   TableTitle!Table < >< >< >< >-< >< > Body. f@  CellTop. @@f  x  figure.tablef:\tFigure <2>-<+>\t. f@  CellFooting. f@T   TableTitleT:Table : . f@f  x $ TableTitle Single Linef:\tFigure <2>-<+>\t. f@f  x $ TableTitlef:\tFigure <2>-<+>\t. @@   $ 6 H Z l ~         , > P b prog.left. $@@P  chap.titlesec1TOC. lZ@@  .sec2TOC. f@-  para. @@ .   Footer. @@  Body. @@ 0  Header. HH@@  para.12. @@   $ 6 H Z l ~   code.left. @@   $ 6 H Z l ~         , > P b prog.left. @@  6         , > P b deftable. @@    $ 6 H Z l ~   code.left. ZH@@  .sec1TOC. @@  callout. f@  Body. f@-  para.  f@ ;  Footnote. f@ Body. @@   $ 6 H Z l ~   code.left. @@Q  8 annxsec2!..< =0>< =0>< >< >< >\tpara.12. @@ x  arguments\t. f@ Body. lZ @@ l bullet\t. f@  Bulleted\t. $@@ $ bulletsubzapf9q\t. @@ callout. @@  caution. f@ CellBody. f@  CellBottom. f@  CellHeading. f@   CellSubHead. Ef@ CellTop. @@HE  chap.nmbrH:Section chap.title. $@@P  chap.titlesec1TOC. @@   $ 6 H Z l ~   code.left. $@@ y  example. @@  fig.caption. @@   fig.subtitle. @@!  figure Figure < >< >< >< >< >-: . @@f  x  figure.contf:\tFigure <2>-<#>\t. @@   figure.nonum. @@f  x  figure.tablef:\tFigure <2>-<+>\t. @@  flowchart. f@   Footnote. HH @@  gloss.def. @@P  x  gloss.term gloss.def. $ @@ $ hang.indent. $@@ $ hang.indent1. f@T Heading1Body. f@T  Heading2Body. f@T   HeadingRunInBody. @@  important. @@ indent. $$@@ 6 indent2. f@  Indented. @@ list. @@ ] menu.tag. lZ @@n l nmbrn:<+>.\t. lZ @@nA l nmbrfirstn:<1>.\tnmbr. $@@nA  nmbrfirst.36 n:<1>\.\tnmbr. @@ notenoteboldNote: . @@  note.indentnoteboldNote: . f@  Numbered.\t. f@E  Numbered1.\tNumbered. HH@@ para.12. @@  para.12.top. @@ para.6. HH@@ para.6.divider. @@@  parafirstpara.12. @@  parafirst.24. $@@@  parafirst.toppara.12. @@  prog.courier. @@ $ 6 H Z l ~          2 D V prog.indent. @@  $ 6 H Z l ~         , > P b prog.left. $@@        prog.left.36. @@  $ 6 H Z l ~          2 D V h z       prog.wide.  @@HQ 0 sec1 H:.\tpara.12. 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