CN113411901A - Intelligent medical information real-time transmission method and system based on big data - Google Patents

Intelligent medical information real-time transmission method and system based on big data Download PDF

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Publication number
CN113411901A
CN113411901A CN202110671802.5A CN202110671802A CN113411901A CN 113411901 A CN113411901 A CN 113411901A CN 202110671802 A CN202110671802 A CN 202110671802A CN 113411901 A CN113411901 A CN 113411901A
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mobile terminal
subcarriers
scheduling assignment
transmission period
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CN113411901B (en
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郭朵朵
郭娟娟
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Henan Provincial Peoples Hospital
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Henan Provincial Peoples Hospital
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/04Wireless resource allocation
    • H04W72/044Wireless resource allocation based on the type of the allocated resource
    • H04W72/0453Resources in frequency domain, e.g. a carrier in FDMA
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/20Control channels or signalling for resource management

Abstract

The invention discloses an intelligent medical information real-time transmission method based on big data, which comprises the following steps: the first mobile terminal collects intelligent medical information, the second mobile terminal collects intelligent medical information and the third mobile terminal collects intelligent medical information; in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period; in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; the method further includes attempting, by the first mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period.

Description

Intelligent medical information real-time transmission method and system based on big data
Technical Field
The invention relates to the technical field of big data medical treatment, in particular to an intelligent medical information real-time transmission method and system based on big data.
Background
With the continuous development of big data, the health and medical big data is promoted to the national strategic height. In the process of digital intelligent medical construction, hospitals are applied to the fields of clinical scientific research, health management, hospital management and the like without leaving large data, intelligent medical treatment is a novel modern medical treatment mode for applying modern computer technology and information technology to the whole medical treatment process, and is the development direction and management target of public medical treatment. However, a large amount of data accumulated in the information process of the current hospital is shelved due to lack of big data technology and means, and tens of thousands of pieces of electronic medical record data cannot exert due value.
Wisdom medical treatment english is called WITMED for short, is the special medical noun that has emerged recently, through making the regional medical information platform of healthy archives, utilizes the most advanced internet of things technique, realizes the interdynamic between patient and medical staff, medical institution, medical equipment, reaches the informationization gradually.
The prior art CN104915573A discloses a disease treatment platform based on intelligent medicine, which comprises a single disease type lecture data unit, a single disease type lecture application unit, a single disease type lecture storage management unit and a single disease type lecture interface management unit; the single disease category lecture data unit comprises an inpatient medical record lecture module, a disease category lecture module, an offline template editing module, a version management module and a rating module of a disease category template; the single disease type lecture manuscript application unit comprises a lecture manuscript editing module and a lecture manuscript browsing module; the single disease category lecture note storage and management unit provides a platform for generating single disease category lecture notes for doctors through a disease category lecture note editor; the single disease type lecture manuscript interface management unit is used for carrying out centralized management on the single disease type lecture manuscript data unit of the doctor.
The information disclosed in this background section is only for enhancement of understanding of the general background of the invention and should not be taken as an acknowledgement or any form of suggestion that this information forms the prior art already known to a person skilled in the art.
Disclosure of Invention
The invention aims to provide an intelligent medical information real-time transmission method and system based on big data, which can overcome the defects of the prior art.
In order to achieve the purpose, the invention provides an intelligent medical information real-time transmission method based on big data, which comprises the following steps: the first mobile terminal collects intelligent medical information, the second mobile terminal collects intelligent medical information and the third mobile terminal collects intelligent medical information; in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period; in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; attempting, by the first mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period; randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; if the second set of subcarriers is randomly selected, transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by the base station; if the first set of subcarriers is randomly selected, sending, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of symbols of the scheduling assignment transmission period and the first set of subcarriers, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied; in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting, by a second mobile terminal, to listen to a first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to the first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a first set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal listening to the first frequency occupancy indicator sent by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period.
In a preferred embodiment, the intelligent medical information real-time transmission method based on big data comprises the following steps:
transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and no frequency occupancy indicators transmitted by other mobile terminals are monitored on the listening period and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on a listening period and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the first set of subcarriers;
transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the second set of subcarriers;
transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the first set of subcarriers;
in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers, transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers.
In a preferred embodiment, the intelligent medical information real-time transmission method based on big data comprises the following steps:
in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period;
in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
attempting, by the first mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period;
randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by the third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
if the second set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the sending, by the first mobile terminal, of the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by the base station;
if the first set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and the first set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied;
if the third set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and the third set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied;
in response to listening to a first scheduling assignment transmitted by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting by a second mobile terminal to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second set of symbols and a first set of subcarriers, a second set of subcarriers, and a third set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not transmit a message in the second set of symbols of the scheduling assignment transmission period;
in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting by a third mobile terminal to listen for a second frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and the first, second, and third sets of subcarriers of the scheduling assignment transmission period, wherein the third mobile terminal listening for the second frequency occupancy indicator sent by the first mobile terminal is indicated by the base station, wherein the third mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period.
In a preferred embodiment, the intelligent medical information real-time transmission method based on big data comprises the following steps:
randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
if the first subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first subcarrier set is occupied, wherein the sending, by the second mobile terminal to the third mobile terminal, of the third frequency occupancy indicator is indicated by the base station;
if the second subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the second subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second subcarrier set is occupied;
if the third subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the third subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third subcarrier set is occupied;
in response to monitoring a first scheduling assignment sent by a first mobile terminal on a first symbol set and a first subcarrier set of a scheduling assignment transmission period, a second scheduling assignment sent by a second mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, and a second frequency occupancy indicator, the third mobile terminal attempts to monitor a third frequency occupancy indicator sent by the second mobile terminal on a third symbol set and the first subcarrier set, the second subcarrier set, and the third subcarrier set of the scheduling assignment transmission period, wherein the third mobile terminal monitoring the third frequency occupancy indicator sent by the second mobile terminal is indicated by the base station.
In a preferred embodiment, the intelligent medical information real-time transmission method based on big data comprises the following steps:
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a first set of subcarriers of a scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is listened to on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is listened to on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
The invention also provides an intelligent medical information real-time transmission system based on big data, which comprises: a unit for collecting the smart medical information by the first mobile terminal, the smart medical information by the second mobile terminal, and the smart medical information by the third mobile terminal; means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information; means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information; means for attempting, by a first mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by a second mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period; means for randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by the base station; means for transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied; means for attempting, by a second mobile terminal, to listen for a first frequency occupancy indicator transmitted by a first mobile terminal on a second symbol set and a second subcarrier set of a scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the second mobile terminal listening for the first frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, and wherein the second mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period.
In a preferred embodiment, the smart medical information real-time transmission system based on big data comprises:
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on the listening period and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on the listening period and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the first set of subcarriers;
means for transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the second set of subcarriers;
means for transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the first set of subcarriers;
means for transmitting, by the first mobile terminal, the smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers.
In a preferred embodiment, the smart medical information real-time transmission system based on big data comprises:
means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information;
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
means for attempting, by the first mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period;
means for randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by a third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a second set of subcarriers of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by the base station;
means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied;
means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a third set of subcarriers of a scheduling assignment transmission period if the third set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied;
means for attempting, by a second mobile terminal, to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the second mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by the base station, wherein the second mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period;
means for attempting, by a third mobile terminal, to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and first subcarrier set of the scheduling assignment transmission period, wherein the third mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by the base station, wherein the third mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period.
In a preferred embodiment, the smart medical information real-time transmission system based on big data comprises:
means for randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first set of subcarriers is occupied, wherein the second mobile terminal transmitting the third frequency occupancy indicator to the third mobile terminal is indicated by the base station;
means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the second set of subcarriers if the second set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second set of subcarriers is occupied;
means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the third set of subcarriers if the third set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third set of subcarriers is occupied;
means for attempting, by a third mobile terminal, to listen for a third frequency occupancy indicator transmitted by the second mobile terminal over a third set of symbols and first set of subcarriers, the second set of subcarriers, and the third set of subcarriers of the scheduling assignment transmission period, in response to listening for the first scheduling assignment transmitted by the first mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, the second scheduling assignment transmitted by the second mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, and the second frequency occupancy indicator, wherein the third mobile terminal listening for the third frequency occupancy indicator transmitted by the second mobile terminal is indicated by the base station.
In a preferred embodiment, the smart medical information real-time transmission system based on big data comprises:
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal over a fourth set of symbols and a first set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard over a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard over a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
Compared with the prior art, the invention has the following advantages: the intelligent medical technology cannot be supported by the Internet of things technology, the Internet of things technology is based on communication among equipment, and aiming at the requirements of the prior art, the application provides a big data-based intelligent medical information real-time transmission method and system related to communication among equipment.
Drawings
Fig. 1 is a schematic diagram of a system architecture according to an embodiment of the present invention.
FIG. 2 is a flow diagram of a method according to an embodiment of the invention.
FIG. 3 is a timing diagram according to an embodiment of the invention.
Detailed Description
The following detailed description of the present invention is provided in conjunction with the accompanying drawings, but it should be understood that the scope of the present invention is not limited to the specific embodiments.
Throughout the specification and claims, unless explicitly stated otherwise, the word "comprise", or variations such as "comprises" or "comprising", will be understood to imply the inclusion of a stated element or component but not the exclusion of any other element or component. It will be understood by those skilled in the art that fig. 3 is introduced for the purpose of illustrating the basic definition of each time segment, and the length relationship, the proportional relationship, the position relationship and the proportional relationship between the frequency bands between the time segments shown in the figure can be adjusted freely. In summary, the timing structure described in fig. 3 is merely exemplary, and the inventive concepts of the present application are embodied in the claims of the present application.
Fig. 1 is a schematic diagram of a system architecture according to an embodiment of the present invention. The medical service center server can receive relevant medical data, then perform big data analysis, and then obtain a result or judgment. The specific big data judgment method and algorithm are the prior art, and at present, all large Internet intelligent medical companies have a large number of public big data algorithms or provide corresponding big data calculation services.
FIG. 2 is a flow diagram of a method according to an embodiment of the invention. As shown in the figure, the intelligent medical information real-time transmission method based on big data comprises the following steps:
step 101: the first mobile terminal collects the intelligent medical information, the second mobile terminal collects the intelligent medical information, and the third mobile terminal collects the intelligent medical information. Those skilled in the art will appreciate that intelligent medical information is to be understood as information related to intelligent medical treatment.
Step 102: in response to collecting the smart medical information, a first scheduling assignment is sent by the first mobile terminal to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period.
Step 103: in response to collecting the smart medical information, a second scheduling assignment is sent by the second mobile terminal to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
Step 104: the method further includes attempting, by the first mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period.
Step 105: in response to listening to a second scheduling assignment sent by a second mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers.
Step 106: if the second set of subcarriers is randomly selected, transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of subcarriers and a second set of symbols of the scheduling assignment transmission period, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by the base station. Those skilled in the art should understand that the inter-device communication related to the present application does not require base station coordination, i.e. the base station only allocates D2D communication resource pool to the mobile terminal, and does not control which D2D resources the mobile terminal selects, nor controls the process of avoiding collision of the mobile terminal. In one embodiment, when a mobile terminal requests a D2D pool of communication resources (some documents referred to as a sidelink resource set), the base station may randomly select multiple mobile terminals while indicating to those terminals that, when a collision is detected, the mobile terminals may begin transmitting the frequency occupancy indicator for the first transmission period after the period in which the collision is detected.
Step 107: if the first set of subcarriers is randomly selected, a first frequency occupancy indicator is sent by the first mobile terminal to the second mobile terminal on the first set of subcarriers and a second set of symbols of the scheduling assignment transmission period, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied.
Step 108: in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting, by a second mobile terminal, to listen to a first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to the first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a first set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal listening to the first frequency occupancy indicator sent by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period. In one embodiment, when a mobile terminal requests a D2D pool of communication resources (some documents referred to as a sidelink resource set), the base station may randomly select multiple mobile terminals and indicate to those terminals that, when a collision is detected, the mobile terminals cannot transmit the frequency occupancy indicator for the first transmission period after the period when the collision is detected, and can only detect the frequency occupancy indicator.
In a preferred embodiment, the intelligent medical information real-time transmission method based on big data comprises the following steps: transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period; transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period; transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and no frequency occupancy indicators transmitted by other mobile terminals are monitored on the listening period and the second set of subcarriers of the scheduling assignment transmission period; transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on a listening period and the first set of subcarriers of the scheduling assignment transmission period; transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the first set of subcarriers; transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the second set of subcarriers; transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the first set of subcarriers; in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers, transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers.
Further, the intelligent medical information real-time transmission method based on big data comprises the following steps: in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period; in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information; attempting, by the first mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period; randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by the third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; if the second set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the sending, by the first mobile terminal, of the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by the base station; if the first set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and the first set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied; if the third set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and the third mobile terminal on a second set of symbols and the third set of subcarriers of the scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied; in response to listening to a first scheduling assignment transmitted by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting by a second mobile terminal to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second set of symbols and a first set of subcarriers, a second set of subcarriers, and a third set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not transmit a message in the second set of symbols of the scheduling assignment transmission period; in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting by a third mobile terminal to listen for a second frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and the first, second, and third sets of subcarriers of the scheduling assignment transmission period, wherein the third mobile terminal listening for the second frequency occupancy indicator sent by the first mobile terminal is indicated by the base station, wherein the third mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period.
Further, the intelligent medical information real-time transmission method based on big data comprises the following steps: randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period; in one embodiment, when a mobile terminal requests a D2D pool of communication resources (referred to as a sidelink resource set in some documents), the base station may randomly select multiple mobile terminals and indicate to those terminals that, when a collision is detected (i.e., when a scheduling assignment transmitted by a first mobile terminal is detected), the mobile terminals cannot transmit a frequency occupancy indicator or control information during a first transmission period after the period when the collision is detected, can only monitor the frequency occupancy indicator, and can start transmitting control information after the first transmission period after the period when the collision is detected; randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period; randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period; if the first subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first subcarrier set is occupied, wherein the sending, by the second mobile terminal to the third mobile terminal, of the third frequency occupancy indicator is indicated by the base station; if the second subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the second subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second subcarrier set is occupied; if the third subcarrier set is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third symbol set and the third subcarrier set of the scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third subcarrier set is occupied; in response to monitoring a first scheduling assignment sent by a first mobile terminal on a first symbol set and a first subcarrier set of a scheduling assignment transmission period, a second scheduling assignment sent by a second mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, and a second frequency occupancy indicator, the third mobile terminal attempts to monitor a third frequency occupancy indicator sent by the second mobile terminal on a third symbol set and the first subcarrier set, the second subcarrier set, and the third subcarrier set of the scheduling assignment transmission period, wherein the third mobile terminal monitoring the third frequency occupancy indicator sent by the second mobile terminal is indicated by the base station. In one embodiment, when a mobile terminal requests a D2D pool of communication resources (referred to in some documents as a sidelink resource set), the base station may randomly select a plurality of mobile terminals (including a third mobile terminal) and indicate to the terminals that, when a collision is detected (i.e., when a scheduling assignment transmitted by a first mobile terminal is detected), the mobile terminals cannot transmit a frequency occupancy indicator or control information during the first transmission period and the second transmission period after the period when the collision is detected, and can only monitor the frequency occupancy indicator, and simultaneously may start transmitting control information during the third transmission period after the period when the collision is detected. If the D2D resource pool is reasonably designed, the spectrum resource is rich enough, and the number of the mobile terminals is not too large, the situation that the three mobile terminals select the same subcarrier set at the same time is less, and if the situation that the system load is increased occurs, the situation that the three mobile terminals select the same subcarrier set at the same time occurs, the method ensures that the mobile terminals do not need to receive the control signaling of the base station when the D2D communication is carried out, but because the base station arranges the sending and stopping time of various mobile terminals in advance, the base station in the probability sense is intervened and coordinated in advance, so the method can rapidly reduce the collision probability after few circulating sending-monitoring cycles.
Further, the intelligent medical information real-time transmission method based on big data comprises the following steps: transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period; transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a first set of subcarriers of a scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period; transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period; transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is listened to on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is listened to on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
The invention also provides an intelligent medical information real-time transmission system based on big data, which comprises: a unit for collecting the smart medical information by the first mobile terminal, the smart medical information by the second mobile terminal, and the smart medical information by the third mobile terminal; means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information; means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information; means for attempting, by a first mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by a second mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period; means for randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by the base station; means for transmitting, by the first mobile terminal, a first frequency occupancy indicator to the second mobile terminal on a second set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied; means for attempting, by a second mobile terminal, to listen for a first frequency occupancy indicator transmitted by a first mobile terminal on a second symbol set and a second subcarrier set of a scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the second mobile terminal listening for the first frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, and wherein the second mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period.
In a preferred embodiment, the smart medical information real-time transmission system based on big data comprises: means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on the listening period and the second set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard on the listening period and the first set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the first set of subcarriers; means for transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the second set of subcarriers; means for transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the first set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the first set of subcarriers; means for transmitting, by the first mobile terminal, the smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers.
Further, the real-time transmission system of wisdom medical information based on big data includes: means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information; means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information; means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information; means for attempting, by the first mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period; means for randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by a third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a second set of subcarriers of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by the base station; means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied; means for transmitting, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a third set of subcarriers of a scheduling assignment transmission period if the third set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied; means for attempting, by a second mobile terminal, to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, wherein the second mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by the base station, wherein the second mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period; means for attempting, by a third mobile terminal, to listen for a second frequency occupancy indicator transmitted by the first mobile terminal on a second symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and first subcarrier set of the scheduling assignment transmission period, wherein the third mobile terminal listening for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by the base station, wherein the third mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period. Those skilled in the art should understand that the scheduling assignment is not a frequency occupancy indicator, and the frequency occupancy indicator carries fewer messages, so that the encoding difficulty of the mobile terminal and the decoding difficulty of the receiving party are reduced, and the system power consumption is saved.
Further, the real-time transmission system of wisdom medical information based on big data includes: means for randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period; means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period; means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first set of subcarriers is occupied, wherein the second mobile terminal transmitting the third frequency occupancy indicator to the third mobile terminal is indicated by the base station; means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the second set of subcarriers if the second set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second set of subcarriers is occupied; means for transmitting, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of the scheduling assignment transmission period and the third set of subcarriers if the third set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third set of subcarriers is occupied; means for attempting, by a third mobile terminal, to listen for a third frequency occupancy indicator transmitted by the second mobile terminal over a third set of symbols and first set of subcarriers, the second set of subcarriers, and the third set of subcarriers of the scheduling assignment transmission period, in response to listening for the first scheduling assignment transmitted by the first mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, the second scheduling assignment transmitted by the second mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, and the second frequency occupancy indicator, wherein the third mobile terminal listening for the third frequency occupancy indicator transmitted by the second mobile terminal is indicated by the base station.
Further, the real-time transmission system of wisdom medical information based on big data includes: means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal over a fourth set of symbols and a first set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard over a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard over a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period; means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
The prior art proposal (3GPP TSG RAN WG1 Meeting #86, R1-167409) of the ITRI organization introduces a D2D communication method, which aims to solve the problem of high probability of UE collision in case of large number of UEs or large number (up to two hundred share one segment of D2D resource pool). It should be understood by those skilled in the art that the proposed solution is directed to a scenario in which the base station does not coordinate the transmission of the mobile terminal D2D, that is, the proposed solution and the present application are directed to a scenario in which the base station allocates the resource pool and various configurations to the mobile terminal in advance through signaling, and then the mobile terminal performs D2D communication with other mobile terminals autonomously without control of the base station. The aforementioned prior art solution (see fig. 5 thereof) proposes that UE 1 and UE2 select frequencies randomly first, then try to send SA, then listen for whether there is SA collision during the listening period, if collision occurs, then UE2 selects other frequency band actively, and UE 1 does not select other frequency band. The problem with this solution is that it does not make clear what the mechanism is that UE2 actively selects other frequency bands, but UE 1 does not, in other words, the technique does not disclose why UE2 actively selects other frequency bands, but not UE 1 actively selects other frequency bands. If the UE randomly selects whether to switch to the other frequency band, the UE 1 and the UE2 probably simultaneously select to switch to the other frequency band, which first causes a waste of frequency resources if both simultaneously switch frequency bands, and at the same time, causes a conflict between both to be not resolved if both switch to the same frequency band. This design loses the basic flexibility if the base station pre-configures UE 1 not to be able to switch frequency bands, and only UE2 is able to switch frequency bands, and in this configuration, UE 1 cannot achieve the most basic frequency diversity gain. In addition, the technology does not relate to how to solve the related technical problem in the situation that if a plurality of UEs exist, and if three UEs simultaneously select the same frequency band, simply applying the technology of fig. 5 in the document will lead to the problem that the conflict resolution time is continuously prolonged. Referring to fig. 6 of the document, it can be found that, when the number of UEs reaches 200, the collision probability remains above 0.3 after 6 rounds of cycles. After using the method of the present application, after simulation, the collision probability of the present application can be optimized by about 20% compared to the prior art after the same time (equivalent time of 6 cycles) as the prior art (the simulation value is slightly affected by specific parameters, such as the transmitting power of the mobile phone, etc., so the value is substantially maintained at about 20%).
The foregoing descriptions of specific exemplary embodiments of the present invention have been presented for purposes of illustration and description. It is not intended to limit the invention to the precise form disclosed, and obviously many modifications and variations are possible in light of the above teaching. The exemplary embodiments were chosen and described in order to explain certain principles of the invention and its practical application to enable one skilled in the art to make and use various exemplary embodiments of the invention and various alternatives and modifications as are suited to the particular use contemplated. It is intended that the scope of the invention be defined by the claims and their equivalents.

Claims (10)

1. A smart medical information real-time transmission method based on big data is characterized by comprising the following steps:
the first mobile terminal collects intelligent medical information, the second mobile terminal collects intelligent medical information and the third mobile terminal collects intelligent medical information;
in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period;
in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
attempting, by the first mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period;
randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by a first mobile terminal, a first frequency occupancy indicator to a second mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by a base station;
sending, by a first mobile terminal, a first frequency occupancy indicator to a second mobile terminal on a second set of symbols of a scheduling assignment transmission period and a first set of subcarriers if a first set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied;
in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting, by a second mobile terminal, to listen to a first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to the first frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a first set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal is instructed by a base station to listen to the first frequency occupancy indicator sent by the first mobile terminal, wherein the second mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period.
2. The big-data-based intelligent medical information real-time transmission method according to claim 1, wherein the big-data-based intelligent medical information real-time transmission method comprises the following steps:
transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and no frequency occupancy indicators transmitted by other mobile terminals are monitored on the listening period and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and no frequency occupancy indicators transmitted by other mobile terminals are monitored on the listening period and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by a second mobile terminal, smart medical information to a relay mobile terminal on a first set of subcarriers in response to transmitting a second scheduling assignment to the relay mobile terminal on the first set of subcarriers;
transmitting, by the second mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the second scheduling assignment to the relay mobile terminal on the second set of subcarriers;
transmitting, by a first mobile terminal, smart medical information to a relay mobile terminal on a first set of subcarriers in response to transmitting a first scheduling assignment to the relay mobile terminal on the first set of subcarriers;
in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers, transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers.
3. The big-data-based intelligent medical information real-time transmission method according to claim 2, wherein the big-data-based intelligent medical information real-time transmission method comprises the following steps:
in response to collecting the smart medical information, sending, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period;
in response to collecting the smart medical information, sending, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
attempting, by the first mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments sent by other mobile terminals during a listening period of a scheduling assignment transmission period;
randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by the third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
if a second set of subcarriers is randomly selected, sending, by a first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a second set of subcarriers of a scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the sending, by the first mobile terminal, of the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by a base station;
if the first set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and the first set of subcarriers of a scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied;
if a third set of subcarriers is randomly selected, sending, by the first mobile terminal, a second frequency occupancy indicator to the second mobile terminal and a third mobile terminal on a second set of symbols and a third set of subcarriers of a scheduling assignment transmission period, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied;
in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting by a second mobile terminal to listen to a second frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a first set of subcarriers, a second set of subcarriers, and a third set of subcarriers of the scheduling assignment transmission period, wherein the second mobile terminal listening to the second frequency occupancy indicator sent by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not send messages in the second set of symbols of the scheduling assignment transmission period;
in response to listening to a first scheduling assignment sent by a first mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period, attempting, by a third mobile terminal, to listen to a second frequency occupancy indicator sent by the first mobile terminal on a second set of symbols and a first set of subcarriers, a second set of subcarriers, and a third set of subcarriers of the scheduling assignment transmission period, wherein the third mobile terminal is listening to the second frequency occupancy indicator sent by the first mobile terminal as indicated by a base station, wherein the third mobile terminal is not sending messages in the second set of symbols of the scheduling assignment transmission period.
4. The big-data-based intelligent medical information real-time transmission method according to claim 3, wherein the big-data-based intelligent medical information real-time transmission method comprises the following steps:
randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
if the first set of subcarriers is randomly selected, sending, by the second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of a scheduling assignment transmission period and the first set of subcarriers, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first set of subcarriers is occupied, wherein the sending, by the second mobile terminal, of the third frequency occupancy indicator to the third mobile terminal is indicated by the base station;
if a second set of subcarriers is randomly selected, sending, by a second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols and a second set of subcarriers of a scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second set of subcarriers is occupied;
if a third set of subcarriers is randomly selected, sending, by a second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols and a third set of subcarriers of a scheduling assignment transmission period, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third set of subcarriers is occupied;
in response to monitoring a first scheduling assignment sent by a first mobile terminal on a first symbol set and a first subcarrier set of a scheduling assignment transmission period, a second scheduling assignment sent by a second mobile terminal on the first symbol set and the first subcarrier set of the scheduling assignment transmission period, and a second frequency occupancy indicator, a third symbol set and the first subcarrier set, the second subcarrier set, and the third subcarrier set of the scheduling assignment transmission period, the third mobile terminal attempting to monitor a third frequency occupancy indicator sent by the second mobile terminal, wherein the third mobile terminal monitoring the third frequency occupancy indicator sent by the second mobile terminal is indicated by a base station.
5. The big-data-based intelligent medical information real-time transmission method according to claim 4, wherein the big-data-based intelligent medical information real-time transmission method comprises the following steps:
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a first set of subcarriers of a scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is listened to on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is listened to on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
6. The utility model provides a real-time transmission system of wisdom medical information based on big data which characterized in that, real-time transmission system of wisdom medical information based on big data includes:
a unit for collecting the smart medical information by the first mobile terminal, the smart medical information by the second mobile terminal, and the smart medical information by the third mobile terminal;
means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information;
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
means for attempting, by a first mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by a second mobile terminal, to listen for scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period;
means for randomly selecting, by the first mobile terminal, the first set of subcarriers or the second set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by a first mobile terminal, a first frequency occupancy indicator to a second mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the first frequency occupancy indicator to the second mobile terminal is indicated by a base station;
means for transmitting, by a first mobile terminal, a first frequency occupancy indicator to a second mobile terminal on a second set of symbols of a scheduling assignment transmission period and a first set of subcarriers if the first set of subcarriers is randomly selected, wherein the first frequency occupancy indicator indicates to the second mobile terminal that the first set of subcarriers is occupied;
means for attempting, by a second mobile terminal, to listen for a first frequency occupancy indicator transmitted by a first mobile terminal over a second set of symbols and a first set of subcarriers of a scheduling assignment transmission period, wherein the second mobile terminal listens for the first frequency occupancy indicator transmitted by the first mobile terminal as indicated by a base station, and wherein the second mobile terminal does not transmit a message in the second set of symbols of the scheduling assignment transmission period, in response to listening for the first scheduling assignment transmitted by the first mobile terminal over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period, attempting, by the second mobile terminal, to listen for the first frequency occupancy indicator transmitted by the first mobile terminal over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
7. The big-data based intelligent real-time medical information transmission system as claimed in claim 6, wherein the big-data based intelligent real-time medical information transmission system comprises:
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal on a third set of symbols and a second set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and no frequency occupancy indicators transmitted by other mobile terminals are heard on the listening period and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the first mobile terminal, the first scheduling assignment to the relay mobile terminal over the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period if the first frequency occupancy indicator is transmitted to the second mobile terminal over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and the frequency occupancy indicators transmitted by other mobile terminals are not heard over the listening period and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by a second mobile terminal, smart medical information to a relay mobile terminal on a first set of subcarriers in response to transmitting a second scheduling assignment to the relay mobile terminal on the first set of subcarriers;
means for transmitting, by a second mobile terminal, smart medical information to a relay mobile terminal on a second set of subcarriers in response to transmitting a second scheduling assignment to the relay mobile terminal on the second set of subcarriers;
means for transmitting, by a first mobile terminal, smart medical information to a relay mobile terminal on a first set of subcarriers in response to transmitting a first scheduling assignment to the relay mobile terminal on the first set of subcarriers;
means for transmitting, by the first mobile terminal, smart medical information to the relay mobile terminal on the second set of subcarriers in response to transmitting the first scheduling assignment to the relay mobile terminal on the second set of subcarriers.
8. The big-data based intelligent real-time medical information transmission system as claimed in claim 7, wherein the big-data based intelligent real-time medical information transmission system comprises:
means for transmitting, by the first mobile terminal, a first scheduling assignment to the relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information;
means for transmitting, by the second mobile terminal, a second scheduling assignment to the relay mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period in response to collecting the smart medical information;
means for transmitting, by a third mobile terminal, a third scheduling assignment to a relay mobile terminal on a first set of symbols and a first set of subcarriers of a scheduling assignment transmission period in response to collecting the smart medical information;
means for attempting, by the first mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the second mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period, and attempting, by the third mobile terminal, to listen to scheduling assignments transmitted by other mobile terminals during a listening period of a scheduling assignment transmission period;
means for randomly selecting, by the first mobile terminal, the first set of subcarriers, the second set of subcarriers, or the third set of subcarriers in response to listening for a second scheduling assignment sent by the second mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third scheduling assignment sent by a third mobile terminal on the first set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by a first mobile terminal, a second frequency occupancy indicator to a second mobile terminal and a third mobile terminal on a second set of subcarriers and a second set of symbols of a scheduling assignment transmission period if the second set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the second set of subcarriers is occupied, wherein the first mobile terminal transmitting the second frequency occupancy indicator to the second mobile terminal and the third mobile terminal is indicated by a base station;
means for transmitting, by a first mobile terminal, a second frequency occupancy indicator to a second mobile terminal and a third mobile terminal on a second set of symbols and a first set of subcarriers of a scheduling assignment transmission period if the first set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the first set of subcarriers is occupied;
means for transmitting, by a first mobile terminal, a second frequency occupancy indicator to a second mobile terminal and a third mobile terminal on a second set of symbols and a third set of subcarriers of a scheduling assignment transmission period if the third set of subcarriers is randomly selected, wherein the second frequency occupancy indicator indicates to the second mobile terminal and the third mobile terminal that the third set of subcarriers is occupied;
means for attempting, by a second mobile terminal, to listen for a second frequency occupancy indicator transmitted by a first mobile terminal over a second symbol set and first, second, and third subcarrier sets of a scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal over the first symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period, wherein the second mobile terminal listens for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, wherein the second mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period;
means for attempting, by a third mobile terminal, to listen for a second frequency occupancy indicator transmitted by a first mobile terminal on a second symbol set and first, second, and third subcarrier sets of a scheduling assignment transmission period in response to listening for a first scheduling assignment transmitted by the first mobile terminal on the first symbol set and first, second, and third subcarrier sets of the scheduling assignment transmission period, wherein the third mobile terminal listens for the second frequency occupancy indicator transmitted by the first mobile terminal is indicated by a base station, wherein the third mobile terminal does not transmit a message in the second symbol set of the scheduling assignment transmission period.
9. The big-data based intelligent real-time medical information transmission system as claimed in claim 8, wherein the big-data based intelligent real-time medical information transmission system comprises:
means for randomly selecting, by the second mobile terminal, the second set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period;
means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the third set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard over the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for randomly selecting, by the second mobile terminal, the first set of subcarriers or the second set of subcarriers if the second frequency occupancy indicator sent by the first mobile terminal is heard on the second set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by a second mobile terminal, a third frequency occupancy indicator to the third mobile terminal on a third set of symbols of a scheduling assignment transmission period and the first set of subcarriers if the first set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the first set of subcarriers is occupied, wherein the second mobile terminal transmitting the third frequency occupancy indicator to the third mobile terminal is indicated by a base station;
means for transmitting, by a second mobile terminal, a third frequency occupancy indicator to a third mobile terminal over a third set of symbols of a scheduling assignment transmission period and a second set of subcarriers if a second set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the second set of subcarriers is occupied;
means for transmitting, by a second mobile terminal, a third frequency occupancy indicator to a third mobile terminal over a third set of subcarriers and a third set of symbols of a scheduling assignment transmission period if the third set of subcarriers is randomly selected, wherein the third frequency occupancy indicator indicates to the third mobile terminal that the third set of subcarriers is occupied;
means for attempting, by a third mobile terminal, to listen for a third frequency occupancy indicator transmitted by a second mobile terminal over a third set of symbols and first set of subcarriers of a scheduling assignment transmission period, wherein the third mobile terminal listens for the third frequency occupancy indicator transmitted by the second mobile terminal is indicated by a base station, in response to listening for a first scheduling assignment transmitted by the first mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, a second scheduling assignment and a second frequency occupancy indicator transmitted by the second mobile terminal over the first set of symbols and first set of subcarriers of the scheduling assignment transmission period, and the third set of subcarriers.
10. The big-data based intelligent real-time medical information transmission system as claimed in claim 9, wherein the big-data based intelligent real-time medical information transmission system comprises:
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the second set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal over a fourth set of symbols and a first set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard over a second set of symbols and a second set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard over a third set of symbols and a third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a second set of subcarriers of the scheduling assignment transmission period if a second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the first set of subcarriers of the scheduling assignment transmission period and a third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the third set of subcarriers of the scheduling assignment transmission period;
means for transmitting, by the third mobile terminal, a third scheduling assignment to the relay mobile terminal on a fourth set of symbols and a third set of subcarriers of the scheduling assignment transmission period if the second frequency occupancy indicator transmitted by the first mobile terminal is heard on the second set of symbols and the second set of subcarriers of the scheduling assignment transmission period and the third frequency occupancy indicator transmitted by the second mobile terminal is heard on the third set of symbols and the first set of subcarriers of the scheduling assignment transmission period.
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