A system for collecting personal health-related information in the space near the human body.

Abstract

This invention proposes a health information collection system linked to individual health passports in near-human spaces such as buildings. The system includes a first digital signal interface unit installed at a predetermined location in a near-human space environment such as a building. The first digital signal interface unit is connected to a detection module via a second digital signal interface unit, and the second digital signal interface unit is integrated on the detection module. One or more first digital signal interface units are connected to a first server via a network, and functional modules corresponding to the detection module are integrated on the first server. According to this invention, by installing the detection module and sensors of the detection system in near-human spaces such as buildings, it is possible to acquire personal health-related information in near-human spaces such as living environments in a lightweight and easy manner. Furthermore, intelligent processing is realized by the corresponding functional modules on the server, making it possible to provide low-cost, high-performance information collection functions and health information collection services for individual health passports.

Description

Technical Field

[0001] The present invention belongs to the fields of buildings and smart automation, but is not limited thereto. In particular, the present invention relates to a system for collecting personal health-related information in the space near the human body.

Background Art

[0002] In the current living environment, various monitoring devices such as cameras and smoke detectors are installed in buildings. All of these monitoring devices are fixedly installed, making reuse and replacement difficult. In addition, all existing medical devices are large and cumbersome to handle. When an individual uses them for health management, small devices must be purchased separately and used individually. On the other hand, for large devices, it is necessary to go to the hospital and use them after making a reservation and waiting in line. Such a current situation cannot fully meet the development of future information technology and the requirements of a smart society.

Summary of the Invention

[0003] In order to solve the above-mentioned technical problems, the present invention proposes a system for collecting personal health-related information in the space near the human body. According to the present invention, it is possible to easily collect and maintain information related to an individual's health passport in a lightweight manner, and further realize intelligent processing by corresponding functional modules on the server. Thereby, it becomes possible to provide a detection function and service with low cost and high functionality.

[0004] The present invention is realized by the following technical means. A system for collecting personal health-related information in the space near the human body such as a building, including a first digital signal interface unit attached to a predetermined position in the space environment near the human body such as a building, The first digital signal interface unit is connected to the detection module via a second digital signal interface unit, and the second digital signal interface unit is integrated into the detection module. One or more of the first digital signal interface units are connected to the first server via a network. The first server is a system in which functional modules corresponding to the detection module are integrated.

[0005] Since the first digital signal interface unit is installed at a predetermined location within the human body vicinity environment, such as in a building, the present invention enables the collection of health information at any location where the information collection system is installed, eliminating the need to visit hospitals or other medical facilities. Furthermore, the detection module can be flexibly configured in various types, and by individually developing and configuring various sensors to form an independent modular collection device and connecting it in a compatible manner with the first digital signal interface unit, a lightweight collection device that combines portability, convenience, and independence can be realized. Moreover, complex data calculation functions are separated from the detection module and placed on another server, eliminating the need to integrate calculation functions into the detection module. This enables easy collection and maintenance of health data, and the obtained health data can be added to and updated in the health passport archive.

[0006] In this invention, the "space near the human body" refers to the living environment composed of buildings and the like, and includes, for example, rooms, offices, fitness rooms, rest rooms, conference rooms, outdoor spaces, and occupied spaces. When a human body is located in the area within this space near the human body, it can sense and interact with the system of this invention, and the system can acquire health-related information of the individual in the space near the human body. Furthermore, by installing information collection devices in the space near the human body, such as buildings, in various living and working scenes, it is possible to collect health-related data of individuals as it occurs and continuously supplement and update the archived data of individual health passports.

[0007] The aforementioned predetermined location is, for example, a wall or floor surface of a building, or a specific spatial location within the space near the human body. These locations are selected considering, on the one hand, the ease of plug connection, and on the other hand, the location suitable for the convenient and accurate acquisition of health data.

[0008] Within the aforementioned space near the human body, an identity identification unit is provided to identify the identity of an individual. This unit can identify the identity of individuals present in the space near the human body in various ways, and effectively determine the identity of each individual.

[0009] Furthermore, the data detected by the detection module can be mapped to the health passport.

[0010] The number of the first digital signal interface units may be one or more, thereby forming a group of first digital signal interface units, and the type of interface used in each first digital signal interface unit may be the same or different.

[0011] Furthermore, the system further includes a first digital signal interface management unit for managing and controlling each of the aforementioned first digital signal interface units, the first digital signal interface management unit including a selection module, a jumper module, and a Unified Bus Port, the selection module and jumper module enabling switching and selection of any first digital signal interface unit and connecting the signals to the Unified Bus Port.

[0012] Furthermore, one or more detection modules are present in the space near the human body, and sensors for acquiring health-related information of the individual are attached to the detection modules. The detection modules are provided with a second digital signal interface, and the second digital signal interface is mutually compatible with and can be connected and inserted into the first digital signal interface, thereby enabling data exchange with the first digital signal interface.

[0013] Furthermore, the system further includes an individual identity information identification unit that is attached to the human body vicinity environment, including the building, and the individual identity information identification unit is for collecting and identifying the identity information of an individual.

[0014] Furthermore, the previous first server includes a first communication module, an identification module, and a selection module. The first communication module communicates with the second digital signal interface to acquire data collected by the detection module. The identification module includes an individual identity identification module and an equipment identification module, wherein the individual identity identification module is for retrieving and identifying the identity information of an individual, and the equipment identification module is for identifying the type and parameter format of the detection module. The selection module is connected to the equipment identification module and the detection function storage module, and is used to search the function library of the detection function storage module based on the type of the identified detection module, select a function module corresponding to the detection module type, and process the corresponding parameters.

[0015] Furthermore, the first server includes an acquisition module and a second communication module. The first server is connected to the second server via the second communication module. The selection module is connected to the acquisition module, and the acquisition module is connected to the second communication module. If the selection module searches the function library based on the type of detection module and fails to find a corresponding function module, it acquires the function from the second server via the acquisition module. The second communication module communicates with a second server located remotely and transmits individual information inquiry requests sent by the PHR information inquiry module and function module acquisition requests sent by the acquisition module.

[0016] Furthermore, the individual identity identification module is connected to a PHR information inquiry module, the PHR information inquiry module is connected to a second communication module, the individual identity identification module transmits individual identity information to the PHR information inquiry module, the PHR information inquiry module is connected to a second server on an external network via the second communication module, a regional personal health information sharing platform is run on the second server, the regional personal health information sharing platform stores PHR information corresponding to individual identity information, and the PHR information corresponding to individual identity information can be queried via the network.

[0017] Furthermore, the second server further includes a registration module and a distribution module, the distribution module being used to issue health passports to individuals, environmental equipment, and detection modules in near-human spaces including buildings, and ultimately enabling interconnection and communication of health passport data between individuals, environmental equipment, and detection modules.

[0018] Furthermore, the PHR information inquiry module is connected to the PHR fusion module, and the PHR information inquiry module transmits relevant information of the individual health passport to the PHR fusion module, processes the individual vital information collected by the sensor of the detection module by the corresponding function module in the first server, obtains the processed vital characteristic data, transmits the vital characteristic data to the PHR fusion module, and the PHR fusion module integrates and fuses the health passport-related information, the processed vital characteristic data, and the health passport-related information of the detection module to obtain a fused individual health passport incremental data package.

[0019] Furthermore, the second server is equipped with an individual health passport mapping storage, and the individual health passport incremental data package is uploaded directly to the individual health passport mapping storage by default, and additional updates are made to the archived data of the individual health passport. Simultaneously, the first server transmits the individual health passport incremental data package to a local database for local storage.

[0020] Furthermore, the individual health passport includes a digital identity identifier, the digital identity identifier includes a public key and a private key as the individual's sole digital identity identifier.

[0021] Beneficial effects By installing the detection module and sensor of the detection system in the space near the human body such as a building, the present invention can easily acquire lightweight personal health-related information in the space near the human body. Furthermore, intelligent processing is realized through the corresponding functional module on the server, and it is possible to provide a detection function with low cost and high performance and a health information collection service for the personal health passport. As a result, the user can continuously and at any time maintain and update the health passport data. In addition, an individual health passport mapping storage is provided, which is directly associated with the user's individual health passport and is not under the management of a third-party institution. The inquiry and management of the data by the user are directly performed by the individual, and the data is directly uploaded and stored without going through the approval of a third party. Therefore, the user can safely and reliably manage their archive data.

Brief Description of the Drawings

[0022] [Figure 1] It is a schematic diagram of a system for collecting human body information in the space near the human body such as a building according to the present invention. [Figure 2] It is a block diagram of the first digital signal interface management module. [Figure 3] It is a block diagram of the functions of the first server of a system for collecting human body information in the space near the human body such as a building. [Figure 4] It is a schematic diagram of the health passport PHR. [Figure 5] It is a block diagram of the functions of the second server. [Figure 6] It is a block diagram of the functions of the third server.

Embodiments for Carrying Out the Invention

[0023] The technical concepts in the embodiments of the present invention will be described clearly and completely below with reference to the drawings of the embodiments of the present invention. Clearly, the embodiments described are only a subset of the embodiments of the present invention, not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention, without any creative work, are all within the scope of the protection of the present invention.

[0024] According to an embodiment of the present invention, as shown in Figure 1, a system for collecting human body information in a space near the human body, such as a building, is provided. The system of the present invention includes a first digital signal interface unit 3 that is installed at a predetermined position 2 in an environment such as a building or other space near the human body 3. The first digital signal interface unit 3 is connected to the detection module 5 via the second digital signal interface unit 4, and the interface of the second digital signal interface unit 4 is integrated into the detection module 5. One or more of the first digital signal interface units 3 are connected to the first server 6 via a network. The first server 6 integrates a detection function module corresponding to the detection module 5.

[0025] The aforementioned near-human body space 1 refers to a living environment composed of buildings, etc., and includes, for example, rooms, offices, fitness rooms, rest rooms, conference rooms, outdoor environments, and occupied spaces. The near-human body space may also be the interior of a means of transportation, including, for example, the interior of a bus, aircraft, or private car. When a human body is located in the area within the near-human body space, it can sense and interact with the system of the present invention, and the system can acquire health-related information about the human body. In the present invention, individual 9 refers to a human body or an individual, etc.

[0026] The predetermined position 2 refers, for example, to a specific spatial location within the space near a human body, such as a building wall, floor, or other building structure. It may also refer to a location within the chassis, seat, or interior of an aircraft or vehicle. Furthermore, it may refer to furniture within a building, such as the seat of a sofa 101.

[0027] In an embodiment of the present invention, a first digital signal interface unit 3 is selectively mounted on the wall surface of the building. This first digital signal interface unit 3 is connected to a detection module 5 by being inserted into a second digital signal interface unit 4. The second digital signal interface unit is integrated into the detection module 5.

[0028] Specifically, in this embodiment, one or more detection modules exist within the space near the human body 1. The detection modules are used to acquire information about the human body via sensors, such as physiological, psychological, behavioral, spatiotemporal position, and environmental information. The detection module 5 is also provided with a second digital signal interface unit, which can be mutually compatible with and connected to / inserted with the first digital signal interface unit, thereby enabling data exchange between the two.

[0029] In one embodiment, the number of first digital signal interface units 3 may be one or more, thereby forming a group of first digital signal interface units as shown in 31, 32, and 3n in Figure 1. The type of interface used in each first digital signal interface unit may be the same or different, or some first digital signal interface units may use one type of interface while others use other types. Examples of the interface types include RS232 interface, RS485 interface, network cable RJ45 interface, CAN bus interface, and USB serial port.

[0030] As shown in Figure 1, any combination of the interface types can be used as the first digital signal interface units 31, 32...3n. For example, the first first digital signal interface unit 31 may use an RS232 interface, and the second first digital signal interface unit may use an RS485 interface. By providing different types of interfaces, it is possible to connect various types of detection modules and improve compatibility.

[0031] Alternatively, considering the widespread availability of USB interfaces, it is highly likely that many detection modules will have a USB interface rather than a CAN interface. Therefore, in this embodiment, multiple USB interfaces can be provided, and only a few CAN bus interfaces can be provided. This makes it possible to connect multiple USB-type detection modules simultaneously.

[0032] In one embodiment, a first digital signal interface management unit is used to manage and control each of the first digital signal interface units in order to flexibly transmit data between different interfaces. As shown in Figure 2, the first digital signal interface management unit 300 includes a selection module 301, a jumper module 302, and a common bus port 303. By adopting a common bus system and a pluggable module design, the first digital signal interface management unit can be freely switched and selected for any first digital signal interface unit.

[0033] Each of the multiple first digital interface units is connected to a jumper module 302 by a signal cable. Each of the jumper modules is connected to a selection module 301 and a common bus port 303. Based on the selection instruction given by the selection module 301, the jumper module 302 connects the corresponding first digital signal interface unit. As a result, the signals of the connected first digital signal interface units are directly connected to the common bus port 303. The common bus can be, for example, a LAN bus.

[0034] Furthermore, the jumper module includes a protocol conversion module, which is used to convert different interface types to the bus protocol corresponding to the common bus port 303.

[0035] The jumper module 302 contains a total of 8 jumper values, i.e., 8 jumpers, supporting the installation of more than 128 different types of interfaces. According to the protocol specification, different jumper values ​​correspond to different types of interfaces. The first bit is fixed to 0 as a reserved bit. For example, 00000000 represents the 232 interface, 01111111 represents the 485 interface, 00111111 represents the USB interface. 00011111 represents the LAN interface.

[0036] The first digital signal interface management unit employs a common bus and pluggable module design, allowing the currently selected first digital signal interface unit to be arbitrarily replaced as needed. This improves system compatibility and flexibility.

[0037] The detection module can be designed to accommodate various types of sensor hardware. Examples of such sensors include temperature sensors, pressure sensors, blood pressure sensors, and ambient temperature / humidity sensors, which can acquire physical data information from people in the surrounding area. Furthermore, the sensors may also be ultrasonic sensors, used to acquire physiological signals from beneath the skin. However, the detection module is primarily designed as a data acquisition front-end, acquiring raw data such as physiological data, psychological information, behavioral information, spatiotemporal location, and environmental information, and does not possess advanced information processing or analysis capabilities. Therefore, it offers high flexibility, and by separating (decoupling) collection and processing, the detection module can be realized as a front-end collection terminal, possessing the characteristics of being lightweight, low-cost, portable, and replaceable, unlike conventional ultrasound examination and analysis equipment. In the embodiment of the present invention, the detection module primarily collects human body parameter information and transmits the obtained human body parameter information to a second digital signal interface. The detection module is lightweight and, as a collection front-end, does not have the function to further process or judge human or environmental parameters, thus differing from conventional handheld equipment. Furthermore, the detection module can be configured to any interface type, such as a USB interface, 232 interface, 485 interface, etc. Since the present invention already includes a first digital signal interface unit that can accommodate connections of different types of interfaces, the present invention is compatible with various detection modules.

[0038] The system further includes an individual identity information identification unit 10 that is installed in the surrounding environment of a building or other structure near a human body. The individual identity information identification unit is used to identify an individual's identity information. Specifically, for example, it may scan an identification card carried by the individual using an RFID wireless card, acquire a facial image of the user 9 using a facial recognition camera, or acquire the individual's fingerprint information using a fingerprint identification module. The individual identity information identification unit is connected to a first server via a network. The acquired individual identity information is used for subsequent processing such as PHR data processing.

[0039] Furthermore, one or more of the first digital signal interface units 3 are connected to the first server 6 via a network.

[0040] As shown in Figure 3, the first server 6 includes a first communication module, an identification module, and a selection module. The first communication module is used to communicate with the second digital signal interface to acquire data collected by the detection module. The identification module includes an individual identity identification module and an equipment identification module. The individual identity identification module is used to retrieve and identify individual identity information. The equipment identification module is used to identify the type and parameter format of the detection module. The individual identity identification module is connected to a PHR (Personal Health Records) information inquiry module. The PHR information inquiry module is connected to a second communication module. The individual identity identification module transmits individual identity information to the PHR information inquiry module, which connects to a regional personal health information sharing platform on an external network via the second communication module. Since the regional personal health information sharing platform stores PHR information corresponding to the individual identity information, it queries this PHR information corresponding to the individual identity information via the network. The selection module is connected to the equipment identification module and the detection function storage module. Based on the type of detection module identified, it searches the function library of the detection function storage module, selects the function module corresponding to this detection module type, and processes the corresponding parameters. The aforementioned selection module is also connected to the acquisition module. If the selection module cannot find the corresponding function module in the function library based on the type of detection module, the acquisition module must acquire the function from the second server 8.

[0041] The acquisition module is connected to the second communication module and is used to send inquiry requests and acquisition requests for functional modules to an external network.

[0042] The second communication module is connected to a remotely located second server 8 by either a wired or wireless connection and is used to transmit requests for inquiry of individual health information transmitted by the PHR information inquiry module and requests for acquisition of function modules transmitted by the acquisition module. As shown in the figure, the first server 6 is located in a second area 11 (for example, a dedicated machine room) that is different from the adjacent human body proximity space 3. The first server is also connected to a local storage database 13. The storage database 13 may be a database server or a hard disk device, etc.

[0043] If the selection module fails to find a function module corresponding to the currently connected detection module within the function library, it notifies the acquisition module. The acquisition module then sends request information via the second communication module and retrieves the corresponding function module from the second server.

[0044] Furthermore, in one embodiment, the selection module searches the function library of the detection function storage module based on the type of the identified detection module, selects a function module corresponding to this detection module type, for example, a first detection function module, a second detection function module, or a third detection function module, and processes the corresponding parameters. The detection function storage module is provided with a function library for storing various function modules. The function library is stored locally and contains commonly used function modules such as a blood pressure detection function module, a blood lipid detection function module, and a heart rate detection function module. A detection module for detecting blood pressure is connected to the first digital signal interface via a second digital signal interface, and the equipment identification module identifies the equipment as a blood pressure detection module. In this case, the selection module can search for the blood pressure detection function module in the function library, call the corresponding blood pressure detection function module, and process the detection data transmitted from the detection module.

[0045] However, the number of functions stored in the aforementioned function library is limited and may not fully satisfy the compatibility requirements of all detection modules. In such cases, the present invention allows for the acquisition of corresponding functions from a second server on an external network via a function acquisition module. This enables the expansion of functions and further enhances the compatibility and adaptability of the system.

[0046] Furthermore, the first server 6 further includes a PHR information processing module and a PHR fusion module.

[0047] In embodiments of the present invention, as shown in Figure 4, PHR information is defined as a "health passport." A health passport is defined as a blockchain-based lifetime health-related data toolset, including personal identity verification and archiving and management of personal health data. A health passport is owned and managed by the individual, and access and use by others can be permitted as needed. In embodiments of the present invention, PHR information includes PHR identifier information. This refers to a digital identity identifier that the user creates when registering on the platform. This identifier typically includes a public key and a private key. The user can create a unique digital identity identifier using the public and private keys they generate. The public key is synchronized with the platform, and the private key is either held by the user or can be securely stored on the platform through an authorization protocol.

[0048] The principles of digital identity identification are primarily based on public-key cryptography and asymmetric cryptography. These technologies allow digital identity identification to adequately support the requirements for the secure storage and transmission of personal health archive information.

[0049] A digital identity identifier consists of one public key and one private key. The public key is used to receive the Personal Record (PHR), and the private key is used to sign the PHR and authorize access. All of these key pairs are randomly generated and uniquely associated with each user.

[0050] When a user attempts to save a PHR, they sign a hash value of the information using their private key, and then send the signed information to a node on the network for verification. If the data passes verification, the hash value and the corresponding PHR information are stored in a distributed manner in an authorized area. Throughout this process, the private key is never transmitted; only the digital signature is broadcast over the network. Similarly, accessing a user's PHR information requires authorization using the user's private key, and only then can the information be retrieved correctly.

[0051] Health information is data related to individual health. Service information refers to the related toolset used for the user's health archive data service, and includes a set of user-specific functions for self-maintenance of health archive data, namely self-input, authorization for integration of data collected from wearable devices, self-querying, and access permission granting.

[0052] Management information refers to a toolset for managing user health archive data, and includes a set of functions covering system administration such as identity verification, data archiving, data reliability verification, institutional access, and public key management.

[0053] As shown in Figure 3, the PHR information inquiry module queries the second server 8 for relevant individual health passport information using individual identity information. The second server runs a regional personal health information sharing platform and is located in a third region 12 (e.g., a remote office or server room) away from the near-human space 3. As shown in Figure 5, it includes a third communication interface, a browsing module, a registration module, a distribution module, a PHR information push module, a functional module storage, a PHR information storage database, a block recording module, and the like. The PHR information storage database stores health passport information for numerous individuals within the region. When the PHR information inquiry module queries the second server for relevant individual health passport information using individual identity information, the second server transmits the relevant individual health passport information to the PHR information inquiry module. Furthermore, the PHR information inquiry module can also query the corresponding equipment information using the digital identifier information of the detection module and obtain an archive of the detection module. The third communication module communicates with the second communication module.

[0054] Furthermore, the PHR information inquiry module is connected to the PHR fusion module. The PHR information inquiry module transmits relevant information of the individual health passport to the PHR fusion module, and at the same time, the individual vital information collected by the sensor of the detection module is processed by the corresponding function module in the first server to obtain processed vital characteristic data. This vital characteristic data is transmitted to the PHR fusion module, which then merges and fuses the health passport-related information, the processed vital characteristic data, and the health passport-related information of the detection module to obtain a fused individual health passport incremental data package.

[0055] Subsequently, the data is preprocessed using computation functions, such as compression and hash calculation, and finally stored in a distributed file system. The distributed file system includes a PHR information storage database on the second server and a local PHR information storage database. When writing, an action record is made by writing to the blockchain ledger, and this includes hash data, encrypted result data using a public key, etc.

[0056] Furthermore, in one embodiment, the second server is further provided with an individual health passport mapping storage. The individual health passport incremental data package is directly uploaded to the individual health passport mapping storage and added to the individual health passport archive data.

[0057] The data fused by the aforementioned PHR fusion module is also directly stored in the corresponding individual health passport mapping storage. This individual health passport mapping storage is part of a distributed file system and can be located on a second server or in another secure network location. This individual health passport mapping storage is associated with the user's individual health passport and is not managed by any third party. Users can access and manage this data themselves, and the data is uploaded and stored directly without the approval of any third party, allowing users to manage their archived data directly, securely, and reliably. Furthermore, if other organizations or equipment need to access the user's health passport, the user's authorization is required.

[0058] In this embodiment, personal data sensed by the equipment is processed as an individual health passport incremental data package, mapped to the individual's identity through identity identification, and then directly transmitted and stored within the individual's health passport without requiring the provider's consent. This allows for real-time, easy, and reliable updates of the individual's health passport information.

[0059] As described above, the second server 8 further includes a browsing module, a registration module, a distribution module, and a PHR information push module. The distribution module is used to issue health passports to individuals, equipment, etc., in spaces near human bodies such as buildings.

[0060] Specifically, first, a health passport is issued to individuals (people) in the space near the human body, then to "machines" and "objects (environment)" in the space near the human body, and finally, the data within each health passport of people, machines, and objects (environment) enables interconnection, mutual communication, and mutual operation.

[0061] In one embodiment, issuing a health passport to an individual means assigning a digital identity identifier. Once the digital identity identifier is assigned, any data subsequently collected and detected will be mapped as a personal data archive under the name of the individual corresponding to the digital identity identifier. The specific issuance rules are as follows: Users create their own digital identity identifiers, which typically include a public key and a private key. Users can create a unique digital identity identifier using the public and private keys they generate. The public key is synchronized with the platform, while the private key is either held by the user or entrusted to a third-party server for secure storage. The use of the private key requires user consent and verification, and this verification process is recorded on the blockchain.

[0062] In one embodiment, it is necessary to issue health passports to "objects." Here, "objects" refer to environment-related equipment in the space near the human body, such as range hoods, televisions, air conditioners, and flooring in a living environment. These objects are also related to the health environment; for example, the power consumption and performance of a range hood, the power consumption of an air conditioner, and the energy consumption during cooling all relate to the health status of the environment. Therefore, digital identification tags are also issued to these pieces of equipment. However, this digital identification tag only contains the equipment's ID number, and this ID number uniquely corresponds to a single piece of equipment. The first server can store equipment archive information corresponding to this ID.

[0063] A health passport will also be issued to the "machine." Here, "machine" refers to the detection module (i.e., detection terminal equipment). Referring to Figure 1, in this invention, the detection module stores a digital identification mark, which is a serial number ID for uniquely identifying the detection module. The first server can store archive information of the detection module corresponding to this serial number ID (for example, its main detection function (height measurement, blood pressure measurement, blood glucose measurement, etc.), manufacturer, equipment model number, manufacturing date, port type, test standards, and other basic parameters).

[0064] Therefore, when identification is performed by the identification module shown in Figure 2, the digital identity marker is recognized, and based on this, the specific type, parameters, and application of the detection module, as well as other functional parameters, are identified. Based on these functional parameters, the selection module selects the corresponding detection function module when selecting the corresponding detection function. Furthermore, in the PHR fusion module, the digital identity marker of the equipment can be fused together and included as part of the fused PHR information.

[0065] Furthermore, the interconnection, communication, and operation of data within the health passports of the person, machine, and object refers to the communication of data on the second server, and in actual operation, to the interaction between the person and the machine.

[0066] Furthermore, Figure 6 is a block diagram of the third server 7, which, as a PHR trust management server, includes an authorization information archive module, a PHR authorization management module, a personal information customization module, a block recording module, and a fourth communication module.

[0067] The PHR trust management platform runs on the management server. Any individual can use the toolset provided by this platform to manage their own health information, or they can entrust its management to a third party through authorization, contract, or other means.

[0068] The aforementioned authorization information archiving module is used to store files or information related to authorization. Specifically, the PHR management platform provides real-name authentication, document signing, and document preservation services to healthcare institutions or individuals, and requires users to complete real-name authentication on the platform. Users create documents on the platform, review their contents, and then begin signing them. After the recipient successfully logs into the platform, they sign the document, and once the signing is complete, the platform encrypts the signed document and stores it on the blockchain platform. This technology can be used to conclude authorization agreements between institutions and individuals.

[0069] The PHR authorization management module is for managing authorization for an individual's health archive data. For example, if user A grants B permission to view user A's health archive data, A first decrypts the data using their private key, then encrypts the data using B's public key, which is publicly available on the platform, and then sends the processed data to B. B can then decrypt the data using their own private key. At this point, only B can view A's data, and unauthorized individuals cannot access it.

[0070] The personal information customization module is used by users to configure custom information. The block recording module is used to record user authorization document information and other data based on blockchain technology. The fourth communication module is for communicating with other external servers or terminal equipment (for example, mutual communication between the second and third communication modules).

[0071] Although specific embodiments of the present invention have been described above, for those skilled in the art to understand the present invention, the present invention is not limited to the scope of specific embodiments, and for those skilled in the art, the various variations are obvious as long as they fall within the spirit and scope of the invention as defined by the appended claims, and all inventions utilizing the concept of the present invention are in the line of protection.

Claims

1. A first digital signal interface unit and a system for collecting personal health-related information in the space near the human body, including buildings, It includes a first digital signal interface unit that is installed at a predetermined location in the human body vicinity environment, including buildings, The first digital signal interface unit is connected to a detection module via a second digital signal interface unit, the second digital signal interface unit is integrated into the detection module, and the detection module is for acquiring physiological, psychological, behavioral, spatiotemporal position and environmental data of the human body. A system characterized in that one or more of the first digital signal interface units are connected to a first server via a network, and the first server integrates detection function modules corresponding to the detection modules.

2. The system according to claim 1, characterized in that the number of first digital signal interface units is one or more, thereby forming a group of first digital signal interface units, and the types of interfaces used in each first digital signal interface unit may be the same or different.

3. The system according to claim 2, further comprising a first digital signal interface management unit for managing and controlling each of the first digital signal interface units, wherein the first digital signal interface management unit includes a selection module, a jumper module, and a common bus port, and the selection module and jumper module enable switching and selection of any first digital signal interface unit, and the signals thereof are connected to the common bus port.

4. The system according to claim 1, wherein one or more detection modules are further present in the space near the human body, the detection modules are equipped with sensors for acquiring health-related information of the individual, the detection modules are provided with a second digital signal interface, the second digital signal interface is mutually compatible with and connectable to and insertable with the first digital signal interface, and thereby data exchange can be performed with the first digital signal interface.

5. The system according to claim 1, further comprising an individual identity information identification unit installed in the living environment of a space near a human body, including the aforementioned building, wherein the individual identity information identification unit is for collecting and identifying the identity information of an individual.

6. The aforementioned first server includes a first communication module, an identification module, and a selection module. The first communication module communicates with the second digital signal interface to acquire data collected by the detection module. The identification module includes an individual identity identification module and an equipment identification module, wherein the individual identity identification module is for retrieving and identifying the identity information of an individual, and the equipment identification module is for identifying the type and parameter format of the detection module. The system according to claim 1, wherein the selection module is connected to an equipment identification module and a detection function storage module, and is for searching the function library of the detection function storage module based on the type of the identified detection module, selecting a function module corresponding to the detection module type, and processing the corresponding parameters.

7. The first server includes an acquisition module and a second communication module. The first server is connected to the second server via the second communication module. The selection module is connected to the acquisition module, and the acquisition module is connected to the second communication module. If the selection module searches the function library based on the type of detection module and fails to find a corresponding function module, it acquires the function from the second server via the acquisition module. The system according to claim 6, characterized in that the second communication module communicates with a second server located remotely and transmits individual health information inquiry requests transmitted by a PHR (Personal health records) information inquiry module and functional module acquisition requests transmitted by an acquisition module.

8. The system according to claim 6, characterized in that the individual identity identification module is connected to a PHR information inquiry module, the PHR information inquiry module is connected to a second communication module, the individual identity identification module transmits individual identity information to the PHR information inquiry module, the PHR information inquiry module is connected to a second server on an external network via the second communication module, a regional personal health information sharing platform is run on the second server, the regional personal health information sharing platform stores PHR information corresponding to individual identity information, and the PHR information corresponding to individual identity information can be queried via the network.

9. The system according to claim 8, wherein the second server further includes a registration module and a distribution module, the distribution module being used to issue health passports to individuals, environmental equipment, and detection modules in a space near the human body, including buildings, and ultimately enabling interconnection and mutual communication of health passport data of individuals, environmental equipment, and detection modules.

10. The system according to claim 8, characterized in that the PHR information inquiry module is connected to a PHR fusion module, the PHR information inquiry module transmits relevant information of the individual health passport to the PHR fusion module, processes the individual vital information collected by the sensor of the detection module using a corresponding function module in the first server, obtains the processed vital characteristic data, transmits the vital characteristic data to the PHR fusion module, and the PHR fusion module fuses the health passport-related information, the processed vital characteristic data, and the health passport-related information of the detection module to obtain a fused individual health passport incremental data package.

11. The second server is equipped with an individual health passport mapping storage, and the individual health passport incremental data package is uploaded directly to the individual health passport mapping storage by default, and additional updates are made to the archived data of the individual health passport. The system according to claim 10, characterized in that the first server simultaneously transmits the individual health passport incremental data package to a local database and stores it locally.

12. The system according to claim 8, wherein the individual health passport includes a digital identity identifier, and the digital identity identifier includes a public key and a private key as the individual's sole digital identity identifier.

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