100 results about "Mobile phone base station" patented technology

The invention relates to a method for analyzing a traffic network, comprising the steps of: importing, organizing and managing geographic data, mobile phone base station positioning data, road network data and public transportation net data to obtain base data; comprehensively processing the base data and establishing a population travel time-space characteristic model to obtain the comprehensive data; and analyzing the traffic management according to the comprehensive data. In combination with the mobile phone base station positioning data, the public transportation network data, the road network data, and the like, the traffic network analysis method ensures that the population travel information dynamic change is obtained, the traffic information based on the population travel characteristic is found, and the service quality reliability is analyzed through a traffic topology network, traffic accessibility and relative analysis. The invention provides convincement and effective decision support for traffic management, traffic plan, land utilization planning, urban planning, and the like, can effectively improve the use ratio of public traffic and a road network, relieves the pressure of the urban traffic, and provides a method for solving the problems in traffic management and traffic planning.

The invention provides a method for bus origin-destination (OD) investigation by using mobile phone base station data and operating vehicle global position system (GPS) data, comprising the following steps: 1) collecting mobile phone positioning data and bus GPS data; 2) transferring the mobile phone positioning data into travel information of users; 3) extracting characteristic values from the travel information of the users; 4) analyzing the extracted characteristic values to obtain basic travel characteristics; 5) matching bus travel information with the bus GPS data to obtain bus travel characteristics; and 6) carrying out statistical process on the obtained travel characteristics, and then outputting a population travel characteristic report form. The method is based on the mobile phone positioning data and the bus GPS data and then is used for performing a series of processes on the mobile phone positioning data and the bus GPS data, thereby automatically obtaining a high-quality, high-fineness and large time-span population travel characteristic reform form from a great amount of data, intelligently acquiring the population travel characteristics, reducing manpower and material resource consumption and improving the accuracy and effectiveness of the investigation.

A mobile phone base station sends to a mobile phone device information requesting location data thereof, receives location data sent back by the mobile phone device according to the information, and outputs the location data to a location data collection system. The location data collection system inputs the location data, and generates state-of-move information constituted from a location distribution, a moving speed distribution, and a moving direction distribution, or information obtained by filing these information, based on the location data. Then, the location data collection system broadcasts the generated state-of-move information to the car navigation system located in a predetermined area through the mobile phone base station. The car navigation system displays the received state-of-move information on a screen of a display unit thereof with a map indicating the vicinity of the location of the vehicle.

The invention discloses a method for improving GPS (Global Positioning System) positioning precision on the basis of local positioning information. The method comprises the following steps of: A, obtaining local positioning information; B, obtaining global coordinate information through a GPS unit; C, transforming local coordinates into global coordinates; and D, matching the global coordinates to the corresponding transformed local coordinates to complete the correction of the global coordinates. Compared with the traditional GPS reinforcement system, the invention has the advantages that infrastructures such as a mobile phone base station in a fixed reference point with an accurate position are not needed to be known, and special devices such as a communication network are not needed for sharing data, by means of a mobile phone inertial navigation technology or local positioning information provided by a self-organizing network, through a series of coordinate transformation, the GPS positioning precision is improved, configuration and application are easily realized, and the method can be popularized to wider applications such as indoor positioning.

A time division multiple access (TDMA) control method used by a mobile radio frequency identifier (RFID) reader through a mobile phone base station and a mobile RFID reader are provided. Each mobile RFID reader occupies a frequency channel during a time slot allocated through a mobile communication base station, thereby avoiding interference between readers.

The invention relates to the field of mobile communication network and video monitoring, and discloses a target person tracking method combining mobile communication recording and video monitoring data. The method comprises the steps that S1, monitor areas passed by a target person and a corresponding monitor period are found from video monitoring recording data; S2, information of mobile phone base stations which cover the monitor areas is found from a mobile communication network base station set; S3, all mobile phone historical trajectory data sets passing the base stations in the monitor period are acquired; S4, the intersection of mobile phone trajectories extracted from the base stations is acquired, so as to acquire the trajectory data set of a target mobile phone; and S5, a mobile phone number with a centralized target mobile phone trajectory is extracted, and the target mobile phone is identified and tracked according to the mobile phone number in a mobile network. Even if the target person no longer appears in a monitoring video, ongoing tracking still can be carried out.

The invention discloses a method for predicting a time sequence of number of people served by base stations based on space-time transfer probabilities of mobile phones. The method comprises the following steps: calculating the total number of people within base station service areas of the mobile phones within an equal time period by using space-time orbit data of the mobile phones; dividing people moving orbits by using the space-time orbit data of the mobile phones, and calculating the number of people coming back and forth between the base stations within adjacent time periods in a research area; based on related theory of Bayesian and Markov chains, calculating the transfer probabilities of mobile phone users within target base stations to occur in the base stations at a current moment according to historical data; calculating the transfer probabilities of the mobile phone users within the target base stations to occur in the base stations within different time periods to construct a complete space-time transfer probability matrix in the research area; and predicting the number of people served within the base station ranges of the mobile phones in the research area with the relatively stable total number of people by using the complete space-time transfer probability matrix. The method disclosed by the invention has the advantages of low data acquisition cost, simple model structure and high prediction efficiency.

The invention discloses a mobile positioning data-based integrated passenger transportation hub passenger flow real-time monitoring method which can achieve real-time monitoring of the total number of passengers in an integrated passenger transportation hub, the number of passengers entering the hub, and the number of passengers going out from the hub through processing and analyzing of mobile positioning data. The method includes the following steps of: counting change conditions per day of the number of mobile phone base station connected users in the physical boundary of the integrated passenger transportation hub passenger and in the range less than 50 meters, away from outside the physical boundary; establishing a space-time cluster method, and determining the coverage area of the integrated passenger transportation hub in a communication space; identifying and excluding workers in the integrated passenger transportation hub; calculating the real-time total number of the passengers, the real-time number of the passengers entering the hub, and the real-time number of the passengers going out from the hub of the integrated passenger transportation hub. The advantages of the invention are that: the conventional mobile communication network resources are fully utilized to determine the coverage area of the integrated passenger transportation hub in the communication space; the real-time monitoring of the integrated passenger transportation hub can be achieved by adoption of the method with low cost. The mobile positioning data-based integrated passenger transportation hub passenger flow real-time monitoring method has important means to daily management and safety pre-warning of the integrated passenger transportation hub.

The invention provides a method and a device for assisting in determining a driver identity. The method comprises the steps of: obtaining corresponding relations between mobile phone base stations and traffic block ports; respectively obtaining a communication data table of each mobile phone base station and a monitoring data table of each traffic block port; according to the communication data tables, the monitoring data tables and the corresponding relations, determining at least one mobile phone number corresponding to each license plate number and the appearance frequency of each mobile phone number corresponding to each license plate number, and generating an updated data table; according to the updated data table, updating a history statistical table containing the license plate numbers, the mobile phone number corresponding to the license plate numbers and the appearance frequency of each mobile phone number; according to a target license plate number, obtaining owner information and peccancy processing people information of a target vehicle corresponding to the target license plate number; and according to the owner information, the peccancy processing people information and the history statistical table, determining a suspected driver of the target vehicle. The scheme assists in judging the driver identity.

The invention discloses a mobile phone quantity distribution counting method considering the electricity quantity usage condition. The method comprises steps of carrying out graph preprocessing on point-shaped data of a mobile phone base station, wherein the preprocessing comprises selection, combination and the like of the base station point information; then, establishing Thiessen polygons for the point-shaped data, subjected to the graph preprocessing, of the mobile phone base station, and distributing mobile phone quantity values recorded by the base station to corresponding Thiessen polygons; screening resident electricity utilization quantity information counted based on families, and using the address contra-analysis technology to convert the resident electricity utilization quantity information into spatial point-shaped graph information; and finally, counting distribution of mobile phone quantity according to grids. According to the invention, it is achieved that calculation of spatial distribution counting is performed on mobile phones recorded in a mobile phone base station by combining the resident electricity utilization quantity information.

An antenna mount for a mobile phone cell station has a stationary base and a rotating base with an antenna. The rotating base is mounted rotatably on the stationary base. The stationary base has a motor and a horizontal gear set, and the rotating base has a motor and a vertical gear set. The motors are operated and controlled remotely. The direction of the antenna can be controlled remotely, and keeps technicians from being subjected to the hazardous environment required to manually adjust conventional mobile phone cell station antennas.

The invention discloses single-component deamination-type high-conductivity silicone rubber and a preparation method thereof. The single-component deamination-type high-conductivity silicone rubber comprises organosilicon base polymers, reinforcement filler, conductive filler, thixotropic agents, plasticizer, crosslinking agents, coupling agents, catalysts, solvent and performance assistant. The preparation method comprises the following steps: firstly performing dehydration to the fillers; then performing planetary stirring to enable a mixture to uniformly dispersed; removing air; packaging in a sealed manner; obtaining the single-component deamination-type high-conductivity silicone rubber. The single-component deamination-type high-conductivity silicone rubber prepared through the preparation method has the advantages of simple curing way, favorable adhesion and simple preparation, is suitable for the operation of a glue dispenser, and is applicable to shielding adhesion in mobile phone base stations, communications and the military industrial field.

The invention discloses a method for obtaining mobile phone signaling track data with a label based on resident survey data. The method comprises the following steps: S1, obtaining basic attribute information of the mobile phone signaling track data and resident travel survey data; S2, converting the mobile phone travel OD into a traffic cell travel OD based on the spatial correspondence between the mobile phone base station and the traffic cell; S3, extracting feature sets of mobile phone signaling trajectory data and resident travel survey data for different dates, and performing preliminaryfusion on the data in time latitude; S4, based on the travel characteristic attribute of each part of resident travel survey data, performing preliminary screening matching on the mobile phone signaling track data under the set matching rule; and S5, in combination with the personal characteristic attributes of the traveler and the mobile phone user, completing final characteristic matching of the resident travel survey data and the mobile phone signaling track data, and obtaining the mobile phone signaling track data with the label. Data fusion of a mobile phone signaling data large sample and a resident travel survey data small sample is realized.

The invention provides an urban mesoscopic layer real demographic method based on mobile phone signaling. The method is used for counting relevant indexes of real population in a city through mobile phone signaling data, collected by mobile phone base stations, of users, and is characterized by comprising the following steps that S1, importing the mobile phone signaling data collected by the mobile phone base stations, and extracting individual travel chains of the users; S2, performing user type identification on the user according to the individual travel chain, and performing statistics onthe real population data on the scale of the mobile phone base station; Step S3, establishing a conversion relationship between the mobile phone base station and the urban space unit of the city; AndS4, carrying out conversion calculation on the actual population indexes of the urban space units according to the actual population data of the mobile phone base stations and the conversion relationship.

The invention discloses a disaster area population distribution statistical method based on a mobile phone base station and relates to a rapid disaster assessment technology and a mobile phone base station communication technology. The disaster area population distribution statistical method based on the mobile phone base station aims at overcoming the defects in the prior art. The method is characterized in that the mobile phone base station performs summary statistics on the number of mobile phones having access to the mobile phone base station at regular intervals and transmits data to a disaster rapid reporting system in time; due to the fact that the proportion of the number of the mobile phones nearby the base station to the population of the coverage area of the base station is a determined value in a certain region within a certain period of time, and the disaster area population distribution can be estimated according to the number of the mobile phones having access to the base station and the proportion of the number of the mobile phones to the population, and therefore, the disaster area personnel casualty can be estimated rapidly according to the affected degree distribution situation obtained by the disaster rapid reporting system, the method is beneficial to effective and reasonable rescue scheme making of the government, and more lives are saved.

The invention discloses a mobile phone signal booster which comprises an outdoor antenna, a coaxial cable, a power divider, a coupler, an indoor antenna and a power supply, wherein the outdoor antenna is in wired connection with the power divider by the coaxial cable; the power divider, the coupler and the indoor antenna are sequentially connected; and the power supply is connected with the power divider and the coupler respectively. The booster can effectively improve various technical problems of poor mobile phone signal introduced in the background technology. An outdoor signal is connected into by the outdoor antenna of the booster in a wired manner, amplified by downlinks of the power divider and the coupler, then switched into a room, and used for making up a blind spot of a mobile phone base station, and a mobile phone signal is amplified by uplinks of the coupler and the power divider and then transmitted to the base station, so that communication is realized, and the booster is very convenient to use.

The invention discloses an auxiliary positioning method for mobile phones based on a magnetic field sensor and an electronic map. A mobile phone electronic map is combined with a mobile phone magnetic field sensor so as to enable the position orientation where the mobile phone electronic map is correspondingly located to be identical with the north-south orientation of actual earth magnetism, and electronic map virtual coordinates are utilized to establish straight line connection with on-site coordinates in actual regions, and cross points generated among different practical coordinates are displayed on the electronic map correspondingly, so as to enable a user to be capable of knowing the currently actual coordinates through the electronic map. Compared with the prior art, according to the method, GPS (Global Positioning system) positioning and mobile phone base station positioning are not required, the situation that the current position information can not be searched by a GPS or a base station under the conditions of weak or no signals can be avoided, and the problem that the mobile phone can not be accurately positioned is solved.

The invention discloses a traffic state weak signal perception studying and judging method based on multi-source data fusion. The method comprises the steps that gridding division is conducted on roads according to road attributes and traffic data attributes; acquiring, preprocessing and fusing traffic data; according to the DSRC section data, estimating the number of vehicles on a certain sectionof highway section by utilizing mobile phone base station data, and calibrating through positioning data and videos; identifying the running state of the regional vehicle; carrying out real-time dynamic analysis on the traffic state change parameters; and comprehensively reflecting the traffic transition state change process through the traffic operation state retention time and the traffic statechange speed trend. According to the invention, the multi-source data obtained from multiple aspects can be fully utilized, the traffic state weak signal perception research and judgment method is provided, the traffic state change trend can be timely and accurately perceived in the traffic state transition stage, active dispersion and control are further realized, traffic congestion is avoided to the greatest extent, and the traffic operation efficiency and safety are ensured.

The invention provides an improved mobile phone signaling data trip identification method based on a dynamic space threshold, which is used for identifying travel conditions of each user according tomobile phone signaling data acquired by each mobile phone base station so as to obtain an individual travel chain of the user, and is characterized by comprising the following steps: S1, acquiring themobile phone signaling data; s2, cleaning the mobile phone signaling data; s3, judging a dynamic threshold D corresponding to each mobile phone base station according to the position of the base station through a preset dynamic threshold calculation method; s4, performing classifying to obtain a to-be-analyzed data set of the user; s5, sequentially selecting a group of to-be-analyzed data sets ofthe user; s6, reading to-be-analyzed data in the current user data set in sequence, judging the stay point of the current user according to the corresponding dynamic threshold value D, S7, generatingand storing an individual travel chain, and S8, repeating the step S5 to the step S7 until all the to-be-analyzed data of the user are processed.

The invention discloses a whole-ship mobile phone communication system supporting public network mobile phone multi-operator signal fusion. The invention belongs to the technical field of ship electronic information. According to the invention, a multi-operator digital wireless distribution system is adopted to realize fusion access with indoor distribution equipment, so that the equipment deployment cost is reduced; under the condition that signals of the open sea public network mobile phone base station are not covered, the shipborne cellular mobile communication base station achieves publicnetwork mobile phone signal network access through shipborne satellite communication channel transfer. Public network mobile phone signal network access is realized by the public network mobile phonebase station and the ship outdoor antenna within the signal coverage range of the offshore public network mobile phone base station, the supported public network mobile phone terminal types are expanded, and richer application capability is provided for offshore ship public network mobile phone users.

In the invention, a characteristic that a mobile phone which is mobile terminal equipment with a high popularizing rate is carried by a driver or a passenger is used and simultaneously ready-made and abundant mobile phone base stations are used to be served as positioning observation points; a method of calculating and analyzing specific observation point base station data is used and a determined road network structure of the expressway is combined to realize accurate calculating of a running path of the vehicle in the expressway under the condition that a mobile phone user does not send extra information. In the scheme, a mobile phone data flow of the user does not need to consume to frequently feed back a GPS position, and an RFID card reading antenna does not need to be erected and the user does not need to install an RFID equipment card. The method is the low-cost expressway vehicle running path identification method.

The invention provides a self-service electronic tourist guide system based on mobile phone base station location. The self-service electronic tourist guide system based on mobile phone base station location comprises a base station, mobile electronic equipment, a tourist guide server and a wireless data network. The self-service electronic tourist guide system based on mobile phone base station location realizes real-time location of each tourist, guides the tourists to scenery spots near the position where the tourists are located, automatically introduces the scenery spots, and displays the position distribution of the tourists in the same batch on a mobile terminal in real time. In addition, the self-service electronic tourist guide system based on mobile phone base station location provides a real-time communication service for the tourists in the same batch, is connected with the internet through the wireless data network, and calls network resources to provide richer traveling information for the tourists. By means of the support of the tourist guide server, the self-service electronic tourist guide system permits the tourists to carry out voice operation on the mobile terminal and obtains the feedback of multimedia information by utilizing an intelligent voice system and multimedia information demonstration.

The invention relates to the technical field of signal simulation, and particularly relates to a mobile phone base station signal coverage range simulation method based on a Thiessen polygon. The method comprises steps: multiple scattered points are generated on map data, whether the scattered points are intersected with habitable buildings in the map data is judged, and a habitable area of each scattered point is recorded; a home base station of each scattered point is found out, and the habitable area corresponding to each home base station is counted; the habitable area is divided by a recognized resident population, and the per-capita living space is obtained; the weight of the base station is acquired according to the per-capita living space; in combination with the weight of each base station, the new home base station of each scattered point is acquired again; the per-capita living space of the new home base station is judged, and the vector data information is obtained; and the vector data information is converted according to a sequence to obtain the base station coverage range after correction. The operation is simple, the obtained base station coverage range data are accurate, and the popularization is facilitated.

The invention discloses an antitheft mobile phone and a mobile phone theft prevention method. The antitheft mobile phone comprises a card holder, an SIM card slot and a chute, wherein a SIM card of a mobile phone is located in the card holder and is inserted into the SIM card slot with the card holder; the chute is arranged next to the SIM card slot and is used for popping up the card holder when a pin is inserted. The mobile phone is in wireless communication with a wearable device; when a distance between the mobile phone and the wearable device is larger than a preset distance, the wireless communication between the mobile phone and the wearable device is off, and the mobile phone triggers a card holder locking operation and locks the card holder, thereby achieving a purpose that an SIM card cannot be changed. Therefore, the mobile phone can be quickly located through a mobile phone base station, and is convenient to get back; furthermore, the wearable device sends out a mobile phone loss prompt, so that a user can find that the mobile phone is lost in time.

The present invention discloses a complex network and mobile phone signaling data-based urban transportation junction point evaluation method. According to the method, firstly, a base station of a mobile phone in a to-be-researched area is preprocessed. Secondly, based on the location switching features of the base station, the trajectory of each mobile phone in the to-be-researched area is obtained. Thirdly, according to the trajectory of the mobile phone, the relationship network between base stations is determined. That means, the contact strength between base stations can be reflected through the switching of the mobile phones of people in the base stations, so that the operating characteristics of people in the space can be further embodied. Finally, based on a complex network theory, base stations for representing urban transportation junctions can be determined. According to the technical scheme of the invention, a basis is provided for the position determination of urban transportation junction points and the making of associated traffic decisions based on the switching contact features of mobile phone base stations and the complex network theory.