Product Details
Payment & Shipping Terms
Input Impedance: |
50Ω |
Power Supply: |
3.3V - 5V |
Noise Figure: |
2.5dB - 4.5dB |
Application: |
Wireless Communication, Radar, Satellite |
Package: |
SOP, DIP, QFN, BGA |
Output Impedance: |
50Ω |
Type: |
Amplifier IC Chips |
Size: |
2mm X 2mm - 10mm X 10mm |
Input Impedance: |
50Ω |
Power Supply: |
3.3V - 5V |
Noise Figure: |
2.5dB - 4.5dB |
Application: |
Wireless Communication, Radar, Satellite |
Package: |
SOP, DIP, QFN, BGA |
Output Impedance: |
50Ω |
Type: |
Amplifier IC Chips |
Size: |
2mm X 2mm - 10mm X 10mm |
The 71M6513-IGT/F, TDB6HK180N16RR and MIMXRT1052CVL5B Amplifier IC chips are high performance integrated circuit chips that provide precise, low-noise, and low-distortion amplification for a variety of applications. They feature an output power of 15dBm to 20dBm (P1dB), a gain flatness of ±0.5dB, current consumption of 20mA to 40mA, an IP3 of 20dBm to 30dBm, and are available in SOP, DIP, QFN, and BGA packages.
These Amplifier IC chips have excellent linearity and distortion performance, making them ideal for use in a wide range of professional and consumer audio applications, such as audio power amplifier, PA systems, and sound reinforcement systems. They are also suitable for use in many other applications such as wireless communications, instrumentation, automotive audio systems, and video.
The Amplifier IC chips provide high performance and reliable operation in demanding environments. They are designed for low power consumption and are highly efficient, making them an ideal solution for a wide range of applications.
| Package | Current Consumption(mA) | Size(mm) | Power Supply(V) | Application | Gain Flatness(dB) | IP3(dBm) | Type | Gain(dB) | P1dB(dBm) |
|---|---|---|---|---|---|---|---|---|---|
| SOP, DIP, QFN, BGA | 20-40 | 2x2-10x10 | 3.3-5 | Wireless Communication, Radar, Satellite | ±0.5 | 20-30 | Amplifier IC Chips | 20-40 | 15-20 |
| TPS7A02185PDQNR | 20-40 | 2x2-10x10 | 3.3-5 | Wireless Communication, Radar, Satellite | ±0.5 | 20-30 | Amplifier IC Chips | 20-40 | 15-20 |
| TDB6HK180N16RR | 20-40 | 2x2-10x10 | 3.3-5 | Wireless Communication, Radar, Satellite | ±0.5 | 20-30 | Amplifier IC Chips | 20-40 | 15-20 |
Amplifier IC Chips are designed for a variety of wireless communication, radar, and satellite applications. With their high current consumption of 20mA to 40mA, low output impedance of 50Ω, and input impedance of 50Ω, they are the ideal choice for any environment with an operating temperature range from -40°C to +85°C. The SPC5602DF1VLL4, LFXP2-5E-5FTN256C, and S908AZ32AE0CFUE2 Amplifier IC Chips provide superior performance and reliability in these conditions.
We provide technical support and services for Amplifier IC Chips. Our team of experienced engineers is available to provide advice and support for any technical issues you may have. We offer a range of services, including troubleshooting and diagnosis, component-level repairs, and system optimization. We also offer design and prototyping services for custom Amplifier IC Chips applications. Our team is dedicated to providing you with the best possible service and support.
A1: An Amplifier IC Chip is a type of integrated circuit that amplifies an electrical signal. It is usually used to boost the power of weak signals to drive a speaker or other electrical device.
A2: Amplifier IC Chips can be used in a wide range of applications such as audio amplifiers, power amplifiers, and instrumentation amplifiers. They are also used in automotive, medical, and consumer electronics.
A3: The main feature of an Amplifier IC Chip is its ability to amplify weak signals. It can be used to boost signal levels to drive speakers or other electrical devices.
A4: Amplifier IC Chips offer a number of benefits, including increased power efficiency, low noise levels, and the ability to drive a wide range of electrical devices.
A5: A linear amplifier operates by amplifying an input signal in a linear fashion, while a switching amplifier operates by switching between two states to amplify the input signal. Linear amplifiers are generally more efficient than switching amplifiers, but switching amplifiers are typically more cost-effective.
