CN101183878A - Low-power consumption wireless receiver radio frequency front end circuit - Google Patents

Low-power consumption wireless receiver radio frequency front end circuit Download PDF

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CN101183878A
CN101183878A CNA2007101726171A CN200710172617A CN101183878A CN 101183878 A CN101183878 A CN 101183878A CN A2007101726171 A CNA2007101726171 A CN A2007101726171A CN 200710172617 A CN200710172617 A CN 200710172617A CN 101183878 A CN101183878 A CN 101183878A
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signal
transformer
stage
circuit
radio frequency
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CN101183878B (en
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李巍
杨光
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Fudan University
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Abstract

The invention relates to a low power consumption RF front-end circuit of the wireless receiver, belonging to the technical field of the integrated circuit of the RF wireless receiver, , comprising an RF input matching network, an amplifier stage, a bridge transformer, an LO switch stage, an IF load and a current source bias circuit; wherein, the RF input matching network implements the impedance matching between an antenna and the amplifier stage; the amplifier stage is used for amplifying the signal, the bridge transformer transfers the signal amplified to the LO switch stage and implements DC isolation between the front stage and back stage; the LO switch stage is used for implementing frequency mixing of the RF current signal and the LO signal and outputting alternatively the IF signal on an outputting differential load. Compared with the traditional RF front-end circuit, the circuit structure can use an on-chip integrated transformer or an on-chip inductor to implement inputting matching, and use the on-chip integrated transformer to implement the amplifying and downward frequency mixing of the RF signals perfectly, which simplifies the circuit structure. The circuit can be used in a low power supply voltage environment, and has the advantages of low DC power consumption, and less circuit noise and signal distortion.

Description

A kind of low-power consumption wireless receiver radio frequency front end circuit
Technical field
The invention belongs to wireless radiofrequency receiver ic technical field, be specifically related to a kind of radio-frequency (RF) front-end circuit in the wireless receiver integrated circuit (RF Front-end) that is applied to.The video receiver chip that can be used for technical standards such as broadband wireless network and high speed wireless data transmission is as WiMax and UWB etc.
Background technology
Along with communication and development of semiconductor, various mobile communication system and wireless data transmission technology develop rapidly, representative in them has GSM, CDMA and Bluetooth and WiFi etc., particularly High Data Rate Radio Transmission Technologys such as 3G, IEEE802.11a/b/g, WiMax and UWB super-broadband tech continue to bring out in recent years, and high performance video receiver has been proposed very high requirement.Because the carrier frequency of mobile communication and wireless data transmission technology is higher, the signal bandwidth that adopts in the part technology is very big, and the less radio-frequency receiver receives and amplifies the wireless signal that is in high-frequency very or very big bandwidth and amplify and carry out the digitlization signal processing.Simultaneously, the mobile communication or the wireless technology overwhelming majority are applied on the handheld terminal, and this just requires the signal of handheld terminal to receive and transmitter must reduce power consumption as far as possible to lengthen working hours.
Radio-frequency front-end is as one of chief component in the wireless communication receiver, and its effect is exactly the frequency translation that the small-signal that antenna receives is amplified and carried out signal.Generally these two functions are distributed to low noise amplifier (Low Noise Amplifier) respectively in the conventional radio frequency front-end circuit and down-conversion mixer (Down Conversion Mixer) two parts are separate.The shortcoming of doing like this is that two parts circuit interacts, need experience during design independent design, emulation to interconnect, the flow process of associative simulation, parameter modification, design difficulty and cycle strengthen.The difficulty of two parts circuit interface design causes the performances such as power consumption, noise and the linearity of integrated circuit not optimized fully.
The radio frequency input matching network of tradition broadband rf front end circuit generally is made of with input common source transistor and source inductance jointly the filter network of grid on-chip inductor, electric capacity and combination thereof, and the on-chip inductor number of use is more, and chip occupying area is bigger.
Summary of the invention
The purpose of this invention is to provide a kind of radio-frequency (RF) front-end circuit that is used for the wireless radiofrequency receiver, requiring its operating frequency range characteristic is broadband and ultra broadband, and dc power is little, supply voltage is low, the linearity height of little while of noise factor.
Radio-frequency (RF) front-end circuit provided by the invention, its structure as shown in Figure 1, this radio-frequency (RF) front-end circuit comprises that input matching network, amplifying stage, bridging transformer and LO switching stage and the load of IF intermediate frequency and current source biasing fund-raising circuit connect to form; Wherein the radio frequency input matching network is done the impedance matching between antenna and the amplifying stage, amplifying stage carries out the amplification of signal, signal after bridging transformer will amplify passes to the LO switching stage and realizes the DC-isolation of front and back level, and the LO switching stage makes RF current signal and LO signal carry out mixing and alternately export the medium-frequency IF signal on the output differential load.
Among the present invention, the radio frequency input matching network can combine the feedback arrangement that forms by integrated transformer on integrated transformer on the sheet or the sheet and realize with the amplifying stage subelement.Spendable on-chip transformer architecture with the classification as Fig. 2 (a), (b), (c), (d), (e), (f) shown in.Fig. 3 provides the monolateral circuit diagram of two kinds of modular designs, a kind of elementary input of integrated transformer from the sheet that is radio frequency rf signal, again by secondary homophase termination amplifying stage master amplifier tube grid, the source electrode of main amplifier tube connects feedback inductance, drain electrode connects back level load circuit, and other port of transformer all connects and exchanges ground (fixed bias voltage, the drain electrode of difference common mode current offset or ground); Another kind is that radio frequency rf signal is imported from the elementary end of on-chip transformer, another termination amplifying stage master amplifier tube grid, and amplifying stage master amplifier tube source electrode connects the transformer secondary output end of oppisite phase, and secondary another termination exchanges ground, and main amplifier tube drain electrode connects back grade amplifying circuit.
Among the present invention, amplifying stage is generally the MOS FET transistor or the combination of bipolar triode of common source connection or cascade connected mode, and can become feedback arrangement with the input matching network combination of elements.With the cascade is example, and common source Guan Weizhu amplifier tube is in order to provide bigger mutual conductance; Bank tube can provide bigger output impedance for auxiliary amplifier tube altogether, and the isolation of back level with the RF input is provided, and avoids the reverse leakage of LO large-signal.
Among the present invention, bridging transformer is an integrated transformer on the sheet, its structure with the classification as Fig. 2 (a), (b), (c), (d), (e), (f) shown in.Described bridging transformer is an integrated transformer on the sheet; To be the radiofrequency signal that will amplify be coupled to secondaryly from elementary in its effect, offers the LO switching stage and carry out mixing.If amplifying stage is that single-ended structure, LO switching stage are single balanced structure, its method of attachment is shown in Fig. 4 (a); Be two balanced structures if amplifying stage is single-ended structure, LO switching stage, its method of attachment is shown in Fig. 4 (b); Be two balanced structures if amplifying stage is differential configuration, LO switching stage, its method of attachment is shown in Fig. 4 (c).On-chip transformer wherein can provide bias voltage or bias current from the coil centre tap.
Among the present invention, the LO switching stage is generally NMOS FET transistor or NPN bipolar triode, and radiofrequency signal generally from the input of its common source (penetrating) end, import from grid (base) utmost point by the LO signal.
The intermediate frequency load is generally resistance on the sheet, electric capacity, inductance or their combinational network, the circuit that can be used for broadband down-conversion, arrowband down-conversion and up-conversion and special intermediate frequency frequency response requirement is arranged.Its current source load is fixing NMOS pipe or a NPN triode of grid (base stage) voltage.
This circuit can adopt single-ended structure or fully differential structure, and technologies such as available CMOS, BiCMOS, Bipolar realize.
Go up integrated transformer for described and totally be divided into two kinds, plane (planar) and cascade type (stacked), and according to the cross modal of primary and secondary coil, plane be divided into tapped (tapped) and staggered form (interleaved) again, cascade type be divided into complete eclipsed form and dislocation eclipsed form again.Coupling ratio is loose between the flat surface transformer coil, and wherein tapped flat surface transformer coupling coefficient minimum is about 0.3 ~ 0.5; The staggered form flat surface transformer is according to the spacing size of primary and secondary coil, and the coupling coefficient scope is about 0.7 ~ 0.8; And the cascade type transformer is overlapping closely owing to upper/lower layer metallic, and coupling coefficient can reach more than 0.9.Plane type transformer only utilizes top-level metallic, and the top-level metallic of technology is thicker usually, and resistivity is low, and parasitic capacitance is little, the Q value of transformer coil and self-oscillation frequency are improved, and stacked parasitic capacitance and series resistance is all bigger, the Q value is not high, needs careful use.
Integrated transformer also can come out from the centre tap of primary and secondary coil on the sheet, make primary and secondary all become three terminal device, centre tap can connect interchange ground (supply voltage, decoupling capacitance or ground) and be used for forming the transformer of difference input and output and can provide direct voltage or interchange ground.
This circuit is if realize that with BiCMOS or Bipolar technology then transistor shown in Fig. 3,5 is all replaceable is triode, and annexation and signal are constant.
The design's outstanding improvements have two.
First improvements use on-chip transformer according to the input matching network that is connected to form shown in Figure 3, realize Broadband Matching.With Fig. 3 (b) is example, and its small-signal input equivalent network as shown in Figure 6.Consider chip bonding line inductance L BWAnd parasitic capacitance C Par, its input impedance can be written as:
Z in = L BW s + ( 1 + nk ) L S s + ( 1 + B ) r S + r se + 1 C gs S 1 - k n ( 1 + B ) , - - - ( 1 )
Figure S2007101726171D00032
Figure S2007101726171D00033
Wherein B = g m C gs S = - j ω T ω , and L SBe self inductance of transformer secondary output coil, r SBe the dead resistance of transformer secondary output coil, r SeBe the dead resistance of transformer, L BWBe bonding line stray inductance, C ParBe the parasitic capacitance of chip PAD and cabling, ω TBe the cut-off frequency of main amplifier tube, ω is the input signal angular frequency, C GsBe main amplifier tube grid source overlap capacitance, k is transformer coupled coefficient, and n is the transformer coil turn ratio.
As seen:, at first need to determine and the relevant ω of main amplifier tube direct current if will make input impedance matching to 50 ohm T, secondly need to determine main amplifier tube size, transformer turn ratio and coupling coefficient, with the suitable on-chip transformer of design parameter.According to (2), (3) formula, when parameter selects to make the enough little and real part of input impedance imaginary part near 50 ohm, can think that reaching input mates.
Weigh the broadband character of input coupling, as long as calculate the Q value of input impedance, promptly When design parameter is suitable, can make that the Q value is less, the Broadband Matching effect improves.
This design will need independent grid inductance and source feedback inductance to merge into transformer originally, can improve integrated level, reduce chip area, and the Broadband Matching effect not change.
Second outstanding improvements is with the elementary laod network as the RF amplifying stage of on-chip transformer, replaces the inductance ohmic load network of traditional LNA, replaces the RF of traditional Gilbert frequency mixer to import the mutual conductance pipe with on-chip transformer, as shown in Figure 7.
The equivalent inductance of transformer and parasitic series resistance and add the load that parallel resistance is formed amplifying stage jointly, its effect is identical with the laod network of LNA.
And import the mutual conductance pipe with the RF of transformer replacement frequency mixer, its advantage is as described below:
Analysis conventional Gilbert frequency mixer RF mutual conductance pipe is an example with the NMOS pipe, and its effect is the small-signal current that the small signal of grid is converted to drain electrode, and the current-voltage gain of conversion is that the mutual conductance of NMOS pipe self is:
g m = 2 I μ 0 C OX W L - - - ( 4 )
Wherein I is the quiescent current that flows through pipe, μ 0Be the carrier mobility of pipe, C OXBe unit grid oxygen electric capacity, W and L are respectively the wide of pipe and long.
The on-chip transformer that the design adopted can by electromagnetic coupling effect, be coupled to secondary coil with institute's radio frequency rf signal (voltage or electric current) in addition on the primary coil.If the elementary and secondary coil turn ratio of transformer is n (turnsratio), coupling coefficient is k (coupling factor), and their expression formula is as follows,
n = L S L P - - - ( 5 )
k = M L P L S - - - ( 6 )
L wherein PAnd L SBe respectively self inductance value of primary coil (primary) and secondary coil (secondary), M is two mutual inductance values between the coil.Then it elementaryly to secondary electric current gain amplifier is:
A i = i P i S = nk - - - ( 7 )
Even its current gain is less than 1, because transformer input impedance is little, for certain input voltage signal, the electric current that flows through primary coil increases, and the mutual conductance of equivalence is close with the RF mutual conductance pipe of traditional Gilbert frequency mixer.
The RF mutual conductance pipe of tradition Gilbert mixer, especially in sub-micron, deep submicron process, self have multiple noises such as channel current noise, induced grid noise, low frequency flicker noise, the LO switching stage also can be introduced noise, makes that the noise of mixer is very big.And if adopt on-chip transformer to replace RF mutual conductance pipe, because on-chip transformer is a passive device, ideally do not introduce noise, even the parasitic parameter of consideration own, below the 10GHz frequency, substrate eddy current effect and electric current skin effect are also not serious, and its parasitic resistance of connecting has only several ohms usually, and noise contribution will be very little also.
The RF mutual conductance pipe of tradition Gilbert mixer is handled the limited in one's ability of large-signal, promptly because it works in being limited in scope of linear amplification district, in case input signal is excessive, will cause transistor to enter the inelastic region, worsens the frequency mixer ability to work significantly.If adopt on-chip transformer, because it is a passive device, ideally its linearity is very high, even because the influence of parasitic parameter generally also can reach the linearity above normal transistor.
After using the RF mutual conductance pipe replacement of on-chip transformer with traditional Gilbert frequency mixer, because impedance is very little under the on-chip transformer direct current situation, the direct current pressure drop is just very little, like this from the entire circuit two-layer transistor (LO pipe and offset) that only superposeed, and traditional Gilbert circuit has three stacked adding (LO pipe, RF pipe and offset) to guarantee that same all pipes are under the situation in operate as normal district, reduce the pressure drop of one deck pipe, make and select lower supply voltage to become possibility.
Equally, according to (4) (7) formula, use the transadmittance gain of on-chip transformer structure only relevant with coupling coefficient k with turn ratio n, and the mutual conductance of traditional Gilbert frequency mixer RF tube current and bias current, pipe breadth length ratio are relevant, the circuit of on-chip transformer structure only need guarantee to provide the bias current of LO switching stage operate as normal like this, and need not to provide the electric current of increase to make that the mutual conductance of RF pipe is enough big.In this case, adopt the design of on-chip transformer more to save electric current.。
In a word, use one (single-end circuit) or two on-chip transformers (fully differential), just realized acting on greatly, realized that the signal in broadband amplifies and following mixing as load of RF amplifying stage and frequency mixer transconductance stage two.
Description of drawings
Fig. 1 is the present invention's electrical block diagram.
Fig. 2 is an integrated transformer structural diagrams on the sheet.Wherein, (a) be the vertical view of integrated transformer (tappedplanar on-chip transformer) on the tap type planar chip, (b) be the cutaway view of integrated transformer (tapped planaron-chip transformer) on the tap type planar chip, (c) be the vertical view of integrated transformer on the chiasma type planar chip (interleaved planaron-chip transformer), (d) be the cutaway view of integrated transformer on the chiasma type planar chip (interleaved planaron-chip transformer), (e) vertical view of integrated transformer (stacked on-chiptransformer) on the stacked matrix, this example is complete eclipsed form, (f) cutaway view of integrated transformer (stacked on-chiptransformer) on the stacked matrix.
Fig. 3 is the connection layout of input matching network transformer.Wherein, (a) to connect input transformer elementary for input signal, and secondary main amplifier tube grid (base) utmost point that connects, the other end of primary and secondary all connect and exchange ground, the only inductance of main amplifier tube source (penetrating) utmost point order.(b) input signal connects the elementary end of input transformer, elementary another termination master amplifier tube grid (base) utmost point, and secondary anti-phase termination master's amplifier tube source (penetrating) utmost point, another termination exchanges ground.
The connection layout of Fig. 4 bridging transformer and LO switching stage.Wherein, (a) amplifying stage is single-ended structure, LO switching stage when being single balanced structure, bridging transformer and the method for attachment of LO switching stage.When (b) amplifying stage is single-ended structure, LO switching stage for two balanced structure, bridging transformer and the method for attachment of LO switching stage.When (c) amplifying stage is differential configuration, LO switching stage for two balanced structure, bridging transformer and the method for attachment of LO switching stage.
Fig. 5 is the connection layout of LO switching stage.
Fig. 6 is the small-signal equivalent circuit of circuit connecting method shown in Fig. 3 (b).
Fig. 7 is the schematic diagram of the design's second outstanding improvement
Fig. 8 is the circuit diagram of the concrete embodiment of the design.
Fig. 9 is the input coupling S11 parameters simulation figure of concrete embodiment circuit.
Figure 10 is the conversion gain analogous diagram of concrete embodiment circuit, and this figure only illustrates the simulation result of one of three frequency ranges, wherein the input rf signal frequency range be 3.6GHz to 4.2GHz, the LO signal frequency is 3.9GHz.
Figure 11 is the noise factor analogous diagram of concrete embodiment circuit, and this figure only illustrates the simulation result of one of three frequency ranges, wherein the input rf signal frequency range be 3.6GHz to 4.2GHz, the LO signal frequency is 3.9GHz, the IF frequency deviation is that 1MHz is to 300MHz.
Figure 12 puts analogous diagram for the input of concrete embodiment circuit with reference to third order intermodulation, and wherein the LO signal frequency is 3.9GHz, and the RF signal frequency is 4GHz and 4.001GHz.
Number in the figure: 1 is the outer layer metal winding, and 2 is the inner layer metal winding, and 3 is the medium of oxides layer between metal and the substrate, and 4 is silicon substrate, and 5 is bottom metal, and 6,7 is two metal winding that are coupled mutually, and 8,9 is two metal winding that overlap up and down.
Embodiment
This structure of radio-frequency front end is applied to 3.1GHz in the fully differential radio-frequency (RF) front-end circuit of 4.7GHz frequency range MB-OFDM UWB radio-frequency transmitter, and the specific design parameter as shown in Figure 8.Adopt 0.18um RF CMOS 1P6M technology, emulation tool is Cadence SpectreRF, wherein V B1=0.82V, V B2=0.68V, the gate bias voltage of RF amplifying stage master amplifier tube M1/2 is 1.08V, the gate bias voltage of LO switching stage pipe is 0.8V.
The transformer that input matching network adopts is a tap type plane on-chip transformer, the layer 6 metal routing, and primary coil sense value is 3.5nH, and secondary coil sense value is 0.8nH, and turn ratio is 1: 0.48, and coupling coefficient is about 0.4; What bridging transformer adopted is chiasma type plane on-chip transformer, and layer 6 metal routing, primary and secondary coil all are 2n, and promptly turn ratio is 1: 1, and coupling coefficient is 0.8.
LO local oscillation signal frequency is respectively 3.432GHz, 3.960GHz, 4.488GHz, and the frequency range of RF input signal is about 3.1GHz to 4.7GHz, and IF intermediate-freuqncy signal frequency range is that 4.125MHz is to 264MHz.
Concrete simulation result such as following table:
Front-end
Index parameter Simulation result (NOM Corner)
RF incoming frequency (GHz) 3.1~4.7
Input coupling S11 (dB) -9~-14
LO frequency/power 3.432GHz/0dBm 4.488GHz/0dBm 3.96GHz/0dBm
IF(MHz) 4.125~264
Linearity IIP3 (dBm) -4.3
Gain (dB) 21.1~22.0 22.0~22.7 19.9~21.7
Noise factor (dB) 2.5 2.5 3.5
Dc power 1.5V×12.5mA
Wherein the partial simulation result can be referring to Figure of description 9 to Figure 12.

Claims (1)

1. low-power consumption wireless receiver radio frequency front end circuit, circuit connects to form to it is characterized in that setovering successively by radio frequency input matching network, amplifying stage, bridging transformer and LO switching stage and the load of IF intermediate frequency and current source, wherein, the radio frequency input matching network is done the impedance matching between antenna and the amplifying stage, amplifying stage carries out the amplification of signal, signal after bridging transformer will amplify passes to the LO switching stage and realizes the DC-isolation of front and back level, and the LO switching stage makes RF current signal and LO signal carry out mixing and alternately export the medium-frequency IF signal on the output differential load;
Described radio frequency input matching network combines the feedback arrangement that forms by integrated transformer on integrated transformer on the sheet or the sheet and realizes with the amplifying stage subelement;
Described amplifying stage can be the common source connection or is the transistor combination of cascade connection, perhaps bipolar triode combination;
Described LO switching stage can be single balanced type and double-balance.
CN2007101726171A 2007-12-20 2007-12-20 Low-power consumption wireless receiver radio frequency front end circuit Expired - Fee Related CN101183878B (en)

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