R命令速查手册

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SAP-PP-代码大全

描述
Menu 菜单 Process order: Archiving prep. prg. 工艺订单 : 归档准备程序 Process Order: Archiving 工艺订单 : 归档 Process Order: Retrieval - Archive 工艺订单 : 检索 - 归档 Process Order: Archive Management 工艺订单 : 档案管理 PPPI Simulate archiving lists PPPI 模拟归档清单 Process Order Archiving 工艺订单归档 Process order: Delete archiving 工艺订单 : 删除归档 PPPI Read process data from archive PPPI 从档案文件中读工艺数据 Menu 菜单 PP-PI: Archive Batch Record PP-PI: 归档批量记录 Current settings process order 当前的设置工艺订单 Read Batch Record from Archive 从存档中读取批量记录 PP-PI: Simulate Batch Record PP-PI: 模拟批量记录 Process Data Document: Archive 工艺数据文档 : 档案文件 Print Process Order 打印工艺订单 Print Process Order ShopFloor Papers 打印工艺订单车间文档 Create Process Order 创建工艺订单 Change Process Order 更改工艺订单 Display Process Order 显示工艺订单 Customizing Process Order RecTypePar 系统定制工艺订单记录类型参数 Collective Process Order Release 汇总工艺订单下达

SAP-PP-代码大全

Single Process Order Confirmation 单个工艺订单确认 Convert Planned Order to Proc. Order 将计划订单转换为生产订单 Coll. Conv.: Pl. Orders to Proc.Ord. 汇总转换: Pl. 订单至工艺订单 Process order, sched. ext .rel. 工艺订单 , 计划外部关系 Total process order confirmations 总计工艺订单确认 Mass Processing 批量处理 Create process order w/o material 创建无物料的工艺订单 Collective Proc. Order Confirmation 汇总工艺订单确认 Cancel Process Order Confirmation 取消工艺订单确认 Display Process Order Confirmation 显示工艺订单确认 Process order time event confirm. 工艺订单时间事件确认 Create Order (internally) 创建订单 (在内部) Customizing matchcode for proc. ord. 工艺订单的系统定制匹配码 Report shipment log 报告发运日志 Assembly planning 装配计划 Calculate takt time 计算 takt 时间 Change takt time 改变 takt 时间 Display takt time 显示 takt 时间 Create line hierarchy 创建线性层次 Change line hierarchy 更改线性层次 Display line hierarchy 显示线性层次 Collective availability check PAUF 汇总可用性检查 PAUF Customizing - line design 定制-行设计 Sequencing 排序 Change sequence schedule 修改顺序计划 Display sequence schedule 显示顺序计划 Customizing for seqeuncing: Display 为排序定制:显示 Customizing for sequencing: Planning 为序列化定制:计划

ARM指令速查手册

ARM Instruction SetQuick Reference CardKey to Tables{cond}Refer to Table Condition Field {cond}<a_mode2>Refer to Table Addressing Mode 2<Oprnd2>Refer to Table Operand 2<a_mode2P>Refer to Table Addressing Mode 2 (Post-indexed only)<fields>Refer to Table PSR fields<a_mode3>Refer to Table Addressing Mode 3{S}Updates condition flags if S present<a_mode4L>Refer to Table Addressing Mode 4 (Block load or Stack pop) C*, V*Flag is unpredictable after these instructions in Architecture v4 and earlier<a_mode4S>Refer to Table Addressing Mode 4 (Block store or Stack push) Q Sticky flag. Always updates on overflow (no S option). Read and reset using MRS and MSR<a_mode5>Refer to Table Addressing Mode 5x,y B meaning half-register [15:0], or T meaning [31:16]<reglist> A comma-separated list of registers, enclosed in braces ( { and } )<immed_8r> A 32-bit constant, formed by right-rotating an 8-bit value by an even number of bits{!}Updates base register after data transfer if ! present<immed_8*4> A 10-bit constant, formed by left-shifting an 8-bit value by two bits§Refer to Table ARM architecture versionsOperation§Assembler S updates Q Action NotesMove Move MOV{cond}{S} Rd, <Oprnd2>N Z C Rd := Oprnd2NOT MVN{cond}{S} Rd, <Oprnd2>N Z C Rd := 0xFFFFFFFF EOR Oprnd2SPSR to register3MRS{cond} Rd, SPSR Rd := SPSRCPSR to register3MRS{cond} Rd, CPSR Rd := CPSRregister to SPSR3MSR{cond} SPSR_<fields>, Rm SPSR := Rm (selected bytes only)register to CPSR3MSR{cond} CPSR_<fields>, Rm CPSR := Rm (selected bytes only)immediate to SPSR3MSR{cond} SPSR_<fields>, #<immed_8r>SPSR := immed_8r (selected bytes only)immediate to CPSR3MSR{cond} CPSR_<fields>, #<immed_8r>CPSR := immed_8r (selected bytes only)Arithmetic Add ADD{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Rn + Oprnd2with carry ADC{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Rn + Oprnd2 + Carrysaturating5E QADD{cond} Rd, Rm, Rn Q Rd := SAT(Rm + Rn)No shift/rotate.double saturating5E QDADD{cond} Rd, Rm, Rn Q Rd := SAT(Rm + SAT(Rn * 2))No shift/rotate.Subtract SUB{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Rn - Oprnd2with carry SBC{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Rn - Oprnd2 - NOT(Carry)reverse subtract RSB{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Oprnd2 - Rnreverse subtract with carry RSC{cond}{S} Rd, Rn, <Oprnd2>N Z C V Rd := Oprnd2 - Rn - NOT(Carry)saturating5E QSUB{cond} Rd, Rm, Rn Q Rd := SAT(Rm - Rn)No shift/rotate.double saturating5E QDSUB{cond} Rd, Rm, Rn Q Rd := SAT(Rm - SAT(Rn * 2))No shift/rotate.Multiply2MUL{cond}{S} Rd, Rm, Rs N Z C*Rd := (Rm * Rs)[31:0]accumulate2MLA{cond}{S} Rd, Rm, Rs, Rn N Z C*Rd := ((Rm * Rs) + Rn)[31:0]unsigned long M UMULL{cond}{S} RdLo, RdHi, Rm, Rs N Z C*V*RdHi,RdLo := unsigned(Rm * Rs)unsigned accumulate long M UMLAL{cond}{S} RdLo, RdHi, Rm, Rs N Z C*V*RdHi,RdLo := unsigned(RdHi,RdLo + Rm * Rs)signed long M SMULL{cond}{S} RdLo, RdHi, Rm, Rs N Z C*V*RdHi,RdLo := signed(Rm * Rs)signed accumulate long M SMLAL{cond}{S} RdLo, RdHi, Rm, Rs N Z C*V*RdHi,RdLo := signed(RdHi,RdLo + Rm * Rs)signed 16 * 16 bit5E SMULxy{cond} Rd, Rm, Rs Rd := Rm[x] * Rs[y]No shift/rotate.signed 32 * 16 bit5E SMULWy{cond} Rd, Rm, Rs Rd := (Rm * Rs[y])[47:16]No shift/rotate.signed accumulate 16 * 165E SMLAxy{cond} Rd, Rm, Rs, Rn Q Rd := Rn + Rm[x] * Rs[y]No shift/rotate.signed accumulate 32 * 165E SMLAWy{cond} Rd, Rm, Rs, Rn Q Rd := Rn + (Rm * Rs[y])[47:16]No shift/rotate.signed accumulate long 16 * 165E SMLALxy{cond} RdLo, RdHi, Rm, Rs RdHi,RdLo := RdHi,RdLo + Rm[x] * Rs[y]No shift/rotate.Count leading zeroes5CLZ{cond} Rd, Rm Rd := number of leading zeroes in RmLogical Test TST{cond} Rn, <Oprnd2>N Z C Update CPSR flags on Rn AND Oprnd2 Test equivalence TEQ{cond} Rn, <Oprnd2>N Z C Update CPSR flags on Rn EOR Oprnd2AND AND{cond}{S} Rd, Rn, <Oprnd2>N Z C Rd := Rn AND Oprnd2EOR EOR{cond}{S} Rd, Rn, <Oprnd2>N Z C Rd := Rn EOR Oprnd2ORR ORR{cond}{S} Rd, Rn, <Oprnd2>N Z C Rd := Rn OR Oprnd2Bit Clear BIC{cond}{S} Rd, Rn, <Oprnd2>N Z C Rd := Rn AND NOT Oprnd2No operation NOP R0 := R0Flags not affected.Shift/Rotate See Table Operand 2. Compare Compare CMP{cond} Rn, <Oprnd2>N Z C V Update CPSR flags on Rn - Oprnd2negative CMN{cond} Rn, <Oprnd2>N Z C V Update CPSR flags on Rn + Oprnd2Vector Floating Point Instruction SetQuick Reference CardKey to Tables{cond}See Table Condition Field (on ARM side).{E} E : raise exception on any NaN. Without E : raise exception only on signaling NaNs.<S/D>S (single precision) or D (double precision).{Z}Round towards zero. Overrides FPSCR rounding mode.<S/D/X>As above, or X (unspecified precision).<VFPregs> A comma separated list of consecutive VFP registers, enclosed in braces ( { and } ).Fd, Fn, Fm Sd, Sn, Sm (single precision), or Dd, Dn, Dm (double precision).<VFPsysreg>FPSCR, or FPSID.Operation Assembler Exceptions Action NotesVector arithmetic Multiply FMUL<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := Fn * Fmnegative FNMUL<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := - (Fn * Fm)accumulate FMAC<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := Fd + (Fn * Fm)deduct FNMAC<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := Fd - (Fn * Fm)Exceptionsnegate and accumulate FMSC<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := -Fd + (Fn * Fm)IO Invalid operationnegate and deduct FNMSC<S/D>{cond} Fd, Fn, Fm IO, OF, UF, IX Fd := -Fd - (Fn * Fm)OF Overflow Add FADD<S/D>{cond} Fd, Fn, Fm IO, OF, IX Fd := Fn + Fm UF UnderflowSubtract FSUB<S/D>{cond} Fd, Fn, Fm IO, OF, IX Fd := Fn - Fm IX Inexact resultDivide FDIV<S/D>{cond} Fd, Fn, Fm IO, DZ, OF, UF, IX Fd := Fn / Fm DZ Division by zeroCopy FCPY<S/D>{cond} Fd, Fm Fd := FmAbsolute FABS<S/D>{cond} Fd, Fm Fd := abs(Fm)Negative FNEG<S/D>{cond} Fd, Fm Fd := -FmSquare root FSQRT<S/D>{cond} Fd, Fm IO, IX Fd := sqrt(Fm)Scalar compare FCMP{E}<S/D>{cond} Fd, Fm IO Set FPSCR flags on Fd - Fm Use FMSTAT to transfer flags.Compare with zero FCMP{E}Z<S/D>{cond} Fd IO Set FPSCR flags on Fd - 0Use FMSTAT to transfer flags.Scalar convert Single to double FCVTDS{cond} Dd, Sm IO Dd := convertStoD(Sm)Double to single FCVTSD{cond} Sd, Dm IO, OF, UF, IX Sd := convertDtoS(Dm)Unsigned integer to float FUITO<S/D>{cond} Fd, Sm Fd := convertUItoF(Sm)Signed integer to float FSITO<S/D>{cond} Fd, Sm IX Fd := convertSItoF(Sm)Float to unsigned integer FTOUI{Z}<S/D>{cond} Sd, Fm IO, IX Sd := convertFtoUI(Fm)Float to signed integer FTOSI{Z}<S/D>{cond} Sd, Fm IO, IX Sd := convertFtoSI(Fm) Save VFP registers FST<S/D>{cond} Fd, [Rn{, #<immed_8*4>}][address] := FdMultiple, unindexed FSTMIA<S/D/X>{cond} Rn, <VFPregs>Saves list of VFP registers, starting at address in Rn.increment after FSTMIA<S/D/X>{cond} Rn!, <VFPregs>synonym: FSTMEA (empty ascending)decrement before FSTMDB<S/D/X>{cond} Rn!, <VFPregs>synonym: FSTMFD (full descending) Load VFP registers FLD<S/D>{cond} Fd, [Rn{, #<immed_8*4>}]Fd := [address]Multiple, unindexed FLDMIA<S/D/X>{cond} Rn, <VFPregs>Loads list of VFP registers, starting at address in Rn.increment after FLDMIA<S/D/X>{cond} Rn!, <VFPregs>synonym: FLDMFD (full descending)decrement before FLDMDB<S/D/X>{cond} Rn!, <VFPregs>synonym: FLDMEA (empty ascending) Transfer registers ARM to single FMSR{cond} Sn, Rd Sn := RdSingle to ARM FMRS{cond} Rd, Sn Rd := SnARM to lower half of double FMDLR{cond} Dn, Rd Dn[31:0] := Rd Use with FMDHR.Lower half of double to ARM FMRDL{cond} Rd, Dn Rd := Dn[31:0]Use with FMRDH.ARM to upper half of double FMDHR{cond} Dn, Rd Dn[63:32] := Rd Use with FMDLR.Upper half of double to ARM FMRDH{cond} Rd, Dn Rd := Dn[63:32]Use with FMRDL.ARM to VFP system register FMXR{cond} <VFPsysreg>, Rd VFPsysreg := Rd Stalls ARM until all VFP ops complete.VFP system register to ARM FMRX{cond} Rd, <VFPsysreg>Rd := VFPsysreg Stalls ARM until all VFP ops complete.FPSCR flags to CPSR FMSTAT{cond}CPSR flags := FPSCR flags Equivalent to FMRX R15, FPSCRFPSCR format Rounding(Stride - 1)*3Vector length - 1Exception trap enable bits Cumulative exception bits 3130292824232221201817161211109843210 N Z C V FZ RMODE STRIDE LEN IXE UFE OFE DZE IOE IXC UFC OFC DZC IOC FZ: 1 = flush to zero mode.Rounding: 0 = round to nearest, 1 = towards +∞, 2 = towards -∞, 3 = towards zero.(Vector length * Stride) must not exceed 4 for double precision operands.If Fd is S0-S7 or D0-D3, operation is Scalar (regardless of vector length).If Fd is S8-S31 or D4-D15, and Fm is S0-S7 or D0-D3, operation is Mixed (Fm scalar, others vector).If Fd is S8-S31 or D4-D15, and Fm is S8-S31 or D4-D15, operation is Vector.S0-S7 (or D0-D3), S8-S15 (D4-D7), S16-S23 (D8-D11), S24-S31 (D12-D15) each form a circulating bank of registers.All Thumb registers are Lo (R0-R7) except where specified. Hi registers are R8-R15.Operation§Assembler UpdateflagsAction NotesMove Immediate MOV Rd, #<immed_8> Rd := immed_88-bit immediate value.Lo to Lo MOV Rd, Rm Rd := RmHi to Lo, Lo to Hi, Hi to Hi MOV Rd, Rm!Rd := Rm Not Lo to LoArithmetic Add ADD Rd, Rn, #<immed_3> Rd := Rn + immed_33-bit immediate value.Lo and Lo ADD Rd, Rn, Rm Rd := Rn + RmHi to Lo, Lo to Hi, Hi to Hi ADD Rd, Rm!Rd := Rd + Rm Not Lo to Loimmediate ADD Rd, #<immed_8> Rd := Rd + immed_88-bit immediate value.with carry ADC Rd, Rm Rd := Rd + Rm + C-bitvalue to SP ADD SP, #<immed_7*4>!SP := SP + immed_7 * 49-bit immediate value (word-aligned).form address from SP ADD Rd, SP, #<immed_8*4>!Rd := SP + immed_8 * 410-bit immediate value (word-aligned).form address from PC ADD Rd, PC, #<immed_8*4>!Rd := (PC AND 0xFFFFFFFC) + immed_8 * 410-bit immediate value (word-aligned).Subtract SUB Rd, Rn, Rm Rd := Rn - Rmimmediate 3SUB Rd, Rn, #<immed_3> Rd := Rn - immed_33-bit immediate value.immediate 8SUB Rd, #<immed_8> Rd := Rd - immed_88-bit immediate value.with carry SBC Rd, Rm Rd := Rd - Rm - NOT C-bitvalue from SP SUB SP, #<immed_7*4>!SP := SP - immed_7 * 49-bit immediate value (word-aligned).Negate NEG Rd, Rm Rd := - RmMultiply MUL Rd, Rm Rd := Rm * RdCompare CMP Rn, Rm update CPSR flags on Rn - Rm Can be Lo to Lo, Lo to Hi, Hi to Lo, or Hi to Hi.negative CMN Rn, Rm update CPSR flags on Rn + Rmimmediate CMP Rn, #<immed_8> update CPSR flags on Rn - immed_88-bit immediate value.No operation NOP!R8 := R8Flags not affected.Logical AND AND Rd, Rm Rd := Rd AND RmExclusive OR EOR Rd, Rm Rd := Rd EOR RmOR ORR Rd, Rm Rd := Rd OR RmBit clear BIC Rd, Rm Rd := Rd AND NOT RmMove NOT MVN Rd, Rm Rd := NOT RmTest bits TST Rn, Rm update CPSR flags on Rn AND RmShift/rotate Logical shift left LSL Rd, Rm, #<immed_5> Rd := Rm << immed_55-bit immediate shift. Allowed shifts 0-31.LSL Rd, Rs Rd := Rd << RsLogical shift right LSR Rd, Rm, #<immed_5> Rd := Rm >> immed_55-bit immediate shift. Allowed shifts 1-32.LSR Rd, Rs Rd := Rd >> RsArithmetic shift right ASR Rd, Rm, #<immed_5> Rd := Rm ASR immed_55-bit immediate shift. Allowed shifts 1-32.ASR Rd, Rs Rd := Rd ASR RsRotate right ROR Rd, Rs Rd := Rd ROR RsBranch Conditional branch B{cond} label R15 := label label must be within -252 to +258 bytes of current instruction.See Table Condition Field (ARM side). AL not allowed.Unconditional branch B label R15 := label label must be within ±2Kb of current instruction.Long branch with link BL label R14 := R15 - 2, R15 := label Encoded as two Thumb instructions.label must be within ±4Mb of current instruction.Branch and exchange BX Rm R15 := Rm AND 0xFFFFFFFE Change to ARM state if Rm[0] = 0.Branch with link and exchange5T BLX label R14 := R15 - 2, R15 := labelChange to ARM Encoded as two Thumb instructions.label must be within ±4Mb of current instruction.Branch with link and exchange5T BLX Rm R14 := R15 - 2, R15 := Rm AND 0xFFFFFFFEChange to ARM if Rm[0] = 0SoftwareInterruptSWI <immed_8>Software interrupt processor exception8-bit immediate value encoded in instruction. Breakpoint5T BKPT <immed_8>Prefetch abort or enter debug stateENGLANDARM LtdFulbourn RoadCherry HintonCambridge CB1 9JNUKTelephone:+44 1223 400400 Facsimile:+44 1223 400410 Email:info@ GERMANYARM LtdOtto-Hahn Str. 13b85521 Ottobrun-RiemerlingMunichGermanyTelephone:+49 89 608 75545Facsimile:+49 98 608 75599Email:info@USAARM Inc750 University AvenueSuite 150,Los Gatos CA 95032USATelephone:+1 408 579 2207Facsimile:+1 408 579 1205Email:info@JAPANARM KKPlustaria Building 4F,3-1-4 Shinyokohama, Kohoku-ku,Yokohama-shi, 222-0033JapanTelephone:+81 45 477 5260Facsimile:+81 45 477 5261Email:info@KOREAARMRoom #1115, Hyundai Building9-4, Soonae-Dong, Boondang-KuSungnam, Kyunggi-DoKorea 463-020Telephone:+82 342 712 8234Facsimile:+82 342 713 8225Email: info@Operation§Assembler Action NotesLoad with immediate offset, word LDR Rd, [Rn, #<immed_5*4>]Rd := [Rn + immed_5 * 4]halfword LDRH Rd, [Rn, #<immed_5*2>]Rd := ZeroExtend([Rn + immed_5 * 2][15:0])Clears bits 31:16byte LDRB Rd, [Rn, #<immed_5>]Rd := ZeroExtend([Rn + immed_5][7:0])Clears bits 31:8 with register offset, word LDR Rd, [Rn, Rm]Rd := [Rn + Rm]halfword LDRH Rd, [Rn, Rm]Rd := ZeroExtend([Rn + Rm][15:0])Clears bits 31:16signed halfword LDRSH Rd, [Rn, Rm]Rd := SignExtend([Rn + Rm][15:0])Sets bits 31:16 to bit 15byte LDRB Rd, [Rn, Rm]Rd := ZeroExtend([Rn + Rm][7:0])Clears bits 31:8signed byte LDRSB Rd, [Rn, Rm]Rd := SignExtend([Rn + Rm][7:0])Sets bits 31:8 to bit 7 PC-relative LDR Rd, [PC, #<immed_8*4>]Rd := [(PC AND 0xFFFFFFFC) + immed_8 * 4]SP-relative LDR Rd, [SP, #<immed_8*4>]Rd := [SP + immed_8 * 4]Multiple LDMIA Rn!, <reglist>Loads list of registers Always updates base register. Store with immediate offset, word STR Rd, [Rn, #<immed_5*4>][Rn + immed_5 * 4] := Rdhalfword STRH Rd, [Rn, #<immed_5*2>][Rn + immed_5 * 2][15:0] := Rd[15:0]Ignores Rd[31:16]byte STRB Rd, [Rn, #<immed_5>][Rn + immed_5][7:0] := Rd[7:0]Ignores Rd[31:8] with register offset, word STR Rd, [Rn, Rm][Rn + Rm] := Rdhalfword STRH Rd, [Rn, Rm][Rn + Rm][15:0] := Rd[15:0]Ignores Rd[31:16]byte STRB Rd, [Rn, Rm][Rn + Rm][7:0] := Rd[7:0]Ignores Rd[31:8] SP-relative, word STR Rd, [SP, #<immed_8*4>][SP + immed_8 * 4] := RdMultiple STMIA Rn!, <reglist>Stores list of registers Always updates base register.Push/ Pop Push PUSH <reglist>Push registers onto stack Full descending stack. Push with link PUSH <reglist, LR>Push LR and registers onto stackPop POP <reglist>Pop registers from stackPop and return POP <reglist, PC>Pop registers, branch to address loaded to PCPop and return with exchange5T POP <reglist, PC>Pop, branch, and change to ARM state if address[0] = 0Proprietary NoticeARM is the trademark of ARM Ltd.Neither the whole nor any part of the information contained in, or the product described in, this reference card may be adapted or reproduced in any material form except with the prior written permission of the copyright holder.The product described in this reference card is subject to continuous developments and improvements. All particulars of the product and its use contained in this reference card are given by ARM in good faith. However, all warranties implied or expressed, including but not limited to implied warrantiesof merchantability, or fitness for purpose, are excluded.This reference card is intended only to assist the reader in the use of the product. ARM Ltd shall not be liable for any loss or damage arising from the use of any information in this reference card, or any error or omission in such information, or any incorrect use of the product.Document NumberARM QRC 0001DChange LogIssue Date By ChangeA June 1995BJH First ReleaseB Sept 1996BJH Second ReleaseC Nov 1998BJH Third ReleaseD Oct 1999CKS Fourth ReleaseOperation§Assembler Action NotesBranch Branch B{cond} label R15 := label label must be within ±32Mb ofcurrent instruction.with link BL{cond} label R14 := R15-4, R15 := label label must be within ±32Mb ofcurrent instruction.and exchange4T BX{cond} Rm R15 := Rm, Change to Thumb if Rm[0] is 1with link and exchange (1)5T BLX label R14 := R15 - 4, R15 := label, Change to Thumb Cannot be conditional.label must be within ±32Mb ofcurrent instruction.with link and exchange (2)5T BLX{cond} Rm R14 := R15 - 4, R15 := Rm[31:1]Change to Thumb if Rm[0] is 1Load Word LDR{cond} Rd, <a_mode2>Rd := [address]User mode privilege LDR{cond}T Rd, <a_mode2P>branch (and exchange)LDR{cond} R15, <a_mode2>R15 := [address][31:1](§ 5T: Change to Thumb if [address][0] is 1)Byte LDR{cond}B Rd, <a_mode2>Rd := ZeroExtend[byte from address]User mode privilege LDR{cond}BT Rd, <a_mode2P>signed4LDR{cond}SB Rd, <a_mode3>Rd := SignExtend[byte from address]Halfword4LDR{cond}H Rd, <a_mode3>Rd := ZeroExtent[halfword from address]signed4LDR{cond}SH Rd, <a_mode3>Rd := SignExtend[halfword from address]Load multiple Pop, or Block data load LDM{cond}<a_mode4L> Rd{!}, <reglist-pc>Load list of registers from [Rd]return (and exchange)LDM{cond}<a_mode4L> Rd{!}, <reglist+pc>Load registers, R15 := [address][31:1](§ 5T: Change to Thumb if [address][0] is 1)Use from exception modes only.and restore CPSR LDM{cond}<a_mode4L> Rd{!}, <reglist+pc>^Load registers, branch (§ 5T: and exchange),CPSR := SPSRUser mode registers LDM{cond}<a_mode4L> Rd, <reglist-pc>^Load list of User mode registers from [Rd]Use from privileged modes only. Store Word STR{cond} Rd, <a_mode2>[address] := RdUser mode privilege STR{cond}T Rd, <a_mode2P>[address] := RdByte STR{cond}B Rd, <a_mode2>[address][7:0] := Rd[7:0]User mode privilege STR{cond}BT Rd, <a_mode2P>[address][7:0] := Rd[7:0]Halfword4STR{cond}H Rd, <a_mode3>[address][15:0] := Rd[15:0]Store multiple Push, or Block data store STM{cond}<a_mode4S> Rd{!}, <reglist>Store list of registers to [Rd]User mode registers STM{cond}<a_mode4S> Rd{!}, <reglist>^Store list of User mode registers to [Rd]Use from privileged modes only. Swap Word3SWP{cond} Rd, Rm, [Rn]temp := [Rn], [Rn] := Rm, Rd := tempByte3SWP{cond}B Rd, Rm, [Rn]temp := ZeroExtend([Rn][7:0]),[Rn][7:0] := Rm[7:0], Rd := tempCoprocessors Data operations2CDP{cond} p<cpnum>, <op1>, CRd, CRn, CRm, <op2>Coprocessor defined5CDP2 p<cpnum>, <op1>, CRd, CRn, CRm, <op2>Cannot be conditional.Move to ARM reg from coproc2MRC{cond} p<cpnum>, <op1>, Rd, CRn, CRm, <op2>5MRC2 p<cpnum>, <op1>, Rd, CRn, CRm, <op2>Cannot be conditional.Move to coproc from ARM reg2MCR{cond} p<cpnum>, <op1>, Rd, CRn, CRm, <op2>5MCR2 p<cpnum>, <op1>, Rd, CRn, CRm, <op2>Cannot be conditional.Load2LDC{cond} p<cpnum>, CRd, <a_mode5>5LDC2 p<cpnum>, CRd, <a_mode5>Cannot be conditional.Store2STC{cond} p<cpnum>, CRd, <a_mode5>5STC2 p<cpnum>, CRd, <a_mode5>Cannot be conditional.SWI{cond} <immed_24>Software interrupt processor exception24-bit value encoded in instruction. SoftwareinterruptBreakpoint5BKPT <immed_16>Prefetch abort or enter debug state Cannot be conditional.ARM Addressing ModesQuick Reference CardAddressing Mode 2 - Word and Unsigned Byte Data Transfer ARM architecture versionsPre-indexed Immediate offset[Rn, #+/-<immed_12>]{!}n ARM architecture version n and above.Zero offset[Rn]Equivalent to [Rn,#0]n T T variants of ARM architecture version n and above.Register offset[Rn, +/-Rm]{!}M ARM architecture version 3M, and 4 and above excluding xM variantsScaled register offset[Rn, +/-Rm, LSL #<immed_5>]{!}Allowed shifts 0-31n E E variants of ARM architecture version n and above.[Rn, +/-Rm, LSR #<immed_5>]{!}Allowed shifts 1-32[Rn, +/-Rm, ASR #<immed_5>]{!}Allowed shifts 1-32[Rn, +/-Rm, ROR #<immed_5>]{!}Allowed shifts 1-31Operand 2[Rn, +/-Rm, RRX]{!}Immediate value#<immed_8r>Post-indexed Immediate offset[Rn], #+/-<immed_12>Logical shift left immediate Rm, LSL #<immed_5>Allowed shifts 0-31 Register offset[Rn], +/-Rm Logical shift right immediate Rm, LSR #<immed_5>Allowed shifts 1-32Scaled register offset[Rn], +/-Rm, LSL #<immed_5>Allowed shifts 0-31Arithmetic shift right immediate Rm, ASR #<immed_5>Allowed shifts 1-32 [Rn], +/-Rm, LSR #<immed_5>Allowed shifts 1-32Rotate right immediate Rm, ROR #<immed_5>Allowed shifts 1-31[Rn], +/-Rm, ASR #<immed_5>Allowed shifts 1-32Register Rm[Rn], +/-Rm, ROR #<immed_5>Allowed shifts 1-31Rotate right extended Rm, RRX[Rn], +/-Rm, RRX Logical shift left register Rm, LSL RsLogical shift right register Rm, LSR RsAddressing Mode 2 (Post-indexed only)Arithmetic shift right register Rm, ASR RsPost-indexed Immediate offset[Rn], #+/-<immed_12>Rotate right register Rm, ROR RsZero offset[Rn]Equivalent to [Rn],#0Register offset[Rn], +/-RmScaled register offset[Rn], +/-Rm, LSL #<immed_5>Allowed shifts 0-31PSR fields(use at least one suffix)[Rn], +/-Rm, LSR #<immed_5>Allowed shifts 1-32Suffix Meaning[Rn], +/-Rm, ASR #<immed_5>Allowed shifts 1-32c Control field mask byte PSR[7:0][Rn], +/-Rm, ROR #<immed_5>Allowed shifts 1-31f Flags field mask byte PSR[31:24][Rn], +/-Rm, RRX s Status field mask byte PSR[23:16]x Extension field mask byte PSR[15:8]Addressing Mode 3 - Halfword and Signed Byte Data TransferPre-indexed Immediateoffset[Rn, #+/-<immed_8>]{!}Zero offset[Rn]Equivalent to [Rn,#0]Condition Field {cond}Register[Rn, +/-Rm]{!}Mnemonic Description Description (VFP)Post-indexed Immediate offset[Rn], #+/-<immed_8>EQ Equal Equal Register[Rn], +/-Rm NE Not equal Not equal, or unorderedCS / HS Carry Set / Unsigned higher or same Greater than or equal, or unordered Addressing Mode 4 - Multiple Data Transfer CC / LO Carry Clear / Unsigned lower Less thanBlock load Stack pop MI Negative Less thanIA Increment After FD Full Descending PL Positive or zero Greater than or equal, or unordered IB Increment Before ED Empty Descending VS Overflow Unordered (at least one NaN operand) DA Decrement After FA Full Ascending VC No overflow Not unorderedDB Decrement Before EA Empty Ascending HI Unsigned higher Greater than, or unorderedLS Unsigned lower or same Less than or equal Block store Stack push GE Signed greater than or equal Greater than or equalIA Increment After EA Empty Ascending LT Signed less than Less than, or unorderedIB Increment Before FA Full Ascending GT Signed greater than Greater thanDA Decrement After ED Empty Descending LE Signed less than or equal Less than or equal, or unordered DB Decrement Before FD Full Descending AL Always (normally omitted)Always (normally omitted)Addressing Mode 5 - Coprocessor Data TransferPre-indexed Immediate offset[Rn, #+/-<immed_8*4>]{!}Key to tablesZero offset[Rn]Equivalent to [Rn,#0]{!}Updates base register after data transfer if ! present. (Post-indexed always updates.) Post-indexed Immediate offset[Rn], #+/-<immed_8*4><immed_8r> A 32-bit constant, formed by right-rotating an 8-bit value by an even number of bits. Unindexed No offset[Rn], {8-bit copro. option}+/-+ or -. (+ may be omitted.)。

R命令

469
AutoCAD 2011命令速查手册
RENDERCROP
渲染视口内指定的矩形区域（称为修剪窗口）。访问方法
按钮功能区:“渲染”选项卡 “渲染”面板 “渲染面域”
概要渲染视口中指定矩形区域内的内容，而保留渲染窗口的其他部分不变。在需要渲染模型的某一部分以测试设置和效果时使用此命令。命令行提示将显示以下提示：
命令行提示将显示以下提示：
选择参照:在当前图形中选择一个外部参照或块如果在功能区处于激活状态时编辑外部参照，则将显示“编辑参照”功能区上下文选项卡。如果在命令提示下输入-refedit，则将显示选项。
REFSET
在位编辑参照（外部参照或块定义）时从工作集添加或删除对象。
访问方法 464
R命令
REDRAW
刷新当前视口中的显示。访问方法
命令条目:'redraw 用于透明使用概要当 BLIPMODE 打开时，将从当前视口中删除编辑命令留下的点标记。
REDRAWALL
刷新所有视口中的显示。访问方法
菜单:“视图” “重画” 命令条目:'redrawall 用于透明使用概要当 BLIPMODE 打开时，将从所有视口中删除编辑命令留下的点标记。
菜单:“工具” “外部参照和块在位编辑” “添加到工作集或外部参照和块在位编辑” “从工作集删除”
概要作为工作集组成部分的对象与当前图形中的其他对象明显不同。在当前图形中，工作集以外的所有对象都将呈淡入显示。
命令行提示将显示以下提示：
在参照编辑工作集和宿主图形之间传输对象... 输入选项[添加(A)/删除(R)]<添加>:输入选项或按 Enter 键
另一个角点使用指定的点作为对角点创建矩形。

R语言常见命令

1。

获取帮助ﻫ＞heｌp、stａrt() 开启帮助文档>help(sｏlve) 显示某命令得帮助信息,或者ﻫ＞？solve对于由特殊字符指定得功能,这些参数必须用单引号或双引号括起来,使之成为一个“字符串”,如＞heｌp(”[[”)与某个主题相关得例子通常可以用下面得命令得到ﻫ〉ｅxaｍple(tｏpic)2. 命令简介ﻫＲ对大小写就是敏感得;名称不能以数字开始;基本得命令由表达式或者赋值语句组成。

如果一个表达式被作为一条命令给出,它将被求值、打印而表达式得值并不被保存。

一个赋值语句同样对表达式求值之后把表达式得值传给一个变量,不过并不会自动得被打印出来;ﻫ命令由分号(;)来分隔,或者另起新行;ﻫ基本命令可以由花括号(f与g)合并为一组复合表达式;ﻫ注释几乎可以被放在任何地方,只要就是以井号(#)开始,到行末结束;如果一个命令在行莫仍没有结束,R将会给出一个不同得提示符,默认得就是‘＋’。

3。

命令文件得执行与输出转向到文件如果命令存储于一个外部文件中,比如工作目录wｏrk中得ｍaｎdｓ、R,她们可以随时在Ｒ得任务中被执行〉ｓoｕｒce("mands、R”)在Ｗinｄｏws中Ｓoｕrcｅ也可以由File菜单执行。

ﻫ函数ｓink,ﻫ〉ｓink(＂ｒｅcoｒd、liｓ”)ﻫ将把所有后续得输出由终端转向一个外部文件,rｅcord。

lｉs。

命令ﻫ> sｉnk() 将把信息重新恢复到终端上。

４、数据得保持与对象得清除R所创建、操作得实体就是对象。

对象可以就是变量、数组、字符串、函数以及由这些元素组成得其它结构;＞objects() 用来显示目前存储在Ｒ中得对象得名字、而当前存储得所有对象得组合被称为worｋspace;清除对象可以使用rm命令:ﻫ〉rｍ(x, y,z, inｋ, junk, temｐ,foｏ, ｂar)所有在一个R任务中被创建得对象都可以在文件中被永久保存,并在其它得R任务中被使用。

R命令速查手册

%*% 矩阵的代数积
rbind(A,B) 按行合并矩阵 cbind(A,B) 按列合并矩阵
apply(X, MARGIN=, FUN=)对 X 按 MARGIN 采取 FUN 运算,MARGIN=1 按列,=2 按行
sweep(X,MARGIN,STATS,FUN)对 X 按 MARGIN 采取 FUN 计算 STATS,并从 X 中除去
-4-
16 ts.plot(x)
作 x 的时间序列曲线,x 多元时须有相同的频率
17 hist(x,pr方图
18 barplot(x)
x 的条形图
19 qqnorm(x)
正态分位数-分位数图
20 qqplot(x,y)
y 对 x 的分位数-分位数图
21 contour(x,y,z)
9 matplot(x,y) 10 dotchart(x) 11 fourfoldplot(x) 12 assocplot(x)
13 mosaicplot(x) 14 pairs(x) 15 plot.ts(x)
解释以序号为横坐标,以 x 的元素值为纵坐标绘图
以 x 为横 y 为纵坐标绘图 type="p" for points, "l" for lines, "b" for both, "c" for the lines part alone of "b", "o" for both „overplotted‟, "h" for „histogram‟ like (or „high-density‟) vertical lines, "s" for stair steps, "S" for other steps, see „Details‟ below, "n" for no plotting

r语言数组常用命令

r语言数组常用命令数组是R语言中常用的数据结构之一，它可以存储多个相同类型的元素。

在R语言中，我们可以使用一系列命令来操作和处理数组。

本文将介绍一些常用的数组命令，帮助读者更好地理解和应用数组。

1. 创建数组我们可以使用c()函数来创建数组，其语法为：```Rarray_name <- c(element1, element2, ...)```其中，element1、element2等表示数组中的元素。

通过c()函数，我们可以将多个元素组合成一个数组，并将其赋值给一个数组变量。

2. 访问数组元素我们可以使用下标来访问数组中的元素，下标从1开始计数。

例如，对于数组array_name，我们可以使用array_name[1]来访问第一个元素。

3. 修改数组元素通过下标，我们可以直接修改数组中的元素的值。

例如，将数组array_name中的第一个元素修改为新的值，可以使用如下命令：```Rarray_name[1] <- new_value```其中，new_value表示新的值。

4. 数组长度我们可以使用length()函数来获取数组的长度，即数组中元素的个数。

其语法为：```Rlength(array_name)```该函数返回数组array_name的长度。

5. 数组运算对于数组，我们可以进行各种数学运算，如加法、减法、乘法和除法等。

例如，对于两个相同长度的数组array_name1和array_name2，我们可以使用如下命令进行加法运算：```Rresult <- array_name1 + array_name2```其中，result为存储运算结果的数组。

6. 数组切片数组切片是指从一个数组中获取指定范围的元素。

我们可以使用下标和冒号(:)来实现数组切片。

例如，对于数组array_name，我们可以使用如下命令获取第2到第5个元素：```Rsub_array <- array_name[2:5]```其中，sub_array为存储切片结果的数组。

R语言常用指令

调取txt格式文件制作数据表：> read.table("D://Rwork//002.txt",head=F)>data <- read.table("D://Rwork//002.txt",head=F,sep="") > data>x1<- data[1:56,2]>x2<- data[1:56,3]>x3<- data[1:56,4]>x4<- data[1:56,5]>x5<- data[1:56,6]>x6<- data[1:56,7]> num <- data[1:56,1]>x=data.frame(num,x1,x2,x3,x4,x5,x6)t检验t.test(x1,x2,var.equal = TRUE,alternative = "greater")在x1，x2数据基础上做箱线图boxplot(x1,x2,notch=T,names =c ('Heal','PSD'),col=c(2,3))有统计学差异时加点points(x=2,y=0.35,pch=8,cex=3,col="black")x取值范围限定x<- (0:23208)构建（x，y）函数关系y<- 46.5565*log(x+1)作图plot(x,y,type = "l")加载csv格式数据data<-read.csv(“D:\\Rwork\\重要稀释曲线01.csv”)x=t(data[1])y=t(data[2])Z=t(data[3])plot(x,y1,type = "l"，col=1)lines(x,y2,type = "l",col=2)data<-read.csv("D:\\Rwork\\重要稀释曲线01.csv",head=F) x1=t(data[1])x2 <- t(data[2])x3 <- t(data[3])x4 <- t(data[4])x5 <- t(data[5])x6 <- t(data[6])x7 <- t(data[7])x8 <- t(data[8])x9 <- t(data[9])x10 <- t(data[10])Maxx1=1000Max（x[2:10]）=30000稀释曲线作图步骤：设定绘图范围plot(0,xlim = c(0,25000),ylim=c(0,1000))确定第一组变量取值范围x1<- (0,20283)确定函数关系y1=46.5565*log(x+1)第二组x2<- (0,20787)y2=65.3305*log(x+1)第三组最后一组描线lines(x1,y1,type = "l",col=1)plot(0,xlim = c(0,25000),ylim=c(0,1000)))x2<-(0:22953) x3<-(0:23334) x4<-(0:27375) x5<-(0:24892) x6<-(0:23388) x7<-(0:22397) x8<-(0:30254) x9<-(0:24819) x10<-(0:20979) x11<-(0:25708) x12<-(0:23013) x13<-(0:26986) x14<-(0:25629) x15<-(0:24946) x16<-(0:26611) x17<-(0:23707) x18<-(0:22666) x19<-(0:26891) x20<-(0:27131) x21<-(0:27871) x22<-(0:23146) x23<-(0:24527) x24<-(0:25973) x25<-(0:23984) x26<-(0:20225) x27<-(0:26545) x28<-(0:26320) x29<-(0:24782) x30<-(0:23931) x31<-(0:22173) x32<-(0:26241) x33<-(0:21095) x34<-(0:22502) x35<-(0:22677) x36<-(0:22993) x37<-(0:24698) x38<-(0:22527) x39<-(0:21985) x40<-(0:21761) x41<-(0:21907) x42<-(0:24601) x43<-(0:23302) x44<-(0:25623)x46<-(0:23025)x47<-(0:23470)x48<-(0:25339)x49<-(0:23715)x50<-(0:23888)x51<-(0:25195)x52<-(0:21876)x53<-(0:24885)x54<-(0:21979)x55<-(0:26188)x56<-(0:22519)x57<-(0:24731)x58<-(0:24403)x59<-(0:23467)x60<-(0:21656)x61<-(0:25617)x62<-(0:20787)y1=46.5565*log(x1+1)y2=65.3305*log(x2+1)y3=47.4263*log(x3+1)y4=48.9360*log(x4+1)y5=47.8150*log(x5+1)y6=52.8826*log(x6+1)y7=54.6087*log(x7+1)y8=47.1048*log(x8+1)y9=40.8127*log(x9+1)y10=37.5829*log(x10+1) y11=38.6032*log(x11+1) y12=33.8515*log(x12+1) y13=43.7122*log(x13+1) y14=40.8806*log(x14+1) y15=43.4589*log(x15+1) y16=38.9631*log(x16+1) y17=38.9137*log(x17+1) y18=46.8657*log(x18+1) y19=58.9240*log(x19+1) y20=47.4116*log(x20+1) y21=42.4020*log(x21+1) y22=42.4892*log(x22+1) y23=41.9488*log(x23+1) y24=53.2226*log(x24+1) y25=43.5292*log(x25+1) y26=60.0118*log(x26+1)y27=63.7109*log(x27+1)y28=48.7320*log(x28+1)y29=65.6262*log(x29+1)y30=60.0022*log(x30+1)y31=58.8607*log(x31+1)y32=55.8225*log(x32+1)y33=69.5000*log(x33+1)y34=56.8783*log(x34+1)y35=62.5178*log(x35+1)y36=84.8353*log(x36+1)y37=46.1713*log(x37+1)y38=54.0782*log(x38+1)y39=95.4175*log(x39+1)y40=74.4900*log(x40+1)y41=55.5299*log(x41+1)y42=71.5092*log(x42+1)y43=64.7353*log(x43+1)y44=57.8252*log(x44+1)y45=82.8769*log(x45+1)y46=68.7947*log(x46+1)y47=64.2916*log(x47+1)y48=54.6344*log(x48+1)y49=71.1740*log(x49+1)y50=72.6106*log(x50+1)y51=41.8375*log(x51+1)y52=44.9306*log(x52+1)y53=41.8887*log(x53+1)y54=65.7139*log(x54+1)y55=62.6161*log(x55+1)y56=50.0890*log(x56+1)y57=75.9204*log(x57+1)y58=57.5105*log(x58+1)y59=41.8348*log(x59+1)y60=52.0881*log(x60+1)y61=72.3078*log(x61+1)y62=60.8521*log(x62+1)lines(x1,y1,type = "l",col=1) lines(x2,y2,type = "l",col=2) lines(x3,y3,type = "l",col=3) lines(x4,y4,type = "l",col=4) lines(x5,y5,type = "l",col=5) lines(x6,y6,type = "l",col=6) lines(x7,y7,type = "l",col=7) lines(x8,y8,type = "l",col=8)lines(x9,y9,type = "l",col=9) lines(x10,y10,type = "l",col=10) lines(x11,y11,type = "l",col=11) lines(x12,y12,type = "l",col=12) lines(x13,y13,type = "l",col=13) lines(x14,y14,type = "l",col=14) lines(x15,y15,type = "l",col=15) lines(x16,y16,type = "l",col=16) lines(x17,y17,type = "l",col=17) lines(x18,y18,type = "l",col=18) lines(x19,y19,type = "l",col=19) lines(x20,y20,type = "l",col=20) lines(x21,y21,type = "l",col=21) lines(x22,y22,type = "l",col=22) lines(x23,y23,type = "l",col=23) lines(x24,y24,type = "l",col=24) lines(x25,y25,type = "l",col=25) lines(x26,y26,type = "l",col=26) lines(x27,y27,type = "l",col=27) lines(x28,y28,type = "l",col=28) lines(x29,y29,type = "l",col=29) lines(x30,y30,type = "l",col=30) lines(x31,y31,type = "l",col=31) lines(x32,y32,type = "l",col=32) lines(x33,y33,type = "l",col=33) lines(x34,y34,type = "l",col=34) lines(x35,y35,type = "l",col=35) lines(x36,y36,type = "l",col=36) lines(x37,y37,type = "l",col=37) lines(x38,y38,type = "l",col=38) lines(x39,y39,type = "l",col=39) lines(x40,y40,type = "l",col=40) lines(x41,y41,type = "l",col=41) lines(x42,y42,type = "l",col=42) lines(x43,y43,type = "l",col=43) lines(x44,y44,type = "l",col=44) lines(x45,y45,type = "l",col=45) lines(x46,y46,type = "l",col=46) lines(x47,y47,type = "l",col=47) lines(x48,y48,type = "l",col=48) lines(x49,y49,type = "l",col=49) lines(x50,y50,type = "l",col=50) lines(x51,y51,type = "l",col=51) lines(x52,y52,type = "l",col=52)lines(x53,y53,type = "l",col=53)lines(x54,y54,type = "l",col=54)lines(x55,y55,type = "l",col=55)lines(x56,y56,type = "l",col=56)lines(x57,y57,type = "l",col=57)lines(x58,y58,type = "l",col=58)lines(x59,y59,type = "l",col=59)lines(x60,y60,type = "l",col=60)lines(x61,y61,type = "l",col=61)lines(x62,y62,type = "l",col=62)plot(x,y,type="o",xlab="年份",ylab="火灾(起)",ylim=c(0,maxy),col="red",main="1950年到2010年火灾年度统计",pch=c(15)a=rep(0,8271)a[order(runif(8271))[1:468]] = 1setwd("D:\\Rwork\\")> write.csv(a,"sample01.csv")x2=rep(0,8271)x2[order(runif(8271))[1:656]] = 1setwd("D:\\Rwork\\")> write.csv(x2,"sample02.csv",sep = ",")x3=rep(0,8271)x3[order(runif(8271))[1:477]] = 1setwd("D:\\Rwork\\")> write.csv(x3,"sample03.csv",sep = ",")x4=rep(0,8271)x4[order(runif(8271))[1:500]] = 1setwd("D:\\Rwork\\")> write.csv(x4,"sample04.csv",sep = ",")x5=rep(0,8271)x5[order(runif(8271))[1:484]] = 1setwd("D:\\Rwork\\")> write.csv(x5,"sample05.csv",sep = ",")x6=rep(0,8271)x6[order(runif(8271))[1:532]] = 1setwd("D:\\Rwork\\")> write.csv(x6,"sample06.csv",sep = ",")x7=rep(0,8271)x7[order(runif(8271))[1:547]] = 1setwd("D:\\Rwork\\")> write.csv(x7,"sample07.csv",sep = ",")x8=rep(0,8271)x8[order(runif(8271))[1:486]] = 1setwd("D:\\Rwork\\")> write.csv(x8,"sample08.csv",sep = ",")x9=rep(0,8271)x9[order(runif(8271))[1:413]] = 1setwd("D:\\Rwork\\")> write.csv(x9,"sample09.csv",sep = ",")x10=rep(0,8271)x10[order(runif(8271))[1:374]] = 1setwd("D:\\Rwork\\")> write.csv(x10,"sample10.csv",sep = ",")x11=rep(0,8271)x11[order(runif(8271))[1:392]] = 1setwd("D:\\Rwork\\")> write.csv(x11,"sample11.csv",sep = ",")x12=rep(0,8271)x12[order(runif(8271))[1:340]] = 1setwd("D:\\Rwork\\")> write.csv(x12,"sample12.csv",sep = ",")x13=rep(0,8271)x13[order(runif(8271))[1:446]] = 1setwd("D:\\Rwork\\")> write.csv(x13,"sample13.csv",sep = ",")x14=rep(0,8271)x14[order(runif(8271))[1:415]] = 1setwd("D:\\Rwork\\")> write.csv(x14,"sample14.csv",sep = ",") x15=rep(0,8271)x15[order(runif(8271))[1:440]] = 1setwd("D:\\Rwork\\")> write.csv(x15,"sample15.csv",sep = ",") x16=rep(0,8271)x16[order(runif(8271))[1:397]] = 1setwd("D:\\Rwork\\")> write.csv(x16,"sample16.csv",sep = ",") x17=rep(0,8271)x17[order(runif(8271))[1:392]] = 1setwd("D:\\Rwork\\")> write.csv(x17,"sample17.csv",sep = ",") x18=rep(0,8271)x18[order(runif(8271))[1:470]] = 1setwd("D:\\Rwork\\")> write.csv(x18,"sample18.csv",sep = ",") x19=rep(0,8271)x19[order(runif(8271))[1:601]] = 1setwd("D:\\Rwork\\")> write.csv(x19,"sample19.csv",sep = ",")x20=rep(0,8271)x20[order(runif(8271))[1:484]] = 1setwd("D:\\Rwork\\")> write.csv(x20,"sample20.csv",sep = ",")x21=rep(0,8271)x21[order(runif(8271))[1:434]] = 1setwd("D:\\Rwork\\")> write.csv(a,"sample21.csv",sep = ",")x22=rep(0,8271)x22[order(runif(8271))[1:427]] = 1setwd("D:\\Rwork\\")> write.csv(x22,"sample22.csv",sep = ",")x23=rep(0,8271)x23[order(runif(8271))[1:424]] = 1setwd("D:\\Rwork\\")> write.csv(x23,"sample23.csv",sep = ",")x24=rep(0,8271)x24[order(runif(8271))[1:541]] = 1setwd("D:\\Rwork\\")> write.csv(x24,"sample24.csv",sep = ",")x25=rep(0,8271)x25[order(runif(8271))[1:439]] = 1setwd("D:\\Rwork\\")> write.csv(x25,"sample25.csv",sep = ",")x26=rep(0,8271)x26[order(runif(8271))[1:595]] = 1setwd("D:\\Rwork\\")> write.csv(x26,"sample26.csv",sep = ",")x27=rep(0,8271)x27[order(runif(8271))[1:649]] = 1setwd("D:\\Rwork\\")> write.csv(x27,"sample27.csv",sep = ",")x28=rep(0,8271)x28[order(runif(8271))[1:496]] = 1setwd("D:\\Rwork\\")> write.csv(a,"sample28.csv",sep = ",")x29=rep(0,8271)x29[order(runif(8271))[1:664]] = 1setwd("D:\\Rwork\\")> write.csv(x29,"sample29.csv",sep = ",")x30=rep(0,8271)x30[order(runif(8271))[1:605]] = 1setwd("D:\\Rwork\\")> write.csv(x30,"sample30.csv",sep = ",")468,656,477,500,484,532,547,486,413,374,392,340,446,415,440,397,392, 470,601,484,434,427,424,541,439,595,649,496,664,605,589,394x1 <- round(runif(368,min = 1,max=8171))x2 <- round(runif(556,min = 1,max=8171))x3 <- round(runif(377,min = 1,max=8171))x4 <- round(runif(400,min = 1,max=8171))x5 <- round(runif(384,min = 1,max=8171))x6 <- round(runif(432,min = 1,max=8171))x7 <- round(runif(447,min = 1,max=8171)) x8 <- round(runif(386,min = 1,max=8171)) x9 <- round(runif(313,min = 1,max=8171)) x10 <- round(runif(274,min = 1,max=8171)) data1=intersect(x1,x2)data2=intersect(x1,x3)data3=intersect(x1,x4)data4=intersect(x1,x5)data5=intersect(x1,x6)data6=intersect(x1,x7)data7=intersect(x1,x8)data8=intersect(x1,x9)data9=intersect(x1,x10)data10=intersect(x2,x3)data11=intersect(x3,x2)data12=intersect(x5,x2)data13=intersect(x6,x2)data14=intersect(x7,x2)data15=intersect(x8,x2)data16=intersect(x9,x2)data17=intersect(x10,x2)data18=intersect(x3,x4)data19=intersect(x3,x5)data20=intersect(x3,x6)data20=intersect(x3,x7)data21=intersect(x3,x8)data22=intersect(x3,x9)data23=intersect(x3,x10)data24=intersect(x4,x5)data25=intersect(x4,x6)data26=intersect(x4,x7)data27=intersect(x4,x8)data28=intersect(x4,x9)data29=intersect(x4,x10)data30=intersect(x5,x6)data31=intersect(x5,x7)data32=intersect(x5,x8)data33=intersect(x5,x9)data34=intersect(x5,x10)data35=intersect(x6,x7)data36=intersect(x6,x8)data37=intersect(x6,x9)data38=intersect(x6,x10)data39=intersect(x7,x8)data40=intersect(x7,x9) data41=intersect(x7,x10) data42=intersect(x8,x9) data43=intersect(x8,x10) data44=intersect(x9,x10)。

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一、R的安装载入与帮助查询.......................................................................................... - 2 -
二、数据对象的类型与建立.............................................................................................. - 2 -
三、数据的浏览与编辑...................................................................................................... - 3 -
四、数据的运算.................................................................................................................. - 3 -
五、数据的存储与读取...................................................................................................... - 3 -
六、程序命令...................................................................................................................... - 4 -
七、绘图函数...................................................................................................................... - 4 -
八、绘图参数...................................................................................................................... - 5 -
九、常用概率分布命令...................................................................................................... - 6 -
十、基本统计分析函数...................................................................................................... - 7 - type= “p”指定图形的类型.p:点,l:线,b:点连线,o:点连线,线在点上,h:垂直线,s:阶梯式,垂直线顶端显示数据,S:垂直线底端显示数据
> x1 <- 100:200
> x <- x1/100
> y <- exp(2*x)+sin(3*x*x)
> plot(x,y, type=‘l')
plot(x2,y,type=“s”,main=“画图练习”,sub=“好好练", xlab="x轴",ylab='y 轴')
一、R的安装载入与帮助查询
二、数据对象的类型与建立
三、数据的浏览与编辑
四、数据的运算
五、数据的存储与读取
六、程序命令
七、绘图函数
八、绘图参数
九、常用概率分布命令Fisher-Snedecor
!
!
x x =
Negative binomial ();,)k x x a b Γ+=
十、基本统计分析函数。

R命令速查手册

SAP-PP-代码大全

SAP-PP-代码大全

ARM指令速查手册

R命令

R语言常见命令

R命令速查手册

r语言 数组常用命令

R语言常用指令

r语言数组常用命令