0203_XC62G TOREX | Alldatasheet
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1PTJUJWF7PMUBHF3FHVMBUPST 0VUQVU0O0GG 4FSJFT 315 ˙(FOFSBM%FTDSJQUJPO ˙'FBUVSFT ˙"QQMJDBUJPOT ˙5ZQJDBM"QQMJDBUJPO$JSDVJU ˙ 5ZQJDBM1FSGPSNBODF $IBSBDUFSJTUJD The XC62G series are highly precise, low power consumption positive voltage regulators, manufactured using CMOS and laser trimming technologies. The series achieves high output currents, with low input- output voltage differentials, and consists of a high precision voltage reference, an error correction circuit, and an output driver with current limitation. With good transient responses, output remains stable even during load changes. Also, having high ripple rejection ratios, the series can be used with low power supply noise. The CE input enables the output to be turned off, resulting in reduced power consumption. SOT-25 (150mW) and SOT-89-5 (500mW) packages are available. With regards to the CE function, as well as the positive logic XC62GR series, a negative logic XC62GP series (custom) is also available. Maximum Output Current : 150mA (within max. power dissipation,V OUT=3.0V) Output Voltage Range : 2.1V~5.0V in 0.1V increments Highly Accurate : Set-up voltage ±2% (±1% for semi-custom products) Low Power Consumption : TYP. 13µA (VOUT= 3.0V), TYP 23µA (VOUT=3.0V semi-custom, high-speed versions), TYP 0.1µA (Stand-by mode) Output Voltage Temperature Characteristics : TYP ±100ppm/°C Input Stability : TYP 0.2%/V Ultra Small Packages : SOT-25 (150mW) mini-mold SOT-89-5 (500mW) mini-power mold GBattery-powered Equipment GVoltage supplies for cellular phones GCameras, Video Recorders GPalmtops NCMOS Low Power Consumption NSmall Input-Output Voltage Differential : 0.2V @ 80mA, 0.38V @ 160mA NMaximum Output Current : 150mA (VOUT = 3.0V) NHighly Accurate : ±2% (±1%) NOutput Voltage Range : 2.1V ~ 5.0V NStand-by Supply Current : 0.1µA (VOUT = 3.0V) NSOT-25 / SOT-89-5 Package 3-7*/ 7*/ 744 7065 $*/ ʢ5BOUBMVNʣ ʢ5BOUBMVNʣ 0VUQVU7PMUBHF 0VUQVU7PMUBHF 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7 $-ʹµ' ʢUBOUBMVNʣ 4@9$(1.ϖʔδ
9$(4FSJFT 316 ˙1JO$POGJHVSBUJPO ˙1JO"TTJHONFOU 405 ʢ5017*&8ʣ 405 ʢ5017*&8ʣ 7065 744 7065 744 ʢ/$ʣ 7*/ $& ʢ/$ʣ 7*/ $& PIN NUMBER SOT-25 SOT-89-5 PIN NAME FUNCTION 1 4 Ground Chip Enable VSS Supply Voltage input VIN 4 1 No Connection (NC) Regulated Output Voltage VOUT CE ˙1SPEVDU$MBTTJGJDBUJPO GOrdering Information DESIGNATOR a e f b c d DESCRIPTION DESIGNATOR DESCRIPTION True Logic Level at CE Pin: R=Positive P=Negative(Custom) Output Voltage 30=3.0V 50=5.0V Response: 1=Standard 2=High Speed (Semi-Custom) Output Voltage Accuracy: 1=±1.0%(Semi-custom) 2=±2.0% Package Type M=SOT-25 P=SOT-89-5 Device Orientation R=Embossed Tape (Standard Feed) L=Embossed Tape (Reverse Feed) 9$(9999999 ˢ B ˢ C ˢ D ˢ E ˢ F ˢ G ˙'VODUJPO-JTU H=High, L=Low SERIES CE VOLTAGE OUTPUT XC62GR H ON L OFF XC62GP H OFF L ON 4@9$(1.ϖʔδ
9$( 4FSJFT 317 ˙1BDLBHJOH*OGPSNBUJPO GSOT-25 GSOT-89-5 ʢʣ ʶ ʶ ʶ ʙ NJO ʶ ʶʶ ʶ ʶ NJONJO NBY ʶ ʢʣ ʶ ʶ ʶ ʶ ʶ ʶ 4@9$(1.ϖʔδ
9$(4FSJFT 318 ˙.BSLJOH ˙"CTPMVUF.BYJNVN3BUJOHT ˙#MPDL%JBHSBN 405 ʢ5017*&8ʣ 405 ʢ5017*&8ʣ q3FQSFTFOUTUIFJOUFHFSPGUIF0VUQVU7PMUBHF R TYPE POSITIVE VOLTAGE LOGIC SYMBOL A VOLTAGE(V) P TYPE NEGATIVE VOLTAGE LOGIC SYMBOL VOLTAGE(V) 0.w A– 0.w H 6.w H– 6.w F 5.w F– 5.w E 4.w E– 4.w D 3.w D– 3.w C 2.w C– 2.w B 1.w B– 1.w w3FQSFTFOUTUIFEFDJNBMOVNCFSPGUIF0VUQVU7PMUBHF SYMBOL A B C D E F H K L M q.0 q.1 q.2 q.3 q.4 q.5 q.6 q.7 q.8 q.9 VOLTAGE(V) SYMBOL VOLTAGE(V) e 3FQSFTFOUTUIFUSBOTJUJPOSFTQPOTF r3FQSFTFOUTUIFBTTFNCMZMPUOP 0-9,A-Z repeated (G, I, J, O, Q, W excepted) SYMBOL TRANSITION RESPONSE - REGULAR + HIGH SPEED 70657*/ 744 $VSSFOU -JNJU 7PMUBHF 3FGFSFODF 0VUQVU $POUSPM PARAMETER Input Voltage Output Current Output Voltage CE Input Voltage SOT-25Continuous Total Power Dissipation SOT-89-5 Operating Ambient Temperature Storage Temperature SYMBOL VIN IOUT VOUT VCE Pd Pd Topr Tstg RATINGS 500 VSS-0.3~VIN+0.3 VSS-0.3~VIN+0.3 150 500 -30~+80 -40~+125 UNITS V mA V V mW Ta=25 °C IOUT must be less than Pd/(VIN-VOUT)Note: 4@9$(1.ϖʔδ
9$( 4FSJFT 319 ˙&MFDUSJDBM$IBSBDUFSJTUJDT XC62GR30 VOUT(T)=3.0V(Note1) 1. VOUT(T)=Specified Output Voltage . 3. Vdif= {VIN1 (Note5)-VOUT1 (Note4)} 4. VOUT1= A voltage equal to 98% of the Output Voltage whenever an amply stabilised IOUT {VOUT(T)+1.0V} is input. 5. VIN1= The Input Voltage when VOUT1 appears as Input Voltage is gradually decreased. 6. High Speed is Semi-custom. Note: PARAMETER CONDITIONS MIN TYP MAX UNITSSYMBOL Output Voltage IOUT=40mA VIN=4.0V 2.940 150 3.000 3.060 V Load Stability VIN=4.0 VOUT(E)≥2.7V mAIOUT max. Maximum Output Current Input-Output Voltage Differential (Note3) VIN=4.0V 1mA≤IOUT≤80mA 1.5 –0.2 90 45 mV∆VOUT Supply Current1 IOUT=80mA IOUT=40mA 4.0V≤VIN≤10.0V IOUT=10mA –30°C≤Topr≤80°C 200 mVVDIF1 Supply Current2 Input Stability CE Input Voltage "High" CE Input Voltage "Low" CE Input Current "High" CE Input Current "Low" Input Voltage Output Voltage Temperature Characteristics VIN=VCE=4.0V (Note6) Standard High Speed VIN=4.0V,VCE=VSS 0.2 ±100 –0.05 0.1 0.3 10.0 0.25 5.0 CIRCUT IOUT=160mA 380 395 770 mVVDIF2 1 µA 31 2 µA µA %/V V ppm/°C V µA µA Iss1 ISS2 VIN VCEH VCEL ICEH ICEL VCE=VIN VCE=VSS ∆VOUT ∆VIN • VOUT ∆VOUT ∆Topr • VOUT Ta=25 °C VOUT(E) (Note2) 4@9$(1.ϖʔδ
9$(4FSJFT 320 XC62GR50 VOUT(T)=5.0V (Note1) 1. VOUT(T)=Specified Output Voltage . 3. Vdif= {VIN1 (Note5)-VOUT1 (Note4)} 4. VOUT1= A voltage equal to 98% of the Output Voltage whenever an amply stabilised IOUT {VOUT(T)+1.0V} is input. 5. VIN1= The Input Voltage when VOUT1 appears as Input Voltage is gradually decreased. 6. High Speed is Semi-custom. Note: PARAMETER CONDITIONS MIN TYP MAX UNITSSYMBOL Output Voltage IOUT=40mA VIN=6.0V 4.900 180 5.000 5.100 VVOUT(E) (Note2) Load Stability VIN=6.0 VOUT(E)≥4.5V mAIOUT max. Maximum Output Current Input-Output Voltage Differential (Note3) VIN=6.0V 1mA≤IOUT≤100mA 1.5 –0.2 80 40 mV∆VOUT Supply Current1 IOUT=100mA IOUT=40mA 6.0V≤VIN≤10.0V IOUT=40mA –30°C≤Topr≤80°C 165 mVVDIF1 Supply Current2 Input Stability CE Input Voltage "High" CE Input Voltage "Low" CE Input Current "High" CE Input Current "Low" Input Voltage Output Voltage Temperature Characteristics VIN=VCE=6.0V (Note6) Standard High Speed VIN=6.0V,VCE=VSS 0.2 ±100 –0.05 0.1 0.3 10.0 0.25 5.0 CIRCUT IOUT=200mA 330 330 660 mVVDIF2 1 µA 35 2 µA µA %/V V ppm/°C V µA µA Iss1 ISS2 VIN VCEH VCEL ICEH ICEL VCE=VIN VCE=VSS ∆VOUT ∆VIN • VOUT ∆VOUT ∆Topr • VOUT Ta=25 °C 4@9$(1.ϖʔδ
9$( 4FSJFT 321 ˙5ZQJDBM"QQMJDBUJPO$JSDVJU GStandard Circuit ˙5FTU$JSDVJUT 3-7*/ 7*/ 744 7065 $*/ ʢ5BOUBMVNʣ ʢ5BOUBMVNʣ Circuit 1 7*/ 7$& 7*/ 744 7065 ʢ5BOUBMVNʣ$*/ ʢ5BOUBMVNʣ Circuit 2 7*/ 7$& 01&/7*/ 744 7065 4@9$(1.ϖʔδ
9$(4FSJFT 322 ˙5ZQJDBM1FSGPSNBODF$IBSBDUFSJTUJDT (3) INPUT/OUTPUT VOLTAGE DIFFERENTIAL vs. OUTPUT CURRENT *OQVU0VUQVU%JGG7EJGʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ *OQVU0VUQVU%JGG7EJGʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ (1) OUTPUT VOLTAGE vs. OUTPUT CURRENT (2) OUTPUT VOLTAGE vs. INPUT VOLTAGE 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆʵˆ 7*/ʹ7 $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆʵˆ 7*/ʹ7 $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ *065ʹN" 5PQSʹˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ *065ʹN" 5PQSʹˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ *065ʹN" 5PQSʹˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ *065ʹN" 5PQSʹˆ $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ 4@9$(1.ϖʔδ
9$( 4FSJFT 323 (4) CE PIN THRESHOLD VOLTAGE vs. INPUT VOLTAGE (5) SUPPLY CURRENT vs. INPUT VOLTAGE $F1JO5ISF7PM7$&) 7$&-ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣɹ 5PQSʹʵˆ ˆ ˆ -MFWFMWPMUBHF )MFWFMWPMUBHF $F1JO5ISF7PM7$&) 7$&-ʢ7ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣɹ 5PQSʹʵˆ ˆ ˆ -MFWFMWPMUBHF )MFWFMWPMUBHF 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3 ʢ7)*()41&&%ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3 ʢ7)*()41&&%ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3ʢ7ʣ 5PQSʹˆ ˆ ʵˆ 4@9$(1.ϖʔδ
9$(4FSJFT 324 (6) OUTPUT VOLTAGE vs. AMBIENT TEMPERATURE (7) SUPPLY CURRENT vs. AMBIENT TEMPERATURE ʵ ʵ 0VUQVU7PMUBHF7065ʢ7ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3ʢ7ʣ *065ʹN" 7*/ʹ7 $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ ʵ ʵ 0VUQVU7PMUBHF7065ʢ7ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3ʢ7ʣ *065ʹN" 7*/ʹ7 $*/ʹµ' ʢUBOUBMVNʣ $-ʹµ' ʢUBOUBMVNʣ ʵ ʵ 4VQQMZ$VSSFOU*TTʢµ"ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3ʢ7ʣ 7*/ʹ7 ʵ ʵ 4VQQMZ$VSSFOU*TTʢµ"ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7 ʵ ʵ 4VQQMZ$VSSFOU*TTʢµ"ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3ʢ7ʣ 7*/ʹ7 ʵ ʵ 4VQQMZ$VSSFOU*TTʢµ"ʣ "NCJFOU5FNQ5PQSʢˆʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3 ʢ7)*()41&&%ʣ 5PQSʹˆ ˆ ʵˆ 4VQQMZ$VSSFOU*TTʢµ"ʣ *OQVU7PMUBHF7*/ʢ7ʣ 9$(3 ʢ7)*()41&&%ʣ 5PQSʹˆ ˆ ʵˆ (5) SUPPLY CURRENT vs. INPUT VOLTAGE 4@9$(1.ϖʔδ
9$( 4FSJFT 325 (8) INPUT TRANSIENT RESPONSE 1 (9) INPUT TRANSIENT RESPONSE 2 ʵ ʵ ʵ ʵ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF 0VUQVU7PMUBHF ʵ ʵ ʵ ʵ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF 0VUQVU7PMUBHF ʵ ʵ ʵ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF 0VUQVU7PMUBHF ʵ ʵ ʵ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *OQVU7PMUBHF 0VUQVU7PMUBHF *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *OQVU7PMUBHF 0VUQVU7PMUBHF *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *OQVU7PMUBHF 0VUQVU7PMUBHF *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU7PMUBHF *OQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU7PMUBHF *OQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 4@9$(1.ϖʔδ
9$(4FSJFT 326 0VUQVU7PMUBHF *OQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU7PMUBHF *OQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU7PMUBHF *OQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU7PMUBHF *OQVU7PMUBHF *OQVU7PMUBHF7*/ʢ7ʣ 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ (10) LOAD TRANSIENT RESPONSE 0VUQVU7PMUBHF 0VUQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 0VUQVU7PMUBHF 0VUQVU7PMUBHF 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7 $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF 0VUQVU7PMUBHF 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 0VUQVU7PMUBHF 0VUQVU7PMUBHF 0VUQVU7PMUBHF7065ʢ7ʣ 0VUQVU$VSSFOU*065ʢN"ʣ 5JNF ʢNTFDEJWʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7 $-ʹµ' ʢUBOUBMVNʣ (9) INPUT TRANSIENT RESPONSE 2 4@9$(1.ϖʔδ
9$( 4FSJFT 327 (11) CE PIN TRANSIENT RESPONSE $&1JO*OQVU7PMUBHF $&ʹ7 $&ʹ7 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF $&1JO*OQVU7PMUBHF $&ʹ7 $&ʹ7 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF (12) RIPPLE REJECTION RATE 0VUQVU7PMUBHF $&1JO*OQVU7PMUBHF $&ʹ7 $&ʹ7 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 0VUQVU7PMUBHF $&1JO*OQVU7PMUBHF $&ʹ7 $&ʹ7 0VUQVU7PMUBHF7065ʢ7ʣ 5JNF ʢNTFDEJWʣ 9$(3ʢ7ʣ 7*/ʹ7 *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 9$(3ʢ7ʣ 7*/ʹ7%$ʴ7QʵQ"$ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 3JQQMF'SFRVFODZG ʢL)[ʣ 3JQQMF3FKFDUJPO3BUF33ʢE#ʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7%$ʴ7QʵQ"$ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 3JQQMF'SFRVFODZG ʢL)[ʣ 3JQQMF3FKFDUJPO3BUF33ʢE#ʣ 9$(3ʢ7ʣ 7*/ʹ7%$ʴ7QʵQ"$ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 3JQQMF'SFRVFODZG ʢL)[ʣ 3JQQMF3FKFDUJPO3BUF33ʢE#ʣ 3JQQMF3FKFDUJPO3BUF33ʢE#ʣ 3JQQMF'SFRVFODZG ʢL)[ʣ 9$(3 ʢ7)*()41&&%ʣ 7*/ʹ7%$ʴ7QʵQ"$ *065ʹN" $-ʹµ' ʢUBOUBMVNʣ 4@9$(1.ϖʔδ