An 802.11a/b/g/n/ac WLAN Transceiver for 2×2 MIMO and simultaneous dual-band operation with +29 dBm Psat integrated power amplifiers

The design of 3 rd /5 th order active RC Chebyshev low-pass filter (LPF) with reconfigurable bandwidth and gain is based on 55 nm CMOS technology. The filter is integrated into draft IEEE 802.11ax concurrent dual band four antenna transceiver analog baseband circuit. Programmable capacitor bank of the filter is used to adjust bandwidth. The typical bandwidth of receiving filter is 10/20/40 MHz, and that of transmitting filter is 12/24/50 MHz. Adjust the gain ranging from -10 to 18 dB in passband by programmable resistor bank. The current consumption of typical bandwidth of receiving filter is 2.08 mA at a 1.5 V supply and has properties of 10 MHz bandwidth (BW), 36 dB gain, -62 dBm input signal, -39 dB third intermodulation distortion (IMD3), 17.1 nV/√Hz equivalent input noise (EIN). As for transmitting filter, the current consumption of typical bandwidth is 1.25 mA at a 1.5 V supply and has the properties of 10 MHz BW, -6 dB gain, 0 dBm input signal, -38 dB IMD3, 75 nV/√Hz EIN. Area of the whole filter is 0.08 mm 2 . INDEX TERMS Active RC, analog baseband, low-pass filter.

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“…According to (8), the functional structure diagram of Fig. 5 is transformed into Single-ended circuit structure diagram, as shown in Fig.…”

Section: B Mode Reconfigurationmentioning

confidence: 99%

A 3^rd/5^th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

Wang

Huang

2021

IEEE Access

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“…CMOS PAs often use a pseudo-differential pair, cascode devices to provide a high output power [14], [27]. Thick-oxide devices are used in the common gate device to sustain gate-drain voltage stress in a high output power level.…”

Section: Optimum Load Impedance Analysismentioning

confidence: 99%

Design of transmitter front-end for WLAN 802.11ax application

Liu¹

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A 0.4-to-4-GHz All-Digital RF Transmitter Package With a Band-Selecting Interposer Combining Three Wideband CMOS Transmitters

Kuo

Yang

Wang

et al. 2018

IEEE Trans. Microwave Theory Techn.

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An 802.11a/b/g/n/ac WLAN Transceiver for 2×2 MIMO and simultaneous dual-band operation with +29 dBm Psat integrated power amplifiers

Cited by 4 publications

References 4 publications

A 3^rd/5^th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

A 3^rd/5^th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

Design of transmitter front-end for WLAN 802.11ax application

A 0.4-to-4-GHz All-Digital RF Transmitter Package With a Band-Selecting Interposer Combining Three Wideband CMOS Transmitters

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An 802.11a/b/g/n/ac WLAN Transceiver for 2×2 MIMO and simultaneous dual-band operation with +29 dBm Psat integrated power amplifiers

Cited by 4 publications

References 4 publications

A 3rd/5th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

A 3rd/5th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

Design of transmitter front-end for WLAN 802.11ax application

A 0.4-to-4-GHz All-Digital RF Transmitter Package With a Band-Selecting Interposer Combining Three Wideband CMOS Transmitters

Contact Info

Product

Resources

About

A 3^rd/5^th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain

A 3^rd/5^th Order Active RC Chebyshev Analog Baseband Low-Pass Filter With Reconfigurable Bandwidth and Gain