TWI720480B - Analog display system - Google Patents

Abstract

An analog display system include a model generation module for generating an object model signal; a background generation module for generating a background model signal; an operation processing module coupled with the model generation module and the background generation module and receiving the object the model signal and the background model signal, the operation processing module converts the object model signal into a virtual object model, and the operation processing module converts the background model signal into a virtual background model; the operation processing module uses the virtual the virtual model is superimposed on the virtual background model, and the virtual processing model is coupled to a display module. the virtual hybrid model is displayed through the display module. According to the above structure, the user can be in any electronic the device is operated and simulated, and the virtual mixed model is used to know the physical condition after completion, and the purpose of dynamic simulation operation is achieved.

Description

Simulation display system

This creative department is related to an analog display field, especially an analog display system.

In the field of interior decoration or house decoration, when the cooperation between the customer and the manufacturer, the manufacturer’s construction staff will be required to come to the site for on-site surveys and on-site measurement of various sizes, through their own experience and matching catalogs, and through oral presentations and on-site comparisons. Communicate with customers in a way, so that customers can understand and imagine what it will look like after actual completion.

However, the current practice, when the customer has other ideas, the construction staff must go to the site to re-explain or imagine the plan, which is very inconvenient for the manufacturer’s construction staff. In addition, this method requires relatively high experience for the construction staff. Imagining that it takes a long time to accumulate experience to know the appearance after construction and verbal expression, which cannot be developed in a short time.

In addition, for customers, because the experience and proficiency are far less than those of the construction staff, it is easy to have a cognitive gap caused by many factors such as size, color matching, angle, appearance, and overall visual perception through the construction staff’s description of the matching catalog. This leads to many derivative problems.

In other words, the current practice has the following inconveniences and needs to be improved; 1. The completion of the appearance requires imagination, which is likely to cause a cognitive gap; 2. It requires repeated communication and on-site measurement to increase the workload of the construction staff; 3. The set objects can only refer to the catalog, and cannot be displayed after customization.

Therefore, how to solve the above-mentioned problems and deficiencies is the direction that the creators of this project and the related manufacturers engaged in this industry urgently want to study and improve.

In order to improve the above-mentioned problems, this creation provides a simulation display system that allows users to operate at will.

This creation also provides a simulation display system that can display customized objects.

In order to achieve the above purpose, this creation provides a simulation display system, which includes: a model generation module, which generates an object model signal; a background generation module, which generates a background model signal; an arithmetic processing module, and The model generation module and the background generation module connect and receive the object model signal and the background model signal, the calculation processing module converts the object model signal into a virtual object model, and the calculation processing module the background model signal Converted into a virtual background model; the arithmetic processing module overlaps the virtual object model on the virtual background model to generate a virtual hybrid model, the arithmetic processing module is connected to a display module, and the virtual hybrid model is displayed through the display Module display.

In this way, the customer (or user) can use the created system with an electronic device by himself, and overlay the virtual object model on the virtual background model through the electronic device to generate a virtual hybrid model similar to the completed virtual model through the image method Display, so that the customer (or user) can clearly understand the finished appearance through the image. In addition, the created system can also allow the customer (or user) to operate by themselves to change and operate, and to show the customer through simulation. Manufacturing objects to improve many current problems.

1: Simulation display system

11: Model generation module

111: Model parameter setting unit

12: Background generation module

121: background parameter setting unit

13: Operation processing module

14: Result access module

2: Electronic processing device

21: Camera unit

22: storage unit

23: display unit

3: Computing processing platform

S01, S02, S03, S04, S11, S12, S13, S14, S21, S22, S23: steps

VOM: Virtual Object Model

VBM: virtual background model

Figure 1A is a block diagram of the creation architecture (1); Figure 1B is a block diagram of the creation architecture (2); Figure 2A is a schematic diagram of the creation process (1); Figure 2B is a schematic diagram of the creation process (2); Figure 3A is a schematic diagram of the dynamic size change of the creative virtual object model (1); Figure 3B is a schematic diagram of the dynamic size change of the creative virtual object model (2).

The above-mentioned purpose of this creation and its structural and functional characteristics will be described based on the preferred embodiments of the accompanying drawings.

Please refer to Figure 1A and Figure 1B, Figure 2A and Figure 2B, which are the architectural block diagrams (1), (2) and flow diagrams (1) and (2) of this creation. This creation simulation display system 1 It needs to be used with an electronic processing device 2. The electronic processing device 2 is, for example, but not limited to, a smart phone, a smart tablet, a notebook computer or a desktop computer. The electronic processing device 2 also includes a camera unit 21 and a storage unit 22 and a display unit 23. The camera unit 21 is used to capture external images, and the storage unit 22 is used to store external images captured by the camera unit 21. The camera unit 21 is, for example, but not limited to, a lens module. The storage unit 22 is, for example, but not limited to a read-only memory (Read-Only Memory, ROM), and the display unit 23 is, for example, but not limited to, a liquid crystal display.

The analog display system 1 can be stored in the electronic processing device 2 or a remote computing processing platform 3. When the analog display system 1 is stored in the electronic processing device 2, the concept is like installing an application in the electronic processing device 2. Use, when the simulation display system 1 is stored in the remote computing processing platform 3, the electronic processing device 2 needs to communicate with the remote computing processing platform 3, and the computing part is processed by the hardware of the computing processing platform 3. Pass it to the electronic processing device 2 for display, reducing the burden on the electronic processing device 2.

The simulation display system 1 includes a model generation module 11, a background generation module 12, an arithmetic processing module 13 and a result access module 14. The model generation module 11, the background generation module 12 and the The arithmetic processing module 13 is connected, the arithmetic processing module 13 is connected to the result access module 14, the model generation module 11 generates an object model signal, and the background generation module 12 generates a background model Signal, the arithmetic processing module 13 converts the object model signal into a virtual object model, converts the background model signal into a virtual background model, and the arithmetic processing module 13 superimposes the virtual object model on the virtual background model to generate a virtual Hybrid model.

The model generation module 11 further includes a model parameter setting unit 111 for changing the object model signal. The model parameter setting unit 111 is used for changing various dynamic parameters of the object model signal, such as length, width, height, and other characteristics. Features will vary depending on the type of model. For example, when the model is a window frame, it is the shape, number, density, etc. of the railing, and when the model is a door, it is the pattern, grip, etc.

The background generation module 12 further includes a background parameter setting unit 121 for changing the background model signal. The background parameter setting unit 121 is used for changing various dynamic parameters of the background model signal, such as length, width, height, and other characteristics. For example, but not limited to, the pattern, color or other parts of the wall surface.

The aforementioned virtual object model has an object reference point, and the arithmetic processing module overlaps the object reference point with the background to generate a virtual hybrid model, and uses the overlap of the reference points as a reference point to make the virtual object model perform an angle based on the reference point , Direction, tilt, size, etc. adjustments.

In other words, the user can dynamically change the virtual object model. After the reference point of the virtual object model is determined, the user can start to change various specifications and angle directions through operations. The user does not need to adjust the virtual background. In the state of the model, you can directly change the virtual object model, making it more intuitive and convenient to use.

The above result access module 14 stores the completed virtual hybrid model in the storage unit 22 for later viewing or modification for file reading.

Please refer to Figure 2A. This creation is roughly divided into three major steps when using it, namely, generating and setting virtual object models, generating and setting virtual background models, overlapping virtual object models and virtual background models, and performing related adjustments and settings. Please refer to steps S01~S04 first. In order to generate and set virtual object models, after the object model signals are generated through the model generation module 11, the dynamic parameters are set through the model parameter setting unit 111, and the calculation processing module 13 converts the object The model signal is converted into a virtual object model and output; please refer to steps S11~S14 again, in order to generate and set a virtual background model, after the background model signal is generated by the background generation module 12, the dynamic parameters are set through the background parameter setting unit 121 for calculation processing The module 13 converts the background model signal into a virtual background model and outputs it; finally referring to steps S21~S23, the arithmetic processing module 13 overlaps the object reference point of the virtual object model with any place of the virtual background model, and then further adjusts the virtual background model. The angle, direction, tilt, size, etc. of the object model are at the ideal position, and finally the completed virtual hybrid model is stored in the storage unit 22 through the result access module 14.

The above steps S01~S04 and steps S11~14 do not have a certain sequence. You can choose one to proceed first and then complete the other part, but you need to complete steps S01~S04 and steps S11~14 before proceeding to step S21~ S23.

Although the above-mentioned virtual background model is made by setting, the virtual object model is superimposed on the virtual background model (that is, the concept of virtual reality (VR)), but it can be further extended with the electronic processing device 2 Application, because the use of virtual reality (VR) is used, the camera unit 21 in the electronic processing device 2 is not required. Therefore, the electronic processing device 2 can be, for example, a smart phone or a computer without a camera lens. A combination of wearable displays, or through soft The camera unit 21 is not activated in a physical manner, that is, the use of virtual reality (VR) will only use the virtual hybrid model in the storage unit 22 and the display unit 23 to display the results.

Please refer to Figure 2B, which is the situation where the camera unit 21 or the internal memory image is used as the background. The camera unit 21 first takes a photo of the scheduled construction site as a virtual background model, and then overlays the virtual object model on the virtual background model (ie It is the concept of layer overlap); or directly turn on the camera unit 21, directly display the virtual object model on the display unit 23, let the real-time image captured by the camera unit 21 be used as the virtual background model, and overlap the virtual object model on the virtual background Above the model (that is, the concept of augmented reality), that is to say, the large step of generating and setting the virtual background model only needs to perform step S11.

Please refer to Figures 3A and 3B, which are schematic diagrams of the dynamic size changes of the virtual object model (1) and (2). The user views the virtual object model VOM and the virtual background model VBM through the electronic processing device 2. The background model VBM is a fountain, and the virtual object model VOM is a fence. The user can arbitrarily adjust various parameters of the virtual object model VOM through the model parameter setting unit 111. In this embodiment, it is the number of horizontal bars and straight bars of the fence. The number, the width between each line, the overall height and width of the fence, the color and material of the fence, etc., are dynamically changed in the process of adjusting the virtual object model VOM, which means that the virtual object model VOM will follow the user The setting changes immediately, so as to achieve the advantage of rapid display change.

This creation uses the electronic processing device 2 and the simulation display system 1 to greatly improve the inconvenience of the previous interior design and decoration. In addition, the customer (or user) can freely use the simulation display system 1 to design and plan, and after completion Provide the files of the virtual hybrid model to the manufacturer (or construction staff) to reduce the cognitive gap between the two parties and make communication more convenient.

In addition, because the virtual object model VOM generated by this creation has been parameterized (that is, generated through dynamic dimensions), subsequent applications will be faster, for example, manufacturers can create virtual objects based on The dynamic size of the quasi-object model VOM is used to estimate the material cost and construction method cost when the actual product is made, thereby speeding up the relevant steps such as valuation.

Continuing the above, this creation can further be connected to some order-taking systems or contract generation systems, and use the above results to quickly generate contract electronic files for application, making it faster and more convenient to use.

In summary, this creation has the following advantages: 1. It can display customized objects; 2. It can be operated at will by the user; 3. It can be used through any platform or electronic device; 4. It serves as a basis for discussion between the two parties. .

This creation has been described in detail above, but what is described above is only a preferred embodiment of this creation, and should not limit the scope of implementation of this creation. That is to say, all equal changes and modifications made in accordance with the scope of the application for this creation shall still fall within the scope of the patent for this creation.

1: Simulation display system

11: Model generation module

111: Model parameter setting unit

12: Background generation module

121: background parameter setting unit

13: Operation processing module

14: Result access module

2: Electronic processing device

21: Camera unit

22: storage unit

23: display unit

Claims (6)

A simulation display system is connected to an order receiving system, which includes: a model generation module that generates an object model signal, the model generation module further includes a model parameter setting unit to change the characteristics of the object model signal; The background generation module generates a background model signal; an arithmetic processing module is connected to the model generation module and the background generation module and receives the object model signal and the background model signal, and the arithmetic processing module The object model signal is converted into a virtual object model, the operation processing module converts the background model signal into a virtual background model; the operation processing module superimposes the virtual object model on the virtual background model to generate a virtual hybrid model, The arithmetic processing module is connected to a display module, and the virtual hybrid model is displayed through the display unit; the order system generates a contract electronic file according to the characteristic quantity of the object model signal. According to the simulation display system described in item 1 of the scope of patent application, the virtual object model has an object reference point, and the virtual object model dynamically changes according to the model parameter setting unit. In the analog display system described in claim 1, wherein the background generation module further includes a background parameter setting unit to change the background model signal. For example, the analog display system described in claim 1, wherein the background generation module is connected to a camera unit, the background generation module captures an image signal farther than the camera unit, and the background generation module displays the image The image signal is converted into the background model signal. For example, the analog display system described in item 1 of the scope of patent application, wherein the background generation module is connected to a storage unit, the background generation module generates an image signal through the data stored in the storage unit, and the background generation module generates The image signal is converted into the background model signal. Such as the simulation display system described in the first item of the scope of patent application, wherein the simulation display system further includes a result access module to store the completed virtual hybrid model in a storage unit.

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