Networked data capture and control in the field of wellness

Abstract

The disclosure relates to a system for data capture and control in the field of wellness. The system comprises: a wellness device having a first unique identifier; at least one remote element which is designed as a sensor and / or actuator and having a second unique identifier and which is arranged in the surroundings or on the wellness device and can be linked to the first unique identifier; a connection module for coupling to a computer unit, wherein the computer unit assigns the first unique identifier to the wellness device and the second unique identifier to the at least one remote element, and receives and processes information from the at least one sensor; and a control device which connects to the computer unit and sends processed information to the actuator based on the first unique identifier and the second unique identifier.

Description

[0001] Networked data acquisition and control in the wellness sector

[0002] The present invention relates to a system and method for data acquisition and control in the wellness sector according to the preambles of the independent patent claims.

[0003] Technological background

[0004] Tanning beds are popular for enjoying the natural light and warmth of the sun without having to go outside. The comfort and flexibility of this wellness area are increased when the user can control the environment. Various parameters can be adjusted, such as temperature or light, as well as timers and alarms.

[0005] Massages are another popular way to relax and unwind. Massage chairs and tables are equipped with controls that allow the user to adjust the intensity and duration of the massage, for example. This is usually relatively easy to do, allowing you to enjoy a massage or a light treatment without having to leave your home.

[0006] Wellness areas and facilities can be further enhanced through the Internet of Things (IoT) to provide users with an even better experience.

[0007] The Internet of Things refers to the interconnection of physical devices, objects, and machines via the internet or other communication networks. These connected devices are capable of collecting, exchanging, and remotely controlling data, often without direct human interaction. The main goal of the Internet of Things is to make objects and devices more intelligent by enabling them to communicate with each other and with central systems.

[0008] In the context of the Internet of Things, devices can utilize a variety of sensors, actuators, and communication technologies to collect and exchange information. This information can then be used to automate processes, increase efficiency, and provide real-time data for better decision-making.

[0009] Solariums and massage chairs are just two examples of how we can make our lives easier and more pleasant and, if necessary, make use of IoT at the same time.

[0010] One way to integrate IoT into tanning beds, light therapy devices, and massage chairs is to enable custom settings. These devices can recognize users' individual characteristics and preferences and automatically select the best settings for optimal tanning or massage.

[0011] In tanning beds, for example, these sensors can measure skin color, erythemal sensitivity, and the current UV index. Based on this information, tanning beds can automatically select the optimal exposure time and intensity to ensure safe and effective tanning. This individual adjustment can help prevent excessive UV exposure and skin damage.

[0012] In addition, IoT enables notifications and reminders. The devices can remind users of important tasks, such as changing UV lamps in tanning beds or cleaning massage chairs. These reminders are sent to users automatically.

[0013] One example is the maintenance of tanning beds. IoT-enabled tanning beds can monitor the lifespan of UV lamps and automatically send notifications to users when the lamps need to be replaced. These reminders are very useful for ensuring that the tanning beds always operate at optimal UV radiation, which in turn improves the quality of tanning results and minimizes the risk of insufficient UV exposure.

[0014] Modern light and sun treatments, also known as LightSpa, are particularly suitable for use at home, as they create a wellness oasis within your own four walls and can enhance individual well-being. Each light spectrum has a different effect on our organism. LightSpa utilizes the biopositive effects of well-dosed sunlight and nourishing red light. Red light counteracts wrinkles, revitalizes tired skin, and combats dark spots. Red light is considered a beauty booster for flawless skin with a natural radiance. LightSpa uses red light and is largely UV-free.

[0015] US2019189259A1 discloses a system for optimizing the treatment experience for patients through the use of non-drug alternative therapies.

[0016] US2021386964A1 relates to the management of remote devices for stress reduction and sleep improvement.

[0017] WO2019222202A1 describes several systems for environmental monitoring and control. The first system focuses on indoor environmental quality, including the measurement of brightness, temperature, and air quality.

[0018] From US20210151164A1 a well-being monitoring system is known that allows the well-being of a person to be monitored over a longer period of time in different environments.

[0019] US20170139386A1 describes a system and method for improving environmental characteristics in various environments, including restaurants, work areas and residential areas.

[0020] The documents mentioned generally focus on monitoring and controlling the environment using various sensors. However, the applicability of the concepts presented in these documents to the wellness sector is a challenging task. This is due to the specific challenges and concerns that exist in the wellness sector that differ from other application areas. Integrating complex technologies, sensors, and data-driven analytics into wellness applications requires careful consideration, as wellness facilities often focus on relaxation and natural experiences where technology is not always at the forefront. Furthermore, the selected sensors and technologies must be precisely tailored to the requirements of wellness applications, as environmental conditions such as high temperatures and humidity can affect sensor performance.For the reasons mentioned above, the wellness sector is a largely unexplored area where there is room for improvement.

[0021] Description of the invention

[0022] An object of the invention is to provide a system of the type mentioned above which achieves advantages in this field, in particular allowing better networking and use.

[0023] A system according to the invention is intended to better utilize the advantages of interactions between one or more wellness devices, sensors, and actuators. In particular, information and data are to be better utilized and user-friendliness is to be increased.

[0024] A system according to the invention should be reliable in operation. It should be cost-effective and easy to maintain. The required accessories should be as minimal and durable as possible.

[0025] These and other objects are achieved by a system according to the invention according to the independent claim. Further advantageous embodiments are given in the dependent claims.

[0026] The solution according to the invention can be further improved by various embodiments, each of which is advantageous in itself and, unless otherwise stated, can be combined with one another. These embodiments and the associated advantages are discussed below.

[0027] A first aspect of the invention relates to a system for data acquisition and control in a wellness area. The system comprises a wellness device with a first unique identifier; at least one remote element, which is designed as a sensor and / or actuator, with a second unique identifier, which is arranged in the environment or on the wellness device and can be linked to the first unique identifier; a connection module for coupling to a computer unit, wherein the computer unit assigns the first unique identifier to the wellness device and the second unique identifier to the at least one sensor and / or actuator, and receives and processes information from the at least one sensor; and a control device that connects to the computer unit and sends processed information to the actuator based on the first unique identifier and the second unique identifier.

[0028] With such a system according to the invention, various advantages can be achieved, ranging from information utilization to interactions and synergies to energy optimization.

[0029] The remote element, or element or component for short, is designed as a sensor and / or actuator and can perform various functions, for example for measuring or determining environmental data and / or for activation or control.

[0030] If each device, sensor and actuator has a unique identifier, comparison with other devices and / or systems is possible.

[0031] Wellness devices and longevity are closely linked, as wellness devices aim to promote well-being, prevent or treat health problems, and ultimately improve quality of life – all factors that can contribute to extending lifespan. The system according to the invention contributes to promoting longevity and enables users to proactively manage their health and make conscious choices for a healthier lifestyle through a combination of monitoring, prevention, physical activity, stress management, and pain relief. This not only supports everyday well-being but also extends the number of healthy years they live.

[0032] The system can include a chip carrying the first unique identifier and located on or in the wellness device. This allows a wellness device to be uniquely identified. A wellness device or older devices can be retrofitted or upgraded without much effort. Furthermore, this chip can be read to obtain information about the wellness device and can also actively send information, for example, to communicate the status or availability of the device.

[0033] A sensor and / or actuator advantageously also has a chip bearing the second or additional unique identifier. This allows each sensor and / or actuator to be uniquely identified and assigned accordingly. This allows the actuators to be precisely controlled. This means that every interaction or control action can be specifically directed at the specific sensor or actuator, significantly increasing the effectiveness and precision of control in the wellness area. The control can be specifically tailored to the well-being of a user, taking into account the state of the user and / or wellness device.

[0034] In one embodiment, the first unique identifier can be located in a remote control. Thus, the unique identifier can be assigned to a user or a device with which the remote control can be operated or interacted. Likewise, the remote control can be used to control actuators. The remote control also offers an alternative to a smartphone or voice control.

[0035] The remote control can be designed inexpensively and can be given to a user, for example, for additional functions such as a door opener. User information can also be stored in the remote control. Wherever the user uses the remote control, they will receive the same or an improved wellness experience. This is particularly useful when using multiple wellness devices or studios located in different locations or, for example, in different geographical regions.

[0036] It is advantageous if the wellness device's functions can be controlled based on at least one sensor and / or actuator. For example, a sensor can detect the temperature in the room or the user, allowing the device to be prepared or controlled accordingly during operation. The sensor can determine whether a user is approaching the device or is in the room. Accordingly, the device can initiate functions that serve the corresponding applications or enhance the wellness effect.

[0037] Another example scenario for the benefits of this system could be an IoT-enabled massage chair. When the user enters the massage chair and sits down, the sensors could immediately detect which areas of the body are tense and what their heart rate is. Based on this information, the massage chair could automatically adjust the massage type and techniques to provide a customized massage that addresses the user's individual needs. Furthermore, the sensor could also detect when the user relaxes and their heart rate drops. In this case, the massage chair could automatically switch to a gentler and more restorative mode to put the user into a deeper state of relaxation. In addition to being directly recorded by sensors in the wellness devices, this health data, such as, for example,Heart rate, heart rate variability, blood pressure and other data are provided and shared by the user's devices integrated into the system, such as smartwatches, fitness bracelets, ECG chest straps or similar fitness devices.

[0038] If the system includes several wellness devices, such as a tanning bed, massage device and / or light therapy device, synergies and information can be used advantageously. The optimal parameters for the user can be adjusted based on the use of different devices and then set accordingly for further use of a device. This is particularly advantageous for users of multiple devices. Therapy using light, e.g. near, medium and / or far infrared (IR) light, massage, cold, heat, scent, acoustics and / or humidity can be coordinated and combined. The combination of heat and cold in particular promises good results. The system also enables a combination of light with moisture or the moistening of the skin depending on environmental parameters and / or skin properties, e.g. by means of room humidification. The use of scents can be tailored to the user's mood.

[0039] Heat treatments are beneficial for muscle tension. If a user is feeling stressed, fatigued, or jet-lagged, light in the 700-1050 nm IR range or near-infrared IR irradiation is indicated for energizing purposes.

[0040] A wide variety of treatments can be combined, resulting in alternating treatments, such as IR irradiation and cryogenic cabins with cold application. Short treatments can be performed at varying intervals.

[0041] If at least one sensor and / or actuator is active for multiple wellness devices and sends signals to the actuator based on processed information, then multiple devices can be controlled simultaneously, but can also be controlled individually. By combining multiple devices or wellness appliances, effects can be achieved that positively influence the level of wellness. One example is a wellness area with a sauna, whirlpool, and massage chair that is equipped with numerous sensors. A central sensor collects data on the room temperature, the presence of users, and preferred music. If multiple users enter the wellness oasis, the sensor can record the preferences of all users and forward them for processing, allowing an optimized atmosphere to be created.

[0042] The system can then be configured to increase the sauna temperature if users prefer more intense heat, while simultaneously dimming the music volume and lighting in the whirlpool area to create a relaxing atmosphere. The massage chair could automatically select a massage type based on the user's individual preferences.

[0043] Furthermore, synergistic effects can be achieved by networking multiple devices or wellness facilities. For example, the whirlpool could be coordinated with the massage settings of the massage chair to provide relaxing hydrotherapy after an intensive massage. This synchronized control of multiple devices can significantly enhance well-being and create a harmonious, holistic wellness experience.

[0044] The system can be used in the wellness area for wellness devices that operate Longevity, for example, for heat-cold therapies using a cryo-cabin or cryo-sauna. This involves exposing the entire body to a low temperature for several minutes. This cold can be achieved using nitrogen in a cryo-cabin or by an electric air conditioner with blown-in cold air.

[0045] In preferred embodiments, the computing unit can comprise a mobile device. The mobile device then takes over the computing unit and offers functions for data acquisition, processing, and, if necessary, simulation, e.g., via a wellness app.

[0046] Most people already own a smartphone or tablet, and using this existing mobile device as a computing unit is cost-effective. It eliminates the need to purchase additional hardware or specialized control devices, as users already possess the necessary technology. This approach allows users and / or operators to reap the benefits of the system without incurring additional expenditures.

[0047] By using a mobile device as the processing unit, the system is also user-friendly, as most people are already familiar with using smartphones and tablets, making controlling the wellness devices intuitive and easy. This accessibility helps ensure that users have full control over their wellness experience.

[0048] Additionally, users can use the app to personalize their wellness experiences. For example, they can try different massage types, lighting scenarios, or music options and choose the ones that best suit their mood. Finally, the wellness app can also generate statistics and reports on their wellness activities.

[0049] In further preferred embodiments, the control device can comprise a mobile device. The mobile device then takes over the control unit and offers functions for controlling actuators, e.g., via a wellness app. This can advantageously be done based on recorded, processed, and / or simulated data.

[0050] One advantage of this feature is a remote control function. Using a mobile device as a computing unit and / or control unit, users can remotely control their wellness devices. This allows them, for example, to preheat the sauna before returning home or activate the massage chair while still on the go.

[0051] In some embodiments, an actuator can be controlled in such a way that additional sensors and / or actuators are activated.

[0052] It is advantageous when the system is coupled with multiple sensors. This allows more information to be fed into the system and evaluated.

[0053] It is also advantageous if the system is coupled with multiple actuators. This allows multiple actions to be executed. For example, multiple wellness components can be synchronized, or functions can be implemented simultaneously, almost simultaneously, or in a specific time sequence. The processed information can be used to generate a signal that is sent to one or more actuators. Thus, the actuators are activated depending on or based on the processed information.

[0054] For example, an actuator can influence the following values: temperature, light, humidity, intensity, duration, and volume. Multiple actuators can influence these values ​​simultaneously or staggered, e.g., for different scenes. For example, at the end of an application, the light is brightened or raised, the temperature is reduced, and the intensity is decreased. This can also achieve an energy-saving effect.

[0055] The ability to control actuators on a timer basis opens up the possibility of creating automated routines. This means users can predefine wellness programs. For example, a morning relaxation program could synchronize lighting, music, and massages to provide an invigorating start to the day.

[0056] If the computer unit is communicatively connected to a server, larger amounts of data or data inputs can be combined and evaluated. The user then benefits from better and more comprehensive analyses, which in turn can be used for individualized results and profiles.

[0057] The server can send information to one or more wellness devices for switching them on and off, activating / deactivating standby mode, and performing function controls. This enables centralized management of wellness devices, taking into account a wide variety of states and conditions.

[0058] Furthermore, the server can also be used to send updates and maintenance instructions to the wellness devices. For example, if a massage chair needs an update to its massage programs or a sauna needs maintenance instructions for its heating elements, the server can transmit this information.

[0059] The data collected by the wellness devices can also be used to monitor the health and well-being of users. For example, the server can record health data such as heart rate and stress levels and evaluate them in real time. This allows wellness programs to reduce stress or promote relaxation to be adapted to current health parameters. The system can include LED lamps that can be intermittently controlled by a control device so that erythema-effective radiation and / or photobiologically effective radiation in the UV, visible, and near-infrared ranges are / are intermittently exposed. The control device can be used to control the LED lamps intermittently for, for example, >1 second and / or minute. Erythema-effective radiation, primarily in the UV-B range below 313 nm, refers to UV radiation that is capable of causing skin reddening (erythema).The effectiveness of UV radiation in causing erythema varies greatly with wavelength, with UV-B rays being significantly more effective than UV-A rays. Instead of continuous irradiation or exposure, erythema-inducing radiation is applied intermittently or at intervals. This increases energy efficiency and potentially reduces the total radiation dose. Restoration phases between irradiation intervals protect the skin, as well as providing a more effective tanning or therapeutic effect. Photobiologically effective radiation in the UV, visible, and near-infrared ranges refers to electromagnetic radiation that triggers biological effects in organisms. In the near-infrared range, approximately 780–1400 nm, heat effects can be generated in tissues that play a role in therapeutic applications. Phototherapy uses UV radiation to treat various skin diseases.UVB radiation is crucial for vitamin D production in the skin. The effectiveness of the radiation depends on wavelength, intensity, and duration of exposure. LED lamps can be controlled intermittently for different radiation levels using a control device.

[0060] The system can comprise a plurality of irradiation modules for irradiating medical and cosmetic radiation, wherein at least one of the irradiation modules can be adjusted toward a user individually or together with other irradiation modules, e.g., within a housing part. This has the advantage that the irradiation modules can be adapted to a body contour, thereby enabling the irradiation of a positioned user in a manner that has a positive effect on energy consumption, with particular adaptation to the user's body shape being possible.

[0061] A further aspect of the invention relates to a method for data acquisition and control in the wellness sector. The method comprises the following steps: assigning a first unique identifier to a wellness device; arranging at least one remote element as a sensor and / or actuator with a second unique identifier in the environment or on the wellness device; linking the first unique identifier and second unique identifier; coupling a connection module to a computer unit, wherein the computer unit assigns the first unique identifier to the wellness device and the second unique identifier to the at least one remote element, and receives and processes information from the at least one sensor; and connecting a control device to the computer unit and sending processed information based on the first unique identifier and the second unique identifier to the actuator.

[0062] A central element of this process is the unique identification of each wellness device, sensor, and actuator. This ensures that the various components work together smoothly and can be precisely controlled. Individual user preferences and settings can be taken into account, as control is based on the unique identifiers.

[0063] The connection to a computer unit allows the collected data to be processed in real time and appropriate actions to be triggered. This results in an adaptive wellness experience in which the environment and applications automatically adapt to the user's needs and preferences.

[0064] Furthermore, linking the device to a computer allows the data to be used for comprehensive analyses. These analyses can be used to create individual wellness profiles and provide recommendations for optimal wellness programs. Users benefit from personalized results and an overall improved wellness experience.

[0065] Furthermore, the procedure offers the possibility of remote control. Users can control their wellness devices and treatments from any location, ensuring flexibility and convenience. Settings can be programmed in advance to tailor the wellness experience precisely to their needs.

[0066] In the context of IoT, wellness devices such as LightSpa systems can be further enhanced. Smart lighting controls allow users to adjust light intensity, color temperature, and lighting scenarios according to their personal preferences. This adaptability creates the perfect atmosphere for relaxation, meditation, or simply feeling good. Figure description

[0067] Embodiments of the invention are described with reference to the following figures.

[0068] Fig. 1 : a schematic representation of a system for data acquisition and control in the wellness area with a wellness device, a sensor and an actuator as well as other components,

[0069] Fig. 2: another schematic representation of a system for data acquisition and control in the wellness area with a wellness device, two sensors and one actuator,

[0070] Fig. 3: another schematic representation of a system for data acquisition and control in the wellness area in a wireless environment,

[0071] Fig. 4: a schematic representation of a system with a wellness device, a remote control, a sensor and an actuator,

[0072] Fig. 5: a schematic representation of a system with a wellness device, a mobile device, and a server connected by a network,

[0073] Fig. 6: a schematic representation of a system with several wellness devices, a mobile device, and a server connected by a network,

[0074] Fig. 7: a schematic representation of a method for data acquisition and control in the wellness area, and

[0075] Fig. 8: a schematic representation of a system for data acquisition and control in the wellness area with a position detection of a user via a camera system or Li DAR sensor system.

[0076] Implementation of the invention

[0077] Figure 1 shows a schematic representation of a system 1 for data acquisition and control in a wellness area. System 1 comprises a wellness device 10, a sensor 20, and an actuator 30, as well as a connection module 40, a computer unit 50, and a control unit 60. Each sensor 20 and actuator 30 can also be referred to as an element, component, or remote element.

[0078] The wellness device 10 is any form of wellness device. The wellness device 10 can be used for light and sun treatments, massages, and other applications such as heat and / or cold therapies. The device 10 can be designed in the form of a lounger, a chair, a cabin, or a sauna.

[0079] The wellness device 10 has a first unique identifier 11, provided in the form of an ID in a first chip 5. The first chip 5 can be delivered with the wellness device 10 and positioned in a location that is not easily accessible. The first chip 5 can also be retrofitted on or in the wellness device 10. This allows any wellness device 10 to be easily retrofitted and provided with a unique identifier, which can preferably be accessed from outside. The first chip 5 with the first unique identifier 11 can also be attached near the wellness device 10 or in the room. This allows at least the location of the wellness device 10 to be determined.

[0080] The sensor 20 is provided with a second unique identifier 12, which is provided in the form of an ID in a second chip 5'. The sensor 20 with the second unique identifier 12 is arranged in the environment or on the wellness device 10 and linked to the first unique identifier 11. The sensor 20 is thus assigned to the wellness device 10. The sensor 20 is capable of determining values ​​regarding temperature, brightness, humidity, intensity, or volume and transmitting these to the connection module 40 and the computer unit 50. In a preferred embodiment, the sensor 20 can detect whether a person is in the room or in the vicinity of the sensor 20. In a further embodiment, the sensor 20 is capable of identifying people, see also Fig. 8. If, for example, a child or animal is near the wellness device 10, it would not start or even switch off for safety reasons.

[0081] The actuator 30 is provided with a second unique identifier 12, which is provided in the form of an ID in a third 5" chip. The actuator 30 with the third unique identifier 12 is also arranged in the environment or on the wellness device 10. Depending on the design of the actuator 30, it influences temperature, light, humidity, intensity, duration, volume, massage function, etc.

[0082] The connection module 40 is connected to the wellness device 10 and can receive values ​​from the sensor 20. The connection module 40 is coupled to the computer unit 50, with the computer unit 50 assigning the first unique identifier 11 to the wellness device 10 and the second unique identifier 12 to the sensor 20 or actuator 30. This allows the creation of a system unit that can acquire data and specifically control the device. Furthermore, the computer unit 50 receives and processes information and values ​​from the sensor 20.

[0083] The control device 60 is connected to the computer unit 50 and sends processed information based on the first unique identifier 11 and the second unique identifier 12 in the form of a signal SA to the actuator 30. The actuator 30 converts the control signal SA accordingly.

[0084] Chips 5, 5', 5", 5"' can be implemented as wireless communication chips containing identification information (ID). The identification information can be read by a radio frequency (RF and / or RFID) or near-field communication (NFC) device. The identification information is received or read by connection module 40. It is also possible to transmit the identification information to a network or the Internet.

[0085] The chip 5 on or in the wellness device 10 can also be used to link to an NFT. This allows the user to register the device and declare it as their property. Transfer, sale, or licensing is then also possible virtually.

[0086] In a preferred embodiment, system 1 uses passive or low-energy protocols, such as EnOcean, Zigbee, or Z-Wave, as further explained below. Sensor 20, actuator 30, and connection module 40 are designed for low-energy protocols. Sensors 20 and actuators 30, or a plurality of them with respective IDs, can be placed at a distance from or to wellness devices 10, i.e., anywhere in the environment, since no power or cable connections are required. Sensors 20 and actuators 30 are equipped with or use low-voltage batteries, so they can also be used in bathrooms or damp rooms or near water connections, etc. Because they are maintenance-free, such systems are well suited for use in the home.

[0087] The EnOcean wireless standard is designed for wireless sensors and wireless sensor networks with particularly low energy consumption. This also includes sensor networks that use energy harvesting technology to harvest energy from the environment, for example, from motion, light, or temperature differences. This principle enables electronic control systems that operate independently of an external power supply. The EnOcean wireless standard (ISO / IEC 14543-3-1X) for the sub-1 GHz range is ideal for use in buildings thanks to its range of up to 30 meters. Standardized sensor profiles ensure interoperability. Power consumption is very low. Powered by motion, light, or heat, the wireless sensors 20 and actuators 30 require no cables or batteries to switch or record sensor information such as temperature, water, or presence detection.Data transmission occurs via license-free frequency bands with a 1% duty cycle and a reliable radio range. The sensors 20 and actuators 30 can also communicate directly with each other and / or be controlled via a room controller / gateway or connection module 40 to the cloud for applications. The sensors 20 and / or actuators 30 are designed as maintenance-free wireless sensors / actuators and do not require the replacement of maintenance batteries.

[0088] ZigBee technology is a mesh-based protocol that allows a network to grow with requirements, allowing a variety of sensors 20, actuators 30 and wellness devices 10a, 10b, ...10n to be connected and used (see also Fig. 6).

[0089] Z-Wave is a wireless communication standard whose radio communication is optimized for low energy consumption and high communication security. Z-Wave uses two-way communication with acknowledgement. Z-Wave implements a wireless mesh network topology, allowing each mains-powered device to forward datagrams from other devices within its own network. The battery-powered sensors 20 and actuators 30 are mostly inactive and periodically wake up to receive and transmit commands.

[0090] Figure 2 shows a further schematic representation of a system 1 for data acquisition and control in a wellness area, comprising a wellness device 10, two sensors 20 (S1, S2), and an actuator 30. The system may comprise additional wellness devices 10, sensors 20, and actuators 30. Assigning the sensors 20 and actuators 30 to one or more wellness devices 10 may result in logical units or clusters. The sensors 20 and actuators 30 may also be active for multiple wellness devices 10 simultaneously or individually. Assignment and activation are performed by means of a computer unit 50.

[0091] The wellness device 10 in turn has a first unique identifier 11, which is provided in the form of an Idi in a first chip 5'.

[0092] A first sensor S1 is provided with a second unique identifier 12, which is provided in the form of an ID d2 in a second chip 5". The first sensor S1 with the second unique identifier 12 is arranged in the environment or on the wellness device 10 and linked to the first unique identifier 11. The first sensor S1 is thus assigned to the wellness device 10.

[0093] A second sensor S2 is provided with a third unique identifier 12, which is provided in the form of an ID in a third chip 5". The second sensor S2 with the second unique identifier 12 is also arranged in the environment or on the wellness device 10 and linked to the first unique identifier 11. Thus, the second sensor S2 is also assigned to the wellness device 10.

[0094] The first and second sensors Si, S2 can determine different values ​​and transmit them to the connection module 40 and the computer unit 50.

[0095] The actuator 30 is provided with a fourth unique identifier 12, which is provided in the form of an ID4 in a fourth chip 5". The actuator 30 with the fourth unique identifier 12 is also arranged in the environment or on the wellness device 10.

[0096] The link is shown in a tabular overview in Table 1 as follows:

[0097] Table 1

[0098] The connection module 40 is connected to the wellness device 10 and can receive values ​​from the sensors S1, S2. The connection module 40 is coupled to the computer unit 50, which assigns the unique identifiers 11, 12 with IDs.

[0099] The system 1 can be designed more complexly and include a plurality of sensors 20 and actuators 30 as well as wellness devices 10. The formation of logical units is advantageous where several or different devices as well as sensors 20 and actuators 30 are arranged, e.g., in hotel or wellness areas, fitness areas, but also in home operation.

[0100] In the illustrated embodiment, the connection module 40 is connected to a server 80. The server 80 receives and processes information and values ​​from the computer unit 50 or from multiple computer units 50 and transmits preprocessed control signals to the control device 60. Based on the link, the control device 60 can then send a signal SA to the actuator 30, which converts the control signal SA accordingly.

[0101] Figure 3 shows a further schematic representation of a system 1 for data acquisition and control in a wellness area in a wireless environment. The system 1 comprises a wellness device 10, a sensor 20, an actuator 30, and a mobile device 70. The mobile device 70 comprises a connection module 40, a computer unit 50, and a control device 60. The mobile device 70 can comprise a smart device that functions and is operated by applications, i.e., apps. The mobile device 70 can be designed as a smartwatch or fitness tracker. All so-called wearables, i.e., smartphones, cell phones, tablets, laptops, notebooks, etc., can be used.

[0102] The wellness device 10 has a first unique identifier 11, which is provided in the form of an ID in a first chip 5.

[0103] The sensor 20 is provided with a second unique identifier 12, which is provided in the form of an ID in a second chip 5'. The sensor 20 with the second unique identifier 12 is arranged in the environment or on the wellness device 10 and linked to the first unique identifier 11.

[0104] The actuator 30 is provided with a second unique identifier 12, which is provided in the form of an ID in a third chip 5". The actuator 30 with the third unique identifier 12 is also arranged in the environment or on the wellness device 10.

[0105] The connection module 40 in the mobile device 70 is connected to the wellness device 10 and can receive values ​​from the sensor 20 and assign them accordingly. The connection module 40 is coupled to the computer unit 50, whereby the computer unit 50 assigns the first unique identifier 11 to the wellness device 10 and the second unique identifier 12 to the sensor 20 or the actuator 30. This allows a system unit to be formed using an APP. The computer unit 50 receives and processes information and values ​​from the sensor 20. The control device 60 is connected to the computer unit 50 and sends a signal SA to be executed to the actuator 30. The actuator 30 implements the control signal SA accordingly.

[0106] Figure 4 shows a schematic representation of a system 1 with a wellness device 10, a remote control 15, a sensor 20, and an actuator 30. The first unique identifier 11, in the form of an Idi, is provided in a first chip 5 of the remote control 15. The remote control 15 can be connected to the wellness device 10, to the sensor 20 with Id2, and to the actuator 30 with Ids. This arrangement enables simple system formation and allows simple and efficient control. In this embodiment, the first unique identifier Idi is located in the remote control 15, which is assigned to the wellness device 10. The unique identifier is assigned to a user or a device. The remote control 15 is used to control the actuator 30. In addition, user-specific presets and / or adaptive settings can be stored in the remote control 15 or transmitted to it.To store the remote control 15, the wellness device 10 may have a slot for insertion or a storage position.

[0107] Figure 5 shows a schematic representation of a system 1 with a wellness device 10, a mobile device 70, and a server 80 connected by a network 82. All components are communicatively linked by a network 82, where the network 82 can be a local network or the Internet. The server 80, which can be cloud-based, enables the evaluation of sensor data from one or more sensors 20 into wellness data and offers far-reaching advantages for both the individual user and the wellness device use. Through the central storage and processing of the data, personalized health strategies can be developed, long-term trends can be analyzed, and health risks can be identified at an early stage. Furthermore, integration with healthcare services enables improved care and optimized prevention.

[0108] The server 80 also provides the necessary security, scalability, and performance to efficiently manage and evaluate the ever-growing volumes of data. The evaluation of wellness data on a server 80 refers to the processing and analysis of data collected by wellness devices 10 and sensors 20, as well as user data, through a central server infrastructure. The user data can originate from various devices such as fitness trackers, sleep trackers, smartwatches, blood glucose meters, and other wearables. The use of a server 80 for analysis offers numerous advantages that are particularly useful for the user.

[0109] All collected wellness data can be stored in a central location on the server 80. This allows users to access their data from various devices, such as smartphones, tablets, and laptops, regardless of where they are located. Because all data is collected in one place, it can be analyzed consistently and completely, improving the quality and accuracy of the analyses. Wellness data collected over longer periods of time and stored on the server 80 offers the opportunity to identify long-term health trends and patterns. These trends can provide useful information for improving health, for example, regarding sleep quality, activity levels, and stress factors. By using AI and machine learning algorithms, the server 80 detects patterns and anomalies in the wellness data. For example,Predictions can be made about future health risks, such as the increased risk of cardiovascular disease or diabetes.

[0110] By analyzing large amounts of data, the server can create 80 personalized wellness and health suggestions based on individual trends and behavior patterns.

[0111] The server 80 enables real-time analysis of wellness data, which is particularly important for immediately detecting critical health events such as an abnormal heart rate or significantly elevated blood sugar levels. Upon detection of such anomalies, the server 80 can immediately send notifications to the user or medical professionals to enable timely intervention.

[0112] Personalized reports can be generated for the user, providing detailed information on their health status and progress toward wellness strategies or fitness goals. The wellness data on the server 80 can be integrated into telemedicine platforms, giving physicians and healthcare professionals direct access to their patients' current data. This facilitates remote diagnosis and consultation. Wellness data stored on a server 80 can be integrated into electronic medical records to provide a complete picture of the patient's health status. This helps physicians make more informed decisions.

[0113] Storing data on Server 80 allows for the application of strict security measures such as data encryption and access controls to protect the data from unauthorized access. Server 80 can be configured to comply with applicable data protection laws such as the General Data Protection Regulation (GDPR) in the EU or the Health Insurance Portability and Accountability Act (HIPAA) in the US. This is especially important because wellness data often contains sensitive health information.

[0114] Wellness data is collected in large quantities and requires corresponding storage capacity. Cloud-based server solutions offer virtually unlimited storage and computing power to effectively process and store this data. Using the central server 80 enables data to be collected and integrated from different locations and devices, allowing data from various sources, such as gyms, hospitals, and wearables, to be evaluated together.

[0115] Server-based systems allow the storage of wellness data over years, enabling the analysis of long-term health patterns. This historical data is particularly valuable for detecting changes in health that could indicate a developing disease. Data collected over decades can help people understand the relationship between lifestyle habits (e.g., exercise, diet, sleep) and their long-term health and take measures to improve their longevity. Based on the analyzed data, the server 80 can define personalized wellness applications and / or health goals for the user based on individual needs and potential, e.g., weight loss, improved heart health, better sleep habits.

[0116] Wellness goals can be dynamically adjusted based on user progress and feedback. This sets realistic and achievable goals that can be continuously reviewed and optimized. Server-based wellness data can be anonymized and shared with medical or scientific research centers to gain new insights into health trends and prevention strategies.

[0117] The server 80 can integrate data from different sources and providers, which makes it possible to combine different wellness devices 10 and health applications and, for example, to evaluate them in a central dashboard.

[0118] Figure 6 shows a schematic representation of a system 1 with several wellness devices 10a, 10b, ...10n, a mobile device 70, and a server 80 connected by a network 82. All components are in turn communicatively connected by a network 82, where the network 82 can be a local area network (LAN) or the Internet. The server 80 receives data from various wellness devices 10a, 10b, ...10n, which can also be located in different locations, and processes and analyzes the data. The processing can be carried out using AI (artificial intelligence), in particular a self-learning system (machine learning system). The integration of AI enables the system to better understand the usage information and habits of the users and to adapt. This means that the system 1 learns over time how users prefer their wellness devices and applications.It can recognize patterns in the data and, based on these patterns, suggest and implement recommendations and adjustments for an optimal wellness experience.

[0119] A wide variety of parameters are crucial for Longevity. For example, skin cells are identified and monitored, food intake, and many other parameters are determined. The information is linked to create a complex overall picture, which, using AI, determines the application, duration, or alternating treatments, and is then implemented accordingly for the user.

[0120] In addition, the class can evaluate user behavior individually or for groups (so-called clusters) and make suggestions for individual or multiple device adjustments and registrations. These can also be implemented directly.

[0121] For example, System 1 may recognize that a user prefers a calming lighting and music environment in their sauna on stressful workdays. On such days, the system could automatically adjust the lighting and music options to promote relaxation. On days when the user wants to be more active, the settings could be modified accordingly.

[0122] The KL can also be used to remind users, users, and / or operators of maintenance requirements, such as replacing UV lamps in tanning beds or cleaning massage chairs. These reminders are not only time-based, but also tailored to individual needs and the condition of the equipment.

[0123] Figure 7 shows a schematic representation of a method for data acquisition and control in the wellness sector. In a first step S1, a first unique identifier 11 is assigned to a wellness device 10. In a second step S2, at least one sensor 20 and / or actuator 30 with a second unique identifier 12 is arranged in the environment or on the wellness device 10. Then, in a third step S3, the first unique identifier 11 and the second unique identifier 12 are linked. In a fourth step S4, a connection module 40 is coupled to a computer unit 50, wherein the computer unit 50 assigns the first unique identifier 12 to the wellness device 10 and the second unique identifier 12 to the at least one sensor 20 and / or actuator 30. In a fifth step S5, information from the at least one sensor 20 is received and processed.In a sixth step S6, a control device 60 is connected to the computer unit 60. Finally, in a seventh step, processed information is sent to the actuator 30 based on the first unique identifier 11 and the second unique identifier 12.

[0124] Figure 8 shows a system 1 for data acquisition and control in a wellness area with a user position detection via a system 90, which includes a camera and / or LiDAR system. The system 90 can include a sensor camera SKI as well as additional sensor cameras SK2 and / or LiDAR systems. LiDAR stands for Light Detection and Ranging and enables precise environmental detection. Light in the form of a pulsed laser is used to detect and categorize objects or people. LiDAR sensors generate precise, three-dimensional information about the shape and surface properties of the surrounding objects or people. LiDAR uses laser beams in an eye-safe range to create a 3D representation of the detected environment or person. The evaluation for the wellness device 10, e.g., a dry massage device, a light / humidity device, a cryogenic cabin, or similar, is carried out using or supporting LiDAR.This is not just about recognizing a user, but also about the user's well-being. Using sensor 20 with chip 5', skin moisture can be determined, but light, heat, and acoustics can also be incorporated using sensor information. A biomarker, for example, collects information during the day, which is evaluated by server 80 and implemented accordingly for the user on device 10 in the evening. The wellness device 10 is coupled to the computer unit 50 via a connection module 40, to which the server 80 is also connected. Alternatively, the server 80 can also be directly connected to the connection module 40 (dashed line).

[0125] Time control can occur during a treatment because various parameters are subject to time dependence.

[0126] Well-being can be measured through pulse, blood pressure, eye movements, heart rate, and movements such as fidgeting or movement intensity. Room and / or body temperature, respiratory rate, and other parameters can be measured as input parameters during a wellness treatment, allowing the intensity of the treatment to be adjusted accordingly. The user's well-being is thus always present as a control variable.

[0127] During use, the user's condition is continuously monitored, and the well-being parameters can be adjusted. In short, the user's well-being can be achieved by controlling the wellness device 10. Optimizing the breathing rate serves to support meditation.

[0128] The wellness treatments and / or data can be linked to a nutritional system. Fasting phases can be completed or combined with wellness treatments.

[0129] Non-invasive sensors can be used to detect diseases such as diabetes. Treatments can then be adapted accordingly, or not performed at all, or modified. The sensors are attached to the user where they will provide particular benefit, such as the upper arm.

[0130] Active sensors 20 are physically arranged where, for example, shoulder blades and calves are located with regard to pressure load or ergonomic lying surface or support surface.

[0131] Movable sensors are also possible, meaning sensors that move during treatment. A sensor is then not always in the same location, for example, to avoid interfering with an application.

[0132] The system then has at least one movable sensor 20. The actuators 30 can also be designed to be movable.

[0133] Wellness devices 10, as well as sensors 20 and / or actuators 30, can also be retrofitted with a chip 5 or tag, e.g., for older devices, and linked to a control unit. This also enables easy, wireless connection from device to device.

[0134] Thanks to the networking and interconnections, the components can interact more effectively with each other. For example, as soon as the user is near the wellness device 10, the system 1 can detect that the user is preparing for a treatment and warm up the wellness device 10 or the surrounding area accordingly. A sensor 20 for activating the device 10 can be placed in the anteroom, for example. Likewise, the device 10 can be switched off at a later time, for example, when the user leaves the room.

[0135] Wellness scenarios can be configured or preset. For example, if the user places their head in a specific spot, a lamp or special light is switched on or activated, appropriate music starts, and the overall experience is enhanced.

[0136] In the professional sector, the data can be specifically processed and used, for example, for energy-saving measures. Networking entire or multiple studio groups is also possible. Energy distribution can be better controlled if it is known which devices are in use and how they are used. The sensors 20 allow various data to be recorded, which are then forwarded for joint processing / analysis. Remote monitoring and / or remote management can be carried out using system 1. Usage times for studios can be recorded without cabling and fed into a central evaluation system.

[0137] Error messages or warnings can be issued easily and user-friendly via a mobile application. This feature allows users and / or operators to receive instant notifications of potential problems or required maintenance actions on their smartphone. For example, if a wellness device requires maintenance, a malfunction occurs, or important information is available, the app can immediately inform the user. This not only contributes to quick problem resolution but also ensures that the wellness devices are operated safely and efficiently. The user can then take appropriate measures to resolve the situation or contact customer service for assistance.

[0138] A user's movements, for example, in the surrounding area, can be tracked. If, for example, a device is not (yet) ready for use, the app provides a waiting time recommendation, directs users to another device, or suggests an alternative pastime. In busy wellness areas, the app could serve as a queue manager. It can inform users how long they have to wait to use a particular wellness device or treatment and suggest alternative activities to usefully bridge the waiting time.

[0139] Motion tracking can be used to create a wellness itinerary planner that provides users with personalized suggestions for the order of wellness activities. As users move from one area to another, the app can show them efficient routes to maximize their time in the wellness area.

[0140] Virtual tours are another option. When users enter a new area of ​​the wellness oasis, the app can display information about the available wellness equipment and treatments and offer them virtual tours of the space.

[0141] The proposed solution enables networked data acquisition and control in the wellness area. The sensors and actuators interact and can be used for energy efficiency measurement and energy savings.

[0142] The transmission of information over a network using a network protocol to, for example, a higher-level monitoring system, an evaluation or analysis system allows a flexible design of the system.

[0143] Adjusting the operating parameters of at least one or more wellness devices based on sensor information can be transferred and scaled to other devices. Based on user feedback, successful applications can be easily transferred to other or additional users. Efficient evaluation via the cloud, with suggestions for future applications or sessions, can benefit all users.

[0144] User settings can be stored in the wireless sensors / actuators and retrieved as needed. This allows users to be authenticated without requiring any technical knowledge. A wireless sensor can be kept very small and carried by the user. This allows recognition and user authentication as soon as they enter a building or room, and the devices can be set to the appropriate operating state. The same applies when leaving after a use, so the devices can be shut down accordingly or put into energy-saving mode.

[0145] If the sensors / actuators are small, they can be stuck in a handbag or attached to a cell phone case, for example, or attached in such a way that they can be carried around. The sensors / actuators can be given to users as pre-programmed tags.

[0146] Recognizing different users and retrieving corresponding profiles / settings allows for efficient device operation. This allows the devices to automatically adapt to each user's preferences as soon as they are recognized. This ensures that resources such as energy and water are used efficiently, as the devices are only activated when they are actually needed. Furthermore, user recognition can be used to activate standby modes when no activity is detected, further contributing to energy savings.

[0147] Without cabling, energy savings are possible through mesh information; for example, when one device is running, another can be disabled. Using wireless connectivity, devices and modules can be pushed together and work together, for example, a wellness device can work with other components. Remote control is also possible, with the option of integrating it into a smart home. Different rooms can be linked together in this way. Linking with smartwatches is also possible.

[0148] The sensors 20 can be attached to the device or the environment as climate or person sensors at complicated locations. Furthermore, redundant sensors can be arranged for safety reasons, as these are inexpensive. A sensor 20 can be attached directly to a person, e.g., by sticking the sensor to the skin. This then measures, for example, the light intensity wirelessly. The intensity can thus be kept within an optimal range for the user without harming the user. It is also possible to limit the maximum usage time or to issue an alarm. The sensors 20 and actuators 30 can be used for animation. For example, massage chairs can trigger motion animations based on the user's movements, while actuators 30 synchronize light effects and create dynamic soundscapes. The result is a personalized and interactive wellness experience that stimulates the senses and increases well-being.

[0149] If a wellness device 10 malfunctions or requires maintenance, information or maintenance requests can be sent. Spare parts can thus be ordered in advance and delivered on time.

[0150] The system 1 can comprise a plurality of actuators 30, designed as irradiation modules 30, for irradiating with medical and cosmetic radiation. At least one of the irradiation modules 30 can be adjusted toward a user individually or together with other irradiation modules 30. Thus, the irradiation modules 30 can be adapted to a body contour, enabling the irradiation of a positioned user in a manner that has a positive effect on energy consumption, with adaptation to the user's body shape being possible in particular. For tall or stout users, the irradiation module is advantageously retracted to avoid skin burns or exceeding the irradiation dose. For small or slim users, the irradiation module is pushed forward to achieve optimal irradiation results.In addition to essentially axial adjustment along the user's body, the irradiation module can also be pivoted, allowing it to be moved back and forth, thus homogenizing the irradiation result. At the same time, the irradiation modules are capable of irradiating hard-to-reach areas, such as shoulders or body cavities, at different angles, thus tanning.

[0151] The irradiation modules 30 are adjusted optionally pneumatically, hydraulically, or mechanically, with the drive preferably being provided with an electric motor. The irradiation modules 30 are adjusted within the housing part toward the user's body in order to achieve a favorable irradiation result with low energy consumption by optimizing the distance.

[0152] To advantageously enable three-dimensional adjustment of the irradiation modules 30, the irradiation module 30 is expediently designed with a honeycomb-shaped support, which, for example, forms a hexagonal surface, with an adjacent honeycomb body adjoining each edge. Alternatively, a support with a different shape can be provided with the hexagonal supports to achieve a spherical curvature. The supports can also be attached with LEDs to a three-dimensional surface, which allows for flexible adjustment, whereby the surface as a whole, rather than the individual irradiation module, is designed to be movable.

[0153] In an advantageous embodiment, means or sensors 20 are provided for measuring the distance between the user and the at least one irradiation module 30, which are expediently arranged in a housing part such that the distance measurement between the user and the housing part is possible at a characteristic point or several points that result in a body contour. The means 20 for measuring the user's distance can be optical means; however, it is also possible to provide a scale, such as a checkerboard pattern, on a housing part, which enables the measurement of the user's body and thus the determination of the distance to the respective irradiation modules. The scale can also be determined by the measuring means in an image reflected from the housing part.

[0154] The irradiation module 30 is then expediently adjustable toward the user, so that the irradiation module 30 instead maintains a preset, optimal distance from the user. This distance, which can also be predefined for safety reasons, enables a particularly advantageous irradiation effect while simultaneously adhering to the irradiation limits and minimizing energy consumption. In this case, the irradiation modules 30 are expediently operated at a preset power level, and the irradiation effect is significantly optimized by adapting to the user's body.

[0155] Furthermore, means 20 for detecting the user to be irradiated can be provided. The irradiation modules 30 or individual radiation sources of the irradiation modules can be activated depending on the characteristics of the detected user. This advantageously provides a system 1 that characterizes the position and properties of the user's body and adjusts the radiation output of the irradiation modules 30 to the position and / or properties of the body, in particular the dimensions. Potentially unnecessary radiation sources can thus advantageously be operated at reduced power or without power, thereby reducing energy consumption. In addition, the irradiation modules can be optimally adjusted in their distance from the body, which is approximately 20 cm to 30 cm from the body surface.Depending on the user's body shape, for example, whether they are fat or thin, the irradiation modules 30 are operated with the required intensity and / or at the required distance from the body, so that individually optimized irradiation is achieved for each user. One or more sensors 20 are expediently provided, which enable the user to be irradiated to be recognized. In a simple embodiment, this can be a camera 90 that compares an image of the device with and without the user and, based on this, determines which irradiation modules 30 or LEDs are not required. The camera 90 can be designed as a CCD line scan camera. Alternatively, the camera 90 can also be specifically configured for the radiation emitted by the irradiation modules 30, so that the lighting modules 30 or LEDs that are not shadowed by the user's body are detected by the camera 90.To enable better identification of the individual modules 30 or LEDs, they can be controlled at specific frequencies using a control unit 60. A clear assignment of the irradiation module 30 or LED to a specific location can be achieved through evaluation by means of a computer unit 50 and / or server 80.

[0156] Data acquisition and control can be carried out using energy-saving components as described above.

[0157] Energy efficiency can also be achieved through positioning that takes special features into account, e.g., UV radiation in tanning beds. Energy efficiency is achieved through targeted positioning and position detection, whereby sensors 20 determine where and how a person is lying or how the user behaves. The use of positioning technologies such as optical sensors, ultrasound, and LiDAR enable precise localization and the targeted use of energy where needed. People or objects can be tracked and navigated. Advances such as machine vision and artificial intelligence are used and improve the accuracy and efficiency of such a system 90. This can also be used to determine the exact position of people, e.g., for security or comfort solutions.The control system 60 in tanning beds with UV radiation operates in such a way that certain areas are excluded, and certain body parts are not irradiated or are only partially irradiated, such as the palms of the hands, eyes, or soles of the feet. These areas are less pigmented and react differently to UV radiation. The skin on the palms and soles of the feet already has a natural protective layer due to hyperkeratosis, which reduces UV permeability. Thus, irradiation of these areas can be avoided.

[0158] The targeted application of UV radiation in tanning beds and phototherapy requires precise control of the energy to achieve maximum effectiveness with minimal risk. Energy should only be effective where it is needed. This requires more data for determination and control. Targeted irradiation, e.g. with UV radiation, only occurs where it is effective. This varies depending on the skin area and treatment goal. Different regions of the body require different irradiation intensities. Legs, for example, can be irradiated differently than more sensitive areas. It is advantageous to apply the radiation in a way that is appropriate to the skin type, with gentle but precisely dosed radiation that is tailored to the individual skin type. There is also a therapeutic benefit, as in conditions such as psoriasis or atopic dermatitis, controlled UV radiation is used to alleviate symptoms.Caution is advised for specific applications, such as when irradiating sensitive areas like the bikini line. The intensity is adjusted accordingly. It is also possible, for example, to specifically re-tan untanned or slightly tanned areas that were previously covered by textiles to achieve an even tan. Precise dosing and the use of special wavelengths, such as narrow-band therapy, can minimize redness or skin erythema.

[0159] In a preferred embodiment, the sensors 20 are designed for finer scanning. In this embodiment, the system 1 enables more precise detection of the skin condition and individual adjustment of the irradiation. Differentiated irradiation can be carried out accordingly. Different body regions can be irradiated with different intensities and spectra, based on specific information recorded by the sensors 20 and processed by the computer unit 50, in order to then control or activate the actuators 30, e.g., LEDs, accordingly via the control device 60. Precise control of the UV dose is crucial for safe and effective application. Particularly sensitive areas such as the eyes, palms of the hands, and soles of the feet should be protected or avoided.This targeted application of UV radiation enables more efficient and safer use in tanning beds and in therapeutic and cosmetic applications, as it applies energy only where it is actually needed and effective. Energy efficiency can also be used to protect skin.

[0160] Another approach to the efficient use of energy in UV irradiation, particularly in tanning beds, involves intelligent energy distribution, for example, through spatial and temporal optimization. An AI-based system 1 uses known and real-time data to precisely control irradiation. Studies show that intermittent irradiation may be more effective than continuous irradiation. Surprisingly, series of measurements have shown that skin surfaces do not absorb stimulation at any desired temporal density or evenly over any desired duration.

[0161] Given this, it's not necessary to perform irradiation treatment continuously, mindlessly, or even continuously. Sequential irradiation, for example, 2-3 seconds of irradiation followed by a break, can certainly save energy while maintaining consistent effects. Furthermore, differentiated application is possible by applying irradiation to specific body zones, with the KL system adapting the irradiation to different body regions, such as the legs and upper body. Dynamic light patterns, e.g., with wave-like light movements, ensure improved effectiveness.

[0162] Instead of continuous irradiation, interval irradiation is recommended, e.g., at intervals of 3-5 seconds or minute-long cycles, or combinations thereof. The control is energy-efficient and skin-friendly using erythema-effective and / or photobiologically effective radiation, allowing for targeted application at controlled intervals. In combination with LEDs or LED technology, this enables precise control and reduces any waste heat. During irradiation breaks, thermal energy from IR radiation can be utilized. The control system can be configured to avoid voltage spikes.

[0163] Recent studies and initial measurements surprisingly indicate that intermittent radiation or irradiation leads to equivalent or better tanning effects than continuous irradiation. There are differences in the tanning effect between continuous and intermittent UV irradiation. Intermittent irradiation leads to a deeper tan than a single, longer exposure with the same total dose. With intermittent irradiation, the skin has time between irradiation intervals to activate repair mechanisms and produce melanin. This also has other effects on the skin. Intermittent irradiation can lead to a thicker epidermis (light callus), which provides an additional protective effect. The formation of light callus is triggered by both UV-A and UV-B radiation, with UV-B having a stronger effect. The skin's reaction to UV radiation depends heavily on the individual skin type.Taking such effects into account, the present disclosure intends to save energy by providing intermittent UV irradiation, i.e., tanning irradiation and / or photobiologically effective radiation using LEDs. This applies to both UV-A and UV-B radiation, i.e., to only one radiation or both.

[0164] "Intermittent" refers to processes or states that occur or proceed with interruptions, i.e., "temporarily interrupted," "with interruptions," or "at intervals." From a temporal perspective, irregular or longer intervals can occur between phases of activity, e.g., > 1 s or a few seconds or minutes. Intermittent processes or events are in contrast to continuous, continuous, or uninterrupted events. Pulsating events, on the other hand, refer to regular, rhythmic fluctuations or pulses that typically have shorter, more regular intervals than intermittent events, e.g., several times per second and / or above 60 Hz or in visible light.

[0165] The specialist is able to configure the control system by using LEDs or LEDs that prevent voltage spikes.

[0166] Regulations regarding limit values, so-called peaks, total dose or total amount can also be taken into account with the proposed intermittent irradiation, in particular to compensate for differences, for example, for the USA or Europe.

[0167] The approaches outlined aim to increase energy efficiency while simultaneously improving skin tolerance. The implementation of such systems could lead to a new generation of tanning beds and UV therapy devices, as well as devices for photobiomodulation—i.e., applications of red and near-infrared light—that are both more resource-efficient and more effective. This also applies to massage, for example, and, analogously, to other types of exposure.

[0168] The present disclosure provides a system and method for data acquisition and control in the wellness sector. It goes without saying that a person skilled in the art will be able to conceive numerous other possibilities based on the exemplary embodiments described.

[0169] I System

[0170] 5 Chip, 5' 5”, 5”', 5”” additional chips

[0171] 10 wellness devices

[0172] 10a, 10b ... 10n wellness equipment

[0173] II first unique identifier; Idi

[0174] 12 second unique identifier; Id2 , Ids , Id4

[0175] 15 Remote control

[0176] 20 Sensor or sensor element

[0177] 30 Actuator or actuator element, irradiation module(s), LEDs

[0178] 40 connection module

[0179] 50 computer units

[0180] 60 control device

[0181] 70 mobile devices

[0182] 80 servers

[0183] 82 Network

[0184] 90 Camera and / or LiDAR system

[0185] SA control signal

[0186] S1-S7 steps

Claims

Patent claims 1. System (1) for data collection and control in the wellness area comprising: - a wellness device (10) with a first unique identifier (11); - at least one remote element (20, 30) with a second unique identifier (12), which is arranged in the environment or on the wellness device (10) and can be linked to the first unique identifier (11), wherein the remote element (20, 30) is designed as a sensor (20) and / or actuator (30); - a connection module (40) for coupling to a computer unit (50), wherein the computer unit (50) assigns the first unique identifier (11) to the wellness device (10) and the second unique identifier (12) to the at least one remote element (20, 30), and receives and processes information from the at least one sensor (20); and - a control device (60) which connects to the computer unit (50) and sends processed information to the actuator (30) based on the first unique identifier (11) and the second unique identifier (12).

2. System according to claim 1, wherein the system (1) comprises a chip (5) which carries the first unique identifier (11) and is arranged on or in the wellness device (10).

3. System according to claim 1 or 2, wherein the first unique identifier (11) is located in a remote control (15).

4. System according to one of the preceding claims, wherein functions of the wellness device (10) are controlled in dependence on the at least one remote element (20, 30).

5. System according to one of the preceding claims, wherein the system (1) comprises a plurality of wellness devices (10a, 10b ... 10 n ) includes.

6. System according to one of the preceding claims, wherein the at least one sensor (20) and / or actuator (30) for several wellness devices (10a, 10b ... 10 n ) active are / is and sends / sends signals (S) to the actuator (30) according to processed information.

7. System according to one of the preceding claims, wherein the computer unit (50) and / or the control device (60) comprises a mobile device (70).

8. System according to one of the preceding claims, wherein the at least one actuator (30) is controlled such that further sensors (20) and / or actuators (30) are activated.

9. System according to one of the preceding claims, wherein the system (1) is coupled to a plurality of sensors (20) and / or a plurality of actuators (30).

10. System according to one of the preceding claims, wherein the processed information serves to generate a signal (SA) ZU which is sent to one or more actuators (30).

11. System according to one of the preceding claims, wherein the at least one actuator (30) influences one or more of the following parameters: temperature, light, pressure, speed, humidity, intensity, duration, volume.

12. System according to one of the preceding claims, wherein the computer unit (50) is communicatively connected to a server (80).

13. System according to claim 12, wherein the server (80) sends information to the one or more wellness devices (10a, 10b, 10 n ) which are suitable for switching on, switching off, standby activation / deactivation and / or function control.

14. System according to one of the preceding claims, wherein the system (1) comprises a camera and / or LiDAR system (90) that enables position detection of a user and evaluation is carried out by means of AI support.

15. System according to one of the preceding claims, wherein the sensor (20) and / or actuator (30) are / is designed to be movable.

16. System according to one of the preceding claims, further comprising LED lamps (30) which can be controlled intermittently by means of a control device (60).

17. System according to one of the preceding claims, wherein erythema-active and / or photobiologically active radiation is / is applied intermittently.

18. Procedure for data collection and control in the wellness area, which includes the following steps: - Assigning (S1) a first unique identifier (11) to a wellness device (10); - arranging (S2) at least one remote element (20, 30) with a second unique identifier (12) in the environment or on the wellness device (10), wherein the remote element (20, 30) is designed as a sensor (20) and / or actuator (30); - linking (S3) the first unique identifier (11) and the second unique identifier (12); - coupling (S4) of a connection module (40) to a computer unit (50), wherein the computer unit (50) assigns the first unique identifier (12) to the wellness device (10) and the second unique identifier (12) to the at least one remote element (20, 30), and receives (S5) and processes information from the at least one sensor (20); and - Connecting (S6) a control device (60) to the computer unit (60) and sending (S7) processed information based on the first unique identifier (11) and the second unique identifier (12) to the actuator (30).

19. The method of claim 18, further comprising: Exposure to intermittent erythema-effective and / or photobiologically effective radiation.

20. The method according to claim 18, wherein LED lamps (30) are controlled intermittently for >1 second and / or minute by means of a control device (60).

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