CN113676211B

CN113676211B - Amplifier module, radio frequency system and communication equipment

Info

Publication number: CN113676211B
Application number: CN202110928226.8A
Authority: CN
Inventors: 陈锋; 仝林
Original assignee: Guangdong Oppo Mobile Telecommunications Corp Ltd
Current assignee: Guangdong Oppo Mobile Telecommunications Corp Ltd
Priority date: 2021-08-12
Filing date: 2021-08-12
Publication date: 2022-10-28
Anticipated expiration: 2041-08-12
Also published as: WO2023016204A1; CN113676211A

Abstract

The application provides an amplifier module, radio frequency system and communications facilities, MMPA module support not the processing of hyperfrequency signal and hyperfrequency signal to support the enlarging to 4G LTE signal and 5G NR signal, realize the EN-DC of 4G LTE signal and 5G NR signal. Meanwhile, the MMPA module supports the SRS function of 4 antennas and supports the receiving and/or sending processing of two paths of ultrahigh frequency signals, the radio frequency front end framework is simplified, in addition, the antenna multiplexing port supports the common antenna of the ultrahigh frequency signals and the high frequency signals, and compared with the mode that an external switch circuit is arranged to be combined to realize the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

Description

Amplifier module, radio frequency system and communication equipment

Technical Field

The present application relates to the field of antenna technologies, and in particular, to an amplifier module, a radio frequency system, and a communication device.

Background

Currently, in the fifth generation 5G mobile communication network, a Non-independent Networking (NSA) mode generally adopts a dual connection mode of a fourth generation 4G signal and a 5G signal. In general, for a communication device supporting 5G communication technology, in order to improve communication performance in the dual connection mode of 4G and 5G, a plurality of separately disposed power amplifier modules, for example, a plurality of Multi-band Multi-mode power amplifiers (MMPA) for supporting 4G signal transmission and MMPA devices for supporting 5G signal transmission, may be disposed in a radio frequency system to implement dual transmission of 4G signals and 5G signals.

Disclosure of Invention

The embodiment of the application provides an amplifier module, a radio frequency system and communication equipment, which can improve the integration level of devices and reduce the cost.

In a first aspect, the present application provides a multi-mode multi-band power amplifier MMPA module, comprising:

the non-ultrahigh frequency amplifying circuit is configured to receive and process a non-ultrahigh frequency transmitting signal from the radio frequency transceiver and output the non-ultrahigh frequency transmitting signal to a target non-ultrahigh frequency output port through the target selection switch;

an ultra-high frequency amplification circuit, comprising:

the ultrahigh frequency transmitting circuit is configured to receive and process an ultrahigh frequency transmitting signal from the radio frequency transceiver, and sequentially outputs the ultrahigh frequency transmitting signal to a target ultrahigh frequency output port through the SPDT switch, the first filter, the coupler and the fifth selection switch;

a first UHF receiving circuit configured to receive and process a first UHF receiving signal of a first target UHF input port sequentially through the DP4T switch and a second filter, and output the first UHF receiving signal to the RF transceiver;

a second uhf receiver circuit configured to receive and process a second uhf receiver signal of a second target uhf input port sequentially through the DP4T switch, the coupler, the first filter, and the fourth selector switch, and output the second uhf receiver signal to the rf transceiver;

the P port of the SPDT switch is connected with the first filter, one T port of the SPDT switch is connected with the ultrahigh frequency transmitting circuit, and the other T port of the SPDT switch is connected with the second ultrahigh frequency receiving circuit; one P port of the DP4T switch is connected to the coupler, the other P port is configured to be connected to a second filter, two T ports of the DP4T switch are configured to be connected to two SRS ports, respectively, and the other two T ports are configured to be connected to a first uhf antenna port for receiving a first uhf receive signal and a second uhf antenna port for receiving a second uhf receive signal, respectively; the target ultrahigh frequency output port and the target ultrahigh frequency input port are any one of the two SRS ports and the two ultrahigh frequency antenna ports.

It can be seen that, in the embodiment of the present application, the MMPA module supports processing of a radio frequency signal in any frequency band of a low frequency band, an intermediate frequency band, a high frequency band and an ultrahigh frequency band, and the low frequency amplification circuit and the target amplification circuit are independently powered, and the target amplification circuit is any one of the intermediate frequency amplification circuit, the high frequency amplification circuit and the ultrahigh frequency amplification circuit, so that the low frequency signal and other signals can be simultaneously transmitted, and further, the MMPA can simultaneously output two paths of signals to support amplification of a 4G LTE signal and a 5G NR signal, and EN-DC of the 4G LTE signal and the 5G NR signal is realized. Meanwhile, the MMPA module supports the SRS function of 4 antennas and supports the receiving processing of two paths of ultrahigh frequency signals, the radio frequency front end framework is simplified, in addition, the antenna multiplexing port supports the common antenna of the ultrahigh frequency signals and the high frequency signals, and compared with the mode that an external switch circuit is arranged to be combined to realize the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

In a second aspect, the present application provides an MMPA module comprising:

the non-ultrahigh frequency amplifying unit is connected with the target selection switch, is used for receiving and processing a non-ultrahigh frequency transmitting signal from the radio frequency transceiver, and outputs the non-ultrahigh frequency transmitting signal to a target non-ultrahigh frequency output port through the target selection switch;

the first ultrahigh frequency amplification unit is sequentially connected with the SPDT switch, the first filter, the coupler and the DP4T switch, and is used for receiving the ultrahigh frequency transmitting signal from the radio frequency transceiver, amplifying the ultrahigh frequency transmitting signal, and outputting the ultrahigh frequency transmitting signal to a target ultrahigh frequency output port through the SPDT switch, the first filter, the coupler and the DP4T switch in sequence;

the second ultrahigh frequency amplification unit is sequentially connected with a second filter and a DP4T switch and is used for receiving a first ultrahigh frequency receiving signal of a first target ultrahigh frequency input port sequentially through the DP4T switch and the second filter, amplifying the first ultrahigh frequency receiving signal and outputting the amplified first ultrahigh frequency receiving signal to the radio frequency transceiver;

the third ultrahigh frequency amplification unit is sequentially connected with the SPDT switch, the first filter, the coupler and the DP4T switch, and is used for receiving a second ultrahigh frequency receiving signal of a second target ultrahigh frequency input port sequentially through the DP4T switch, the coupler, the first filter and the SPDT switch, amplifying the second ultrahigh frequency receiving signal and outputting the second ultrahigh frequency receiving signal to the radio frequency transceiver;

a P port of the SPDT switch is connected to the first filter, one T port of the SPDT switch is connected to the first uhf amplification unit, and the other T port of the SPDT switch is connected to the third uhf amplification unit; one P port of the DP4T switch is connected with the coupler, the other P port of the DP4T switch is connected with the second ultrahigh frequency amplification unit, two T ports of the DP4T switch are correspondingly connected with two SRS ports of the MMPA module one by one, and the other two T ports are correspondingly connected with a first ultrahigh frequency antenna port for receiving a first ultrahigh frequency receiving signal and a second ultrahigh frequency antenna port for receiving a second ultrahigh frequency receiving signal in the MMPA module one by one; the target ultrahigh frequency output port and the target ultrahigh frequency input port are any one of the two SRS ports and the two ultrahigh frequency antenna ports.

In a third aspect, the present application provides an MMPA module configured with a non-uhf receiving port for receiving a non-uhf transmission signal of a radio frequency transceiver, an uhf receiving port for receiving an uhf transmission signal of the radio frequency transceiver, a first uhf output port for sending a first uhf reception signal from an antenna, a second uhf output port for sending a second uhf reception signal from an antenna, and a non-uhf output port for sending the non-uhf transmission signal, a third uhf output port for sending the uhf transmission signal, the third uhf output port including two uhf antenna ports and two SRS ports, and a first power supply port and a second power supply port; the MMPA module includes:

the non-ultrahigh frequency amplifying circuit is connected with the non-ultrahigh frequency receiving port and is used for amplifying the non-ultrahigh frequency transmitting signal;

the target selection switch is connected with the output end of the non-ultrahigh frequency amplification circuit and the non-ultrahigh frequency output port and used for selectively conducting a channel between the non-ultrahigh frequency amplification circuit and a target non-ultrahigh frequency output port, and the target non-ultrahigh frequency output port is any one of the non-ultrahigh frequency output ports;

the ultrahigh frequency transmitting circuit is connected with the ultrahigh frequency receiving port and is used for amplifying the ultrahigh frequency transmitting signal;

the first ultrahigh frequency receiving circuit is connected with the first ultrahigh frequency output port and is used for amplifying the first ultrahigh frequency receiving signal;

the second ultrahigh frequency receiving circuit is connected with the second ultrahigh frequency output port and is used for amplifying the second ultrahigh frequency receiving signal;

one T port of the SPDT switch is connected with the ultrahigh frequency transmitting circuit, and the other T port of the SPDT switch is connected with the second ultrahigh frequency receiving circuit;

a first end of the first filter is connected to the P port of the SPDT switch, and is configured to filter the ultrahigh frequency transmit signal or the second ultrahigh frequency receive signal;

the first end of the coupler is connected with the second end of the filter, the second end of the coupler is connected with the coupling port of the MMPA module, and the coupler is used for detecting the power information of the ultrahigh frequency transmitting signal/the second ultrahigh frequency receiving signal and outputting the power information through the coupling port;

the first end of the second filter is connected with the first ultrahigh frequency receiving circuit and is used for filtering the first ultrahigh frequency receiving signal;

the switch is a DP4T switch, a first P port of the DP4T switch is connected to a third end of the coupler, a second P port of the DP4T switch is connected to a second end of the second filter, two T ports of the DP4T switch are connected to the two SRS ports in a one-to-one correspondence, and the other two T ports are connected to the two uhf antenna ports in a one-to-one correspondence, and are used for selectively turning on a signal path between any one of the first uhf receiving circuit, the uhf transmitting circuit, the second uhf receiving circuit, and the third uhf output port.

In a fourth aspect, the present application provides a radio frequency system, comprising:

the MMPA module of any one of the first to third aspects;

the radio frequency transceiver is connected with the MMPA module and is used for transmitting and/or receiving ultrahigh frequency signals and non-ultrahigh frequency signals;

the first antenna unit is connected with a target ultrahigh frequency antenna port of the MMPA module, and the target ultrahigh frequency antenna port comprises two SRS ports and two ultrahigh frequency antenna ports;

the target antenna unit is connected with a target antenna port of the MMPA module;

the radio frequency system is used for realizing the EN-DC function between the ultrahigh frequency emission signal and the non-ultrahigh frequency emission signal through the MMPA module, wherein the non-ultrahigh frequency signal comprises any one of a low frequency emission signal, an intermediate frequency emission signal and a high frequency emission signal.

In a fifth aspect, the present application provides a communication device, comprising:

the radio frequency system of the fourth aspect.

Drawings

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, it is obvious that the drawings in the following description are only some embodiments of the present application, and for those skilled in the art, other drawings can be obtained according to the drawings without creative efforts.

FIG. 1A is a schematic diagram of a prior art MMPA module;

FIG. 1B is a schematic diagram of a frame of another MMPA module of the prior art;

FIG. 2 is a schematic diagram of a framework of another MMPA module according to an embodiment of the present disclosure;

FIG. 3 is a block diagram of another MMPA module according to an embodiment of the present disclosure;

FIG. 4 is a schematic diagram of a framework of another MMPA module according to an embodiment of the present application;

FIG. 5 is a schematic diagram of a framework of another MMPA module provided in an embodiment of the present application;

FIG. 6 is a schematic diagram of a framework of another MMPA module according to an embodiment of the present application;

FIG. 7 is a schematic diagram of a framework of another MMPA module according to an embodiment of the present application;

FIG. 8 is a block diagram of another MMPA module according to an embodiment of the present disclosure;

FIG. 9 is a block diagram of another MMPA module according to an embodiment of the present disclosure;

fig. 10 is a schematic diagram of a framework of a radio frequency system 1 according to an embodiment of the present application;

fig. 11 is a schematic diagram of a frame of another radio frequency system 1 according to an embodiment of the present application;

fig. 12 is a schematic block diagram of another radio frequency system 1 according to an embodiment of the present application;

fig. 13 is a schematic diagram of a frame of another radio frequency system 1 according to an embodiment of the present application;

fig. 14 is a schematic block diagram of another radio frequency system 1 according to an embodiment of the present application;

fig. 15 is a schematic frame diagram of a communication device a according to an embodiment of the present application;

fig. 16 is a schematic frame diagram of a mobile phone according to an embodiment of the present application.

Detailed Description

To facilitate understanding of the present application, the present application will be described in detail with reference to the accompanying drawings. In the following description, numerous specific details are set forth to provide a thorough understanding of the present application, and in the accompanying drawings, preferred embodiments of the present application are set forth. This application may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete. This application is capable of embodiments in many different forms than those described herein and those skilled in the art will be able to make similar modifications without departing from the spirit of the application and it is therefore not intended to be limited to the specific embodiments disclosed below.

Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of the feature. In the description of the present application, "plurality" means at least two, e.g., two, three, etc., unless explicitly specified otherwise. In the description of the present application, "a number" means at least one, such as one, two, etc., unless specifically limited otherwise.

The radio frequency system according to the embodiment of the present application may be applied to a communication device having a wireless communication function, where the communication device may be a handheld device, a vehicle-mounted device, a wearable device, a computing device or other processing devices connected to a wireless modem, and various forms of User Equipment (UE) (e.g., a Mobile phone), a Mobile Station (MS), and the like. For convenience of description, the above-mentioned devices are collectively referred to as a communication device. The network devices may include base stations, access points, and the like.

At present, as shown in fig. 1A, a radio frequency system 1 commonly used for electronic devices such as mobile phones includes an MMPA module 10, a transmitting module 20 (the transmitting module is also called a TXM module), a radio frequency transceiver 30 and an antenna group 40, where the radio frequency transceiver 30 is connected to the MMPA module 10 and the transmitting module 20, and the MMPA module 10 and the transmitting module 20 are connected to the antenna group 40. The rf transceiver is configured to send or receive rf signals through the signal path of the MMPA module 10 and the antenna group 40, or send or receive rf signals through the transmitting module 20 and the antenna group 40, and in addition, the MMPA module 10 may also be connected to the transmitting module 20 to form a signal processing path to send or receive rf signals through a corresponding antenna.

An example of an MMPA module 10 provided by the present embodiment as shown IN figure 1B, the MMPA module 10 is configured with a low-frequency signal receiving port LB TX IN, an intermediate-frequency signal receiving port MB TX IN, a high-frequency signal receiving port HB TX IN, a first low-frequency signal transmitting port LB1, a second low-frequency signal transmitting port LB2, a third low-frequency signal transmitting port LB3, a fourth low-frequency signal transmitting port LB4, a fifth low-frequency signal transmitting port LB5, a first intermediate-frequency signal transmitting port MB1, a second intermediate-frequency signal transmitting port MB2, a third intermediate-frequency signal transmitting port MB3, a fourth intermediate-frequency signal transmitting port MB4, a fifth intermediate-frequency signal transmitting port MB5, a first high-frequency signal transmitting port HB1, a second high-frequency signal transmitting port HB2, a third high-frequency signal transmitting port HB3, a first high-frequency signal transmitting port HB RX1, a second high-frequency signal transmitting port HB RX2, a first low-high-frequency power supply port LMHB _ VCC1, a second high-frequency power supply port HB _ 2, a second low-supply intermediate-frequency port LMB _ 2, SCLK1, VCC1, SDA, a viat 1, a viat 2, a vbo 2, a visa vbo 2, and a MMPA module 10 includes:

the low-frequency amplification circuit LB PA comprises a low-frequency front-stage PA (shown as a PA close to LB TX IN), a low-frequency matching circuit and a low-frequency rear-stage PA (shown as a PA far away from LB TX IN), wherein the input end of the low-frequency front-stage PA is connected with the LB TX IN, the output end of the low-frequency front-stage PA is connected with the low-frequency matching circuit, the low-frequency matching circuit is connected with the low-frequency rear-stage PA, the power supply end of the low-frequency front-stage PA is connected with the LMHB _ VCC1, and the power supply end of the low-frequency rear-stage PA is connected with the LMB _ VCC2 and is used for receiving and processing low-frequency signals sent by a radio frequency transceiver;

the low-frequency selection switch is an SP5T switch, a P port of the SP5T switch is connected with an output end of the low-frequency rear-stage PA, and the 5T ports are connected with the LB1, LB2, LB3, LB4 and LB5 in a one-to-one correspondence manner and used for selectively conducting a path between the LB PA of the low-frequency amplification circuit and any low-frequency signal sending port;

the intermediate frequency amplification circuit MB PA comprises an intermediate frequency front stage PA (shown as a PA close to MB TX IN), an intermediate frequency matching circuit and an intermediate frequency rear stage PA (shown as a PA far away from MB TX IN), wherein the input end of the intermediate frequency front stage PA is connected with the MB TX IN, the output end of the intermediate frequency front stage PA is connected with the intermediate frequency matching circuit, the intermediate frequency matching circuit is connected with the intermediate frequency rear stage PA, the power supply end of the intermediate frequency front stage PA is connected with the LMHB _ VCC1, and the power supply end of the intermediate frequency rear stage PA is connected with the LMB _ VCC2 and is used for receiving and processing an intermediate frequency signal sent by a radio frequency transceiver;

the intermediate frequency selection switch is an SP5T switch, a P port of the SP5T switch is connected with an output end of the intermediate frequency rear-stage PA, and 5T ports are connected with the MB1, the MB2, the MB3, the MB4 and the MB5 in a one-to-one correspondence manner and used for selectively conducting a path between the intermediate frequency amplification circuit MB PA and any intermediate frequency signal sending port;

the high-frequency amplifying circuit HB PA comprises a high-frequency front stage PA (shown as a PA close to HB TX IN), a high-frequency matching circuit and a high-frequency rear stage PA (shown as a PA far away from HB TX IN) which are cascaded, wherein the input end of the high-frequency front stage PA is connected with the MB TX IN, the output end of the high-frequency front stage PA is connected with the high-frequency matching circuit, the high-frequency matching circuit is connected with the high-frequency rear stage PA, the power supply end of the high-frequency front stage PA is connected with the LMHB _ VCC1, and the power supply end of the high-frequency rear stage PA is connected with the HB _ VCC2 and is used for receiving and processing high-frequency signals sent by a radio frequency transceiver;

the first high-frequency selection switch is an SPST switch, a P port is connected with the output end of the high-frequency post-stage PA, and a T port is connected with the HB1;

the second high-frequency selection switch is an SPDT switch, a P port is connected with HB2, one T port is connected with HB1, and the other T port is connected with HB RX2;

the third high-frequency selective switch is an SPDT switch, a P port is connected with HB3, one T port is connected with HB1, and the other T port is connected with HB RX1;

the first Controller CMOS Controller1 is connected with a port SCLK1, a port SDA1, a port VIO1 and a port VBAT1, and is used for receiving a first mobile processor industrial interface BUS MIPI BUS control signal of the port SCLK1 and the port SDA1, receiving a first MIPI power supply signal of the VIO1 and receiving a first bias voltage signal of the VBAT 1;

and the second Controller CMOS Controller2 is connected with the port SCLK2, the port SDA2, the port VIO2 and the port VBAT2, and is used for receiving the industrial interface BUS MIPI BUS control signal of the second mobile processor of the port SCLK2 and the port SDA2, receiving the second MIPI power supply signal of the VIO2 and receiving the second bias voltage signal of the VBAT 2.

The working frequency range of the low-frequency signal, the intermediate-frequency signal and the high-frequency signal which can be processed by the signal processing circuit of the MMPA module 10 is 663 MHz-2690 MHz. Therefore, the existing MMPA module only integrates a circuit supporting low-frequency signal, intermediate-frequency signal and high-frequency signal processing, and with the successive commercialization of the fifth generation 5G ultrahigh frequency (e.g., uhbn 77 (3.3 GHz to 4.2 GHz), n78 (3.3 GHz to 3.8 GHz)) in various countries, the processing of the ultrahigh frequency signal by electronic devices such as mobile phones and the like has become a necessary requirement.

In the current solution, in order to support the processing capability of the uhf signal, a terminal manufacturer needs to use an extra power amplifier module supporting the uhf signal. Meanwhile, the conventional MMPA module does not consider the situation that the fourth generation 4G radio access network and the fifth generation 5G New air interface NR are connected (E-UTRA and New radio Dual Connectivity, EN-DC) between the low frequency signal, the intermediate frequency signal and the high frequency signal in power supply, and power supplies of the signal processing circuits are connected together. In this case, an additional MMPA module is needed to realize the EN-DC before the low-frequency signal and the intermediate-frequency signal, and before the low-frequency signal and the high-frequency signal.

In view of the above problems, the present application provides an amplifier module, a radio frequency system and a communication device, which will be described in detail below.

As shown in fig. 2, an embodiment of the present invention provides a Multi-band Multi-mode power amplifier (MMPA) module 10, including:

a non-uhf amplification circuit 500 configured to receive and process the non-uhf transmission signal from the rf transceiver 30 and output the non-uhf transmission signal to the target non-uhf output port through the target selection switch 570;

the ultrahigh frequency amplification circuit 400 includes:

the ultrahigh frequency transmitting circuit 410 is configured to receive and process the ultrahigh frequency transmitting signal from the radio frequency transceiver 30, amplify the ultrahigh frequency transmitting signal, and output the amplified ultrahigh frequency transmitting signal to a target ultrahigh frequency output port through the SPDT switch 540, the first filter 610, the coupler 710 and the DP4T switch 550 in sequence;

a first uhf receiver circuit 420 configured to receive a first uhf reception signal at a first target uhf input port sequentially through the DP4T switch 550 and the second filter 620, amplify the first uhf reception signal, and output the amplified first uhf reception signal to the rf transceiver 30;

a second uhf receiver circuit 430, configured to receive a second uhf reception signal at a second target uhf input port sequentially through the DP4T switch 550, the coupler 710, the first filter 610, and the SPDT switch 540, amplify the second uhf reception signal, and output the amplified second uhf reception signal to the rf transceiver 30;

the P port of the SPDT switch 540 is connected to the first filter, one T port of the SPDT switch is connected to the uhf transmitter circuit 410, and the other T port is connected to the second uhf receiver circuit 420; one P-port of the DP4T switch 550 is connected to the coupler, the other P-port is configured to be connected to the second filter 620, two T-ports of the DP4T switch are configured to be connected to two SRS ports, respectively, and the other two T-ports are configured to be connected to a first uhf antenna port 820 for receiving a first uhf receive signal and a second uhf antenna port 830 for a second uhf receive signal, respectively; the target ultrahigh frequency output port and the target ultrahigh frequency input port are any one of the two SRS ports and the two ultrahigh frequency antenna ports.

For example, the SRS port 810 refers to an antenna port for receiving/transmitting an uhf signal, and the symbol "/" indicates or. The target frequency band signal is a radio frequency signal of a high frequency band.

In a specific implementation, when the fourth selection switch 540 selects to turn on the uhf transmission circuit 410, the fifth selection switch 550 is configured to select to turn on a signal path between the uhf transmission circuit 410 and any one of the two uhf antenna ports and the two SRS ports 810, so as to support a round-robin function of the uhf signals between the antennas. The SRS switching4 antenna transmitting function of the mobile phone is a necessary option of CMCC in 'Chinese Mobile 5G Scale test technology white paper _ terminal', and is selectable in the third generation partnership project 3GPP, and the SRS switching4 antenna transmitting function is mainly used for a base station to determine the quality and parameters of 4 channels by measuring uplink signals of 4 antennas of the mobile phone, and then beam forming of a downlink maximized multi-input multi-output Massive MIMO antenna array is carried out on the 4 channels according to channel reciprocity, so that the downlink 4x4MIMO obtains the best data transmission performance.

In a specific implementation, when the fourth selection switch 540 selects to turn on the second uhf receiver circuit 430, the fifth selection switch 550 is further configured to select to turn on a signal path between the second uhf receiver circuit 430 and any one of the two uhf antenna ports and the two SRS ports 810.

In a specific implementation, the fifth selection switch 550 is further configured to selectively turn on a signal path between the first uhf receiving circuit 420 and any one of the two uhf antenna ports and the two SRS ports 810.

It is understood that the fifth selection switch 550 can simultaneously turn on the first uhf receiver circuit 420 and turn on any one of the uhf transmitter circuit 410 and the second uhf receiver circuit 430; thereby achieving the effect of simultaneous transmission and reception or achieving the purpose of dual reception.

It can be seen that, in the embodiment of the present application, the MMPA module supports processing of a non-ultrahigh frequency signal and an ultrahigh frequency signal to support amplification of a 4G LTE signal and a 5G NR signal, and implement EN-DC of the 4G LTE signal and the 5G NR signal. Meanwhile, the MMPA module supports the SRS function of 4 antennas and supports the receiving and/or sending processing of two paths of ultrahigh-frequency signals, the radio frequency front-end framework is simplified, in addition, the ultrahigh-frequency signals and high-frequency signals share the antenna through the antenna multiplexing port, and compared with the mode that an external switch circuit is arranged to be combined to realize the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

In some embodiments, as shown in fig. 3, the non-uhf amplifying circuit includes:

the low-frequency amplification circuit 100 is configured to receive a low-frequency transmission signal from the radio frequency transceiver 30, amplify the low-frequency transmission signal, and output the amplified low-frequency transmission signal to the target low-frequency output port 840 through the first selection switch 510;

an intermediate frequency amplifying circuit 200 configured to receive the intermediate frequency transmission signal from the radio frequency transceiver 30, amplify the intermediate frequency transmission signal, and output the amplified intermediate frequency transmission signal to a target intermediate frequency output port 850 through a second selection switch 520;

the high-frequency amplifying circuit 300 is configured to receive the high-frequency transmission signal from the radio frequency transceiver 30, amplify the high-frequency transmission signal, and output the amplified high-frequency transmission signal to the target high-frequency output port 860 through the third selection switch 530.

For example, the first and second supply voltages may be less than or equal to 3.6V.

For example, the low frequency signals may include low frequency signals in a 3G, 4G, 5G network, the intermediate frequency signals may include intermediate frequency signals in a 3G, 4G, 5G network, the high frequency signals may include high frequency signals in a 3G, 4G, 5G network, and the ultra high frequency signals may include ultra high frequency signals in a 5G network. The frequency band division of signals of the 2G network, the 3G network, the 4G network and the 5G network is shown in table 1.

TABLE 1

Illustratively, the low-frequency amplifying circuit 100 is specifically configured to amplify low-frequency transmission signals of a 3G network, a 4G network, and a 5G network; the intermediate frequency amplifying circuit 200 is specifically configured to amplify intermediate frequency signals of a 3G network, a 4G network, and a 5G network; the high-frequency amplification circuit 300 is specifically configured to amplify high-frequency signals of a 3G network, a 4G network, and a 5G network; the uhf amplifier circuit 400 is specifically configured to amplify an uhf signal of a 5G network.

It should be noted that, in the 5G network, only the identifier before the sequence number is changed along with the frequency band used by 4G. In addition, some ultrahigh frequency bands which are not available in the 4G network, such as N77, N78, N79 and the like, are added to the 5G network.

For example, the low frequency signals may include low frequency 4G LTE signals and low frequency 5G NR signals. The intermediate frequency signals may include 4G LTE signals at an intermediate frequency and 5G NR signals at an intermediate frequency. The high frequency signals may include high frequency 4G LTE signals and high frequency 5G NR signals. The uhf signal may comprise a uhf 5G NR signal.

In some embodiments, the low frequency amplification circuit 100 is configured to receive the low frequency transmit signal at a first supply voltage;

the intermediate frequency amplifying circuit 200 is configured to receive the intermediate frequency transmitting signal at a second supply voltage;

the high-frequency amplification circuit 300 configured to receive the high-frequency transmission signal at the second supply voltage;

the uhf amplification circuit 400 is configured to receive the uhf transmission signal/the first uhf reception signal/the second uhf reception signal at the second supply voltage.

As can be seen, in this example, since the first power supply voltage and the second power supply voltage are independently powered, the MMPA module can simultaneously process the low-frequency transmit signal and the target frequency band signal, and the target frequency band signal is any one of the intermediate-frequency transmit signal, the high-frequency transmit signal, and the ultra-high-frequency transmit signal.

In some embodiments, the MMPA module is configured to implement a dual-connection EN-DC function between a fourth generation 4G radio access network and a fifth generation 5G new air interface NR between a non-ultrahigh frequency transmit signal and the ultrahigh frequency transmit signal.

Exemplary, different combinations of EN-DC between the non-uhf transmission signal and the uhf transmission signal are shown in table 2.

TABLE 2

4G LTE frequency band	5G NR frequency band	EN-DC
			LB	MB	LB+MB
LB	HB	LB+HB
			LB	UHB	LB+UHB

Specifically, when the low-frequency amplification circuit and the intermediate-frequency amplification circuit work simultaneously, the EN-DC combination of LB + MB is satisfied; when the low-frequency amplifying circuit and the intermediate-frequency amplifying circuit work simultaneously, the EN-DC combination of LB + HB is met; when the low-frequency amplifying circuit and the ultrahigh-frequency amplifying circuit work simultaneously, the EN-DC combination of LB + UHB is satisfied.

It can be seen that, in the embodiment of the present application, the MMPA module 10 can implement dual transmission processing of multiple signal combinations by independent power supply, thereby improving device capability.

In some embodiments, as shown in fig. 4, the first selection switch 510 may be an SP5T switch, where the P port is connected to the output end of the low frequency amplification circuit 100, the 5T ports are connected to 5 low frequency output ports (shown as LB TX 1-5) of the MMPA module 10 in a one-to-one correspondence, the 5 low frequency output ports are selectively connected to the second antenna unit (e.g., the low frequency antenna unit), and the target low frequency output port 840 is any one of the 5 low frequency output ports.

The second selection switch 520 may be an SP5T switch, where the P port is connected to the output end of the if amplifying circuit 200, the 5T ports are connected to the 5 if output ports (shown as MB TX 1-5) of the MMPA module 10 in a one-to-one correspondence, the 5 if output ports are selectively connected to a third antenna unit (e.g., an if antenna unit), and the target if output port 850 is any one of the 5 if output ports.

The third selector switch 530 may be a 3P3T switch, a first P port is connected to the output end of the high-frequency amplifying circuit 300, a second P port is connected to the first high-frequency output port (illustrated as HB TX 1) of the MMPA module 10, a third P port is connected to the second high-frequency output port (illustrated as HB TX 2) of the MMPA module 10, the first T port is connected to the third high-frequency output port (illustrated as HB TX 3) of the MMPA module 10, the second and third T ports are connected to 2 high-frequency transceiving ports (illustrated as HB TRX1 and HB TRX 2) of the MMPA module 10 in a one-to-one correspondence manner, the first high-frequency output port and the second high-frequency output port may be connected to a high-frequency receiving module, the high-frequency receiving module is configured to receive high-frequency signals, and the third high-frequency output port and the 2 high-frequency transceiving ports are both connected to a fourth antenna unit (e.g., a high-frequency antenna unit).

The high frequency receiving Module may be, for example, a radio frequency Low Noise Amplifier Module (LFEM), a Diversity receiving Module (Diversity Receive Module with Antenna Switch Module and filter and SAW, DFEM), a Multi-band Low Noise Amplifier (MLNA), and the like.

It can be seen that, in this example, the MMPA module supports multiple flexible processing for radio frequency signals of low frequency band, intermediate frequency band, and high frequency band.

In some possible examples, the uhf transmission circuit 410 includes a single power amplifier to achieve power amplification of the uhf transmission signal; alternatively, the first and second electrodes may be,

the uhf transmission circuit 410 includes a plurality of power amplifiers and a power synthesis unit, and the power amplification processing of the uhf transmission signal is realized in a power synthesis manner.

For example, the uhf transmission circuit 410 includes a first power amplifier, a matching circuit and a second power amplifier, the first power amplifier is connected to the matching circuit, the matching circuit is connected to the second power amplifier, and the second power amplifier is connected to the fourth selection switch 540.

It can be seen that, in this example, the specific implementation manner of the uhf transmission circuit 410 may be various, and is not limited herein; in addition, the arrangement of a single power amplifier simplifies the circuit structure, reduces the cost and improves the space utilization rate.

In some possible examples, the first uhf receiver circuit 420 and the second uhf receiver circuit 430 each include a single low noise amplifier to achieve power amplification of the uhf receiver signal.

It can be seen that, in this example, the arrangement of the single low noise amplifier simplifies the circuit structure, reduces the cost, and improves the space utilization rate.

As shown in fig. 5, an embodiment of the present application provides another multi-mode multi-band power amplifier MMPA module 10, which includes:

the non-ultrahigh frequency amplifying unit 500 is connected with the target selection switch 570, and is used for receiving and processing the non-ultrahigh frequency transmitting signal from the radio frequency transceiver 30, and outputting the non-ultrahigh frequency transmitting signal to the target non-ultrahigh frequency output port through the target selection switch 570;

the first ultrahigh frequency amplifying unit 411 is sequentially connected to the SPDT switch 540, the first filter 610, the coupler 710 and the DP4T switch 550, and configured to receive the ultrahigh frequency transmitting signal from the radio frequency transceiver 30, amplify the ultrahigh frequency transmitting signal, and output the amplified ultrahigh frequency transmitting signal to a target ultrahigh frequency output port through the SPDT switch 540, the first filter 610, the coupler 710 and the DP4T switch 550 in sequence;

the second ultrahigh frequency amplifying unit 421 is sequentially connected to the second filter 620 and the DP4T switch 550, and is configured to receive the first ultrahigh frequency receiving signal at the first target ultrahigh frequency input port sequentially through the DP4T switch 550 and the second filter 620, amplify the first ultrahigh frequency receiving signal, and output the first ultrahigh frequency receiving signal to the radio frequency transceiver 30;

a third uhf amplifying unit 431, sequentially connected to the SPDT switch 540, the first filter 610, the coupler 710 and the DP4T switch 550, configured to receive a second uhf receiving signal at a second target uhf input port sequentially through the DP4T switch 550, the coupler 710, the first filter 610 and the SPDT switch 540, amplify the second uhf receiving signal, and output the amplified second uhf receiving signal to the rf transceiver 30;

a P port of the SPDT switch is connected to the first filter 610, one T port of the SPDT switch is connected to the first uhf amplifying unit 411, and the other T port of the SPDT switch is connected to the third uhf amplifying unit 431; one P port of the DP4T switch is connected to the coupler 710, the other P port is connected to the second ultrahigh frequency amplification unit 421, two T ports of the DP4T switch are connected to two SRS ports 810 of the MMPA module in a one-to-one correspondence manner, and the other two T ports are connected to a first ultrahigh frequency antenna port for receiving a first ultrahigh frequency receive signal and a second ultrahigh frequency antenna port for receiving a second ultrahigh frequency receive signal in the MMPA module in a one-to-one correspondence manner; the target uhf output port and the target uhf input port are any one of the two SRS ports 810 and the two uhf antenna ports.

It can be seen that, in the embodiment of the present application, the MMPA module further supports the ultrahigh frequency signal on the basis of supporting the non-ultrahigh frequency signal, and the processing circuit at the ultrahigh frequency end supports the 4-antenna SRS function, and supports the receiving processing of one path of ultrahigh frequency signal, thereby simplifying the architecture of the radio frequency front end, in addition, the antenna multiplexing port 830 enables the ultrahigh frequency signal and the non-ultrahigh frequency signal to share one antenna port, compared with the externally-arranged switch circuit for de-combining to realize the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

In some embodiments, as shown in fig. 6, the target selection switch 570 includes a first selection switch, a second selection switch, and a third selection switch; the non-ultrahigh frequency amplification unit comprises:

a low frequency amplifying unit 110, connected to the first selection switch 510, for receiving and processing the low frequency transmitting signal from the radio frequency transceiver 30, and outputting the low frequency transmitting signal to the target low frequency output port 840 through the first selection switch after the low frequency transmitting signal is amplified;

the intermediate frequency amplifying unit 210 is connected to the second selection switch 520, and configured to receive and process the intermediate frequency transmitting signal from the radio frequency transceiver 30, amplify the intermediate frequency transmitting signal, and output the amplified intermediate frequency transmitting signal to the target intermediate frequency output port 850 through the second selection switch;

the high frequency amplifying unit 310 is connected to the third selection switch 530, and configured to receive and process the high frequency transmitting signal from the radio frequency transceiver 30, amplify the high frequency transmitting signal, and output the amplified high frequency transmitting signal to the target high frequency output port 860 through the third selection switch.

For example, each of the low-frequency amplification unit 110, the intermediate-frequency amplification unit 210, the high-frequency amplification unit 310, the first uhf amplification unit 411, the second uhf amplification unit 421, and the third uhf amplification unit 431 may include a power amplifier to perform power amplification processing on the received radio frequency signal.

For example, the amplifying unit may further include a plurality of power amplifiers and a power combining unit, and the power amplifying process on the radio frequency signal is implemented in a power combining manner or the like.

In some embodiments, as shown in fig. 6, the low frequency amplification unit 100 is powered by the first power supply module 21; the intermediate frequency amplification unit 200, the high frequency amplification unit 300, the first ultrahigh frequency amplification unit 411, the second ultrahigh frequency amplification unit 421 and the third ultrahigh frequency amplification unit 431 are powered by a second power supply module 22.

It can be seen that, in the embodiment of the present application, the MMPA module supports processing of a radio frequency signal in any frequency band of a low frequency band, an intermediate frequency band, a high frequency band, and an ultrahigh frequency band, and the low frequency amplification unit and the target amplification unit are independently powered, and the target amplification unit is any one of the intermediate frequency amplification unit, the high frequency amplification unit, and the ultrahigh frequency amplification unit, so that the low frequency signal and other signals can be simultaneously transmitted, and further, the MMPA module can simultaneously output two paths of signals to support amplification of a 4G LTE signal and a 5G NR signal, and EN-DC of the 4G LTE signal and the 5G NR signal is realized. Meanwhile, the MMPA module supports the SRS function of 4 antennas and the receiving and processing of two paths of ultrahigh frequency signals, simplifies a radio frequency front end framework, saves cost and layout area compared with an externally-arranged switch circuit for realizing the corresponding function by combining the signals, and reduces circuit insertion loss.

As shown in fig. 7, the present embodiment provides another multi-mode multiband power amplifier MMPA module 10, which is configured with a non-uhf receive port 870 for receiving a non-uhf transmission signal of a radio frequency transceiver 30, an uhf receive port 881 for receiving the uhf transmission signal of the radio frequency transceiver 30, a first uhf output port 882 for transmitting a first uhf reception signal from an antenna, a second uhf output port 883 for transmitting a second uhf reception signal from the antenna, and a non-uhf output port 800 for transmitting the non-uhf transmission signal, a third uhf output port for transmitting a third uhf transmission signal, the third uhf output port including two uhf antenna ports (shown as 820 and 830) and two SRS ports 810; the MMPA module includes:

the non-ultrahigh frequency amplifying circuit is connected with the non-ultrahigh frequency receiving port 870 and is used for amplifying the non-ultrahigh frequency transmitting signal;

the target selection switch 570 is connected with the output end of the non-ultrahigh frequency amplification circuit and the non-ultrahigh frequency output port 800, and is used for selectively conducting a channel between the non-ultrahigh frequency amplification circuit and a target non-ultrahigh frequency output port, wherein the target non-ultrahigh frequency output port is any one of the non-ultrahigh frequency output ports 800;

an ultrahigh frequency transmitting circuit 410 connected to the ultrahigh frequency receiving port 881, for amplifying the ultrahigh frequency transmitting signal;

the first ultrahigh frequency receiving circuit 420 is connected to the first ultrahigh frequency output port 882 and is configured to amplify the ultrahigh frequency received signal;

a second uhf receiver circuit 430, connected to the second uhf output port 883, for amplifying the second uhf receiver signal;

an SPDT switch, one T port of which is connected to the uhf transmission circuit 410 and the other T port of which is connected to the second uhf reception circuit 420;

a first end of the first filter 610 is connected to the P port of the SPDT switch, and is configured to filter the uhf transmitting signal or the second uhf receiving signal;

a coupler 710, wherein a first end of the coupler 710 is connected to a second end of the filter 610, and a second end of the coupler 710 is connected to a coupling port 811 of the MMPA module 10, and is configured to detect power information of the uhf transmission signal/the second uhf reception signal, and output the power information through the coupling port 811;

a second filter 620, a first end of the second filter 620 is connected to the first uhf receiver circuit 420, and is configured to filter the first uhf receiver signal;

a first P port of the DP4T switch is connected to the third end of the coupler 710, a second P port of the DP4T switch is connected to the second end of the second filter 620, two T ports of the DP4T switch are connected to the two SRS ports 810 in a one-to-one correspondence, and the other two T ports are connected to the two uhf antenna ports in a one-to-one correspondence, and are configured to selectively turn on a signal path between any one of the first uhf receiver circuit 420, the uhf transmitter circuit 410, and the second uhf receiver circuit 430 and the third uhf output port.

It can be seen that, in the embodiment of the present application, the MMPA module further supports the ultra-high frequency signal on the basis of supporting the non-ultra-high frequency signal, and the processing circuit at the ultra-high frequency end supports the 4-antenna SRS function, and supports the receiving and/or sending processing of two paths of ultra-high frequency signals, thereby simplifying the radio frequency front end architecture.

In some embodiments, as shown in fig. 8, the non-uhf receive port 870 comprises:

a low frequency receiving port 871 for receiving a low frequency transmission signal of the radio frequency transceiver 30;

an intermediate frequency receiving port 872 for receiving an intermediate frequency transmission signal of the radio frequency transceiver 30; and

a high frequency receiving port 873 for receiving the high frequency transmission signal of the radio frequency transceiver 30;

the non-uhf output port 800 includes:

a low frequency output port 801 for transmitting the low frequency transmit signal;

an intermediate frequency output port 802 for transmitting the intermediate frequency transmission signal; and

a high frequency output port 803 for transmitting the high frequency transmit signal.

In some embodiments, with continued reference to fig. 8, the MMPA module is further configured with a first power port 812 and a second power port 813; the target selection switch 570 includes a first selection switch, a second selection switch, and a third selection switch; the non-ultrahigh frequency amplifying circuit comprises a low-frequency amplifying circuit, an intermediate-frequency amplifying circuit and a high-frequency amplifying circuit;

the low-frequency amplification circuit 100 is connected to the low-frequency receiving port 871 and the first power supply port 812, and is configured to amplify the low-frequency transmission signal under a first power supply voltage of the first power supply port 812;

a first selection switch 510, connected to the output terminal of the low frequency amplification circuit 100 and the low frequency output port 801, for selecting a path between the low frequency amplification circuit 100 and a target low frequency output port 840, where the target low frequency output port 840 is any one of the low frequency output ports 801;

an intermediate frequency amplifying circuit 200, connected to the intermediate frequency receiving port 872 and the second power supply port 813, for amplifying the intermediate frequency transmitting signal at the second power supply voltage of the second power supply port 813;

a second selection switch 520, connected to the output terminal of the intermediate frequency amplifying circuit 200 and the intermediate frequency output port, for selectively connecting a path between the intermediate frequency amplifying circuit 200 and a target intermediate frequency output port 850, where the target intermediate frequency output port 850 is any one of the intermediate frequency output ports;

a high-frequency amplification circuit 300, connected to the high-frequency reception port 873 and the second power supply port 813, for amplifying the high-frequency transmission signal at the second power supply voltage of the second power supply port 813;

a third selection switch 530, connected to an output terminal of the high-frequency amplifier circuit 300 and the high-frequency output port, for selectively connecting a path between the high-frequency amplifier circuit 300 and a target high-frequency output port 860, where the target high-frequency output port 860 is any one of the high-frequency output ports;

the ultrahigh frequency transmitting circuit is used for amplifying the ultrahigh frequency transmitting signal under the second power supply voltage of the second power supply port 813;

a first uhf receiver circuit, configured to amplify the first uhf receiver signal at the second supply voltage of the second supply port 813;

a second uhf receiver circuit, configured to amplify the second uhf reception signal at the second supply voltage of the second supply port 813.

It should be noted that the number of the first power supply ports 812 and the second power supply ports 813 may be set according to the number of the power amplifiers included in the corresponding transmitting circuit of each frequency band, specifically, the number of the first power supply ports 812 may be equal to the number of the power amplifiers in the low frequency amplifying unit, and may be, for example, 2.

It can be seen that, in the embodiment of the present application, the MMPA module supports processing of a radio frequency signal in any frequency band of a low frequency band, an intermediate frequency band, a high frequency band, and an ultrahigh frequency band, and the low frequency amplification circuit and the target amplification circuit are independently powered, and the target amplification circuit is any one of the intermediate frequency amplification circuit, the high frequency amplification circuit, and the ultrahigh frequency amplification circuit, so that the low frequency signal and other signals can be simultaneously transmitted, and further, the MMPA module can simultaneously output two paths of signals to support amplification of a 4G LTE signal and a 5G NR signal, and EN-DC of the 4G LTE signal and the 5G NR signal is realized. Meanwhile, the MMPA module supports the SRS function of 4 antennas and supports the receiving and/or sending processing of two paths of ultrahigh frequency signals, the radio frequency front end framework is simplified, in addition, the antenna multiplexing port supports the common antenna of the ultrahigh frequency signals and the high frequency signals, and compared with the mode that an external switch circuit is arranged to be combined to realize the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

In some embodiments, the MMPA module is further configured with a first SDATA port, a first SCLK port, a first VIO port, a first VBAT port, a second SDATA port, a second SCLK port, a second VIO port, a second VBAT port; the MMPA module further comprises:

the first controller is connected with the first SDATA port, the first SCLK port, the first VIO port, the first VBAT port, the first UHB power amplifier, the second UHB power amplifier, the first HB power amplifier, the second HB power amplifier, the first MB power amplifier and the second MB power amplifier, and is used for receiving a first mobile processor industrial interface BUS MIPI BUS control signal of the first SDATA port and the first SCLK port, receiving a first MIPI power supply signal of the first VIO port and receiving a first bias voltage signal of the first VBAT port;

the second controller is connected with the second SDATA port, the second SCLK port, the second VIO port, the second VBAT port, the first LB power amplifier and the second LB power amplifier, and is used for receiving a second MIPI BUS control signal of the second SDATA port and the second SCLK port, receiving a second MIPI power supply signal of the second VIO port, and receiving a second bias voltage signal of the second VBAT port.

For example, as shown IN fig. 9, a schematic structural diagram of an MMPA module 10 provided IN the embodiment of the present application is that, IN addition to the low frequency processing circuit and related ports, the intermediate frequency processing circuit and related ports, the high frequency processing circuit and related ports, the first Controller (shown as CMOS Controller 1), the second Controller (shown as CMOS Controller 2) and related ports IN the MMPA module 10 shown IN fig. 1B, the MMPA module 10 is further configured with an ultra high frequency receiving port (shown as N77 TX IN) for receiving an N77 frequency band signal of a radio frequency transceiver, a first ultra-high frequency transmission port (shown as N77 RX 1) for transmitting N77 frequency band signals to the radio frequency transceiver, a second ultra-high frequency transmission port (shown as N77 RX 1) for transmitting N77 frequency band signals to the radio frequency transceiver, 2 SRS ports (shown as SRS OUT1, SRS OUT 2), an N77 frequency band and N41 frequency band antenna multiplexing port (shown as N77/N41 ANT), a coupling port (shown as CPL _ OUT), a first medium-high frequency supply port MHB _ UHB _ VCC1, a second medium-high frequency supply port MHB _ UHB _ VCC2, a first low frequency supply port LB _ VCC1, and a second low frequency supply port LB _ VCC2; the MMPA module 10 further includes:

an ultrahigh frequency amplifying circuit (shown as UHB PA) for receiving, amplifying and outputting an ultrahigh frequency signal of the radio frequency transceiver through a port N77 TX IN to a first target ultrahigh frequency output port via an SPDT switch, a filter, a first coupler and a DP4T switch, where the first target ultrahigh frequency output port is any one of a port SRS OUT1, a port SRS OUT2, a port N77/N41 ANT1, and a port N77 ANT 2;

a first uhf receiving circuit (illustrated as a low noise filter connected to the port N77 RX 1) for receiving and processing the uhf signal via a second target uhf receiving port, the DP4T switch, a second coupler (in the figure, a coupler close to the first controller) and the SPDT switch, and transmitting the uhf signal to the rf transceiver through the port N77 RX1, wherein the second target uhf receiving port is any one of the port SRS OUT1, the port SRS OUT2, the port N77/N41 ANT1, and the port N77 ANT 2;

a second uhf receiver circuit (illustrated as a low noise filter connected to port N77 RX 2) for receiving and processing the uhf signal via a third target uhf receiver port, the first coupler (illustrated as a coupler remote from the first controller), the filter, and the SPDT switch, and transmitting the uhf signal to the rf transceiver through port N77 RX2, wherein the third target uhf receiver port is port N77 ANT2.

In addition, the power amplifier of the low-frequency amplifying circuit part supplies power through ports LB _ VCC1 and LB _ VCC2, and the power amplifier of the intermediate-frequency amplifying circuit, the high-frequency amplifying circuit and the ultrahigh-frequency amplifying circuit part supplies power through ports MHB _ UHB _ VCC1 and MHB _ UHB _ VCC2, so that a low-frequency signal and a target frequency band signal can be processed simultaneously through independent power supply, the target frequency band signal is any one of the intermediate-frequency signal, the high-frequency signal and the ultrahigh-frequency signal, and the EN-DC function is realized.

As shown in fig. 10, an embodiment of the present application provides a radio frequency system 1, including:

the MMPA module 10 of any of the embodiments of FIGS. 1-9;

the radio frequency transceiver 30 is connected with the MMPA module and is used for sending and/or receiving ultrahigh frequency signals and non-ultrahigh frequency signals;

a first antenna unit 30 connected to a target uhf antenna port of the MMPA module, where the target uhf antenna port includes two SRS ports 810 and two uhf antenna ports (820 and 830 in the figure);

the target antenna unit 80 is connected with a target antenna port 804 of the MMPA module;

the radio frequency system 1 is configured to implement an EN-DC function between the ultrahigh frequency transmitting signal and the non-ultrahigh frequency transmitting signal through the MMPA module 10, where the non-ultrahigh frequency signal includes any one of a low frequency transmitting signal, an intermediate frequency transmitting signal, and a high frequency transmitting signal.

In some embodiments, as shown in fig. 11, the target antenna ports 804 include a low frequency antenna port 805, a low frequency antenna port 806, and a high frequency antenna port 807; the target antenna unit 80 includes:

the second antenna unit 40 is connected with the low-frequency antenna port 805 of the MMPA module;

a third antenna unit 50 connected to the low frequency antenna port 806 of the MMPA module;

the fourth antenna element 60 is connected to the high frequency antenna port 807 of the MMPA module. In some embodiments, as shown in fig. 12, the radio frequency system 1 further includes:

the first power supply module 21 is connected to the low-frequency amplification circuit 100 of the MMPA module 10, and is configured to provide a first power supply voltage for the low-frequency amplification circuit 100;

the second power supply module 22 is configured to be connected to the intermediate frequency amplification circuit 200, the high frequency amplification circuit 300, and the ultrahigh frequency amplification circuit 400 of the MMPA module 10, and configured to provide a second power supply voltage to any one of the intermediate frequency amplification circuit 200, the high frequency amplification circuit 300, and the ultrahigh frequency amplification circuit 400;

the radio frequency system 1 is configured to provide the first power supply voltage for the low-frequency amplification circuit 100 through the first power supply module 21 to implement processing of a low-frequency transmission signal, and is configured to provide the first power supply voltage for the intermediate-frequency amplification circuit 200, the high-frequency amplification circuit 300, or the ultra-high-frequency amplification circuit 400 through the second power supply module 22 to implement processing of an intermediate-frequency transmission signal, a high-frequency transmission signal, or an ultra-high-frequency transmission signal.

For example, the input voltage of the first power supply module 21 and the second power supply module 22 may be the output voltage of the battery unit, and is typically between 3.6V and 4.2V. By adopting the first power supply voltage and the second power supply voltage to supply power to each amplifying circuit, a boost circuit can be prevented from being added in the power supply module, so that the cost of each power supply module is reduced.

Specifically, the first Power supply module 21 and the second Power supply module 22 may be Power management chips (PMICs). When the radio frequency signal is power amplified by adopting a power synthesis mode, the PMIC without a boost circuit can be adopted to supply power to each amplifying unit.

In this embodiment, the magnitudes of the first power supply voltage and the second power supply voltage are not limited uniquely, and may be set according to communication requirements and/or specific structures of the amplifying circuits. In addition, the first power supply module 21 may include an RF PMIC #1, and the second power supply module 22 may include an RF PMIC #2. Neither of the RF PMIC #1 and RF PMIC #2 includes a boost circuit, i.e., the output voltage of the RF PMIC #1 and RF PMIC #2 is less than or equal to the input voltage of the RF PMIC #1 and RF PMIC #2.

In some embodiments, the first power supply module 21 and the second power supply module 22 may each include a Buck power supply (Buck Source), and the supply voltage Vcc at the output terminal of the Buck power supply is less than or equal to 3.6V. The step-down power supply can be understood as a step-down type adjustable voltage-stabilizing direct-current power supply with output voltage lower than input voltage.

It can be seen that, in the embodiment of the present application, the radio frequency system 1 includes the first power supply module 21, the second power supply module 22 and each antenna unit, which are matched with the MMPA module, so that the radio frequency system 1 integrally supports processing of radio frequency signals in any frequency band of low frequency, intermediate frequency, high frequency and ultrahigh frequency, because the low frequency amplification circuit and the target amplification circuit are independently powered, the target amplification circuit is any one of the intermediate frequency amplification circuit, the high frequency amplification circuit and the ultrahigh frequency amplification circuit, so that the low frequency signals and other signals can be simultaneously transmitted, and the MMPA module can simultaneously output two paths of signals to support amplification of 4G LTE signals and 5G NR signals, and EN-DC of the 4G LTE signals and 5G NR signals is realized. Meanwhile, the MMPA module supports the 4-antenna SRS function and supports the receiving processing of two paths of ultrahigh-frequency signals, the radio frequency front-end architecture is simplified, compared with an externally-arranged switch circuit for realizing the corresponding function, the cost and the layout area are saved, and the circuit insertion loss is reduced.

In some embodiments, as shown in fig. 13, the first antenna element 30 includes:

a first antenna 31 connected to the first uhf antenna port 820;

a second antenna 32 connected to a second uhf antenna port 830;

a third antenna 33 connected to the first SRS port 810;

and a fourth antenna 34 connected to the second SRS port 810.

Illustratively, the first antenna 31, the second antenna 32, the third antenna 33, and the fourth antenna 34 each support an ultra-high frequency signal, such as N77.

As can be seen, in this example, since the first antenna unit has four antennas corresponding to the four ports one to one, and the four antennas are arranged independently, flexibility and stability of signal transceiving are improved.

In some embodiments, as shown in fig. 14, the radio frequency system 1 further includes:

a first rf switch 81, including a P port and two T ports, where the P port is connected to the third antenna, and a first T port is connected to the first SRS port 810;

the first receiving module 91 is connected to the second T port of the first rf switch, and is configured to receive the ultrahigh frequency signal received by the third antenna;

a second rf switch 82, including a P port and two T ports, where the P port is connected to the fourth antenna, and the first T port is connected to the second SRS port 810;

the second receiving module 92 is connected to the second T port of the second rf switch, and is configured to receive the ultrahigh-frequency signal received by the fourth antenna.

For example, the first receiving Module and the second receiving Module may be a Low Noise Amplifier (LFEM) Module, a Diversity receiving Module (Diversity Receive Module with Antenna Switch Module and filter and DFEM), a Multi-band Low Noise Amplifier (MLNA), and the like.

For example, the first receiving module and the second receiving module are connected to two uhf signal receiving ports of the rf transceiver 30 in a one-to-one correspondence manner, and are configured to output respective received uhf receiving signals to the rf transceiver 30 to implement receiving of multiple uhf signals.

It can be seen that, in this example, by controlling four channels of ultrahigh frequency signal receiving paths (two channels of ultrahigh frequency signal receiving paths in the MMPA module and two channels of ultrahigh frequency signal receiving paths outside the MMPA module) to receive the ultrahigh frequency signals at the same time, the 4 × 4mimo function on the ultrahigh frequency signals can be realized, and the receiving and transmitting performance of the radio frequency system 1 on the 5G ultrahigh frequency signals can be improved.

As shown in fig. 15, an embodiment of the present application provides a communication device a, including:

the rf transceiver 30 is the rf system 1 according to any of the embodiments of fig. 10 to 14.

For example, the signal transmitting port and the signal receiving port of each frequency band on the radio frequency transceiver 30 are respectively connected to the amplifying circuit of the corresponding frequency band, specifically, the low frequency signal transmitting port and the low frequency signal receiving port of the radio frequency transceiver 30 may be connected to the low frequency amplifying circuit 100, the intermediate frequency signal transmitting port and the intermediate frequency signal receiving port of the radio frequency transceiver 30 may be connected to the intermediate frequency amplifying circuit 200, the high frequency signal transmitting port and the high frequency signal receiving port of the radio frequency transceiver 30 may be connected to the high frequency amplifying circuit 300, the ultra high frequency signal receiving port and the ultra high frequency signal transmitting port of the radio frequency transceiver 30 may be connected to the ultra high frequency amplifying circuit 400, and in addition, a signal receiving module may be connected to receive signals of each frequency band. And are not intended to be limiting.

It can be seen that, in the embodiment of the present application, the communication device a separates power supplies of the processing circuits for the low-frequency signal and the other signals, and can transmit two paths of signals at the same time, so that the MMPA module 100 can output two paths of signals at the same time, so as to support amplification of the 4G LTE signal and the 5G NR signal, and implement EN-DC for the 4G LTE signal and the 5G NR signal. In addition, the MMPA module supports the receiving processing of two paths of ultrahigh frequency signals, simplifies the radio frequency front end architecture, and can reduce the circuit insertion loss compared with an externally-arranged switch circuit de-combining path.

As shown in fig. 16, further taking the example of a communication device as a smart phone 1600, in particular, as shown in fig. 16, the smart phone 1600 may include a processor 161, a memory 162 (which optionally includes one or more computer readable storage media), a communication interface 163, a radio frequency system 164, and an input/output (I/O) subsystem 166. These components optionally communicate via one or more communication buses 169 or signal lines 169. Those skilled in the art will appreciate that the smart phone 1600 shown in fig. 16 is not intended to be limiting and may include more or fewer components than those shown, or some components may be combined, or a different arrangement of components. The various components shown in fig. 16 are implemented in hardware, software, or a combination of both hardware and software, including one or more signal processing and/or application specific integrated circuits.

Memory 162 optionally includes high-speed random access memory, and also optionally includes non-volatile memory, such as one or more magnetic disk storage devices, flash memory devices, or other non-volatile solid-state memory devices. Illustratively, the software components stored in the memory 162 include an operating system, a communications module (or set of instructions), a Global Positioning System (GPS) module (or set of instructions), and the like.

Processor 161 and other control circuitry, such as control circuitry in radio frequency system 164, may be used to control the operation of smartphone 1600. The processor 161 may be based on one or more microprocessors, microcontrollers, digital signal processors, baseband processors, power management units, audio codec chips, application specific integrated circuits, etc.

Processor 161 may be configured to implement a control algorithm that controls the use of the antenna in smartphone 1600. The processor 161 may also issue control commands for controlling switches in the radio frequency system 164, and the like.

The communication interface 163 includes an internal interface, which may be an interface for mutual communication between the processor 161, the memory 162, the radio frequency system 164, and the input/output (I/O) subsystem 166, and an external interface, which may be an interface for connection and communication with an external device.

I/O subsystem 166 couples input/output peripheral devices on smartphone 1600, such as a keypad and other input control devices, to communication interface 163. The I/O subsystem 166 optionally includes a touch screen, keys, tone generator, accelerometer (motion sensor), ambient light and other sensors, light emitting diodes and other status indicators, data ports, and the like. Illustratively, a user may control the operation of smartphone 1600 by supplying commands via I/O subsystem 166, and may receive status information and other outputs from smartphone 1600 using the output resources of I/O subsystem 166. For example, a user pressing a button may turn a cell phone on or off.

The rf system 164 may be any one of the rf systems in the embodiments described above, wherein the rf system 164 is further configured to process rf signals of a plurality of different frequency bands. Such as satellite positioning radio frequency circuitry for receiving satellite positioning signals at 1575MHz, wiFi and bluetooth transceiver radio frequency circuitry for handling the 2.4GHz and 5GHz bands of IEEE802.11 communications, and cellular telephone transceiver radio frequency circuitry for handling wireless communications in cellular telephone bands, such as the 850MHz, 900MHz, 1800MHz, 1900MHz, 2100MHz bands, and Sub-6G bands. The Sub-6G frequency band may specifically include a 2.496GHz-6GHz frequency band and a 3.3GHz-6GHz frequency band.

Furthermore, the logic instructions in the memory 162 may be implemented in the form of software functional units and stored in a computer readable storage medium when the software functional units are sold or used as independent products.

The memory 162, which is a computer-readable storage medium, may be configured to store software programs, computer-executable programs, such as program instructions or modules corresponding to the methods in the embodiments of the present disclosure. The processor 161 executes the functional application and data processing by executing the software program, instructions or modules stored in the memory 162, that is, implements the method in the above-described embodiment.

The memory 162 may include a storage program area and a storage data area, wherein the storage program area may store an operating system, an application program required for at least one function; the storage data area may store data created from use of the cellular phone 1600, and the like. Further, memory 162 may include high speed random access memory, and may also include non-volatile memory. For example, a variety of media that can store program codes, such as a usb disk, a removable hard disk, a Read-Only Memory (ROM), a Random Access Memory (RAM), a magnetic disk, or an optical disk, may also be transient storage media.

The above examples only express several embodiments of the present application, and the description thereof is more specific and detailed, but not to be construed as limiting the scope of the present application. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the concept of the present application, and these are all within the scope of protection of the present application. Therefore, the protection scope of the present patent shall be subject to the appended claims.

Claims

1. A multi-mode multi-band power amplifier (MMPA) module, comprising:

an ultra-high frequency amplification circuit comprising:

the first ultrahigh frequency receiving circuit is configured to receive and process a first ultrahigh frequency receiving signal of the first target ultrahigh frequency input port sequentially through the DP4T switch and the second filter and output the first ultrahigh frequency receiving signal to the radio frequency transceiver;

a second uhf receiver circuit configured to receive and process a second uhf receiver signal of a second target uhf input port sequentially through the DP4T switch, the coupler, the first filter, and a fourth selector switch, and output the second uhf receiver signal to the rf transceiver;

2. The MMPA module of claim 1, wherein the non-uhf amplification circuit comprises:

the low-frequency amplifying circuit is configured to receive a low-frequency transmitting signal from a radio frequency transceiver, amplify the low-frequency transmitting signal and output the amplified low-frequency transmitting signal to a target low-frequency output port through a first selection switch, wherein the target selection switch is the first selection switch, and the target non-ultrahigh frequency output port is the target low-frequency output port;

the intermediate frequency amplifying circuit is configured to receive an intermediate frequency transmitting signal from the radio frequency transceiver, amplify the intermediate frequency transmitting signal, and output the amplified intermediate frequency transmitting signal to a target intermediate frequency output port through a second selection switch, wherein the target selection switch is the second selection switch, and the target non-ultrahigh frequency output port is the target intermediate frequency output port;

and the high-frequency amplifying circuit is configured to receive a high-frequency transmitting signal from the radio-frequency transceiver, amplify the high-frequency transmitting signal and output the amplified high-frequency transmitting signal to a target high-frequency output port through a third selection switch, wherein the target selection switch is the third selection switch, and the target non-ultrahigh-frequency output port is the target high-frequency output port.

3. The MMPA module of claim 2, wherein,

the low-frequency amplification circuit is configured to receive the low-frequency transmission signal at a first supply voltage;

the intermediate frequency amplification circuit configured to receive the intermediate frequency transmit signal at a second supply voltage;

the high-frequency amplification circuit configured to receive the high-frequency transmission signal at the second supply voltage;

the UHF amplification circuit is configured to receive the UHF transmit signal/the first UHF receive signal/the second UHF receive signal at the second supply voltage.

4. The MMPA module of claim 3, wherein the MMPA module is configured to implement a dual connectivity function of a fourth generation 4G radio access network and a fifth generation 5G new air interface NR between a non-UHF transmit signal and the UHF transmit signal.

5. The MMPA module of any one of claims 1-4,

the ultrahigh frequency transmitting circuit comprises a single power amplifier to realize power amplification processing on the ultrahigh frequency transmitting signal; alternatively, the first and second electrodes may be,

the ultrahigh frequency transmitting circuit comprises a plurality of power amplifiers and a power synthesis unit, and the power amplification processing of the ultrahigh frequency transmitting signal is realized in a power synthesis mode.

6. The MMPA module of claim 1 or 4, wherein the first UHF receive circuit and the second UHF receive circuit each comprise a single low noise amplifier to perform power amplification processing on the UHF receive signal.

7. The MMPA module of claim 4, wherein the third selector switch is a 3P3T switch, a first P port of the 3P3T switch is connected to the output of the high-frequency amplification circuit, a second P port of the 3P3T switch is connected to the first high-frequency output port of the MMPA module, a third P port of the 3P3T switch is connected to the second high-frequency output port of the MMPA module, a first T port of the 3P3T switch is connected to the third high-frequency output port of the MMPA module, and second and third T ports of the 3P3T switch are connected to 2 high-frequency transceiving ports of the MMPA module in a one-to-one correspondence.

8. An MMPA module, comprising:

the second ultrahigh frequency amplifying unit is sequentially connected with a second filter and a DP4T switch, and is used for receiving a first ultrahigh frequency receiving signal of a first target ultrahigh frequency input port sequentially through the DP4T switch and the second filter, amplifying the first ultrahigh frequency receiving signal and outputting the first ultrahigh frequency receiving signal to the radio frequency transceiver;

a P port of the SPDT switch is connected to the first filter, one T port of the SPDT switch is connected to the first uhf amplification unit, and the other T port of the SPDT switch is connected to the third uhf amplification unit; one P port of the DP4T switch is connected with the coupler, the other P port of the DP4T switch is connected with the second ultrahigh frequency amplification unit, two T ports of the DP4T switch are correspondingly connected with two SRS ports of the MMPA module one by one, and the other two T ports are correspondingly connected with a first ultrahigh frequency antenna port used for receiving a first ultrahigh frequency receiving signal and a second ultrahigh frequency antenna port used for receiving a second ultrahigh frequency receiving signal in the MMPA module one by one; the target ultrahigh frequency output port and the target ultrahigh frequency input port are any one of the two SRS ports and the two ultrahigh frequency antenna ports.

9. The MMPA module of claim 8, wherein the target select switch comprises a first select switch, a second select switch, and a third select switch; the non-ultrahigh frequency amplification unit comprises:

the low-frequency amplification unit is connected with the first selection switch and is used for receiving and processing a low-frequency transmitting signal from the radio-frequency transceiver, amplifying the low-frequency transmitting signal and outputting the amplified low-frequency transmitting signal to a target low-frequency output port through the first selection switch;

the intermediate frequency amplification unit is connected with the second selection switch and is used for receiving and processing an intermediate frequency transmitting signal from the radio frequency transceiver, amplifying the intermediate frequency transmitting signal and outputting the amplified intermediate frequency transmitting signal to a target intermediate frequency output port through the second selection switch;

the high-frequency amplification unit is connected with the third selection switch and is used for receiving and processing the high-frequency transmission signal from the radio frequency transceiver, amplifying the high-frequency transmission signal and outputting the amplified high-frequency transmission signal to a target high-frequency output port through the third selection switch;

the target non-ultrahigh frequency output port is any one of the target low-frequency output port, the target intermediate-frequency output port and the target high-frequency output port.

10. The MMPA module of claim 9, wherein,

the low-frequency amplification unit supplies power through a first power supply module;

the intermediate frequency amplification unit, the high frequency amplification unit, the first ultrahigh frequency amplification unit, the second ultrahigh frequency amplification unit and the third ultrahigh frequency amplification unit are powered by a second power supply module.

11. An MMPA module is characterized by being provided with a non-ultrahigh frequency receiving port for receiving non-ultrahigh frequency transmitting signals of a radio frequency transceiver,

The ultrahigh frequency receiving port is used for receiving ultrahigh frequency transmitting signals of the radio frequency transceiver, the first ultrahigh frequency output port is used for sending first ultrahigh frequency receiving signals from an antenna, the second ultrahigh frequency output port is used for sending second ultrahigh frequency receiving signals from the antenna, the non-ultrahigh frequency output port is used for sending non-ultrahigh frequency transmitting signals, and the third ultrahigh frequency output port is used for sending the ultrahigh frequency transmitting signals and comprises two ultrahigh frequency antenna ports and two SRS ports; the MMPA module includes:

a first P port of the DP4T switch is connected to the third end of the coupler, a second P port of the DP4T switch is connected to the second end of the second filter, two T ports of the DP4T switch are connected to the two SRS ports in a one-to-one correspondence, and the other two T ports are connected to the two uhf antenna ports in a one-to-one correspondence, and are used to selectively connect a signal path between any one of the first uhf receiving circuit, the uhf transmitting circuit, and the second uhf receiving circuit and the third uhf output port.

12. The MMPA module of claim 11, wherein the non-uhf receive port comprises:

a low frequency receiving port for receiving a low frequency transmit signal of the radio frequency transceiver;

an intermediate frequency receive port for receiving an intermediate frequency transmit signal of the radio frequency transceiver; and

a high frequency receiving port for receiving a high frequency transmit signal of the radio frequency transceiver;

the non-ultrahigh frequency output port comprises:

a low frequency output port for transmitting the low frequency transmit signal;

an intermediate frequency output port for transmitting the intermediate frequency transmission signal; and

a high frequency output port for transmitting the high frequency transmit signal.

13. The MMPA module of claim 12, wherein the MMPA module is further configured with a first power port and a second power port; the target selection switch comprises a first selection switch, a second selection switch and a third selection switch; the non-ultrahigh frequency amplifying circuit comprises a low frequency amplifying circuit, an intermediate frequency amplifying circuit and a high frequency amplifying circuit;

the low-frequency amplification circuit is connected with the low-frequency receiving port and the first power supply port and is used for amplifying the low-frequency transmitting signal under the first power supply voltage of the first power supply port;

the first selection switch is connected with the output end of the low-frequency amplification circuit and the low-frequency output port and used for selecting and conducting a path between the low-frequency amplification circuit and a target low-frequency output port, and the target low-frequency output port is any one of the low-frequency output ports;

the intermediate frequency amplifying circuit is connected with the intermediate frequency receiving port and the second power supply port and is used for amplifying the intermediate frequency transmitting signal under the second power supply voltage of the second power supply port;

the second selection switch is connected with the output end of the intermediate frequency amplification circuit and the intermediate frequency output port and used for selectively conducting a path between the intermediate frequency amplification circuit and a target intermediate frequency output port, and the target intermediate frequency output port is any one of the intermediate frequency output ports;

the high-frequency amplification circuit is connected with the high-frequency receiving port and the second power supply port and is used for amplifying the high-frequency transmitting signal under the second power supply voltage of the second power supply port;

a third selection switch, connected to an output terminal of the high-frequency amplification circuit and the high-frequency output port, for selectively conducting a path between the high-frequency amplification circuit and a target high-frequency output port, where the target high-frequency output port is any one of the high-frequency output ports;

the ultrahigh frequency transmitting circuit is used for amplifying the ultrahigh frequency transmitting signal under the second power supply voltage of the second power supply port;

the first ultrahigh frequency receiving circuit is used for amplifying the first ultrahigh frequency receiving signal under the second power supply voltage of the second power supply port;

the second ultrahigh frequency receiving circuit is used for amplifying the second ultrahigh frequency receiving signal under the second power supply voltage of the second power supply port;

14. A radio frequency system, comprising:

the MMPA module of any of claims 1-13;

the radio frequency system is used for realizing a double connection function between the ultrahigh frequency transmitting signal and the non-ultrahigh frequency transmitting signal through the MMPA module, wherein the non-ultrahigh frequency signal comprises any one of a low frequency transmitting signal, an intermediate frequency transmitting signal and a high frequency transmitting signal.

15. The radio frequency system according to claim 14, wherein the target antenna ports include a low frequency antenna port, an intermediate frequency antenna port, and a high frequency antenna port; the target antenna unit includes:

the second antenna unit is connected with the low-frequency antenna port;

the third antenna unit is connected with the intermediate frequency antenna port;

and the fourth antenna unit is connected with the high-frequency antenna port.

16. The radio frequency system of claim 15, further comprising:

the first power supply module is connected with the low-frequency amplification circuit of the MMPA module and used for providing a first power supply voltage for the low-frequency amplification circuit;

the second power supply module is used for connecting the intermediate frequency amplification circuit, the high frequency amplification circuit and the ultrahigh frequency amplification circuit of the MMPA module and providing a second power supply voltage for any one of the intermediate frequency amplification circuit, the high frequency amplification circuit and the ultrahigh frequency amplification circuit;

the radio frequency system is used for providing the first power supply voltage for the low-frequency amplifying circuit through the first power supply module so as to process low-frequency transmitting signals, and is also used for providing the first power supply voltage for the intermediate-frequency amplifying circuit, the high-frequency amplifying circuit or the ultrahigh-frequency amplifying circuit through the second power supply module so as to process intermediate-frequency transmitting signals, high-frequency transmitting signals or ultrahigh-frequency transmitting signals.

17. The radio frequency system according to any of claims 14-16, wherein the first antenna element comprises:

the first antenna is connected with a first ultrahigh frequency antenna port;

the second antenna is connected with a second ultrahigh frequency antenna port;

a third antenna connected to the first SRS port;

and the fourth antenna is connected with the second SRS port.

18. The radio frequency system of claim 17, further comprising:

the first radio frequency switch comprises a P port and two T ports, the P port is connected with the third antenna, and the first T port is connected with the first SRS port;

the first receiving module is connected with the second T port of the first radio frequency switch and used for receiving the ultrahigh frequency signal received by the third antenna;

the second radio frequency switch comprises a P port and two T ports, the P port is connected with the fourth antenna, and the first T port is connected with the second SRS port;

and the second receiving module is connected with the second T port of the second radio frequency switch and used for receiving the ultrahigh frequency signal received by the fourth antenna.

19. A communication device, comprising:

the radio frequency system of any one of claims 14-18.