116 or by a phone camera 118, and a user may use the scanned objects or images to generate patterns, such as a pattern C 103.

System 100 is the central unit within the approach, orchestrating the interaction between various patterns and user inputs. Its pivotal role is to process and analyze patterns received, for example, from Media 101 and those generated by the system itself and the user. System 100 integrates these patterns to facilitate a specific operation or set of operations, which may include, but are not limited to, pattern recognition, pattern generation, and user interaction. System 100 may comprise a processor, memory, and communication interfaces to perform the designated functions.

3.0. Examples of Various Pattern Types Used for Recognition

FIG. 1B displays examples of various pattern types used for system recognition. FIG. 1B shows PATTERN A 152, PATTERN B 154, PATTERN C 156, PATTERN D 162 and PATTERN E 164. PATTERN A 152 comprises a two-dimensional Quick Response (QR) code, a matrix barcode that stores information for retrieval by a scanning device. PATTERN B 154, PATTERN C 156, PATTERN D 162, and PATTERN E 164 display complex image-based designs, which may serve as reference points for pattern recognition by a computer system.

PATTERN A 152, as a QR code, is designed to encode data that a scanning device can capture and a computer system can process to link physical objects to virtual manifestations within a virtual environment. The encoded data may relate to the virtual content corresponding to the physical object on which PATTERN A 152 is displayed.

PATTERNS 154/156/162/164, while differing in visual design, both function as recognizable patterns that a computer system can use to connect a physical object and the object's virtual counterpart. These patterns may be applied to surfaces of physical objects such as books, tabletops, or other tangible items to facilitate the rendering of virtual manifestations that correspond to these objects within a virtual environment.

The significance of PATTERN B 154 and PATTERN C 156 lies in their complexity and uniqueness, which allows for precise pattern recognition and differentiation by a computer system. This precision is essential for ensuring that the virtual manifestations rendered in the virtual environment accurately correspond to the correct physical object, enhancing the user's interaction and experience.

Overall, FIG. 1B illustrates patterns essential to the method and apparatus for enhancing user interaction within a virtual environment by providing a physical connection to virtual manifestations. These patterns enable the capture, recognition, and association of physical objects with virtual content, facilitating a more immersive and tactile experience in virtual, augmented, or mixed-reality environments.

Referring to both FIG. 1A-1B, Pattern A from Media 101 represents a predefined design or sequence that serves as a reference or starting point within the system 100. Media 101 may include a variety of forms, such as digital files, printed materials, or physical objects that embody Pattern A. The role of Pattern A from Media 101 is to provide a baseline for comparison or integration with other patterns within the system 100. Media 101 may be introduced to the system 100 through scanning devices, user input, or network communication protocols.

Pattern B generated by the system 102 is a derivative pattern created by system 100 based on Pattern A from Media 101 or other inputs. The generation of Pattern B by the system 102 involves computational processes that may include transformation, combination, or enhancement of the initial Pattern A. System 100 utilizes various algorithms and processing techniques to produce Pattern B, which may serve a specific purpose such as user authentication, object identification, or interactive feedback within the system's operational context.

Pattern C generated by a user 103 is a user-created pattern that interacts with system 100. User inputs, which result in the creation of Pattern C, may come from a variety of sources such as touch interfaces, voice commands, or motion detection systems. Pattern C generated by a user 103 allows for personalization and user-specific responses from system 100. The interaction between Pattern C and system 100 can lead to a multitude of outcomes, including the customization of system operations, the initiation of user-defined processes, or the modification of existing patterns within the system.

4.0. Different Embodiments

In some embodiments, a physical object could be an innovative coffee table with an integrated surface pattern that, when scanned by a specialized camera, triggers the appearance of a virtual coffee cup on a user's augmented reality (AR) headset. The virtual coffee cup would be rendered in the exact location of the pattern, allowing the user to reach out and “feel” the cup through haptic feedback devices embedded within the table's surface. This embodiment provides a seamless blend of physical and virtual interaction, enhancing the user's sensory experience within the virtual environment.

Another embodiment might involve a children's educational toy, such as a puzzle with pieces that have unique patterns. When a piece is placed correctly, a scanning device recognizes the pattern. It communicates with a computer system to display an animated character or story element on a nearby screen or within a mixed-reality headset. This embodiment entertains and educates by providing immediate virtual feedback on physical actions, reinforcing learning through interactive play.

A further embodiment could be a fitness apparatus, like a yoga mat with printed patterns corresponding to different poses. As the user performs yoga on the mat, a scanning device captures the pattern nearest to the user's current position and relays this information to a computer system. The system then projects a virtual instructor into the user's AR glasses to guide them through the correct pose, adjusting the virtual guidance in real time based on the user's alignment with the patterns on the mat. This embodiment offers a personalized and immersive fitness experience that combines the benefits of a physical workout with the guidance of a virtual instructor.

In another embodiment, the physical object could be a musician's instrument, such as a guitar with a patterned fretboard. As the musician plays, a scanning device detects the patterns where the fingers are placed, and the computer system generates a virtual visualization of the music being played, such as notes or tablature, in the musician's field of view through AR glasses. This embodiment provides an innovative way for musicians to learn and visualize music in real time, enhancing the process of mastering an instrument.

Each of these embodiments demonstrates the approach's versatility in providing a tangible connection between physical objects and their virtual counterparts, thereby enriching user interaction within virtual environments across various applications.

5.0. Additional Different Embodiments

In some embodiments, the system is constructed using various materials that offer different durability, weight, and cost-effectiveness levels. For instance, system components could be made from high-strength alloys for applications requiring robustness or lightweight composites where weight savings are critical. Another embodiment might feature modular design elements, allowing for easy replacement or upgrading of individual components without overhauling the entire system. This modularity could extend to including interchangeable parts catering to different performance specifications or environmental conditions.

As an example, panels with printed patterns can be used for command and control interfaces instead of costly control systems. In place of traditional analog or digital dials and switches in industrial settings, the patterned panels can be placed in stationary physical locations where virtual controls that can be interacted with can be presented. These controls can be adapted to individual users with specific duties, arranged or edited for a particular user's preference, or over time, can be changed in the virtual world to reflect the changed needs for controlling new or upgraded machines and systems in the physical world.

Furthermore, an embodiment could incorporate advanced control mechanisms, ranging from manual controls to fully automated, AI-driven systems that adjust the system's operation based on real-time data inputs. The system could also be scaled in size to suit various operational contexts, from compact versions for use in confined spaces to larger configurations for industrial-scale applications. Additionally, the system might offer multiple configurations of its components to optimize its functionality for specific tasks, such as altering the layout or orientation of certain parts to handle different types of workloads better or integrate seamlessly with existing equipment or processes.

In terms of operational methods, an embodiment could be designed to function under a range of power supply conditions, from no or low-power modes that conserve energy to high-performance modes that maximize output. The system could also be equipped with various sensors and feedback mechanisms to monitor its performance and provide diagnostics or predictive maintenance alerts, thereby enhancing reliability and longevity. While distinct in their specific features and applications, each of these embodiments would maintain the core functionality and adaptability outlined in the system's design.

6.0. Example Pattern Recognition Process

FIG. 2 is a block diagram illustrating the pattern recognition and interaction process within a mixed-reality environment. FIG. 2 shows System 100, where a pattern is applied to an object or surface 202. A user selects a virtual environment 204, and a scanning device captures the pattern 206.

System 100 then recognizes the pattern 208 and identifies the virtual environment 210. Following this, System 100 returns user-specific information 212 and calibrates machine operation based on the recognized pattern 214. The system determines a relevant volume or surface 216 and generates a command to a machine or apparatus 218. Consequently, the appropriate volume or surface appears in the virtual environment to the user 220, and the machine or apparatus generates physical feedback for the user 222.

In the depicted example, the Pattern is applied to an object(s) or surface(s) 202 and is a foundational element in System 100. This component involves the application of a specific pattern, which may include a variety of shapes, symbols, or coded information, onto one or more physical objects or surfaces. Pattern 202 can be applied through various methods, such as printing, painting, or affixing a pre-designed label. The choice of pattern and application method depends on the intended use within the system and the nature of the object or surface. Once applied, Pattern 202 interacts with other components of System 100 to facilitate user interaction and system functionality.

“Pattern is scanned by scanning device 206” captures the visual or geometric information of Pattern 202. Scanning device 206 can be a camera, a 3D depth-sensing device, or any other suitable image capture technology capable of accurately detecting the applied pattern on the object or surface. The scanning process involves the conversion of the physical pattern into digital data that System 100 can process. Scanning device 206 ensures high fidelity in capturing the pattern to enable precise recognition and subsequent system actions.

“System recognizes pattern 208” is a component that involves analyzing and identifying the scanned pattern data by System 100. This component employs algorithms and processing techniques to compare the captured data against known patterns or a database of patterns to ascertain the identity of Pattern 202. Recognition of the pattern is necessary for System 100 to understand the user's interaction with the object or surface and to determine the system's appropriate response or action.

“System recognizes environment 210” involves identifying and understanding the virtual environment selected by user 204. This component is responsible for interpreting the context within which Pattern 202 is being used. Recognition of the environment is crucial for calibrating the system's response to the pattern and for providing a coherent and relevant user experience. System 100 utilizes data regarding the virtual environment to tailor its operations and outputs to match the user's expectations and the environmental context.

“System returns user-specific information 212” is a component that provides personalized data or feedback to the user based on the recognized pattern and environment. This component considers the user's preferences, history, and interactions with System 100 to generate information tailored to the individual. The user-specific information can include instructions, recommendations, or any other relevant data that enhances the user's engagement with the system and the virtual environment.

“System calibrates machine operation based on pattern 214” is a component that adjusts a machine's or apparatus's functioning in response to the recognized pattern. Calibration involves modifying operational parameters such as speed, force, heat, or movement patterns to align with the requirements dictated by Pattern 202. This component ensures that the machine or apparatus operates in a manner that is consistent with the user's interaction with the pattern and the chosen virtual environment.

“System determines relevant volume(s) or surface(s) 216” is a component that identifies the specific areas of interaction between the user, Pattern 202, and the virtual environment. This component assesses the spatial dimensions and locations pertinent to the user's activities and the system's response. Determining the relevant volumes or surfaces is essential for accurate system operation, as this component directs the focus of both virtual and physical responses to the areas of interest.

“System generates a command to machine or apparatus 218” is a component that translates the system's recognition and calibration processes into actionable instructions for a machine or apparatus. This component bridges the digital and physical aspects of System 100, converting data and decisions made within the virtual environment into real-world mechanical or electronic actions. The commands generated by this component direct the machine or apparatus to perform specific tasks that correspond to the user's interaction with the pattern and the virtual environment.

“Relevant volume(s) or surface(s) that appear in a virtual environment to user 220” is a component that visually represents the determined relevant volumes or surfaces within the virtual environment. This visual representation allows the user to perceive and understand the areas of interaction and focus within the virtual space. The appearance of these volumes or surfaces in the virtual environment aids the user in navigating and interacting with the system, clearly indicating where actions will occur or feedback will be received.

“Machine(s) or apparatus generate physical feedback for user 222” is a component that creates tangible responses or sensations for the user based on the system's operations. This feedback can take various forms, such as haptic vibrations, resistance, or motion, and is designed to enhance the user's sensory experience within the virtual environment. The physical feedback is synchronized with the virtual actions and user interactions, providing a cohesive and immersive experience that bridges the gap between the digital and physical realms.

A server (not shown) may be a component that provides centralized processing and data management capabilities for System 100. The server may host databases, manage user sessions, and perform complex computations the system requires. This component is often responsible for handling the heavy lifting of data processing, allowing for efficient system operation and timely responses to user interactions. The server communicates with other components of System 100 to coordinate system-wide activities and ensure seamless user experiences.

7.0. Examples of Pattern Applications

Referring again to FIG. 1A-1B, the system 100 integrates various components to facilitate the interaction between physical patterns and a virtual environment. System 100 includes Pattern A from Media 101, Pattern B generated by system 102, and Pattern C generated by a user 103. Pattern A from Media 101 is a predefined reference that System 100 utilizes to recognize and interpret physical patterns. Pattern B, generated by system 102, represents a machine-generated counterpart to Pattern A, which system 100 uses to compare and analyze patterns within the operational context. Pattern C generated by user 103 reflects user-created or user-modified patterns that system 100 processes to personalize the user's experience within the virtual environment.

Pattern A 101, Pattern B 102, and Pattern C 103 are essential to the system's ability to differentiate and process various patterns. Pattern A 101, originating from Media 101, provides a baseline for the system 100 to identify and calibrate responses. Pattern B 102, as generated by the system 102, allows for dynamic interaction and adaptation to the user's inputs or environmental changes. Pattern C 103, as generated by a user 103, introduces a level of customization and personalization, enabling the system 100 to cater to individual user preferences and requirements.

The system 100 applies Pattern A 101, Pattern B 102, and Pattern C 103 to an object(s) or surface(s) 202 within a chosen virtual environment 204. The scanning device 206 scans the applied patterns, and the system 100 recognizes the pattern 208 and the environment 210. Based on this recognition, the system 100 returns user-specific information 212 and calibrates machine operation based on the pattern 214. The system 100 determines relevant volume(s) or surface(s) 216 and generates commands to a machine or apparatus 218. The relevant volume(s) or surface(s) 220 appear in the virtual environment to the user, and the machine(s) or apparatus 222 generate physical feedback for the user.

FIG. 3A illustrates pattern applications on a physical object resembling a book cover. FIG. 3A illustrates the construction of a book form factor, displaying the physical characteristics of a book 302 with a cover and interior pages 304. This figure provides a visual representation of how the physical object, in this case, book 306, can be designed to resemble a traditional book with recognizable features such as a cover and pages. The pattern is printed on the interior surface of page 308, allowing for pattern recognition and interaction within the virtual environment. This embodiment demonstrates the application of the approach in the context of a book-like object, highlighting the potential for enhanced user interaction and immersion in virtual environments.

FIG. 3B illustrates the interaction between a user and a patterned object within a physical world and the corresponding virtual representation in a virtual world. FIG. 3B shows a side-by-side comparison of elements in both the physical and virtual worlds. On the left side, representing the physical world, a wearable headset 310 is depicted with a camera 312. Camera 312 is oriented toward a physical object 314, which displays patterns 308 on the surface of the physical object 314. A user's hand is shown interacting with the physical object 314, suggesting the capture of patterns 308 by camera 312.

On the right side, representing the virtual world, physical object 314 is shown again, but this time as a virtual representation of the physical object 316. The virtual representation 316 reflects the interaction occurring in the physical world, as indicated by the alignment of the physical object 314 in both the physical and virtual depictions. This alignment demonstrates the system's capability to mirror the position and orientation of the physical object 314 within the virtual environment, maintaining a consistent and corresponding virtual representation 316.

The figure illustrates the system's ability to bridge the gap between the physical and virtual worlds by capturing real-world interactions and translating them into the virtual environment. Camera 312 plays a role in this process by capturing patterns 308, which the system uses to recognize and render the virtual representation 316. The user's interaction with physical object 314, as captured by camera 312, is important to the system's functionality, enabling real-time updates to virtual representation 316 in response to the user's actions.

Wearable headset 310, equipped with camera 312, allows the user to interact with the virtual environment and physical object 314. Patterns 308, when recognized by system 100, facilitate the creation of a virtual representation of physical object 316, enhancing the user's immersive experience.

8.0. Scanning Methods

FIG. 4 illustrates a block diagram depicting various scanning methods for pattern recognition. FIG. 4 shows scanning the pattern 400 that encompasses multiple scanning technologies. The figure illustrates the use of various devices to capture the pattern on a surface of a physical object. Each device represents a different method of scanning, contributing to the system's ability to recognize patterns and associate them with corresponding virtual content. More than one scanning method can be used at a time to increase the ability of the system to capture and identify patterns.

“Scan the pattern using a camera 403” depicts a standard optical camera that captures images in visible light. This camera serves as a scanning device that can detect patterns on the surface of a physical object. The captured image data is then analyzed by a computer system to recognize the pattern.

“Scan the pattern using a 3D depth-sensing camera