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

The Internet of Things refers to the networking of physical devices, objects, and machines via the internet or other communication networks. These networked devices are capable of collecting and exchanging data and being operated by remote control, often without direct human interaction. The primary objective of the Internet of Things is to make objects and devices more intelligent by enabling them to communicate with one another and with centralized systems. In conjunction with the Internet of Things, devices may make use of a variety of sensors, actuators, and communication technologies to collect and exchange information. This information can be used to automate processes, increase efficiency, and provide realtime data for better decision-making. Tanning beds and massage chairs are only two examples of how our lives may be made simpler and more pleasant while at the same time possibly using the IoT. One option for integrating the IoT into tanning beds, devices with light applications, and massage chairs is to enable user-defined settings. These devices can recognize the individual characteristics and preferences of users and automatically select the best settings for optimal tanning or massage. In tanning beds, these sensors can measure, for example, the color of the skin, the erythemal sensitivity of the skin, and the current UV index. Based on this information, tanning beds can automatically select the optimal duration and intensity of exposure to ensure safe, effective tanning. This individual adjustment may contribute to avoiding excessive UV exposure and skin damage. In addition, the IoT allows for notifications and reminders. The devices can remind users of important tasks, such as replacing UV lamps in tanning beds or cleaning massage chairs. These reminders are automatically sent to the user. One example is the maintenance of tanning beds. IoT-capable tanning beds can monitor the service life of the UV lamps and automatically send notifications to the user when the lamps need to be replaced. These reminders are very useful to ensure that the tanning beds always operate with optimal UV radiation, which in turn improves the quality of the tanning results and minimizes the risk of insufficient UV exposure. Present-day light and sun applications, also referred to as "light spas," are also suited in particular for household use, since they represent a "wellness oasis" in one's own home and can enhance personal well-being. Each light spectrum has a different effect on the human organism. Light spas make use of the biopositive effects of properly dosed sunlight and nurturing red light. Red light is effective against wrinkles, invigorates tired skin, and treats pigment spots. Red light acts as a "beauty booster" for flawless skin having natural radiance. Light spas operate with red light and are essentially free of UV radiation. A system for optimizing the treatment experience for patients by using non-drug alternative therapies is known from US 2019189259 A1. US 2021386964 A1 relates to the management of remote devices for stress reduction and sleep promotion. WO 2019 / 222202 A1 describes several systems for environmental monitoring and control. The first system focuses on indoor air quality, including the measurement of luminosity, temperature, and air quality. A system for monitoring well-being is known from US 20210151164 A1, which enables monitoring of a person's well-being over an extended time period in various environments. US 20170139386 A1 describes a system and a method for enhancing the environmental characteristics in various settings, including restaurants, workplaces, and residences. In general, the cited documents focus on monitoring and control of the environment, using various sensors. However, applying the concepts presented in the cited documents to the wellness sector is a challenging task. This is because there are specific challenges and concerns in the wellness sector that differ from other fields of application. Integration of complex technologies, sensors, and data-based analyses into wellness applications requires careful consideration, since wellness devices are often based on relaxation and natural experiences, in which technology is not always the primary focus. In addition, the selected sensors and technologies must be precisely coordinated with the requirements of wellness applications, as environmental conditions such as high temperatures and humidity may influence the performance of the sensors. Also for the reasons mentioned above, the wellness field is a largely uncharted territory in which there is room for improvement. Description of the Invention One object of the invention is to provide a system of the type stated at the outset which achieves advantages in this area, and in particular allows improved networking and use. A system according to the invention is intended to make better use of the advantages of interactions between one or more wellness devices, sensors, and actuators. In particular, the intent is to make better use of information and data and to enhance user-friendliness. A system according to the invention is intended to operate reliably and to be easily and cost-effectively maintained. The necessary accessories for the system are intended to be as compact and long-lasting as possible. These and other objects are achieved by a system according to the invention according to the independent claim. Further advantageous embodiments are set forth in the dependent claims. The achievement of the object may be further improved by various embodiments that are each advantageous on their own and, unless stated otherwise, combinable with one another. These embodiments and their associated advantages are discussed in greater detail below. A first aspect of the invention relates to a system for data capture and control in the wellness field. The system includes a wellness device having a first unique identifier; at least one remote element that is designed as a sensor and / or actuator and has a second unique identifier, and that is situated in the surroundings or at the wellness device and linkable to the first unique identifier; a connecting module for coupling to a computer unit, wherein the computer unit assigns the first unique identifier to the wellness device and assigns 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 unit that is connected to the computer unit and sends processed information based on the first unique identifier and the second unique identifier to the actuator. Various advantages may be achieved using such a system according to the invention, ranging from use of information via interactions and synergies to energy optimization. The remote element ("element" or "component" for short) is designed as a sensor and / or actuator and can perform various functions, for example measurement or determination of environmental data and / or activation or control. When each device and each sensor and actuator has a unique identifier, it is possible to make a comparison to other devices and / or systems. Wellness devices and longevity are closely related, since wellness devices are intended to promote well-being, prevent or treat health problems, and lastly, improve quality of life — all of which are factors that may contribute to a longer life span. The system according to the invention contributes to the promotion of longevity, and enables users to proactively manage their health and make conscious decisions for a healthier lifestyle via a combination of monitoring, prevention, physical activity, stress management, and pain relief. This provides assistance not only for everyday well-being, but also for an extended healthy life. The system may include a chip that carries the first unique identifier and is situated at or in the wellness device. A wellness device may be unambiguously identified in this way. A wellness device or older devices may be retrofitted or upgraded without much complexity. In addition, this chip may be read out to obtain information about the wellness device, and may also actively send information, for example to communicate the status or availability of the device. A sensor and / or actuator likewise advantageously have / has a chip that carries the second unique identifier or another unique identifier. Each sensor and / or actuator may thus be unambiguously identified and correspondingly assigned. The actuators may be precisely activated in this way. This means that each interaction or control action may be directed to the specific sensor or actuator in a targeted manner, which significantly increases the effectiveness and precision of the control in the wellness area. The control may be directed to a user's well-being in a targeted manner, with the state of the user and / or wellness device being included. In one embodiment, the first unique identifier may be situated in a remote control unit. The unique identifier may thus be assigned to a user or to a device via which the remote control unit is operable or with which it interacts. The remote control unit may also be used to activate actuators. The remote control unit also provides an alternative to the smart phone or voice control. The remote control unit may have a favorable design, and for example may be carried along by a user, for example for further functions such as a door opener. The user information may also be stored in the remote control unit. Wherever the user uses the remote control unit, he / she obtains the same or better wellness experience. This is particularly meaningful when multiple wellness devices or studios are used which are present at different locations or in different geographical regions, for example. It is advantageous when functions of the wellness device may be controlled based on the at least one sensor and / or actuator. For example, a sensor can detect the temperature in the room or the user's temperature, so that the device may be prepared or appropriately controlled during operation. By use of the sensor it can be determined whether a user is approaching the device or is present in the room. Accordingly, the device can start functions that use the corresponding applications or intensify the wellness effect. Another possible example scenario for the advantages of this system is an IoT-capable massage chair. When the user takes a seat on the massage chair, the sensors could immediately recognize which areas of the body are tense and sense the heart rhythm. Based on this information, the massage chair could automatically adjust the massage type and techniques in order to provide a customized massage that addresses the individual needs of the user. Furthermore, the sensor could also recognize when the user is relaxed and his / her heart rate drops. In this case, the massage chair could automatically switch to a gentler, more soothing mode in order to place the user in a deeper state of relaxation. In addition to the direct detection by sensors in the wellness devices, these health data, for example heart rate, heart rate variability, blood pressure, and other user devices integrated into the system, such as smart watches, fitness armbands, EKG chest straps, or similar fitness devices may be provided and also used. When the system includes multiple wellness devices, for example a tanning bed, massage device, and / or light therapy device, use may advantageously be made of synergies and information. Optimal parameters for the user may be generated based on the use of different devices, and appropriately adjusted for further use of a device. This is particularly advantageous for users of multiple devices. Treatment by light, for example near-, mid-, and / or far-infrared (IR) light, massage, cold, heat, fragrance, acoustics, and / or moisture may be coordinated and combined with one another. In particular the combination of heat and cold promises good results. The system also allows for a combination of light with moisture or moisturizing the skin as a function of environmental parameters and / or skin characteristics, for example using room humidification. Fragrances may be used according to the user's mood. Application of heat is advantageous for muscular tension. When a user is feeling stressed or downcast or is suffering from jet lag, light in the IR range of 700-1050 nm or IR irradiation with near-infrared light is indicated for "energizing." Various applications may be combined with one another, which then result in contrast treatments, for example IR irradiation and a cryocabin with application of cold. Brief treatments may take place at alternating intervals. When the at least one sensor and / or actuator are / is active for multiple wellness devices and send(s) signals to the actuator according to processed information, multiple devices may be simultaneously controlled, but also individually activated. With a combination of multiple devices or wellness devices, effects may be achieved that positively influence the level of wellness. A wellness area having a sauna, whirlpool, and massage chair equipped with a plurality of sensors is mentioned as an example. A central sensor collects data concerning the room temperature, the presence of the user, and the preferred music. When multiple users enter the wellness oasis, the sensor can collect the preferences of all users and relay them for processing so that an optimized atmosphere may be created. The system may then be configured so that the sauna temperature is increased when the users prefer more intense heat, while at the same time the volume of music and the light in the whirlpool area are lowered to create a relaxing atmosphere. The massage chair could automatically select a type of massage that corresponds to the individual preferences of the user. Furthermore, synergy effects may be achieved by networking multiple devices or wellness devices. Thus, 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 may contribute to a significant enhancement of well-being and creation of a harmonious, holistic wellness experience. The system in the wellness area may be used for wellness devices that attend to longevity, for example for heat / cold therapies using a cryocabin or cryosauna. In the process, the entire body is exposed to low temperature for several minutes. This cold may be generated by nitrogen in a cryo chamber or using an electric air conditioner with blown-in cold air. In preferred embodiments the computer unit may include a mobile device. In that case, the mobile device takes over the computer unit and provides functions for data capture, processing, and optionally simulation via a wellness app, for example. Most people already possess a smart phone or tablet, and use of this available mobile device as a computer unit is cost-efficient. There is no need to purchase additional hardware or specialized control units, since the users already have the necessary technology. This approach allows users and / or operators to profit from the advantages of the system without having to make additional expenditures. By use of a mobile device as a processing unit, the system is also user-friendly, since most people are already familiar with operating smart phones and tablets, which makes control of the wellness devices simple and intuitive. This accessibility contributes to the users having full control over their wellness experience. In addition, users may use the app to personalize their wellness experience. For example, they can try out various types of massage, light scenarios, or music options and select those that best fit their mood. Lastly, the wellness app may also generate statistics and reports concerning their wellness activities. In further preferred embodiments the control unit may include a mobile device. In that case, the mobile device takes over the control unit and provides functions for controlling actuators via a wellness app, for example. This may advantageously take place based on captured, processed, and / or simulated data. One advantage of this feature is a remote control function. Using a mobile device as a computer unit and / or control unit enables users to remotely control their wellness devices. This allows them, for example, to preheat the sauna before they come home, or to activate the massage chair when they are on the way. In some embodiments, an actuator may be activated in such a way that further sensors and / or actuators are thereby activated. It is advantageous for the system to be coupled to multiple sensors. This allows more information to be fed into the system and evaluated. It is likewise advantageous for the system to be coupled to multiple actuators, thus allowing multiple actions to be carried out. For example, multiple wellness components may then be synchronized, or functions may be implemented simultaneously, practically simultaneously, or in a certain time sequence. The processed information may serve, or be used, to generate a signal that is sent to one or more actuators. The actuators are thus activated as a function of or based on the processed information. An actuator may influence the following values, for example: temperature, light, moisture, intensity, duration, sound volume. Multiple actuators may influence these values simultaneously or in a staggered manner, for example for various scenarios. For example, at the end of an application the light is made brighter or turned up, the temperature is reduced, and the intensity is lowered. An energy-saving effect may also be achieved in this way. The option of time-controlled activation of actuators opens up the possibility of creating automatic sequences. This means that the user can predefine wellness programs. For example, a morning recovery program could synchronize light, music, and massage to enable an invigorating start to the day. Fairly large data volumes or data inputs may be combined and evaluated when the computer unit is communicatively linked to a server. The user then profits from better and more comprehensive analyses, which in turn may be used for individualized results and profiles. The server can send information to the one or more wellness devices which is suitable for switching on, switching off, standby activation / deactivation, and carrying out function control. This allows centralized management of wellness devices which is able to take a variety of states and circumstances into account. In addition, the server may be used to send updates and maintenance instructions to the wellness devices. For example, if a massage chair requires an update to its massage programs or a sauna requires maintenance instructions for its heating elements, the server can transmit this information. The data collected by the wellness devices may also be used for monitoring the user's health and well-being. For example, the server may acquire health data such as heart rate and stress levels and evaluate them in real time. Wellness programs may thus be adapted to the current health parameters for stress reduction or for promoting relaxation. The system may include LED lamps that are intermittently activatable using a control unit, so that erythemally effective radiation and / or photobiologically active radiation in the UV, visible, and near-infrared range are / is intermittently applied. By use of the control unit, the LED lamps may be intermittently activated, for example for longer than 1 second and / or minute. Erythemally effective radiation, primarily in the UV-B range below 313 nm, refers to UV radiation that is capable of reddening the skin (erythema). The effectiveness of the UV radiation for erythema formation varies greatly with the wavelength, with UV-B rays being much more effective than UV-A rays. Instead of continuous irradiation or application, the erythemally effective radiation is applied intermittently or at intervals. This increases energy efficiency and may possibly reduce the total radiation dose. Protection of the skin by means of recovery phases between the irradiation intervals as well as more effective tanning or therapeutic action may also be achieved. Photobiologically active radiation in the UV, visible, and near-infrared ranges refers to electromagnetic radiation that triggers biological effects in organisms. In the near-infrared range at approximately 780-1400 nm, heating effects that play a role in therapeutic applications may be generated in tissues. Phototherapy utilizes UV radiation to treat various skin conditions. UV-B radiation is crucial for vitamin D production in the skin. The effectiveness of the radiation depends on the wavelength, intensity, and exposure time. LED lamps for various radiations are intermittently activatable using a control unit. The system may include a plurality of irradiation modules for irradiation with medical and cosmetic radiation, wherein at least one of the irradiation modules may be set up in the direction of a user, individually or together with other irradiation modules, for example inside a housing part. This has the advantage that the irradiation modules may be adapted to a body contour, thus allowing a positioned user to be irradiated in such a way that is beneficial for energy consumption, in particular it being possible to adapt to the body shape of the user. A further aspect of the invention relates to a method for data capture and control in the wellness field. 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 having a second unique identifier, in the surroundings or at the wellness device; linking the first unique identifier and the second unique identifier; coupling a connecting module to a computer unit, wherein the computer unit assigns the first unique identifier to the wellness device and assigns 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 unit to the computer unit and sending processed information based on the first unique identifier and the second unique identifier to the actuator. A key element of this method is the unambiguous identification of each wellness device, each sensor, and each actuator. This ensures that the various components can work together smoothly and can be precisely controlled. The users' individual preferences and settings may be taken into consideration, since the control is based on the unique identifiers. The connection to a computer unit allows the captured data to be processed in real time, and appropriate actions to be initiated. This results in an adaptive wellness experience in which the environment and the applications automatically adapt to the needs and preferences of the user. Furthermore, the coupling to a computer unit allows use of the data for comprehensive analyses. Based on these analyses, individual wellness profiles may be created and recommendations for optimal wellness programs may be provided. The users profit from personalized results and an overall enhanced wellness experience. Moreover, the method provides the option for remote control. The users may control their wellness devices and applications from any location, thus ensuring flexibility and convenience. Settings may be programmed in advance in order to design the wellness experience precisely according to individual wishes. In the context of the IoT, wellness devices such as light spa systems may be even further improved. Smart light controllers allow users to adjust the light intensity, color temperature, and lighting scenarios according to their personal preferences. This adjustability creates the perfect atmosphere for relaxation, meditation, or simply a sense of well-being. Description of the Drawings Exemplary embodiments of the invention are described with reference to the following figures: Figure 1 shows a schematic illustration of a system for data capture and control in the wellness field, including a wellness device, a sensor, and an actuator as well as other components, Figure 2   shows a further schematic illustration of a system for data  capture  and control in the wellness field, including a wellness device, two sensors, and an actuator, Figure 3   shows a further schematic illustration of a system for data  capture  and control in the wellness field in a wireless environment, Figure 4 shows a schematic illustration of a system that includes a wellness device, a remote control, a sensor, and an actuator, Figure 5 shows a schematic illustration of a system that includes a wellness device, a mobile device, and a server that are linked via a network, Figure 6 shows a schematic illustration of a system that includes multiple wellness devices, a mobile device, and a server that are linked via a network, Figure 7 shows a schematic illustration of a method for data capture and control in the wellness field, and Figure 8 shows a schematic illustration of a system for data capture and control in the wellness field, with position detection of a user via a camera system or lidar sensor system. Description of the Invention Figure 1 shows a schematic illustration of a system 1 for data capture and control in the wellness field. The system 1 includes a wellness device 10, a sensor 20, and an actuator 30 as well as a connecting module 40, a computer unit 50, and a control unit 60. Each sensor 20 and actuator 30 may also be referred to as an element, component, or remote element. The wellness device 10 represents any form of wellness device. The wellness device 10 may be provided for light and sun applications, massages, and other applications such as heat and / or cold therapy. The device 10 may be designed in the form of a bed, a chair, or also a cabin or sauna. The wellness device 10 has a first unique identifier 11 that is provided in the form of an ID in a first chip 5. The first chip 5 may be delivered with the wellness device 10 and positioned at a location that is not easily accessible. The first chip 5 may also be retrofitted at or in the wellness device 10. Thus, each wellness device 10 may be easily retrofitted and provided with a unique identifier which preferably may be called up from the outside. The first chip 5 with the first unique identifier 11 may also be mounted in the vicinity of the wellness device 10 or in the room. At least the location of the wellness device 10 may be specified in this way. The sensor 20 is provided with a second unique identifier 12 that is configured in the form of an ID in a second chip 5'. The sensor 20 with the second unique identifier 12 is situated in the surroundings or at the wellness device 10 and is linked to the first unique identifier 11. The sensor 20 is assigned to the wellness device 10 in this way. The sensor 20 is able to detect values concerning temperature, luminosity, moisture, intensity, or sound volume and transmit them to the connecting module 40 and the computer unit 50. In one preferred embodiment, the sensor 20 is able to recognize whether a person is in the room or in the vicinity of the sensor 20. In another embodiment, the sensor 20 is able to identify persons (also see Figure 8). For example, if a child or animal is present at the wellness device 10, for safety reasons it would not start or would even switch off. The actuator 30 is provided with a second unique identifier 12 that is configured in the form of an ID in a third chip 5''. The actuator 30 with the third unique identifier 12 is likewise situated in the surroundings or at the wellness device 10. Depending on the design of the actuator 30, it influences temperature, light, moisture, intensity, duration, sound volume, massage function, etc. The connecting module 40 is connected to the wellness device 10 and can receive values from the sensor 20. The connecting module 40 is coupled to the computer unit 50, wherein the computer unit 50 assigns the first unique identifier 11 to the wellness device 10 and assigns the second unique identifier 12 to the sensor 20 or to the actuator 30. A system unit may thus be formed which can capture data and bring about control in a targeted manner. In addition, the computer unit 50 receives and processes information and values from the sensor 20. The control unit 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 appropriately implements the control signal SA. The chips 5, 5', 5'', 5''' may be designed as wireless communication chips that contain identification information (ID). The identification information may be read by a radio frequency device (RF and / or RFID) or near-field communication (NFC) device. The identification information is received or read (out) by a connecting module 40. It is also possible to transfer the identification information to a network or to the internet. The chip 5 at or in the wellness device 10 may also be used for linkage to an NFT. The user may thus register the device and declare it as property. Transfer, sale, or licensing is then also possible in a virtual manner. In one preferred embodiment, the system 1 uses passive or low-energy protocols such as EnOcean, Zigbee, or Z-Wave, as explained in greater detail below. The sensor 20, the actuator 30, and the connecting module 40 are designed for low-energy protocols. Sensors 20 and actuators 30 or a plurality of same with respective IDs may be placed at a distance from a wellness device or wellness devices 10, i.e., somewhere in the surroundings, since power or cable connections are not necessary. The sensors 20 and actuators 30 are equipped with low-voltage batteries or use them, so that they may also be used in bathrooms or wet rooms or in the vicinity of water connections, etc. Because they are maintenance-free, such systems are well suited for use in homes. The EnOcean wireless standard is designed for wireless sensors and wireless sensor networks with particularly low energy consumption. Also included are sensor networks that recover energy from the surroundings using energy harvesting technology, for example based on movement, light, or temperature differences. This principle allows for 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, due to its range of up to 30 meters, is very well suited for use in buildings. Standardized sensor profiles ensure interoperability. The power consumption is very low. Driven by movement, light, or heat, the wireless sensors 20 and actuators 30 do not require cables or batteries for switching or capturing sensor information such as temperature detection, water detection, or presence detection. The data transfer takes place via license-free frequency bands with a 1% duty cycle and a reliable wireless range. The sensors 20 and actuators 30 can also communicate directly with one another and / or be controlled for applications via a room controller / gateway or connecting module 40 to the cloud. The sensors 20 and / or actuators 30 are designed as maintenance-free wireless sensors / actuators, and do not require replacement of batteries. The Zigbee technology is a mesh-based protocol with which a network can grow with the requirements, which allows connection and use of a plurality of sensors 20, actuators 30, and wellness devices 10a, 10b, .. .10n (also see Figure 6). Z-Wave is a wireless communication standard, with the wireless communication being optimized for low energy consumption and high communication security. Z-Wave uses two-way communication with reconfirmation. Z-Wave implements a radio network as a network topology in which each network-operated device can relay datagrams of other devices in its own network. The battery-operated sensors 20 and actuators 30 are usually inactive, and wake up periodically to receive and send commands. Figure 2 shows a further schematic illustration of a system 1 for data capture and control in the wellness field, with a wellness device 10, two sensors 20 (S1, S2), and an actuator 30. The system may include further wellness devices 10, sensors 20, and actuators 30. An assignment of 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, simultaneously or also individually, for multiple wellness devices 10. Assignment and activation take place by means of the computer unit 50. The wellness device 10 once again has a first unique identifier 11 that is provided in the form of an Id1 in a first chip 5'. A first sensor S1 is provided with a second unique identifier 12 that is configured in the form of an Id2 in a second chip 5''. The first sensor S1 with the second unique identifier 12 is situated in the surroundings or at the wellness device 10 and is linked to the first unique identifier 11. The first sensor S1 is assigned to the wellness device 10 in this way. A second sensor S2 is provided with a third unique identifier 12 that is configured in the form of an Id3 in a third chip 5'''. The second sensor S2 with the second unique identifier 12 is likewise situated in the surroundings or at the wellness device 10 and is linked to 5 the first unique identifier 11. The second sensor S2 is likewise assigned to the wellness device 10 in this way. The first and second sensors S1, S2 may capture different values and transmit them to the connecting module 40 and the computer unit 50. The actuator 30 is provided with a fourth unique identifier 12 that is configured in the 10 form of an Id4 in a fourth chip 5''''. The actuator 30 with the fourth unique identifier 12 is likewise situated in the surroundings or at the wellness device 10. Table 1 shows a tabular overview of the linkage as follows: Wellness device linkage Identifier ID 10 -->11 11 Id1 10 --> 20 12, S1 Id2 10 --> 20 12, S2 Id3 10 --> 30 12, A1 Id4 Table 1 The connecting module 40 is connected to the wellness device 10 and can receive 15   values from the sensors S1, S2. The connecting module 40 is coupled to the computer unit 50, wherein the computer unit 50 assigns IDs to the unique identifiers 11, 12. The system 1 may have a more complex design including a plurality of sensors 20 and actuators 30 in addition to wellness devices 10. The formation of logical units is advantageous where multiple or various devices as well as sensors 20 and actuators 30 are situated, for example in the hotel or wellness fields, the fitness sector, as well as for use in homes. In the illustrated exemplary embodiment, the connecting 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 provides preprocessed control signals to the control unit 60. Due to the linkage, the control unit 60 may then send a signal SA to the actuator 30, which appropriately implements the control signal SA. Figure 3 shows a further schematic illustration of a system 1 for data capture and control in the wellness field in a wireless environment. The system 1 includes a wellness device 10, a sensor 20, and an actuator 30 as well as a mobile device 70. The mobile device 70 includes a connecting module 40, a computer unit 50, and a control unit 60. The mobile device 70 may include a smart device that functions and is operated using applications (apps). The mobile device 70 may be designed as a smart watch or fitness tracker. Any so-called wearables, i.e., smart phones, mobile phones, tablets, laptops, notebooks, etc., may be used. The wellness device 10 has a first unique identifier 11 that is provided in the form of an ID in a first chip 5. The sensor 20 is provided with a second unique identifier 12 that is configured in the form of an ID in a second chip 5'. The sensor 20 with the second unique identifier 12 is situated in the surroundings or at the wellness device 10 and is linked to the first unique identifier 11. The actuator 30 is provided with a second unique identifier 12 that is configured in the form of an ID in a third chip 5''. The actuator 30 with the third unique identifier 12 is likewise situated in the surroundings or at the wellness device 10. The connecting module 40 in the mobile device 70 is connected to the wellness device 10, and can receive and appropriately assign values from the sensor 20. The connecting module 40 is coupled to the computer unit 50, wherein the computer unit 50 assigns the first unique identifier 11 to the wellness device 10 and assigns the second unique identifier 12 to the sensor 20 or to the actuator 30. A system unit may thus be formed by use of an app. The computer unit 50 receives and processes information and values from the sensor 20. The control unit 60 is connected to the computer unit 50, and sends a signal SA to be executed to the actuator 30. The actuator 30 appropriately implements the control signal SA. Figure 4 shows a schematic illustration of a system 1 with a wellness device 10, a remote control unit 15, a sensor 20, and an actuator 30. The first unique identifier 11, in the form of an Id1, is provided in a first chip 5 of the remote control unit 15. The remote control unit 15 is connectable to the wellness device 10 and also to the sensor 20 with the Id2 and to the actuator 30 with the Id3. This arrangement enables simple system formation, and allows easy and efficient control. In this embodiment, the first unique identifier Id1 is present in the remote control unit 15, which is assigned to the wellness device 10. The unique identifier is assigned to a user or to a device. The remote control unit 15 is used to activate the actuator 30. In addition, user-dependent presettings and / or adaptive settings may be stored in the remote control unit 15 or transmitted to it. For storage of the remote control unit 15, the wellness device 10 may have an insertion slot or a storage position. Figure 5 shows a schematic illustration of a system 1 with a wellness device 10, a mobile device 70, and a server 80 that are connected by a network 82. All components are communicatively linked by a network 82, wherein the network 82 may be a local network or the internet. The server 80, which may be cloud-based, enables the evaluation of sensor data of one or more sensors 20 for wellness data, and offers numerous advantages for the individual user as well as for use of the wellness device. Due to the centralized storage and processing of the data, personalized health strategies may be developed, long-term trends analyzed, and health risks detected at an early stage. In addition, the integration with health services enables improved care and optimized prevention. The server 80 also provides the necessary security, scalability, and power for efficiently managing and evaluating the continually increasing volume of data. The evaluation of wellness data on a server 80 refers to the processing and analysis of the data collected by wellness devices 10 and sensors 20 as well as user data via a centralized server infrastructure. The user data may originate from various devices such as fitness trackers, sleep trackers, smart watches, blood glucose meters, and other wearables. Use of a server 80 offers numerous advantages which are particularly useful for the user. All collected wellness data may be stored at a centralized location on the server 80. This allows users to access their data from various devices such as smart phones, tablets, or laptops, regardless of where they are located. Since all data are collected at one location, they may be uniformly and completely analyzed, which improves the quality and accuracy of the analyses. Wellness data that are collected over extended time periods and stored on the server 80 provide the option for identifying long-term health trends and patterns. These trends may provide useful information for improving health, for example concerning sleep quality, activity level, and stress factors. The server 80 detects patterns and anomalies in the wellness data via the use of AI and machine learning algorithms. Thus, for example, predictions may be made concerning future health risks, such as increased risk for cardiovascular diseases or diabetes. By analyzing large volumes of data, the server 80 can create personalized wellness and health recommendations based on individual trends and behavior patterns. The server 80 enables real-time evaluation of the wellness data, which is particularly important for immediately detecting critical health events such as abnormal heartbeat or significantly increased blood glucose levels. When such anomalies are detected, the server 80 can immediately send notifications to the user or medical personnel to enable timely intervention. Personalized reports for the user may be created which provide detailed information about the state of health and progress with regard to wellness strategies or fitness goals. The wellness data on the server 80 may be integrated into telemedicine platforms, so that physicians and health professionals have direct access to their patients' current data. This facilitates remote diagnosis and counseling. Wellness data that are stored on a server 80 may be integrated into electronic patient files to obtain a complete view of the patient's state of health. This helps physicians in making informed decisions. Storage on the server 80 enables use of strict security measures such as data encryption and access control to protect the data from unauthorized access. The server 80 may be configured in such a way that it meets 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 United States. This is particularly important, as wellness data often contain sensitive health information. Wellness data are collected in large volumes and require corresponding storage capacities. Cloud-based server approaches provide virtually unlimited storage and computing capacity for effectively processing and storing these data. Use of the centralized server 80 enables collection and integration of data from various locations and devices, so that data from different sources, such as fitness centers, hospitals, and wearables, may be jointly evaluated. Server-based systems allow storage of wellness data for years, which enables analysis of long-term health patterns. These historical data are particularly valuable for detecting changes in the state of health, which could indicate developing illness. Data that are collected for decades may assist persons in understanding the relationship between lifestyle habits (movement, nutrition, sleep, for example) and their long-term health, and taking steps for improving their longevity. By use of the selected data, the server 80 may determine personalized wellness applications and / or health goals for the user based on individual needs and potentials, for example weight loss, improvement of heart health, and better sleep habits. The wellness objectives may be dynamically modified based on progress and feedback from the user. Realistic and achievable goals are thus set which may be continuously reviewed and optimized. Server-based wellness data may be anonymized and shared with medical or scientific research centers to obtain new insights into health trends and prevention strategies. The server 80 may integrate data from various sources and providers, which allows combination of various wellness devices 10 and health applications and evaluation in a centralized dashboard, for example. Figure 6 shows a schematic illustration of a system 1 with multiple wellness devices 10a, 10b, ^10n, a mobile device 70, and a server 80 that are connected by a network 82. All components are once again communicatively linked by a network 82, wherein the network 82 may be a local network (LAN) or the internet. The server 80 receives data from various wellness devices 10a, 10b, ^10n, which may also be situated at different locations, and processes and analyzes the data. The processing may take place using artificial intelligence (AI), in particular a selflearning system (machine learning system). The integration of AI allows the system to better understand and adapt to the usage information and habits of the users. This means that the system 1 over time learns the users' preferences regarding their wellness devices and applications. The system can detect patterns in the data, and based on these patterns, propose and implement recommendations and modifications for an optimal wellness experience. Various parameters are important for longevity. For example, skin cells are evaluated and monitored, and food intake and many other parameters are determined. The information items are linked, resulting in a complex overview which, using AI, results in determination of applications, duration, or contrast treatments and is appropriately implemented for the user. In addition, AI can evaluate user behavior, individually or for groups (so-called clusters), and provide recommendations for one or more device modifications and notifications. These may also be directly implemented. For example, the system 1 may recognize that on stressful workdays a user prefers a calming light and music environment in his / her sauna. On such days, the system could automatically adjust the light and music options to promote relaxation. On days when the user would like to be more active, the settings could be correspondingly modified. AI may also be used to remind users or operators of maintenance requirements, for example replacing UV lamps in tanning beds or cleaning massage chairs. These reminders are not only coordinated with respect to time, but also tailored to individual needs and the state of the devices. Figure 7 shows a schematic illustration of a method for data capture and control in the wellness field. A first unique identifier 11 is assigned to a wellness device 10 in a first step S1. In a second step S2, at least one sensor 20 and / or actuator 30 having a second unique identifier 12 is placed in the surroundings or at the wellness device 10. The first unique identifier 11 and the second unique identifier 12 are subsequently linked in a third step S3. A connecting module 40 is coupled to a computer unit 50 in a fourth step S4, wherein the computer unit 50 assigns the first unique identifier 12 to the wellness device 10 and assigns the second unique identifier 12 to the at least one sensor 20 and / or actuator 30. Information from the at least one sensor 20 is received and processed in a fifth step S5. A control unit 60 is connected to the computer unit 60 in a sixth step S6. Lastly, in a seventh step [S7], processed information based on the first unique identifier 11 and the second unique identifier 12 is sent to the actuator 30. Figure 8 shows a system 1 for data capture and control in the wellness field, with position detection of a user via a system 90 that includes a camera and / or lidar system. The system 90 may include a sensor camera SK1 as well as further sensor cameras SK2and / or lidar systems. "Lidar" stands for "light detection and ranging," and enables accurate detection of the surroundings. In the process, light in the form of a pulsed laser is used to detect and categorize objects or persons. Lidar sensors generate precise threedimensional information concerning the shape and surface characteristics of surrounding objects or persons. Lidar uses laser beams in the eye-safe range to create a 3D representation of the detected surroundings or person. The evaluation for the wellness device 10, for example a dry massage device, a light / moisture application device, a cryocabin, or the like takes place with use of or assistance by AI. This involves not only the detection of a user, but also the user's well-being. By use of a sensor 20 with a chip 5', the moisture of the skin may be determined, but light, heat, and acoustics may also be included with the sensor information. A biomarker, for example, collects information during the day by means of a tag, and in the evening the information is evaluated by the server 80 and appropriately implemented for the user on the device 10. The wellness device 10 is coupled via a connecting module 40 to the computer unit 50, to which the server 80 is also connected. Alternatively, the server 80 may be directly connected to the connecting module 40 (dashed line). Time control may be carried out during a treatment, since various parameters are dependent on time. Well-being may be determined via the pulse, blood pressure, eye movements, heart rate, and motions such as fidgeting or movement intensity. The room temperature and / or body temperature, respiration rate, and other parameters may be determined as input parameters during a wellness application, so that the intensity of the application is appropriately adapted. The well-being of the user is thus provided at any time as a control variable. During an application, the user's state is continually monitored, and the well-being parameters may be adapted. In short, the user's well-being may be achieved by controlling the wellness device 10. Optimizing the respiration rate is used to assist with meditation. The wellness treatments and / or wellness data may be linked to a nutrition system. Fasting phases may be concluded with wellness treatments or combined with same. Detection of diseases such as diabetes is possible by use of noninvasive sensors. Treatments are adapted thereto, or are carried out in modified form or not at all. The sensors are attached to the user at a location where they achieve special benefits, for example on the upper arm. Active sensors 20 are physically arranged, for example, where the shoulder blades and calves come to rest with regard to a pressure load or an ergonomic lying or contact area. Movable sensors, i.e., sensors that move during treatment, are also possible. In that case a sensor is not always at the same location, for example so as not to interfere with an application. The system then has at least one movable sensor 20. The actuators 30 may also have a movable design. Wellness devices 10 as well as sensors 20 and / or actuators 30 may also be retrofitted, for example for older devices, with a chip 5 or tag and coupled to a controller. This also enables simple device-to-device coupling without cables. The components are able to better cooperate with one another due to the networking and the linkages. For example, as soon as the user is in the vicinity of the wellness device 10, the system 1 can determine that the user is preparing for an application and may accordingly heat up the wellness device 10 or the surroundings. A sensor 20 for activating the device 10 may, for example, already be placed in the room entrance. Likewise, the device 10 may be switched off with a time delay, for example when the user leaves the room Such wellness scenarios may be set or preset. For example, if the user rests his / her head at a certain location, a lamp or a specialized light is switched on or activated, appropriate music is started, and the overall experience is enhanced. In the professional sector, the data may be specially processed and used for energysaving measures, for example. Networking of entire or multiple studio groups is also possible. The energy distribution may be better controlled when it is known which devices are in use and how they are utilized. The sensors 20 enable capture of various data, which are relayed for joint processing / analysis. Remote monitoring and / or remote management may be carried out by use of the system 1. Usage times for studios may be detected without cabling and supplied to a centralized evaluation. Error messages or warnings may be easily output in a user-friendly manner via a mobile application. This function allows the users and / or operators to receive immediate notifications of potential problems or necessary maintenance measures on a smart phone. For example, when a wellness device needs to be serviced, a malfunction occurs, or important information is present, the app may 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 may then take suitable measures to clarify the situation or contact service personnel to obtain assistance. The movements of a user in the surroundings, for example, may be tracked. For example, if a device is not (yet) ready for operation, the app provides a recommendation for a waiting period, refers the user to another device, or suggests an alternative activity. In heavily used wellness areas, the app could serve as a queue manager. The queue manager is able to inform the users how long they will have to wait to use a certain wellness device or an application, and recommend alternative activities to meaningfully spend the waiting time. Movement tracking may be used to create a wellness route planner that provides the user with personalized recommendations for the sequence of wellness activities. When users move from one area to another, the application may show them efficient paths to make optimal use of their time in the wellness area. Virtual guides are another option. When users go into a new area of the wellness oasis, the app may display information about the available wellness devices and applications and provide the users with virtual guides through the area. The proposed approach enables networked data capture and control in the wellness field. The sensors and actuators are in interaction, and may be used for energy efficiency measurement and energy conservation. The transfer of information via a network, using a network protocol, to a higher-order monitoring system or an evaluation or analysis system, for example, enables a flexible design of the system. A setting of the operating parameters of at least one of the wellness devices or multiple devices based on the sensor information may be transferred and scaled to further devices. Based on user feedback, successful applications may thus be easily transferred to other or additional users. An efficient evaluation via the cloud, with recommendations for future applications or sessions, can benefit all users. The user settings may be stored in the wireless sensors / actuators and retrieved when needed. A user may thus also be authenticated without having to possess any type of technical knowledge. A wireless sensor may be kept very small and carried by a user. Recognition and user authentication are thus possible upon entering a building or room, and the devices may already be placed in the suitable operating state. Conversely, the same applies for leaving after an application, so that the devices are appropriately shut down or placed in an energy-saving mode. If the sensors / actuators are small, the user may adhere or mount them in a handbag or a mobile phone case so that they are carried along. The sensors / actuators may be provided to the users as preprogrammed tags. Recognizing various users and retrieving corresponding profiles / settings allow efficient operation of the devices. This enables the devices to automatically adjust to the preferences of each user as soon as they are recognized. This ensures that resources such as energy and water are efficiently used, since the devices are then put in operation only when they are actually needed. In addition, recognition of users may be utilized to activate standby modes when no activity is detected, which additionally contributes to energy conservation. Without cabling, energy conservation is possible via mesh information; for example, when one device is running, another device may be blocked. By means of radio coupling, devices and modules may be merged and can function with one another, for example a wellness device functioning with other components. In addition, remote control with an option for embedding in a smart home is made possible. Various spaces may thus be coupled to one another. Coupling to smart watches is also possible. The sensors 20, as climate sensors or personal sensors, may be mounted at complicated locations on the device or in the surroundings. In addition, redundant sensors may be provided for safety, since they are beneficial. A sensor 20 may be mounted directly on a person, for example by adhering the sensor to skin. The sensor then cordlessly measures the light intensity, for example. The intensity may thus be held in a range that is optimal for the user without harming the user. It is also possible to limit the maximum usage period or to output an alarm. The sensors 20 and actuators 30 may be used for animation. For example, massage chairs may initiate movement animations due to movements by the user, while actuators 30 synchronize light effects and generate dynamic soundscapes. The result is a personalized, interactive wellness experience that stimulates the senses and enhances well-being. When a wellness device 10 has a malfunction or requires maintenance, information or service requests may be sent. Replacement parts may thus be ordered in advance and delivered in a timely manner. The system 1 may include a plurality of actuators 30, designed as irradiation modules 30, for irradiation with medical and cosmetic radiation. At least one of the irradiation modules 30, individually or together with other irradiation modules 30, may be set up in the direction of a user. The irradiation modules 30 may thus be adapted to a body contour, thereby allowing a positioned user to be irradiated in such a way that is beneficial for energy consumption, in particular it being possible to adapt to the body shape of the user. For large or hefty users, the irradiation module is advantageously pulled back to avoid burning of the skin or excessive exposure. For small or slender users, the irradiation module is pushed forward to achieve an optimal irradiation result. In addition to essentially axial adjustability in the direction of the user's body, it is also possible to swivelably arrange the irradiation module and thus move it back and forth, thereby allowing the irradiation result to be homogenized. At the same time, the irradiation modules are capable of irradiating and thus tanning hard-to-access zones such as shoulders or body cavities at various angles. The irradiation modules 30 are selectively pneumatically, hydraulically, or mechanically adjusted, with the drive advantageously being provided with an electric motor. The irradiation modules 30 are set up inside the housing part in the direction of the user's body so that, by optimizing the distance, an advantageous irradiation result is achieved with low energy consumption. To advantageously enable three-dimensional adjustment of the irradiation modules 30, it is practical to design the irradiation module 30 with a honeycomb-shaped carrier that forms a hexagonal surface, for example, with a neighboring honeycomb in each case adjoining at each edge. Alternatively, a carrier having a different shape may be provided with the hexagonal carriers to achieve a spherical curvature. The carriers together with LEDs may also be mounted on a three-dimensional surface, which allows flexible adaptation, wherein the surface as a whole, not the individual irradiation module, has a movable design. In one advantageous embodiment, it is provided that means or sensors 20 for measuring the distance between the user and the at least one irradiation module 30 are provided, and are advantageously situated in a housing part so that measuring the distance between the user and the housing part is possible at a characteristic point or at multiple points that result in a body contour. The means 20 for measuring the user's distance may be optical means, although it is also possible to provide a scale, for example a checkerboard pattern, on a housing part which enables measurement of the user's body and thus determination of the distance from the respective irradiation modules. The scale may also be determined by the measuring means in an image that is reflected by the housing part. The irradiation module 30 is then advantageously adjustable in the direction of the user so that instead, the irradiation module 30 maintains a preset, optimal distance from the user. This distance, which may also be predefined for safety reasons, allows for a particularly advantageous irradiation effect while at the same time complying with the irradiation limits and ensuring the lowest possible energy consumption. In this case the irradiation modules 30 are advantageously operated at a preset power, and the irradiation effect is optimized significantly by adaptation to the user's body. Furthermore, means 20 for identifying the user to be irradiated may be provided. The irradiation modules 30 or individual radiation sources of the irradiation modules may be activated as a function of the characteristics of the identified user. A system 1 is thus advantageously provided that characterizes the position and characteristics of the user's body and coordinates the radiation power of the irradiation modules 30 with the position and / characteristics of the body, in particular the dimensions. Potentially unneeded radiation sources may thus be advantageously operated with reduced power or no power, thereby reducing the energy consumption. In addition, the distance of the irradiation modules from the body may be optimally adjusted to be approximately 20 cm to 30 cm from the body surface. Depending on the user's body shape, for example heavy or slim, the irradiation modules 30 are operated with the required intensity and / or at the required distance of the irradiation modules from the body, so that an individually optimized irradiation is achieved for each user. One or more sensors 20 are advantageously provided which allow identification of the user to be irradiated. In one simple embodiment, this may be a camera 90 that compares an image of the device with and without the user, and on this basis determines which irradiation modules 30 or LEDs are not needed. The camera 90 may be designed as a CCD line scan camera. Alternatively, the camera 90 may be configured specifically for the radiation that is emitted by the irradiation modules 30, so that the lighting modules 30 or LEDs that are not shaded by the user's body are detected by the camera 90. To enable better identification of the individual modules 30 or LEDs, they may be activated at certain frequencies by means of the control unit 60. The irradiation module 30 or the LED may be unambiguously assigned to a certain location by evaluation using the computer unit 50 and / or server 80. The data capture and control may take place as described above, using energy-saving components. Energy efficiency is also achievable by positioning, taking into account special features such as the UV irradiation for tanning beds. Energy efficiency is achieved through targeted positioning and position detection, with sensors 20 determining where and how a person is lying, or how the user is behaving. Use of positioning technologies such as optical sensors, ultrasound, and lidar enables precise localization and targeted use of energy where it is needed. Persons or objects may be tracked and navigated. Advances such as machine vision and artificial intelligence are used to improve the accuracy and efficiency of such a system 90. This may also be utilized to determine the exact position of persons, for example for safety or comfort solutions. The control 60 in tanning beds with UV irradiation acts in such a way that certain areas are excluded, and certain body areas are irradiated partially or not at all, such as the palms, eyes, and soles of the feet. These areas are less pigmented and respond differently to UV radiation. The skin on the palms and the soles of the feet already has a natural protective layer due to hyperkeratosis, which reduces the UV permeability. Irradiation of these areas may therefore be dispensed with. The targeted application of UV radiation in tanning beds and for phototherapy requires precise control of the energy in order to achieve maximum effectiveness with minimum risk. Energy is intended to take effect only where it is needed. Therefore, there is more data for determination and control. Targeted irradiation with UV radiation, for example, takes place only where it is effective. This varies, depending on the skin region and the treatment objective. Different body regions require different irradiation intensities. For example, legs may be irradiated differently than more sensitive areas. An application that is tailored to the skin type is advantageous, with gentle but precisely dosable irradiation taking place that is coordinated with the individual skin type. This also results in therapeutic benefits, since for conditions such as psoriasis or neurodermatitis, controlled UV irradiation is applied and symptoms are alleviated. Caution must be exercised for specific application areas, for example for irradiation of sensitive areas such as the bikini zone. The intensity is appropriately modified here. For areas with little or no tanning which are covered by fabric, for example, it is also possible to perform targeted touch-up tanning to achieve a uniform tan. Reddening or erythema may be minimized by precise dosing and use of specific wavelengths, for example using narrowband therapy. In one preferred exemplary embodiment, the sensors 20 are designed for finer scanning. In this embodiment the system 1 enables more accurate detection of the skin structure and individual adjustment of the irradiation. Accordingly, differentiated irradiation may be carried out. Different body regions may be irradiated with different intensities and spectra, based on specific information that is recorded by the sensors 20 and processed by the computer unit 50, in order to then appropriately control or activate the actuators 30, for example LEDs, via the control unit 60. Precise control of the UV dosage is crucial for a safe and effective application. Particularly sensitive areas such as eyes, palms, and soles of the feet should be protected or excluded. This targeted application of UV radiation enables more efficient, safer use for tanning beds and for therapeutic and cosmetic applications, in that they use energy only where it is actually needed and effective. The energy efficiency may also be used for skin protection. In another approach for efficient use of energy in UV irradiation, in particular in tanning beds, intelligent energy distribution is used, for example via spatial and temporal optimization. An AI-assisted system 1 uses known data and real-time data to control the irradiation in a targeted manner. Studies have shown that intermittent irradiation may possibly be more effective than continuous irradiation. Series of measurements have surprisingly shown that skin surfaces do not absorb stimulation consistently in any given temporal density or over any given period of time. Against this background, it is not necessary to carry out irradiation in a sustained manner, in a sustained but indiscriminate manner, or continuously. Sequential irradiation for 2-3 seconds, for example, followed by a pause may in fact conserve energy while achieving the same effects. In addition, a differentiated application may take place by carrying out body zone-specific irradiation, with the AI system adapting the irradiation to various body regions such as the legs and upper body. Dynamic light patterns, for example with varying wavelengths, ensure an enhanced effect. Instead of continuous irradiation, irradiation at intervals, for example intervals of 3-5 s or cycles per minute or combinations thereof, is proposed. The control takes place in an energy-saving manner with skin protection, using erythemally effective and / or photobiologically active radiation, resulting in a targeted application at controlled intervals. In combination with LEDs or LED technology, precise control is thus enabled and any waste heat is reduced. During pauses in the irradiation, IR radiation can utilize thermal energy. The control may be configured so that voltage peaks are avoided. Recent studies and initial measurements surprisingly indicate that intermittent radiation or irradiation results in equivalent or better tanning effects than continuous irradiation. There are differences in the tanning effect of continuous versus intermittent UV irradiation. Intermittent irradiation results in more intense tanning than a longer, one-time exposure with the same overall dosage. With intermittent irradiation, the skin has time between the irradiation intervals to activate repair mechanisms and produce melanin. This has further effects on the skin. Intermittent irradiation may result in a thicker epidermis (light callosity), which provides an additional protective effect. Formation of the light callosity is triggered by both UV-A and UV-B radiation, with UV-B radiation showing a stronger effect. The skin's response to UV radiation is highly dependent on the individual skin type. Taking such effects into account, the intent of the present disclosure is to conserve energy by applying intermittent UV irradiation or tanning irradiation and / or photobiologically active radiation by use of LEDs. This applies to UV-A radiation as well as UV-B radiation, i.e., to only one or to both types of radiation. "Intermittent" is understood to mean operations or states that occur or run with interruptions, i.e., "temporarily suspended," "with interruptions." or "at intervals." From the temporal aspect, irregular or fairly long intervals may occur between activity phases, for example > 1 s or a couple of seconds or minutes. Intermittent operations or processes are in contrast to continuous, ongoing, or uninterrupted sequences. On the other hand, pulsing operations refer to regular, rhythmical fluctuations or pulses which typically have shorter, more regular intervals than for intermittent operations, for example several times per second and / or above 60 Hz, or with visible light. The person skilled in the art is capable of configuring the control so that LEDs, or LEDs that avoid voltage peaks, are used. In addition, regulatory provisions concerning limits, so-called peaks, overall dosage, or total quantity may be taken into account with the proposed intermittent irradiation, in particular in order to compensate for differences between the United States and Europe, for example. The objective of the described approaches is to increase energy efficiency and at the same time improve skin tolerability. 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 light and near-infrared light which are more resource-conserving with more effective action. This also applies to massage, for example, and analogously to other types of application. The present disclosure provides a system and a method for data capture and control in the wellness field. It is self-evident that for a person skilled in the art, many further options based on the exemplary embodiments described by way of example are conceivable. Reference list 1 system 5 chip, 5', 5'', 5''', 5'''' further chips 10 wellness device 10a, 10b .. 10n wellness devices 11 first unique identifier; Id1 12 second unique identifier; Id2, Id3,Id4 15 remote control unit 20 sensor or sensor element 30 actuator or actuator element, irradiation module(s), LEDs 40 connecting module 50 computer unit 60 control unit 70 mobile device 80 server 82 network 90 camera system and / or lidar system SA control signal S1 through S7 steps

Claims

1. A system (1) for data capture and control in the wellness field, including:- a wellness device (10) having a first unique identifier (11);- at least one remote element (20, 30) having a second unique identifier (12) and that is situated in the surroundings or at the wellness device (10) and linkable to the first unique identifier (11), wherein the remote element (20, 30) is designed as a sensor (20) and / or actuator (30);- a connecting 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 assigns 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 unit (60) that is connected to the computer unit (50) and sends processed information based on the first unique identifier (11) and the second unique identifier (12) to the actuator (30).

2. The system according to claim 1, wherein the system (1) includes a chip (5) that carries the first unique identifier (11) and is situated at or in the wellness device (10).

3. The system according to claim 1 or 2, wherein the first unique identifier (11) is situated in a remote control unit (15).

4. The system according to one of the preceding claims, wherein functions of the wellness device (10) are controlled as a function of the least one remote element (20, 30).

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

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

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

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

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

10. The system according to one of the preceding claims, wherein the processed information is used to generate a signal (SA) that is sent to one or more actuators (30).

11. The 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, moisture, intensity, duration, sound volume.

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

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

14. The system according to one of the preceding claims, wherein the system (1) includes a camera and / or lidar system (90) that enables position detection of a user and carries out evaluation with AI assistance.

15. The system according to one of the preceding claims, wherein the sensor (20) and / or actuator (30) have / has a movable design.

16. The system according to one of the preceding claims, additionally including LED lamps (30) that are intermittently activatable by means of the control unit (60).

17. The system according to one of the preceding claims, wherein erythemally effective and / or photobiologically active radiation are / is intermittently applied.

18. A method for data capture and control in the wellness field, comprising the following steps:- assigning (S1) a first unique identifier (11) to a wellness device (10);- arranging (S2) at least one remote element (20, 30), having a second unique identifier (12), in the surroundings or at 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) a connecting module (40) to a computer unit (50), wherein the computer unit (50) assigns the first unique identifier (12) to the wellness device (10) and assigns 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 unit (60) to the computer unit (50) 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 according to claim 18, further comprising:applying intermittent erythemally effective and / or photobiologically active radiation.

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

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