CN111412490A

CN111412490A - Method for controlling ignition gun based on wireless terminal and intelligent ignition gun

Info

Publication number: CN111412490A
Application number: CN202010259093.5A
Authority: CN
Inventors: 陈金武
Original assignee: Guizhou Hongbang Electronic Technology Co ltd
Current assignee: Guizhou Hongbang Electronic Technology Co ltd
Priority date: 2020-04-03
Filing date: 2020-04-03
Publication date: 2020-07-14
Anticipated expiration: 2040-04-03
Also published as: CN111412490B

Abstract

The invention discloses a method for controlling an ignition gun based on a wireless terminal, which comprises the following steps: receiving an ignition instruction input by a user; monitoring a synchronization signal and system information broadcast by a base station; reading information for the wireless terminal to perform random access; judging an access mode and a waiting time window of the wireless terminal based on the information of random access of the wireless terminal; if the access mode of the wireless terminal is judged to be the first access mode, determining a first waiting time window and a second waiting time window aiming at the first access mode, and sending a random access lead code to the base station on a first antenna beam; attempting to receive a random access response transmitted by a base station within a first waiting time window; if the random access response sent by the base station is received in the first waiting time window, establishing RRC connection with the base station through a first antenna beam; the random access preamble is retransmitted to the base station with increased transmit power on the first antenna beam if the random access response sent by the base station is not received within the first waiting time window.

Description

Method for controlling ignition gun based on wireless terminal and intelligent ignition gun

Technical Field

The invention relates to the technical field of ignition guns, in particular to a method for controlling an ignition gun based on a wireless terminal and an intelligent ignition gun.

Background

The prior art domestic igniters are mostly push-switch igniters based on piezoelectric ceramics.

The prior art CN2697484Y discloses a high-efficiency long-life heat accumulating type burner electronic ignition gun, which comprises an electronic ignition gun body, a main gas pipe, an ignition gun nozzle, an electronic igniter and an end seat, wherein the main gas pipe and the electronic ignition gun are arranged in parallel, the end seat is arranged at the rear part of the electronic ignition gun body, a gas inlet, an air inlet and an electronic igniter are arranged on the end seat, one end of the electronic igniter is connected with an electronic ignition generator through an electronic igniter electrode connecting wire, and the other end of the electronic igniter is connected with an ignition electrode. The electrode of the electronic igniter of the heat accumulating type burner electronic ignition gun is positioned behind the nozzle of the electronic igniter and is positioned in the range of the low-temperature area of the whole burner device, after the electrode is ignited, premixed gas is combusted, and the gas is mixed and combusted with main gas from a main gas pipe through the nozzle of the ignition gun.

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 a method for controlling an ignition gun based on a wireless terminal, which can overcome the defects of the prior art.

In order to achieve the above object, the present invention provides a method for controlling an ignition gun based on a wireless terminal, which is characterized in that the method for controlling the ignition gun based on the wireless terminal comprises the following steps:

receiving an ignition instruction input by a user by the wireless terminal;

monitoring a synchronous signal broadcasted by a base station and system information by a wireless terminal, wherein the system information comprises information used for the wireless terminal to carry out random access;

reading, by the wireless terminal, information for random access by the wireless terminal in response to monitoring the synchronization signal broadcast by the base station and the system information;

judging an access mode and a waiting time window of the wireless terminal by the wireless terminal based on the information of random access of the wireless terminal;

if the access mode of the wireless terminal is judged to be the first access mode, the wireless terminal determines a first waiting time window and a second waiting time window aiming at the first access mode, and the wireless terminal sends a random access lead code to the base station on the first antenna wave beam;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first latency window in response to transmitting a random access preamble to the base station on a first antenna beam;

if the random access response sent by the base station is received in the first waiting time window, the wireless terminal establishes RRC connection with the base station through a first antenna wave beam;

retransmitting, by the wireless terminal, the random access preamble to the base station at an increased transmit power on the first antenna beam if the random access response sent by the base station is not received within the first waiting time window;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first waiting time window in response to re-transmitting the random access preamble to the base station on the first antenna beam;

retransmitting, by the wireless terminal, the random access preamble to the base station on the second antenna beam if the random access response sent by the base station is not received within the first waiting time window;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the first latency window in response to re-transmitting the random access preamble to the base station on the second antenna beam;

if the random access response sent by the base station is received in the first waiting time window, the wireless terminal establishes RRC connection with the base station through a second antenna wave beam;

an ignition instruction is sent by the wireless terminal to the base station in response to establishing the RRC connection with the base station.

In a preferred embodiment, the method for controlling the ignition gun based on the wireless terminal comprises the following steps:

in response to receiving the ignition instruction, the base station sends the ignition instruction to an ignition gun manufacturer server;

in response to receiving the ignition instruction, generating an ignition control command by the ignition gun manufacturer server and sending the ignition control command to the base station by the ignition gun manufacturer server;

in response to receiving the ignition control command, sending, by the base station, the ignition control command to the intelligent burning torch for ignition by the intelligent burning torch;

in response to sending the ignition instruction to the base station, the wireless terminal judges whether a message needing to be sent to the base station exists;

if the wireless terminal judges that no message needs to be sent to the base station, the wireless terminal disconnects the RRC connection with the base station;

after the wireless terminal disconnects the RRC connection with the base station, the wireless terminal receives an ignition instruction input by a user again;

in response to receiving the ignition instruction input by the user again, judging whether RRC connection is established with the base station by the wireless terminal;

if the RRC connection with the base station is once established, the wireless terminal continues to determine the antenna beam used when the RRC connection with the base station is once established.

if the antenna beam used when the RRC connection with the base station is established is judged to be the first antenna beam, the wireless terminal sends a random access lead code to the base station on the first antenna beam;

attempting, by the wireless terminal, to receive, within the second waiting time window, a random access response transmitted by the base station in response to transmitting the random access preamble to the base station on the first antenna beam;

if the random access response sent by the base station is received in a second waiting time window, the wireless terminal establishes RRC connection with the base station through a first antenna wave beam, wherein the time length of the second waiting time window is longer than that of the first waiting time window;

if the random access response sent by the base station is not received within the second waiting time window, increasing the transmission power by the wireless terminal, and resending the random access preamble to the base station on the first antenna beam;

attempting, by the wireless terminal, to receive, within the second waiting time window, the random access response transmitted by the base station in response to re-transmitting the random access preamble to the base station;

if the random access response sent by the base station is still not received within the second waiting time window, the wireless terminal continues to resend the random access preamble to the base station on the first antenna beam until the maximum number of resends is reached;

if the random access response sent by the base station is received in the second waiting time window, the wireless terminal establishes RRC connection with the base station through the first antenna wave beam;

transmitting, by the wireless terminal, an ignition instruction to the base station in response to establishing the RRC connection with the base station;

in response to receiving the firing control command, sending, by the base station, the firing control command to the intelligent firing gun for firing by the intelligent firing gun.

if the antenna beam used when the RRC connection with the base station is established is judged to be a second antenna beam, the wireless terminal sends a random access lead code to the base station on the second antenna beam;

attempting, by the wireless terminal, to receive, within a second latency window, a random access response transmitted by the base station in response to transmitting the random access preamble to the base station on a second antenna beam;

if the random access response sent by the base station is received in a second waiting time window, the wireless terminal establishes RRC connection with the base station through a second antenna beam, wherein the time length of the second waiting time window is longer than that of the first waiting time window;

if the random access response sent by the base station is not received within the second waiting time window, increasing the transmission power by the wireless terminal, and resending the random access preamble to the base station on the second antenna beam;

if the random access response sent by the base station is still not received within the second waiting time window, the wireless terminal continues to resend the random access preamble to the base station on the second antenna beam until the maximum number of resending times is reached;

if the random access response sent by the base station is received in the second waiting time window, the wireless terminal establishes RRC connection with the base station through a second antenna beam;

if the access mode of the wireless terminal is judged to be the second access mode, the wireless terminal determines a second waiting time window aiming at the second access mode, and the wireless terminal simultaneously sends a random access lead code to the base station on the first antenna wave beam and the second antenna wave beam;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam and the second antenna beam simultaneously;

if a first random access response sent by the base station is received in a second waiting time window, establishing RRC connection with the base station through a first antenna beam by the wireless terminal, wherein the first random access response comprises an indication of the first antenna beam;

if a second random access response sent by the base station is received in a second waiting time window, establishing RRC connection with the base station through a second antenna beam by the wireless terminal, wherein the second random access response comprises an indication of the second antenna beam;

if the first random access response and the second random access response sent by the base station are received in the second waiting time window, the wireless terminal judges the time sequence of receiving the first random access response and the second random access response;

if the first random access response is received first, the wireless terminal establishes RRC connection with the base station through a first antenna wave beam;

The invention provides an intelligent burning torch, which is characterized in that the intelligent burning torch belongs to a system for controlling the burning torch based on a wireless terminal, and the system for controlling the burning torch based on the wireless terminal comprises:

means for receiving, by a wireless terminal, an ignition instruction input by a user;

a unit for monitoring, by a wireless terminal, a synchronization signal broadcasted by a base station and system information, wherein the system information includes information for the wireless terminal to perform random access;

means for reading, by the wireless terminal, information for random access by the wireless terminal in response to monitoring the synchronization signal broadcast by the base station and the system information;

means for determining, by the wireless terminal, an access mode and a waiting time window of the wireless terminal based on information for random access by the wireless terminal;

means for determining, by the wireless terminal, a first latency window and a second latency window for the first access mode if the access mode of the wireless terminal is determined to be the first access mode, and transmitting, by the wireless terminal, a random access preamble to the base station on a first antenna beam;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first latency window in response to transmitting a random access preamble to the base station on a first antenna beam;

means for establishing, by the wireless terminal, an RRC connection with the base station via the first antenna beam if the random access response sent by the base station is received within the first latency window;

means for retransmitting, by the wireless terminal, the random access preamble to the base station on the first antenna beam at an increased transmit power if the random access response sent by the base station is not received within the first waiting time window;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first latency window in response to retransmitting the random access preamble on the first antenna beam to the base station;

means for retransmitting, by the wireless terminal, the random access preamble to the base station on the second antenna beam if the random access response transmitted by the base station is not received within the first latency window;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the first latency window in response to retransmitting the random access preamble on the second antenna beam to the base station;

means for establishing, by the wireless terminal, an RRC connection with the base station via the second antenna beam if the random access response sent by the base station is received within the first latency window;

means for transmitting, by the wireless terminal, an ignition instruction to the base station in response to establishing the RRC connection with the base station.

In a preferred embodiment, the intelligent burning torch belongs to a system for controlling the burning torch based on a wireless terminal, and the system for controlling the burning torch based on the wireless terminal comprises:

a unit for transmitting an ignition instruction to an ignition gun manufacturer server by a base station in response to receiving the ignition instruction;

a unit for generating an ignition control command by the burning torch manufacturer server and transmitting the ignition control command to the base station by the burning torch manufacturer server in response to receiving the ignition command;

means for transmitting, by the base station, an ignition control command to the intelligent burning torch to be ignited by the intelligent burning torch in response to receiving the ignition control command;

means for determining, by the wireless terminal, whether there is a further message to be sent to the base station in response to sending the ignition instruction to the base station;

means for disconnecting, by the wireless terminal, the RRC connection with the base station if it is determined that there is no message to be sent to the base station;

means for receiving again, by the wireless terminal, the ignition instruction input by the user after the wireless terminal disconnects the RRC connection with the base station;

a unit for judging, by the wireless terminal, whether an RRC connection has been established with the base station in response to receiving again the ignition instruction input by the user;

means for continuing, by the wireless terminal, determination of an antenna beam used when the RRC connection was established with the base station if it is determined that the RRC connection was established with the base station.

means for transmitting, by the wireless terminal, a random access preamble to the base station on a first antenna beam if it is determined that the antenna beam used at the time of establishing the RRC connection with the base station is the first antenna beam;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam;

means for establishing, by the wireless terminal, an RRC connection with the base station via the first antenna beam if the random access response sent by the base station is received within a second latency window, wherein a time length of the second latency window is longer than a time length of the first latency window;

means for increasing, by the wireless terminal, transmit power and retransmitting the random access preamble to the base station on the first antenna beam if the random access response sent by the base station is not received within the second waiting time window;

means for attempting, by the wireless terminal, to receive, within a second waiting time window, a random access response transmitted by the base station in response to re-transmitting the random access preamble to the base station;

means for, if the random access response transmitted by the base station is not received within the second waiting time window, continuing by the wireless terminal to retransmit the random access preamble to the base station on the first antenna beam until a maximum number of retransmissions is reached;

means for establishing, by the wireless terminal, an RRC connection with the base station via the first antenna beam if the random access response sent by the base station is received within the second latency window;

means for transmitting, by the wireless terminal, an ignition instruction to the base station in response to establishing the RRC connection with the base station;

means for transmitting, by the base station, an ignition control command to the intelligent burning torch to be ignited by the intelligent burning torch in response to receiving the ignition control command.

means for transmitting, by the wireless terminal, a random access preamble to the base station on a second antenna beam if it is determined that the antenna beam used when the RRC connection with the base station was established is the second antenna beam;

means for attempting, by the wireless terminal, to receive, within a second latency window, a random access response transmitted by the base station in response to transmitting the random access preamble to the base station on a second antenna beam;

means for establishing, by the wireless terminal, an RRC connection with the base station via a second antenna beam if a random access response sent by the base station is received within a second latency window, wherein a time length of the second latency window is longer than a time length of the first latency window;

means for increasing, by the wireless terminal, transmit power and retransmitting the random access preamble to the base station on a second antenna beam if the random access response sent by the base station is not received within the second waiting time window;

means for, if the random access response transmitted by the base station is not received within the second waiting time window, continuing by the wireless terminal to retransmit the random access preamble to the base station on the second antenna beam until a maximum number of retransmissions is reached;

means for establishing, by the wireless terminal, an RRC connection with the base station via a second antenna beam if the random access response sent by the base station is received within the second waiting time window;

means for determining, by the wireless terminal, a second waiting time window for the second access mode if the access mode of the wireless terminal is determined to be the second access mode, and transmitting, by the wireless terminal, a random access preamble to the base station on the first antenna beam and the second antenna beam at the same time;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam and the second antenna beam simultaneously;

means for establishing, by the wireless terminal, an RRC connection with the base station via a first antenna beam if a first random access response sent by the base station is received within the second latency window, wherein the first random access response includes an indication of the first antenna beam;

means for establishing, by the wireless terminal, an RRC connection with the base station via a second antenna beam if a second random access response sent by the base station is received within a second latency window, wherein the second random access response includes an indication of the second antenna beam;

means for determining, by the wireless terminal, a time order of receiving the first random access response and the second random access response if the first random access response and the second random access response transmitted by the base station are received within the second waiting time window;

means for establishing, by the wireless terminal, an RRC connection with the base station via the first antenna beam if the first random access response is received first;

Compared with the prior art, the piezoelectric ceramic ignition-based ignition gun has the following advantages that according to relevant regulations, the triggering pressure of the conventional piezoelectric ceramic ignition-based ignition gun must reach a certain gram number so as to prevent the children from mistakenly touching and causing personal injury accidents. However, the current ignition gun still has certain problems: theoretically, the trigger gram number is only determined based on a statistical balance, that is, a certain trigger gram number can only avoid the mistaken touch and the mistaken touch of the child with a high probability, but the mistaken touch can not be avoided absolutely; in addition, many news report that some families use the ignition gun directly to ignite to cause serious explosion accidents due to the fact that the concentration of flour in air is too high when the families use the kitchen and the flour, and the current design of the ignition gun cannot overcome the serious explosion accidents. The invention provides a method for controlling a burning torch based on a wireless terminal and an intelligent burning torch. In addition, because the ignition gun is remotely controlled, the concentration monitoring of inflammable gas in air, the concentration monitoring of dust and the like can be easily added in the control process, so that the situation that a user cannot ignite in a dangerous environment can be ensured (for example, even if an ignition instruction is received, if the concentration of gas in the environment is too high, a server does not send a control command, so that the ignition gun cannot ignite) and the occurrence of serious explosion and burn accidents is avoided. Certainly, through a series of designs, the method and the device ensure the rapid transmission of the instructions, ensure that the delay of the ignition process is not too long, and improve the experience of users.

Drawings

FIG. 1 is a flow diagram of a method according to an embodiment of the invention.

Fig. 2 is a schematic diagram of a system architecture according to an embodiment of the present 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.

FIG. 1 is a flow diagram of a method according to an embodiment of the invention. As shown in the figure, the method of the present invention comprises the steps of:

step 101: receiving an ignition instruction input by a user by the wireless terminal;

step 102: monitoring a synchronous signal broadcasted by a base station and system information by a wireless terminal, wherein the system information comprises information used for the wireless terminal to carry out random access;

step 103: reading, by the wireless terminal, information for random access by the wireless terminal in response to monitoring the synchronization signal broadcast by the base station and the system information;

step 104: judging an access mode and a waiting time window of the wireless terminal by the wireless terminal based on the information of random access of the wireless terminal;

step 105: if the access mode of the wireless terminal is judged to be the first access mode, the wireless terminal determines a first waiting time window and a second waiting time window aiming at the first access mode, and the wireless terminal sends a random access lead code to the base station on the first antenna wave beam;

step 106: attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first latency window in response to transmitting a random access preamble to the base station on a first antenna beam;

step 107: if the random access response sent by the base station is received in the first waiting time window, the wireless terminal establishes RRC connection with the base station through a first antenna wave beam;

step 108: retransmitting, by the wireless terminal, the random access preamble to the base station at an increased transmit power on the first antenna beam if the random access response sent by the base station is not received within the first waiting time window;

step 109: attempting, by the wireless terminal, to receive a random access response transmitted by the base station within a first waiting time window in response to re-transmitting the random access preamble to the base station on the first antenna beam;

step 110: retransmitting, by the wireless terminal, the random access preamble to the base station on the second antenna beam if the random access response sent by the base station is not received within the first waiting time window;

step 111: attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the first latency window in response to re-transmitting the random access preamble to the base station on the second antenna beam;

step 112: if the random access response sent by the base station is received in the first waiting time window, the wireless terminal establishes RRC connection with the base station through a second antenna wave beam;

step 113: an ignition instruction is sent by the wireless terminal to the base station in response to establishing the RRC connection with the base station.

Fig. 2 is a schematic diagram of a system architecture according to an embodiment of the present invention. As shown, the system of the present invention includes a wireless terminal (e.g., a user's smart phone), a base station, a firearm manufacturer server (similar to the server rented by the APP provider), and a firearm with communication means. The communication device on the burning torch may be a low cost communication device similar to those used on smart meters and shared bicycle locks. The specific hardware structure is common knowledge in the art or can be purchased and inquired from various manufacturers, and the detailed description of the application is omitted.

if the RRC connection with the base station is once established, the wireless terminal continues to determine the antenna beam used when the RRC connection with the base station is once established. The formation of antenna beams is implemented based on beam forming (beamforming) technology and antenna array technology, and the basic principles of these two technologies are well known and will not be described in detail in this application.

As will be appreciated by one skilled in the art, embodiments of the present application may be provided as a method, system, or computer program product. Accordingly, the present application may take the form of an entirely hardware embodiment, an entirely software embodiment or an embodiment combining software and hardware aspects. Furthermore, the present application may take the form of a computer program product embodied on one or more computer-usable storage media (including, but not limited to, disk storage, CD-ROM, optical storage, and the like) having computer-usable program code embodied therein.

The present application is described with reference to flowchart illustrations and/or block diagrams of methods, apparatus (systems), and computer program products according to embodiments of the application. It will be understood that each flow and/or block of the flow diagrams and/or block diagrams, and combinations of flows and/or blocks in the flow diagrams and/or block diagrams, can be implemented by computer program instructions. These computer program instructions may be provided to a processor of a general purpose computer, special purpose computer, embedded processor, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, create means for implementing the functions specified in the flowchart flow or flows and/or block diagram block or blocks.

These computer program instructions may also be stored in a computer-readable memory that can direct a computer or other programmable data processing apparatus to function in a particular manner, such that the instructions stored in the computer-readable memory produce an article of manufacture including instruction means which implement the function specified in the flowchart flow or flows and/or block diagram block or blocks.

These computer program instructions may also be loaded onto a computer or other programmable data processing apparatus to cause a series of operational steps to be performed on the computer or other programmable apparatus to produce a computer implemented process such that the instructions which execute on the computer or other programmable apparatus provide steps for implementing the functions specified in the flowchart flow or flows and/or block diagram block or blocks.

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

1. A method for controlling an ignition gun based on a wireless terminal is characterized by comprising the following steps:

receiving an ignition instruction input by a user by the wireless terminal;

reading, by a wireless terminal, information for random access by the wireless terminal in response to monitoring a synchronization signal broadcast by a base station and system information;

if the access mode of the wireless terminal is judged to be the first access mode, the wireless terminal determines a first waiting time window and a second waiting time window aiming at the first access mode, and the wireless terminal sends a random access lead code to the base station on a first antenna beam;

attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the first latency window in response to transmitting a random access preamble to the base station on the first antenna beam;

if a random access response sent by a base station is received in the first waiting time window, establishing RRC connection with the base station through the first antenna wave beam by the wireless terminal;

retransmitting, by the wireless terminal, a random access preamble to the base station at an increased transmit power on a first antenna beam if no random access response sent by the base station is received within the first waiting time window;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the first latency window in response to re-transmitting a random access preamble to the base station on the first antenna beam;

retransmitting, by the wireless terminal, a random access preamble to the base station on a second antenna beam if the random access response sent by the base station is not received within the first latency window;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the first latency window in response to re-transmitting a random access preamble to the base station on the second antenna beam;

establishing, by the wireless terminal, an RRC connection with the base station through the second antenna beam if a random access response sent by the base station is received within the first latency window;

transmitting, by the wireless terminal, the ignition instruction to the base station in response to establishing the RRC connection with the base station.

2. The method for controlling a burning torch based on a wireless terminal as claimed in claim 1, wherein the method for controlling the burning torch based on the wireless terminal comprises the steps of:

in response to receiving the ignition instruction, sending the ignition instruction to an ignition gun manufacturer server by a base station;

in response to receiving the ignition instruction, generating an ignition control command by an ignition gun manufacturer server and sending the ignition control command to the base station by the ignition gun manufacturer server;

in response to receiving the firing control command, sending, by a base station, the firing control command to an intelligent firing gun for firing by the intelligent firing gun;

in response to the ignition instruction being sent to the base station, the wireless terminal judges whether a message needing to be sent to the base station exists;

if the information which needs to be sent to the base station is judged not to exist, the wireless terminal disconnects the RRC connection with the base station;

after the wireless terminal disconnects the RRC connection with the base station, receiving an ignition instruction input by a user again by the wireless terminal;

and if the RRC connection with the base station is established once, the wireless terminal continues to judge the antenna beam used when the RRC connection with the base station is established once.

3. The method for controlling a burning torch based on a wireless terminal as claimed in claim 2, wherein the method for controlling the burning torch based on the wireless terminal comprises the steps of:

if the antenna beam used when the RRC connection with the base station is established is judged to be a first antenna beam, a random access lead code is sent to the base station by the wireless terminal on the first antenna beam;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam;

if a random access response sent by a base station is received in the second waiting time window, establishing RRC connection with the base station through the first antenna beam by the wireless terminal, wherein the time length of the second waiting time window is longer than that of the first waiting time window;

if the random access response sent by the base station is not received within the second waiting time window, increasing, by the wireless terminal, the transmit power and resending the random access preamble to the base station on the first antenna beam;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to re-transmitting the random access preamble to the base station;

if the random access response sent by the base station is still not received within the second waiting time window, the wireless terminal continues to resend the random access preamble to the base station on the first antenna beam until a maximum number of resends is reached;

if a random access response sent by a base station is received in the second waiting time window, establishing RRC connection with the base station through the first antenna beam by the wireless terminal;

transmitting, by a wireless terminal, the ignition instruction to the base station in response to establishing an RRC connection with the base station;

4. The method for controlling a burning torch based on a wireless terminal as claimed in claim 3, wherein the method for controlling the burning torch based on the wireless terminal comprises the steps of:

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to transmitting a random access preamble to the base station on the second antenna beam;

if a random access response sent by the base station is received in the second waiting time window, establishing RRC connection with the base station through the second antenna beam by the wireless terminal, wherein the time length of the second waiting time window is longer than that of the first waiting time window;

if the random access response sent by the base station is not received within the second waiting time window, increasing, by the wireless terminal, the transmit power and resending the random access preamble to the base station on the second antenna beam;

if the random access response sent by the base station is still not received within the second waiting time window, the wireless terminal continues to resend the random access preamble to the base station on the second antenna beam until a maximum number of resends is reached;

if a random access response sent by the base station is received in the second waiting time window, establishing RRC connection with the base station through the second antenna beam by the wireless terminal;

5. The method for controlling a burning torch based on a wireless terminal as claimed in claim 4, wherein the method for controlling the burning torch based on the wireless terminal comprises the steps of:

if the access mode of the wireless terminal is judged to be a second access mode, determining a second waiting time window aiming at the second access mode by the wireless terminal, and simultaneously sending a random access lead code to the base station on a first antenna wave beam and a second antenna wave beam by the wireless terminal;

attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to simultaneously transmitting a random access preamble on the first antenna beam and the second antenna beam to the base station;

establishing, by the wireless terminal, an RRC connection with the base station through the first antenna beam if a first random access response sent by the base station is received within the second latency window, wherein the first random access response includes an indication of the first antenna beam;

establishing, by the wireless terminal, an RRC connection with the base station through the second antenna beam if a second random access response sent by the base station is received within the second latency window, where the second random access response includes an indication of the second antenna beam;

establishing, by the wireless terminal, an RRC connection with the base station through the first antenna beam if the first random access response is received first;

6. The utility model provides an intelligence burning torch which characterized in that, intelligence burning torch belongs to a system based on wireless terminal control burning torch, system based on wireless terminal control burning torch includes:

means for reading, by a wireless terminal, information for random access by the wireless terminal in response to monitoring a synchronization signal broadcast by a base station and system information;

means for determining, by a wireless terminal, an access mode and a wait time window of the wireless terminal based on information of random access by the wireless terminal;

means for attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the first latency window in response to transmitting a random access preamble to the base station on the first antenna beam;

means for establishing, by a wireless terminal, an RRC connection with a base station via the first antenna beam if a random access response sent by the base station is received within the first latency window;

means for retransmitting, by a wireless terminal, a random access preamble to a base station on a first antenna beam at an increased transmit power if a random access response sent by the base station is not received within the first latency window;

means for attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the first latency window in response to re-transmitting a random access preamble to the base station on the first antenna beam;

means for retransmitting, by a wireless terminal, a random access preamble to a base station on a second antenna beam if a random access response transmitted by the base station is not received within the first latency window;

means for attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the first latency window in response to re-transmitting a random access preamble to the base station on the second antenna beam;

means for establishing, by a wireless terminal, an RRC connection with a base station via the second antenna beam if a random access response sent by the base station is received within the first latency window;

means for transmitting, by a wireless terminal, the ignition instruction to the base station in response to establishing an RRC connection with the base station.

7. The intelligent burning torch as claimed in claim 6, wherein said intelligent burning torch belongs to a wireless terminal control burning torch based system, said wireless terminal control burning torch based system includes:

means for sending, by a base station, the firing instruction to a firing gun vendor server in response to receiving the firing instruction;

means for generating an ignition control command by an ignition gun manufacturer server and sending the ignition control command to the base station by the ignition gun manufacturer server in response to receiving the ignition instruction;

means for transmitting, by a base station, the firing control command to an intelligent firing gun for firing by the intelligent firing gun in response to receiving the firing control command;

means for determining, by a wireless terminal, whether there is still a message to be sent to the base station in response to sending the ignition instruction to the base station;

means for disconnecting, by a wireless terminal, an RRC connection with the base station if it is determined that there is no message that needs to be sent to the base station;

means for receiving again, by the wireless terminal, an ignition instruction input by the user after the wireless terminal disconnects the RRC connection with the base station;

means for determining, by the wireless terminal, whether an RRC connection has been established with the base station in response to receiving again an ignition instruction input by the user;

means for continuing, by the wireless terminal, determination of an antenna beam used once to establish an RRC connection with the base station if it is determined that an RRC connection has been established with the base station.

8. The intelligent burning torch as set forth in claim 7, wherein said intelligent burning torch belongs to a wireless terminal control burning torch based system, said wireless terminal control burning torch based system includes:

means for transmitting, by a wireless terminal, a random access preamble to the base station on a first antenna beam used when it is determined that an RRC connection was established with the base station;

means for attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam;

means for establishing, by a wireless terminal, an RRC connection with a base station via the first antenna beam if a random access response sent by the base station is received within the second latency window, wherein a time length of the second latency window is longer than a time length of the first latency window;

means for increasing, by a wireless terminal, transmit power and retransmitting a random access preamble to a base station on the first antenna beam if a random access response sent by the base station is not received within the second waiting time window;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to re-transmitting the random access preamble to the base station;

means for, if a random access response transmitted by a base station is not received within the second waiting time window, continuing by the wireless terminal to retransmit a random access preamble to the base station on the first antenna beam until a maximum number of retransmissions is reached;

means for establishing, by a wireless terminal, an RRC connection with a base station via the first antenna beam if a random access response sent by the base station is received within the second latency window;

means for transmitting, by a wireless terminal, the ignition instruction to the base station in response to establishing an RRC connection with the base station;

means for transmitting, by a base station, the firing control command to an intelligent firing gun for firing by the intelligent firing gun in response to receiving the firing control command.

9. The intelligent burning torch as set forth in claim 8, wherein said intelligent burning torch belongs to a wireless terminal control burning torch based system, said wireless terminal control burning torch based system includes:

means for transmitting, by a wireless terminal, a random access preamble to the base station on a second antenna beam if it is determined that the antenna beam used once to establish the RRC connection with the base station is the second antenna beam;

means for attempting, by a wireless terminal, to receive a random access response transmitted by a base station within the second waiting time window in response to transmitting a random access preamble to the base station on the second antenna beam;

means for establishing, by a wireless terminal, an RRC connection with a base station via the second antenna beam if a random access response sent by the base station is received within the second latency window, wherein a time length of the second latency window is longer than a time length of the first latency window;

means for increasing, by the wireless terminal, transmit power and retransmitting a random access preamble to the base station on the second antenna beam if a random access response sent by the base station is not received within the second waiting time window;

means for establishing, by the wireless terminal, an RRC connection with the base station via the second antenna beam if the random access response sent by the base station is received within the second latency window;

10. The intelligent burning torch as set forth in claim 9, wherein said intelligent burning torch belongs to a wireless terminal control burning torch based system, said wireless terminal control burning torch based system includes:

means for determining, by the wireless terminal, a second latency window for a second access mode if the access mode of the wireless terminal is determined to be the second access mode, and sending, by the wireless terminal, a random access preamble to the base station on a first antenna beam and a second antenna beam simultaneously;

means for attempting, by the wireless terminal, to receive a random access response transmitted by the base station within the second waiting time window in response to transmitting a random access preamble to the base station on the first antenna beam and the second antenna beam simultaneously;

means for establishing, by a wireless terminal, an RRC connection with a base station over the first antenna beam if a first random access response sent by the base station is received within the second latency window, wherein the first random access response includes an indication of the first antenna beam;

means for establishing, by the wireless terminal, an RRC connection with the base station via the second antenna beam if a second random access response sent by the base station is received within the second latency window, wherein the second random access response includes an indication of the second antenna beam;

means for establishing, by a wireless terminal, an RRC connection with the base station via the first antenna beam if the first random access response is received first;