CN109861803A - Method and device for wireless resource management in cellular network - Google Patents

Abstract

The invention belongs to a wireless resource management method in a cellular network, comprising the following steps: Step 1: Initialize basic parameters of Z RC three-dimensional resource blocks, the basic parameters include time slot, bandwidth, power carrier width and an allocation matrix of the RC three-dimensional resource blocks C[:, m, n], n≤Z; Step 2: Sort the S user equipments according to the size of the channel gain information from small to large, and generate a user sequence; Step 3: According to the order of the user sequence The Z RC 3D resource blocks are sequentially allocated to the corresponding user equipments; Step 4: According to the QOS requirements of different user equipments, the power of each RC 3D resource block is adjusted sequentially from the top level of the power axis. The wireless resource management method of the present invention introduces the power domain into the traditional time-frequency resource block concept, and utilizes the gain information of the user equipment channel, so that the time-frequency resource block can be efficiently utilized by different user equipments simultaneously in the same frequency band.

Description

Method and device for wireless resource management in cellular network

technical field

The present invention relates to the field of communication technologies, in particular to a method and device for managing wireless resources in a cellular network.

Background technique

With the proliferation of mobile devices, spectrum resources have become extremely scarce, but the spectrum utilization of available frequency bands is exceptionally low. Therefore, in order to utilize discontinuous or adjacent spectrum resources, spectrum aggregation technology has become a key point in the field of contemporary communications.

The traditional wireless resource management method in spectrum aggregation only uses RBs (time-frequency resource blocks) to schedule and utilize resources in the time and frequency domains. Its structure is not flexible and the calculation complexity is high. Although some new technical solutions realize that This shortcoming, but still only achieves the sub-optimal effect in terms of energy efficiency, and cannot effectively control the transmission power and cannot meet the QoS (Quality of Service) requirements. Therefore, under such a severe realistic background, how to realize flexible, efficient and low computational complexity resource allocation in wireless resource management has become an urgent problem to be solved.

SUMMARY OF THE INVENTION

The purpose of the present invention is to provide a new method and device for wireless resource management in a cellular network in view of the above-mentioned existing technical problems, and according to the basic theoretical basis, by introducing the concept of power domain, the existing RB (time-frequency resource block) is extended to RC (time-frequency-power-domain three-dimensional resource block), and at the same time, the channel gain information is used to enable traditional RBs to be simultaneously referenced by different user equipments in the same frequency band, so as to achieve better resource allocation and spectrum utilization and has low computational complexity.

To achieve the above object, the present invention has adopted the following technical scheme:

A method for wireless resource management in a cellular network, comprising the following steps:

Step 1: Initialize basic parameters of Z RC three-dimensional resource blocks, the basic parameters include time slot f, bandwidth g, and an allocation matrix C[l, m, n] of the RC three-dimensional resource block, where n≤Z;

Step 2: The S user equipments are numbered and sorted according to the size of the channel gain information from small to large to generate a user sequence;

Step 3: Allocate the Z RC three-dimensional resource blocks in the system to the corresponding user equipment in sequence according to the sequence of the user sequence;

Specifically, according to the order of the user sequence, the Z RC three-dimensional resource blocks distributed from low to high along the power axis are sequentially allocated to the corresponding user equipment until the Z RC three-dimensional resource blocks are allocated, that is, C[:, m , 1]=k ₁ , C[:, m, 2]=k ₂ ,...C[:,m,n]=k _n ...;

Step 4: According to the QOS requirements of different user equipments, the power of each RC three-dimensional resource block is adjusted sequentially from the top layer of the power axis by formula (1):

in, A _i,m =S ⁱ W _m ; and σ represents the system noise, h represents the channel gain value of the user equipment, r represents the data transmission rate of the user equipment, and A _{i, m} represents the coefficient matrix; at the same time, there is a power constraint, each The sum of the powers of the RC three-dimensional resource blocks is much smaller than the total power of the system, that is, ΣP ^S <P ^max .

In the wireless resource management method in the cellular network, the specific method for initializing the RC three-dimensional resource block in the step 1 is:

Assuming that the time domain length of the power distribution system is T, the total bandwidth is B, the power domain length is P, and the total number of user equipments is S, let L=T/f, M=B/g, N=S, then the system size is L×M×N; among them, L represents the number of time slots that divide the time domain, M represents the number of frequency bands that divide the total bandwidth, and N represents the number of power segments that divide the power domain;

Then, for any RC three-dimensional resource block, it is assumed that the allocation matrix of the RC three-dimensional resource block is represented by a matrix C[l, m, n], and the RC three-dimensional resource block is initialized so that C=0, l=m=n=1; where, l represents the 1 th time slot, m represents the m th frequency band, n represents the n th power segment and also represents the n th RC resource block, and 1≤1≤L, 1≤m≤M, 1≤n≤N.

In the wireless resource management method in the cellular network, the specific method for generating the user sequence in step 2 is: setting the user serial number of the user equipment with the smallest channel gain information among the S user equipments as 1, and the user's channel gain information is the second smallest. The user serial number of the user equipment is set to 2, and so on, to sort all the user equipments in the power distribution system in turn, that is, to satisfy the where k ₁ represents the user equipment with the smallest channel gain information in the power distribution system, and k _S represents the user equipment with the largest channel gain information in the power distribution system.

In the described wireless resource management method in the cellular network, the specific method for adjusting the power of the RC three-dimensional resource block according to the formula (1) in the step 4 is:

Step 4.1: Calculate the power P[m, k _S ] of the RC three-dimensional resource block corresponding to the user equipment k _S with the largest sequence number in the user sequence by formula (2);

Among them, k _S represents the user equipment with the serial number S in the user sequence, P[m, k _S ] represents the power adjusted by the user equipment k _S , σ represents the system noise, represents the data transmission rate of the user equipment k _S , represents the channel gain value of the user equipment k _S ;

Step 4.2: When calculating the power _P [m, k _S-1 ] of the RC three-dimensional resource block corresponding to the user equipment k _s-1 with the second largest sequence number in the user sequence by formula (2); The power P[m, k _S ] of the RC 3D resource block as noise, then:

Among them, k _S-1 represents the user equipment with the serial number S-1 in the user column, P[m, k _S-1 ] represents the power adjusted by the user equipment k _S-1 , σ represents the system noise, represents the data transmission rate of the user equipment k _S-1 , represents the channel gain value of user equipment k _S-1 ;

Step 4.3: When calculating the power P[m, k _S-2 ] of the RC three-dimensional resource block corresponding to the user equipment k _S-2 with the sequence number S-2 in the user sequence by formula (2), the user equipment k _{S -1} , the sum of the adjusted powers P[m, k _S ] and P[m, k _S-1 ] of the RC three-dimensional resource blocks corresponding to k _S is regarded as the system noise, then:

By analogy, when the power of the RC 3D resource block corresponding to the user equipment with the smaller sequence number in the user sequence is adjusted by formula (2), the RC 3D resource block corresponding to the user equipment with the sequence number in the user sequence is higher than the smaller sequence number. The sum of the powers of the resource blocks is added to the operation as noise, that is, for any user equipment k _S-i+1 , the adjusted power of the corresponding RC three-dimensional resource block is P[m, k _S-i+1 ]:

Among them, 1≤i≤S.

At the same time, there is a power constraint in the power domain adjustment process, and the sum of the power of each RC three-dimensional resource block is far less than the total power of the system, that is, ∑P ^S <<P ^max , if ∑ P ^S >P ^max , the user should be canceled Device resource allocation.

There are two methods at this time: the principle of fairness and the principle of unfairness;

Fairness principle: According to the method of first-come, first-served allocation, that is, when a power overflow occurs during power adjustment of the user equipment with a smaller serial number, the resource allocation of the current user equipment is cancelled.

Unfairness principle: in the process of power allocation, if there is power overflow, the allocation of user equipment with large channel fading will be cancelled.

A wireless resource management device in a cellular network, comprising:

Parameter initialization module: used to initialize the basic parameters of the RC 3D resource block;

Channel gain sorting module: used to sort multiple user equipments according to the channel gain value information of each user equipment to generate a user sequence;

Resource block allocation module: used for sequentially allocating multiple RC three-dimensional resource blocks in the system to multiple user equipments according to the sequence of the user sequence;

Power domain adjustment module: used to adjust the power domain of the corresponding RC three-dimensional resource block in turn according to the specific requirements of different user equipment QOS.

In the wireless resource management device in the cellular network, the parameter initialization module, the channel gain sorting module, the resource block allocation module, and the power domain adjustment module may be distributed in one device or in multiple devices.

Beneficial effects of the present invention:

The wireless resource management method of the present invention introduces the power domain into the traditional concept of time-frequency resource block (RB), and utilizes the gain information of the user equipment channel, so that the time-frequency resource block can be simultaneously used by different user equipments in the same frequency band. Efficient utilization, and the proposed optimization algorithm is a convex function, which has low computational complexity, meets the basic requirements of user equipment QOS, and is highly in line with practical needs.

The device of the present invention initializes the basic parameters of the RC three-dimensional resource block through the parameter initialization device, sorts multiple user equipments through the channel gain sorting module, and sequentially allocates the multiple RC three-dimensional resource blocks to multiple user equipments through the resource block allocation module according to the sequence. The power domain of the RC three-dimensional resource block is adjusted by the power domain adjustment module, which realizes the utilization of the degraded channel and the superposition code, improves the utilization efficiency of spectrum resources, and breaks through the bottleneck of the existing technology. .

The present invention will be further described in detail below with reference to the accompanying drawings and embodiments.

Description of drawings

FIG. 1 is a flowchart of a method for managing radio resources in a cellular network according to the present invention.

FIG. 2 is a structural diagram of a radio resource management apparatus in a cellular network of the present invention.

Detailed ways

In order to further illustrate the technical means and effects adopted by the present invention to achieve the predetermined purpose, the specific embodiments, structural features and effects of the present invention are described in detail below with reference to the accompanying drawings and examples.

The embodiments of the present invention provide a method and an apparatus for wireless resource management in a cellular network in view of the above-mentioned existing technical problems, and introduce a power domain and utilize the channel gain of the user equipment according to the basic theoretical basis, so that the traditional time-frequency resource block can be The same frequency band can be referenced at the same time, so as to achieve better resource allocation and spectrum utilization.

Referring to FIG. 1, a method for wireless resource management in a cellular network is provided for an embodiment:

Step 1: Initialize the basic parameters of the Z RC three-dimensional resource blocks, the basic parameters include time slot f, bandwidth g, power carrier width and the allocation matrix C[l, m, n] of the RC three-dimensional resource block, 1<n≤ Z;

The specific method of initializing the RC 3D resource block in the step 1 is:

Assuming that the total frame length of the power distribution system is T, the total bandwidth is B, and the total number of user equipments is S, let L=T/f, M=B/g, and N=S, then the system size is L×M×N ; Wherein, L represents the number of time slots that divide the time domain, M represents the number of frequency bands that divide the frequency domain, and N represents the number of power segments that divide the power domain;

Then, for any RC 3D resource block, it is assumed that the allocation matrix of the RC 3D resource block is represented by a matrix C[l, m, n], and the RC 3D resource block is initialized so that C=0, l=m=n=1.

The RC three-dimensional resource block is a time-frequency-power domain three-dimensional resource block formed by dividing the power axis of the original time-frequency resource block RB into several equal parts; in this embodiment, the RC three-dimensional resource block is The number of blocks is equal to the number of power domain divisions, that is, N=Z, and Z is an integer greater than 0; and in this embodiment, the number Z of RC three-dimensional resource blocks is based on the number of user equipments in the power allocation system For equal division, ie Z=S, S is an integer greater than 0.

The basic parameters for initializing RC 3D resource blocks include frame length, bandwidth, power carrier width and resource block allocation matrix, wherein the total frame length and total bandwidth have been determined by the power allocation system.

The following takes a simple system as an example to describe the method of initializing the basic parameters of the RC 3D resource block in detail:

Assume that the total frame length of the system is T, the total bandwidth is B, and the total number of user equipments is S. Assuming that the time slot of the RC three-dimensional resource block is f and the bandwidth is g, then let L=T/f, M=B/g, N=S, and suppose a matrix C[l,m,n], 1<n≤ Z represents the allocation matrix of the RC three-dimensional resource block, then the size of the system is L×M×N;

RC 3D resource block initialization, that is, C[l, m, n]=0, l=m=n=1; the substantive meaning of RC 3D resource block initialization is: the RC 3D resource block is in an idle state and is not allocated to use by any user device.

The duration of the above-mentioned RC 3D resource block is t, which represents the length of each RC 3D resource block on the time axis;

Step 2: The S user equipments are numbered and sorted according to the size of the channel gain information from small to large to generate a user sequence;

The specific method for generating the user sequence in the step 2 is as follows: the user sequence number of the user equipment with the smallest channel gain information among the S user equipments is set to 1, and the user sequence number of the user equipment with the second smallest channel gain information is set to 2. By analogy, sort all the user equipments in the wireless network system in turn, that is, to satisfy where k ₁ represents the user equipment with the smallest channel gain information in the wireless network system, and k _S represents the user equipment with the largest channel gain information in the wireless network system.

Taking a simple system as an example below, the method for sorting the gain information of the degraded channel of the user equipment will be described in detail.

Suppose there are three existing user equipments, respectively _ka , kb and _kc ; the channel gains of the three user equipments are h ₁ , h ₂ and h _{3 ;}

Let h ₁ =0.2, h ₂ =0.3, h ₃ =0.4, since h ₁ <h ₂ <h ₃ , then let _ka =k ₁ , k _b =k ₂ , k _c =k ₃ , k ₁ represents three The user equipment with the smallest channel gain among the user equipments, k ₃ represents the user equipment with the largest channel gain among the three user equipments.

Step 3: Allocate the Z RC three-dimensional resource blocks in the system to the corresponding user equipment in sequence according to the sequence of the user sequence;

Specifically, according to the order of the user sequence, the Z RC 3D resource blocks distributed from low to high along the power axis are sequentially allocated to the corresponding user equipment until the Z RC 3D resource blocks are allocated, that is, C[:, m , 1]=k ₁ , C[:, m, 2]=k ₂ ,... C[:, m, 3]=k _n ...; that is, C[:, m, n]=k _n means that the The RC three-dimensional resource block whose position information is (:, m, n) in the three-dimensional coordinates is allocated to the user equipment whose serial number is n.

The following takes a simple system as an example to describe the RC allocation method in detail.

Suppose there are three existing user equipments, respectively _ka , kb and _kc ; the channel gains of the three user equipments are h ₁ , h ₂ and h ₃ respectively _; let h ₁ =0.2, h ₂ =0.3, h ₃ = 0.4, because h ₁ <h ₂ <h ₃ , then let _ka = k ₁ , k _b = k ₂ , k _c = k ₃ ; at this time, divide the power axis into three equal parts, and start from the bottom layer of the power axis first. The user equipment k ₁ is allocated RC three-dimensional resource blocks, and its RC allocation matrix C is C[:, m, 1]=k ₁ , and then RC is allocated to k ₂ , and the RC allocation matrix C of its user equipment is C[: , m, 2]=k ₂ , then RC is allocated to k ₃ , and the RC allocation matrix C of the user equipment is C[:, m, 3]=k ₃ , and the allocation step of RC three-dimensional resource blocks ends at this time.

Step 4: According to the QOS requirements of different user equipments, the power of each RC three-dimensional resource block is adjusted sequentially from the top layer of the power axis by formula (1):

in, And σ represents the system noise, h represents the channel gain value of the user equipment, r represents the data transmission rate of the user equipment, A _i,m =S ⁱ W _m represents the coefficient matrix, and the specific expression is as follows:

At the same time, there is a power constraint, and the sum of the power of each RC three-dimensional resource block is far less than the total power of the system, that is, ΣP ^S <<P ^max . If ΣP ^S >P ^max , the resource allocation of the user equipment should be cancelled.

There are two methods at this time: the principle of fairness and the principle of unfairness;

Fairness principle: According to the method of first-come, first-served allocation, that is, when a power overflow occurs during power adjustment of the user equipment with a smaller serial number, the resource allocation of the current user equipment is cancelled.

Unfairness principle: in the process of power allocation, if there is power overflow, the allocation of user equipment with large channel fading will be cancelled.

Specifically, the specific steps of adjusting the power of each RC 3D resource block in step 4 are as follows:

Step 4.1: Calculate the power P[m, k _S ] of the RC three-dimensional resource block corresponding to the user equipment k _S with the largest sequence number in the user sequence by formula (2);

Among them, k _S represents the user equipment with the serial number S in the user sequence, P[m, k _S ] represents the power adjusted by the user equipment k _S , σ represents the system noise, represents the data transmission rate of the user equipment k _S , represents the channel gain value of the user equipment k _S ;

Step 4.2: When calculating the power P[m, k _S-1 ] of the RC three-dimensional resource block corresponding to the user equipment k _S-1 with the second largest sequence number in the user sequence by formula (2 ₎ ; The power P[m, k _S ] of the RC 3D resource block as noise, then:

Among them, k _S-1 represents the user equipment with the serial number S-1 in the user column, P[m, k _S-1 ] represents the power adjusted by the user equipment k _S-1 , σ represents the system noise, represents the data transmission rate of the user equipment k _S-1 , represents the channel gain value of user equipment k _S-1 ;

Step 4.3: When calculating the power P[m, k _S-2 ] of the RC three-dimensional resource block corresponding to the user equipment k _S-2 with the sequence number S-2 in the user sequence by formula (2), the user equipment k _{S -1} , the sum of the adjusted powers P[m, k _S ] and P[m, k _S-1 ] of the RC three-dimensional resource blocks corresponding to k _S is regarded as the system noise, then:

By analogy, when the power of the RC 3D resource block corresponding to the user equipment with the smaller sequence number in the user sequence is adjusted by formula (2), the RC 3D resource block corresponding to the user equipment with the sequence number in the user sequence is higher than the smaller sequence number. The sum of the powers of the resource blocks is added to the operation as noise, that is, for any user equipment k _S-i+1 , the adjusted power of the corresponding RC three-dimensional resource block is P[m, k _S-i+1 ]:

Among them, 1≤i≤S;

Formula (1) is obtained by simplifying the above formula (5).

Referring to FIG. 2, based on the above management method, this embodiment further provides a wireless resource management device in a cellular network, including:

Parameter initialization module: used to initialize the basic parameters of the RC 3D resource block;

Channel gain sorting module: used to sort multiple user equipments according to the channel gain value information of each user equipment to generate a user sequence;

Resource block allocation module: used for sequentially allocating multiple RC three-dimensional resource blocks in the system to multiple user equipments according to the sequence of the user sequence;

Power domain adjustment module: used to adjust the power domain of the corresponding RC three-dimensional resource block in turn according to the specific requirements of different user equipment QOS.

The above-mentioned parameter initialization module, channel gain sorting module, resource block allocation module, and power domain adjustment module may be distributed in one device, or may be distributed in multiple devices;

The above parameter initialization module, channel gain sorting module, resource block allocation module, power domain adjustment module The parameter initialization module, channel gain sorting module, resource block allocation module, and power domain adjustment module can be combined into one module, or can be further divided into multiple modules. submodules;

The above-mentioned apparatus for allocating uplink and downlink power in the multiple access system may be set up independently as a separate apparatus, or may be integrated in the base station and the mobile terminal equipment.

Those skilled in the art may understand that each module in the apparatus in the embodiment may be distributed in the apparatus in the embodiment according to the description of the embodiment, and may also be located in one or more apparatuses different from the embodiment by making corresponding changes.

The wireless resource management device in the above-mentioned cellular network can be set up independently as a separate device, or can be integrated in the base station and the mobile terminal equipment.

Those skilled in the art may understand that the modules in the apparatus in the embodiment may be distributed in the apparatus in the embodiment according to the description of the embodiment, and may also be located in one or more apparatuses different from the embodiment with corresponding changes. The modules in the foregoing embodiments may be combined into one module, or may be further split into multiple sub-modules.

The above content is a further detailed description of the present invention in combination with specific preferred embodiments, and it cannot be considered that the specific implementation of the present invention is limited to these descriptions. For those of ordinary skill in the technical field of the present invention, without departing from the concept of the present invention, some simple deductions or substitutions can be made, which should be regarded as belonging to the protection scope of the present invention.

Claims (6)

1. a wireless resource management method in a cellular network, is characterized in that, comprises the following steps: Step 1: Initialize the basic parameters of the Z RC three-dimensional resource blocks, the basic parameters include the time slot f, the bandwidth g, and the allocation matrix C[l, m, n] of the RC three-dimensional resource block, 1<n≤Z; Step 2: The S user equipments are numbered and sorted according to the size of the channel gain information from small to large to generate a user sequence; Step 3: Allocate the Z RC three-dimensional resource blocks in the system to the corresponding user equipment in sequence according to the sequence of the user sequence; Specifically, according to the order of the user sequence, the Z RC three-dimensional resource blocks distributed from low to high along the power axis are sequentially allocated to the corresponding user equipment until the Z RC three-dimensional resource blocks are allocated, that is, C[:, m , 1]=k ₁ , C[:, m, 2]=k ₂ , ... C[:, m, n]=k _n ...; Step 4: According to the QOS requirements of different user equipments, the power of each RC three-dimensional resource block is adjusted sequentially from the top layer of the power axis by formula (1): in, And σ represents the system noise, A _{i, m} represents the coefficient matrix; h represents the channel gain value of the user equipment, r represents the data transmission rate of the user equipment; at the same time, there is a power constraint, the sum of the power of each RC three-dimensional resource block is much less than The total power of the system, ie ^ΣPS <<P ^max . 2. The wireless resource management method in a cellular network according to claim 1, wherein the specific method for initializing the RC three-dimensional resource block in the step 1 is: Assuming that the time domain length of the power distribution system is T, the total bandwidth is B, and the total number of user equipments is S, let L=T/ _f , M=B/g, N=S, then the size of the power distribution system is L×M ×N; where L represents the number of time slots that divide the time domain, M represents the number of frequency bands that divide the total bandwidth, and N represents the number of power segments that divide the power domain; Then, for any RC 3D resource block, it is assumed that the allocation matrix of the RC 3D resource block is represented by a matrix C[l, m, n], and the RC 3D resource block is initialized so that C=0, l=m=n=1. 3. The wireless resource management method in a cellular network according to claim 2, wherein the specific method for generating the user sequence in the step 2 is: the user sequence number of the user equipment with the smallest channel gain information among the S user equipments It is set to 1, the user serial number of the user equipment with the second smallest user channel gain information is set to 2, and so on, to sort all the user equipments in the power distribution system in turn, that is, to satisfy where k ₁ represents the user equipment with the smallest channel gain information in the power distribution system, and k _S represents the user equipment with the largest channel gain information in the power distribution system. 4. The wireless resource management method in a cellular network according to claim 3, wherein the specific method for adjusting the power of the RC three-dimensional resource block according to formula (1) in the step 4 is: Step 4.1: Calculate the power P[m, k _S ] of the RC three-dimensional resource block corresponding to the user equipment k _S with the largest sequence number in the user sequence by formula (2); Among them, k _S represents the user equipment with the serial number S in the user sequence, P[m, k _S ] represents the power adjusted by the user equipment k _S , σ represents the system noise, represents the data transmission rate of the user equipment k _S , represents the channel gain value of the user equipment k _S ; Step 4.2: When calculating the power P[m, k s-1 ] of the RC three-dimensional resource block corresponding to the user equipment k _s-1 with the second largest sequence number in the user sequence, the power P[m, k _s-1 ] corresponding to the user equipment k _S The power P[m, k _S ] of the RC 3D resource block as noise, then: Among them, k _s-1 represents the user equipment with the serial number S-1 in the user column, P[m, k _s-1 ] represents the power adjusted by the user equipment k _s-1 , σ represents the system noise, represents the data transmission rate of the user equipment k _s-1 , represents the channel gain value of the user equipment k _s-1 ; Step 4.3: When calculating the power P[m, ks _-2 ] of the RC three-dimensional resource block corresponding to the user equipment ks _- 2 with the serial number _S -2 in the user sequence, the user equipment ks-2 is calculated by formula (2). The sum of the adjusted powers P[m, k _S ] and P[m, k _s-1 ] of the RC three-dimensional resource blocks corresponding to _-1 and k _s is regarded as the system noise, then: By analogy, when the power of the RC 3D resource block corresponding to the user equipment with the smaller sequence number in the user sequence is adjusted by formula (2), the RC 3D resource block corresponding to the user equipment with the sequence number in the user sequence is higher than the smaller sequence number. The sum of the powers of the resource blocks is added to the operation as noise, that is, for any user equipment k _S-i+1 , the adjusted power of the corresponding RC three-dimensional resource block is P[m, k _S-i+1 ]: Among them, 1≤i≤S. 5. A device for managing wireless resources in a cellular network, comprising: Parameter initialization module: used to initialize the basic parameters of the RC 3D resource block; Channel gain sorting module: used to sort multiple user equipments according to the channel gain value information of each user equipment to generate a user sequence; Resource block allocation module: used for sequentially allocating multiple RC three-dimensional resource blocks in the system to multiple user equipments according to the sequence of the user sequence; Power domain adjustment module: used to adjust the power domain of the corresponding RC three-dimensional resource block in turn according to the specific requirements of different user equipment QOS. 6. The wireless resource management device in a cellular network according to claim 5, wherein the parameter initialization module, the channel gain sorting module, the resource block allocation module, and the power domain adjustment module can be distributed in one device, or can be distributed across multiple devices.