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KSC2786YTA
Electronics Part Number
KSC2786YTA-WXManufacturer
Analog Devices, Inc.
KSC2786YTA
Description
20V 600MHz NPN RF Transistor TO-92SInventory
27 Pcs New Original In Stock
TO-92S RF NPN transistor; 20V, 20mA, 600MHz, 250mW; good high-frequency stability; for RF front-end circuits.
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Basic cost: USD 70.00
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Technical Specifications
Category
RF Detectors
Manufacturer
Analog Devices, Inc.
Packaging
Cut Tape (CT) & Digi-Reel®
Mounting Type
Surface Mount
Package / Case
8-WFDFN Exposed Pad
Series
-
Base Product Number
LTC5596
Product Status
Active
Current - Supply
30 mA
Frequency
100MHz ~ 40GHz
Voltage - Supply
3.3V
Supplier Device Package
8-DFN (2x2) Flip Chip
Accuracy
±1dB
RF Type
Cellular, WLAN
Input Range
-40.8dBm ~ 6.3dBm
Data Sheet Document (D)
Datasheets
Download LTC5596IDC#TRPBF Product Specification (PDF)
HTML Datasheet
LTC5596IDC#TRPBF-DG
Environmental & Export Classification
RoHS Status
ROHS3 Compliant
Moisture Sensitivity Level (MSL)
1 (Unlimited)
REACH Status
REACH Unaffected
ECCN
EAR99
HTSUS
8542.39.0001
Additional Information
Other Names
LTC5596IDC#TRPBF-DG 505-LTC5596IDC#TRPBFDKR 505-LTC5596IDC#TRPBFCT 505-LTC5596IDC#TRPBFTR
Standard Package
2,500
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Frequently Asked Questions (FAQ)
Can the LTC5596IDC#TRPBF replace a legacy RMS detector like the ADL5513 in a 5G mmWave power monitor
The LTC5596IDC#TRPBF can serve as a functional replacement for the ADL5513 in many 5G applications due to its wider frequency range (100MHz–40GHz) and true RMS response, but it requires careful PCB layout adjustments. Unlike the ADL5513, the LTC5596 uses an 8-WFDFN exposed pad package with strict thermal and grounding requirements. You must ensure a solid ground plane under the exposed pad and minimize trace inductance on the RF input path—ideally using a 50Ω microstrip with grounded coplanar waveguide routing. Failure to do so can introduce standing waves and degrade accuracy above 6GHz, especially near the 28GHz or 39GHz 5G bands.
What are the risks of using the LTC5596IDC#TRPBF in a high-vibration industrial environment, and how
While the LTC5596IDC#TRPBF’s 8-DFN (2x2) flip-chip package offers excellent high-frequency performance and low parasitics, its small solder joints are more susceptible to mechanical stress in high-vibration settings compared to larger QFN packages like those used in the ADL5902. To mitigate failure risk, implement underfill epoxy around the package edges and avoid mounting the board on resonant structures. Additionally, perform thermal cycling tests during qualification—MSL 1 rating helps with moisture resilience, but repeated mechanical shock can still cause latent cracks in the flip-chip interconnects over time.
How does the LTC5596IDC#TRPBF behave when detecting pulsed RF signals common in radar or TD-LTE syst
The LTC5596IDC#TRPBF maintains its ±1dB accuracy specification only for continuous-wave (CW) or high-duty-cycle signals. For pulsed RF with duty cycles below 10%—such as in automotive radar or TD-LTE—the internal thermal averaging may underestimate peak power by up to 2–3dB unless compensated. To correct this, apply a duty-cycle-dependent scaling factor in firmware or use an external peak-hold circuit for calibration. Always validate with actual pulse profiles, as rise/fall times below 10ns can further distort the output due to the detector’s finite response time (~100ns).
Is it safe to operate the LTC5596IDC#TRPBF near its maximum input power of +6.3dBm in a crowded RF e
Operating the LTC5596IDC#TRPBF at or near +6.3dBm input power in spectrally dense environments (e.g., multi-carrier base stations) risks compression and intermodulation distortion, even though the part is rated for that level under CW conditions. Strong out-of-band signals can generate IMD products within the detector’s bandwidth, leading to false RMS readings. To avoid this, add a pre-filter (e.g., a bandpass SAW or ceramic filter) matched to your target band (e.g., n77/n79 for 5G). Also, ensure input VSWR is <2:1—mismatch reflections can locally exceed the max input power and damage the internal diodes over time.
Can I drop in the LTC5596IDC#TRPBF to replace a logarithmic amplifier like the AD8318 in a WLAN powe
Direct replacement of the AD8318 with the LTC5596IDC#TRPBF is not recommended without redesign, despite both covering similar frequencies. The LTC5596 provides a linear-in-V RMS output voltage (not logarithmic), which changes the loop dynamics in AGC or power control systems. This can cause overshoot or instability if the existing controller expects a log-scaled response. You’ll need to either recalibrate the control algorithm or insert a software lookup table to linearize the response. Additionally, the LTC5596’s 30mA supply current and 3.3V operation may require LDO upgrades if the original design relied on the AD8318’s lower 5V/15mA draw—verify headroom in your power budget before integration.
Can the LTC5596IDC#TRPBF replace a legacy RMS detector like the ADL5513 in a 5G mmWave power monitor
The LTC5596IDC#TRPBF can serve as a functional replacement for the ADL5513 in many 5G applications due to its wider frequency range (100MHz–40GHz) and true RMS response, but it requires careful PCB layout adjustments. Unlike the ADL5513, the LTC5596 uses an 8-WFDFN exposed pad package with strict thermal and grounding requirements. You must ensure a solid ground plane under the exposed pad and minimize trace inductance on the RF input path—ideally using a 50Ω microstrip with grounded coplanar waveguide routing. Failure to do so can introduce standing waves and degrade accuracy above 6GHz, especially near the 28GHz or 39GHz 5G bands.
What are the risks of using the LTC5596IDC#TRPBF in a high-vibration industrial environment, and how
While the LTC5596IDC#TRPBF’s 8-DFN (2x2) flip-chip package offers excellent high-frequency performance and low parasitics, its small solder joints are more susceptible to mechanical stress in high-vibration settings compared to larger QFN packages like those used in the ADL5902. To mitigate failure risk, implement underfill epoxy around the package edges and avoid mounting the board on resonant structures. Additionally, perform thermal cycling tests during qualification—MSL 1 rating helps with moisture resilience, but repeated mechanical shock can still cause latent cracks in the flip-chip interconnects over time.
How does the LTC5596IDC#TRPBF behave when detecting pulsed RF signals common in radar or TD-LTE syst
The LTC5596IDC#TRPBF maintains its ±1dB accuracy specification only for continuous-wave (CW) or high-duty-cycle signals. For pulsed RF with duty cycles below 10%—such as in automotive radar or TD-LTE—the internal thermal averaging may underestimate peak power by up to 2–3dB unless compensated. To correct this, apply a duty-cycle-dependent scaling factor in firmware or use an external peak-hold circuit for calibration. Always validate with actual pulse profiles, as rise/fall times below 10ns can further distort the output due to the detector’s finite response time (~100ns).
Is it safe to operate the LTC5596IDC#TRPBF near its maximum input power of +6.3dBm in a crowded RF e
Operating the LTC5596IDC#TRPBF at or near +6.3dBm input power in spectrally dense environments (e.g., multi-carrier base stations) risks compression and intermodulation distortion, even though the part is rated for that level under CW conditions. Strong out-of-band signals can generate IMD products within the detector’s bandwidth, leading to false RMS readings. To avoid this, add a pre-filter (e.g., a bandpass SAW or ceramic filter) matched to your target band (e.g., n77/n79 for 5G). Also, ensure input VSWR is <2:1—mismatch reflections can locally exceed the max input power and damage the internal diodes over time.
Can I drop in the LTC5596IDC#TRPBF to replace a logarithmic amplifier like the AD8318 in a WLAN powe
Direct replacement of the AD8318 with the LTC5596IDC#TRPBF is not recommended without redesign, despite both covering similar frequencies. The LTC5596 provides a linear-in-V RMS output voltage (not logarithmic), which changes the loop dynamics in AGC or power control systems. This can cause overshoot or instability if the existing controller expects a log-scaled response. You’ll need to either recalibrate the control algorithm or insert a software lookup table to linearize the response. Additionally, the LTC5596’s 30mA supply current and 3.3V operation may require LDO upgrades if the original design relied on the AD8318’s lower 5V/15mA draw—verify headroom in your power budget before integration.
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Sep 15 2026
