TWM525505U - Region disastrous presentation device - Google Patents

Description

Regional disaster presentation device

The present invention relates to an image presentation device, and more particularly to a device that can present a disaster score of a real estate in a heat map manner.

Internet marketing has become a new tool for real estate developers, especially real estate developers, to improve product visibility. Many homeowners offer a variety of different pages on their portals so that users can view real estate items on sale online. For example, residential, office buildings and other information, as the subject of purchase or rental.

Most people will carefully consider the disasters near their geographical location when purchasing real estate, but usually only based on rules of thumb, such as hillsides, to inquire about local residents. However, the hillsides do not necessarily have the threat of earth and stone flow, and the neighbors may not only live long enough, have not encountered serious natural disasters, and often have "have been so severe for the first time in 30 years."

Natural disasters such as earthquakes, typhoons and floods have characteristics such as low frequency of occurrence, high uncertainty, wide range of influence and loss, and events such as earthquakes, typhoons and floods are natural phenomena, such as soil liquefaction. Occurs, it is difficult to achieve absolute blocking with the existing technology, but there are still some scientific inferred potentials for reference.

That is, based on a large amount of historical disaster loss data, and computer software with sophisticated and large mathematical calculation and numerical analysis mode, to simulate the occurrence of various disasters, and calculate the possible damage range and loss, thus providing natural disasters. Potential map.

Although there are many government public information that can easily find the potential of natural disasters in a certain area, as well as past historical records, but for home buyers, they have to compare one by one, it is too much trouble, too tired.

The purpose of this creation is to provide a new regional disaster presentation device to solve the above-mentioned lack of conventional technology. Applicants are particularly interested in researching a new device that can directly display the disaster categories in a specific geographical area on the map data. The heat map, in order to facilitate the user to view the map data, can also use the heat map of the disaster score as a reference for selecting the real product. That is to say, when the user selects the area of the object to be searched, the present invention displays the map data (usually a street map) of the area, not only shows the location of each object, but also directly displays the designation. The heat map of the disaster score. Through the display of the heat map, the user can directly judge the distance of each object in the specific map data from the center of the heat map, and the level of disaster damage of the disaster category. That is, if the heat map index of the disaster category of interest to the user is low, the user can directly consider giving up the search for the real estate in the specific geographical area and replacing the geographical area to be searched.

In order to achieve the above object, the present invention provides a regional disaster presentation device, a regional disaster presentation device, and the presentation device includes a processing module, a communication module, and a database processing. The processing module extracts specific map data, a specific second geographic location, a specific disaster category thermal visual element, and utilizes the specific geographic area in the user input obtained by the communication module. The communication module outputs the specific map data, the specific second geographic location, and the specific disaster category thermal visual element to the user terminal, and the processing module maps the specific map material, the specific second geographic location, And the thermal visual element of the particular hazard category is processed to become the first display material that can be displayed on a display module. Wherein, when the disaster potential and the disaster history exist simultaneously in the same first geographical location, the disaster category score of the first geographic location is determined according to an influence weight.

The "regional disaster presentation device" provided by this creation can directly display the score of the disaster in a specific geographical area on the map data in the form of thermal visual elements, so that the user can consider the disaster score heat map on the map data. At the time of the disaster hazard represented by the disaster category, the distance between each immovable product and the thermal visual element can be simultaneously evaluated. In this way, users can target both location and disaster scores on the same screen. Filter all the objects in the area to confirm what you want.

1‧‧‧Processing module

2‧‧‧Database

2-3‧‧‧Search results

21‧‧‧Map data

21’‧‧‧Specific map information

221 to 226‧‧‧Removable parts

3‧‧‧ Terminal equipment

31‧‧‧Input module

3-2‧‧‧User input

32‧‧‧Display module

320‧‧‧ screen

33‧‧‧Communication module

4‧‧‧Internet

5‧‧‧Thermal Table

51‧‧‧first color, first pattern

52‧‧‧Second color, second pattern

53‧‧‧ third color, third pattern

54‧‧‧fourth color, fourth pattern

55‧‧‧ fifth color, fifth pattern

C-heat-1 to C-heat-4‧‧‧Disaster category thermal visual elements 1 to 4 belonging to disaster category C

E-heat‧‧‧Disaster category thermal visual element 1 belonging to disaster category E

1 is a schematic diagram of a data sheet of a real product; FIG. 2A is a schematic diagram of an embodiment of a thermal diagram of the creation; FIG. 2B is a schematic diagram of another embodiment of the thermal diagram of the creation; FIG. 2C is a heat of creation FIG. 2D is a schematic diagram of another embodiment of the thermal map of the present invention; and FIG. 2E is a schematic diagram of still another embodiment of the thermal map of the present invention.

The following describes the embodiments of the "regional disaster presentation device" of the present application. Please refer to the attached drawings, but the actual configuration and the method adopted do not have to completely conform to the described content. Those skilled in the art can Various changes and modifications are made without departing from the actual spirit and scope of the case.

FIG. 1 is a schematic diagram of an embodiment of a rendering device of the present invention. The present invention provides a regional disaster presentation device, wherein the terminal device 3 includes a processing module 1, an input module 31, a display module 32, and a communication module 33. The architecture includes a processing module 1 configured to process a user input 3-1 and generate a first display information 1-3; and a database 2, a plurality of map data, a plurality of real product data, and a plurality of The disaster potential or/and one of the multiple disaster histories, and the multiple disaster categories that are summarized in the complex disaster potential or/and multiple disaster histories. Among them, the disaster potential refers to the possibility of disasters and the severity after the occurrence, and the disaster history is the disaster that has occurred in the past period of time.

The database 2 is usually a simple data storage device, such as a cloud database, and the terminal device 3 having the processing module 1 can be said to be a mobile communication device such as a mobile phone, a tablet computer, a notebook computer, or It is a fixed facility such as a desktop computer. The disaster data stored in the database also includes a plurality of disaster potentials and/or disaster histories belonging to disaster category A (A001 to A003), and the complex disaster categories summarized by the complex disaster potential or/and multiple disaster histories. (23A to 23C) contains a considerable number of categories, such as disaster category A, and information on the various disaster potentials and/or disaster histories (A001 to A003) also includes thermal vision for each disaster potential or/and disaster history. element. The disaster category includes categories A, B, and C, which can be understood as 23A, 23B, and 23C, and also disaster categories such as earthquakes, typhoons, and floods.

To put it simply, the rendering device of this creation works mainly when the processing module 1 receives the user input and processes it as a search. The instruction 3-2 is transmitted to the database 2 through the communication module 33, and the database 2 returns a search result 2-3 to the communication module 33, and then converted into a display information by the processing module 1 and The display module 32 is displayed.

Specifically, the user input 3-1 includes selecting a specific map material from the plurality of map materials, and the user can also specify one of the specific disaster categories, and if not specified, all the disaster categories. It should be noted that the selection of a specific map material described herein is generally, but not limited to, selecting a geographic area on a map material list, for example, selecting Taipei City in the county list, and in the list under the Taipei city, For Wenshan District, the designation of a specific disaster category is usually, but not limited to, selecting one of the categories on a disaster category form (not shown). Please refer to FIG. 2A, wherein FIG. 2A is a schematic diagram of an embodiment of a thermal diagram of the creation.

The processing module 1 extracts a specific map data and a specific second geographic location in the database 2 according to the specific geographic area in the user input 3-2 obtained by the communication module 33. Positioning, a specific disaster category thermal visual element, and using the communication module 33 to output the specific map data, the specific second geographic location, and the specific disaster category thermal visual element to the user terminal, and the processing module The particular map material, the particular second geographic location, and the particular disaster category thermal visual element are processed to become the first display material that can be displayed on a display module 32.

For example, based on the specific map material (such as Wenshan District as described above) and the specific disaster category, a geographic location of a plurality of specific immovable products (such as 221 to 226 in FIG. 2A) located in the specific map data is searched for. The thermal visual elements (C-heat-1 and C-heat-2) of the disaster category are shown in Fig. 2A. Since the disaster category C is selected, the thermal visual element belonging to the disaster category C is shown in Fig. 2A. C-heat. The geographic location described herein is directly indicated on the street map of FIG. 2A with the name or label of each particular immovable product component, meaning that the location of the name or label represents the location of each particular immovable product component.

The processing module 1 receives and processes the specific map data from the database 2, the geographic location of the plurality of specific immovable products (the location of numbers 221 to 226 in FIG. 2A), and the thermal visual elements of the specific disaster category (ie, thermal power) A visual element C-heat) to generate the first display material including the specific map material ', the plurality of specific immovable product pieces geographic locations (221 to 226), and the thermal visual element C-heat.

As can be seen from FIG. 2A, the specific disaster category score (hazard category C) is displayed in a heat map manner for each disaster location or/and disaster history location belonging to disaster category C, and further, it is heat Graphical disaster category scores to indicate the level of hazard for a selected hazard category.

If the disaster potential and the disaster history exist in the same geographical location, the disaster category score of the first geographic location is determined according to the influence weight to reasonably adjust the disaster category score. For example, if the disaster category C is a flood, the disaster potential may be assessed based on the terrain level, and floods may have occurred in the same place, and the disaster history can be obtained from the database 2. However, after the floods have occurred, even if the original conditions of the topography have not changed, the local government will Set up pumping stations and other means to control the incidence of floods. Therefore, it is decided that the disaster category score is not based solely on the disaster potential or disaster history. It should be adjusted with the concept of weight between the two.

That is to say, before the lack of flood control facilities or flood control facilities in a certain area, the frequency and severity of disaster potential and disaster history should be very close, but if disasters occur, they have already occurred. At this time, the impact weights can be It is 30:70. After the flood control facilities are not completed, the probability of recurrence of floods will decrease, but it may still be due to flood control facilities failures, such as pumping stations being down, and disasters occur again, so the impact of disaster potential becomes larger, and the impact of disaster potential and disaster history at this time The sexual weight can be 70:30. It is important to note that in order to allow the user to make adjustments according to actual conditions (such as the construction progress of flood control facilities), the influence weights can be adjusted, and it is not necessarily the system that is determined to die.

Please continue to see Figure 2A. In order to make a reasonable score, different disaster potentials and/or disaster histories each have a predetermined weight (not shown), and occupy a certain proportion in the same type of disaster potential or/and disaster history. The weight value can be 1 to 5, 1 to 10, or 1 to 100 to distinguish the scores of individual disaster potentials or/and disaster histories. However, since the thermal visual elements of this case are displayed in color, it is not appropriate to cause too many colors to have similar colors, and it is easy to confuse people and make mistakes in the scores represented by different colors, so generally only five to six Colors such as red, orange, yellow, green, blue, and purple. For the same reason, usually for color blindness, the convenience of people with color weakness, or for monochrome screens, when using lines, lines, and patterns as thermal visual elements, it is not appropriate to use too many types, and try to be in a way that is in line with human intuition. Rows, such as densely-patterned thermal visual elements, indicate high heat, while sparse ones indicate low heat, or, for example, high cross-lines indicate high heat, cross-lines are small, or only one-way lines indicate low heat. Directional lines are sparsely arranged or drawn in dashed lines to indicate lower heat. Therefore, please refer to FIG. 2A, in which the right side discloses a heat meter 5, which is also arranged to put the color or pattern representing high heat (ie, the highest score) on top, and the lower one is placed below. Here is a description of the pattern.

Therefore, it can be seen from the heat meter 5 that the crossover cable represents the highest heat, followed by the upper right and lower left oblique lines, followed by the upper left and lower right oblique lines, followed by the upper right and lower left oblique lines, and finally the dots. Therefore, it can be seen that the thermal visual element C-heat-1 having the lower left side in the specific geographical area 21' has the highest thermal value, and the thermal visual element C-heat-2 above the upper right side has a lower thermal value. If you distinguish by color, there are two habits, one is in the order of red, orange, yellow, green, and blue, and the other is in the order of blue, green, yellow, orange, and red. In the case of the user's habits, the case is red, orange, yellow, green, and blue. The crossover cable represents red, followed by the upper right and lower left oblique lines for orange, followed by the upper left and lower right. The diagonal line represents yellow, followed by the upper right and lower left diagonal lines for green, and finally the dot for blue. Therefore, when the color is used to represent the level of the thermal value, the thermal value of the thermal visual element C-heat-1 in the lower left portion of the specific geographical area 21' is represented by the highest red color, and the thermal visual element C- of the upper right side is the upper right side. The heat value of heat-2 is presented in a lower orange color. If another habit according to the above is used, the thermal value is a reverse arrangement and will not be described here.

The number of conventional technologies is mostly based on the number of disaster potentials and/or disasters. As a standard of disaster heat value, however, this creation pays more attention to the magnitude, strength and weakness of disaster hazards in various disaster potentials and/or disaster history. Taking floods as an example, it can be distinguished by daily rainfall of 300mm, 500mm and 600mm.

Please refer to FIG. 2B , which is a schematic diagram of another embodiment of the thermal diagram of the present creation. Generally, all the contents are almost the same as those of FIG. 2A. However, the magnitude of the thermal value of FIG. 2B is distinguished by the size of the thermal visual element, that is, the area of the thermal visual element C-heat-3 is larger, and the thermal visual element C is The area of -heat-4 is small. In addition, it should be noted that another feature of FIG. 2B represents the same type of disaster in the same color or pattern. If another type of disaster is to be displayed on the display screen 320, it is represented by a different color or pattern. This will be explained in detail in Figure 2D. In addition, the display screen 320 presented by the specific map material of FIG. 2A and FIG. 2B is merely simplified. In fact, in the street map enlarged in a high scale as shown in FIG. 2A and FIG. 2B, it is highly probable that the user will be Wenshan. The display screen 320 presented after the map of the area is partially enlarged. Of course, the user can also move the display screen 320 to the left or right to observe other small-scale data in the specific map data, but the focus of the map zooming and the screen moving is not described here.

Please refer to FIG. 2C, which is a schematic diagram of still another embodiment of the present invention. It discloses that the geographic location of the disaster potential or/and the disaster history (C231, C232) belonging to the disaster category C is displayed on the specific map data, that is, the communication module 33 (please cooperate with FIG. 1) not only according to the specific geographic region. With this particular hazard category, a specific disaster category thermal visual element is extracted from the database 2, and includes a geographic location in the database 2 and a specific disaster potential or/and disaster history. Please refer to Figure 2A, Figure 2B, because Keeping the schema concise, the schema with the geographic location indicating the disaster potential or/and the disaster history is presented in Figure 2C, but in actual use, the disaster potential or/and disaster history (C231, C232) can be used. The indication is superimposed on the thermal visual elements of the disaster (C-heat-1 to C-heat-4). Alternatively, the user can switch back and forth in a manner of switching screens to determine the actual location of each disaster potential or/and disaster history belonging to the particular disaster category C.

Please refer to FIG. 2D, which is a schematic diagram of still another embodiment of the heat map presentation of the present invention. The user input further includes one of the specific disaster categories to be specified, in FIG. 2D, the disaster category E, and the communication module 33 (please cooperate with FIG. 1) according to the disaster category E, from the database 2 (please cooperate Figure 1) The internal vision extracts a thermodynamic visual element of another specific hazard category, in Figure 2D, the thermal visual element E-heat. Among them, different colors or patterns are used to distinguish from other types of disasters. Taking FIG. 2D as an example, the thermal visual element E-heat represents the disaster category E with oblique lines on the upper left and lower right. In terms of color, it is assumed that the upper right lower left oblique line of the thermal visual elements (C-heat-3 and C-heat-4) represents orange, and the upper right and lower right oblique lines of the thermal visual element E-heat represent It is green. Usually, when the user specifies another specific disaster category, the device of the present invention is separately displayed on one screen. In FIG. 2D, the thermal value of the disaster category C is not displayed. Of course, if the user wants both to be on the same screen. Displayed as shown in Figure 2D. In this way, the user can easily see the thermal values of two or more disaster categories simultaneously in one screen. However, if too many disaster categories are selected and displayed at the same time, the picture may be too messy. Therefore, the device in this case is usually preset to let the user compare by switching the screen, and when performing this function, There will be reminder text on the screen (not shown) to let the user know that the thermal values and their distribution status of different disaster categories can be compared by switching. In addition, the different areas of the thermal visual elements (C-heat-3 and C-heat-4) in FIG. 2D represent different thermal values. Please refer to FIG. 2B and its description for this point, and details are not described herein again.

Please refer to FIG. 2B and its description. As mentioned before, FIG. 2B shows the magnitude of the thermal value in terms of the area of the thermal value and the size of the size. However, in practice, the different thermal values can be expressed by the depth of the color. In the case of color depth, it is assumed that the upper right lower left oblique line of the thermal visual elements (C-heat-3 and C-heat-4) represents orange, and the smaller thermal visual element C-heat-4 It is a small thermal value, actually it is light orange on the screen. However, since the depth of the color is difficult for some people to recognize, because each person's sensory acuity is different, the manner of distinguishing the magnitude of the thermal force in the foregoing embodiments is still the display mode preset by the device of the present invention, and the depth is shallow. To indicate the magnitude of the thermal value is a different method that the user can choose. In the same way, different types of disasters can also be represented by different patterns, and the respective thermal values are solved by the density of the pattern. For example, taking the point shape of the thermal value table 5 of FIG. 2A as an example, it is assumed that the dot represents a certain For a category of disasters, high-density dots indicate high heat values, while low-density indicates low heat values. However, depending on the resolution of the actual screen used and the influence of ambient light, the density is differentiated by the pattern density. The way in which the thermal value is high or low is not the expression of the thermal value preset by the device in this case, but only as an expression that the user can additionally choose.

Please refer to Figure 2E, which is another reality of the creative heat map. Schematic diagram of the example. For example, the previous Figure 2A shows the different thermal potential values of different disaster potentials and/or disaster histories under the same disaster category in different colors, and uses them to show the differences in disaster hazards of different disaster potentials or/and disaster histories. In Fig. 2E, the distance of the impact range of the disaster hazard is further expressed by the change of color. There are five colors or patterns in the heat meter 5, and the arrangement is also based on the intuition, placing the color or pattern representing the high heat (ie, the highest score) on top, and the lower one on the bottom. Here, the pattern is described first. As for the logic corresponding to the height of the heat value, please refer to the related description of FIG. 2A, and details are not described herein again.

Therefore, it can be seen from the heat meter 5 that the cross-line of the first pattern 51 represents the highest thermal power, followed by the upper right and lower left oblique lines of the second pattern 52, followed by the upper left and lower right oblique lines of the third pattern 53, and then the fourth. The oblique upper line of the upper right and lower left of the pattern 54 is the dot shape of the fifth pattern 55 at the end. The utility of the geometric value in the form of patterns, lines, lines, shapes, etc., is that it can be used for color blindness and color weakness, and can also be applied to a monochrome screen. If the heat value is distinguished by the color most commonly used in the actual application, the top and bottom patterns of the heat meter 5 respectively represent the first color 51, the second color 52, the third color 53, the fourth color 54, and the fifth. Color 55, this embodiment takes five colors as an example, so if viewed from the spectrum of the rainbow, usually the first color 51 is red, the second color 52 is orange, the third color 53 is yellow, and the fourth color 54 is The green, fifth color 55 is blue. Therefore, it can be seen that the thermal image presented by the first color 51 in the lower left portion of the specific geographical area 21' The thermal element represented by the C-heat-1 element has the highest thermal value, while the thermal visual element C-heat-2 represented by the second color 52 on the upper right side has a lower thermal value.

Of course, users can also arrange the order of the thermal values according to their own habits. Usually, at least two arrangements are provided. The first one is red orange yellow green blue, and the other is blue green yellow orange red. As mentioned above, Figure 2E shows the change of the thermal value due to the change of the gradation. Because the distance is far, the thermal value changes, that is, the farther the distance is, the lower the hazard is, so the center of the thermal visual element C-heat-1 The location (usually the location of the disaster potential or/and the history of the disaster) is represented by a first color 51, then expanded outward to a range of distances to be represented by a second color 52, and so on, and then The third color 53, here the lower the impact of the hazard of the disaster or/and the disaster history, is followed by a fourth color 54 and a fifth color 55.

Similarly, the thermal visual element C-heat-2 having a lower thermal value is represented by the second color 52, so that the outer color expansion is a block of the third color 53, the fourth color 54, and the fifth color 55. As for the part not located in any color block, it means that it is not within the scope of the disaster hazard of the disaster category. Regarding the setting of the distance, a number of concentric circles are drawn centered on the disaster potential or/and the disaster history, and the radius of the concentric circles from the inside to the outside is increased by a fixed length, and of course, different lengths are also possible. To increase the radius of each concentric circle. For example, the circle of the first color 51 is drawn at a radius of fifty meters, and the radius of the circle of the second color 52 to the radius of the circle of the fifth color 55 is gradually increased by one hundred meters. Means that the radius of the circle of the fifth color 55 reaches four hundred and five Ten meters, but this refers to the radius drawn on the map data according to the actual distance, meaning that it is defined by the real estate industry, in the disaster potential or / and the history of the disaster is 450 meters, if the specific geographical area 21' When the actual area is small, or when the display screen 320 is viewed at a higher magnification during user operation, the range of the cover of the heat map may exceed the screen 320 with a higher magnification.

It can be seen that the disaster hazard represented by the heat value of a specific disaster category expressed by the change of color and gradation in this creation can be quickly and intuitively distinguished by a user as the distance is changed. The disaster categories in the geographic area 21' have a higher hazard and lower locations.

The above-described embodiments are merely examples for the convenience of the description, and those skilled in the art will be modified as described above, and are not intended to be protected as claimed.

21’‧‧‧Specific map information

221 to 226‧‧‧Removable parts 221 to 226

320‧‧‧Display information (display screen)

C-heat-1 to C-heat-2‧‧‧Disaster category thermal visual elements 1 to 2 belonging to disaster category C

5‧‧‧Thermal Table

Claims (8)

A regional disaster presentation device includes: a database for storing plural map data, plural real estate pieces, one of a plurality of disaster potentials and/or disaster histories, and the plurality of disaster potentials or/and plurals The category of disasters to which the disaster history is summarized, the information for each disaster potential or/and disaster history, including one of the disaster potential or/and disaster history name, a disaster potential or/and disaster history a geographic location, a disaster category score, and a disaster category thermal visual element corresponding to the disaster category score, each of the real estate component data including a second geographic location of each of the real estate components; a communication module configured to receive a user input of a user terminal, the user input includes a specific geographic area to be searched; a processing module coupled to the database and the communication module, configured to pass the communication module Obtaining the specific geographic area in the user input, extracting a specific map data, a specific second geographic location in the database a specific disaster category thermal visual element, and using the communication module to output the specific map data, the specific second geographic location, and the specific disaster category thermal visual element to the user terminal, and the processing module The map material, the particular second geographic location, and the thermal visual element of the particular disaster category are processed to become the first display material displayable on a display module; wherein the same first geographic location exists simultaneously Have the disaster potential In the case of the potential and the history of the disaster, the disaster category score of the first geographic location is determined according to an influence weight. The device for presenting a regional disaster according to claim 1, wherein the user input further includes one of another specific disaster categories to be specified, and the communication module is based on the other specific disaster category. The library internally extracts another specific disaster category thermal visual element; the communication module outputs the specific map material, the specific second geographic location, and the other specific disaster category thermal visual element, and is received by the processing module; And the processing module processes the specific map material, the specific second geographic location, and the other specific disaster category thermal visual element into a second display material. The apparatus for presenting a regional disaster according to the first aspect of the invention, wherein the processing module superimposes the first display material and the second display material to form a superimposed display material. The regional disaster presenting device according to claim 1, wherein the thermal visual element of the disaster type distinguishes the thermal value of the disaster category by a different color. The regional disaster presenting device according to claim 1, wherein the thermal visual element of the disaster type represents different disaster categories in different colors, and the heat value of the disaster category is distinguished by the depth of the color. A device for presenting a regional disaster as described in claim 1 of the scope of the patent application, wherein The thermal visual elements of this disaster type are expressed in a pattern, and the heat value of the disaster category is distinguished by the density of the pattern. The regional disaster presenting device according to claim 1, wherein the thermal visual element of the disaster type represents different disaster categories by different patterns, and the heat value of the disaster category is distinguished by the density of the pattern. The device for presenting a regional disaster according to claim 1, wherein the communication module extracts a specific disaster category thermal visual element and a specific first geographic location in the database according to the specific geographic region. So that the specific map data, the specific second geographic location, the specific disaster category thermal visual element, and the specific first geographic location are output to the processing module by the communication module; the processing module processes the specific map data The particular second geographic location, the particular disaster category thermal visual element, and the particular first geographic location, such that the first display material further includes the particular first geographic location.