Analysis setup and analysis procedure for a beverage container recording

Abstract

Analysis system comprising at least one beverage container receptacle (2) formed by a beverage bottle crate and an external data processing unit (DV, DVI, DVN), wherein the beverage container receptacle (2) has a permanently integrated analysis arrangement and forms at least two receiving areas (4) for receiving each of a beverage container (6), wherein a level detector (10) of the analysis arrangement (8) is provided at each of the receiving areas (4), by means of which at least two different fill levels (F, Fv, Fl) of a beverage container (6) can be detected, wherein the fill level detector (10) is connected to a standard digital interface (14) for the external transmission of information signals (I) which can be generated depending on the currently detected fill levels (F, Fv, Fl), and the analysis arrangement (8) includes additional sensors (34) for recording environmental and / or beverage-related data, wherein the additional sensors (34) serve to record information about the type of beverage and several level detectors (10) are provided for each beverage container (6), each of which is connected to the standard digital interface (14), characterized in that the digital standard interface (14) is connected to a local control unit (16) by means of which the digital information signals (I) can be generated from the detected fill levels (F) and the recorded information about the type of beverage, where the information signals (I) can be directly transferred to the external data processing unit (DV, DVI, DVN), by means of which consumer data (M) for a market analysis are created depending on the transferred information signals (I).

Description

[0001] The invention relates to an analysis system comprising at least one beverage container receptacle formed by a beverage bottle crate and an external data processing unit, according to the preamble of claim 1, and to an analysis method using the analysis system. The beverage container receptacle has a permanently integrated analysis arrangement and forms at least two receiving areas for each beverage container, with a level detector of the analysis arrangement being provided at each receiving area. The level of a beverage container held in the beverage container receptacle can be determined by means of the level detectors. The determination of the level can be based, for example, on the measurement of the weight and / or the determination of the volume contained in the beverage container, such as by determining the level.In any case, the level detectors can determine at least two different fill levels, such as an "empty" and a "full" level for a picked-up beverage container. A fill level analysis of at least two picked-up beverage containers can thus be performed at the beverage container pickup point, and the results can be transmitted. The level detectors are connected to a standard digital interface for the external transmission of information signals, such as a WLAN, LAN, GSM, Bluetooth (BLE), USB, or radio interface. Additional sensors are provided for acquiring environmental and / or beverage-related data. These additional sensors are designed to capture information about the type of beverage.In addition, several fill level detectors are provided, each of which is assigned to a receiving area or the beverage container held therein and which is each connected to the standard digital interface.

[0002] DE 10 2008 020 897 A1 describes a device for attachment to a beverage crate that provides information about the fill level of the beverage bottles contained therein. When a person approaches, sensors detect whether the individual beverage bottles are empty or full using optical, tactile, capacitive, inductive, electrical, or electronic sensors. The person is then provided with appropriate feedback via a mechanical or optical display or by displaying the current status on the screen of an electronic device, such as a mobile phone. Furthermore, status detection and status signaling regarding the type of content medium are provided.

[0003] The known analysis device for a beverage container holder thus allows the user to more easily determine which bottles in a beverage crate are empty or full. Use of the known analysis device requires the user to have visual contact with the container.

[0004] DE 10 2012 010 327 B3 discloses an interactive device for a beverage crate, which serves for entertaining interaction or information depending on the fill level of the bottles contained in the beverage crate. The device comprises a sensor plate with several light-sensitive sensors, which can be used to determine which of the crate's receiving slots a bottle is stored in and what its respective fill level is. The information about the determined fill levels is then further processed by an electronic unit, and depending on this, an acoustic signal is generated, such as in the form of tones, voices, or noises.

[0005] US 2018 / 0 060 805 A1 and US 2019 / 0 104 864 A1 describe a stationary recording and measuring device for spirit bottles in a bar, by means of which the fill levels or dispensing of individual spirits can be monitored online and transferred to a data processing system.

[0006] US 2019 / 0 025 108 A1 describes a management system for beer barrels, which in particular allows information about the fill levels and the current position of the monitored barrels to be retrieved and managed.

[0007] DE 203 12 715 U1 discloses a bottled beverage crate that allows for visual inspection of which of the bottles it contains are full or empty. For this purpose, one described embodiment provides for determining the bottle weight using a pressure sensor. Furthermore, the sensor system transmits a signal to a display element located on the upper side of the respective bottle holder.

[0008] DE 10 2005 023 300 A1 describes a tracking component for a beverage transport device, such as a beverage keg, a beverage crate, or a beverage crate. The tracking component primarily serves to transmit geographical information for location determination. Additionally, the tracking component can include at least one additional sensor, such as a fill level sensor, a temperature sensor, or a vibration sensor.

[0009] The object of the invention is to avoid the aforementioned disadvantages in a generic analysis arrangement and to open up further application possibilities.

[0010] This object is achieved by an analysis arrangement having the features of claim 1. The digital standard interface is connected to a local control unit, by means of which the digital information signals can be generated from the detected fill levels and the recorded information on the type of beverage. The information signals can be transmitted to the external data processing unit, by means of which consumer data for a market analysis can be generated depending on the transmitted information signals. The additional information obtained in this way can be transmitted together with the information data on the fill level via the standard interface to the external data processing unit for the market analysis. The information signals are generated depending on a currently detected fill level and are available at the standard interface for external data transmission via wired or wireless transmission.By using the standard interface, it is possible to transmit the information signals to virtually any external data processing unit for market analysis, provided that the unit is equipped with a corresponding standard interface for receiving the transmitted information signals. This allows the fill level information contained in the transmitted information signals for the respective beverage container to be used and evaluated separately from the container itself. Several fill level detectors are provided, each dedicated to determining the fill level of its assigned beverage container. All fill level detectors are connected via the standard digital interface for external data transmission.For this purpose, the level detectors are connected to a shared local processing unit, which is located at the beverage container receptacle and is in turn connected to, or incorporates, the standard interface. In this way, the level information from multiple level detectors of a single beverage container receptacle can be transmitted to the external data processing unit via a common standard interface, thereby making further information available externally, such as information on the overall fill level of the beverage container receptacle.

[0011] The external data processing unit is connected to multiple analysis assemblies via a communications network. This allows analyses to be carried out on a large number of beverage container receptacles, such as a complete production batch of a beverage. In this way, the information obtained via the analysis assemblies can be used to provide the relevant providers with detailed and comprehensive data for improving sales and for market analyses or for evaluating consumer behavior. Consumer data for market analysis can be generated based on the information signals transmitted by multiple analysis assemblies. The consumer data can be used, for example, to analyze consumer behavior with regard to a specific product, such as when it is launched on the market.In this way, for example, a beverage manufacturer can obtain detailed information about the quantities consumed during specific periods and about daily consumption patterns, which can be used for targeted marketing. In particular, specific marketing campaigns, such as individual or general discount campaigns, can be initiated based on the information signals provided.

[0012] Furthermore, the information signals are formatted in such a way that they can be automatically transferred by the analysis system at predefined times. This allows the information signals to be automatically fed into and processed by external data processing systems.

[0013] The additional sensor technology can also include, for example, a temperature sensor for detecting ambient temperature or a GPS sensor for recording location or transport data. Alternatively or in addition to this, the additional information can also be transmitted independently of the fill level information or queried only as needed.

[0014] The additional sensors can, for example, include an RFID or barcode reader, which can read corresponding information carriers, particularly those attached to the labels of beverage containers. In this way, manufacturer-provided information about the product contained in the beverage container can also be read and processed by the analysis system.

[0015] It is advantageous if the standard interface is also integrated into the beverage container holder, so that the fill level information can be permanently available on the beverage bottle crate.

[0016] Advantageously, the local control unit is also integrated into the beverage container holder and connected to local storage, such as an SD or USB drive, or any other known and suitable storage medium, to allow a larger amount of information or program data to be stored directly at the beverage container holder. The control unit can, for example, be a microcontroller, particularly an RFID or NFC tag. This makes it possible for some data processing to take place at the beverage container holder itself before the information signals are transmitted, or for additional information to be made available or generated there.

[0017] In an advantageous embodiment, the local control unit is connected to a particularly open bidirectional interface, such as an API interface.

[0018] This allows users to provide their own application programs or data to the analysis setup, thereby greatly expanding and customizing its usability.

[0019] Furthermore, it is advantageous if the standard interface has a passive transponder, which allows the analysis setup to be provided in a particularly compact and cost-effective manner.

[0020] Alternatively or additionally, it is advantageous if the standard interface has an active transponder. This allows the analysis setup to automatically transmit signals according to predefined criteria.

[0021] Advantageously, the active transponder is connected to a local power source, such as a rechargeable battery and / or a capacitor, to ensure a sufficient supply of electrical energy over a relatively long lifespan. The rechargeable battery and capacitor can also be used to power the local control unit. Alternatively or additionally, any other known and suitable local or external power supply can be used, such as an uninterruptible power supply (UPS), a hydrogen fuel cell, induction, Power over Ethernet (PoE), or any other wired power supply.Furthermore, electrical contact and conductive means can be provided on the beverage container holder, via which the analysis arrangement or an energy storage device connected to it can be connected to the electrical contacts of an external power supply unit. This allows the beverage container holder to be placed, for example, on or against the external power supply unit to be supplied with an operating or charging current. Preferably, the electrical contact and conductive means extend from a bottom to a top of the beverage container holder in such a way that when two or more beverage container holders are stacked on top of each other, they make electrical contact with one another. By contacting one of these beverage container holders with an external power supply unit, all other beverage container holders can also be supplied with an operating or charging current.The contacting and conducting elements can be permanently integrated into the respective beverage container holder or used as needed.

[0022] Furthermore, it is advantageous if at least one level detector incorporates a pressure sensor, allowing the analysis setup to be manufactured with particularly simple means and thus relatively inexpensively. The pressure sensor can be configured to detect the fill levels of the associated beverage container as "empty" and "full" depending on its weight, and / or to detect intermediate or absolute fill levels.

[0023] Alternatively or additionally, at least one level detector uses an ultrasonic sensor to determine the level. This allows the fill level of the beverage container to be determined particularly accurately and without contact.

[0024] In a further alternative embodiment, the at least one level detector has a switch, in particular a microswitch, which can be activated when a threshold value is exceeded. By using such a microswitch, a predefined fill level of the beverage container in question can be detected and signaled particularly reliably, such as the state "full".

[0025] Advantageously, the local control unit can be connected or connectable to a local or external acoustic sensor, such as a microphone. In addition, the control unit has voice control software and / or can be connected to a device on which voice control software can be activated. This makes it possible to control the analysis arrangement via voice input, in particular for determining and outputting a fill level. The hardware required for this can be provided locally on the beverage container holder or on an external device that can be connected to the analysis arrangement via the standard interface. The external device can be either a commercially available and, for example, internet-enabled voice control device or a mobile computer, such as a smartphone, on which the voice control software can be activated as an app.Using such an app, the mobile computer can also be connected to the local control unit via the standard interface.

[0026] It is advantageous if the local control unit is also connected, or can be connected, to a local or external signal transmitter in order to display the result of a performed level analysis either locally or on an external device.

[0027] It is particularly advantageous if the local and / or external signaling device has a voice output, for example to enable visually impaired people to easily ascertain the fill level of a beverage container holder. In addition to information about the fill level itself, the user can also be informed in particular about the positions or holder areas in which the filled or empty beverage containers are located. In addition, all other stored or currently ascertainable environmental and / or beverage-related information can be output, such as in particular the contents of a beverage container. The voice output can be provided via a local loudspeaker or via the loudspeaker of an external device.Alternatively or in addition to speech output, any other known and suitable local or external acoustic or optical signaling device can be used to display information.

[0028] Advantageously, each fill level detector is assigned to one of the detection areas, and this assignment is part of the generated information signals. This allows the user to be informed not only about the current fill levels but also about the corresponding positions of the beverage containers, for example, via local or external voice output. In this way, access to full beverage containers can be made easier, especially for visually impaired users.

[0029] Furthermore, the aforementioned task is solved by an analytical method for operating or using the analytical system in one of the aforementioned embodiments. In a first step, the level detectors detect the current fill level at the at least one detection area. In a second step, digital fill level data is generated based on the detected fill levels. In a third step, the digital information signals containing the fill level data are transmitted to the external data processing unit via the standard digital interface. Thus, by determining the fill level and transmitting the derived information signals, the acquired information is available not only at the beverage container's receiving point and not only to the consumer of the beverage container.Furthermore, the information can be made available to all individuals or companies involved in production, distribution, consumption, and potential consumption analysis in a convenient and, if necessary, automated format. In addition to fill level data, the information signals transmitted in the third step also contain supplementary information about the type of beverage. This significantly expands the range of applications for utilizing fill level information. It is advantageous if this supplementary information is generated by additional sensors. In this way, in addition to the fill level of at least one beverage container, other current parameters can be recorded, such as those relevant to the type of beverage, its composition, or the quality of the consumed beverage.In the third step, the information signal is preferably transferred to an external data processing unit, allowing the information signals to be automatically fed into and processed by the external data processing unit. This external data processing unit can be a single computer, such as portable computers like smartphones, tablets, smartwatches, or similar devices, or it can be a public and / or private network, such as an intranet, a Virtual Private Network (VPN), the internet, or an associated cloud storage service, or a mobile network, such as one based on the GSM standard, or another wireless network, such as a Long Range Wide Area (LoRAWAN) network.Furthermore, the information signals can also be transmitted via a single computer acting as a gateway to a network where central data processing then takes place. The transmitted information signals can also be combined with or processed with additional information obtained from a single computer or network, such as through its own sensors, or stored on these devices. In this case, the data processing unit is connected to multiple analysis setups via the respective communication network or multiple communication networks. This allows for the analysis of a large number of beverage container images, such as an entire production batch of a beverage.In this way, the information obtained through the analysis setups can be used to provide the relevant suppliers with detailed and comprehensive data for improving sales, conducting market analyses, and evaluating consumer behavior. Depending on the information signals transmitted by multiple analysis setups, consumer data can be generated for market analysis. This consumer data can then be used, for example, to analyze consumer behavior regarding a specific product, such as during its market launch. For instance, a beverage manufacturer can obtain detailed information about consumption levels over specific periods and daily consumption patterns, which can then be used for targeted marketing.In particular, depending on the information signals transmitted, certain marketing actions can be initiated, such as individual or general discount campaigns.

[0030] Advantageously, in the first step, the current fill level is determined based on whether a threshold value is reached or not reached. For example, a minimum fill level can be predetermined. If reached or exceeded, the beverage container is defined as "full," and a corresponding signal is generated. This procedure enables a simple overview of the current supply of full bottles or of the bottle consumption over a consumption period, particularly in the case of a beverage container holder that accommodates multiple beverage containers, such as a beverage bottle crate or a wine box.

[0031] Alternatively or additionally, the fill level is determined as an absolute measured value in the first step, which also makes it possible to record the consumption trend for a single beverage container. Determining the absolute fill level is particularly interesting for beverage containers where relatively small consumption quantities are typical in relation to their capacity, such as spirits bottles and wine or beer kegs.

[0032] In any case, it is advantageous if the fill level determined in the first step is assigned to one of the recording areas and this assignment is transmitted in the third step as part of the digital information signal at the digital standard interface in order to be able to provide not only information about the type of beverage and the fill level itself, but also information about the position of the relevant beverage container within the beverage container recording area.

[0033] It is advantageous to store the fill level data and / or additional information data locally before the third step. This allows both the fill level data and the additional information about the beverage type to be made available for later querying or local processing at the relevant beverage container dispensing point itself.

[0034] Advantageously, in the third step, the information signal is automatically transmitted by the analysis setup at predetermined times. This allows for the automatic transmission of the generated information signals for certain applications, such as for cyclically repeated documentation purposes.

[0035] Alternatively or additionally, in the third step, the information signal is transmitted upon stimulation by an external communication device. In this way, the transmission of information signals only occurs when needed, thus minimizing the energy consumption of the analysis setup.

[0036] It is particularly advantageous if the external data processing unit can automatically generate a notification, such as a push notification, to a predefined person or group of people, or prepare it for immediate sending by the user, depending on the incoming information signal. The notification can either be sent fully automatically to the specified person or group, such as service providers, or prepared in such a way that the user is presented with the option to receive the notification. Only when the user then confirms the notification, for example via a confirmation button, is it sent semi-automatically. In this way, the analysis results and / or functions derived from the information signals can be communicated or disseminated very quickly.Furthermore, depending on the transmitted information signal, a fully or partially automated order for at least one beverage container can be generated and sent to a supplier. In this way, the information data obtained via the at least one analysis setup can be used, in particular, to place automated or partially automated reorders of beverage containers. These reorders can be generated, for example, as soon as an empty fill level is detected and signaled for a predetermined number of beverage containers or a predetermined number of beverage container receptacles. Additionally, an individual offer can be created for the respective consumers based on the transmitted information signals.In addition to such discount promotions, the information signals transmitted by the beverage container can also be used by the providers for fully or partially automated communication with the consumer in question, such as for generating a product-related game, such as a consumption-based prize draw.

[0037] Preferably, the data processing unit detects and signals the exceeding of an expiration date based on the transmitted information signal. In this way, the information data obtained via the at least one analysis arrangement can be used to automatically inform retailers and consumers about the expiration of a beverage contained in the beverage containers.

[0038] In a further advantageous embodiment, temperature profile data, such as for storage temperature documentation or cold chain control, can be generated via the data processing unit depending on the transmitted information signal. In this way, the information data obtained via the at least one analysis arrangement can be used to create automated and comprehensive documentation of the temperature profile of a beverage. This documentation can then be used to generate quality certificates or to carry out quality monitoring.

[0039] Furthermore, the data processing unit can preferably be used to perform time-dependent consumer monitoring based on the transmitted information signal. For example, the time of consumption or transport of the beverage containers can be monitored, displayed, and / or documented. In this way, the information data obtained via the at least one analysis arrangement can be used as a measure for child protection and / or theft prevention.

[0040] It is also advantageous if the data processing unit generates consumption data for consumption documentation based on the transmitted information signal. The information obtained via the at least one analysis device can be used to monitor the consumption of beverages during specified time intervals. This allows fluid intake by specific individuals, such as those in hospitals, nursing homes, or private households, to be monitored and documented. In the event of insufficient fluid intake, a signal can also be provided.

[0041] It is advantageous if production-relevant information is generated and sent to a production plant based on the information signals transmitted by several analysis systems. In this way, the information data obtained via the analysis systems can be used, for example, to adjust a beverage manufacturer's production rate relatively quickly to current consumption and the resulting expected reorders.

[0042] Advantageously, management data for a returnable container management system is also generated based on the information signals transmitted by multiple analysis setups. In this way, the information data obtained via the analysis setups can be used to selectively increase the collection of returnable containers as needed, for example, to ensure a sufficient supply of returnable containers during periods of increased production.

[0043] Preferably, navigation data for delivery planning is generated based on the information signals provided by several analysis setups. This enables program-based route planning, which can significantly reduce the overall travel distances of beverage transport vehicles.

[0044] In a further advantageous embodiment, communication data for social media applications is generated and publicly shared based on the information signals transmitted by a plurality of analysis arrangements. Within the social media applications, games or other social media events can be offered, particularly in the form of application programs (apps), which trigger communication about a product within a user group and thus ensure increased awareness or customer loyalty.

[0045] It is pointed out that all features of the subject matter according to the invention described above are interchangeable or combinable with one another, unless an exchange or combination thereof is excluded for technical reasons.

[0046] The figures illustrate an exemplary embodiment of the invention. They show: Fig. 1 a partially cropped view of a beverage container image with an analysis setup, Fig. 2 an exploded view of the beverage container mount after Fig. 1, Fig. 3 a partially cutaway view of two stacked beverage container mounts with contacting and conducting agents, Fig. 4. A flowchart of an analysis procedure using the analysis setup according to Fig. 1, Fig. 5 a schematic representation of information transfer to an individual data processing unit and Fig. 6. A schematic representation of information transfer using a data processing network.

[0047] Fig. Figure 1 shows a beverage container holder 2 in the form of a beverage bottle crate, which forms several receiving areas 4, each holding a beverage container 6 in the form of a beverage bottle. Furthermore, an analysis arrangement 8 is provided in the beverage container holder 2, which has several level detectors 10, each assigned to a receiving area 4 and the beverage container 6 held therein. The level detectors 10 serve to determine the current fill level F of the respective beverage container, detecting at least a full level Fv and an empty level Fl. Additionally or alternatively, the level detectors 10 can also be used to determine an absolute fill level value.

[0048] The analysis arrangement 8 can either be permanently integrated into the beverage container holder 2 or alternatively as an adapter 12 according to Fig. 2. This can be inserted into a suitably shaped beverage container holder 2 as needed or even subsequently. In both cases, the analysis arrangement 8 has at least one digital standard interface 14 for the external transmission of information signals I, which is connected to the fill level detectors 10. The digital standard interface 14 can, for example, be designed separately, as shown on the upper left edge of the adapter 12. Alternatively or additionally, the standard interface 14 can be integrated into at least one local control unit 16 of the fill level detectors 10, as shown on the bottom of the adapter 12. In addition, the control unit 16 can also be designed on the bottom together with the integrated fill level detectors 10 or separately from them.

[0049] Regardless of the embodiment, the local control unit 16 may include or be connected to a local memory 18. Furthermore, the local control unit 16 may include or be connected to a power source 20, which may be formed, for example, by a preferably rechargeable battery or a capacitor.

[0050] Furthermore, the control unit 16 can be connected to a bidirectional interface 22 to, for example, make individual programmatic adjustments to the analysis arrangement 8 or to upload specific application programs. The bidirectional interface 22 can be implemented separately or integrated into the digital interface 14 and, for example, include an API interface.

[0051] For the transmission or emission of the information signals I, the digital interface 14, regardless of their respective positioning, has, for example, a passive transponder 24 which can be activated by an externally applied electric field. Alternatively, the transponder 24 can also be an active transponder 24, which has its own power supply or is connected to the power source 20 of the at least one control unit 16.

[0052] To determine the fill level F, the level detectors 10 can use any known and suitable sensor technology. As shown in the individual illustrations of the level detectors 10 of Fig. 2, for example a pressure sensor 26, a switch 28 that can be actuated by the relevant beverage container 6 and / or an ultrasonic sensor 30 for determining a liquid level 32 can be used.

[0053] Furthermore, the analysis setup shows how Fig. As further shown in Figure 2, an additional sensor 34 is provided as an example, which can be used to record environmental data such as temperature, air pressure, or geographical information, in particular GPS data. Alternatively or additionally, the sensor 34 can also determine beverage-related data. For this purpose, the sensor can, for example, include an NFC or barcode reader that reads corresponding NFC tags 35 or barcodes affixed to the beverage containers 6, for example, in the form of stickers or imprints. The beverage-related data can include, for example, information about the type of beverage, the ingredients, production-related information, and / or the minimum shelf life.

[0054] Furthermore, means for voice control can be provided on the analysis arrangement 8. These comprise, for example, a local acoustic sensor system 36 in the form of a microphone and a local signal generator 38 in the form of a loudspeaker, both of which are connected to the at least one local control unit 16. Alternatively or additionally, the voice control can also have an external commercially available voice control device 40, which has its own external acoustic sensor system 42 and an external signal generator 44 and which communicates with the analysis arrangement 22, for example, via the bidirectional interface 22. In this way, it is possible, for example, for a visually impaired user to send a query to the analysis arrangement 8 via voice input, which then determines the fill levels F of a beverage container receptacle 2.Subsequently, the information on the fill levels, including the associated position of the relevant recording areas 4, can also be transmitted to the user via local or external voice output or alternatively by another acoustic or optical signaling device.

[0055] The power supply for the analysis arrangement 8 can be provided at the beverage container holder 2, as shown in the diagram. Fig. As can be seen in Figure 3, in addition to the analysis arrangement 8 and the power source 20 connected to it (which are not shown for clarity), contacting and conductive means 46 are also provided. The analysis arrangement 8 and the power source 20 can be supplied with an operating or charging current via these contacting and conductive means 46. For this purpose, the contacting and conductive means 46 have contacts 48 on their underside, which can be connected to electrical contacts 50 of an external power supply unit 52. The beverage container holder 2 can then be placed on the external power supply unit 52, which is located, for example, in a storage room or on the transport area of ​​a vehicle, to receive the operating or charging current from it.

[0056] The electrical contacting and conducting means 46 preferably extend from the bottom contacts 48 to the top contacts 54 of the beverage container receptacle 2. When a corresponding second beverage container receptacle 2' is stacked, its bottom contacts 46 in turn come into electrical contact with the top contacts 54 of the lower beverage container receptacle 2. As a result, the operating or charging current applied to it by the external power supply unit 52 can also be passed through to the upper beverage container receptacle 2' as well as to each further correspondingly stacked beverage container receptacle 2. The contacting and conducting means 46 can be permanently integrated into the beverage container receptacles 2, 2' or can be retrofitted.

[0057] The basic functionality of the analysis setup 8 is explained below using the flowchart according to Fig. 4 described.

[0058] At predetermined time intervals or after activation of the analysis arrangement 8, the respective current fill level F of the beverage containers 6 held at the beverage container holder 2 is determined in a first step S1 by the respective assigned fill level detectors 10 and signaled to the at least one local control unit 16. The fill level F can be signaled as full level Fv or empty level F1, depending on whether a threshold value has been reached or not, or as an absolute measured value.

[0059] At the same time, the beverage container 6 assigned to the determined fill level F, or the position of the relevant receiving area 4, is signaled. Furthermore, additional environmental and / or beverage-related information can be retrieved using the additional sensors 34 and transmitted to at least one control unit 16.

[0060] From this signaled information, corresponding digital fill level data, position data, and / or additional information data are then generated in a second step S2, from which the digital information signal I is created by the local control unit 16. The information signal I is formed in such a way that it can be transmitted or transferred either directly or after optional intermediate storage Z in the local memory 18 via the digital standard interface 14 in a third step S3. The data transfer can occur either automatically at predetermined times or upon initiation by an external communication device KE.

[0061] In both cases, the information signal I is transferred to an external data processing system (DPS), possibly subject to an additional positive review of stored consent and / or data protection agreements. This can, as described in Fig. 5, for example, by an individual data processing unit DVI, in the form of a PC, a tablet, a smartphone, or a smartwatch. Alternatively or additionally, the information signal I can also be transferred to a data processing unit in the form of a data processing network DVN, such as an intranet, a cloud, or a publicly accessible network, such as a telephone network, for example based on a GSM standard, or another wireless network such as LoRAWAN, or the Internet. In this way, the information signals I can be viewed and / or further processed by one or more users for different applications.

[0062] In one application example, a user's individual data processing unit (DVI) automatically generates an order instruction (B) based on the information signal (I) as soon as the beverage in the at least one relevant beverage container (2) falls below a predefined minimum quantity. The order instruction (B) is then sent directly or via the data processing network (DVN) to a provider (A), such as a manufacturer, distributor, or supplier. In this way, for example, a private individual or a kiosk, bar, or restaurant operator can use the analysis setup (8) to keep the relevant beverage permanently in stock. Furthermore, this application enables customized offers for individual customers, which can also be based on the respective information signals (I).

[0063] In another application example, a user's individual data processing unit (DVI) automatically monitors the expiration date of beverages stored at the beverage container holder (2) based on the information signal (I). At a predefined time before or when the expiration date of one of the stored beverage containers (6) is exceeded, a corresponding warning message (W) is sent directly to the user via the individual data processing unit (DVI) or via the data processing network (DVN). This serves, for example, to inform the user of the impending expiration date or to encourage consumption as soon as possible. In this way, spoilage of the beverage and food waste can be avoided.

[0064] Furthermore, in another application example, the individual data processing unit DVI automatically generates temperature profile data T based on the information signal I, particularly during the period from production, through storage and transport, until the purchase or consumption of the beverage in question. The temperature profile data T can be viewed and documented directly via the individual data processing unit DVI or via the data processing network DVN. Additionally or alternatively, the temperature profile data T can also be stored and retrieved on the local memory 18. In this way, the analysis setup 8 can be used to provide quality assurance regarding compliance with a cold chain or proper storage of a beverage, particularly for wines and other alcoholic beverages or for highly perishable beverages such as dairy products.

[0065] In another application example, a user's individual data processing unit DVI automatically monitors the consumption or removal of beverage containers 6 from the beverage container holder 2 in accordance with the information signal I. An access notification Z is sent to the user directly via the individual data processing unit DVI or via the data processing network DVN to alert them to possible theft or consumption by minors. In this way, effective theft and child protection for alcoholic beverages can be implemented.

[0066] Another application example involves the user's individual data processing unit (DVI) or data processing network (DVN) automatically generating consumption data (V) for consumption documentation based on the information signal (I). This allows the user to monitor and document their own fluid intake or the fluid intake of another person, such as a patient or a person in need of care, directly via the individual data processing unit (DVI) or the data processing network (DVN). The documented fluid intake can then be used for health-promoting measures or to demonstrate adequate fluid intake.

[0067] In addition, as in Fig.Figure 6 shows that a connection can be established via the data processing network DVN with several or a virtually unlimited number of analysis setups 8. This opens up a large number of further application possibilities, especially for beverage supplier A.

[0068] In one application example, production-relevant information P is generated based on the information signals I transmitted by a multitude of analysis setups. This information relates, for example, to a specific beverage or a product family from a particular beverage manufacturer. It may include consumption quantities, consumption periods, and / or the geographical distribution of consumption of at least one beverage in question. This information is then made available to a provider A, such as a manufacturer, distributor, or supplier, via the data processing network (DVN). In this way, production, storage, and / or transport capacities can be better aligned with actual product consumption, particularly to avoid production bottlenecks.

[0069] In another application example, administrative data L for an empties management system is generated based on the information signals I transmitted by a plurality of analysis arrangements 8. This data relates, for example, to the quantity, local distribution, and waiting time of the empties ready for collection from the relevant consumers. This information is made available to a provider A, such as a manufacturer, retailer, or supplier, via the data processing network DVN. In this way, the available empties capacities can be better utilized to save costs.

[0070] Furthermore, in a further application example, navigation data N for delivery planning is generated depending on the information signals I transmitted by a plurality of analysis arrangements 8. These data relate, for example, to the delivery dates derived from the consumption data, the local distribution of the recipients, and the idle time of empties, as well as to corresponding route planning. This navigation data N is made available to a provider A, such as a manufacturer, dealer, or supplier, via the data processing network DVN. In this way, delivery to the recipients can be optimized to achieve better customer satisfaction and customer loyalty and to save transport costs.

[0071] In another application example, consumer data M is generated for market analysis based on the information signals I transmitted by a multitude of analysis setups. This data relates, for example, to consumer behavior towards specific beverages or a product family from a particular beverage manufacturer. The consumer data M can, for instance, depict the consumption behavior of individual consumers with regard to consumption quantities, consumption periods, and / or locations during consumption, such as during the market launch of a new beverage. The consumer data M is then made available to a provider A, such as a manufacturer, distributor, or supplier, via the data processing network DVN.In this way, very detailed consumer analyses can be carried out, in order to implement targeted marketing measures, such as at specific sporting or cultural events.

[0072] Furthermore, in a further application example, communication data K for social media applications is generated depending on the information signals I transmitted by a plurality of analysis arrangements 8, which communication data K relates, for example, to the purchase or consumption of a specific beverage or multiple products from a specific manufacturer. In this way, information or communication content about the beverage or a consumer group can be made available in order to stimulate or expand communication about the product in question. For example, online games that include the consumption of the beverages can be operated based on the information signals I or the communication data K generated therefrom. The subject of the game can, for example, be the consumption behavior of two groups, or the approval of consumption can be used as a kind of prize for the winner.The data generated in this way is then made available via the data processing network (DVN) to both the consumers involved in the communication (KV) and at least one of the providers (A). This allows for a particularly high level of customer loyalty. Furthermore, it enables the acquisition of additional valuable consumer data, which can then be used as the basis for developing further marketing measures.

[0073] It should be noted that all the elements and features described above of the various embodiments of the object according to the invention are interchangeable or combinable with each other, provided that such an exchange or combination is not excluded for technical reasons.

Claims

[1] Analysis system with at least one beverage container holder (2), which is formed by a beverage bottle crate, and an external data processing unit (DV, DVI, DVN), wherein the beverage container holder (2) has a permanently integrated analysis arrangement and forms at least two receiving areas (4) for receiving a respective beverage container (6), wherein a fill level detector (10) of the analysis arrangement (8) is provided at each of the receiving areas (4), by means of which at least two different fill levels (F, Fv, Fl) of a beverage container (6) can be detected, wherein the fill level detector (10) is connected to a digital standard interface (14) for the external transmission of information signals (I) which can be generated depending on the currently detected fill levels (F, Fv, Fl), and the analysis arrangement (8) has an additional sensor system (34) for detecting environmental and / or beverage-relevant data, wherein the additional sensor system (34) serves to detect information about the type of beverage and several level detectors (10) are provided for each beverage container (6), each of which is connected to the digital standard interface (14), characterized by that the digital standard interface (14) is connected to a local control unit (16) by means of which the digital information signals (I) can be generated from the detected fill levels (F) and the recorded information on the type of beverage, wherein the information signals (I) can be transferred directly to the external data processing unit (DV, DVI, DVN), by means of which consumer data (M) for a market analysis are created depending on the transferred information signals (I). [2] Analysis system according to claim 1, characterized bythat the external data processing unit (DV, DVI, DVN) is connected to several analysis arrangements (8) via a communication network. [3] Analysis system according to claim 1 or 2, characterized by that the information signals (I) can be automatically transmitted by the analysis arrangement (8) at predetermined times. [4] Analysis system according to one of claims 1 to 3, characterized by that the additional sensor system (34) comprises a temperature sensor for detecting an ambient temperature and / or a GPS sensor for detecting location or transport data. [5] Analysis system according to one of claims 1 to 4, characterized by that the additional sensor system (34) has an RFID or barcode reading device for reading corresponding information carriers of the beverage containers (6). [6] Analysis system according to one of claims 1 to 5, characterized bythat the standard interface (14) is also integrated into the beverage container holder (2). [7] Analysis system according to one of claims 1 to 6, characterized by that the local control unit (16) has a local memory (18). [8] Analysis system according to one of claims 1 to 7, characterized by that the control unit (16) is connected to a bidirectional interface (22). [9] Analysis system according to one of claims 1 to 8, characterized by that the standard interface (14) has a passive transponder (24). [10] Analysis system according to one of claims 1 to 9, characterized by that the standard interface (14) has an active transponder (24). [11] Analysis system according to one of claims 1 to 10, characterized by that the active transponder (24) is connected to a power source (20), such as preferably a rechargeable battery and / or a capacitor. [12] Analysis system according to one of claims 1 to 11, characterized by that the at least one level detector (10) has a pressure sensor (26). [13] Analysis system according to one of claims 1 to 12, characterized by that the at least one level detector (10) has an ultrasonic sensor (30) for determining a level. [14] Analysis system according to one of claims 1 to 13, characterized by that the at least one level detector (10) has a switch (28) that can be activated by exceeding a threshold value. [15] Analysis system according to one of claims 1 to 14, characterized by that the local control unit (16) is connected and / or connectable to a local or external acoustic sensor system (36, 42) and can be controlled via a voice control. [16] Analysis system according to one of claims 1 to 15, characterized bythat the local control unit (16) is connected and / or connectable to a local or external signal generator (38, 44). [17] Analysis system according to claim 15 or 16, characterized by that the signal generator (38, 44) has a voice output. [18] Analysis system according to one of claims 1 to 17, characterized by that each of the level detectors (10) is assigned one of the recording areas (4) and the assignment is part of the generated information signals (I). [19] Analysis method using the analysis system according to one of claims 1 to 18, characterized by , that in a first step (S1) a current fill level (F) is detected by means of the fill level detectors (10) in a second step (S2) digital level data are generated depending on the detected levels (F) and in a third step (S3), the digital information signals (I) containing the fill level data are transferred to the digital standard interface (14), which, in addition to the fill level data, contain additional information data about the type of beverage, which is generated via the additional sensor system (34), wherein in the third step (S3), the information signals (I) are transferred to the external data processing unit (DV, DVI, DVN), which is part of a publicly accessible network, and the data processing unit (DVN) is connected to a plurality of analysis arrangements (8) via the communication network and data for the market analysis are generated depending on the information signals (I) transmitted by the plurality of analysis arrangements. [20] Analysis method according to claim 19 characterized by that in the first step (S1) the current fill level (F) is determined based on whether a threshold value is reached or not reached. [21] Analysis method according to claim 19, characterized by that in the first step (S1) the fill level (F) is determined as an absolute measured value. [22] Analysis method according to one of claims 19 to 21, characterized by that the fill level (F) determined in the first step (S1) is assigned to one of the receiving areas (4) and this assignment is transferred in the third step (S3) alongside the additional information data on the type of beverage as a component of the digital information signal (I) to the digital standard interface (14). [23] Analysis method according to one of claims 19 to 22, characterized by that the fill level data and / or the additional information data on the beverage type are stored before the third step (S3). [24] Analysis method according to one of claims 19 to 23, characterized by that the information signal (I) is automatically transmitted by the analysis arrangement (8) at predetermined times in the third step (S3). [25] Analysis method according to one of claims 19 to 24, characterized by that the information signal (I) is transmitted in the third step (S3) when stimulated by an external communication device (KE). [26] Analysis method according to claim 19 or 25, characterized by that a fully or partially automated notification regarding the at least one beverage container (6) is generated via the data processing unit (DV, DVI, DVN) depending on the transmitted information signals (I) and sent to a provider (A). [27] Analysis method according to one of claims 19 to 26, characterized by that the exceeding of an expiry date is detected via the data processing unit (DV, DVI, DVN) depending on the transmitted information signals (I) and a warning signal (W) is generated. [28] Analysis method according to one of claims 19 to 27, characterized bythat temperature profile data (T) are generated via the data processing unit (DV, DVI, DVN) depending on the transferred information signals (I). [29] Analysis method according to one of claims 19 to 28, characterized by that a time-dependent consumer monitoring is carried out via the data processing unit (DV, DVI, DVN) depending on the transferred information signals (I) and an access signal (Z) is generated. [30] Analysis method according to one of claims 19 to 29, characterized by that consumption data (V) for consumption documentation are generated via the data processing unit (DV, DVI, DVN) depending on the information signals (I) transferred. [31] Analysis method according to one of claims 19 to 30, characterized by that production-relevant information (P) is generated depending on the information signals (I) transmitted by the plurality of analysis arrangements (8). [32] Analysis method according to claim 19 or 31, characterized by that management data (L) for an empties management system are generated depending on the information signals (I) transmitted by the plurality of analysis arrangements (8). [33] Analysis method according to one of claims 19 to 32, characterized by that navigation data (N) for delivery planning are generated depending on the information signals (I) transmitted by the plurality of analysis arrangements (8). [34] Analysis method according to one of claims 19 to 33, characterized by that communication data (K) for social media applications are generated depending on the information signals (I) transmitted by the plurality of analysis arrangements (8).

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