CONNECTORLESS, CLOSED-BODY, CONTACTLESS POWER AND DATA TRANSFER, LOCAL VOICE VERIFICATION MODULAR TRAINING BLOCK SYSTEM

Abstract

This invention relates to a modular training block system consisting of multiple modular training blocks, featuring a connectorless, closed housing, contactless power and data transfer, and local voice verification. The system includes: closed-housing modular training blocks without exposed electrical contact points; a contactless interface structure that enables power and data transfer between modules without requiring exposed electrical conductive contact; an alignment sensor structure that detects the physical arrangement of modules relative to each other; a microphone located on at least one module; a local voice processing unit that processes the voice input on the module; a local verification unit that compares the target expression obtained from the physical alignment data with the defined expression obtained from the voice input; and a feedback element that produces output based on the verification result. With this structure, the system locally verifies the compatibility between the physical block arrangement and the voice expression within the module ecosystem without an external server connection.

Description

CONNECTORLESS, SEALED-BODY, CONTACTLESS POWER AND DATA. TRANSFER-BASED, LOCAL VOICE VERIFICATION MODULAR TRAINING BLOCK SYSTEM 1. TECHNICAL FIELD This invention incorporates modular training blocks, contactless energy and data transfer structures, and native voice processing. mechanisms, physical alignment detection systems, and feedback based on user interaction. It is related to educational devices that are produced. The invention specifically relates to multiple modular systems with a closed housing that does not contain exposed electrical contact points. consisting of training blocks, with open electrical conductive contact between the modules in question. a physical arrangement of modules relative to each other that enables energy and data transfer without requiring detecting, processing the voice input received from the user locally on the block, and physically A modular training block that validates sequence data and voice input within the same module ecosystem. It relates to the system. The invention also includes visual, auditory, and tactile output elements based on the verification result. an external server that produces output for the user, with at least one feedback element selected from among them. It includes interactive learning systems that operate without requiring a connection. 2. STATE OF KNOWLEDGE OF THE ART Modular educational tools, interactive toys with sound, and electronic learning blocks have long been popular. It has been in use for a long time. The general technical approach in these structures is to provide the user with visual or auditory input. to provide feedback, to facilitate basic data exchange between modules, or in advance It is based on creating interaction according to defined responses. However, the current Solutions include voice input processing, module arrangement detection, power delivery, and feedback to the user. Notification generation functions are mostly independent subsystems. It is being organized. In known modular block systems, energy or data connections between modules are often direct contact electrical connectors, metal contact surfaces, wired connections or is provided via an external control unit. This structure is at the contact points. wear, oxidation, contamination, misalignment, and user-induced connection problems It constitutes 35. Open contact, especially in educational environments where child users are present. These points create limitations in terms of safety, durability, and maintenance. 1 5 In known systems that provide voice interaction, the expression spoken by the user is usually singular. It is evaluated individually. The voice response, along with the current physical arrangement of the modules. And validation within the same device architecture is not common. In current audio training tools... Speech recognition often relies on predefined word lists. This type of process... There is a correlation between the content represented by the physical block arrangement in the structures and the user's voice response. No real-time or local verification is performed. In cloud-based or external server-connected audio processing systems, acoustic data is processed externally. It needs to be sent to a processing infrastructure. This situation involves latency, connection dependency, This creates limitations in terms of data transfer load and user privacy. Network connectivity is particularly important for applications requiring real-time feedback, especially in educational settings. The dependent work style reduces technical efficiency. In some systems that detect module arrangement, physical configuration information is only available based on the arrangement itself. This information is used for identification purposes, and this process is the same as the voice input received from the user. It is not compared within the chain. Some audio processing systems also have physical modules. The sequence remains an independent parameter; the system processes these two data sources together. It does not perform verification using this method. In the known state of the art; • Closed-body modular block structure with no exposed electrical contact points, • Energy and data transfer between modules without requiring open electrical conductive contact. providing a contactless interface structure, • Array sensor structure that detects the physical arrangement of modules relative to each other, • Local voice processing that handles the user's voice input locally on the module. unit, • Local interface that compares physical array data with voice input within the same module ecosystem. verification unit, • and a feedback element that generates output for the user based on the verification result. • A comprehensive, integrated educational system encompassing both is not sufficiently clearly defined. Therefore, open between closed-body modular blocks that do not contain open contact points. A modular array that enables energy and data transfer without requiring electrically conductive contact. It detects, processes, and integrates voice input from the user locally, along with a physical array of voice inputs. A new technical solution is needed to verify all 35 statements within the same system. 2 5 3. PURPOSE OF THE INVENTION The purpose of this invention is to create an open electrical contact point between modular training blocks. enabling energy and data transfer without requiring physical array data locally. Modular training that detects and verifies voice input received from the user within the same system. The goal is to create a block system. Another objective of the invention is to use a closed-body modular block structure to create contact surfaces. resulting from wear, oxidation, misalignment, contamination, and user contact. The goal is to create a system architecture that reduces security concerns. Another objective of the invention is a sensor structure that detects the physical arrangement of the modules relative to each other. with the local audio processing unit that processes the voice input received from the user on the module. by integrating physical state and vocal expression simultaneously within the device architecture. The goal is to ensure verification. Another aim of the invention is to eliminate the need to send voice input to an external server. By enabling processing on the module, network dependency, latency, and data transfer overhead are reduced. The goal is to create a local validation structure that reduces the need for validation. Another aim of the invention is to create a circuit between modules without requiring open electrical conductive contact. a feedback mechanism that works in conjunction with an interface structure that provides energy and data transfer by generating and delivering the verification result to the user as visual, auditory, or tactile output. The goal is to provide an integrated education system. Another objective of the invention is to integrate the module array and voice response within the same processing chain. through evaluation, the concept expressed by the user through the physical block arrangement a structure that technically monitors the compatibility between them and produces the result of the interaction on the device to create. Another objective of the invention is to enable modular training blocks to function without an external server connection. By enabling it to operate within its own module ecosystem, it is portable in educational environments. The goal is to create a system architecture that is connection-independent and capable of generating real-time feedback. 4. EXPLANATION OF THE FIGURES 4.1 No figures are included in the application. 5. EXPLANATION OF REFERENCES IN THE FIGURES 35 5.1 Since no figures are included in the application, a reference list is not provided. DETAILED DESCRIPTION OF THE 6TH INVENTION 6.1 General system structure 3 5 6.1.1 The invention consists of multiple modular training blocks, and these blocks enabling the transfer of energy and data without requiring open electrical conductive contact between them. It relates to the modular training block system. 6.1.2 The system includes modular training blocks and contactless energy and data transfer between modules. The interface structure that enables the transfer detects the physical arrangement of the modules relative to each other. array sensor architecture, local voice processing unit that processes voice input from the user, Local validation unit that compares physical array data with voice input and validation. It consists of feedback elements that communicate the result to the user. 6.1.3 The system processes voice input within the module ecosystem without sending it to an external server. and the device evaluates the correspondence between the physical block arrangement and the vocal expression. It includes a local validation architecture. 6.1.4 The system uses the target statement obtained from the physical arrangement of modular training blocks. It will compare the defined expression transmitted verbally by the user. It is arranged in this way. 6.1.5 The system provides the user with visual output, auditory output, and haptic output based on the verification result. It includes a feedback structure that produces at least one output selected from among the available outputs. 6.2 Modular training blocks 6.2.1 Modular training blocks are assembled to create a physical arrangement for educational purposes. These are independent block units that are brought in. 6.2.2 Each modular training block has a closed housing with no exposed electrical contact points. It has a structure. 6.2.3 The enclosed housing structure separates the electronic components inside the module from the external environment. The shell includes the internal support housing and the electronic component placement area. 6.2.4 Modular training blocks can be used individually or multiple blocks can be placed side-by-side or one below the other. They are used together, either vertically or in specific geometric arrangements. 6.2.5 Each of the modular training blocks is energy-dependent with other modules within the system. at least one of the following functions: data transfer, sequence detection, or feedback generation. It is structured in a way that will accomplish one of them. 35 6.3 Closed body structure 6.3.1 Each module housing has exposed external surfaces that can be touched by the user. The connector does not contain a metal contact tip or a bare electrical connection surface. 4 5 6.3.2 The enclosed housing structure separates the electrical connection points from the external environment, thus protecting the mechanical system. It limits wear, oxidation, contamination, and contact-related safety risks. 6.3.3 Module housing, dielectric polymer outer shell, shock-absorbing inner support structure and includes an internal mounting bracket to which the electronic components are secured. 6.3.4 Closed housing structure, open electrical for energy and data transfer between modules. It is designed so as not to require a conductive contact surface. 6.3.5 Closed housing design, contact in educational environments where child users are present. It is designed to reduce maintenance and safety risks originating from the point of origin. 6.4 Contactless power and data transfer interface 6.4.1 Transfer of power and data between modules via open electrical conductive contact. This is accomplished through a contactless interface structure that does not require contact. 6.4.2 Contactless interface structure, energy transfer based on electromagnetic induction. elements and inductive communication component for data transmission or near field communication It includes the component. 6.4.3 Contactless interface structure, open metal on the opposing surfaces of the modules. It exchanges energy and data without being connected. 6.4.4 Contactless interface structure, modules placed on their side surfaces or opposite each other. They are designed to transmit energy and data through their surfaces. 6.4.5 The contactless interface structure allows for the use of modules in multiple configurations and saves energy. This enables the transmission line to be maintained throughout the module ecosystem. 6.4.6 Contactless interface structure, data transfer between modules without using an open connection point. This allows for the transfer of modules and ensures that the modules maintain their physical training block form. It provides. 6.5 Array detection sensor structure 6.5.1 Each modular training block's physical position or arrangement relative to neighboring modules. It contains at least one array of sensors that detects the relationship. 6.5.2 Array sensor structure; magnetic field sensor, optical reader and proximity sensor It includes at least one sensing element selected from among them. 35 6.5.3 Arrangement sensor structure, the order, orientation, and proximity of modules to each other. It generates sequence data that determines the relationship or angular position. 6.5.4 The obtained sequence data represents the current physical block configuration of the system. This is used as local status data. 5 6.5.5 Array sensor structure, the target expression represented by the physical block arrangement of the system It contributes to its creation. 6.5.6 Sequence data obtained from voice input by the local validation unit It is used to create the target expression to be compared with the defined expression. 6.6 Microphone and local sound processing unit 6.6.1 Detecting voice input from the user on at least one modular training block. A microphone is included. 6.6.2 The acoustic signal received by the microphone is processed by the local sound processing unit within the module. It is processed by. 6.6.3 Local audio processing unit, preprocessing, noise reduction, spectral processing on acoustic signal. It is structured to perform analysis and descriptive expression extraction processes. It includes an embedded processing unit. 6.6.4 The local audio processing unit evaluates the detected audio input on the module and It generates defined voice expression data without needing an external network connection. 6.6.5 The local speech processing unit processes the defined phrase data obtained from the voice input locally. It is forwarded to the verification unit. 6.6.6 The local audio processing unit operates within the module ecosystem and transmits audio data to an external server. It is designed to process transactions without transferring funds. 6.7 Local verification unit 6.7.1 In the system, physical sequence data and voice expression data are processed within the same processing chain. There is a local validation unit that performs the comparison. 6.7.2 The local verification unit receives physical status data from the array sensor structure. and defined speech expression data received from the local speech processing unit together. is evaluating. 6.7.3 The local verification unit receives physical status data from the array sensor structure. using the module sequence to create the target expression that it represents, and that target expression by comparing the expression with the defined expression obtained from the voice input It includes a structured local processing architecture. 35 6.7.4 The local validation unit, with the target expression represented by the physical block sequence It determines whether the spoken phrase provided by the user is appropriate. 6.7.5 The local validation unit generates the comparison result within the module ecosystem. and communicates the result to the feedback elements. 6 5 6.7.6 The local verification unit sends physical sequence data and voice expression data to an external server. It is designed to compare devices within the same architecture without any connection between them. 6.8 Feedback elements 6.8.1 The system shall provide at least one feedback to the user to communicate the verification result. It includes the element. 6.8.2 Feedback element; visual output element, auditory output element and tactile output It includes at least one output element selected from among the elements. 6.8.3 Visual output element, light source, color display or LED-based notification structure It includes. 6.8.4 The audio output element includes a loudspeaker or sound generating unit. 6.8.5 The tactile output element includes a haptic element that generates vibration. 6.8.6 Feedback elements provide the user with success, failure, or other feedback based on the verification result. It produces a retry or warning output. 6.8.7 Feedback elements are located within the local processing structure of the module body. It is configured to work according to the verification result received. 6.9 Control module configuration 6.9.1 At least one of the modules is configured as a control module. 6.9.2 The control module collects sequence data from other modules and processes it locally. It is carrying out the verification process. 6.9.3 Control module, microphone, local audio processing unit, local verification unit and feedback It includes at least one of the notification elements. 6.9.4 The control module receives data from other modules within the module ecosystem, physically The sequence is arranged in such a way as to form the target statement. 6.9.5 The control module uses a defined phrase derived from voice input to determine the physical sequence. It compares the obtained target statement with the target statement. 6.10 Intra-system data flow 6.10.1 Array sensor structure, array data relating to physical block configuration It produces 35. 6.10.2 The microphone detects audio input from the user and sends it to the local audio processing unit. It transmits. 6.10.3 The local speech processing unit extracts defined phrase data from the voice input. 7 5 6.10.4 The local validation unit processes the sequence data and the defined expression data. It compares them. 6.10.5 The comparison result is transmitted to the feedback elements and to the user. The output is determined by the correspondence between physical arrangement and vocal expression. 6.10.6 Data flow within the module ecosystem without external server connection. is being carried out. 6.11 Modular training block structure 6.11.1 At least one of the modular training blocks must not contain exposed electrical contact points. The enclosed module housing allows for the transfer of power without open electrical conductive contact with other modules. and the interface structure that enables data exchange, the physical structure of the module compared to other modules At least one sensor that detects position or alignment relationship is located inside the module housing. The local processing unit in the field detects the voice input, uses a microphone, and processes the verification result. It includes at least one feedback element to be communicated to the user. 6.11.2 Module housing, dielectric outer shell, inner support housing and electronics The component includes the placement volume. 6.11.3 Interface that enables energy and data exchange without open electrical conductive contact. Its structure includes an induction coil and a data communication circuit. 6.11.4 The sensor within the module detects the presence, orientation, or sequence of neighboring modules. selected from among magnetic field sensors, optical readers, and proximity sensors. It contains at least one sensing element. 6.11.5 The local processing unit processes the acoustic signal received from the microphone on the module and It includes a voice processing layer that generates defined expression data. 6.11.6 Feedback element, LED-based visual display, speaker and vibration generator. It includes at least one output element selected from among the haptic elements. 6.11.7 Sensor, microphone, local processing unit and feedback inside the module housing. It has a printed circuit board placement carrier that holds the components. 6.11.8 The module has internal data that transmits array data received from other modules to the local processing unit. It includes road infrastructure. 6.11.9 The module body is in the form of an impact-resistant and closed-surface training block. 35 have been edited. 6.11.10 Module, along with other modules within the system, is based on physical array data. It is configured to participate in the local voice verification process. 8 5 6.12 Application method 6.12.1 Modular training blocks, number, operation, logic, shape, sequencing or symbol relationship. The Quran is used in educational scenarios. 6.12.2 The user arranges the physical blocks in a specific order and then... The speaker verbally conveys the phrase corresponding to the sequence of words. 6.12.3 The system matches the physical arrangement with vocal expression on the module. It verifies the information and instantly informs the user of the result. 6.12.4 This structure integrates physical arrangement and voice interaction within the same device architecture. It creates a modular training block system that integrates different components. 6.12.5 Educational content; relationships between numbers, letters, shapes, symbols, sequencing, logic, or concepts. It can be changed accordingly, but the system's technical verification structure requires physical array data. It is based on a local comparison of voice expression data. 7. INDUSTRIAL APPLICABILITY The invention developed within the scope of this project features a connectorless, enclosed housing with contactless energy and data transfer. Local voice-verified modular educational block system; educational technologies, interactive toys industrial in the fields of modular learning tools and STEM educational equipment It is capable of being produced and implemented in this way. The outer casings of the modular training blocks are manufactured using injection molding and precision plastic molding. At least one series production selected from two-component molding and composite shell production. It can be manufactured using this technique. It has a closed housing structure and no open electrical contact with the external environment. Because it creates a closed surface architecture that does not require additional materials, it is durable and safe in mass production. A product structure is obtained. The electronic components located inside the module include: microphone, sensor, local processing unit, and feedback. Standard with notification elements and contactless energy / data transfer interface components. It is assembled using electronic assembly techniques. Printed circuit board placement, surface mount technology, automated soldering, in-module fixing and enclosed Body assembly is carried out in a manner suitable for mass production. Contactless energy and data transmission interface; electromagnetic induction-based coil structures, Near field communication elements, data transmission circuits, and power management systems compatible with these components. It is manufactured using 35 circuits. This structure is without exposed metal contact points. Because it enables the exchange of energy and data between modules, it reduces the need for maintenance and It creates a production architecture that extends the service life. 9 5 Array detection sensor structure; magnetic field sensors, optical readers and proximity sensors. It is created using at least one sensing element selected from among the sensors. This Integrating the sensors into the module housing allows for the modules to be physically aligned with each other. This ensures that the sequence is detected with repeatable accuracy in mass production. Local audio processing unit and local verification unit; low-power microcontrollers, At least one native processor selected from among embedded processors and digital signal processing units. It is structured to work within its architecture. This allows the device to process voice input. The processing is carried out without an external server connection. Thus, the network It operates without dependency, is applicable in field conditions, and is commercially scalable. A product structure is obtained. Feedback elements include LED-based visual display structures, miniature speakers, and sound systems. using at least one output element selected from among the generator circuits and vibration motors It is being produced and integrated into the module. This structure is suitable for different age groups and education. It allows for product diversification in line with various scenarios. The system that is the subject of the invention is; preschool education tools, primary and secondary school educational materials, STEM kits, special education tools, interactive learning toys, and customizable options. It can be used within learning platforms. Thanks to its modular structure, the system can be used in different in the form of product series suitable for educational content and different user levels. It can be produced. With these features, the modular training block system that is the subject of the invention; existing plastics production, using electronic assembly, embedded systems development and serial assembly infrastructures It is capable of being produced, marketed, and implemented on an industrial scale.

Claims

1. Connectorless sealed housing, contactless power and data transfer, local voice authentication. It is a modular training block system; its feature is that it contains multiple modular training blocks, word The topic is open electrical contact points in each of the modular training blocks. Closed housing structure without open electrical conductive contacts between modules. The contactless interface structure, which enables energy and data transfer without requiring modules, at least one array sensor structure that detects the physical arrangement of sensors relative to each other, at least one A microphone located on the module processes the detected audio input within the module. a local speech processing unit interprets the target phrase derived from physical sequence data with the voice. a local validation unit that compares the defined expression obtained from the input and It must include at least one feedback element that produces output based on the validation result.

2. It is a modular training block system according to Claim 1, and its characteristic feature is its closed body structure. open connector, metal contact tip and external surfaces touched by the user. It does not contain a bare electrical contact surface.

3. It is a modular training block system according to Claim 1, and its feature is a contactless interface structure. electromagnetic induction-based energy transfer elements and data transmission. It contains a near-field communication circuit.

4. It is a modular training block system according to claim 1, and its feature is the array sensor structure. to determine the order, orientation, adjacency, and angular position of the modules among magnetic field sensors, optical readers and proximity sensors It must include at least one selected sensing element.

5. It is a modular training block system according to claim 1, and its feature is; the local sound processing unit, Noise reduction, spectral analysis, and descriptive expression of acoustic signals. The embedded system is configured to perform the extraction operations on the module. It contains a processing unit. 35 6. According to Claim 1, it is a modular training block system with the feature of; local validation. The module uses physical status data obtained from the array sensor structure of the unit. the sequence represents the target expression and vocalizes that target expression.

11. Structured to compare the defined expression obtained from 5 inputs. It includes a local processing structure.

7. According to Claim 1, it is a modular training block system whose characteristic is; feedback element. selected from among visual output elements, auditory output elements, and tactile output elements It must contain at least one output element.

8. It is a modular training block system according to Claim 1; its characteristic feature is that the modules are adjacent to each other. contactless energy and data transfer between surfaces or mutually adjacent surfaces It is structured in a way that will allow it to do so.

9. According to Claim 1, it is a modular training block system, characterized by the fact that at least one of the modules Configuring it as a control module and receiving sequence data from other modules It collects data and performs the local verification process.

10. According to Claim 1, it is a modular training block system; its feature is that the system has an external server. It will perform voice expression verification within the module ecosystem without being connected. It includes a local validation unit structured in this way.

11. According to Claim 1, it is a modular training block system, the feature of which is; modular training at least one of its blocks is a closed module that does not contain any open electrical contact points. Its housing transmits energy and data without open electrical conductive contact with other modules. an interface structure that enables the exchange, the physical structure of the module compared to other modules At least one sensor that detects position or alignment relationship is located inside the module housing. a local processing unit, a microphone to detect voice input, and At least one feedback element to communicate the verification result to the user. It includes.

12. According to claim 11, it is a modular training block system, and its feature is; modular training At least one of the blocks is the dielectric outer shell and inner carrier of the module body. It has a capacity to accommodate 35 chassis and electronic components. 12 5 13. According to claim 11, it is a modular training block system and its feature is; modular training at least one of its blocks is an interface structure that enables contactless energy and data exchange. It includes an induction coil and a data communication circuit.

14. According to claim 11, it is a modular training block system, and its feature is; modular training The sensor of at least one of the blocks detects the presence, direction, or orientation of neighboring modules. Magnetic field sensor, optical reader and proximity sensor for detecting sequence It must contain at least one sensing element selected from among its sensors.

15. According to claim 11, it is a modular training block system, the characteristic of which is; modular training at least one of the blocks of the local processing unit receives the acoustic signal from the microphone audio processing layer that operates on the module and produces defined expression data. It includes.

16. According to claim 11, it is a modular training block system, and its feature is; modular training At least one of the blocks has an LED-based visual display as a feedback element. At least one output element selected from among the loudspeaker and the haptic element that produces vibration. It includes.

17. According to claim 11, it is a modular training block system, and its characteristic is; modular training At least one of the blocks contains a sensor, microphone, or local processing unit within the module body. and a printed circuit board placement carrier that carries feedback elements It is the presence of.

18. According to claim 11, it is a modular training block system, the characteristic of which is; modular training At least one of the blocks processes the sequence data it receives from other modules locally. It includes an internal data bus structure that transmits data to the unit.

19. According to Claim 11, it is a modular training block system, the characteristic of which is; modular training At least one of the blocks must have an impact-resistant and sealed surface on the module body. It is in the form of 35 training blocks. 13 5 20. According to claim 11, it is a modular training block system and its feature is; modular training at least one of the blocks is physically arranged together with other modules within the system. It is configured to participate in local voice verification processes based on data. 14