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MAX2663 400MHz - 2.5GHz Upconverter Mixer Up to 10dB Conversion Gain
Data for the MAX2663 RF mixer including the mixer type, whether it is balanced double balanced, etc, electrical parameters, pinout, package type and many other key datasheet details.
The MAX2663 miniature, low-cost, low-noise upconverter mixer is designed for low-voltage operation and are ideal for use in portable consumer equipment.
It provides up to 10dB conversion gain, making it ideal for very many RF applications.
Signals at the IF input port are mixed with signals at the local oscillator (LO) port using a double-balanced mixer.
This upconverter mixer operates with IF input frequencies between 40MHz and 500MHz, and upconvert to output frequencies as high as 2.5GHz.
Key details and performance parameters for the MAX2663 RF mixer.
MAX2663 RF mixer datasheet parameters & data |
|
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Parameters | Details |
RF mixer type | Double balanced mixer with single ended IF |
Package type | SOT23-6L |
Active / passive | Active |
Supply voltage | +2.78V - 5.5V single supply |
Supply current | 3.0mA typ - 4.1mA max |
Input Frequency range | 40 - 500MHz |
IF Frequency range | 2.5GHz max |
Conversion gain / loss | 2.0dB typ for fIF = 45MHz fLO = 455MHz, fRF = 400MHz 3.4dB typ for fIF = 70MHz fLO = 970MHz, fRF = 900MHz -0.1dB min, 2.1dB typ, 4.2dB max for fIF = 70MHz fLO = 1830MHz, fRF = 1900MHz 1.4dB typ for fIF = 240MHz fLO = 2210MHz, fRF = 2450MHz |
Noise figure | 10.7dB typical for fIF = 70MHz, fLO = 970MHz, fRF = 900MHz 12.2dB typical for fIF = 70MHz, fLO = 1830MHz, fRF = 1900MHz 12.7dB typical for fIF = 350MHz, fLO = 2100MHz, fRF = 2450MHz |
LO to RF isolation | -22.7dB for fIF = 70MHz, fLO = 970MHz, fRF = 1900MHz -21.0dB typical for fIF = 70MHz, fLO = 1830MHz, fRF = 1900MHz -21.6dB typical for fIF = 240MHz, fLO = 2210MHz, fRF = 2450MHz |
Output third order intercept, OIP3 | 0.7dBm for fIF = 70MHz, FLO = 970MHz, fRF = 900MHz -1.4dBm for fIF = 70MHz, FLO = 1830MHz, fRF = 1900MHz -2.8dBm for fIF = 240MHz, FLO = 2210MHz, fRF = 2450MHz |
Output 1dB compression point | -12.3dBm for fIF = 70MHz, FLO = 970MHz, fRF = 900MHz -13.3dBm for fIF = 70MHz, FLO = 1830MHz, fRF = 1900MHz -14.3dBm for fIF = 240MHz, FLO = 2210MHz, fRF = 2450MHz |
IF input power | +10dBm max from 50Ω source |
LO input power | +10dBm max from 50Ω source |
Maximum LO input VSWR | 2.1 for f = 600MHz to 2500MHz 50Ω source impedance |
Max output spurious emissions | -67dBm for fIF = 70MHz, FLO = 1830MHz, fRF = 1900MHz |
Power dissipation | 696mW |
Junction temperature (°C) | 150 |
Primary manufacturer | Analog Devices (Maxim) |
Outline & Pinout:
Explanation of RF mixer parameters
Parameter | Explanation |
---|---|
Input Frequency range | Most RF mixer have a frequency range over which they can operate. As a result of the components used, this might include both upper and lower limits. |
IF Frequency range | This is a specification used on some RF mixers and it defines the frequency range for the IF output. |
Conversion gain / loss | Active miers often offer a level of gain between the RF input and the IF output. Passive mixers will introduce a loss. The conversion gain, measured in dB is a measure of this. |
Noise figure | This is an important factor for low noise systems and it is a measure of te noise introduced. It is expressed in terms of dB. |
LO to RF isolation | It is important that the normally high level local oscillator signal is isolated from the RF input, otherwise spurious signals might be generated.. This parameter gives a measure of the isolation or reduction in the LO signal from the LO input to the RF input and it is expressed in dB. |
LO to IF isolation | This is the isolation, i.e. reduction in the level of the LO signal between the local oscillator input to the IF output expressed in dB. |
RF to IF isolation |
Parameter | Explanation |
---|---|
Output third order intercept, OIP3 | The Third Order Intercept Point (IP3) for an RF mixer is a theoretical power level at the input (IIP3) or output (OIP3) where the power of the desired signal and the third-order intermodulation distortion (IMD3) products become equal. |
Output 1dB compression point | The 1dB compression point of an RF mixer is the input power level at which the desired output signal power drops by 1 dB below the level expected from the ideal linear conversion gain. |
RF input power | The maximum power level that can be applied to the RF input for the mixer to perform within its specifcation. |
LO input power | The recommended power level for the local oscillator signal at the LO input. |
IF output power | |
Maximum LO input VSWR | In order to achieve its required performance the local oscillator source impedance must match the required impedance. This specification gives the maximum VSWR for it to reach its specified performance. |
Max output spurious emissions | The maximum level is unwanted spurious signals relative to the wanted one expressed in dB. |
These are the main RF mixer parameters that have been included in our list. There are others, but the ones included are the main ones encountered.
Please note, that the data given is the best estimate we can give within a tabulated summary of this nature. Parameters also vary between manufacturers. Electronics Notes cannot accept any responsibility for errors, inaccuracies, etc, although we do endeavour to ensure the data is as accurate as possible.
Notes and supplementary information
• Availability & sources
The MAX2663 is available from a number of stockists and electronic component distributors many of which are given in the table below.
MAX2663 Component Distributor, Stock and Pricing
• Further details
The MAX2663 supply current is essentially constant over the specified supply voltage range. This device has a higher current when compared to its cousin the MAX2660, and other specifications are also different. Additionally, when the devices are in a typical configuration with V SHDN = 0, a shutdown mode reduces the supply current of typically 1μA.
The MAX2663 is ideal for use in applications including 400MHz/900MHz/2.4GHz ISM, Hand-Held Radios, Wireless Local Area Networks (WLANs), IEEE 802.11 and Wireless Data, Personal Communications Systems (PCS), Cellular and Cordless Phones, and many other applications. Written by Ian Poole .
Experienced electronics engineer and author.
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