SLVSJ70 December   2025 TRF0213-SEP

PRODUCTION DATA  

  1.   1
  2. 1 Features
  3. 2 Applications
  4. 3 Description
  5. 4 Pin Configuration and Functions
  6. 5 Specifications
    1. 5.1 Absolute Maximum Ratings
    2. 5.2 ESD Ratings
    3. 5.3 Recommended Operating Conditions
    4. 5.4 Thermal Information
    5. 5.5 Electrical Characteristics
    6. 5.6 Typical Characteristics
  7. 6 Detailed Description
    1. 6.1 Overview
    2. 6.2 Functional Block Diagram
    3. 6.3 Feature Description
      1. 6.3.1 Single-Ended to Differential Amplifier
      2. 6.3.2 Single Supply Operation
    4. 6.4 Device Functional Modes
      1. 6.4.1 Power-Down Mode
  8. 7 Application and Implementation
    1. 7.1 Application Information
      1. 7.1.1 Driving a High-Speed ADC
      2. 7.1.2 Calculating Output Voltage Swing
      3. 7.1.3 Thermal Considerations
    2. 7.2 Typical Applications
      1. 7.2.1 TRF0213-SEP in Receive Chain
        1. 7.2.1.1 Design Requirements
        2. 7.2.1.2 Detailed Design Procedure
        3. 7.2.1.3 Application Curve
    3. 7.3 Power Supply Recommendations
    4. 7.4 Layout
      1. 7.4.1 Layout Guidelines
      2. 7.4.2 Layout Example
  9. 8 Device and Documentation Support
    1. 8.1 Support Resources
    2. 8.2 Device Support
      1. 8.2.1 Third-Party Products Disclaimer
    3. 8.3 Documentation Support
      1. 8.3.1 Related Documentation
    4. 8.4 Receiving Notification of Documentation Updates
    5. 8.5 Trademarks
    6. 8.6 Electrostatic Discharge Caution
    7. 8.7 Glossary
  10. 9 Revision History
  11. 10Mechanical, Packaging, and Orderable Information

5.6 Typical Characteristics

at TA = 25°C, temperature curves specify ambient temperature, VDD = 5V, 100nF ac-coupling capacitors at input and output, 50Ω single-ended input, and 100Ω differential output (unless otherwise noted)

TRF0213-SEP Power Gain Across Temperature
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-1 Power Gain Across Temperature
TRF0213-SEP Input Return Loss Across Temperature
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-3 Input Return Loss Across Temperature
TRF0213-SEP Reverse Isolation Across Temperature
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-5 Reverse Isolation Across Temperature
TRF0213-SEP Output Return Loss Across Temperature
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-7 Output Return Loss Across Temperature
TRF0213-SEP OIP3 Across Temperature
PO /tone = –5dBm, 10MHz tone spacing
Figure 5-9 OIP3 Across Temperature
TRF0213-SEP OIP3 Across Output Power
10MHz tone spacing
Figure 5-11 OIP3 Across Output Power
TRF0213-SEP IMD3 Lower Across Temperature
At (2f1-f2) frequency, f1 < f2; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-13 IMD3 Lower Across Temperature
TRF0213-SEP IMD3 Higher Across Temperature
At (2f2-f1) frequency, f1 < f2; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-15 IMD3 Higher Across Temperature
TRF0213-SEP IMD3 Lower Across Output Power
At (2f1-f2) frequency, f1 < f2;
10MHz tone spacing
Figure 5-17 IMD3 Lower Across Output Power
TRF0213-SEP OIP2 Lower Across Temperature
At (f2-f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-19 OIP2 Lower Across Temperature
TRF0213-SEP OIP2 Higher Across Temperature
At (f2+f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-21 OIP2 Higher Across Temperature
TRF0213-SEP IMD2 Lower Across Temperature
At (f2-f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-23 IMD2 Lower Across Temperature
TRF0213-SEP IMD2 Higher Across Temperature
At (f2+f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-25 IMD2 Higher Across Temperature
TRF0213-SEP IMD2 Lower Across Output Power
At (f2-f1) frequency, f2 > f1;
10MHz tone spacing
Figure 5-27 IMD2 Lower Across Output Power
TRF0213-SEP HD2 Across Temperature
PO = +3dBm
Figure 5-29 HD2 Across Temperature
TRF0213-SEP HD3 Across Temperature
PO = +3dBm
Figure 5-31 HD3 Across Temperature
TRF0213-SEP HD2 Across Output Power
 
Figure 5-33 HD2 Across Output Power
TRF0213-SEP Output P1dB Across Temperature
 
Figure 5-35 Output P1dB Across Temperature
TRF0213-SEP NF Across Temperature
 
Figure 5-37 NF Across Temperature
TRF0213-SEP Gain Imbalance Across Temperature
 
Figure 5-39 Gain Imbalance Across Temperature
TRF0213-SEP Phase Imbalance Across Temperature
 
Figure 5-41 Phase Imbalance Across Temperature
TRF0213-SEP CMRR Across Temperature
 
Figure 5-43 CMRR Across Temperature
TRF0213-SEP Output Power Across Input Power
 
Figure 5-45 Output Power Across Input Power
TRF0213-SEP Overdrive Recovery Response
 
Figure 5-47 Overdrive Recovery Response
TRF0213-SEP Turn-on time
 
Figure 5-49 Turn-on time
TRF0213-SEP Additive (Residual) Phase Noise
f = 1GHz, PO = 10dBm
Figure 5-51 Additive (Residual) Phase Noise
TRF0213-SEP Power Gain Across VDD
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-2 Power Gain Across VDD
TRF0213-SEP Input Return Loss Across VDD
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-4 Input Return Loss Across VDD
TRF0213-SEP Reverse Isolation Across VDD
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-6 Reverse Isolation Across VDD
TRF0213-SEP Output Return Loss Across VDD
PIN = –20dBm with 50Ω source at all excited ports,
nonexcited ports are terminated with 50Ω
Figure 5-8 Output Return Loss Across VDD
TRF0213-SEP OIP3 Across VDD
PO /tone = –5dBm, 10MHz tone spacing
Figure 5-10 OIP3 Across VDD
TRF0213-SEP OIP3 Across Tone Spacing
PO /tone = –5dBm
Figure 5-12 OIP3 Across Tone Spacing
TRF0213-SEP IMD3 Lower Across VDD
At (2f1-f2) frequency, f1 < f2; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-14 IMD3 Lower Across VDD
TRF0213-SEP IMD3 Higher Across VDD
At (2f2-f1) frequency, f1 < f2; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-16 IMD3 Higher Across VDD
TRF0213-SEP IMD3 Higher Across Output Power
At (2f2-f1) frequency, f1 < f2;
10MHz tone spacing
Figure 5-18 IMD3 Higher Across Output Power
TRF0213-SEP OIP2 Lower Across VDD
At (f2-f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-20 OIP2 Lower Across VDD
TRF0213-SEP OIP2 Higher Across VDD
At (f2+f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-22 OIP2 Higher Across VDD
TRF0213-SEP IMD2 Lower Across VDD
At (f2-f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-24 IMD2 Lower Across VDD
TRF0213-SEP IMD2 Higher Across VDD
At (f2+f1) frequency, f2 > f1; PO /tone = –5dBm,
10MHz tone spacing
Figure 5-26 IMD2 Higher Across VDD
TRF0213-SEP IMD2 Higher Across Output Power
At (f2+f1) frequency, f2 > f1;
10MHz tone spacing
Figure 5-28 IMD2 Higher Across Output Power
TRF0213-SEP HD2 Across VDD
PO = +3dBm
Figure 5-30 HD2 Across VDD
TRF0213-SEP HD3 Across VDD
PO = +3dBm
Figure 5-32 HD3 Across VDD
TRF0213-SEP HD3 Across Output Power
 
Figure 5-34 HD3 Across Output Power
TRF0213-SEP Output P1dB Across VDD
 
Figure 5-36 Output P1dB Across VDD
TRF0213-SEP NF Across VDD
 
Figure 5-38 NF Across VDD
TRF0213-SEP Gain Imbalance Across VDD
 
Figure 5-40 Gain Imbalance Across VDD
TRF0213-SEP Phase Imbalance Across VDD
 
Figure 5-42 Phase Imbalance Across VDD
TRF0213-SEP CMRR Across VDD
 
Figure 5-44 CMRR Across VDD
TRF0213-SEP Low Frequency Gain Response
Low frequency cut-off as a function of ac-coupling cap
Figure 5-46 Low Frequency Gain Response
TRF0213-SEP Step Response
VO = 1VPP
Figure 5-48 Step Response
TRF0213-SEP Turn-off time
 
Figure 5-50 Turn-off time