Methods and systems for performing and / or displaying measurement processes.

Abstract

A method for performing and / or displaying a measurement process using a measurement system, the measurement system comprising a computing device, a display device and a measurement means for measuring and sensing an article, the measurement process being controllable via the display device, the method comprising the steps of: recording measurement data generated using the measurement means; generating object entities as entities relating to the article being measured and sensed; generating combination entities as entities relating to the article being measured and sensed; and outputting relationships between a plurality of the generated entities, the relationships being displayed for a given entity. Additionally, a corresponding measurement system and computer program product are disclosed.

Description

Technical Field

[0001] The present invention relates to a method for executing and / or displaying a measurement process using a measurement system.

[0002] Furthermore, the present invention relates to a corresponding measurement system for executing and / or displaying a measurement process.

[0003] Finally, the present invention relates to a corresponding computer program product.

Background Art

[0004] Methods and systems of the subject type have been practiced and known for many years. Thus, there are various products for measuring and sensing an object that can support the execution and display of a measurement process by an operator / user. Usually, such support is performed using software.

[0005] The corresponding software package faces the problem of displaying, in a meaningful way to the user, the entities managed by the application on the screen. In the case of a simple application, a list display is sufficient. Regarding the list display, the file display in Windows Explorer is an example, where multiple files in a folder are displayed as a list on the right side of the window (see FIG. 1). However, a particular drawback of the display in FIG. 1 is that it cannot display the dependencies and references between multiple entities. All files in the window are independent of each other.

[0006] Furthermore, in the example of Explorer, the dependencies between the folders of a drive can also be hierarchically displayed as a tree structure on the left side of the display window. FIG. 2 is a schematic diagram showing an example of displaying multiple folders in a hierarchical tree structure of a file manager.

[0007] This type of hierarchical tree structure is suitable when the entities being displayed have a strict 1:n dependency relationship with each other. - One folder can contain n subfolders. - A single folder can contain n files.

[0008] However, the following also applies. -A single file can only exist in one folder. -A subfolder has only one parent folder. - There is no relationship between the files.

[0009] In cases of such one-to-many dependencies, combining the tree structure on the left with the list on the right allows for a clear and intuitive representation of the entities.

[0010] Tree view and list view are widely used as standards for displaying the contents of a drive, and these concepts have been incorporated into other software applications. As long as the above conditions regarding 1:n dependencies are met, adopting tree or list views is a suitable choice.

[0011] However, in the field of software systems for measuring and sensing objects, such as shape measurement and surface inspection, use cases that consider additional relationships between multiple related entities are becoming increasingly important. Known software systems are difficult for users to operate, confusing, and complex. [Overview of the project] [Problems that the invention aims to solve]

[0012] Therefore, the present invention is based on the objective of designing and improving methods and measurement systems for performing and / or displaying measurement processes, so as to enable easy operation for the user and the most efficient verification of the measurement process. [Means for solving the problem]

[0013] According to the present invention, the aforementioned objective is achieved by the features of claim 1. Therefore, the measurement process is performed using the measurement system. Bi table A method is provided which the measurement system comprises at least one computing device, at least one display device, and at least one measuring means for measuring and sensing an article, the measurement process is controllable via the display device, and the method is - A step of recording the measurement data generated using the measurement means, - A step of generating an object entity as an entity relating to the article that is measured and sensed, - A step of generating a combined entity as an entity relating to the article that is measured and sensed, - When an eligible entity is selected, it will be displayed using a graphical pointing element. A relationship, comprising the step of outputting the relationship between the multiple entities that have been generated, Includes fruit, When the object entity is selected, the graphical pointing element visualizes the link to the combined entity that uses the selected object entity. When the combination entity is selected, the graphical pointing element visualizes the link to the object entity that the selected combination entity uses as input. , the measurement process is performed using the measurement system Bi table This is the method to demonstrate.

[0014] Furthermore, the aforementioned objective is the claim 12 This is achieved through the characteristics of [the system / product]. Therefore, the measurement process is performed Bi table A measurement system is provided which comprises at least one computing device, at least one display device, and at least one measuring means for measuring and sensing an article, wherein the measurement process is controllable via the display device, and the measurement system It is possible to record the measurement value data generated using the measurement means, an object entity can be generated as an entity related to the article to be measured and sensed, a combination entity can be generated as an entity related to the article to be measured and sensed, the relationship between the plurality of generated entities is output via the display device, Using a graphical pointing element that becomes visible when a selectable entity is chosen. the display device can display the relationship, When the object entity is selected, the graphical pointing element visualizes the link to the combined entity that uses the selected object entity. When the combination entity is selected, the graphical pointing element visualizes the link to the object entity that the selected combination entity uses as input. It is a measurement system designed as described above.

[0015] Finally, the above object is achieved by the features of the computer program product 13 According to the present invention, for the first time, it has been recognized that by making it possible to control the measurement process via a display device, a simple operation for the user and the most efficient verification of the measurement process can be realized.

[0016] The measurement process is executed and / or displayed by a measurement system including at least one computing device, at least one display device, and at least one measurement means for measuring and sensing an article. In the method according to the present invention, the measurement value data generated using the measurement means is first recorded. Optionally, data preprocessing can be performed on the measurement value data.

[0017] Furthermore, according to the present invention, it has been found that by grouping different types of entities, the control and verification of calculations in the measurement process are greatly simplified and become efficient for the user. An entity is related to the article to be measured and sensed and can be determined via a display device. Entities include object entities as the first entity type and combination entities as the second entity type. According to the present invention, an object entity is determined / generated as an entity relating to an article that is measured and sensed, and this object entity may be associated with a first group. Furthermore, a combined entity may be determined / generated as an entity relating to the measured and sensed items, and this combined entity may be linked to a second group. A combined entity is based on multiple object entities and can perform various calculations and analyses on items that are measured and sensed. Finally, for clear and efficient verification of the generated analysis and calculation results, existing relationships between the multiple entities generated are displayed via a display device. This allows users to perform efficient and clear consistency checks in a sophisticated manner. The assignment of entities that are connected to each other in an n:m relationship can be visualized in a particularly advantageous way. Users can always stay informed of the situation and utilize effective process flow control of the measurement process.

[0018] Therefore, by using the method and measurement system according to the present invention, users can perform improved operations in terms of the performance of the measurement process and the most efficient verification of the measurement process.

[0019] Here, the term “entity” means, in the claims and preferably in the specification, a characteristic feature relating to an article and / or its measurement or sensing. The entity may be, for example, an item and / or parameters or parameter data related to its measurement or sensing. Furthermore, entities may represent, for example, features relating to an article, particularly measured and / or morphological features.

[0020] With respect to the term "object entity," in particular in the claims, and preferably in the specification, an object entity means one or more characteristics that characterize an article with respect to a measurement task.

[0021] With respect to the term “combined entity,” in the claims, and preferably in the specification, a combined entity means a combination of the identities of multiple objects, their relationships to one another, or the result of their relationships to object entities.

[0022] A combination entity may be based on multiple entities, such that the combination entity uses multiple entities as input entities. The input entities can be object entities or composite entities (optionally relating to shape) that have already been generated or determined.

[0023] Furthermore, a combined entity may represent an evaluation operation, and the evaluation operation is determined by combining multiple entities. To calculate the results of an evaluation operation based on existing objects and parameter data provided by those objects, the multiple entities used here are used as input entities for a combined entity.

[0024] In a favorable configuration, (preferably mean) temperature, temperature distribution, color, color index, distance, velocity, acceleration, plane, area, normal vector, and / or edge can be determined as object entities relating to the article being measured and perceived (or measured). Therefore, various properties of the item being measured can be measured and perceived in an effective and efficient manner, and can be used for subsequent analysis and calculation of the properties of the item being measured.

[0025] For example, edges, planes, regions, circles, spheres, lines, and / or centers of gravity can be determined as object entities relating to the article being measured. Therefore, an object entity can be, for example, a shape entity relating to an item. Therefore, various surfaces of the object being measured can be imaged in an effective and efficient manner, and these images can be used for subsequent analysis and calculation of the object's properties.

[0026] As a combination entity, the combination of object entities, their relationships with each other, and / or the results of those relationships can be determined as input variables relating to the items being measured (or perceived). A combined entity can access already generated object entities and use these object entities or their parameter data as input data. In this way, combining object entities makes it possible to perform various calculations, analyses, and evaluations particularly efficiently.

[0027] For example, angles, distances, and / or sections can be determined as combined entities relating to the item being measured. A combined entity can access already generated object entities and use these object entities or their parameter data as input data. In this way, by combining object entities, various calculations can be performed particularly efficiently.

[0028] Object entities are displayed in a first group via a display device, and combined entities are displayable in (preferably separate) further groups via a display device. Therefore, it is possible to group different entity types, which allows users to visualize different entities in the most structured way possible.

[0029] If a specific entity is selected, it is possible to display the relationships between that entity. This provides users with efficient and clear consistency checks in a sophisticated manner. Furthermore, relationships may not always be displayed, but only when a particular entity is selected (for example, when the mouse hovers over it and / or clicks it). Furthermore, the relationships between specified entities can be displayed for a predefined (optionally configurable) period. Finally, as long as a given entity remains selected, the relationships between that entity can be displayed.

[0030] The relationships between specified entities can be displayed using graphical pointing elements. This display can be executed in a favorable manner when a given entity is selected. Therefore, the relationships between the multiple entities generated can be output, for example, via the graphical user interface of a display device, and these relationships are visualized, for example, only when a given entity is selected.

[0031] The display device may include an output element, which may include a list, table, file, or general data stream containing relationships between multiple presented entities. It is particularly advantageous if the display device has a graphical user interface that displays relationships through arbitrary output elements.

[0032] The display device may include an input element, which may include a list, tabular file, or general data stream that controls the measurement process. The display device features a graphical user interface that controls the measurement process via arbitrary input elements.

[0033] The display device may include relational elements, which may include lists, tables, files, or general data streams that display relationships between multiple entities. The relationships between multiple entities are displayed on the graphical user interface of the display device via displayable graphical pointing elements.

[0034] Displayable graphic pointing elements may include lines, pointers, and / or arrows. Displayable pointing elements mean graphically highlighting existing elements, for example, by flashing, changing color, or changing shape. Possible features include the ability to highlight existing pointing elements and / or entities (objects and / or combined entities) that have already been generated or displayed. This provides users with a particularly simple, effective, and efficient method for checking the accuracy or consistency of existing relationships, especially computational relationships.

[0035] When an object entity is selected, a graphical pointing element can visualize / display a link to the entity using the selected object entity. Therefore, efficient verification or control of relationships between multiple entities is performed.

[0036] When a combination entity is selected, a graphical pointing element can visualize / display a link to the entity that the selected combination entity uses as input. Therefore, efficient verification or control of relationships between multiple entities is performed.

[0037] The grouping of entities may be performed using graphical elements, for example, in a tabular or list format.

[0038] Entities within a group can be selected by mouseover, click, and / or (preferably by cursor keys) keyboard navigation. This enables fast and efficient navigation for users.

[0039] When an entity is selected, the associated property fields may be displayed. You can use property fields to make adjustments and optionally configure further settings.

[0040] The measuring means may be designed to measure distance, position, shape, color, and / or temperature. The measuring means of the measurement system may include optical measuring means. For example, optical measurement means may include a laser distance sensor, a laser profile sensor, and / or a camera. Furthermore, distance sensors, position sensors, shape sensors, color sensors, and / or temperature sensors can be used as measurement means for the measurement system. Therefore, a wide variety of measurement methods for articles can be implemented, and in embodiments of the present invention, these wide variety of measurement methods can be performed and displayed.

[0041] Herein lies a variety of possibilities for constructing and improving the present invention. For this purpose, please refer to the following description of embodiments of the present invention, on the one hand with reference to the claims dependent on claim 1, and on the other hand with reference to the drawings. In connection with the description of embodiments of the present invention with reference to the drawings, generally preferred configurations and improvements to the teachings are also described. [Brief explanation of the drawing]

[0042] [Figure 1] This is a schematic diagram illustrating an example of displaying multiple files in a file manager's list view. [Figure 2] This is a schematic diagram illustrating an example of displaying multiple folders in a hierarchical tree structure within a file manager. [Figure 3] This is a schematic diagram illustrating an example of the relationship between two different types of entities. [Figure 4] This is a schematic diagram showing two different types of entities in a tree structure. [Figure 5] This is a schematic diagram showing a dialog box added to the display shown in Figure 4 to show further information. [Figure 6] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 7] This is a schematic diagram illustrating an embodiment of the method according to the present invention, in which a measurement process for measuring the surface of an object is performed and visualized. [Figure 8] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 9] This is a schematic diagram showing the measurement process flow according to an embodiment of the method according to the present invention. [Figure 10] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 11] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 12] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 13] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 14] This is a schematic diagram showing the measurement process flow according to an embodiment of the method according to the present invention. [Figure 15] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. [Figure 16] This is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. Detailed description of the invention

[0043] Figure 1 is a schematic diagram showing an example of displaying multiple files in the file manager's list view. Many software packages face the challenge of displaying the entities managed by the application on the screen in a way that is meaningful to the user. For simple applications, a list view is sufficient. For example, when you look at the file display in Windows Explorer, n files in a folder are displayed as a list on the right side of the window (see Figure 1).

[0044] A drawback of the display in Figure 1 is that it cannot show dependencies or references between multiple entities. All files within a window are independent of each other.

[0045] Furthermore, in the Explorer example, the dependencies between folders on a drive can be displayed hierarchically as a tree structure on the left side of the display window. Figure 2 is a schematic diagram showing an example of displaying multiple folders in a hierarchical tree structure in a file manager.

[0046] This type of hierarchical tree structure is suitable when the entities being displayed have a strict 1:n dependency relationship with each other. - One folder can contain n subfolders. - A single folder can contain n files.

[0047] but: -A single file can only exist in one folder. -A subfolder has only one parent folder. - There is no relationship between the files.

[0048] In cases of such one-to-many dependencies, combining the tree structure on the left with the list on the right allows for a clear and intuitive representation of the entities.

[0049] Tree view and list view are widely used as standards for displaying the contents of a drive, and these concepts have been incorporated into other software packages as well. As long as the above conditions regarding 1:n dependencies are met, adopting tree or list views is a suitable choice.

[0050] However, there are also software packages that manage additional relationships between multiple entities.

[0051] For example, in embodiments of the present invention, two entities of different types are considered, and there are additional relationships managed between these entities. Therefore, an n:m dependency exists between two different types of entities: "objects" as object entities and "combinations" as combination entities. - The combination can use multiple objects as input. - An object can function as input for multiple combinations or other objects, - A combination can function as input for other combinations.

[0052] In embodiments of the present invention, an object can be measured using optical measuring means in order to calculate distance, angle, division, etc.

[0053] Examples of objects used during measurement are as follows: -plane -ball -line -Center of gravity

[0054] Examples of combinations used during measurement are as follows: -angle -distance -section

[0055] Figure 3 is a schematic diagram illustrating an example of the relationship between two different types of entities (objects and combinations). It is crucial that operators / users can quickly understand the proper dependencies between objects and check their accuracy / consistency; this requires proper visualization. As shown in Figure 3, illustrating the relationship between two entity types is generally difficult. If the usage environment is complex, it can quickly lead to confusion.

[0056] A common approach is to display the two entities in two subfolders of a tree structure, as shown in Figure 4. However, the tree structure in Figure 4 cannot display the relationships between objects.

[0057] Therefore, when selecting an entity, it is conceivable to display a dialog box that shows an overview of the input objects to be used, as shown in Figure 5. Figure 5 is a schematic diagram showing a dialog box added to the display shown in Figure 4 to show additional information.

[0058] The approach in Figure 4 has the drawback that checking for links between multiple entities can only be done by the entity names. For consistency checks, care must be taken to ensure that each entity is given a unique and meaningful name. Performing a complete consistency check requires opening each entity's dialog box in sequence, which is cumbersome and inconvenient.

[0059] Figure 6 is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. According to this, process flow control of the measurement process becomes possible by computer programs, the assignment of entities in the computer program is visualized, and it becomes possible for them to have n:m relationships with each other. The following features are implemented to allow users to be tracked within this application: - The objects are displayed as a simple list. - The combinations are shown in the second list. - The relationship between two types of entities (objects, combinations) is indicated by graphical pointing elements (arrows, lines, pointers, etc.), which are not always visible but only appear when an entity is selected (mouse over or clicked). -When selecting an object: A graphic pointing element (arrow) will appear, along with a link to a combination of how to use that object. -When selecting a combination: A graphical pointer element (arrow) will appear, displaying a link to the object or combination that the selected combination will use as input. -In addition, property fields for the selected element or entity are displayed in each case, and can be optionally adjusted.

[0060] This has several advantages. - Only links for the currently displayed (mouse over) or selected (clicked) entity will be shown. In the example in Figure 6, combination 4 fits this description, using object 2 and object 4 as inputs. This ensures clarity and allows users to efficiently verify the measurement process. - The list of entities can be scrolled using the cursor keys. This will enable rapid and complete testing. - In addition to the entity name, the link also displays its position within each list (e.g., Input 1, Input 2). This allows users to efficiently verify names even if they have no inherent meaning.

[0061] Figure 7 is a schematic diagram illustrating an embodiment of the method according to the present invention, in which a measurement process for measuring the surface of an object is performed and visualized. Specifically, embodiments of the present invention will be described using measurement examples. A laser profile sensor (1) is used to measure the angle (2) between two regions (3, 3') on the surface of an object (4). The laser profile sensor (1) generates a laser line (5) that is projected onto the object (4). The laser line (5) is imaged onto an image receiver (such as a CCD camera) in the laser profile sensor (1) via a receiving optical system. As the laser profile sensor (1) moves over the object (4), the measured profiles can be stitched together to generate an image of the surface. In the example shown in Figure 7, this corresponds to the V-shaped groove (6) within the workpiece. The angle (2) between the two sides (3, 3') of the V-shaped groove (6) is determined.

[0062] Figure 8 is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. Figure 8 shows a graphical user interface for a software package used to perform the method according to an embodiment of the present invention, which is used for visualizing and evaluating measurement data. The program's main window (7) displays an image of the item to be measured (4) within a visualization box (8) for visualization purposes. Using the measured values ​​(point cloud not shown for clarity), a plane (9, 9') is generated representing the two sides (3, 3') of the V-shaped groove (6) in the workpiece. The dividing line (10) between the two planes (9, 9') shows the angle (11) between the planes, and represents the angle (2) between the two sides (3, 3').

[0063] Furthermore, Figure 8 shows a menu box (12) that controls the process flow of the measurement process. Using an example from the evaluation phase, we will illustrate objects, combinations of objects, and object properties.

[0064] Figure 9 is a schematic diagram showing the measurement process flow according to an embodiment of the method according to the present invention. Generally, the measurement process in the embodiment may initially include four process phases: data acquisition, data preprocessing, evaluation, and result output.

[0065] As part of the data acquisition process, a computer program is first used to establish a connection to an optical measuring device or sensor via an appropriate interface, set the measurement parameters, and then perform the measurement. The measurements generated by the sensor (in the case of a 3D sensor, these are usually point clouds, i.e., multiple measurement points in a suitable coordinate system) can be input into a computer program.

[0066] During the data preprocessing phase, the measured values ​​(original or optionally already preprocessed within the sensor) can be processed. This includes, for example, correcting the mounting position or (dynamic) aligning the object being measured (aligning dynamic components). Here, for example, it is possible to convert the coordinate system of the object being measured or the sensor to another coordinate system, such as the global coordinate system. Data preprocessing may include filtering of measurements and / or selecting measurements of the desired (area of ​​interest) region.

[0067] In the next evaluation phase, it is possible to determine the objects (such as edges, planes, spheres, and circles) and combinations of these objects, i.e., the desired evaluation operation (distance, angle, section, etc.).

[0068] Finally, the results of the evaluation operation are output as results (measured values, limit values, etc.).

[0069] To efficiently and quickly communicate the execution of the measurement process to the operator, this process flow is clearly displayed by a computer program in a menu box (12) on the graphical user interface of the display unit. The displayed selection list and property fields can be adjusted according to the step selected in the measurement process flow.

[0070] In the evaluation phase process flow, this is represented as follows:

[0071] As shown in the schematic diagram of the graphical user interface in Figure 10, initially, the areas within the list display of objects and combinations are empty.

[0072] Next, as shown in Figure 11, two objects ("Plane 1" and "Plane 2" as object entities in Figure 11) are created for plane extraction and parameterized accordingly.

[0073] Next, the combination "Angle" is created and linked to the two previously created objects "Plane 1" and "Plane 2" as input (see Figure 12).

[0074] The setup is now complete, and the angle between the two planes can be calculated and output.

[0075] In particular, when the "Angle 1" combination is selected (by hovering over it or clicking it, for example), a pointing element will appear, displaying the selected input (i.e., object) for that combination. Furthermore, the object's properties are displayed in a separate box. "Input 1" corresponds to "Plane 1," and "Input 2" corresponds to "Plane 2." These are used to calculate the angle "Angle 1" (i.e., the combination of Object 1 and Object 2).

[0076] Figure 13 is a schematic diagram showing the graphical user interface of a display device according to an embodiment of the present invention. In the case of complex evaluation involving multiple combinations, when each combination is selected, the associated objects and their properties are displayed.

[0077] Here, as a general rule, it is defined that in each step or phase of the measurement process, only calculation results from steps above the current step or from phases above the current one can be used. Combinations are only accessible to the objects and combinations listed above or that have already been created.

[0078] Furthermore, to support rapid consistency checks, a feature is provided that offers immediate feedback on the corresponding input data when an object or combination is selected, and provides intermediate results in the results box (13). In the example in Figure 8, the angle (11) value is output to the result box (13). For complex calculations, multiple intermediate steps and results can also be displayed here.

[0079] As a general rule, only objects or combinations whose results have already been calculated in the current measurement cycle can be used as input for other combinations in the process flow. Therefore, it is stipulated that a strict process flow without feedback must be followed.

[0080] A strict process flow means that the steps or phases of "data preprocessing" and "evaluation" are always performed in this order. Nevertheless, to enable module preprocessing using object data as input, a feature has been implemented that allows preprocessing / evaluation blocks to be managed by multiple blocks. This allows the operator to, for example, configure the system to align the point cloud with a plane that has been previously extracted from the data. Additionally, tasks can be divided into manageable blocks.

[0081] For example, it is possible to generate additional blocks that include steps / phases such as "data preprocessing" and "evaluation". For this purpose, refer to Figure 14, a schematic diagram showing the process flow of the measurement process according to an embodiment of the method according to the present invention.

[0082] By creating a second block that includes the "Data Preprocessing" and "Evaluation" steps / phases, objects extracted from the data in the "Evaluation 1" area become accessible from the "Data Preprocessing 2" area.

[0083] This is displayed in the menu box (12), with a block appearing next to the flowchart and the active block being highlighted (see Figure 15).

[0084] Therefore, access to the objects or combinations of the previous block becomes possible and is displayed by the corresponding reference. In the examples shown in Figures 14 and 15, the result of "Block 1" is accessed by "Block 2," which performs "Preprocessing 2."

[0085] In this embodiment, this may be indicated to the operator on the graphical user interface by a pointing element that points to an icon representing block 1. In Figure 16, the pointing element for "Preprocessing 3" is displayed from the box labeled as Block 1.

[0086] Clicking the displayed link to the parent block "1" immediately selects it, the display switches to block 1, and the selected entity is displayed. Therefore, the object in block 1 is accessed in block 2 (preprocessing 2). In other words, the objects in block 1 are used for further processing in block 2.

[0087] To avoid repetition regarding further configurations of the process and measurement system according to the present invention, please refer to the specification and claims.

[0088] Finally, the above-described embodiments of the processes and measurements according to the present invention are used solely to illustrate the teachings set forth in the claims and do not limit the claims to the embodiments. [Explanation of symbols]

[0089] 1 ·····Laser profile sensor 2...Angle 3, 3' · area 4... Goods 5 ·····Laser line 6...V-shaped groove 7 ·····Main window 8 ·····Visualization Box 9...plane 10 ·····Separating line 11...Angle 12 ·····Menu Box 13 ·····Result Box

Claims

1. A method for performing and displaying a measurement process using a measurement system, The measurement system comprises a computing device, a display device, and measuring means for measuring and sensing an object. The measurement process is controllable via the display device, The method described above is - A step of recording the measurement data generated using the measurement means, - A step of generating an object entity as an entity relating to the article that is measured and sensed, - A step of generating a combined entity as an entity relating to the article that is measured and sensed, - A relationship that is displayed using a graphical pointing element that can be displayed when a specified entity is selected, and a step of outputting the relationship between a plurality of generated entities, Includes, When the object entity is selected, the graphical pointing element visualizes the link to the combined entity that uses the selected object entity. A method for performing and displaying a measurement process using a measurement system, wherein, when the combination entity is selected, the graphical pointing element visualizes a link to the object entity that the selected combination entity uses as input.

2. The method according to claim 1, characterized in that the combination entity is based on a plurality of entities such that the combination entity uses a plurality of entities as input entities, and the input entities are the object entities or the combination entity.

3. The method according to claim 1 or claim 2, characterized in that the combined entity represents an evaluation operation, and the evaluation operation is determined by combining a plurality of entities.

4. The method according to any one of claims 1 to 3, characterized in that a rim, plane, circle, sphere, line and / or center of gravity is determined as an object entity relating to the article being measured.

5. The method according to any one of claims 1 to 4, characterized in that angles, distances and / or sections are determined as combined entities relating to the article being measured.

6. The method according to any one of claims 1 to 5, characterized in that the object entities are displayed in a first group via the display device, and the combined entities are displayed in a second group via the display device.

7. The method according to any one of claims 1 to 6, characterized in that, if the specified entity is selected, the relationships between the specified entities are displayed.

8. The method according to any one of claims 1 to 7, characterized in that the graphical pointing element includes lines, pointers and / or arrows.

9. The method according to any one of claims 1 to 8, characterized in that an entity is selected by mouseover, click and / or key navigation.

10. The method according to any one of claims 1 to 9, characterized in that when an entity is selected, the associated property fields are displayed.

11. The method according to any one of claims 1 to 10, characterized in that the measuring means is designed to measure distance, position, shape, color and / or temperature, and / or the measuring means includes an optical measuring means, a laser distance sensor, a laser profile sensor, a camera, a distance sensor, a position sensor, a shape sensor, a color sensor and / or a temperature sensor.

12. A measurement system that performs and displays a measurement process, by performing the method described in any one of claims 1 to 11, The measurement system comprises at least one computing device, at least one display device, and at least one measuring means for measuring and sensing an article. The measurement process is controllable via the display device, The measurement system, The measurement data generated using the aforementioned measurement means can be recorded. An object entity can be generated as an entity relating to the article being measured and sensed. A combined entity can be generated as an entity relating to the article being measured and sensed. The relationships between the multiple entities that have been generated are output via the display device. The display device can display the relationship using a graphical pointing element that becomes available when a specified entity is selected. When the object entity is selected, the graphical pointing element visualizes the link to the combined entity that uses the selected object entity. When the combination entity is selected, the graphical pointing element visualizes the link to the object entity that the selected combination entity uses as input. A measurement system designed for this purpose.

13. A computer program product that includes program code recorded on a machine-readable medium and provides and performs a method for performing and displaying a measurement process using the measurement system described in any one of claims 1 to 11.

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