CN111861534A - Big data processing type distribution state analysis platform - Google Patents
Big data processing type distribution state analysis platform Download PDFInfo
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- CN111861534A CN111861534A CN202010153927.4A CN202010153927A CN111861534A CN 111861534 A CN111861534 A CN 111861534A CN 202010153927 A CN202010153927 A CN 202010153927A CN 111861534 A CN111861534 A CN 111861534A
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Abstract
The invention relates to a big data processing type distribution state analysis platform, which comprises: the altitude detection equipment is positioned at the bottom of the aircraft and used for determining the current altitude of the area where the aircraft is positioned based on the current GPS coordinates of the aircraft; the altitude analysis equipment is arranged on the right side of the altitude detection equipment and is used for analyzing the real-time flight altitude corresponding to the air pressure borne by the altitude analysis equipment based on an air pressure detection mode; and the big data processing node is used for subtracting the current altitude from the real-time flight altitude to obtain a field altitude difference and estimating the ground area shot by the visual field acquisition equipment based on the field altitude difference and the imaging visual angle. The big data processing type distribution state analysis platform is simple in structure, convenient and practical. Due to the adoption of a customized billboard volume density analysis mechanism and a signal processing mechanism of a big data network end, the reliability and effectiveness of billboard volume density detection in any area of a city are improved.
Description
Technical Field
The invention relates to the field of big data, in particular to a big data processing type distribution state analysis platform.
Background
The billboard is a signaling tool in the pull system to initiate the next production process, or to carry the product to a downstream process. This term is meant in japanese as "signal" or "signal plate".
Currently, a billboard broadly refers to any outdoor medium that delivers advertising information. The media size is dependent on the actual environment.
For example, pictures of shops, doorheads and facades can be made by hand drawing, computer making or printing on paper. The materials of the billboard are generally as follows: square tubes, angle steel and the like. The three-dimensional plate, the lamp cloth, the plastic uptake, the automobile baking finish, the buckle plate, the aluminum-plastic plate and the like can be provided.
In different countries and regions, corresponding requirements exist on the density and the uniformity of the urban billboard body, but how to achieve the requirements does not have a specific mechanism of electronic detection and analysis, and if a big data mode is adopted for corresponding management, the effect of achieving twice the result with half the effort can be achieved.
Disclosure of Invention
In order to solve the technical problems in the related field, the invention provides a big data processing type distribution state analysis platform which can obtain the actual area of the area to be monitored and the number of the advertising boards therein in time, so that the distribution density of the advertisements in each urban area can be effectively estimated, and meanwhile, the intelligent level of the invention is improved by a data processing mode of a big data network end and a combined advertising board body judgment mechanism of geometric shape and semantic characteristics.
Among them, the present invention needs to have the following three important points:
(1) estimating the actual area of the ground area shot by the shooting mechanism based on the imaging visual angle of the shooting mechanism and the height of the shooting mechanism from the ground;
(2) calculating the distribution density of the advertisements in the ground area and reporting the distribution density to a city management server in time based on the actual area of the ground area shot by a shooting mechanism and the number of the billboard bodies distributed in the ground area so as to provide valuable reference data for the planning of a city manager;
(3) and a processing mode of a big data network end is adopted, so that the efficiency and the reliability of data processing are improved, wherein the identification of the billboard body is judged based on the combination of the geometric characteristic and the semantic characteristic of the billboard body.
According to an aspect of the present invention, there is provided a big data processing type distribution state analysis platform, including:
the altitude detection equipment is positioned at the bottom of the aircraft and used for determining the current altitude of the area where the aircraft is positioned based on the current GPS coordinates of the aircraft;
the altitude analysis equipment is arranged on the right side of the altitude detection equipment and is used for analyzing the real-time flight altitude corresponding to the air pressure borne by the altitude analysis equipment based on an air pressure detection mode;
The visual field acquisition equipment is connected with a hemispherical camera at the bottom of the aircraft and is used for acquiring the current shooting angle of view of the hemispherical camera;
the big data processing node is respectively connected with the altitude detection equipment, the height analysis equipment and the visual field acquisition equipment through a network; the real-time flight height is subtracted from the current altitude to obtain a field height difference of the aircraft from the ground right below the aircraft, and the ground area shot by the visual field acquisition equipment is estimated based on the field height difference and the imaging visual angle;
the area analysis equipment is used for matching each suspected advertisement rectangular area from the image currently output by the hemispherical camera based on the rectangular geometric shape;
the card body identification device is connected with the area analysis device and is used for executing the following processing to each suspected advertisement rectangular area: performing OCR (optical character recognition) processing on characters in each suspected advertisement rectangular area, and determining the suspected advertisement rectangular area as a confirmed advertisement rectangular area when a word consistent with a certain word in a conventional advertisement word database exists in the recognized character string;
the distribution detection equipment is connected with the board body identification equipment, is also connected with the big data processing node through a network, and is used for calculating the number of advertisement rectangular areas in the image currently output by the hemispherical camera and dividing the number by the ground area to obtain the advertisement density of the region where the aircraft is located;
The data notification equipment is connected with a management center server of a city where the aircraft is located through a network and is used for reporting the advertisement density of the area where the aircraft is located to the management center server;
the big data processing node is further used for storing the conventional advertisement word database, and the conventional advertisement word database stores conventional words of each advertisement;
the card body identification equipment is also connected with the big data processing node through a network;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the numerical value of the field height difference is, the smaller the estimated numerical value of the ground area shot by the visual field acquisition equipment is;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the value of the imaging angle of view is, the smaller the estimated value of the ground area photographed by the visual field acquiring device is.
The big data processing type distribution state analysis platform is simple in structure, convenient and practical. Due to the adoption of a customized billboard volume density analysis mechanism and a signal processing mechanism of a big data network end, the reliability and effectiveness of billboard volume density detection in any area of a city are improved.
Drawings
Embodiments of the invention will now be described with reference to the accompanying drawings, in which:
fig. 1 is an application scenario diagram of a big data processing type distribution state analysis platform according to the present invention.
Fig. 2 is a block diagram illustrating a structure of a big data processing type distribution status analysis platform according to a first embodiment of the present invention.
Fig. 3 is a block diagram illustrating a structure of a big data processing type distribution status analysis platform according to a second embodiment of the present invention.
Detailed Description
Embodiments of the big data handling distributed state analysis platform of the present invention will be described in detail below with reference to the accompanying drawings.
Currently, in the development process of a city, although a city planner carries out construction planning of each region during initial construction of the city, a state of disordered development is presented to the later stage of construction and development, for example, different countries and regions have corresponding requirements on the density and uniformity of a city billboard body, and the disordered development state of the billboard body conflicts with the requirements.
In order to overcome the defects, the invention builds a big data processing type distribution state analysis platform, and can effectively solve the corresponding technical problem.
Fig. 1 is an application scenario diagram of a big data processing type distributed state analysis platform of the present invention, and the technical content of the present invention will be further embodied by using one or more embodiments.
< first embodiment >
Fig. 2 is a block diagram illustrating a structure of a big data processing type distribution state analysis platform according to an embodiment of the present invention, where the platform includes:
the altitude detection equipment is positioned at the bottom of the aircraft and used for determining the current altitude of the area where the aircraft is positioned based on the current GPS coordinates of the aircraft;
the altitude analysis equipment is arranged on the right side of the altitude detection equipment and is used for analyzing the real-time flight altitude corresponding to the air pressure borne by the altitude analysis equipment based on an air pressure detection mode;
the visual field acquisition equipment is connected with a hemispherical camera at the bottom of the aircraft and is used for acquiring the current shooting angle of view of the hemispherical camera;
the big data processing node is respectively connected with the altitude detection equipment, the height analysis equipment and the visual field acquisition equipment through a network; the real-time flight height is subtracted from the current altitude to obtain a field height difference of the aircraft from the ground right below the aircraft, and the ground area shot by the visual field acquisition equipment is estimated based on the field height difference and the imaging visual angle;
The area analysis equipment is used for matching each suspected advertisement rectangular area from the image currently output by the hemispherical camera based on the rectangular geometric shape;
the card body identification device is connected with the area analysis device and is used for executing the following processing to each suspected advertisement rectangular area: performing OCR (optical character recognition) processing on characters in each suspected advertisement rectangular area, and determining the suspected advertisement rectangular area as a confirmed advertisement rectangular area when a word consistent with a certain word in a conventional advertisement word database exists in the recognized character string;
the distribution detection equipment is connected with the board body identification equipment, is also connected with the big data processing node through a network, and is used for calculating the number of advertisement rectangular areas in the image currently output by the hemispherical camera and dividing the number by the ground area to obtain the advertisement density of the region where the aircraft is located;
the data notification equipment is connected with a management center server of a city where the aircraft is located through a network and is used for reporting the advertisement density of the area where the aircraft is located to the management center server;
the big data processing node is further used for storing the conventional advertisement word database, and the conventional advertisement word database stores conventional words of each advertisement;
The card body identification equipment is also connected with the big data processing node through a network;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the numerical value of the field height difference is, the smaller the estimated numerical value of the ground area shot by the visual field acquisition equipment is;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the value of the imaging angle of view is, the smaller the estimated value of the ground area photographed by the visual field acquiring device is.
< second embodiment >
Fig. 3 is a block diagram illustrating a structure of a big data processing type distribution state analysis platform according to an embodiment of the present invention, where the platform includes:
the dust measuring instrument is arranged near the card body identification equipment and used for measuring the dust concentration of the environment where the card body identification equipment is located;
the altitude detection equipment is positioned at the bottom of the aircraft and used for determining the current altitude of the area where the aircraft is positioned based on the current GPS coordinates of the aircraft;
the altitude analysis equipment is arranged on the right side of the altitude detection equipment and is used for analyzing the real-time flight altitude corresponding to the air pressure borne by the altitude analysis equipment based on an air pressure detection mode;
The visual field acquisition equipment is connected with a hemispherical camera at the bottom of the aircraft and is used for acquiring the current shooting angle of view of the hemispherical camera;
the big data processing node is respectively connected with the altitude detection equipment, the height analysis equipment and the visual field acquisition equipment through a network; the real-time flight height is subtracted from the current altitude to obtain a field height difference of the aircraft from the ground right below the aircraft, and the ground area shot by the visual field acquisition equipment is estimated based on the field height difference and the imaging visual angle;
the area analysis equipment is used for matching each suspected advertisement rectangular area from the image currently output by the hemispherical camera based on the rectangular geometric shape;
the card body identification device is connected with the area analysis device and is used for executing the following processing to each suspected advertisement rectangular area: performing OCR (optical character recognition) processing on characters in each suspected advertisement rectangular area, and determining the suspected advertisement rectangular area as a confirmed advertisement rectangular area when a word consistent with a certain word in a conventional advertisement word database exists in the recognized character string;
the distribution detection equipment is connected with the board body identification equipment, is also connected with the big data processing node through a network, and is used for calculating the number of advertisement rectangular areas in the image currently output by the hemispherical camera and dividing the number by the ground area to obtain the advertisement density of the region where the aircraft is located;
The data notification equipment is connected with a management center server of a city where the aircraft is located through a network and is used for reporting the advertisement density of the area where the aircraft is located to the management center server;
the big data processing node is further used for storing the conventional advertisement word database, and the conventional advertisement word database stores conventional words of each advertisement;
the card body identification equipment is also connected with the big data processing node through a network;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the numerical value of the field height difference is, the smaller the estimated numerical value of the ground area shot by the visual field acquisition equipment is;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the numerical value of the imaging visual angle is, the smaller the estimated numerical value of the ground area shot by the visual field acquisition equipment is;
the region analysis equipment, the card body identification equipment and the distribution detection equipment are respectively arranged at different positions of a center console of the aircraft.
Next, a detailed configuration of the big data processing type distribution status analysis platform according to the present invention will be further described.
The big data processing type distribution state analysis platform further comprises:
and the concentration analysis equipment is connected with the dust measuring instrument and used for sending out a concentration alarm instruction when the received dust concentration exceeds the limit.
The big data processing type distribution state analysis platform further comprises:
and the alarm execution equipment is connected with the concentration analysis equipment and is used for executing corresponding alarm operation when receiving the concentration alarm instruction.
In the big data processing type distribution state analysis platform:
the alarm execution equipment is a buzzer and is used for sending out buzzing sound with preset frequency when corresponding alarm operation is executed.
In the big data processing type distribution state analysis platform:
the alarm execution device is a voice playing chip and is used for playing a corresponding alarm file when corresponding alarm operation is executed.
In the big data processing type distribution state analysis platform:
the alarm execution device is a display device and is used for displaying corresponding alarm characters when corresponding alarm operation is executed.
In addition, the network adopted by the data notification equipment is a wireless communication network based on frequency division duplex.
Frequency division duplexing means that uplink and downlink transmissions are made on different frequencies, respectively. In the first and second generation cellular systems, FDD technology is basically used for duplex transmission. In particular, in the first generation cellular systems, since continuous baseband signals are transmitted, duplex uplink and downlink channels must be provided using different frequencies. In the first generation cellular systems, in which FDD is used for continuous information transmission, frequency synthesizers for generating different carrier frequencies are required at both the transmitting and receiving ends, and a duplex filter for preventing the transmission signal from leaking to the receiver is required at the receiving end. In addition, in order to facilitate the fabrication of the duplexer, a certain frequency interval is required between the transmission and reception carrier frequencies. In the second generation of systems such as GSM, IS-136 and IS-95, FDD technology IS also used. In these systems, since the information is transmitted in time slots, the transmission and reception can be performed in different time slots, and the transmission signal of the mobile station or the base station does not interfere with the receiver. So, despite the FDD technique employed, no expensive duplex filters are required.
The FDD mode is characterized by receiving and transmitting in two symmetric frequency channels separated (190 MHz between uplink and downlink frequencies), and separating the receiving and transmitting channels by guard bands.
By adopting the technologies of packet switching and the like, the bottleneck of the second generation development can be broken through, the high-speed data service can be realized, the frequency spectrum utilization rate can be improved, and the system capacity can be increased. FDD must provide third generation services using paired frequencies, i.e., within a bandwidth of every 2x5 MHz. The mode can fully utilize the uplink and downlink frequency spectrums when supporting the symmetric service, but the frequency spectrum utilization rate is greatly reduced (about 40 percent of the frequency spectrum utilization rate is reduced due to low uplink load) when the asymmetric packet switching (Internet) works, and in this regard, the TDD mode has incomparable advantages compared with the FDD mode.
Those of ordinary skill in the art will understand that: all or part of the steps for implementing the method embodiments may be implemented by hardware related to program instructions, and the program may be stored in a computer readable storage medium, and when executed, the program performs the steps including the method embodiments; and the aforementioned storage medium includes: Read-Only Memory (ROM), Random Access Memory (RAM), magnetic or optical disk, and other various media capable of storing program codes.
Finally, it should be noted that: the above embodiments are only used to illustrate the technical solution of the present invention, and not to limit the same; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions depart from the scope of the technical solutions of the embodiments of the present invention.
Claims (9)
1. A big data handling distributed state parsing platform, the platform comprising:
the altitude detection equipment is positioned at the bottom of the aircraft and used for determining the current altitude of the area where the aircraft is positioned based on the current GPS coordinates of the aircraft;
and the altitude analysis equipment is arranged on the right side of the altitude detection equipment and is used for analyzing the real-time flying altitude corresponding to the air pressure borne by the altitude analysis equipment based on the air pressure detection mode.
2. The big data processing distributed state resolution platform of claim 1, wherein the platform further comprises:
and the visual field acquisition equipment is connected with the hemispherical camera at the bottom of the aircraft and is used for acquiring the current imaging visual angle shot by the hemispherical camera.
3. The big data processing distributed state resolution platform of claim 2, wherein the platform further comprises:
the big data processing node is respectively connected with the altitude detection equipment, the height analysis equipment and the visual field acquisition equipment through a network; the real-time flight height is subtracted from the current altitude to obtain a field height difference of the aircraft from the ground right below the aircraft, and the ground area shot by the visual field acquisition equipment is estimated based on the field height difference and the imaging visual angle;
the area analysis equipment is used for matching each suspected advertisement rectangular area from the image currently output by the hemispherical camera based on the rectangular geometric shape;
the card body identification device is connected with the area analysis device and is used for executing the following processing to each suspected advertisement rectangular area: performing OCR (optical character recognition) processing on characters in each suspected advertisement rectangular area, and determining the suspected advertisement rectangular area as a confirmed advertisement rectangular area when a word consistent with a certain word in a conventional advertisement word database exists in the recognized character string;
the distribution detection equipment is connected with the board body identification equipment, is also connected with the big data processing node through a network, and is used for calculating the number of advertisement rectangular areas in the image currently output by the hemispherical camera and dividing the number by the ground area to obtain the advertisement density of the region where the aircraft is located;
The data notification equipment is connected with a management center server of a city where the aircraft is located through a network and is used for reporting the advertisement density of the area where the aircraft is located to the management center server;
the big data processing node is further used for storing the conventional advertisement word database, and the conventional advertisement word database stores conventional words of each advertisement;
the card body identification equipment is also connected with the big data processing node through a network;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the numerical value of the field height difference is, the smaller the estimated numerical value of the ground area shot by the visual field acquisition equipment is;
wherein estimating the ground area captured by the view acquisition device based on the field height difference and the imaging view angle comprises: the smaller the value of the imaging angle of view is, the smaller the estimated value of the ground area photographed by the visual field acquiring device is.
4. The big data processing distributed state resolution platform of claim 3, wherein the platform further comprises:
the dust measuring instrument is arranged near the card body identification equipment and used for measuring the dust concentration of the environment where the card body identification equipment is located;
The region analysis equipment, the card body identification equipment and the distribution detection equipment are respectively arranged at different positions of a center console of the aircraft.
5. The big data processing distributed state resolution platform of claim 4, wherein the platform further comprises:
and the concentration analysis equipment is connected with the dust measuring instrument and used for sending out a concentration alarm instruction when the received dust concentration exceeds the limit.
6. The big data processing distributed state resolution platform of claim 5, wherein the platform further comprises:
and the alarm execution equipment is connected with the concentration analysis equipment and is used for executing corresponding alarm operation when receiving the concentration alarm instruction.
7. The big data processing distributed state resolution platform of claim 6, wherein:
the alarm execution equipment is a buzzer and is used for sending out buzzing sound with preset frequency when corresponding alarm operation is executed.
8. The big data processing distributed state resolution platform of claim 6, wherein:
the alarm execution device is a voice playing chip and is used for playing a corresponding alarm file when corresponding alarm operation is executed.
9. The big data processing distributed state resolution platform of claim 6, wherein:
the alarm execution device is a display device and is used for displaying corresponding alarm characters when corresponding alarm operation is executed.
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| CN202010153927.4A CN111861534A (en) | 2020-03-07 | 2020-03-07 | Big data processing type distribution state analysis platform |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN117408751A (en) * | 2023-12-15 | 2024-01-16 | 江西时刻互动科技股份有限公司 | Multi-channel advertisement delivery management method |
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Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN117408751A (en) * | 2023-12-15 | 2024-01-16 | 江西时刻互动科技股份有限公司 | Multi-channel advertisement delivery management method |
| CN117408751B (en) * | 2023-12-15 | 2024-04-09 | 江西时刻互动科技股份有限公司 | Multi-channel advertisement delivery management method |
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