WO2024021513A1 - 红外智能拍摄方法及装置、红外热成像设备、介质 - Google Patents

红外智能拍摄方法及装置、红外热成像设备、介质 Download PDF

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WO2024021513A1
WO2024021513A1 PCT/CN2022/142597 CN2022142597W WO2024021513A1 WO 2024021513 A1 WO2024021513 A1 WO 2024021513A1 CN 2022142597 W CN2022142597 W CN 2022142597W WO 2024021513 A1 WO2024021513 A1 WO 2024021513A1
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Prior art keywords
shooting
photographed
package
target
task
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PCT/CN2022/142597
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English (en)
French (fr)
Inventor
于盛楠
姜雅蔚
刘宇廷
闫洪一
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烟台艾睿光电科技有限公司
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Publication of WO2024021513A1 publication Critical patent/WO2024021513A1/zh

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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04NPICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N5/00Details of television systems
    • H04N5/30Transforming light or analogous information into electric information
    • H04N5/33Transforming infrared radiation

Definitions

  • the present application relates to the field of infrared image application technology, and in particular to an infrared intelligent shooting method and device, infrared thermal imaging equipment, and computer-readable storage media.
  • infrared inspection systems are used in all walks of life. Collecting infrared image data can not only detect absolute temperature, but also detect relative temperature with higher accuracy.
  • Existing infrared inspection systems often collect infrared image data by taking infrared videos or photos, and then perform defect detection and analysis based on the characteristics of different equipment in different industries.
  • infrared images for similar-looking items is not high, infrared images mainly reflect temperature differences. Therefore, for devices with similar appearances, deep learning and classification through infrared images are limited by the collection distance and collection angle. The accuracy of classification or identification is low and false alarms are prone to occur. Therefore, in fact, it is often necessary to capture a large number of infrared and visible light images of specified equipment according to actual industry needs, and then conduct secondary analysis. In this process, not only the workload of image acquisition is heavy, but also the photographers who complete each shooting task are required. The requirements are high, and the photographer needs to understand each shooting task in advance before operating it, and it is easy to make mistakes.
  • embodiments of the present invention provide an image that can reduce invalid information in images, reduce the amount of calculation and complexity, improve the real-time performance of the system, and can be flexibly applied to inspection scenarios in different industries. Fusion method, device, image processing equipment and computer-readable storage medium.
  • a first aspect of the embodiment of the present invention provides an infrared intelligent shooting method, which is applied to infrared thermal imaging equipment, including:
  • the currently executed target shooting package is determined; wherein the shooting package corresponds to the shooting task information containing multiple objects to be photographed;
  • an infrared intelligent shooting device including:
  • the shooting package switching module is used to determine the currently executed target shooting package based on the selection operation of the shooting package to be selected; wherein the shooting package corresponds to the shooting task information containing multiple objects to be photographed;
  • a strategy generation module configured to determine the shooting path of the object to be photographed included in the shooting task corresponding to the target shooting package according to the shooting task information corresponding to the target shooting package;
  • An execution module configured to switch the object to be photographed based on the shooting path, display the shooting prompt information of the current object to be photographed in the shooting interface, and save the respectively collected image data of the object to be photographed according to the corresponding storage strategy .
  • an infrared thermal imaging device including a processor, a memory connected to the processor, and a computer program stored on the memory and executable by the processor, where the computer program is When executed by the processor, the infrared intelligent photography method described in any embodiment of the present application is implemented.
  • a computer-readable storage medium is provided.
  • a computer program is stored on the computer-readable storage medium.
  • the computer program is executed by the processor, the infrared intelligence as described in any embodiment of the present application is implemented. Photography method.
  • the infrared intelligent shooting method provided in the above embodiment forms a shooting package according to the shooting task information.
  • the infrared thermal imaging device supports selecting the target shooting package from the candidate shooting packages, and determines the shooting path through the shooting task information corresponding to the target shooting package.
  • the objects to be photographed are switched sequentially according to the shooting path.
  • the photographer can sequentially collect the image data of each object to be photographed according to the set shooting path.
  • the infrared thermal imaging equipment will collect the image data of the objects to be photographed respectively according to the corresponding Storage strategy is used for saving.
  • corresponding shooting task information can be configured for different application scenarios.
  • One shooting task information corresponds to form a shooting package and determine a shooting path. The photographer can only follow the shooting path and the shooting path provided by the infrared thermal imaging equipment.
  • the infrared smart shooting device, infrared thermal imaging equipment and computer-readable storage media belong to the same concept as the corresponding infrared smart shooting method embodiments, and thus have the same technical effects as the corresponding infrared smart shooting method embodiments. I won’t go into details here.
  • Figure 1 is a schematic diagram of an application scenario of the infrared intelligent shooting method in an embodiment
  • Figure 2 is a schematic diagram of an application scenario of the infrared intelligent shooting method in another embodiment
  • Figure 3 is a schematic diagram of an application scenario of the infrared intelligent shooting method in yet another embodiment
  • Figure 4 is a flow chart of an infrared intelligent photography method in an embodiment
  • Figure 5 is a schematic diagram of a photography package display page in an embodiment
  • Figure 6 is a flow chart of an infrared intelligent photography method in another embodiment
  • Figure 7 is a schematic diagram of task configuration information in an embodiment
  • Figure 8 is a schematic diagram of the shooting interface in an embodiment
  • Figure 9 is an implementation architecture diagram of an infrared intelligent photography method in an embodiment
  • Figure 10 is a flow chart of an optional specific example of a mid-infrared intelligent shooting method
  • Figure 11 is a schematic diagram of an infrared intelligent shooting device in an embodiment
  • Figure 12 is a schematic structural diagram of an infrared thermal imaging device in an embodiment.
  • first, second, and third involved are only used to distinguish similar objects and do not represent a specific ordering of objects. It is understandable that “first, second, and third” are used in Where appropriate, the specific order or sequence may be interchanged so that the embodiments of the application described herein can be implemented in an order other than that illustrated or described herein.
  • FIG. 1 is a schematic diagram of an optional application scenario of the infrared smart photography method provided by the embodiment of the present application, in which the infrared thermal imaging device 10 is connected to the network and communicates with the cloud 20 in the wide area network.
  • the infrared thermal imaging device 10 may refer to a device with an infrared image data collection function, such as an infrared thermal imaging camera, a handheld thermal imaging thermometer, an infrared aiming device, etc.
  • the infrared thermal imaging device 10 is a handheld infrared device that can have two or more functions of infrared image data collection, white light image data collection, low-light image data collection, and multi-light fusion image data collection.
  • the image data may include at least one of the following: pictures, videos, and reports containing pictures.
  • the infrared thermal imaging device 10 can download the shooting task information from the cloud 20.
  • the shooting task information can include multiple shooting tasks.
  • One shooting task information corresponds to a shooting package.
  • the infrared thermal imaging device 10 performs the shooting process.
  • the shooting path and storage strategy of the corresponding shooting task are intelligently determined according to the corresponding shooting task information. The photographer can only follow the shooting path provided by the infrared thermal imaging device 10 and sequentially collect image data corresponding to the object to be photographed to complete the shooting task.
  • the infrared thermal imaging device 10 can also be connected to an external storage device 11, such as an SD card, to import shooting task information.
  • the infrared thermal imaging device 10 can import one or more shooting task information at a time to form a shooting package corresponding to the shooting task information.
  • the imported shooting task information can replace or update the already imported shooting package, or it can Store as a new shooting package.
  • the infrared thermal imaging device 10 can also be connected to a mobile terminal 30.
  • the mobile terminal 30 is loaded with a client program that implements the infrared intelligent shooting method provided in the embodiment of the present application.
  • the mobile terminal 30 A configuration page is provided through the client program, and the user performs configuration operations on the configuration page to set shooting task information.
  • the mobile terminal 30 sends the shooting task information to the infrared thermal imaging device 10, and the infrared thermal imaging device 10 intelligently determines the shooting path and storage strategy of the corresponding shooting task according to different shooting task information, and the photographer performs the corresponding shooting task. In the process, it is only necessary to follow the shooting path provided by the infrared thermal imaging device 10 and sequentially collect image data corresponding to the object to be photographed to complete the shooting task.
  • an infrared intelligent shooting method provided by an embodiment of the present application can be applied to the infrared thermal imaging equipment shown in Figures 1 to 3. Among them, the infrared intelligent shooting method includes the following steps:
  • the object to be photographed can be any target used to collect image data. Taking the application of infrared intelligent photography method in the field of industrial inspection as an example, the object to be photographed can be designated industrial equipment. By collecting the image data of the industrial equipment for analysis, the object to be photographed can be analyzed. Realize defect detection and analysis of this industrial equipment.
  • a shooting task usually includes the need to collect image data of multiple objects to be photographed.
  • one shooting task information corresponds to the information of multiple objects to be photographed that require image data collection, and one shooting task information corresponds to a shooting task. Bag.
  • the shooting task information can include multiple attribute characteristics of the object to be photographed. The category and quantity of the attribute characteristics can be configured by the user according to the needs of secondary analysis of image data in different application scenarios.
  • the infrared thermal imaging device may include a shooting package display page.
  • Figure 5 is a schematic diagram of a shooting package display page in an optional example.
  • the selected shooting packages may be displayed in the form of a shooting package list in row order.
  • the user can select one of the shooting packages from the shooting package list as the current target shooting package to be executed.
  • each subject can be distinguished by different highlighting forms (including but not limited to color and icon) to distinguish the currently selected subject, the photographed subject, and the unphotographed subject.
  • each candidate shooting package can be distinguished from the currently selected target shooting package through different highlighting forms, for example, the selected target shooting package can be displayed in different colors.
  • each candidate shooting package can be distinguished by different highlighting forms between the executed shooting package and the unexecuted shooting package, such as the selected target shooting package and the executed shooting package.
  • Unexecuted shooting packages are displayed in different colors. Among them, when performing shooting tasks, shooting package switching is supported. Based on the selection operation of the to-be-selected shooting package, the target shooting package may be determined before a shooting task ends, or after the previous shooting task ends.
  • S103 Determine the shooting path of the object to be photographed included in the shooting task corresponding to the target shooting package according to the shooting task information corresponding to the target shooting package.
  • the shooting path may be generated through an automatic path planning algorithm based on the shooting order or attribute information of each object to be photographed included in the corresponding shooting task.
  • the shooting path is a shooting path that can be modified.
  • the shooting path can also support manual adjustment on the basis of the initially generated shooting path to update the shooting path in real time according to actual conditions on site; it can also refer to shooting task information.
  • the infrared thermal imaging equipment determines the shooting order of each object to be photographed based on the data of the attribute characteristic of priority; it can also mean that the shooting task information contains the attribute characteristics corresponding to the location of the device, and the infrared thermal imaging equipment
  • the imaging device calculates the shooting sequence of each object to be photographed based on the data of the attribute characteristic of the device position to reduce the round-trip movement trajectory during the image data acquisition process. Any of the above shooting sequences can be combined with manual switching on this basis, and automatically recorded and updated. It prompts in real time to switch the image data collection object according to the shooting path, and automatically saves the shooting progress, which is convenient and flexible while ensuring that no shots are missed.
  • S105 Switch the object to be photographed based on the shooting path, display the shooting prompt information of the current object to be photographed in the shooting interface, and save the respectively collected image data of the object to be photographed according to the corresponding storage policy.
  • the infrared thermal imaging equipment intelligently switches the objects to be photographed based on the shooting path of each object to be photographed in the corresponding shooting task, and displays the prompt information of the current object to be photographed in the shooting interface.
  • the infrared thermal imaging equipment can be used to switch the objects to be photographed based on the shooting path to complete the collection of image data corresponding to the objects to be photographed in the shooting task.
  • the imaging device saves the respectively collected image data of the object to be photographed according to the corresponding storage policy.
  • the collected image data can be saved in the local memory of the infrared thermal imaging device and reported to the cloud in real time after it is connected to the network; it can also be reported to the cloud in real time when the infrared thermal imaging device is connected to the network.
  • the infrared thermal imaging device can form a shooting package and determine a shooting path corresponding to one shooting task information.
  • the infrared thermal imaging device The objects to be photographed are intelligently switched based on the shooting path of each object to be photographed in the corresponding shooting task, and the prompt information of the current object to be photographed is displayed in the shooting interface.
  • the photographer can only follow the shooting path provided by the infrared thermal imaging equipment to collect images in sequence. It completes the shooting task corresponding to the image data of the object to be photographed. It is simple to operate, can be applied to any scene, and avoids errors. It can improve the convenience of infrared images collected by infrared intelligent shooting equipment for use in inspections in various industries.
  • the process Before saving the respectively collected image data of the object to be photographed according to the corresponding storage policy, the process includes:
  • S104 Determine a storage strategy for corresponding image data of each object to be photographed based on the attribute characteristics of the object to be photographed contained in the photographing task information corresponding to the target photographing package.
  • Determining the storage strategy of the corresponding image data of each object to be photographed according to the photographing task information may refer to extracting at least part of the setting data from the setting data of each object to be photographed included in the photographing task information to form image data corresponding to the object to be photographed. Naming rules for storage.
  • the setting data of each photographed object can be configured by the user according to the actual needs of the attribute characteristics of the object to be photographed.
  • the photographing task information contains the setting data of n attribute characteristics of the object to be photographed, and the storage strategy can be to extract the n attribute characteristics.
  • the setting data is spliced to be stored as the name of the corresponding image data of the object to be photographed; alternatively, the storage strategy can also be to extract one attribute feature from n attribute features or to extract data of several attribute features for splicing.
  • the storage strategy of the image data corresponding to each object to be photographed in the shooting task is intelligently determined, which can support the user to determine the category and quantity of the objects to be photographed contained in the shooting task information, and the attributes contained in each object to be photographed.
  • the types and quantities of features can be configured according to actual application requirements, so that the infrared thermal imaging equipment can intelligently determine the shooting path and storage strategy based on the configured shooting task information, so that the photographer can You only need to follow the shooting path provided by the infrared thermal imaging equipment and sequentially collect the image data corresponding to the object to be photographed to complete the shooting task.
  • the infrared thermal imaging device will collect the image data of the object to be photographed according to the corresponding image generated intelligently based on the shooting task information. After the storage strategy is saved, these image data can be quickly and accurately positioned to the device and collection time to meet the secondary analysis of these image data and achieve the purpose of collecting infrared image data of the object to be photographed for defect detection and analysis. .
  • the information of each object to be photographed in the shooting task information is recorded in the form of a determinant.
  • the first row defaults to the attribute row, and the other rows each correspond to the information of an object to be photographed.
  • the attribute row includes multiple presets. The user can select one or more attributes from the attributes to be selected to configure the current shooting task information, or add new attributes or delete some based on the attributes to be selected. Attribute characteristics, modify some attribute characteristics, etc. to configure a shooting task information, or perform the above configuration for a certain shooting object.
  • the infrared thermal imaging device intelligently determines the shooting path and storage strategy based on the shooting task information, and the photographer only needs to follow the shooting path provided by the infrared thermal imaging device.
  • the image data corresponding to the object to be photographed is collected sequentially to complete the shooting task.
  • the operation is simple and can be applied to any scene.
  • the image data of the object to be photographed is saved according to the storage strategy determined by the shooting task information, thereby ensuring that each shooting task is captured
  • the acquired image data can be quickly and accurately positioned to meet the requirements of secondary analysis rules, which greatly improves the convenience of applying infrared images in inspections in various industries.
  • S104 determining the storage strategy of the corresponding image data of each of the objects to be photographed based on the attribute characteristics of the objects to be photographed contained in the photographing task information corresponding to the target photographing package, includes:
  • the photographing task information According to the attribute characteristics of the object to be photographed contained in the photographing task information, extract a plurality of preset data of the attribute characteristics and splice them together to form the storage name of the corresponding image data of each of the objects to be photographed; or,
  • splicing is performed based on the data of at least one selected attribute characteristic or the number of selected attribute characteristics to form each of the objects to be photographed.
  • the storage name of the corresponding image data
  • step S105 the collected image data of the object to be photographed are saved according to the corresponding storage strategy, including:
  • the respectively collected image data of the object to be photographed is stored in a folder established based on the target photographing package according to the corresponding storage name.
  • the description of each object to be photographed may include data of multiple attribute characteristics.
  • the storage strategy of the corresponding image data of the object to be photographed may be to extract and splice the data of these attribute characteristics to form an image corresponding to the object to be photographed.
  • the storage name of the image data formed by the data splicing of these attribute characteristics can completely and comprehensively describe the identity of each object to be photographed. It can not only achieve accurate one-to-one correspondence with the object to be photographed, but also be very precise. It is helpful to extract the required field information according to the analysis needs when using these image data for secondary analysis.
  • the storage strategy for the corresponding image data of the object to be photographed can also be to select some attribute features from the shooting task information, and the storage name of the image data formed by data splicing of the selected partial attribute features to support the user according to the actual situation.
  • the storage strategy of the image data of the object to be photographed is customized according to the needs of the application scenario.
  • the image data collected during the execution of each shooting package is stored in a corresponding folder, and each image data collected sequentially according to the shooting path is saved according to the storage name determined based on the shooting task information, that is, It simplifies the execution difficulty of the shooting task, and makes the image data collection and storage of each object to be photographed in the shooting task accurate and orderly.
  • the infrared thermal imaging device supports custom configuration of shooting task information, and supports determining the storage name of the corresponding image data based on the attribute characteristic data of each object to be photographed in the custom-configured shooting task information.
  • the storage name of image data is closely related to the rules for subsequent secondary analysis of image data. In this way, infrared thermal imaging equipment can be easily utilized after shooting a large amount of infrared and visible light image data of designated equipment in various industries. Image data is used for defect detection and analysis purposes.
  • S101 before determining the currently executed target shooting package based on the selection operation of the selected shooting package, includes:
  • Get shooting task information containing multiple objects to be photographed
  • a shooting task usually includes the need to collect image data of multiple objects to be photographed.
  • one shooting task information includes information about multiple objects to be photographed that require image data collection.
  • Each shooting task information can include the same batch of objects to be photographed that require image collection.
  • the description information for each object to be photographed can include data values of multiple attribute features.
  • the categories and quantities of attribute features can be determined by the user according to different applications.
  • the need for secondary analysis of image data in the scene is configured by itself, so that the storage strategy of the corresponding image data can be obtained based on these attribute characteristics.
  • these image data can It can be quickly and accurately positioned to the device, corresponding acquisition time, etc., thereby ensuring that the image data collected in each shooting task can be quickly and accurately positioned to meet the rules of secondary analysis.
  • the obtaining of shooting task information containing multiple objects to be photographed includes:
  • the shooting task information Import the shooting task information from the cloud, mobile terminal or storage device, and obtain the final shooting task information according to the configuration adjustment operation of the selected shooting task information in the configuration page; wherein the shooting task information is obtained by the to-be-shot It is obtained by configuring multiple set attribute characteristics of the object.
  • Attribute characteristics refer to different attribute fields used to describe the object to be photographed.
  • One attribute characteristic corresponds to an attribute category of the object to be photographed. It is configured through the set attribute characteristics of the object to be photographed and is limited according to the data value corresponding to the attribute characteristic.
  • An object to be photographed for example, the set attribute characteristics include device name, voltage, current, position, etc., by configuring the data values corresponding to the attribute characteristics of the object to be photographed, such as device name, voltage, current, and position, to obtain Shooting mission information.
  • the infrared thermal imaging equipment imports shooting task information from the cloud, mobile terminal or storage device, and forms a shooting package with one shooting task information and stores it locally in the infrared thermal imaging equipment.
  • the shooting task includes collecting image data of m objects to be photographed, and setting corresponding n attribute characteristics for each object to be photographed. data value.
  • the infrared thermal imaging device imports shooting task information from the cloud, mobile terminal or storage device.
  • Each shooting task information corresponds to a shooting package and is stored locally on the infrared thermal imaging device.
  • the user can select the shooting package to edit the shooting task information. Adjust the configuration items.
  • the display screen of the infrared thermal imaging device will display a configuration page containing various data in the shooting task information.
  • the user can adjust the shooting task information in the configuration page. , such as deleting an object to be photographed, adding an object to be photographed, deleting an attribute feature, adding an attribute feature, modifying the order of objects to be photographed, etc., according to the selected shooting task in the configuration page
  • the information configuration adjustment operation is performed to obtain the final shooting task information.
  • the infrared thermal imaging device can support importing shooting task information from the cloud, mobile terminal or storage device, supports users' more personalized needs for configuring shooting tasks, and facilitates full coverage of various application scenarios.
  • the infrared thermal imaging equipment imports the shooting task information from the cloud, mobile terminal or storage device, it supports the user to make local adjustments. For example, during the execution of a certain shooting task, the user can delete, add or modify according to the current real-time needs.
  • Shooting task information, infrared thermal imaging equipment intelligently adjusts the shooting path and storage strategy based on the modified shooting task information based on real-time needs. It is not only simple to operate, but also can meet various flexible needs and reduce errors.
  • the embodiments of the present application greatly It improves the flexibility of usage scenarios of infrared thermal imaging equipment and greatly reduces the cost of customizing a large number of single thermal imaging cameras to meet multiple application scenarios.
  • the obtaining of shooting task information containing multiple objects to be photographed includes:
  • the attribute characteristics include at least one of the following: name attributes, location attributes, and work parameter attributes.
  • the shooting task information is imported into the infrared thermal imaging device in the form of a configuration file.
  • the format of the configuration file can be but is not limited to excel, txt and other file formats.
  • a configuration file corresponds to the configuration data of multiple set attribute characteristics of multiple objects to be photographed included in a shooting task, and the infrared thermal imaging equipment forms a shooting package with a configuration file.
  • the name attribute can be the device name, device encoding, etc.
  • the location attribute may refer to relative position information relative to the shooting starting point, such as coordinate information with the shooting starting point as the origin.
  • the working parameter attributes may include information such as the rated working voltage and rated working current of the device.
  • the infrared thermal imaging device can obtain the information corresponding to the application scenario according to the editing operation of the device attribute name, number of attributes and number of devices included in the application scenario.
  • the corresponding shooting task information forms a configuration file containing the shooting task information.
  • the user can edit the corresponding configuration file on the computer according to the attribute names, number of attributes, and number of devices required by the actual scene, thereby setting different shooting packages.
  • the device attribute names in different configuration files can be the same. Can be different.
  • the number of device attributes in different configuration files can be the same or different.
  • Users can modify different configuration files to meet the needs of different usage scenarios.
  • the configuration files can be excel, txt files and other formats that are easy for users to modify. In this way, the same infrared thermal imaging device can achieve full coverage of multiple scenarios and usage scenarios. It is more flexible and greatly reduces the cost of customizing thermal imaging camera equipment to adapt to specific scenarios.
  • the obtaining of shooting task information containing multiple objects to be photographed includes:
  • the photographing task information including the multiple objects to be photographed is obtained.
  • the infrared thermal imaging device is loaded with a client program that implements the infrared intelligent shooting method provided in the embodiment of the present application.
  • a configuration page is provided through the corresponding client program to support the user in completing the configuration of shooting task information locally on the infrared thermal imaging device.
  • the configuration page can display the setting items corresponding to multiple preset attribute characteristics, which is convenient for the user to add the object to be photographed in the configuration page, select the setting item of the object to be photographed and input the corresponding data value to perform the configuration operation, and obtain Contains shooting task information for multiple objects to be photographed.
  • Different shooting task information is usually configured accordingly according to the shooting needs in different application scenarios.
  • Infrared thermal imaging equipment can set multiple attributes of multiple objects to be photographed in the same application scenario based on the user's configuration page. Through the feature configuration operation, a shooting task information corresponding to the application scenario is obtained.
  • the infrared thermal imaging device supports the user to configure the shooting task locally, which is convenient for meeting special scenarios such as no network.
  • the infrared thermal imaging device implements the infrared intelligent shooting method to perform the shooting task and ensures that the captured information is collected during the shooting task.
  • the image data can be quickly and accurately positioned to meet the requirements of secondary analysis rules, which greatly improves the convenience of applying infrared images in inspections in various industries.
  • S103 determine the shooting path of the object to be photographed included in the shooting task corresponding to the target shooting package according to the shooting task information corresponding to the target shooting package, including:
  • the shooting task information corresponding to the target shooting package and based on the order or attribute information of each object to be photographed contained in the shooting task information, determine the shooting path of the shooting task corresponding to the target shooting package;
  • the adjustment configuration operation includes at least one of the following: adjusting the selected object to be photographed Delete operations, add operations to add objects to be photographed, modification operations to modify objects to be photographed, and adjustment operations to adjust the order of objects to be photographed.
  • the infrared thermal imaging device can receive one or more shooting task information and store each shooting task information as a corresponding shooting package.
  • the user can select the corresponding target shooting package to run according to the current shooting task to be executed.
  • the infrared thermal imaging device determines the objects included in the corresponding shooting task based on the order of multiple objects to be photographed in the shooting task information.
  • the shooting path of the object to be photographed is optionally, for the target shooting package, in the process of determining the shooting path according to the order of multiple objects to be photographed in the corresponding shooting task information.
  • the adjustment configuration operation can be for the selected objects to be photographed.
  • Deletion operations new operations of adding objects to be photographed, modification operations of objects to be photographed, adjustment operations of adjusting the order of objects to be photographed, adjustments to the photographing order of objects to be photographed included in the shooting task information Operations, etc.; the infrared thermal imaging device can update the shooting path corresponding to the shooting task according to the adjustment configuration operation.
  • the new operation of adding an object to be photographed may be a copy operation of copying the object to be photographed, and the new operation is implemented based on copying and adjusting the information of the existing object to be photographed, so as to simplify the operation.
  • the adjustment and configuration operation of the shooting task information can be performed before the execution of the corresponding shooting package.
  • the user can adjust the shooting task information corresponding to the shooting package locally on the infrared thermal imaging device; also It can be during the execution of the corresponding shooting package. For example, the user can temporarily add or delete objects to be photographed according to the on-site conditions during the shooting process.
  • thermal imaging cameras are configured by customizing the properties of the equipment to be detected. Each thermal imaging camera can only meet a specific application scenario. It can be used during the shooting process. Equipment can be added flexibly according to the needs of actual application scenarios. When the physical location of the equipment to be detected changes or there are temporary obstacles during the shooting process, it is also easy to flexibly change the shooting sequence according to the actual situation.
  • Infrared thermal imaging equipment can import shooting packages through various channels. It can import one or more shooting packages at a time. It can selectively delete the imported shooting packages. It can modify the name of the imported shooting packages, and it can also modify the imported shooting packages. Imported shooting packages can be edited. For example, users can import shooting packages through various channels such as cloud download, task distribution or SD card. After importing, they can replace, update and upgrade previously imported shooting packages. Users can selectively delete the imported shooting package on the infrared thermal imaging device through the operation interface provided by the client program, modify the name of the imported shooting package, or modify the objects to be photographed contained in a certain shooting package. Add, delete, modify, and check the device attributes and device names; the infrared thermal imaging device updates the shooting package in real time according to the user's adjustment and configuration operations of the shooting package.
  • the infrared thermal imaging device intelligently determines the shooting path of the target shooting package through freely configured shooting task information and real-time updated shooting task information. During the execution of the shooting package, the infrared thermal imaging device follows the corresponding shooting path.
  • the prompt information of the current object to be photographed is displayed in sequence in the shooting interface to guide the user to follow the corresponding prompt information to align the infrared thermal imaging device with the corresponding object to be photographed to collect image data.
  • the infrared thermal imaging device will collect the image data. Save according to the corresponding storage strategy.
  • the storage strategy includes storing the image data of each object to be photographed in a designated location and naming it according to the rules that meet the preset requirements, so that it can be quickly and accurately positioned during subsequent secondary analysis of the image data. , realizes the use of image data to detect and analyze defects in equipment, and improves the convenience of applying infrared images in inspections in various industries.
  • the object to be photographed is switched based on the photographing path, the shooting prompt information of the current object to be photographed is displayed in the photographing interface, and the image data of the object to be photographed respectively collected is stored accordingly.
  • Strategies are saved, including:
  • the shooting interface can display the shooting prompt information of the current object to be photographed in real time.
  • the shooting prompt information can be determined according to the attribute characteristics of the object to be photographed in the shooting task information. For example, Including the name and location of the object to be photographed, it is convenient for the user to know which device is currently being photographed according to the shooting prompt information in the shooting interface, and collect the image data of the corresponding device through the infrared thermal imaging device; the infrared thermal imaging device will After the image data collected by the current object to be photographed is saved according to the corresponding storage policy, it is automatically switched to the next object to be photographed according to the shooting path, so that the shooting prompt information of the next object to be photographed is displayed in the shooting interface to facilitate the user according to the
  • the shooting prompt information in the shooting interface replaces the current device to be photographed, and the image data of the replaced device is collected through infrared thermal imaging equipment.
  • the infrared thermal imaging device will store the image data collected from the current object to be photographed according to the
  • the infrared thermal imaging device can detect the completion of the shooting task, for example, according to the target shooting Check the stored image data in the corresponding folder to see if there are any missing objects to be photographed, and determine whether re-shooting or re-shooting is needed.
  • the objects to be photographed that are determined to need re-shooting or re-shooting can be displayed in the shooting interface.
  • Reminder information the user can choose whether to perform a re-shooting or re-shooting operation immediately.
  • the shooting prompt information corresponding to the object to be photographed that needs to be re-shot or re-photographed will be displayed in the shooting interface, and the user will follow the shooting prompt information.
  • the infrared thermal imaging device when the infrared thermal imaging device performs the corresponding shooting task for each shooting package, it intelligently determines the shooting path, and sequentially prompts the objects to be photographed in the shooting interface according to the shooting path, and guides the user to follow the shooting path.
  • the shooting prompt information is used to perform the action of image collection of the corresponding device.
  • the issuer and executor of the shooting task can be relatively separated, the operation is simple, and errors can be avoided.
  • switching to the next object to be photographed in sequence includes:
  • the adjustment configuration operation includes at least one of the following: adjusting the selected object to be photographed. Deletion of objects, operation of adding objects to be photographed, adjustment operation of adjusting the order of objects to be photographed, reshooting operation of re-photographing the objects to be photographed, and ignoring some objects to be photographed. Perform a skip operation for shooting;
  • the shooting path is updated according to the adjustment configuration operation, and the next object to be photographed is switched based on the updated shooting path.
  • the adjustment configuration operation can be the deletion operation of the selected object to be photographed, or the addition of a new object to be photographed. Add operation, adjust the order of each object to be photographed, reshoot operation to re-photograph the object to be photographed, skip operation to ignore the shooting of some objects to be photographed, etc., infrared thermal imaging equipment
  • the shooting path is updated in real time according to the adjustment configuration operation. When the image data collection of the current object to be photographed is completed, it is judged in real time whether there is an update to the shooting path. If so, the next object to be photographed is determined according to the real-time updated shooting path.
  • the system can perform path planning based on the manual/automatic switching operation to generate a more reasonable shooting sequence; It also includes a switching mode that combines manual and automatic: after the current subject is photographed, it will automatically jump to the next unphotographed subject. During the shooting process, you can manually switch to any subject to be photographed, and the manually switched subject will be photographed. After completion, starting from the manually switched object to be photographed, it will automatically switch to the next object to be photographed. When reaching the last object to be photographed, a test will be performed to see whether all shooting tasks have been completed. You can decide whether to take additional shots based on the test results. Retake or end shooting. The combination of manual and automatic switching modes makes the shooting sequence more flexible.
  • the infrared thermal imaging equipment supports the user to adjust the shooting task in real time according to the conditions encountered in the actual application process, updates the shooting path in real time, and completes shooting according to the updated shooting path in a timely manner. task, easy to operate, and able to meet shooting needs in various emergencies.
  • displaying the shooting prompt information of the current object to be photographed in the shooting interface includes:
  • the reference image of the current object to be photographed is determined, and the identification of the current object to be photographed and the shooting position indication information generated based on the reference image are displayed in the shooting interface ;or,
  • the reference image of the current object to be photographed is determined, and the identification of the current object to be photographed and the image generated based on the reference image are displayed in the shooting interface.
  • Shooting location indication information is displayed in the shooting interface.
  • the infrared thermal imaging equipment can also determine the reference image of the object to be photographed based on the historical shooting records of the same shooting task, and determine the shooting location indication information of the current object to be photographed based on the reference image of the object to be photographed.
  • the shooting position indication information is displayed as one of the shooting prompt information.
  • the shooting position indication information may include a region of interest (ROI) prompt box of the current object to be photographed, and the user can adjust the shooting distance, angle, etc.
  • ROI region of interest
  • the key identification parts can be effectively identified in the collected image data, improving the quality of the image data collected from the subject to be photographed, and more in line with the requirements of subsequent secondary analysis.
  • the identification of the object to be photographed may be a device name, a device number, etc., which is information that can facilitate the user to identify the identity of the current object to be photographed.
  • the infrared thermal imaging device includes a calibration working mode.
  • the user can choose to turn on the infrared thermal imaging device to perform a shooting task in the calibration working mode, and the images obtained by shooting the task in the calibration working mode will be The data is used as the historical shooting record of the reference image when the shooting task is subsequently executed again.
  • infrared thermal imaging equipment can perform a shooting task for the shooting package corresponding to a certain shooting task that needs to be performed cyclically. After an expert or experienced person selects a calibration working mode, the infrared thermal imaging equipment will calibrate the shooting task. The image data of each object to be photographed obtained in the working mode is used as a reference image.
  • the reference image is used to generate shooting position indication information.
  • the personnel who subsequently perform the shooting task are guided to follow the shooting position indication.
  • the information is collected to obtain high-quality image data that meets the requirements.
  • the calibration working mode can be an independent working mode, or a known working mode can be selected and repeatedly executed twice to collect the image data of the object to be photographed, which is regarded as a calibration.
  • the reference image is determined. historical shooting records.
  • the infrared thermal imaging device can save the image data collected by each execution of the shooting package as historical shooting records; or import the image data collected by other infrared thermal imaging devices from the cloud, mobile terminal or storage device.
  • Historical image data or it can also be a reference image carried in the shooting task information.
  • the shooting prompt information of the current object to be photographed is displayed in the shooting interface, and a historical shooting record viewing button is also displayed in the shooting interface. The user can click the historical shooting record viewing button to jump to historical image data.
  • the infrared thermal imaging equipment can use the reference image to generate shooting position indication information in the shooting interface, and guide the personnel who subsequently perform the shooting task to collect high-quality image data that meets the requirements based on the shooting position indication information.
  • the above image data includes pictures, videos, reports, etc.
  • the type of image data can be one or more types such as infrared, visible light, low light, near infrared, etc.
  • the infrared thermal imaging equipment displays the shooting prompt information of the current object to be photographed in the shooting interface, including the identification of the object to be photographed and the shooting position indication information.
  • the shooting position indication information can guide the executor of the shooting task to adjust the current shooting position. Shooting direction to collect better quality and meet the requirements of image data.
  • displaying the shooting prompt information of the current object to be photographed in the shooting interface includes:
  • the shooting position guidance information includes: shooting reference distance; and/or,
  • the expansion option of the historical shooting record of the current object to be photographed is displayed in the shooting interface. According to the selection operation of the expansion option, the reference image of the current object to be photographed can be switched and displayed in the shooting interface.
  • the area of interest prompt box can include one or more.
  • the prompt box of the area of interest can be based on the type of the object to be photographed and the parts that need to be focused on during subsequent secondary analysis using image data. set up.
  • the area of interest prompt box can be intelligently generated by the infrared thermal imaging device based on the reference image and displayed on the shooting interface. It also supports users to adjust it in real time according to the actual situation. For example, the user can manually select an area of interest prompt box to enlarge, Zoom out and adjust, or select an area of interest prompt box to move.
  • the shooting position prompt information may include a shooting reference distance; the shooting reference distance may be determined based on the proportional relationship between the imaging size of the object to be photographed in the preview interface and the size of the area of interest prompt box.
  • the shooting position prompt information can also be shooting distance adjustment information, shooting angle adjustment information, etc.
  • the infrared thermal imaging equipment can be equipped with a laser ranging module, through which the distance to the current object to be photographed is measured in real time, combined with the reference
  • the distance adjustment information between the image calculation and the current object to be photographed is displayed in the shooting interface to provide the person performing the shooting task with adjusting the shooting position;
  • the infrared thermal imaging equipment can also be equipped with an attitude sensor to The attitude sensor senses the attitude information of the infrared thermal imaging device, calculates the angle adjustment information between the reference image and the current object to be photographed, such as increasing the angle by 30 degrees, and displays it in the shooting interface to provide the person performing the shooting task with adjusting the shooting position.
  • Figure 8 is a schematic diagram of a shooting interface provided in an optional example. During the execution of a shooting task, the shooting interface displays the identification of the current object to be photographed, the area of interest prompt box, and the shooting location guidance information in real time.
  • the shooting interface provides an expansion option for viewing historical shooting records.
  • switch from the shooting interface to an independent historical shooting record display page. check the historical pictures and videos of the current subject to be photographed, so as to provide the photographer with a reference to adjust the current shooting operation.
  • Using the display page of historical shooting records as an independent method from the current shooting interface not only facilitates users to jump to the viewing page as needed, but also helps users hide reference images in the shooting interface as needed to avoid disturbing the current shooting operation. to interfere with information.
  • the infrared thermal imaging device displays shooting prompt information in the shooting interface through historical shooting records. It can not only provide novices with guidance on shooting angles, shooting equipment, and shooting distances, and shoot correct images or videos; it can also rely on history
  • the record is used as a reference to determine whether there is a fault in the current object to be photographed.
  • the historical shooting records here can be the historical shooting records of the current infrared thermal imaging equipment, or the shooting records of the imported infrared thermal imaging equipment. It not only provides the basis for intelligent shooting for inspection personnel, but also provides real-time detection for inspection personnel. Provides great convenience in case of equipment failure.
  • displaying a prompt box of the area of interest corresponding to the current object to be photographed in the shooting interface also includes:
  • the adjustment operation includes at least one of the following: an operation of selecting the shape of the target prompt box, an operation of moving the area of interest prompt box, an operation of prompting the area of interest The operations of zooming in the frame, reducing the area of interest prompt box, creating a new area of interest prompt box, and deleting the area of interest prompt box;
  • the display state of the region of interest prompt box in the shooting interface is correspondingly changed according to the adjustment operation.
  • the shape, size, quantity, position, etc. of the area of interest prompt boxes all support users to manually adjust according to the needs of actual applications.
  • By displaying the area of interest prompt box as one of the shooting prompts in the shooting interface it can help the photographer to focus on the parts of the object that need attention when collecting image data of the object to be photographed. In order to collect enough clear image data to facilitate subsequent analysis and utilization, it also helps the photographer to quickly find the correct shooting position and shooting angle, compared with the method of adjusting the shooting position and shooting angle based on the outline of the object to be photographed. In terms of operation, it can greatly reduce the difficulty of operation for photographers.
  • the infrared smart photography method further includes:
  • the user can choose to switch the shooting package while the shooting task corresponding to the target shooting package is being executed, or after the shooting task corresponding to the target shooting package is completed.
  • the infrared thermal imaging device can select the number of shooting rounds of the current shooting package after starting to run the shooting package, record the current shooting time, and automatically generate the number of shooting rounds (time) and shooting package Folders with related names are used to store image data collected by smart shooting. Users can generate corresponding folders according to the number of shooting rounds (time) in the folder corresponding to a shooting package to obtain the files of collected image data, or they can replace the last captured image with the latest collected image data file each time. data file. The user can switch to other shooting packages during the shooting process, or after the current shooting package is executed, switch to other shooting packages according to the prompts.
  • the infrared thermal imaging device supports the user to switch the shooting package in real time according to the needs during the execution of the shooting task, so as to enhance the flexibility in facing unexpected situations.
  • the infrared smart photography method further includes:
  • the shooting task corresponding to the currently executed target shooting package is not completed and exits, record the execution progress information of the target shooting package and exit the execution shooting operation of the target shooting package; where the exiting without completing the shooting task includes: Exit by powering off, shutting down the machine, switching shooting task packages, and exiting according to the exit operation;
  • option information of whether to continue execution is provided according to the corresponding execution progress information.
  • the infrared thermal imaging device automatically records the execution progress of the shooting task, so that when the next shooting is started, the user can choose whether to continue based on the execution progress of the shooting task recorded before exiting. shooting task, or reselect a new shooting package as the current target shooting package to be executed.
  • the infrared thermal imaging equipment if it encounters a power outage or shuts down during the process, and when it is turned on again to use smart shooting, it can still retain the last shooting status and continue shooting, which provides great convenience for the photographer to perform the shooting task. .
  • the infrared intelligent shooting method includes:
  • the user can edit the corresponding table on the computer and set up different shooting packages according to the attribute names, number of attributes and number of devices required by the actual scene; the device attribute names in different tables can be the same or different, and the device attributes in different tables can be the same or different.
  • the numbers can be the same or different.
  • Users can modify different tables to meet the needs of different usage scenarios.
  • the tables can be in excel, txt files and other formats that are easy for users to modify.
  • the thermal imager can achieve full coverage of multiple scenes, making the usage scenarios more flexible and greatly reducing the cost of customizing the thermal imager to adapt to specific scenes.
  • the user can select a shooting package for execution, or switch to other shooting packages during the shooting process.
  • Shooting package import users can import shooting packages through various channels; they can also edit the imported shooting packages. You can import one or more shooting packages at a time, selectively delete the imported shooting packages, and modify the name of the imported shooting packages.
  • Multi-channel import can include: importing shooting packages through cloud download, task distribution or SD card. Imported shooting packages can be replaced, updated and upgraded.
  • the editing operations of the shooting package can include: selectively deleting the imported shooting package in the thermal imager, modifying the name of the imported shooting package, or adding device attributes and device names to a certain shooting package. Delete, modify and check operations can generate new shooting packages based on the query results.
  • the preview interface can obtain the relevant information history of the current object to be photographed.
  • Relevant information history records include but are not limited to the name of the object to be photographed, historical infrared pictures/video data, historical visible light pictures/video data, historical low-light pictures/video data, etc. Users can manually or automatically switch to the next object to be photographed based on relevant information history.
  • the switching of the object to be photographed includes: for the imported shooting package, the new infrared intelligent shooting method and device automatically obtains whether the object to be photographed has completed the current round of shooting, and automatically Jump to the next unphotographed object to be photographed; you can manually switch any object to be photographed; you can add objects to be photographed while the shooting package is running; you can copy the object to be photographed; you can delete the object to be photographed; you can modify the object to be photographed; You can exit smart shooting in the event of a power outage, and then power on again to retain the last shooting progress and continue smart shooting; you can retake the shot of the subject to be photographed.
  • the new infrared intelligent shooting methods and devices provide greater flexibility in adding equipment and greater flexibility in shooting sequences.
  • the historical shooting records of the objects to be photographed can be viewed at any time. Through the historical shooting records, novices can be provided with guidance on shooting angles, shooting equipment, and shooting distances.
  • the target prompt box of the object to be photographed is determined and automatically attached to the preview interface.
  • the target prompt box can be adjusted in size and position, can be created and deleted, and the type of the target prompt box can be modified. According to the information of the object to be photographed in the historical record, the size and position of the target prompt box can also be adjusted to reduce the problem of multiple angle finding during the shooting process caused by the fixed outline of the shooting target, which greatly reduces the difficulty of shooting standard pictures or videos. Difficulty.
  • Historical shooting records can be used as a reference to determine whether there is a fault in the current object to be photographed.
  • the historical shooting records can be the historical shooting records of the current thermal imager, or the imported thermal imager historical shooting records, which not only provide the inspection personnel with a basis for intelligent shooting, but also provide the inspection personnel with real-time detection of equipment faults. Great convenience.
  • Editing of objects to be photographed includes: modifying the names of saved device files in batches by selecting the relevant information attributes or time of one or more objects to be photographed according to the relevant information attributes of the objects to be photographed; modifying the relevant information of a single object to be photographed Or the level (importance), modify the name of a single object to be photographed; quickly create a new object to be photographed by copying the relevant information of an object to be photographed; delete an object to be photographed. All editing operations of the objects to be photographed can be saved to the next smart shooting or not.
  • Storage information type settings include: On the thermal imager, the user can set the data type to save the image data of the object to be photographed, which can be: infrared image, visible light image, low-light image, infrared video, visible light video, low-light video, dual light Fusion or multispectral fusion of image or video data; you can choose the saved image format or video format.
  • the setting and saving of device names include: on thermal imaging cameras, the new infrared intelligent shooting methods and devices can batch modify the names of saved device files by selecting one or more device attributes according to the device attributes; individual device files can be modified name; during the smart shooting process, you can view the historical shooting records of the object to be photographed at any time.
  • the historical shooting records can include infrared image data, visible light image data, etc. Through historical shooting records, it can not only provide novices with guidance on shooting angles, shooting equipment, and shooting distances to capture correct images or videos; it can also use historical records as a reference to determine whether the current object to be photographed is faulty.
  • the historical shooting records here can be the historical shooting records of the current thermal imager, or the imported thermal imager historical shooting records, which not only provide the inspection personnel with a basis for intelligent shooting, but also provide the inspection personnel with real-time detection of equipment faults. Provides great convenience.
  • the shooting path is determined and the object to be photographed is intelligently switched. It automatically obtains whether the object to be photographed has completed the current round of shooting, and automatically jumps to the next unphotographed object to be photographed.
  • Any object to be photographed can be manually switched; any object to be photographed can be switched during shooting.
  • the object to be photographed can be added during the running of the package; the object to be photographed can be copied; the object to be photographed can be deleted; the object to be photographed can be modified; after a power outage or other circumstances, the intelligent shooting can be exited, and the last shooting progress can still be retained when the power is turned on again. Take smart shots; you can retake a shot of the subject you've shot.
  • the new infrared intelligent shooting methods and devices provide greater flexibility in adding shooting equipment and greater flexibility in shooting sequences.
  • the historical shooting records can be the historical shooting records of the current thermal imager, or the imported thermal imager historical shooting records, which not only provide the inspection personnel with a basis for intelligent shooting, but also provide the inspection personnel with real-time detection of equipment faults. Great convenience.
  • the ROI prompt box of the object to be photographed can be displayed in real time.
  • the ROI prompt box is automatically attached to the preview interface, and can provide adjustment of size and position, new creation and deletion, and modification of prompt box type;
  • Sixth it supports multiple ways to import shooting packages. You can import shooting packages through various channels, and you can also edit the imported shooting packages. You can import one or more shooting packages at a time, selectively delete the imported shooting packages, and modify the name of the imported shooting packages. You can also add, delete, modify, and check device attributes and device names in a certain shooting package. New shooting packages can be generated based on the query results.
  • the thermal imaging camera can set and save the storage information type and device name of the object to be photographed.
  • the storage name of the image data can be determined based on the customization of the shooting package.
  • this application provides an infrared intelligent shooting device, including: a shooting package switching module 20, used to determine the currently executed target shooting package based on the selection operation of the shooting package to be selected; wherein, The correspondence between the shooting package and the shooting task information containing a plurality of objects to be photographed; the strategy generation module 22 is used to determine, according to the shooting task information corresponding to the target shooting package, all the shooting tasks included in the shooting task corresponding to the target shooting package. Describe the shooting path of the object to be photographed; the execution module 23 is used to switch the object to be photographed based on the shooting path, display the shooting prompt information of the current object to be photographed in the shooting interface, and collect the respectively collected objects to be photographed. The image data is saved according to the corresponding storage policy.
  • the strategy generation module 22 is also configured to determine the target shooting based on the shooting task information corresponding to the target shooting package and based on the order or attribute information of each object to be photographed contained in the shooting task information.
  • the adjustment configuration operation includes at least one of the following : The operation of deleting the selected object to be photographed, the operation of adding the object to be photographed, the modification operation of modifying the object to be photographed, and the adjustment operation of adjusting the order of the objects to be photographed.
  • the execution module 23 is also configured to display the shooting prompt information of the current object to be photographed in the shooting interface based on the shooting path; and store the collected image data of the current object to be photographed according to the corresponding storage strategy. Save; if the image data collection of the current object to be photographed is completed, then switch to the next object to be photographed in sequence, display the shooting prompt information of the next object to be photographed in the shooting interface, and return to the The step of saving the collected image data of the current object to be photographed according to the corresponding storage policy; until the photographing task is completed.
  • the execution module 23 is also configured to determine whether an adjustment configuration operation for the object to be photographed in the target photographing package is received if the image data collection of the current object to be photographed is completed; wherein, the adjustment The configuration operation includes at least one of the following: a deletion operation of the selected object to be photographed, a new operation of adding an object to be photographed, an adjustment operation of adjusting the order of the objects to be photographed, and an operation of adjusting the order of the objects to be photographed. A reshoot operation of re-shooting, and a skip operation of skipping shooting of some objects to be photographed; if so, updating the shooting path according to the adjustment configuration operation, and switching to the next object to be photographed based on the updated shooting path .
  • the policy generation module 22 is also configured to determine the storage of corresponding image data of each of the objects to be photographed based on the attribute characteristics of the objects to be photographed contained in the photographing task information corresponding to the target photographing package. Strategy.
  • the strategy generation module 22 is also configured to extract multiple preset data of the attribute characteristics according to the attribute characteristics of the object to be photographed contained in the photographing task information and splice them to form each of the objects to be photographed.
  • the data is spliced to form the storage name of the corresponding image data of each of the objects to be photographed; the execution module 23 is also used to store the respectively collected image data of the objects to be photographed according to the corresponding storage name. Saved in the folder created based on the target shooting package.
  • the switching module 20 is also configured to determine a new target shooting package according to the received switching operation of switching the currently executed target shooting package, and return the shooting task information corresponding to the target shooting package, The step of determining the shooting path of the object to be photographed included in the shooting task corresponding to the target shooting package.
  • the switching module 20 is also configured to exit, if the shooting task corresponding to the currently executed target shooting package is not completed, record the execution progress information of the target shooting package and exit the execution shooting operation of the target shooting package. ;
  • the situations of exiting without completing the shooting task include: power-off exit, shutdown exit, switching shooting task package exit, exit according to the exit operation; when the next execution of the target shooting package starts shooting, according to the corresponding execution Progress information provides option information on whether to continue execution.
  • the execution module 23 is also configured to display in the shooting interface the identification of the object currently to be photographed and the prompt box of the area of interest corresponding to the current object to be photographed; and/or to display the current object to be photographed in the shooting interface.
  • Shooting position guidance information of the shooting object includes: shooting reference distance; and/or, display the expansion option of the historical shooting record of the current object to be photographed in the shooting interface, according to the selection operation of the expansion option, The reference image of the current object to be photographed can be switched and displayed in the photographing interface.
  • the execution module 23 is also configured to receive an adjustment operation on the area of interest prompt box; wherein the adjustment operation includes at least one of the following: an operation of selecting the shape of the target prompt box, an operation of selecting the area of interest prompt box.
  • the display state of the region of interest prompt box in the shooting interface is correspondingly changed according to the adjustment operation.
  • the execution module 23 is also configured to display the execution progress view option of the target shooting package in the shooting interface, and display the execution progress view option in the shooting interface according to the selected operation of the execution progress viewing option. Different states of each object to be photographed in the target shooting package.
  • the infrared intelligent shooting method of the infrared intelligent shooting device provided by the above embodiment, only the division of the above program modules is used as an example. In practical applications, the above processing can be allocated by Once different program modules are completed, the internal structure of the device can be divided into different program modules to complete all or part of the method steps described above.
  • the infrared smart shooting device provided by the above embodiments and the corresponding infrared smart shooting method embodiments belong to the same concept. Please refer to the method embodiments for the specific implementation process, which will not be described again here.
  • the present application provides an infrared thermal imaging device.
  • Figure 12 is a schematic diagram of an optional hardware structure of the infrared thermal imaging device provided by an embodiment of the present application.
  • the infrared thermal imaging device includes a processor 111, and
  • the memory 112 connected to the processor 111 is used to store various types of data to support the operation of the infrared thermal imaging equipment, and stores a computer program for implementing the infrared thermal imaging method provided by any embodiment of the present application.
  • the steps of the infrared smart photography method provided by any embodiment of the present application are implemented, and the same technical effect can be achieved. To avoid duplication, they will not be described again here.
  • the infrared thermal imaging device includes a display module connected to the processor 111.
  • the display module is used to display various interactive pages during the execution of the infrared intelligent shooting method, such as shooting interfaces, preview images, etc.
  • Embodiments of the present application also provide a computer-readable storage medium.
  • a computer program is stored on the computer-readable storage medium.
  • the computer program is executed by a processor, each process of the above-mentioned infrared intelligent photography method embodiment is implemented, and can achieve The same technical effects will not be repeated here in order to avoid repetition.
  • the computer-readable storage medium is such as read-only memory (ROM), random access memory (RandomAccessMemory, RAM), magnetic disk or optical disk, etc.
  • the methods of the above embodiments can be implemented by means of software plus the necessary general hardware platform. Of course, it can also be implemented by hardware, but in many cases the former is better. implementation.
  • the technical solution of the present invention can be embodied in the form of a software product in essence or the part that contributes to the existing technology.
  • the computer software product is stored in a storage medium (such as ROM/RAM, magnetic disk, optical disk). ), includes several instructions to cause a terminal (which can be an infrared photography device, a mobile phone, a computer, a server, or a network device, etc.) to execute the methods described in various embodiments of the present invention.
  • Non-volatile memory may include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM), or flash memory.
  • Volatile memory may include random access memory (RAM) or external cache memory.
  • RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous chain Synchlink DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM), etc.
  • SRAM static RAM
  • DRAM dynamic RAM
  • SDRAM synchronous DRAM
  • DDRSDRAM double data rate SDRAM
  • ESDRAM enhanced SDRAM
  • SLDRAM synchronous chain Synchlink DRAM
  • Rambus direct RAM
  • DRAM direct memory bus dynamic RAM
  • RDRAM memory bus dynamic RAM

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Abstract

本发明实施例公开一种红外智能拍摄方法及装置、红外热成像设备及计算机可读存储介质,所述方法包括:基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径;基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。

Description

红外智能拍摄方法及装置、红外热成像设备、介质 技术领域
本申请涉及红外图像应用技术领域,尤其是涉及一种红外智能拍摄方法及装置、红外热成像设备、计算机可读存储介质。
背景技术
随着红外技术的发展,红外巡检系统应用于各行各业。采集红外图像数据不仅可以检测绝对温度,在检测相对温度方面的精确度更高。现有的红外巡检系统往往采用拍摄红外视频或照片的方式进行红外图像数据的采集,然后再根据不同行业不同设备的特点进行缺陷检测和分析。
然而,由于红外图像对于外型相似物品的分辨率不高,红外图像主要反映温度的差异,因此对于外形类似的设备,通过红外图像进行深度学习,进行分类,受采集距离、采集角度的限制,分类或者识别的精确度较低,容易存在误报的情况。因此实际上,往往需要根据实际的行业需要拍摄大量的指定设备的红外和可见光图像,然后进行二次分析,这个过程中,不仅图像采集的工作量大,而且对完成每项拍摄任务的拍摄人员的要求较高,拍摄人员需要提前了解每项拍摄任务方可操作,且容易出错。
技术问题
为了解决现有存在的技术问题,本发明实施例提供一种可减少图像中无效信息、减小计算量和复杂度、且可提升系统实时性的、可灵活应用于不同行业场景巡检的图像融合方法、装置、图像处理设备及计算机可读存储介质。
技术解决方案
本发明实施例第一方面,提供一种红外智能拍摄方法,应用于红外热成像设备,包括:
基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;
根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径;
基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
第二方面,提供一种红外智能拍摄装置,包括:
拍摄包切换模块,用于基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;
策略生成模块,用于根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径;
执行模块,用于基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
第三方面,提供一种红外热成像设备,包括处理器、与所述处理器连接的存储器及存储在所述存储器上并可被所述处理器执行的计算机程序,所述计算机程序被所述处理器执行时实现本申请任一实施例所述的红外智能拍摄方法。
第四方面,提供一种计算机可读存储介质,所述计算机可读存储介质上存储有计算机程序,所述计算机程序被所述处理器执行时实现如本申请任一实施例所述的红外智能拍摄方法。
有益效果
上述实施例所提供的红外智能拍摄方法,根据拍摄任务信息对应形成拍摄包,红外热成像设备支持从待选拍摄包中选定目标拍摄包,通过目标拍摄包对应的拍摄任务信息确定拍摄路径,按照拍摄路径依序切换待拍摄对象,拍摄人员可根据设定好的拍摄路径依序采集各个待拍摄对象的图像数据,红外热成像设备将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存,如此,可通过针对不同应用场景配置相应的拍摄任务信息,一个拍摄任务信息对应形成一个拍摄包、确定一条拍摄路径,拍摄人员可仅需按照红外热成像设备提供的拍摄路径和拍摄提示信息,依序采集对应待拍摄对象的图像数据来完成拍摄任务,操作简单,能够适用于任意场景,且避免出错,可以提升通过红外智能拍摄采集设备的红外图像以应用于各行业巡检中的便利性。
上述实施例中,红外智能拍摄装置、红外热成像设备及计算机可读存储介质与对应的红外智能拍摄方法实施例属于同一构思,从而分别与对应的红外智能拍摄方法实施例具有相同的技术效果,在此不再赘述。
附图说明
图1为一实施例中红外智能拍摄方法的应用场景示意图;
图2为另一实施例中红外智能拍摄方法的应用场景示意图;
图3为又一实施例中红外智能拍摄方法的应用场景示意图;
图4为一实施例中红外智能拍摄方法的流程图;
图5为一实施例中拍摄包展示页面的示意图;
图6为另一实施例中红外智能拍摄方法的流程图;
图7为一实施例中任务配置信息的示意图;
图8为一实施例中拍摄界面的示意图;
图9为一实施例中红外智能拍摄方法的实施架构图;
图10为一可选的具体示例中红外智能拍摄方法的流程图;
图11为一实施例中红外智能拍摄装置的示意图;
图12为一实施例中红外热成像设备的结构示意图。
本发明的实施方式
以下结合说明书附图及具体实施例对本发明技术方案做进一步的详细阐述。
除非另有定义,本文所使用的所有的技术和科学术语与属于本发明的技术领域的技术人员通常理解的含义相同。本文中在本发明的说明书中所使用的术语只是为了描述具体的实施例的目的,不是旨在于限制本发明的保护范围。本文所使用的术语“和/或”包括一个或多个相关的所列项目的任意的和所有的组合。
在以下的描述中,涉及到“一些实施例”的表述,其描述了所有可能实施例的子集,但是应当理解,“一些实施例”可以是所有可能实施例的相同子集或不同子集,并且可以在不冲突的情况下相互结合。
在以下的描述中,所涉及的术语“第一、第二、第三”仅仅是区别类似的对象,不代表针对对象的特定排序,可以理解地,“第一、第二、第三”在允许的情况下可以互换特定的顺序或先后次序,以使这里描述的本申请实施例能够以除了在这里图示或描述的以外的顺序实施。
请参阅图1,为本申请实施例提供的红外智能拍摄方法的一可选应用场景的示意图,其中,红外热成像设备10接入网络,与广域网中的云端20通信连接。红外热成像设备10可以是指具备红外图像数据采集功能的设备,如红外热像仪、手持热成像测温仪、红外瞄准设备等。本申请实施例中,红外热成像设备10为手持式红外设备,可兼具红外图像数据采集、白光图像数据采集、微光图像数据采集、多光融合图像数据采集的功能中的两种或两种以上,其中,图像数据可以包括如下至少之一:图片、视频、包含图片的报告。所述红外热成像设备10可从云端20下载拍摄任务信息,拍摄任务信息可以包括多个,一个拍摄任务信息对应一个拍摄包,针对每一拍摄包,红外热成像设备10在执行拍摄过程中,根据对应的拍摄任务信息智能地确定对应拍摄任务的拍摄路径和存储策略,拍摄人员可仅需按照红外热成像设备10提供的拍摄路径,依序采集对应待拍摄对象的图像数据来完成拍摄任务。
可选的,请参阅图2,红外热成像设备10也可以外接存储设备11,如sdcard卡来导入拍摄任务信息。其中,红外热成像设备10可以一次导入一个或多个拍摄任务信息,形成分别与拍摄任务信息对应的拍摄包,导入的拍摄任务信息可以是对已经导入的拍摄包进行替换、更新升级,也可以作为新增的拍摄包进行存储。
可选的,请参阅图3,红外热成像设备10还可以是与移动终端30通信连接,移动终端30中加载有实现本申请实施例中所提供的红外智能拍摄方法的客户端程序,移动终端30通过客户端程序提供配置页面,由用户在配置页面中进 行配置操作来设置拍摄任务信息。移动终端30将拍摄任务信息发送给红外热成像设备10,由红外热成像设备10根据不同的拍摄任务信息,分别智能地确定对应拍摄任务的拍摄路径和存储策略,拍摄人员在执行对应的拍摄任务的过程中,可仅需按照红外热成像设备10提供的拍摄路径,依序采集对应待拍摄对象的图像数据来完成拍摄任务。
请参阅图4,为本申请一实施例提供的红外智能拍摄方法,可以应用于图1至图3所示的红外热成像设备。其中,红外智能拍摄方法包括如下步骤:
S101,基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应。
待拍摄对象可以是任意用于采集图像数据的目标,以红外智能拍摄方法应用于工业巡检领域为例,待拍摄对象可以是指定的工业设备,通过采集该工业设备的图像数据进行分析,以实现对该工业设备的缺陷检测和分析。一次拍摄任务通常包括对多个待拍摄对象的图像数据进行采集的需求,相应的,一个拍摄任务信息对应包含需要进行图像数据采集的多个待拍摄对象的信息,一个拍摄任务信息对应形成一个拍摄包。拍摄任务信息可以包括待拍摄对象的多个属性特征,属性特征的类别、数量等均可由用户根据不同应用场景下对图像数据进行二次分析的需求自行配置。
其中,红外热成像设备可以包括拍摄包展示页面,请参阅图5,为一可选的示例中拍摄包展示页面的示意图,待选拍摄包可以是以拍摄包列表的形式按行依序显示在拍摄包展示页面中,用户可以从拍摄包列表中选取其中一个拍摄包作为当前要执行的目标拍摄包。可选的,拍摄对象展示页中,各拍摄对象可以通过不同突显形式(包含但不仅限于颜色、图标)来区分当前选定的拍摄对象、已拍摄的拍摄对象、未拍摄的拍摄对象。可选的,拍摄包展示页面中,各待选拍摄包可以通过不同突显形式来区分当前选定的目标拍摄包,比如对选定的目标拍摄包采用不同颜色显示。可选的,拍摄包展示页面中,各待选拍摄包可以通过不同突显形式来区分已执行完成的拍摄包、未执行的拍摄包,比如对选定的目标拍摄包、已执行完成的拍摄包、未执行的拍摄包分别采用不同颜色显示。其中,在执行拍摄任务中,支持拍摄包切换。所述基于对待选拍摄包的选定操作,确定目标拍摄包可以是在一个拍摄任务结束之前,也可以是在在先拍摄任务结束之后。
S103,根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径。
拍摄路径可以是根据对应拍摄任务中包含的各待拍摄对象的拍摄顺序或属性信息,通过自动路径规划算法来生成拍摄路径。其中,拍摄路径为可供修改的拍摄路径,如,拍摄路径也可以支持现场根据实际情况,在初始生成的拍摄路径的基础上手动调整来实时更新所述拍摄路径;也可以是指拍摄任务信息中包含优先级对应的属性特征,红外热成像设备根据优先级这一属性特征的数据相应确定各待拍摄对象的拍摄顺序;还可以是指拍摄任务信息中包含设备位置 对应的属性特征,红外热成像设备根据设备位置这一属性特征的数据,以减小图像数据采集过程中的往返运动轨迹来计算各待拍摄对象的拍摄顺序。以上任何一种拍摄顺序都可以在此基础上与手动切换相结合,并自动记录和更新,按照拍摄路径实时提示切换图像数据的采集对象、自动保存拍摄进度,方便灵活的同时确保不漏拍。
S105,基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
针对每一拍摄任务在执行过程中,红外热成像设备基于对应拍摄任务中各待拍摄对象的拍摄路径智能地切换待拍摄对象,在拍摄界面中显示当前待拍摄对象的提示信息,对于拍摄人员而言,即使对拍摄任务的具体情况预先不了解的情况下,也可以通过红外热成像设备基于拍摄路径切换待拍摄对象,来完成对应拍摄任务中各待拍摄对象的图像数据的采集,由红外热成像设备将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。可选的,采集到的图像数据可以保存在红外热成像设备的本地内存,等待入网后及时上报到云端;也可以是在红外热成像设备入网状态下,实时上报到云端。
上述实施例中,可通过针对不同应用场景配置相应的拍摄任务信息,红外热成像设备可以针对一个拍摄任务信息对应形成一个拍摄包、确定一条拍摄路径,在拍摄包执行过程中,红外热成像设备基于对应拍摄任务中各待拍摄对象的拍摄路径智能地切换待拍摄对象,在拍摄界面中显示当前待拍摄对象的提示信息,拍摄人员可仅需按照红外热成像设备提供的拍摄路径,依序采集对应待拍摄对象的图像数据来完成拍摄任务,操作简单,能够适用于任意场景,且避免出错,可以提升通过红外智能拍摄采集设备的红外图像以应用于各行业巡检中的便利性。
在一些实施例中,请参阅图6,所述将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存之前,包括:
S104,根据所述目标拍摄包对应的所述拍摄任务信息中包含的待拍摄对象的属性特征,确定各个所述待拍摄对象的对应图像数据的存储策略。
根据拍摄任务信息,确定各待拍摄对象的对应图像数据的存储策略,可以是指从拍摄任务信息包含的各待拍摄对象的设置数据中,提取至少一部分设置数据以形成对应待拍摄对象的图像数据存储时的命名规则。各拍摄对象的设置数据可以由用户对待拍摄对象的属性特性根据实际需求进行配置得到,如,拍摄任务信息中包含待拍摄对象的n个属性特征的设置数据,存储策略可以是提取n个属性特征的设置数据进行拼接,以作为对应的待拍摄对象的图像数据进行存储的名称;或者,存储策略也可以是从n个属性特征中提取一个属性特征或提取几个属性特征的数据进行拼接,以作为对应的待拍摄对象的图像数据进行存储的名称。基于拍摄任务信息智能地确定对应拍摄任务中各待拍摄对象的 图像数据的存储策略,可以支持用户通过对拍摄任务信息中包含的待拍摄对象的类别、数量、对每一待拍摄对象包含的属性特征的类别、数量,以根据实际应用需求进行配置,使得红外热成像设备可根据配置的拍摄任务信息智能地确定拍摄路径和存储策略,以便于拍摄人员在执行对应的拍摄任务的过程中,可仅需按照红外热成像设备提供的拍摄路径,依序采集对应待拍摄对象的图像数据来完成拍摄任务,红外热成像设备将采集到的待拍摄对象的图像数据按基于拍摄任务信息智能生成的对应存储策略进行保存后,这些图像数据能够被快速地准确定位到所属设备、采集时间,以满足对这些图像数据进行二次分析,达到采集待拍摄对象的红外图像数据以进行缺陷检测和分析的目的。
在一个可选示例中,拍摄任务信息中各待拍摄对象的信息采用行列式形式记载,首行默认为属性行,其它行则每行对应一个待拍摄对象的信息,属性行包括多个预设的待选的属性特征,用户可以在待选的属性特征中选取一个或多个属性特征来配置当前的拍摄任务信息,也可以在待选的属性特征的基础上增加新的属性特征、删除部分属性特征、修改部分属性特征等等,来配置一个拍摄任务信息,或针对某个拍摄对象进行上述配置。
上述实施例中,可通过针对不同应用场景配置相应的拍摄任务信息,红外热成像设备根据拍摄任务信息智能地确定拍摄路径和存储策略,拍摄人员可仅需按照红外热成像设备提供的拍摄路径,依序采集对应待拍摄对象的图像数据来完成拍摄任务,操作简单,能够适用于任意场景,待拍摄对象的图像数据按照由拍摄任务信息确定的存储策略进行保存,从而确保每个拍摄任务中采集到的图像数据能够被快速地准确定位以满足二次分析的规则的要求,大大提升了红外图像在各行业巡检中的应用的便利性。
在一些实施例中,所述S104,根据所述目标拍摄包对应的所述拍摄任务信息中包含的待拍摄对象的属性特征,确定各个所述待拍摄对象的对应图像数据的存储策略,包括:
根据所述拍摄任务信息中包含的待拍摄对象的属性特征,提取多个预设的所述属性特征的数据进行拼接,形成各个所述待拍摄对象的对应图像数据的存储名称;或,
根据所述拍摄任务信息中包含的待拍摄对象的属性特征,基于选定的至少一所述属性特征的数据或选定的多个所述属性特征的数量进行拼接,形成各个所述待拍摄对象的对应图像数据的存储名称;
在步骤S105中,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存,包括:
将分别采集到的所述待拍摄对象的图像数据,按对应的所述存储名称保存于基于所述目标拍摄包建立的文件夹内。
拍摄任务信息中,针对每一待拍摄对象的描述可以包括多个属性特征的数据,待拍摄对象的对应图像数据的存储策略,可以是通过提取这些属性特征的 数据进行拼接形成对应待拍摄对象的图像数据的存储名称,由这些属性特征的数据拼接形成的图像数据的存储名称可以实现完整、全面地描述各待拍摄对象的身份,不仅能够做到与待拍摄对象准确地一一对应,也非常有利于在后续利用这些图像数据进行二次分析时,根据分析需要提取到所需的字段信息。可选的,待拍摄对象的对应图像数据的存储策略,也可以是从拍摄任务信息中选取部分属性特征,通过选取的部分属性特征的数据拼接形成的图像数据的存储名称,以支持用户根据实际应用场景的需求自定义待拍摄对象的图像数据的存储策略。以每一拍摄包在执行过程中采集到的图像数据存储于对应建立的一个文件夹内,并将按照拍摄路径依序采集的各图像数据按照基于拍摄任务信息所确定的存储名称进行保存,即简化了拍摄任务的执行难度,且使得拍摄任务中各待拍摄对象的图像数据采集、保存均准确、有序。
上述实施例中,红外热成像设备支持拍摄任务信息的自定义配置,且支持根据自定义配置的拍摄任务信息中,对各待拍摄对象的属性特征的数据来确定其对应图像数据的存储名称,图像数据的存储名称对于后续利用图像数据进行二次分析的规则紧密相关,如此,使得红外热成像设备应用于实际的各行业中拍摄指定设备的大量红外和可见光图像数据后,可方便地实现利用图像数据进行缺陷检测和分析的目的。
在一些实施例中,所述S101,基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包之前,包括:
获取包含多个待拍摄对象的拍摄任务信息。
一次拍摄任务通常包括对多个待拍摄对象的图像数据进行采集的需求,相应的,一个拍摄任务信息对应包含需要进行图像数据采集的多个待拍摄对象的信息。每一拍摄任务信息可以包括同一批需要进行图像采集的待拍摄对象,针对每一待拍摄对象的描述信息可以包含多个属性特征的数据值,属性特征的类别、数量等均可由用户根据不同应用场景下对图像数据进行二次分析的需求自行配置,以便于根据这些属性特征得到对应图像数据的存储策略,将采集到的待拍摄对象的图像数据按对应存储策略进行保存后,这些图像数据能够被快速地准确定位到所属设备、对应采集时间等,从而确保每个拍摄任务中采集到的图像数据能够被快速地准确定位以满足二次分析的规则。
在一些实施例中,所述获取包含多个待拍摄对象的拍摄任务信息,包括:
从云端、移动终端或存储设备中导入拍摄任务信息;其中,所述拍摄任务信息由对待拍摄对象的多个设定的属性特征进行配置得到;或,
从云端、移动终端或存储设备中导入拍摄任务信息,根据在配置页面中对选定的所述拍摄任务信息的配置调整操作,得到最终的拍摄任务信息;其中,所述拍摄任务信息由对待拍摄对象的多个设定的属性特征进行配置得到。
属性特征是指用于对待拍摄对象进行描述的不同属性字段,一个属性特征对应待拍摄对象的一个属性类别,通过对待拍摄对象的设定的属性特征进行配置,根据属性特征对应的数据值来限定一个待拍摄对象,如,设定的属性特征包括设备名称、电压、电流、位置等,通过对所述待拍摄对象的设备名称、电压、电流、位置这些属性特征对应的数据值进行配置,得到拍摄任务信息。红外热成像设备从云端、移动终端或存储设备中导入拍摄任务信息,以一个拍摄任务信息形成一个拍摄包存储在红外热成像设备本地。使用该红外热成像设备执行拍摄任务时,可从本地的拍摄包列表中,选取当前要执行的拍摄任务对应的拍摄包。请参阅图7,为一可选示例中拍摄任务信息的示意图,该拍摄任务包括对m个待拍摄对象分别进行图像数据的采集,针对每一待拍摄对象分别设置其对应的n个属性特征的数据值。
可选的,红外热成像设备从云端、移动终端或存储设备中导入拍摄任务信息,一个拍摄任务信息对应形成一个拍摄包存储在红外热成像设备本地,用户可以通过选取拍摄包对拍摄任务信息中的配置项进行调整,比如,选定某个拍摄包后,红外热成像设备的显示屏上对应显示包含拍摄任务信息中各项数据的配置页面,用户可以在配置页面中对拍摄任务信息进行调整,比如删除某个待拍摄对象、新增某个待拍摄对象、删除某个属性特征、新增某个属性特征、对待拍摄对象的顺序进行修改等,根据在配置页面中对选定的拍摄任务信息的配置调整操作,得到最终的拍摄任务信息。
上述实施例中,红外热成像设备可支持从云端、移动终端或存储设备中导入拍摄任务信息,支持用户对拍摄任务进行配置的更多个性化需求,便于实现各种应用场景的全覆盖。红外热成像设备从云端、移动终端或存储设备中导入拍摄任务信息后,支持用户在本地进行调整,如用户在执行某个拍摄任务过程中,可以根据当前的实时需求来删除、新增或修改拍摄任务信息,红外热成像设备根据实时需求修改后的拍摄任务信息智能地调整拍摄路径、存储策略,不仅操作简单,且能够满足各种灵活需求,减少出错。
相对于红外巡检技术领域中,已知的通过对待检测设备的属性进行定制化服务来配置热像仪,每台热像仪仅能满足一个特定应用场景的方式而言,本申请实施例大大提升了红外热成像设备的使用场景灵活性,也大大减小了通过大量单台热像仪定制化服务来分别满足多应用场景的成本。
在一些实施例中,所述获取包含多个待拍摄对象的拍摄任务信息,包括:
从云端、移动终端或存储设备中导入拍摄任务信息对应的配置文件,所述配置文件中包含对多个待拍摄对象的多个设定的属性特征的配置数据;
所述属性特征包括如下至少之一:名称属性、位置属性、工作参数属性。
其中,拍摄任务信息以配置文件的形式导入红外热成像设备,配置文件的格式可以是但不限于excel、txt等文件格式。其中,一份配置文件对应一个拍摄任务中包含的多个待拍摄对象的多个设定的属性特征的配置数据,红外热成 像设备以一份配置文件形成一个拍摄包。名称属性可以是设备名称、设备编码等。位置属性可以是指相对于拍摄起点位置的相对位置信息,如以拍摄起点位置为原点的坐标信息。工作参数属性可以包括设备的额定工作电压、额定工作电流等信息。由于不同的拍摄任务信息通常是针对不同应用场景下的拍摄需求来相应配置,红外热成像设备可根据对应用场景包含的设备属性名称、属性数目和设备数目的编辑操作,得到与所述应用场景对应的拍摄任务信息,相应形成包含所述拍摄任务信息的配置文件。
上述实施例中,用户可以在电脑端根据实际场景需要的属性名称、属性数目和设备数目,编辑对应的配置文件,从而设置不同的拍摄包,其中,不同配置文件中的设备属性名称可以相同也可以不同,不同配置文件中的设备属性个数可以相同也可以不同。用户可以修改不同的配置文件以满足不同的使用场景需求,配置文件可以是excel、txt文件等其他便于用户修改的格式,如此,通过同一红外热成像设备即可实现多场景的全覆盖,使用场景更加灵活,大大减少了为了适应特定场景的热像仪设备定制化费用。
在一些实施例中,所述获取包含多个待拍摄对象的拍摄任务信息,包括:
根据在配置页面中对多个待拍摄对象的设定的属性特征进行设置的配置操作,得到包含多个待拍摄对象的拍摄任务信息。
红外热成像设备中加载有实现本申请实施例中所提供的红外智能拍摄方法的客户端程序,通过对应的客户端程序提供配置页面,支持用户在红外热成像设备本地完成拍摄任务信息的配置。其中,配置页面中可以显示预设的多个属性特征对应的设置项,方便用户在配置页面中添加待拍摄对象后,选取该待拍摄对象的设置项输入对应的数据值来进行配置操作,得到包含多个待拍摄对象的拍摄任务信息。不同的拍摄任务信息通常是针对不同应用场景下的拍摄需求来相应配置,红外热成像设备可以根据用户在在配置页面中,对同一应用场景下的多个待拍摄对象的多个设定的属性特征的配置操作,得到与所述应用场景对应的一个拍摄任务信息。
上述实施例中,红外热成像设备支持用户在本地进行拍摄任务的配置,便于满足无网络等特殊场景下,通过红外热成像设备实现红外智能拍摄方法来执行拍摄任务,并确保拍摄任务中采集到的图像数据能够被快速地准确定位以满足二次分析的规则的要求,大大提升了红外图像在各行业巡检中的应用的便利性。
在一些实施例中,S103,根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径,包括:
根据所述目标拍摄包对应的拍摄任务信息,基于所述拍摄任务信息中包含的各待拍摄对象的顺序或属性信息,确定所述目标拍摄包对应的拍摄任务的拍摄路径;
根据接收到的对所述目标拍摄包中待拍摄对象的调整配置操作,更新所述拍摄任务对应的所述拍摄路径;所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、修改待拍摄对象的修改操作、对各待拍摄对象的顺序进行调整的调整操作。
红外热成像设备可以接收一个或多个拍摄任务信息,将每一拍摄任务信息存储为对应的拍摄包。用户可以根据当前要执行的拍摄任务,选定对应的目标拍摄包运行,针对当前运行的目标拍摄包,红外热成像设备根据拍摄任务信息中多个待拍摄对象的顺序,确定对应拍摄任务中包含的所述待拍摄对象的拍摄路径。可选的,针对目标拍摄包,根据对应拍摄任务信息中多个待拍摄对象的顺序确定拍摄路径的过程中,支持用户对拍摄任务信息进行调整,调整配置操作可以是对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、对待拍摄对象的修改操作、对各待拍摄对象的顺序进行调整的调整操作、对拍摄任务信息中包含的待拍摄对象的拍摄顺序进行调整的调整操作等;红外热成像设备可以根据调整配置操作,对所述拍摄任务对应的所述拍摄路径进行更新。其中,增加待拍摄对象的新增操作可以是复制待拍摄对象的复制操作,基于复制已有的待拍摄对象的信息加以调整来实现新增,以简化操作。对拍摄任务信息的调整配置操作,可以是在对应拍摄包的执行之前,比如,红外热成像设备导入拍摄包后,用户可以在红外热成像设备本地对拍摄包对应的拍摄任务信息进行调整;也可以是在对应拍摄包执行过程中,比如,用户可以在拍摄过程中根据现场情况临时的增加或删除待拍摄对象。相对于红外巡检技术领域中,已知的通过对待检测设备的属性进行定制化服务来配置热像仪,每台热像仪仅能满足一个特定应用场景的方式而言,可以在拍摄过程中根据实际应用场景的需求灵活地添加设备,对于拍摄过程中待检测设备的物理位置发生变动或有临时障碍物时也便于根据实际情况灵活地更换拍摄顺序。
红外热成像设备可以通过各种途径导入拍摄包,可以一次导入1个或者多个拍摄包,可以对导入的拍摄包进行选择性的删除操作,可以修改导入的拍摄包的名称,也可以对已经导入的拍摄包进行编辑操作。如,用户可以通过云端下载、任务分发或者sdcard卡等各种途径导入拍摄包,导入后可以对在先已经导入的拍摄包进行替换、更新升级。用户可以在红外热成像设备通过客户端程序提供的操作界面对导入的拍摄包进行选择性的删除操作,可以修改导入的拍摄包的名称,也可以在某个拍摄包中对包含的待拍摄对象的设备属性、设备名称等进行增、删、改、查等操作;红外热成像设备根据用户对拍摄包的调整配置操作实时更新拍摄包。
上述实施例中,红外热成像设备通过自由配置的拍摄任务信息、实时更新的拍摄任务信息智能地确定目标拍摄包的拍摄路径,拍摄包执行过程中,红外热成像设备按照对应的拍摄路径,在拍摄界面中依序显示当前待拍摄对象的提示信息,以指导用户按照对应的提示信息,来将红外热成像设备对准对应待拍摄对象以采集图像数据,红外热成像设备将采集到的图像数据按照对应的存储策略进行保存,存储策略包括将各待拍摄对象的图像数据存储到指定位置并以 满足预设要求的规则命名,以便于后续对图像数据进行二次分析时能够被快速地准确定位,实现利用图像数据对设备进行缺陷检测和分析,提升了红外图像在各行业巡检中的应用的便利性。
在一些实施例中,所述基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存,包括:
基于所述拍摄路径,在拍摄界面中显示当前待拍摄对象的拍摄提示信息;
将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存;
若所述当前待拍摄对象的图像数据采集完成,则依序切换至下一待拍摄对象,在所述拍摄界面中显示所述下一待拍摄对象的拍摄提示信息,返回所述将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存的步骤;
直至所述拍摄任务完成。
红外热成像设备在执行拍摄任务的过程中,拍摄界面中可实时显示当前待拍摄对象的拍摄提示信息,所述拍摄提示信息可以根据拍摄任务信息中对应待拍摄对象的属性特征来确定,如可以包括待拍摄对象的名称、位置等,方便用户根据拍摄界面中的拍摄提示信息来知晓当前要拍摄的是哪个设备,通过红外热成像设备来采集该对应设备的图像数据;红外热成像设备将对当前待拍摄对象采集到的图像数据按对应存储策略进行保存后,按照拍摄路径自动地切换到下一个待拍摄对象,从而在拍摄界面中显示该下一个待拍摄对象的拍摄提示信息,方便用户根据拍摄界面中的拍摄提示信息更换当前要拍摄的设备,通过红外热成像设备来采集该更换后的设备的图像数据,由红外热成像设备将对当前待拍摄对象采集到的图像数据按对应存储策略进行保存;如此往复循环,直至所述拍摄任务完成。
可选的,目标拍摄包对应的拍摄任务完成之前,当进行到拍摄路径中最后一个待拍摄对象的图像数据采集后,红外热成像设备可以对拍摄任务的完成情况进行检测,如,根据目标拍摄包对应的文件夹中已存储的图像数据核对是否存在遗漏的待拍摄对象,确定是否需要进行补拍或重拍,针对确定需要进行补拍或重拍的待拍摄对象,可以在拍摄界面中显示提醒信息,由用户来选定是否立即执行补拍或重拍操作,若是,则在拍摄界面中显示对应需要执行补拍或重拍的待拍摄对象的拍摄提示信息,由用户按照拍摄提示信息来完成补拍或重拍的操作;若否,则可以直接退出当前拍摄任务,将检测到的需要进行补拍或重拍的待拍摄对象的检测结果以文本形式记录在目标拍摄包对应的文件夹中。
上述实施例中,红外热成像设备针对每一拍摄包执行对应拍摄任务的过程中,智能地确定拍摄路径,并按照拍摄路径在拍摄界面中依序提示当前要拍摄的待拍摄对象,指导用户按照拍摄提示信息来执行对相应设备的图像采集的动作即可,拍摄任务的发布者和执行者之间可以相对分离,操作简单、且可避免出错。
在一些实施例中,所述若所述当前待拍摄对象的图像数据采集完成,则依序切换至下一待拍摄对象,包括:
若所述当前待拍摄对象的图像数据采集完成,判断是否接收到对所述目标拍摄包中待拍摄对象的调整配置操作;其中,所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、对各待拍摄对象的顺序进行调整的调整操作、对已执行拍摄的待拍摄对象进行重新拍摄的重拍操作、对部分待拍摄对象忽略执行拍摄的跳过操作;
若是,则根据所述调整配置操作更新所述拍摄路径,基于更新后的所述拍摄路径切换至下一待拍摄对象。
目标拍摄包对应的拍摄任务在执行过程中,支持用户根据实际情况对拍摄任务信息进行实时调整,具体的,调整配置操作可以是对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、对各待拍摄对象的顺序进行调整的调整操作、对已执行拍摄的待拍摄对象进行重新拍摄的重拍操作、对部分待拍摄对象忽略执行拍摄的跳过操作等,红外热成像设备根据调整配置操作对拍摄路径进行实时更新,在当前待拍摄对象的图像数据采集完成时,实时判断是否存在对拍摄路径的更新,若是,则按照实时更新的拍摄路径来确定下一待拍摄对象。如,可以在拍摄包运行过程中手动切换到要拍摄的待拍摄对象,也可以根据历史记录,自动切换到下一个未完成拍摄的待拍摄对象。在拍摄包运行过程中可以查看当前拍摄进度。已经拍摄的设备、正在拍摄的设备、未拍摄的设备可以采用不同的标记。切换包括手动切换模式,当前待拍摄对象拍摄完成后,可以手动选择下一个要拍摄的对象,切换为下一个待拍摄对象;包括自动切换模式,自动根据设备是否已完成智能拍摄的顺序,当前待拍摄对象拍摄完毕后,自动跳转到下一个未拍摄的待拍摄对象,对所有的未拍摄的待拍摄对象,系统可以根据手动/自动的切换操作进行路径规划,生成更为合理的拍摄顺序;还包括手动自动相结合的切换模式:当前待拍摄对象拍摄完毕后,自动跳转到下一个未拍摄的待拍摄对象,拍摄过程中可以手动切换到任意待拍摄对象,手动切换的待拍摄对象拍摄完毕后,从此手动切换的待拍摄对象处开始,自动切换到下一个待拍摄对象,当进行到最后一个待拍摄对象时进行是否完成所有拍摄任务的检测,可以根据检测结果决定是进行补拍、重拍或结束拍摄。手动和自动相结合的切换模式,使得拍摄顺序的灵活度更高。
上述实施例中,红外热成像设备在拍摄任务的执行过程中,支持用户根据实际应用过程中遇到的情况对拍摄任务进行实时调整,实时更新拍摄路径,及时地按照更新的拍摄路径来完成拍摄任务,操作方便,且能够满足各种突发情况下的拍摄需求。
可选的,所述在拍摄界面中显示当前待拍摄对象的拍摄提示信息,包括:
根据所述拍摄任务的选定模式下的历史拍摄记录,确定当前待拍摄对象的 参考图像,在拍摄界面中显示所述当前待拍摄对象的标识、及基于所述参考图像生成的拍摄位置指示信息;或,
根据对当前待拍摄对象的历史拍摄记录的查看和选定操作,确定所述当前待拍摄对象的参考图像,在拍摄界面中显示所述当前待拍摄对象的标识、及基于所述参考图像生成的拍摄位置指示信息。
在设备巡检领域,针对相同设备通常存在周期型进行检测分析的需求,针对同一拍摄任务,可能需要每天定时地进行图像数据采集,为了能够对用户操作红外热成像设备来完成拍摄任务起到更好地指导作用,红外热成像设备还可以根据同一拍摄任务的历史拍摄记录,确定待拍摄对象的参考图像,根据待拍摄对象的参考图像确定当前待拍摄对象的拍摄位置指示信息,在拍摄界面中将拍摄位置指示信息作为拍摄提示信息之一进行显示。可选的,拍摄位置指示信息可以包括当前待拍摄对象的感兴趣区域(ROI)提示框,用户可以根据所述拍摄位置指示信息来调整对待拍摄对象的拍摄距离、角度等,使得当前待拍摄对象的关键识别部位,在采集到的图像数据中能够被有效地识别,提升对待拍摄对象采集到的图像数据的质量,更加符合后续二次分析的要求。待拍摄对象的标识可以是设备名称、设备编号等,能够便于用户能够识别当前待拍摄对象的身份的信息。
在一可选的示例中,红外热成像设备包括标定工作模式,用户可选定在标定工作模式下,开启红外热成像设备执行拍摄任务,并将在标定工作模式下拍摄任务的执行得到的图像数据作为该拍摄任务后续再次执行时,确定参考图像的历史拍摄记录。比如,红外热成像设备可以对某个需要循环执行的拍摄任务对应的拍摄包,由专家或经验丰富的人员选定标定工作模式后,执行一次拍摄任务,红外热成像设备将该拍摄任务在标定工作模式下得到的各待拍摄对象的图像数据作为参考图像,拍摄任务在后续执行时,利用参考图像来生成拍摄位置指示信息在拍摄界面中,指导后续执行拍摄任务的人员根据所述拍摄位置指示信息采集到高质量、符合要求的图像数据。其中,标定工作模式可以是独立的工作模式,也可以是选中一个已知工作模式重复执行两次采集待拍摄对象的图像数据来视为一次标定,作为该拍摄任务后续再次执行时,确定参考图像的历史拍摄记录。
在另一可选的示例中,红外热成像设备可以将拍摄包各次执行采集到的图像数据作为历史拍摄记录进行保存;或从云端、移动终端或存储设备导入的由其它红外热成像设备采集的历史图像数据;或还可以是拍摄任务信息中携带的参考图像。在执行拍摄任务的过程中,拍摄界面中显示当前待拍摄对象的拍摄提示信息,且拍摄界面中还显示有历史拍摄记录查看按键,用户可以点击该历史拍摄记录查看按键来跳转到历史图像数据的显示页面,通过历史图像数据的显示页面中查看当前待拍摄对象的历史图像数据,选取其中的一张或多张历史图像数据作为当前待拍摄对象的参考图像。红外热成像设备可以利用参考图像来生成拍摄位置指示信息在拍摄界面中,指导后续执行拍摄任务的人员根据所述拍摄位置指示信息采集到高质量、符合要求的图像数据。上述图像数据包含 图片、视频、报告等形式。图像数据的类型可以是红外、可见光、微光、近红外等一种或多种类型。
上述实施例中,红外热成像设备在拍摄界面中显示当前待拍摄对象的拍摄提示信息中,包含待拍摄对象的标识、拍摄位置指示信息,通过拍摄位置指示信息可以指导拍摄任务的执行人员调整当前拍摄方位,以便于采集到更质量和符合要求的图像数据。
可选的,所述在拍摄界面中显示当前待拍摄对象的拍摄提示信息,包括:
在拍摄界面中显示当前待拍摄对象的标识、及当前待拍摄对象对应的感兴趣区域提示框;和/或,
在拍摄界面中显示当前待拍摄对象的拍摄位置指导信息,所述拍摄位置指导信息包括:拍摄参考距离;和/或,
在拍摄界面中显示当前待拍摄对象的历史拍摄记录的展开选项,根据对展开选项的选定操作,在所述拍摄界面中可切换显示所述当前待拍摄对象的参考图像。
其中,针对同一待拍摄对象,感兴趣区域提示框可以包括一个或多个,感兴趣区域的提示框可以根据待拍摄对象的类型、以及后续利用图像数据进行二次分析时需要重点排查的部位来设定。感兴趣区域提示框可以由红外热成像设备根据参考图像智能地生成而显示在拍摄界面上,同时支持用户根据实际情况实时的调整,比如,用户可以手动选中某个感兴趣区域提示框进行放大、缩小调整、或选中某个感兴趣区域提示框进行移动。
可选的,拍摄位置提示信息可以包括拍摄参考距离;拍摄参考距离可根据预览界面中待拍摄对象的成像尺寸与感兴趣区域提示框尺寸的比例关系进行确定。拍摄位置提示信息还可以是拍摄距离调整信息、拍摄角度调整信息等,红外热成像设备上可以设有激光测距模块,通过激光测距模块实时测量与当前待拍摄对象之间的距离,结合参考图像计算与当前待拍摄对象之间的距离调整信息,比如需要靠近1米,并显示在拍摄界面中以提供拍摄任务的执行人员调整拍摄位置;红外热成像设备上还可以设有姿态传感器,通过姿态传感器感测红外热成像设备的姿态信息,结合参考图像计算与当前待拍摄对象之间的角度调整信息,比如角度上调30度,并显示在拍摄界面中以提供拍摄任务的执行人员调整拍摄位置。请参阅图8,为一可选示例中所提供的拍摄界面的示意图,拍摄任务执行过程中,该拍摄界面中实时显示当前待拍摄对象的标识、感兴趣区域提示框和拍摄位置指导信息。
可选的,拍摄界面中提供查看历史拍摄记录的展开选项,可以通过点击历史拍摄记录的展开选项以切换到历史拍摄记录的显示页面,如此,从拍摄界面切换到独立的历史拍摄记录显示页面中,查看当前待拍摄对象的历史拍摄的图片、视频,以提供拍摄人员参考来调整当前的拍摄操作。将历史拍摄记录的显示页面作为独立于当前拍摄界面的方式,即有利于用户根据需要跳转到查看页 面,也有利于用户根据需要在拍摄界面中隐藏参考图像,以避免给当前的拍摄操作带来干扰信息。
上述实施例中,红外热成像设备通过历史拍摄记录在拍摄界面中显示拍摄提示信息,不仅可以给新手提供拍摄角度、拍摄设备、拍摄距离的指导,拍摄到正确的图像或者视频;还可以凭借历史记录作为参考依据,判断当前待拍摄对象是否存在故障。这里的历史拍摄记录可以是当前红外热成像设备拍摄的历史拍摄记录,也可以是导入的红外热成像设备的拍摄记录,不仅为巡检人员提供了智能拍摄的依据,也为巡检人员实时检测设备故障提供了极大的便利。
可选的,所述在拍摄界面中显示当前待拍摄对象对应的感兴趣区域提示框,还包括:
接收对所述感兴趣区域提示框的调整操作;其中,所述调整操作包括如下至少之一:选定目标提示框形状的操作、对感兴趣区域提示框进行移动的操作、对感兴趣区域提示框进行放大的操作、对感兴趣区域提示框进行缩小的操作、新建感兴趣区域提示框的操作、对感兴趣区域提示框进行删除的操作;
根据所述调整操作相应改变所述感兴趣区域提示框在所述拍摄界面中的显示状态。
感兴趣区域提示框的形状、大小、数量、位置等,均支持用户根据实际应用中的需要进行手动调整。通过在拍摄界面中将感兴趣区域提示框作为拍摄提示信息之一进行显示,可起到对拍摄人员采集待拍摄对象的图像数据时,将待拍摄对象需要关注的部位可作为重点部位来对焦,以采集到足够清晰的图像数据以利于后续分析利用,其次也有利于拍摄人员快速找准正确的拍摄位置、拍摄角度,相对于基于待拍摄对象的轮廓框线来调节拍摄位置、拍摄角度的方式而言,可以极大地减小拍摄人员的操作难度。
在一些实施例中,所述红外智能拍摄方法还包括:
根据接收到的切换当前执行的目标拍摄包的切换操作,确定新的目标拍摄包,返回所述根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径的步骤。
目标拍摄包选定后,目标拍摄包对应的拍摄任务在执行过程中,或者目标拍摄包对应的拍摄任务执行完成后,用户均可以选择切换拍摄包。在一可选的具体实施例中,红外热成像设备可以在开始运行拍摄包后,选择当前拍摄包的拍摄轮数,可以记录当前拍摄的时间,自动生成与拍摄轮数(时间)和拍摄包名称相关的文件夹,用来存储智能拍摄采集到的图像数据。用户可以在一个拍摄包对应的文件夹下,根据拍摄轮数(时间)生成对应的文件夹,获得采集图像数据的文件,也可以每次用最新采集的图像数据的文件替换上次拍摄的图像数据的文件。用户可以在拍摄过程中切换其他的拍摄包,也可以在当前的拍摄 包执行完成后,根据提示再切换其他拍摄包。
上述实施例中,红外热成像设备在执行拍摄任务的过程中,支持用户根据需求实时切换拍摄包,以增强面对突发状况的灵活性。
在一些实施例中,所述红外智能拍摄方法还包括:
若当前执行的目标拍摄包对应的拍摄任务未完成而退出,记录所述目标拍摄包的执行进度信息并退出所述目标拍摄包的执行拍摄操作;其中,拍摄任务未完成而退出的情况包括:断电退出、关机退出、切换拍摄任务包退出、根据退出操作退出;
所述目标拍摄包的下一次执行拍摄启动时,根据对应的所述执行进度信息提供是否继续执行的选项信息。
当前执行的拍摄任务未完成而退出时,红外热成像设备自动记录拍摄任务的执行进度,以便在下一次执行拍摄启动时,可根据退出前记录的拍摄任务的执行进度,提供用户选择是否继续退出前的拍摄任务,或重新选择新的拍摄包作为当前要执行的目标拍摄包。
上述实施例中,红外热成像设备若遇到中途断电或者关机等原因,再次开机使用智能拍摄时,仍可以保留上次拍摄状态,继续拍摄,为拍摄人员执行拍摄任务提供了极大的便利。
为了能够对本申请实施例所提供的红外智能拍摄方法具有更加整体的理解,请结合参阅图9和图10,在一可选的具体示例中,以红外热成像设备为红外热像仪为例,所述红外智能拍摄方法包括:
S11,智能包切换,根据实时需求切换拍摄包;
其中,用户可以在电脑端根据实际场景需要的属性名称、属性数目和设备数目,编辑对应表格,设置不同的拍摄包;不同表格中的设备属性名称可以相同也可以不同,不同表格中的设备属性个数可以相同也可以不同。用户可以修改不同的表格满足不同的使用场景需求,表格可以是excel、txt文件等其他便于用户修改的格式。通过支持用户对拍摄包的设置,使得热像仪可以实现多场景的全覆盖,使用场景更加灵活,大大减少了为了适应特定场景的热像仪定制化成本。用户可以选定拍摄包执行,也可以在拍摄过程中切换其它拍摄包。
拍摄包导入,用户可以通过各种途径导入拍摄包;也可以对已经导入的拍摄包进行编辑操作。可以一次导入1个或者多个拍摄包,可以对导入的拍摄包进行选择性的删除操作,可以修改导入的拍摄包的名称。多途径导入可以包括:通过云端下载、任务分发或者sdcard卡等途径导入拍摄包。可以对已经导入的拍摄包进行替换、更新升级。拍摄包的编辑操作可以包括:在热像仪中对导入的拍摄包进行选择性的删除操作,可以修改导入的拍摄包的名称,也可以在某个拍摄包中对设备属性、设备名称进行增删改查操作、可以根据查询结果生成 新的拍摄包。
S12,待拍摄对象切换,根据实时需求切换待拍摄对象;
当用户开始运行当前拍摄包,进入预览界面。预览界面可以获得当前待拍摄对象的相关信息历史记录。相关信息历史记录包含但不仅限于待拍摄对象的名称、历史红外图片/视频数据、历史可见光图片/视频数据、历史微光图片/视频数据等。用户可以根据相关信息历史记录,通过手动或者自动的方式切换下一个待拍摄对象。
用户可以设置各种跳转到下一个拍摄目标的切换准则,待拍摄对象的切换包括:对于导入的拍摄包,新的红外智能拍摄方法和装置自动获取待拍摄对象是否已完成本轮拍摄,自动跳转到下一个未拍摄的待拍摄对象;可以手动切换任意待拍摄对象;可以在拍摄包运行过程中添加待拍摄对象;可以复制待拍摄对象;可以删除待拍摄对象;可以修改待拍摄对象;可以在断电等情况退出智能拍摄后,重新上电依然可以保留上次拍摄进度,接着进行智能拍摄;可以重拍已拍摄的待拍摄对象。新的红外智能拍摄方法和装置添加设备的灵活度更高,拍摄顺序的灵活度更高。
待拍摄对象的切换过程中,可以随时查看待拍摄对象的历史拍摄记录,通过历史拍摄记录可以给新手提供拍摄角度、拍摄设备、拍摄距离的指导。根据历史拍摄记录,确定待拍摄对象的目标提示框,自动附加到预览界面,目标提示框可以调整大小和位置,可以新建删除,可以修改目标提示框的类型。根据历史记录中的待拍摄对象信息,还可以调整目标提示框的大小和位置,以减少因拍摄目标轮廓固定带来的拍摄过程中多次找角度的问题,大大降低了拍摄规范图片或者视频的难度。历史拍摄记录可以作为参考依据,判断当前待拍摄对象是否存在故障。历史拍摄记录可以是当前热像仪拍摄的历史拍摄记录,也可以是导入的热像仪历史拍摄记录,不仅为巡检人员提供了智能拍摄的依据,也为巡检人员实时检测设备故障提供了极大的便利。
S13,待拍摄对象编辑;
待拍摄对象的编辑包括:根据待拍摄对象的相关信息属性,通过选择一个或者多个待拍摄对象的相关信息属性或者时间,批量修改保存的设备文件的名称;通过修改单个待拍摄对象的相关信息或者等级(重要程度),修改单个待拍摄对象的名称;通过复制某个待拍摄对象的相关信息快速新建一个待拍摄对象;删除某个待拍摄对象。所有的待拍摄对象编辑操作,可以保存到下一次智能拍摄中也可以不保存到下一次智能拍摄中。
S14,图像数据采集和存储;
热像仪上对待拍摄对象的存储信息类型和设备名称进行设置和保存。存储信息类型设置包括:在热像仪上,用户可以设置保存待拍摄对象的图像数据的数据类型可以是:红外图像、可见光图像、微光图像、红外视频、可见光视频、微光视频、双光融合或者多光谱融合的图像或者视频数据;可以选择保存的图像格式或者视频格式。设备名称的设置和保存包括:在热像仪上,新的红外智 能拍摄方法和装置可以根据设备属性,通过选择一个或者多个设备属性,批量修改保存的设备文件的名称;可以修改单个设备文件的名称;在智能拍摄过程中,可以随时查看待拍摄对象的历史拍摄记录,历史拍摄记录可以包括红外图像数据、可见光图像数据等。通过历史拍摄记录,不仅可以给新手提供拍摄角度、拍摄设备、拍摄距离的指导,拍摄到正确的图像或者视频;还可以凭借历史记录作为参考依据,判断当前待拍摄对象是否存在故障。这里的历史拍摄记录可以是当前热像仪拍摄的历史拍摄记录,也可以是导入的热像仪历史拍摄记录,不仅为巡检人员提供了智能拍摄的依据,也为巡检人员实时检测设备故障提供了极大的便利。
上述实施例所提供的红外智能拍摄方法,至少具备如下特点:
第一、在执行拍摄任务中,支持拍摄包切换,用户可以根据需求切换不同的拍摄包;支持待检测设备对象,用户可以通过各种方式切换并拍摄待拍摄对象;支持拍摄包和待拍摄对象的编辑,增加在巡检过程中遇到突然状态的灵活性;
第二、拍摄路径确定及智能地切换待拍摄对象,自动获取待拍摄对象是否已完成本轮拍摄,自动跳转到下一个未拍摄的待拍摄对象;可以手动切换任意待拍摄对象;可以在拍摄包运行过程中添加待拍摄对象;可以复制待拍摄对象;可以删除待拍摄对象;可以修改待拍摄对象;可以在断电等情况退出智能拍摄后,重新上电依然可以保留上次拍摄进度,接着进行智能拍摄;可以重拍已拍摄的待拍摄对象。新的红外智能拍摄方法和装置添加拍摄设备的灵活度更高,拍摄顺序的灵活度更高。
第三、拍摄过程中,可以随时查看待拍摄对象的历史拍摄记录,通过历史拍摄记录不仅可以给新手提供拍摄角度、拍摄设备、拍摄距离的指导,拍摄到正确的图像或者视频;还可以凭借历史记录作为参考依据,判断当前待拍摄对象是否存在故障。历史拍摄记录可以是当前热像仪拍摄的历史拍摄记录,也可以是导入的热像仪历史拍摄记录,不仅为巡检人员提供了智能拍摄的依据,也为巡检人员实时检测设备故障提供了极大的便利。
第四、拍摄界面中,可实时显示待拍摄对象的ROI提示框,ROI提示框自动附加到预览界面,可提供调整大小和位置,提供新建删除,提供修改提示框类型;
第五、支持拍摄包的定制,用户可以在电脑端根据实际场景需要的属性名称、属性数目和设备数目,编辑对应的表格,设置不同的拍摄包,实现多场景的全覆盖,使用场景更加灵活,大大减少了为了适应特定场景的热像仪设备定制化费用。
第六、支持多途径导入拍摄包,可通过各种途径导入拍摄包,也可以对已经导入的拍摄包进行编辑操作。可以一次导入1个或者多个拍摄包,可以对导入的拍摄包进行选择性的删除操作,可以修改导入的拍摄包的名称。智也可以在某个拍摄包中对设备属性、设备名称进行增删改查操作。可以根据查询结果 生成新的拍摄包。
第七、支持存储策略的定制,热像仪可以对待拍摄对象的存储信息类型和设备名称进行设置和保存,图像数据的存储名称的确定可以基于拍摄包的定制来生成。
请参阅图11,本申请另一方面,提供一种红外智能拍摄装置,包括:拍摄包切换模块20,用于基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;策略生成模块22,用于根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径;执行模块23,用于基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
可选的,所述策略生成模块22,还用于根据所述目标拍摄包对应的拍摄任务信息,基于所述拍摄任务信息中包含的各待拍摄对象的顺序或属性信息,确定所述目标拍摄包对应的拍摄任务的拍摄路径;根据接收到的对所述目标拍摄包中待拍摄对象的调整配置操作,更新所述拍摄任务对应的所述拍摄路径;所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、修改待拍摄对象的修改操作、对各待拍摄对象的顺序进行调整的调整操作。
可选的,所述执行模块23,还用于基于所述拍摄路径,在拍摄界面中显示当前待拍摄对象的拍摄提示信息;将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存;若所述当前待拍摄对象的图像数据采集完成,则依序切换至下一待拍摄对象,在所述拍摄界面中显示所述下一待拍摄对象的拍摄提示信息,返回所述将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存的步骤;直至所述拍摄任务完成。
可选的,所述执行模块23,还用于若所述当前待拍摄对象的图像数据采集完成,判断是否接收到对所述目标拍摄包中待拍摄对象的调整配置操作;其中,所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、对各待拍摄对象的顺序进行调整的调整操作、对已执行拍摄的待拍摄对象进行重新拍摄的重拍操作、对部分待拍摄对象忽略执行拍摄的跳过操作;若是,则根据所述调整配置操作更新所述拍摄路径,基于更新后的所述拍摄路径切换至下一待拍摄对象。
可选的,所述策略生成模块22,还用于根据所述目标拍摄包对应的所述拍摄任务信息中包含的待拍摄对象的属性特征,确定各个所述待拍摄对象的对应图像数据的存储策略。
可选的,所述策略生成模块22,还用于根据所述拍摄任务信息中包含的待拍摄对象的属性特征,提取多个预设的所述属性特征的数据进行拼接,形成各 个所述待拍摄对象的对应图像数据的存储名称;或,根据所述拍摄任务信息中包含的待拍摄对象的属性特征,基于选定的至少一个所述属性特征的数据或选定的多个所述属性特征的数据进行拼接,形成各个所述待拍摄对象的对应图像数据的存储名称;所述执行模块23,还用于将分别采集到的所述待拍摄对象的图像数据,按对应的所述存储名称保存于基于所述目标拍摄包建立的文件夹内。
可选的,所述切换模块20,还用于根据接收到的切换当前执行的目标拍摄包的切换操作,确定新的目标拍摄包,返回所述根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径的步骤。
可选的,所述切换模块20,还用于若当前执行的目标拍摄包对应的拍摄任务未完成而退出,记录所述目标拍摄包的执行进度信息并退出所述目标拍摄包的执行拍摄操作;其中,拍摄任务未完成而退出的情况包括:断电退出、关机退出、切换拍摄任务包退出、根据退出操作退出;所述目标拍摄包的下一次执行拍摄启动时,根据对应的所述执行进度信息提供是否继续执行的选项信息。
可选的,所述执行模块23,还用于在拍摄界面中显示当前待拍摄对象的标识、及当前待拍摄对像对应的感兴趣区域提示框;和/或,在拍摄界面中显示当前待拍摄对象的拍摄位置指导信息,所述拍摄位置指导信息包括:拍摄参考距离;和/或,在拍摄界面中显示当前待拍摄对象的历史拍摄记录的展开选项,根据对展开选项的选定操作,在所述拍摄界面中可切换显示所述当前待拍摄对象的参考图像。
可选的,所述执行模块23,还用于接收对所述感兴趣区域提示框的调整操作;其中,所述调整操作包括如下至少之一:选定目标提示框形状的操作、对感兴趣区域提示框进行移动的操作、对感兴趣区域提示框进行放大的操作、对感兴趣区域提示框进行缩小的操作、新建感兴趣区域提示框的操作、对感兴趣区域提示框进行删除的操作;根据所述调整操作相应改变所述感兴趣区域提示框在所述拍摄界面中的显示状态。
可选的,所述执行模块23,还用于在拍摄界面中显示所述目标拍摄包的执行进度查看选项,根据对执行进度查看选项的选定操作,在所述拍摄界面中区分显示所述目标拍摄包中各所述待拍摄对象的不同状态。
需要说明的是:上述实施例提供的红外智能拍摄装置在实现红外智能拍摄方法的过程中,仅以上述各程序模块的划分进行举例说明,在实际应用中,可以根据需要而将上述处理分配由不同的程序模块完成,即可将装置的内部结构划分成不同的程序模块,以完成以上描述的全部或者部分方法步骤。另外,上述实施例提供的红外智能拍摄装置与对应的红外智能拍摄方法实施例属于同一构思,其具体实现过程详见方法实施例,这里不再赘述。
本申请另一方面提供一种红外热成像设备,请参阅图12,为本申请实施例提供的红外热成像设备的一个可选的硬件结构示意图,所述红外热成像设备包 括处理器111、与所述处理器111连接的存储器112,存储器112内用于存储各种类别的数据以支持红外热成像设备的操作,且存储有用于实现本申请任一实施例提供的红外热成像方法的计算机程序,所述计算机程序被所述处理器执行时,实现本申请任一实施例提供的红外智能拍摄方法的步骤,且能达到相同的技术效果,为避免重复,这里不再赘述。
其中,所述红外热成像设备包括与所述处理器111连接的显示模块,所述显示模块用于显示红外智能拍摄方法执行过程中的各类交互式页面,如拍摄界面、预览图像等。
本申请实施例还提供一种计算机可读存储介质,所述计算机可读存储介质上存储有计算机程序,该计算机程序被处理器执行时实现上述红外智能拍摄方法实施例的各个过程,且能达到相同的技术效果,为了避免重复,这里不再赘述。其中,所述的计算机可读存储介质,如只读存储器(Read-OnlyMemory,简称ROM)、随机存取存储器(RandomAccessMemory,简称RAM)、磁碟或者光盘等。
需要说明的是,在本文中,术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含,从而使得包括一系列要素的过程、方法、物品或者装置不仅包括那些要素,而且还包括没有明确列出的其他要素,或者是还包括为这种过程、方法、物品或者装置所固有的要素。在没有更多限制的情况下,由语句“包括一个……”限定的要素,并不排除在包括该要素的过程、方法、物品或者装置中还存在另外的相同要素。
通过以上的实施方式的描述,本领域的技术人员可以清楚地了解到上述实施例方法可借助软件加必需的通用硬件平台的方式来实现,当然也可以通过硬件,但很多情况下前者是更佳的实施方式。基于这样的理解,本发明的技术方案本质上或者说对现有技术做出贡献的部分可以软件产品的形式体现出来,该计算机软件产品存储在一个存储介质(如ROM/RAM、磁碟、光盘)中,包括若干指令用以使得一台终端(可以是红外拍摄设备、手机,计算机,服务器,或网络设备等)执行本发明各个实施例所述的方法。
本领域普通技术人员可以理解的,实现上述实施例方法中的全部或部分流程,是可以通过计算机程序来指令相关的硬件来完成,所述的程序可存储于一非易失性计算机可读取存储介质中,该程序在执行时,可包括如上述各方法的实施例的流程。其中,本申请各实施例中所使用的对存储器、存储、数据库或其它介质的任何引用,均可包括非易失性和/或易失性存储器。非易失性存储器可包括只读存储器(ROM)、可编程ROM(PROM)、电可编程ROM(EPROM)、电可擦除可编程ROM(EEPROM)或闪存。易失性存储器可包括随机存取存储器(RAM)或者外部高速缓冲存储器。作为说明而非局限,RAM以多种形式可得,诸如静态RAM(SRAM)、动态RAM(DRAM)、同步DRAM(SDRAM)、双数据率SDRAM(DDRSDRAM)、增强型SDRAM(ESDRAM)、同步链路(Synchlink)DRAM(SLDRAM)、存储器总线(Rambus)直接RAM(RDRAM)、直接存储器 总线动态RAM(DRDRAM)、以及存储器总线动态RAM(RDRAM)等。
以上所述,仅为本发明的具体实施方式,但本发明的保护范围并不局限于此,任何熟悉本技术领域的技术人员在本发明揭露的技术范围内,可轻易想到变化或替换,都应涵盖在本发明的保护范围之内。本发明的保护范围应以所述权利要求的保护范围以准。

Claims (19)

  1. 一种红外智能拍摄方法,应用于红外热成像设备,其特征在于,包括:
    基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;
    根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径;
    基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
  2. 如权利要求1所述的红外智能拍摄方法,其特征在于,所述基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包之前,包括:
    从云端、移动终端、或外接存储设备导入一个或多个拍摄任务信息,形成分别与所述拍摄任务信息对应的拍摄包。
  3. 如权利要求2所述的红外智能拍摄方法,其特征在于,还包括:
    根据在配置页面中,对同一应用场景下的多个待拍摄对象的一个或多个设定的属性特征的配置操作,得到与所述应用场景对应的一个拍摄任务信息;和/或,
    根据对应用场景包含的设备属性名称、属性数目和设备数目的编辑操作,得到与所述应用场景对应的拍摄任务信息,形成包含所述拍摄任务信息的配置文件。
  4. 如权利要求2所述的红外智能拍摄方法,其特征在于,所述基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包,包括:
    将拍摄包以拍摄包列表的形式显示在拍摄包展示页面中;
    根据对所述拍摄包展示页面中以拍摄包列表的形式显示的待选拍摄包的选定操作,确定当前执行的目标拍摄包,并将所述拍摄包列表中所述当前执行的目标拍摄包、已执行完成的拍摄包、未执行的拍摄包通过不同突显方式进行突显;和/或,
    将所述目标拍摄包中,当前选定的拍摄对象、已拍摄的拍摄对象、未拍摄的拍摄对象通过不同突显方式进行突显。
  5. 如权利要求4所述的红外智能拍摄方法,其特征在于,还包括:
    获取对所述拍摄包列表中任一拍摄包的删除操作,将所述拍摄包从所述拍摄包列表中删除;和/或,
    获取对所述拍摄包列表中任一拍摄包的修改操作,对所述拍摄包进行更新;
    获取对所述拍摄包列表中任一拍摄包的替换操作,将新导入的拍摄包替换所述拍摄包对所述拍摄包列表进行更新。
  6. 如权利要求1所述的红外智能拍摄方法,其特征在于,还包 括:
    在一个拍摄任务结束之前,基于对待选拍摄包的选定操作,重新确定新的当前执行的目标拍摄包,终止当前的拍摄任务,并返回所述根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径的步骤。
  7. 如权利要求1所述的红外智能拍摄方法,其特征在于,所述根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径,包括:
    根据所述目标拍摄包对应的拍摄任务信息,基于所述拍摄任务信息中包含的各待拍摄对象的顺序或属性信息,确定所述目标拍摄包对应的拍摄任务的拍摄路径;
    根据接收到的对所述目标拍摄包中待拍摄对象的调整配置操作,更新所述拍摄任务对应的所述拍摄路径;所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、修改待拍摄对象的修改操作、对各待拍摄对象的顺序进行调整的调整操作。
  8. 如权利要求1所述的红外智能拍摄方法,其特征在于,所述基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存,包括:
    基于所述拍摄路径,在拍摄界面中显示当前待拍摄对象的拍摄提 示信息;
    将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存;
    若所述当前待拍摄对象的图像数据采集完成,则依序切换至下一待拍摄对象,在所述拍摄界面中显示所述下一待拍摄对象的拍摄提示信息,返回所述将采集到的所述当前待拍摄对象的图像数据按对应存储策略进行保存的步骤;
    直至所述拍摄任务完成。
  9. 如权利要求8所述的红外智能拍摄方法,其特征在于,所述若所述当前待拍摄对象的图像数据采集完成,则依序切换至下一待拍摄对象,包括:
    若所述当前待拍摄对象的图像数据采集完成,判断是否接收到对所述目标拍摄包中待拍摄对象的调整配置操作;其中,所述调整配置操作包括如下至少之一:对选定的待拍摄对象的删除操作、增加待拍摄对象的新增操作、对各待拍摄对象的顺序进行调整的调整操作、对已执行拍摄的待拍摄对象进行重新拍摄的重拍操作、对部分待拍摄对象忽略执行拍摄的跳过操作;
    若是,则根据所述调整配置操作更新所述拍摄路径,基于更新后的所述拍摄路径切换至下一待拍摄对象;
    若否,则按照当前拍摄路径,切换至下一待拍摄对象。
  10. 如权利要求1所述的红外智能拍摄方法,其特征在于,所述 将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存之前,包括:
    根据所述目标拍摄包对应的所述拍摄任务信息中包含的待拍摄对象的属性特征,确定各个所述待拍摄对象的对应图像数据的存储策略。
  11. 如权利要求10所述的红外智能拍摄方法,其特征在于,所述根据所述目标拍摄包对应的所述拍摄任务信息中包含的待拍摄对象的属性特征,确定各个所述待拍摄对象的对应图像数据的存储策略,包括:
    根据所述拍摄任务信息中包含的待拍摄对象的属性特征,提取多个预设的所述属性特征的数据进行拼接,形成各个所述待拍摄对象的对应图像数据的存储名称;或,
    根据所述拍摄任务信息中包含的待拍摄对象的属性特征,基于选定的至少一个所述属性特征的数据或选定的多个所述属性特征的数据进行拼接,形成各个所述待拍摄对象的对应图像数据的存储名称;
    所述将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存,包括:
    将分别采集到的所述待拍摄对象的图像数据,按对应的所述存储名称保存于基于所述目标拍摄包建立的文件夹内。
  12. 如权利要求1所述的红外智能拍摄方法,其特征在于,还包括:
    根据接收到的切换当前执行的目标拍摄包的切换操作,确定新的目标拍摄包,返回所述根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍摄路径的步骤。
  13. 如权利要求1所述的红外智能拍摄方法,其特征在于,还包括:
    若当前执行的目标拍摄包对应的拍摄任务未完成而退出,记录所述目标拍摄包的执行进度信息并退出所述目标拍摄包的执行拍摄操作;其中,拍摄任务未完成而退出的情况包括:断电退出、关机退出、切换拍摄任务包退出、根据退出操作退出;
    所述目标拍摄包的下一次执行拍摄启动时,根据对应的所述执行进度信息提供是否继续执行的选项信息。
  14. 如权利要求1所述的红外智能拍摄方法,其特征在于,所述在拍摄界面中显示当前待拍摄对象的拍摄提示信息,包括:
    在拍摄界面中显示当前待拍摄对象的标识、及当前待拍摄对象对应的感兴趣区域提示框;和/或,
    在拍摄界面中显示当前待拍摄对象的拍摄位置指导信息,所述拍摄位置指导信息包括:拍摄参考距离;和/或,
    在拍摄界面中显示当前待拍摄对象的历史拍摄记录的展开选项,根据对展开选项的选定操作,在所述拍摄界面中可切换显示所述当前待拍摄对象的参考图像。
  15. 如权利要求14所述的红外智能拍摄方法,其特征在于,所述在拍摄界面中显示当前待拍摄对象对应的感兴趣区域提示框,还包括:
    接收对所述感兴趣区域提示框的调整操作;其中,所述调整操作包括如下至少之一:选定目标提示框形状的操作、对感兴趣区域提示框进行移动的操作、对感兴趣区域提示框进行放大的操作、对感兴趣区域提示框进行缩小的操作、新建感兴趣区域提示框的操作、对感兴趣区域提示框进行删除的操作;
    根据所述调整操作相应改变所述感兴趣区域提示框在所述拍摄界面中的显示状态。
  16. 如权利要求1所述的红外智能拍摄方法,其特征在于,还包括:
    在拍摄界面中显示所述目标拍摄包的执行进度查看选项,根据对执行进度查看选项的选定操作,在所述拍摄界面中区分显示所述目标拍摄包中各所述待拍摄对象的不同状态。
  17. 一种红外智能拍摄装置,其特征在于,包括:
    拍摄包切换模块,用于基于对待选拍摄包的选定操作,确定当前执行的目标拍摄包;其中,所述拍摄包与包含多个待拍摄对象的拍摄任务信息的对应;
    策略生成模块,用于根据所述目标拍摄包对应的拍摄任务信息,确定所述目标拍摄包对应的拍摄任务中包含的所述待拍摄对象的拍 摄路径;
    执行模块,用于基于所述拍摄路径切换所述待拍摄对象,在拍摄界面中显示当前待拍摄对象的拍摄提示信息,将分别采集到的所述待拍摄对象的图像数据按对应存储策略进行保存。
  18. 一种红外热成像设备,其特征在于,包括处理器、与所述处理器连接的存储器及存储在所述存储器上并可被所述处理器执行的计算机程序,所述计算机程序被所述处理器执行时实现如权利要求1至16中任一项所述的红外智能拍摄方法。
  19. 一种计算机可读存储介质,其特征在于,所述计算机可读存储介质上存储有计算机程序,所述计算机程序被处理器执行时实现如权利要求1至16中任一项所述的红外智能拍摄方法。
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