SKY73020-11 (Rx Downmix)

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Skyworks Solutions, Inc. Phone [781] 376-3000 Fax [781] 376-3100 [email protected] www.skyworksinc.com

200362D Skyworks Proprietary and Confidential information Products and Product Information are Subject to Change Without Notice November 6, 2006 1

PRELIMINARY DATA SHEET

SKY73020: 700 1000 MHz High Gain and Linearity DiversityDownconversion Mixer for 2G/3G Base Station TransceiverApplications

Applications

2G/3G base station transceivers:

GSM/EDGE, CDMA, UMTS/WCDMA, iDEN

Land mobile radio

ISM band transceivers

High performance radio links

RF identification

Features

Operating frequency range: 700 to 1000 MHz

IF frequency range: 50 to 250 MHz

Conversion gain: 7.0 dB

Input IP3: 27.0 dBm

Output IP3: 34.0 dBm

Noise figure: 10.2 dB

Integrated LO drivers

Integrated low-loss RF baluns

High linearity IF amplifiers

On-chip SPDT LO switch (greater than 65 dB LO-to-LO isolation)

Small, MCM (36-pin, 6 x 6 mm) Pb-free package (MSL3, 260 C

per JEDEC J-STD-020)

Skyworks offers lead (Pb)-free RoHS (Restriction of

Hazardous Substances) compliant packaging.

Description

The SKY73020 is a fully integrated diversity mixer that includes

Local Oscillator (LO) drivers, an LO switch, high linearity mixers,

and large dynamic range Intermediate Frequency (IF) amplifiers.

Low-loss RF baluns have also been included to reduce design

complications and lower system cost.

The SKY73020 features an input IP3 of 27.0 dBm and a Noise

Figure (NF) of 10.2 dB, making the device an ideal solution for

high dynamic range systems such as 2G/3G base station

receivers. The LO switch provides more than 65 dB of isolationbetween LO inputs and supports the switching time required for

GSM/EDGE base stations.

The SKY73020 is manufactured using a robust silicon BiCMOS

process and has been designed for optimum long-term reliability.

The SKY73020 diversity downconversion mixer is provided in a

compact, 36-pin 6 x 6 mm Multi-Chip Module (MCM). A functional

block diagram is shown in Figure 1. The pin configuration and

package are shown in Figure 2. Signal pin assignments and

functional pin descriptions are provided in Table 1.

S643

RFA

RFB

IFB+

RIFB

IFB

VCC_

IFB VCC_LO

LO1

LO2

LO_SEL

IFA+

RIFA

IFA

VCC_

IFA

VCC_

LO

Figure 1. SKY73020 Block Diagram

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PRELIMINARY DATA SHEET SKY73020 DOWNCONVERSION MIXER


2 November 6, 2006 Skyworks Proprietary and Confidential information Products and Product Information are Subject to Change Without Notice 200362D

S646

27

26

25

24

23

22

21

20

19

1

2

3

4

5

6

7

8

9

10 11 12 13 14 15 16 17 18

36 35 34 33 32 31 30 29 28

NC

RFA

VCC_LO

GND

VCC_LO

GND

NC

RFB

VCC

_RFB

NC

GND

IFB+

IFB

NC

VCC

_IFB

RIFB

NC

VCC

_RFA

NC

GND

IFA

IFA+

NC

VCC

_IFA

RIFA

NC

GND

GND

LO2

GND

GND

GND

LO_SEL

GND

LO1

VCC_LO

Figure 2. SKY73020 Pinout 36-Pin MCM

Table 1. SKY73020 Signal Descriptions

Pin # Name Description Pin # Name Description

1 RFA Channel A RF input 19 LO1 Local oscillator 1 input

2 NC No connect 20 GND Ground

3 GND Ground 21 VCC_LO DC supply, +5 V

4 VCC_LO DC supply, +5 V 22 GND Ground

5 GND Ground 23 LO_SEL Local oscillator select switch control

6 VCC_LO DC supply, +5 V 24 GND Ground

7 GND Ground 25 GND Ground

8 NC No connect 26 GND Ground

9 RFB Channel B RF input 27 LO2 Local oscillator 2 input

10 VCC_RFB Channel B RF DC supply, +5 V 28 NC No connect

11 NC No connect 29 RIFA Channel A IF bias adjust

12 GND Ground 30 VCC_IFA Channel A IF DC supply, +5 V

13 IFB+ Positive channel B IF output 31 NC No connect

14 IFB Negative channel B IF output 32 IFA+ Positive channel A IF output

15 NC No connect 33 IFA Negative channel A IF output

16 VCC_IFB Channel B IF DC supply, +5 V 34 GND Ground

17 RIFB Channel B IF bias adjust 35 NC No connect

18 NC No connect 36 VCC_RFA Channel A RF DC supply, +5 V

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Functional Description

The SKY73020 is a high gain diversity mixer, optimized for base

station receiver applications. The device consists of two diversity

channels (A and B), each consisting of a low-loss RF balun, high

linearity passive mixer, and a low-noise IF amplifier.

Two LO amplifiers (independent of channels A and B) are also

included that allow the SKY73020 to connect directly to the output

of a Voltage Controlled Oscillator (VCO). This eliminates the extra

gain stages needed by most discrete passive mixers. A Single-

Pole, Double-Throw (SPDT) switch has been included to select

between two different LO inputs for frequency hopping

applications (i.e., GSM).

RF Baluns and Passive Mixer

The RF baluns provide a single-ended input, which can easily be

matched to 50 using a simple external matching circuit. The RF

baluns offer very low loss, and excellent amplitude and phase

balance.

The high linearity SKY73020 is a passive, double balanced mixer

that provides a very low conversion loss and an excellent 3rd

Order Input Intercept Point (IIP3).

Addtionally, the balanced nature of the mixer provides for high

port-to-port isolation.

LO Buffers and SPDT LO Switch

The LO buffers allow the input power of the SKY73020 to be in

the range of 3 dBm. The LO section is optimized for low-side LO

injection. However, each of the two LOs can be driven over a wide

frequency range with only slight degradation in performance.

A high isolation SPDT switch allows the SKY73020 to be used for

frequency hopping applications. This switch provides greater than

65 dB of LO1 to LO2 isolation:

LO_SEL Input LO Path Selected

High LO1 (pin 19) enabled

Low LO2 (pin 27) enabled

For applications that do not require frequency hopping, LO_SEL isfixed to one state and the appropriate LO input is used. An internal

pull-down resistor enables the LO2 input.

IF Amplifier

The SKY73020 includes high dynamic range IF amplifiers that

follow the passive mixers in the signal path. The outputs require a

supply voltage connection using inductive chokes. These choke

inductors should be high-Q and have the ability to handle 200 mA

or greater.

A simple matching network allows the output ports to be matched

to a balanced 200 impedance. The IF amplifiers are optimized

for IF frequencies between 50 and 250 MHz. The IF amplifiers canbe operated outside of this range, but with a slight degradation in

performance.

Electrical and Mechanical Specifications

The absolute maximum ratings of the SKY73020 are provided in

Table 2 and the recommended operating conditions in Table 3.

Electrical characteristics for the SKY73020 are provided in

Table 4.

Typical performance characteristics of the SKY73020 are

illustrated in Figures 3 through 39.

Table 2. SKY73020 Absolute Maximum Ratings

Parameter Symbol Minimum Maximum Units

Supply voltage (VCC_LO, VCC_RFB, VCC_IFB,

VCC_IFA, and VCC_RFA)

VCC 5.5 V

Supply current ICC 420 mA

RF input power PRF 20 dBm

LO input power PLO 6 dBm

Operating case temperature TC 40 +85 C

Storage case temperature TSTG 40 +150 C

Note: Exposure to maximum rating conditions for extended periods may reduce device reliability. There is no damage to device with only one parameter set at the limit and all other

parameters set at or below their nominal value.

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Table 3. SKY73020 Recommended Operating Conditions

Parameter Symbol Minimum Typical Maximum Units

Supply voltage (VCC_LO, VCC_RFB,

VCC_IFB, VCC_IFA, and VCC_RFA)

VCC 4.75 5.00 5.25 V

Supply current ICC 370 420 mA

LO input power PLO 3 0 +3 dBm

LO_SEL input:

high

low

LO_SELH

LO_SELL

2.2

0.8

V

V

Operating case temperature TC 40 +85 C

RF frequency range FRF 700 1000 MHz

LO frequency range (Note 1) FLO 625 950 MHz

IF frequency range FIF 50 250 MHz

Note 1: The SKY73020 has been optimized for low side LO injection. However, the LO can be used outside of the specified frequency range with degraded performance.

Table 4. SKY73020 Electrical Specifications (1 of 2)

(VCC = +5 V, TC = +25 C, LO Input Power = 0 dBm, RF Frequency = 900 MHz, IF Frequency = 70 MHz, LO Frequency = 830 MHz,

Unless Otherwise Noted)

Parameter Symbol Test Condition Min Typical Max Units

Conversion gain G 5.0 7.0 8.0 dB

Noise Figure NF 10.2 13.0 dB

Noise Figure with a blocker signal NFBLK Blocking signal input

power = +8 dBm

23 dB

Third order input intercept point IIP3 Tone spacing = 800 kHz,

Input power = 10 dBm

each tone

27.0 dBm

Third order output intercept point OIP3 Tone spacing = 800 kHz,

Input power = 10 dBm

each tone

32.5 34.0 dBm

2RF 2LO 2x2 PRF = 10 dBm 63 dBc

3RF 3LO 3x3 PRF = 10 dBm 70 dBc

Input 1 dB compression point IP1dB 16.5 dBm

Output 1 dB compression point OP1dB 19.0 22.5 dBm

LO1-to-LO2 isolation 65 dB

Channel-to-channel isolation 46 dB

RF-to-IF isolation 75 dB

LO leakage:

@ RF port

@ IF port

45

80

30 dBm

dBm

LO_SEL input 20 +150 +250 A

LO switching time 1 s

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Table 4. SKY73020 Electrical Specifications (2 of 2)

(VCC = +5 V, TC = +25 C, LO Input Power = 0 dBm, RF Frequency = 900 MHz, IF Frequency = 70 MHz, LO Frequency = 830 MHz,

Unless Otherwise Noted)

Parameter Symbol Test Condition Min Typical Max Units

RF port input return loss ZIN_RF With external matching

components

14 dB

LO port input return loss ZIN_LO With external matching

components

14 dB

IF port input return loss ZOUT_IF With external matching

components

14 dB

10

9

8

7

6

5880875 890885 900895 910

Frequency (MHz)

Gain(dB)

905 920915

3 dBm0 dBm

+3 dBm

Figure 3. Mixer A Gain vs Frequency and LO Power

10

9

8

7

6

5

880875 890885 900895 910 915 920

Frequency (MHz)

Gain(dB)

905

4.75 V5.00 V5.25 V

Figure 5. Mixer A Gain vs Frequency and Supply Voltage

10

9

8

7

6

5

880875 890885 900895 910 915 920

Frequency (MHz)

Gain(dB)

905

0oC

25oC

85oC

Figure 4. Mixer A Gain vs Frequency and Temperature

10

9

8

7

6

5

880875 890885 900895 910 915 920

Frequency (MHz)

Gain(dB)

905

3 dBm0 dBm

+3 dBm

Figure 6. Mixer B Gain vs Frequency and LO Power

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10

9

8

7

6

5

880875 890885 900895 910 915 920

Frequency (MHz)

Gain(dB)

905

0oC

25oC

85oC

Figure 7. Mixer B Gain vs Frequency and Temperature

13

12

11

10

9

8

7

6

880875 890885 900895 910 915 920

Frequency (MHz)

NoiseFigure(dB)

905

3 dBm0 dBm

+3 dBm

Figure 9. Mixer A Noise Figure vs Frequency and LO Power

13

12

11

10

9

8

7

6

880875 890885 900895 910 915 920

Frequency (MHz)

NoiseFigure(dB)

905

4.75 V5.00 V5.25 V

Figure 11. Mixer A Noise Figure vs Frequency and Supply Voltage

10

9

8

7

6

5880875 890885 900895 910 915 920

Frequency (MHz)

Gain(dB)

905

4.75 V5.00 V5.25 V

Figure 8. Mixer B Gain vs Frequency and Supply Voltage

13

12

11

10

9

8

7

6880875 890885 900895 910 915 920

Frequency (MHz)

NoiseFigure(dB)

905

0oC

25oC

85oC

Figure 10. Mixer A Noise Figure vs Frequency and Temperature

13

12

11

10

9

8

7

6

880875 890885 900895 910 915 920

Frequency (MHz)

NoiseFigure(dB)

905

3 dBm0 dBm

+3 dBm

Figure 12. Mixer B Noise Figure vs Frequency and LO Power

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13

12

11

10

9

8

7

6880875 890885 900895 910 915 920

Frequency (MHz)

Nois

eFigure(dB)

905

0oC

25oC

85oC

Figure 13. Mixer B Noise Figure vs Frequency and Temperature

25

24

23

22

21

20880875 890885 900895 910

Frequency (MHz)

Output1dBCompressionPoint(dBm)

905 920915

3 dBm0 dBm

+3 dBm

Figure 15. Mixer A OP1dB vs Frequency and LO Power

25

24

23

22

21

20880875 890885 900895 910 915 920

Frequency (MHz)


905

4.75 V5.00 V5.25 V

Figure 17. Mixer A OP1dB vs Frequency and Supply Voltage

13

12

11

10

9

8

7

6880875 890885 900895 910 915 920

Frequency (MHz)

NoiseFigure(dB)

905

4.75 V5.00 V5.25 V

Figure 14. Mixer B Noise Figure vs Frequency and Supply Voltage

25

24

23

22

21

20

880875 890885 900895 910 915 920

Frequency (MHz)


905

0oC

25o

C85oC

Figure 16. Mixer A OP1dB vs Frequency and Temperature

25

24

23

22

21

20

880875 890885 900895 910

Frequency (MHz)


905 920915

3 dBm0 dBm

+3 dBm

Figure 18. Mixer B OP1dB vs Frequency and LO Power

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25

24

23

22

21

20

880875 890885 900895 910 915 920

Frequency (MHz)


905

0oC

25oC

85oC

Figure 19. Mixer B OP1dB vs Frequency and Temperature

37

36

35

34

33

32

31

30

880875 890885 900895 910

Frequency (MHz)

Output3rdOrderInterceptPoi

nt(dBm)

905 920915

3 dBm0 dBm

+3 dBm

Figure 21. Mixer A OIP3 vs Frequency and LO Power

37

36

35

34

33

32

31

30880875 890885 900895 910 915 920

Frequency (MHz)

Output3rdOrderInterceptPoint(dBm)

905

4.75 V5.00 V5.25 V

Figure 23. Mixer A OIP3 vs Frequency and Supply Voltage

25

24

23

22

21

20880875 890885 900895 910 915 920

Frequency (MHz)

Output1dBC

ompressionPoint(dBm)

905

4.75 V5.00 V5.25 V

Figure 20. Mixer B OP1dB vs Frequency and Supply Voltage

37

36

35

34

33

32

31

30

880875 890885 900895 910 915 920

Frequency (MHz)

Output3rdOrderInterceptPo

int(dBm)

905

0oC

25oC

85oC

Figure 22. Mixer A OIP3 vs Frequency and Temperature

37

36

35

34

33

32

31

30

880875 890885 900895 910

Frequency (MHz)


905 920915

3 dBm0 dBm

+3 dBm

Figure 24. Mixer B OIP3 vs Frequency and LO Power

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37

36

35

34

33

32

31

30

880875 890885 900895 910 915 920

Frequency (MHz)


905

0oC

25oC

85oC

Figure 25. Mixer B OIP3 vs Frequency and Temperature

65

60

55

50880 890885 900895 910 915

Frequency (MHz)

Channel-to-

ChannelIsolation

(dB)

905

4.75 V5.00 V

5.25 V

Figure 27. Channel A To Channel B Isolation vs Frequency and

Supply Voltage

80

75

70

65880 890885 900895 910 915

Frequency (MHz)

LO-to-LOIsolation(dB)

905

4.75 V5.00 V5.25 V

Figure 29. LO1-To-LO2 Isolation vs Frequency and Supply Voltage

37

36

35

34

33

32

31

30880875 890885 900895 910 915 920

Frequency (MHz)

Output3rdOrder

InterceptPoint(dBm)

905

4.75 V5.00 V5.25 V

Figure 26. Mixer B OIP3 vs Frequency and Supply Voltage

65

60

55

50880 890885 900895 910 915

Frequency (MHz)

Channel-to-

ChannelIsolation(dB)

905

0oC

25oC

85oC

Figure 28. Channel A To Channel B Isolation vs Frequency and

Temperature

80

75

70

65880 890885 900895 910 915

Frequency (MHz)

LO-to-LOIsolation(dB)

905

0oC

25oC

85oC

Figure 30. LO1-To-LO2 Isolation vs Frequency and Temperature

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60

65

70

75

80

85880 890885 900895 910 915

Frequency (MHz)

2RF

x2LO1(dBc)

905

4.75 V5.00 V5.25 V

Figure 31. Channel A 2RF 2LO vs Frequency and Supply Voltage

60

65

70

75

80

85880 890885 900895 910 915

Frequency (MHz)

2RFx2LO2(dBc)

905

4.75 V5.00 V5.25 V

Figure 33. Channel B 2RF 2LO vs Frequency and Supply Voltage

70

72

74

76

78

80

82

84

86880 890885 900895 910 915

Frequency (MHz)

LO1-to-IFALeakage(dBc)

905

4.75 V5.00 V5.25 V

Figure 35. Channel A LO1-to-IF Leakage vs Frequency and Supply

Voltage

60

65

70

75

80

85880 890885 900895 910 915

Frequency (MHz)

2RF

x2LO1(dBc)

905

0oC

25oC

85oC

Figure 32. Channel A 2RF 2LO vs Frequency and Temperature

60

65

70

75

80

85880 890885 900895 910 915

Frequency (MHz)

2RFx2LO2(dBc)

905

0oC

25oC

85o

C

Figure 34. Channel B 2RF 2LO vs Frequency and Temperature

70

72

74

76

78

80

82

84

86

880 890885 900895 910 915

Frequency (MHz)

LO1-to-IFALeakage(dBc)

905

0oC

25oC

85oC

Figure 36. Channel A LO1-to-IF Leakage vs Frequency and

Temperature

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80

78

76

74

72

880 890885 900895 910 915

Frequency (MHz)

RF-to-IF

AIsolation(dBc)

905

4.75 V5.00 V5.25 V

Figure 37. Channel A RF-to-IF Isolation vs Frequency and Supply

Voltage

40

42

44

46

48

50

52

54

56880 890885 900895 910 915

Frequency (MHz)

LO1/LO2-to-RFALeakage(dBc)

905

4.75 V5.00 V5.25 V

Figure 39. Channel A LO1-to-RF Leakage vs Frequency and

Supply Voltage

80

78

76

74

72

880 890885 900895 910 915

Frequency (MHz)

RF-to-IF

AIsolation(dBc)

905

0oC

25oC

85oC

Figure 38. Channel A RF-to-IF Isolation vs Frequency and

Temperature

40

42

44

46

48

50

52

54

56880 890885 900895 910 915

Frequency (MHz)

LO1/LO2-to-RFALeakage(dBc)

905

0oC

25oC

85oC

Figure 40. Channel A LO1-to-RF Leakage vs Frequency and

Temperature

Evaluation Board Description

The SKY73020 Evaluation Board is used to test the performance

of the SKY73020 downconversion mixer. An assembly drawing for

the Evaluation board is shown in Figure 41 and the layer detail is

provided in Figure 42.

Circuit Design Considerations

The following design considerations are general in nature and

must be followed regardless of final use or configuration:1. Paths to ground should be made as short and as low

impedance as possible.

2. The ground pad of the SKY73020 provides critical electrical

and thermal functionality. This pad is the main thermal

conduit for heat dissipation. Since the circuit board acts as

the heat sink, it must shunt as much heat as possible from

the device. Therefore, design the connection to the ground

pad to dissipate the maximum heat produced by the circuit

board. For more information on soldering the SKY73020, refer

to the Package and Handling Information section of this Data

Sheet.

3. Skyworks recommends including external bypass capacitors

on the VCC voltage inputs of the device.

4. Components L5, L6, L14, and L15 (see Figure 3) are high-Q,

low-loss inductors. These inductors must be able to pass

currents in excess of 200 mA DC.

5. Components R1 and R2 (see Figure 3) allow for external

adjustment of the IF amplifier bias points. For operation as

specified in Tables 3 and 4, these resistors are not required.

A schematic diagram for the SKY73020 Evaluation Board is

shown in Figure 43.

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S811

J4

J1

J7

J6

J3

J8

J5

L12

L13

L15

L11

R2L14

L1

L2

C28

C29

C26

C23

C20 C21

C18C17

C24

C22

L10C19

C15C12

C6

C7

C8

C14

C11

C16L8

L3

L5

L4

T1

L9

L6R1

C25

C32

C33

C27

C2

C3

C1

C4

C5U1

T2

Figure 41. SKY73020 Evaluation Board Assembly Diagram

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S903

Layer 1: Top -- Metal

Layer 2: Ground

Layer 3: Power Plane

Layer 4: Solid Ground Plane

Figure 42. SKY73020 Evaluation Board Layer Detail

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RFB

VCC_

RFB

NC

GND

IFB+

IFB

NC

VCC_

IFB

RIFB

VCC_

RFA

NC

GND

IFA+

IFA

NC

VCC_

IFA

RIFA

NC

VCC_LO

NC

GND

VCC_LO

GND

GND

NC

RFA

LO1

GND

GND

VCC_LO

GND

LO_SEL

GND

GND

LO2

J4

SKY73020

C15.6 pF

1

2

3

4

5

6

7

8

9

27

26

25

24

23

22

21

20

19

10 11 12 13 14 15 16 17 18

36 35 34 33 32 31 30 29 28

C322 nH

L26.8 pF

J7 C85.6 pF

VCC

VCC

C722 nH

L46.8 pF

L5470 nH

L8

39 nH

L6470 nH

C16

47 pF

C1733 pF

C2212 pF

J6

T1

DB714

VCC

VCC

NC

J3

VCC

VCC

VCC

VCC

C2333 pF

J8

C131 F

Element Jumper

C201 F

C1433 pF

C281 F

C2733 pF

C2847 pF

T2

DB714

VCC

J5L1339 nH

L14470 nH

L15470 nH

R2(Not Req'd)

R1(Not Req'd)

S685

Figure 43. SKY73020 Evaluation Board Schematic

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Package Dimensions

Figure 44 shows the package dimensions for the 36-pin MCM and

Figure 45 provides the tape and reel dimensions.

Package and Handling Information

Since the device package is sensitive to moisture absorption, it is

baked and vacuum packed before shipping. Instructions on the

shipping container label regarding exposure to moisture after the

container seal is broken must be followed. Otherwise, problems

related to moisture absorption may occur when the part is

subjected to high temperature during solder assembly.

THE SKY73020 is rated to Moisture Sensitivity Level 3 (MSL3) at

260 C. It can be used for lead or lead-free soldering. For

additional information, refer to the Skyworks Application Note,

PCB Design & SMT Assembly/Rework Guidelines for MCM-L

Packages, document number 101752.

Care must be taken when attaching this product, whether it is

done manually or in a production solder reflow environment.

Production quantities of this product are shipped in a standard

tape and reel format. For packaging details, refer to the Skyworks

Application Note, Tape and Reel, document number 101568.

Electrostatic Discharge (ESD) Sensitivity

The SKY73020 is a static-sensitive electronic device. Do not

operate or store near strong electrostatic fields. Take proper ESD

precautions.

All measurements are in millimeters

Pads are solder mask defined on one edge and metaldefined on three edges.

Dimensioning and tolerancing according to ASME Y14.5M-1994

S689

6

6

Pin 1 Indicator

Metal Pad Edge

1.45 0.10

0.4 0.05

0.5 0.1

(0.1)

Side View

B

Bottom View

A

Detail A

Detail D

Top View

Pin 36

Pin 1

Pin 1 Indicator(See Detail D)

0.25 0.05

18X 2.9

(0.2 x 0.2)

Solder Mask Opening

36x SMT Pad

0.15 A B C

0.2 A B C

0.15 A B C

C

A

0.1

4X 2

4X 2

2X 1.9

2X 1.9

18X 2.9

3X R0.2

4X 1.5

4X 1.54X 1

4X 14X 0.5

4X 0.5

Figure 44. SKY73020 36-Pin MCM Package Dimensions

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C1222

Notes:1. Carrier tape: black conductive polystyrene2. Cover tape material: transparent conductive PSA3. Cover tape size: 9.3 mm width4. All dimensions are in millimeters A

B

2.00 0.05

1.55 0.05

0.30 0.05

5o Max.

5o Max.

6.3

0

1.75 0.10

1.50 Min.

5.5

0

0.0

5

8.00 4.00

A

B

B

A

1.70

12.0

00.3

0

6.30

Pin #1Indicator

Figure 45. SKY73020 Tape and Reel Dimensions

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200362D Skyworks Proprietary and Confidential information Products and Product Information are Subject to Change Without Notice November 6 2006 17

Ordering Information

Model Name Manufacturing Part Number Evaluation Kit Part Number

SKY73020 Downconversion Mixer SKY73020-11 (Pb-free package)

Copyright 2006 Skyworks Solutions, Inc. All Rights Reserved.

Information in this document is provided in connection with Skyworks Solutions, Inc. (Skyworks) products or services. These materials, including the information contained herein, are provided by

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