COMMUNICATION SYSTEMS, MONITORING SYSTEMS AND RELATED METHODS

Abstract

The present invention relates to a communication system, with a monitoring system for in-situ monitoring of at least one substance used in a gas cleaning process, wherein the monitoring system includes a communication system, as well as with related methods. The monitoring system can, via the communication system, be used to monitor the at least one substance and to provide treatment data for performing treatment of the at least one substance. Herein, the communication system includes a cloud server, a first server, at least one second server, and at least one third server.

Description

COMMUNICATION SYSTEMS, MONITORING SYSTEMS AND RELATED METHODS Invention Engineering Field This invention relates to a communication system, with monitoring system for in-situ monitoring of at least one substances used in the gas cleaning process, in which the system monitoring includes communication systems, as well as with methods that related. The monitoring system can, through the communication system, used for monitoring of at least one substance used in the gas cleaning process and to provide treatment data to carry out treatment on at least one substance such as used in the gas cleaning process. Background of the Invention Users use solvents in gas processing installations theirs. Solvents that, in general, age over time analyzed from time to time to ensure its effectiveness and to enable stable operation of the gas processing plant. For this purpose, the latest analytical methods determine the value parameters that affect the performance of gas processing installations, in where the analytical methods include but are not limited to gas chromatography (GC), liquid chromatography high performance (HPLC, High Performance Liquid Chromatography), and Karl Fischer titration, which generally requires equipment expensive, well-equipped laboratories, staff who are experienced and well trained. Currently, analytical methods are carried out in laboratories that selected in a number of countries. Because solvents can classified as a dual-use good, sample delivery is a complicated process and requires long time. Often, the shipper requires an export permit and imports from each country. As a result, the overall the process of sampling, shipping, analysis and reporting can it takes weeks or months. Various analytical methods for amine solutions are used in CO capture? known: DE 103 22 439 Al discloses a method for determining isomeric composition in a mixture of isocyanate isomers, where the spectrum a mixture of 1isomers was recorded and the spectrum incorporated into the chemometric calibration model. As described by A. Einbu et al., Online analysis Of amine concentration and CO2 loading in MEA solution by ATR-FTIR spectroscopy, Energy Procedia 23 (2012), pages 55-63, solution aqueous monoethanolamine (MEA) is widely studied for its applications post-combustion carbon capture. For this purpose, the instrument infrared (IR) in attenuated total reflection mode at wavelengths of 2.5 um to 14 jm are used. Based on IR data, MEA and CO? can be predicted successfully over a wide concentration range. However, Eckeveld et al., Online Monitoring of the Solvent and Absorbed Acid Gas Concentration in a CO2 Capture Process Using Monoethanolamine, Ind. Eng. Chem. Res. 2014, 53, pages 5515-5523 commenting on the IR results of A. Einbu et al., that the results obtained promising results with respect to predictive accuracy, however There are several drawbacks associated with use IR instruments, first of all, the relatively high cost of the necessary equipment and, furthermore, the need for the equipment to be located within a few meters of process.” Instead, Eckevald et al., propose a combination of several characterization methods, which include density measurements, conductivity, refractive index, and sonic velocity. Bottinger et al., Online NMR Spectroscopic Study of Species Distribution in MDEA-H20-CO2 and MDEA-PIP-H20-CO2, Ind. Eng. Chem. Res. 2008, 4717, pp. 7917-7926, describes NMR-based methods. online. GB 2 4717 542 B discloses a solvent analysis system in- line using mass spectrometry. US 4,336,233 A discloses amine solutions with formulations more complex ones that include methyldiethanolamine (MDEA) and piperazine. EP 3 185 990 Bl discloses a solution comprising components amines and activators. Katchko et al., In-Line Monitoring of the CO2, MDEA, and Pz Concentrations in the Liguid Phase during High Pressure COz Absorption, Ind. Eng. Chem. Res. 2016, 55, pages 3804-3812, have reviewed the characterization methods of several solvent systems which is used for CO2 capture. Here, they present chemometric modeling results based on density, pH measurements, conductivity, speed of sound, refractive index, and near-field spectrum infrared (NIR). The inventor claims that the approach developed to enable concentration prediction with accuracy of 0.7 $ for MDEA, 0.4 $ for piperazine, and 2.5 $ for cCO2. Several analytical methods, including NIR spectroscopy, known for the characterization of aqueous amine solutions, such as the method used in CO2 capture applications. However, the method used known itself has little benefit to the operator gas processing installation: the method is carried out on laboratory equipment expensive and complex ones that have been developed for research applications, the laboratory requires trained staff to carry out the experiment correctly: the data obtained must be analyzed by a specialist using multi-variable analysis specified parameters, such as the concentration of one or more amines, heat-stable salts, or gases, alone do not meaningful to an operator, rather than the parameter being necessary to be interpreted by a specialist who has knowledge to translate parameters into at least one procedure recommended to improve the performance of the processing system gas. WO 2017 / 002079 Al discloses tools and methods for real-time measurement of cooking oil quality by sensing chemical species related to the quality of cooking oil. Tools These include optical sensors which include at least a source light and at least light detector, chamber to receive oil The fry to be measured are arranged so that the light source optically coupled through the cooking oil in the chamber to light detector: and processing unit configured to: receive from the light detector the absorption signal, transmittance, reflection, scattering of cooking oil, or a combination thereof, from the light emitted by a light source, calculating, from the received signal, the output is indicative of cooking oil quality using a pre-calculated model related to the chemical species and quality of cooking oil. WO 2018 / 090142 Al discloses the analysis method spectrophotometric. The document provides a system measurements that include low-resolution spectrophotometric sensors, mobile communication devices (such as smartphones or tablets) and software that can be partially installed on a device and partially on a remote computing server or service. The method includes calibration of the measurement channel, which oriented towards the measurement of optical spectra or quantities that related to spectrum: estimation of the optical spectrum of a sample which is analyzed arbitrarily, based on data from sensors and calibration results, and evaluation of quantities related to spectrum based on the estimation results. This step can includes the involvement of local and / or remote computing resources Far. WO 2018 / 122857 Al discloses a method for monitoring, analysis and maintenance of water and equipment in swimming pools, the method implemented by one or more the processor is operatively coupled to a storage device that non-transitory computer readable, on which the module is stored instruction code that when executed causes one or more processor to perform: accumulate and monitor data from elements that include at least one of a sensor, an actuator, and breakers in and around the pool: accumulating data non-sensing from a number of sources on the local processing unit: propagate the data to a remote online server: applying machine learning or rule-based algorithms on a remote online server configured to combine all the data obtained and derive policies optimal for pool maintenance by providing recommendations, control parameters: and provides an online interface for access those control recommendations / parameters for at least one of the pool owners, pool repairmen, companies pool maintenance, pool vendors, and pool retail traders. US 2019 / 353587 Al discloses methods and apparatus for field spectroscopic characterization for seafood. Spectrometer The portable NIR is connected to an analyzer configured for perform multivariable analysis of reflection spectra to qualitatively determines the true identity or freshness of the sample seafood quantitatively. WO 2020 / 014073 Al reveals evaluating the characteristics edible oil using a spectrometer. Data Optical reflectance was obtained from vegetable oil in situ at frying equipment containing vegetable oil, data reflectance corresponds to the specified range of infrared wavelengths. Model profile corresponding to the characteristics assessed are obtained from the repository containing safe library of the profile. The model profile defines regression vectors for use in transforming data reflectance to produce a value corresponding to characteristics being assessed. Criteria are applied to the values to form a simplified representation of characteristics for presentation to users for assessment oil quality. The problem to be solved by the invention Therefore, the problems that will be solved by This invention is a problem of specifying a communication system, Monitoring system for in-situ monitoring of at least one substances used in the gas cleaning process, and the methods by which related, which at least substantially avoids the known shortcomings of this type of system, tools, and methods. In particular, it is desirable that the systems and methods related to providing efficient monitoring of at least one substance used in the gas cleaning process, where at least one piece of equipment used in the cleaning process gas can be placed in any location, even in remote areas or difficult to access, at the user's residence, where processing measurement data obtained at or near the location of at least one piece of equipment is distributed among the events the first (instance) to know the evaluation of the measurement data, and the second event which is aware of the provision of treatment data to users based on the evaluated measurement data, where The related systems and methods are capable of simultaneously applying distributed best practices and exchange specifics of the data in high data protection standards during the processing of measurement data using procedures which, liked across the board, is automatic. In particular, it would be desirable to meet the requirements following for solvent characterization as far as possible: easy to use, even by less experienced staff experienced with minimum practice: field-solid methods and tools: produce fast results: provides recommended procedures for allows for trouble-free installation operations: embedded into existing software: allows for expert re-inspection of a provider: For enhanced installation simulation that produces better recommendations: For enhanced planned maintenance: For better production planning and / or improved supply chain management for amine solutions used in gas cleaning: compatible with in-line installation. Brief Description of the Invention This problem is solved by 1 invention with features independent patent claim. Superior development of the invention, which can be implemented individually or in combination, presented in the derived claims and / or in the specifications and the following detailed embodiment. As used here, the statement "has", "includes" and "contains" and grammatical variations thereof used in a non-exclusive manner. Thus, the statement "A has B" as well as the statement "A includes B" or "A contains B" can refer to the fact that, in addition to B, A contains one or more components and / or constituents further, and to the case where, apart from B, there are no components, constituents, or other elements present in A. In a first aspect of the present invention, a communication system expressed. In particular, the communication system is used to Monitoring system for in-situ monitoring of at least one substances used in the gas cleaning process. Thus, communication system includes cloud servers, first servers, at least one second server, and at least one third server, where the first server further has an interface the first communication configured to provide information reference spectral reference to at least one reference sample and analytical data reference to cloud server where each second server has a communication interface the second one is configured to provide spectral information to the cloud server where the cloud server is configured for generate calibration models using information reference spectral and reference analytical data provided by the server first, where the calibration model includes at least one parameter: applying a calibration model to the spectral information provided by the second server, where at least one value is for at least one of these parameters is extracted, provide at least one such value for at least one of those parameters to the first server via the interface first communication, where the first server is further configured for determine treatment data using at least one value for at least one of the parameters provided by cloud server where the first server further has at least one third communication interface, where each interface the third communication is configured to provide treatment data to at least one third server. As used herein, the term “communication” refers to to transmit data chunks from the first server to the second server, or vice versa, through at least one communication interface. In Here, the term “data” refers to pieces of information that provided in digital or digitized form, such as code numeric or alphanumeric. As commonly used, The term "information" refers to any type of data that includes content that can be useful for users. By using for example, information may be or include “spectral information” that relates to at least one piece of data that related to the electromagnetic spectrum, here too expressed as a “spectrum”, such as a single intensity at a specific wavelength, frequency, or energy of the photon, or a number of intensities distributed over a range of wavelengths the wave, frequency, or energy of the selected photon. With Thus, spectral information includes spectroscopic data can, preferably, be produced in accordance with further aspects of this invention by using an optical spectrometer as described below in more detail. In addition, information spectral may include metadata, where the term “metadata” refers to at least one item of accompanying information information related to the electromagnetic spectrum such as described above, in particular at least one of the dates, time, location or at least one condition, temperature or atmospheric conditions, spectrometer temperature, temperature of at least one of these substances, spectrometer identification data, batch of at least one of these substances, the manufacturer of at least one such substance, users, photographs, satellite data, related to spectral information or acquisition thereof. Thus, the term “providing information” relating to the process by which a piece of information certain data is transmitted in the form of data chunks from the server first to the second server, or vice versa, via at least one communication interface. Furthermore, the term “system” refers to a tool that includes at least two components, where at least two of the components These are individual components, while two or more of them these components can be integrated into one component, in where components are configured to perform a common task, such as handling of communication types or monitoring types. In particular, the term “communication system” refers, as it is generally used, to a system that includes at least the first server, second server, and a communication interface configured for transmitting pieces of data between servers. As described below in more detail, the communication system according to The present invention includes a cloud server, a first server, at least one a second server, at least one third server, and multiple interfaces communication. As used more generally, The term “communication interface” refers to the transmission channel that designated for data transmission. Here, the communication interface can be is structured as a unidirectional interface configured for forward at least one piece of data in a single direction, either from the first server to the second server, or from the second server to first server. Alternatively, the communication interface can is configured as a bi-directional interface configured for forward at least one piece of data into one of two direction, from the first server to the second server, or vice versa. With Thus, certain bidirectional interfaces may, alternatively, replaced by two individual unidirectional interfaces that configured for data transmission in the opposite direction in relation to each other. For data transmission purposes, communication interfaces may include wired-bonded elements or wireless elements. Using the example, the wired-bonded elements can be selected from at least one of the metal wires, such as copper wire or gold wire, computer bus system, such as a bus universal serial (USB): or fiber optic, where the wireless element may include a wireless transmitter or Bluetooth element. However, further types of communication interfaces may also be possible possible. As further used herein, the term “first communication interface”, “second communication interface”, “third communication interface”, and “fourth communication interface” refers to the four individual communication interfaces used for communication between two individually assigned servers. As further used herein, the term “server” related to a device configured to provide resources to further tools, which are typically expressed as "client", where "resources", in particular, include at least one of the computing power, such as to run at least one computer program: or data storage capacity, such as to store at least one piece of data. By using For example, a client can run a single computer program or storing pieces of data distributed across a number of servers, while a single server can serve a number of clients in connection with at least one of the program executions and storage requirements. In contrast to the term “server”, which refers to the devices that are arranged in a local network, The term “cloud server” refers to a type of server that can be accessed on request by the client via the internet. As the result, either cloud server location or direct active management cloud server is not accessible by clients. In connection with of this invention, 1The terms “first server”, “second server”, and “second server” “third” refers to three individual servers each of which arranged in its local network, where the second server and the server thirdly, as described below in more detail, integrated into a single unit arranged in a network single, while the term “cloud server” refers to a type of server which can be accessed upon request by clients via the internet. As indicated above, the term “information “spectral” refers to pieces of information related to at least one piece of data in relation to the spectrum electromagnetic. As used here, “information spectral” relates to spectral information that refers to certain samples of unknown content and physical properties unknown, where the term “reference spectral information” related to spectral information that refers to the sample reference, where the term “reference sample” refers to a sample of the content known and known physical properties. As used herein, the term “reference analytical data” refers to at least one piece of data related to the content known and known physical properties of the reference sample. According to the present invention, reference spectral information and analytical data a reference is provided to the cloud server by the first server. Furthermore According to the present invention, spectral information is provided directly or indirectly to a cloud server using an interface second communication. As further used here, The term “directly” refers to a configuration where the interface the second communication connects at least one second server with cloud servers in a way that spectral information is provided to cloud server without detour. In contrast here, the term “indirectly” refers to a configuration where the interface the second communication connects at least one second server with different servers, specifically with the first server, which on it spectral information is provided, first of all, where different servers, specifically the first server, have the fourth communication interface configured for, after that, provides spectral information from the first server to the second server. clouds. As described below in more detail, the information spectral can, thus, be subjected to modification which can be done by different servers, specifically servers First. However, a different way from indirectly providing spectral information to cloud servers is possible. According to the present invention, the reference spectral information and data reference analysis is used to generate calibration models. As used generally, the term “calibration model” refers to a model that includes the correlation of reference spectral information to the reference analytical data in order to be able to derive analytical data from spectral information related to a particular sample of unknown content and unknown physical properties known by using a model. Here, the process of correlating reference spectral information to reference analytical data is described by the term “generate a calibration model”, while the term “applying the calibration model” indicates a further process deriving analytical data from related spectral information with certain samples of unknown content and unknown physical properties. According to the present invention, this process done by cloud servers, for which purpose cloud servers using reference spectral information and reference analytical data as provided to the cloud server by the first server. Further according to the present invention, a calibration model implemented using at least one parameter, usually a set of parameters, for the description of analytical data. Based on at least one of these parameters, the calibration model configured to adequately represent the correlation in a reasonable manner, in particular, by producing deviations below the correlation threshold of the reference spectral information to the analytical data reference by using only at least one of these parameters. As used herein, the term “parameter” refers to representation of the influence on analytical data in relation to the substance Specific examples for parameters are presented below. Thus, the term “extracting at least one value for at least one of those parameters” as used here refers to the process of determining at least one value for at least one of these parameters using calibration model for setting spectral information as obtained in actual measurements of a particular sample. As as a result, the analytical data of a particular sample is described in detail. adequate by at least one of these parameters. Therefore, at least one of these parameters can be used as a a type of synopsis for the content and physical properties of a particular sample. In general, the amount of data used for at least one these parameters only make up a small part of the total data required for the related spectrum. According to the invention this process is also done by cloud servers, which are for the purpose of These cloud servers use spectral information such as that provided to the cloud server directly or indirectly directly by at least one second server and calibration model as available in cloud servers. Further according to the present invention, treatment data is determined by using at least one of those values ​​for at least one of those parameters. As is commonly used, The term “value” refers to a logical or numerical code, which depends on the content of at least one of these parameters. Such as used here, the term “treatment data” refers to at least one piece of data related to the treatment submitted from at least one monitored substance, specifically by using a monitoring system as described in below in more detail. Thus, the term “determining “treatment data” as further used herein refers to to the process of producing at least one piece of data that related to the proposed treatment of at least one the substance is monitored using at least one value for at least one of these parameters. According to the invention this, this process is done by the first server, which is for the purpose of the first server uses at least one of those values for at least one such parameter as provided to the first server by the cloud server via the communication interface First. Further according to the present invention, treatment data is provided to at least one third-party server using the interface the third specific communication between the first server and each third server. Here, treatment data can be stored on the device third server data storage or in storage devices separate data on which such treatment data can be provided through at least one interface, such as a wireless interface and / or cable-bound connections. As indicated above and below, certain third servers may be provided as units single arranged in a single network together with a second server corresponding. As used herein, the term “providing treatment data” refers to the proceeding process at least one piece of data related to the treatment proposed from at least one of the substances is monitored as generated by the first server to enable treatment of at least one of these substances according to the treatment data as indicated below in relation to the steps (iv) a method for in-situ monitoring of at least one substance the. For this purpose, a third server may include or spur a designated user interface to provide at least one information items related to treatment data user. As used herein, the term “user interface” “user” refers to the tool designated to provide the cut information, specifically treatment data, electronically, electronically visually, acoustically or in any arbitrary combination thereof to the user, preferably in an acceptable manner users, preferably in a user-friendly manner. Like in general use, the term “acceptable means” “user” relates to the way information is provided to humans. so that humans are able to understand pieces of information that received in the desired manner. For this purpose, the interface users may, preferably, include at least one of the computers personal or mobile communication device. As used In general, the term "personal computer" refers to a computer device which, as a rule, is placed in a fixed location, where the term “mobile communication device” relates to at least one of smartphone, tablet, or personal digital assistant, which can carried by the user and, thus, moves along with users. Therefore, it can, thus, be possible to provide treatment data to users at fixed locations to which users can return again and again and / or to the user's current location. In particular, the user interface can includes a monitor designated to provide at least one information items related to treatment data in a manner visually by displaying it to the user, specifically by at least one plain text in at least one language or graphic symbols that represent pieces of information corresponds to this. However, using light representation traffic that has three indicators in green, yellow, and red as proposed in WO 2020 / 014073 Al no considered as “treatment data” because it does not includes unambiguous indications of the procedures to be performed. recommended. As an alternative or as an addition, interface users can be designated to provide at least one piece of information related to treatment data in acoustic means, specifically by using at least one loudspeakers, where at least one loudspeaker can located at least one close to the location of the substance to be monitored or at a location where it can normally be located users. In this way, it can be ensured that the information can be reach users even in cases where those users are not paying attention to the monitor and not being able to bring the equipment mobile communications. As an alternative or in addition, a third server may be appointed to provide treatment data to at least one from the treatment unit. Here, treatment data can be provided to at least one of the treatment units directly, such as via a wired connection or a wireless connection, or via indirectly, such as through at least one processing device further. As used generally, the term “unit “treatment” refers to at least one designated tool for exerting influence on at least one of these substances by means of that the desired treatment of at least one of the substances carried out according to the treatment data. Preferred embodiment of the treatment units are described below in more detail. However, further types of treatment units may also be possible. As an alternative or in addition, a third server may be appointed to provide treatment data to at least one Simulation system, where the simulation system can be composed by at least one of the third servers or more processing devices continued. As used generally, the term “system “simulation” refers to at least one computer program that configured to perform modeling of actual technical systems or imagined using at least one piece of data, specifically treatment data, to observe system behavior technical without being required to actually implement the technical system. In particular with regard to 1 invention In this case, the simulation system can be used for at least one of the predictive maintenance, optimization of related parameters with technical systems, or modeling optimization, depending on the current state of a technical system as modified by treatment data. In addition, treatment data can be accompanied by other data related to further technical systems for perform modeling across a number of technical systems. Specifically in accordance with the present invention, each server configured to play the role of a breaker within the system communication. For this purpose, the system is configured to allows processing of spectral information acquired by Optical spectrometer of the substance to be monitored in a manner that distributed specifically adapted among the servers that different. As a result, spectral information such as which is used for monitoring at least one of these substances provided by the user, while the processing of spectral information carried out by the first event that knows the evaluation of information spectral, and while the treatment data is as desired by the user to be able to adequately treat at least one of these substances as produced by the second incident that knows about it. Therefore, the system communication, thus, is able to provide practice best distributed with respect to information evaluation spectral and, at the same time, specific exchange of data in high standards of data protection during processing spectral information in the procedure which, preferably comprehensive, automated system designed to generate data desired treatment and to provide treatment data to the user. In particular, spectroscopic data are generated in time. real on the user's site and made available by a second server for further use. Provided that the hardware designated to produce unaltered, unaltered spectroscopic data software updates or changes are required infrastructure at the user site. Only spectroscopic data are generated and stored for transfer to the user's site with a way that makes it impossible to produce any data treatment without an underlying calibration model. In contrast, in Here, the actual treatment data is generated by the first server with use at least one of those values ​​for at least one These parameters are as generated by the cloud server using a calibration model, where the information is important, in particular specifically related to calibration and formation models treatment data, can be managed and stored securely on two individual sites that are separate from each other. As illustrated below in the Figure, data from a number of users can be used to determine systematicity. Here, model calibration and treatment data can be updated and found- return continuously without distorting the data formation spectroscopic on the site from a number of users. Based on these considerations, the first server includes the first communication interface configured, first of all, to provide reference spectral information that refers to at least one such reference sample and reference analytical data to cloud server and, furthermore, to receive at least one value for at least one of these parameters from the cloud. Thus, the first communication interface can, preferably, be structured as a bi-directional interface or can, alternatively, includes two individual unidirectional interfaces arranged in the same direction the opposite. Furthermore, the first server further configuration to determine treatment data using at least one such value for at least one parameter such as those provided by cloud servers, and, more further includes at least one third-party communication interface that configured to provide treatment data to at least one third server. Additionally, the first server can be configured to receive spectral information from at least one second server through a second communication interface and to provide information the spectral to the cloud server via a communication interface fourth. Here, the first server can be configured to modify spectral information. As used in In general, the terms “modify” and “modification” refer to data changes, specifically data that carries information spectral, by applying at least one algorithm to data, where algorithms can be configured to exert at least one specific operation on the data. In accordance with the invention In this, the operation can, preferably, be selected from at least one of: selecting, filtering, combining, classifying, grouping, or analyzing data that includes information spectroscopic or related metadata. However, more types continuation of the operation may also be possible. Furthermore, based on these considerations, each the second server includes a corresponding second communication interface configured to provide spectral information to the server clouds. As indicated above, spectral information can transmitted directly to the cloud server via the interface corresponding second communication or, preferably, first to the first server via the second communication interface and, after that, from the first server through the fourth communication interface to cloud server. Although selecting direct transmission results in the advantage of providing a direct connection between at least one second server to cloud server, the transmission result is not direct in different advantages in terms of requiring a system overall less complex communication because the server the cloud only communicates with the first server while the second server first responsible for communication with other servers, that is, one or more second servers and one or more servers third. Further based on these considerations, cloud servers configured to perform the operations indicated above in the cloud server at least generates a calibration model by using reference spectral information that refers to at least one such reference sample and reference analytical data as provided by the first server, applying the model calibration which can include quantitative and qualitative modeling to the spectral information provided by the second server, with thus extracting at least one value for at least one those parameters, and provide at least one such value. for at least one of those parameters to the first server via first communication interface. For the purpose of generating and maintaining the infrastructure within the cloud servers, where infrastructure required to perform the operations indicated in the cloud server, at least one server additional can be used. In a particularly preferred embodiment, the calibration model can be produced by applying a combination of at least one data preprocessing method, selected feature set, and at least one learning algorithm. As used In general, the term “data preprocessing method” refers to the process of modifying raw data, specifically by using at least one of: scatter correction, baseline correction, smoothing, or scaling. Furthermore, the selected feature set may refer to at least one specific data item, preferably one that selected from: at least one specific pixel or at least one particular wavelength. As used in more generally, the term “learning algorithm” is related by the process of extracting at least one pattern in at least a set of known data, in which at least one pattern can be after that, it is applied to at least one unrelated data set. known. In addition, by using an unknown data set it is known that at least one pattern can be refined further. continue. Here, the learning algorithm can, preferably, be selected from machine-learning algorithms or deep learning algorithms (deep learning). In particular, the determination of treatment data using at least one such value for at least one parameter This can, preferably, be done by applying at least one learning algorithm to a combination of values ​​that known for known parameters with treatment data known. Here, learning algorithms can get involved at least one algorithm selected from at least one of regression algorithm or classification algorithm. By using, example at least one of the following algorithms can be used: partial least squares regression, discriminant analysis, algorithms Bayes such as Naive Bayes, brute-force MAP learning, Network Bayes Belief, Bayes optimal classifier: Vector machine Support with multiple kernels: decision tree algorithm such as random forest, CART, logistic and linear regression such as LASSO, Ridge, elastic net, statistical analysis such as models generalized single-variable and mixed: network algorithms neural (NN, Neural Network) such as fully connected NN, Convolutional NN, recurrent NN: Gaussian regression-like modeling Gaussian process, Gaussian graphical network, unbiased learning method Supervision such as non-negative matrix factorization, analysis principal components (PCA, Principal Component Analysis), t-sne, LLE. However, other types of learning algorithms may also be possible. Furthermore, based on these considerations, each the third server includes a third communication interface which corresponds configured to provide treatment data to at least one third server. As described above and below in more detail, each of the three servers can, more further, configured for further processing at least one information items related to treatment data with at least one of which displays it to the user through an interface user, or by providing it to at least one of the units treatment or simulation system as described in the section else here. In a further aspect of the present invention, a monitoring system for in-situ monitoring of at least one substance used in the gas cleaning process is revealed. As further used here, the term “monitoring” refers to the process derive desired information from, preferred in continuous, data obtained without user interaction, where The term “measurement” relates to the process of obtaining a cut data without user interaction. For this purpose, a number of signals measurements are generated and evaluated, from which information is desired is determined. Here, a number of measurement signals can be recorded and / or evaluated at regular time intervals or vary or, alternatively or in addition, on the occurrence of at least one specified event- beginning. As commonly used, the term “1-in-1 monitoring” "situ" is related to obtaining relevant pieces of data with at least one substance used in the cleaning process gas at a location where at least one of these substances has been located, specifically without the need to collect samples of at least one of these substances and to analyze its location different. Therefore, the monitoring system shows the advantage that the monitoring system can be allocated at the location of at least one of the substances to determine at least one characteristic thereof. As indicated above, the term “system” refers to a tool that includes at least two components, where at least two of these components are individual components, while two or more of these components can integrated into one component, where the component configured to perform common tasks, such as handling monitoring type. Thus, the term “monitoring system” as used herein refers to a system that includes at least two individual components, where each component appointed to at least one of the generating and evaluating measurement signals. In particular, the monitoring system according to This invention may, in particular, be designated for, specifically preferred continuous, determining at least one related parameter with at least one of these substances and to derive data the treatment desired from him. Thus, the monitoring system for 1in-situ monitoring of at least one substance used in the cleaning process gas includes: communication systems as described elsewhere in Here, optical spectrometer designated for obtain spectral information related to at least one of these substances, provide spectral information to at least one server. Therefore, the monitoring system according to the present invention includes communication systems as described in other sections here and optical spectrometer. As a result, it, therefore, it is designated to produce optical signals that used to determine at least one of these parameters which related to at least one of these substances and to derive the desired treatment data from it. Like In general use, the term “optical” refers to light waves. electromagnetic which has a wavelength of 380 nm up to 1 / 80 nm and adjacent wavelength ranges, specifically at least part of the near-spectral range infrared (NIR, Near InfraRed). In general, the NIR spectral range considered to cover a wavelength of 780 nm up to 2500 nm. However, the term “optical” is considered here to cover further wavelengths beyond the range NIR spectral, like other infrared spectral ranges with wavelengths above 2.5 um, specifically for wavelengths waves up to 2.6 um, up to 3.1 um, up to 3.5 um, up to 5 hm, up to 5.5 ym, up to 6 um, up to 20 um, or up to 40 um. Preferably, wavelengths from 250 nm to 5 ym, preferably from 400 nm to 3 ym, preferably from 1250 nm to 2.1 ym, covered by the term “optical” according to the definition as used here. Thus, the term "light" is like that used here in relation to radiation that has at least one wavelength within the wavelength range indicated waves. As used more generally, the term “spectrum” refers to the parity of the optical spectral range, specifically specifically the near-infrared (NIR) spectral range as indicated above. Here, each part of the spectrum is arranged by optical signals, which are defined by wavelength signal and the corresponding signal intensity. As used more generally, the term “optical spectrometer” related to equipment capable of obtaining information spectral, where the term “obtaining spectral information” refers to to record signal intensity with respect to wavelength the corresponding spectrum or partition thereof, such as wavelength interval, over which the signal intensity can, preferred, provided as a usable electrical signal for further evaluation. Specifically to carry out the process monitoring according to the present invention, at least one optical spectrum from at least one of these substances can be obtained repeatedly in-situ. The optical spectrometer may, preferably, include elements dispersive. As used generally, “dispersive element” refers to a device designated to separate incoming light from at least one of these substances produces a long signal spectrum constituent waves, each of which has its own intensity, after that, is determined in the form of a detector signal as generated by a single detector or an array of detectors as described below in more detail. Here, the dispersive element can, preferably, be selected from at least one diffractive element or at least one interferometric element. Here, at least one diffractive element can be selected from a prism or optical grating, where at least one interferometric element can be selected from interference filters, specifically band-pass filters, filters band reject, Bragg filter, variable length filter, such as filter which varies linearly, the Fabry-Perot interferometer or Michelson interferometer. As commonly used, The term “band-pass filter” refers to an optical element designed to transmit long-wavelength bands between two cut-off wavelength while attenuating outside band. Alternatively, a “band reject filter” is designed to attenuating in-band while transmitting out-of-band. Such as which is used more generally, the term “Bragg filter” related to a certain type of band-reject filter that is arranged by short segments of the optical waveguide core or substrate glass. Here, the periodic variation in the refractive index is used as wavelength-specific dielectric mirrors designed for attenuate the wavelengths in the band while allowing wavelengths outside the band to pass undisturbed, with Thus, it acts as a band-rejection filter. As used more generally, the term “variable filter” “long” refers to an optical filter that includes a number of filters interference, specifically band-pass filters, which can, in particular specifically, provided in a continuous filter arrangement. In Here, each filter can form a band with a length of the center wave varies for each spatial position on the filters, preferably continuously, along a single dimension that expressed by the term “length” on the receiving surface of variable length filter. Preferably, the center wavelength varies can be a linear function of the spatial position of the filter, where the variable length filter is referred to as a “filter that vary linearly”. However, other types of functions can applied to the relationship between the central wavelengths of varies and the spatial position of the filter. In the embodiment In certain cases, variable length filters can be notch filters. (wedge), which is designated for those carrying at least one coating response on a transparent substrate, where the response coating can be exhibit spatially varying properties, in particular, spatially varying thickness. Furthermore, The “Fabry-Perot interferometer” includes an optical cavity that has two parallel reflecting surfaces that allow only optical waves to pass through the optical cavity when the waves The optic resonates with the optical cavity. In addition, it can further optical elements are used which are designed to receive incoming light and transfers it to the dispersive element. For details furthermore, reference can be made to WO 2019 / 115594 Al, WO 2019 / 115595 Al, or WO 2019 / 115596 Al. Alternatively, optical spectrometers may include at least one infrared spectrophotometer Fourier transform (FTIR). Here, the optical spectrometer can includes at least one broadband light source and at least one interferometric element, such as a Michelson interferometer. The FTIR spectrophotometer can be configured to provide irradiation with at least one beam of light that has time-dependent spectrum. For this purpose, a spectrophotometer The FTIR may, preferably, include at least one mirror element which moving, where the light beam mirror elements move produced by a broadband light source can be alternately obstructed and transmitted by elements interferometric. Optical spectrometers can, furthermore, includes at least one microelectromechanical system (MEMS) that can be configured to control mirror elements. Furthermore, The FTIR spectrophotometer can be configured to modulate the beam light depends on wavelengths such that different wavelengths are modulated at different rates different. Light can strike a single detector or an array. detector. As used generally, the term “array detector” refers to a device that includes a number of sensors optics designated to measure the intensity of incoming light collide with at least one of the optical sensors. Here, each sensors can, preferably, be designated to measure light intensity enter at a certain wavelength. Therefore, the array The detector may, preferably, include a sequence of optical sensors that can located in the form of a series of optical sensors following other optical circuits, where the optical sensor sequence can, preferred, placed parallel to the unordered arrangement disconnected from each optical filter along the length variable length filter. Thus, the detector array can, preferred, includes a series of individual optical sensors that can, in particular, arranged in a single line as a one-line matrix dimensions, preferably along the length of a variable length filter, or in more than one line, specifically as two, three, or four parallel lines, in the form of a two-dimensional matrix, in specifically, to receive as much incoming light intensity as possible. Thus, the number of N pixels in one direction can be higher. compared to the number of M pixels in the further direction such that it is a one-dimensional 1 x N matrix or M x N matrix a two-dimensional rectangle can be obtained, where M « 10 and N 2 10, preferably N 2 20, preferably N 2 50. Additionally, matrix used here can also be placed in an arrangement staggered arrangement. Here, each optical sensor can have the same optical sensitivity or, within the level tolerance, similar, specifically for ease of manufacturing a series of optical sensors. Alternatively, each sensor optical as used in a series of optical sensors can exhibit varying optical sensitivity which can varies according to the varying transmittance properties of variable length filters, such as by providing variations that increase or decrease in optical sensitivity with wavelengths along a series of optical sensors. However, other types of arrangements may also be possible. In particular, a detector array can be used that can includes a number of pixelated sensors, where each pixelated sensors are adapted to receive at least a portion of one of the constituent wavelength signals as provided by the dispersive element. Such that indicated above, each wavelength signal constituents, thus, are related to the intensity or the amplitude of each constituent wavelength. Such as In general use, the term “optical sensor” refers to “pixelated” or “pixelated sensor” refers to a sensor optics that includes an array of individual pixel sensors, where each individual pixel sensor has a minimum area radiation sensitive adapted to produce signals electricity depends on the intensity of incoming light, where the signal electricity may, in particular, be provided to the evaluation unit for further evaluation. Here, radiation sensitive areas such as those composed by each individual pixel sensor can, individually specifically, in the form of a single uniform radiation sensitive area which configured to receive incoming light that strikes it individual pixel sensors. However, other arrangements of sensors that pixelated may also be possible. Furthermore, as indicated above, a single detector having an area single radiation sensitive may also be possible. Sensors are designed to generate detector signals, preferably electronic signal, which is related to the intensity of incoming light that impact individual pixelated sensors. The signal The detector can be an analog signal and / or a digital signal. Electronic signals for adjacent optical sensors can be, thus, generated simultaneously, or otherwise, temporally sequential. Using an example, during line scan or line scan, it may be possible to produce a sequence of electronic signals that correspond to a series of individual optical sensors arranged in a line. Additionally, individual sensors can, preferably, be active sensors. which can be adapted to amplify electronic signals before providing it to the evaluation unit. For this purpose, the sensor optical may include one or more signal processing devices, such as one or more filters and / or analog-digital converters for processing and / or pre-processing of electronic signals. The optical sensor can be selected from any optical sensor available. known, in particular pixelated sensors, preferred from pixelated organic camera elements, specifically camera chips pixelated organic, or from inorganic camera elements that pixelated, specifically pixelated inorganic camera chips, specifically from CCD chips or CMOS chips, which, in general, used in a variety of cameras. Here silicon (Si) can, Typically, it is used for wavelengths up to 1.1 ym. As alternatively, specifically for wavelengths above 1.1 ym, the radiation sensitive area of ​​an optical sensor may include a photodetector, specifically inorganic photodetectors selected from at least one of gallium antimonide (GaSb), specifically for wavelengths up to 1.7 um: germanium (Ge), in particular for wavelengths up to 1.85 um: indium gallium arsenide (InGaAs), specifically for wavelengths up to 2.5 um: indium arsenide (InAs), specifically for wavelengths up to 3.5 um: lead sulfide (PbS), specifically for long wavelengths up to 3.5 ym: indium antimonide (InSb), specifically for wavelengths up to 5.5 ym: lead selenide (PbSe), specifically for wavelengths up to 6 um: and mercury cadmium telluride (MCT, HgCdTe), specifically for long wavelengths up to 20 um. However, other photodetectors or more types further development of the material may also be possible, specifically detectors pyroelectrics which include radiation sensitive materials, preferably, which selected from triglycerides of sulfate (TGS) or triglycerides of sulfate deuterated (DTGS) can, in particular, be used for long waves up to 40 hours. Here, it can be especially preferred if the spectral sensitivity of the detector can show the range spectral which can be closely related to the emission spectrum light source, specifically to ensure that the detector can able to provide detector signals that have high intensity, thus, allowing evaluation of the detector signal with adequate signal-to-noise ratio and, at the same time, high resolution. In a preferred embodiment, the monitoring system may includes an optical quart designated to measure the optical signal that related to at least one of these substances. In the embodiment In this case, an optical spectrometer can be used to obtain information. spectral associated with at least one of these substances by using the measured optical signal as provided by quar. As commonly used, the term “optical meter” refers to a device designed to measure signals. optically by obtaining at least one measurement signal, also stated here as “optical signal”, preferred at the location or near the location of at least one substance that will be monitored. Here, the optical quartz can be composed of a flow cell can be located at the solvent loop of the acid gas removal installation and / or installed in a designated laboratory for process samples that include solutions. However, a more detailed embodiment further optical quarrying may also be possible. Additionally, optical quarts can be designated to provide radiation to irradiate the location of at least one of these substances. However, in cases where the location of at least one of these substances can be has been sufficiently illuminated, so that the optical quasar function can be becomes unnecessary. However, due to the wavelength range preferred to be used in connection with this invention is, as presented above, the spectral range that considered to cover wavelengths that are not must be available at the location of at least one of the substances in adequate intensity, it is preferred that the optical quart can be designated to provide the desired radiation to illuminate the location of at least one of these substances. Thus, optical quarks can, preferably, be used for providing radiation and generating at least one optical signal resulting from the interaction of radiation with a portion of the at least one of the substances at the location of at least one of the substances For this purpose, the optical quarry may include an arrangement of which can, specifically, be adapted to the geometry of at least one such substance and / or the geometry of the container which includes at least part of at least one of these substances. In In particular, the arrangement can be selected from at least one of transmittance geometry, transflection geometry, or geometry reflection, such as diffuse reflection geometry or reflection geometry total attenuation. As illustrated below in in more detail, the transmittance geometry can, in particular, be preferred in the case of at least one substance to be monitored may include transparent materials, where it can excel at transmitting the thickness of the layer of at least one of these substances. Here, the arrangement for the transmittance geometry may, preferably, be designated to guiding light through the thickness of a layer of at least one substance to be monitored, specifically 0.1 mm, preferably 0.2 mm, preferably 0.5 mm, up to 5 mm, preferably up to 2.5 mm, preferably up to 2 mm, specifically by 1 mm. However, in the case of at least one substance to be monitored can covering non-transparent materials, reflection geometry can be preferred. With regard to the terms “transparent” or “untransparent” transparent”, it is indicated that each level of transparency refers to a specific wavelength or range of wavelengths waves applied to at least one of these substances, specifically to the level of transparency in the NIR spectral range. Furthermore, to provide a connection between the optical quar and optical spectrometer to guide optical signals as generated by optical quarry to optical spectrometer for evaluation and, also preferred for further connections between sources light that is designated to produce illumination that has the desired spectral range, specifically within the range NIR spectral, and optical quasar at least one waveguide Optical, such as at least one optical fiber, may be used. However, further types of connections may also be possible. In certain embodiments, the optical quarry may include at least one tube, preferably two individual tubes, where at least one tube, which includes at least one guide- optical wave, designated to receive at least one connection. Furthermore, the optical quarry may include a mount on which at least one tube can be attached. For this purpose, the element fasteners, such as screws, can be used. Here, the mount can, preferably, be a rigid mount, thus, capable of provide the desired stability to the optical quark, while at least one tube may, preferably, be a flexible tube, thus, providing a certain level of flexibility. In addition, the monitoring system, specifically the optical quarry, may include at least one additional sensor that may be designated to measure information related to additives from at least one such substance, where the term “information that related to-additives” refers to at least one item further data relating to at least one substance in addition to at least one piece of information about at least one substance obtained using optical spectrometer. In particular, information related to with further substances, preferably selected from at least one from temperature, density, flux, conductivity, viscosity, magnetic field electromagnetic, dielectric constant, refractive index, luminescence, phosphorescence, magnetization value, pH value, buffer capacity, acid value, zeta-potential. However, further types of information related to additives may also be possible. For the purpose of determining at least one piece of information associated with additives, additional sensors can, preferably, attached to a strong stand, where the lead line for power supply or hard read of data can, preferably, guided through at least one tube. In addition, more elements further that can be attached to the optical quarry is possible. As a further alternative, quart can be or include at least one lab-on-chip system or at least one microfluidic system designated for analyze at least one substance used in the process gas cleaning. Furthermore, the optical spectrometer includes an evaluation unit which designated to produce spectral information related to with the spectrum of at least one of these substances with evaluate the detector signal as provided by detector. As used generally, the term “detector unit evaluation” refers to an arbitrary tool designed to generate information based on detector signals. For the purpose of In this case, the evaluation unit can be or include at least one Integrated circuits, such as one or more integrated circuits application-specific (ASIC, Application-Specific Integrated Circuit), and / or one or more digital signal processors (DSP, Digital Signal Processor), and / or one or more gate arrays Field Programmable Gate Array (FPGA), and / or one or more data processing tools, such as one or more computers, preferably one or more microcomputers and / or microcontroller. Additional components may include, such as one or more preprocessing tools and / or data acquisition tools, such as one or more devices for receiving and / or transmitting sensor signals preprocessing, such as one or more AD-converters and / or one or more filters. Furthermore, the evaluation unit may include at least one data storage device. Furthermore, as As explained above, the evaluation unit may include at least one interfaces, such as wireless interfaces and / or bonded interfaces cable. In addition, optical spectrometers, specifically units evaluation, can be further designated to determine the data that related to at least one of these substances as described elsewhere here. For this purpose, the evaluation unit may include or have access to more routine evaluations further configured to determine the related data with at least one of these substances from at least one of spectral information, optical signals as provided by detector array, or sensor signal as provided by at least one additional sensor. In addition, an optical spectrometer, specifically the evaluation unit, may be further designated to determine information related to the additional substances of at least one such substance as described elsewhere here. For this purpose, the evaluation unit may include or have access to much more advanced evaluation routines that configured to determine information related to- additional substances of the measured signal as provided by at least one of the additional sensors. Here, the spectral information can be used to monitoring substances as produced by an optical spectrometer, specifically by evaluation tools as compiled by The optical spectrometer can, preferably, be provided by a transfer unit data to at least one server, specifically to at least one the second server is composed of a communication system such as the one described elsewhere herein. As used herein, The term “data transfer unit” refers to an arbitrary device designated to transmit spectral information from an optical spectrometer to at least one second server as configured by the system communication in wire-bound transmission or wireless transmission. For this purpose, the data transfer unit can, preferably, be selected from at least one of the universal serial bus (USB) or devices which can activate Bluetooth. However, more methods and tools further configured to allow data transfer across between optical spectrometers, specifically evaluation tools An optical spectrometer, and a corresponding second server, can also possible. Furthermore, the optical spectrometer may include components further, such as light sources. As used in Here, the term “light source” refers to a type of light source. known irradiation to provide adequate emissions in at least one of the wavelength ranges as indicated above. Thus, the radiation source can, selected from at least one of the incandescent lamps, film filaments thin, or MEMS systems that emit a black-body spectrum, flame source: flame source: heat source: laser, specifically laser diode, although more advanced laser types can also be used: light emitting diode, organic light source, specifically diode organic light emitters: fluorescent lamps: structured light sources. However, other types of light sources can be used, such as thermal infrared emitter. As used here, The term “thermal infrared transmitter” refers to a transmitter device thermally machined micro-formed which includes radiation emitting surface designated to emit radiation desired. Using an example, an infrared transmitter thermal available under the name “emirs50” from Axetris AG, Schwarzenbergstrasse 10, CH-6056 Kagiswil, Switzerland, as “thermal infrared emitter” from LASER COMPONENTS Gmb$H, Werner- von-Siemens-Str. 15 82140 Olching, Germany, or as a “transmitter “infrared” from Hawkeye Technologies, 181 Research Drive #8, Milford CT 06460, United States. However, the infrared transmitter type further thermal may also be possible. Here, the light source can be a light source that continuous or, alternatively, a switched on light source pulsed, where the light source is turned on in a pulsed manner can have a modulation frequency of at least 1 Hz, at least 5 Hz, at least 10 Hz, at least 50 Hz, at least 100 Hz, at least at least 500 Hz, at least 1 kHz, or more. At certain embodiments, at least one of an optical spectrometer or The light source may include a modulating device designated for modulate the irradiation, preferably periodic modulation. As In general use, the term “modulation” refers to the process in which where the total irradiance varies, preferably periodically, specifically with at least one frequency modulation. In particular In particular, periodic modulation can be influenced between the values maximum and minimum values ​​of total irradiation power. Minimum value can be 0, but can also be » 0, so so, using an example, perfect modulation is not must be generated. Here, modulation can, preferably, generated in the designated light source for produce the desired, preferred, modulated radiation with the light source itself having intensity and / or power modulated total, for example the total power that is modulated in a periodic, and / or with a light source that is realized as a pulsed radiation source, for example as a pulsed laser. As a further example, a device for producing radiation as disclosed in the European patent application 19 21 32 11.1, registered on 3-December-2019, may also be used for this purpose, where the tool includes at least one element radiation emitter, where the radiation emitting element is designated to produces radiation after being heated by electric current, a mount, wherein the mount carries at least one emitting element radiation, and where the mount or any part thereof may be driven: and heat sink, where the heat sink designated to cool the seat and at least one element radiation transmitter carried by the holder after being touched by stand. As an alternative or in addition, the type of tool different modulations, for example modulation tools based on effects electro-optical and / or acousto-optical effects, can also be used. However, modulation of the light beam at any position within the path beams may also be possible, where the beam cutter chopper) or other type of periodic beam interrupter, such as an interrupt bar or interrupt wheel, preferred rotates at a constant speed and can, thus, be Periodic interruptions in the irradiation can also be used. With Thus, the detector array can be designated to detect at least two detector signals in different modulation cases can have different modulation frequencies. Here, the unit evaluation can be designated to generate spectral information from at least two detector signals. As indicated above, the term system monitoring can include at least two components that can integrated into a single component. As an advantage thereof, the handling of integrated components, in particular by users, can be facilitated. Thus, the light source and optical spectrometers can, preferably, be integrated into the unit single. Alternatively, optical quarts and optical spectrometers can, preferably, be integrated into a single unit. As further alternatives, light sources, optical quarks and optical spectrometers can, preferably, be integrated into the unit single. Furthermore, the second server and the third server can integrated into a single unit. As an alternative or in addition, an optical spectrometer, a data transfer unit, and second server, can be integrated into a single unit. With using examples, optical spectrometer, light source, unit data transfer, second server, and third server can integrated into a single unit. However, further types of integrated components may also be possible. In a further aspect of the present invention, a method implemented computers to operate communication systems disclosed. Thus, the method according to the invention is a method computer-implemented. As used in In general, the term “computer-implemented method” refers to methods involving programmable equipment, in a special, readable medium that carries programs, computers, or a computer network in which one or more features of the invention done using at least one program. In accordance with this invention, at least one program can be accessed by equipment adapted to perform each method through communication systems, specifically communication systems such as described elsewhere herein, which may, preferably, available via the internet. In particular with respect to inventions this method can, thus, be performed on equipment programmable ones configured for this purpose, such as by providing at least one computer program that adapted. As a result, the method according to the present invention can, in particular, affecting in-situ monitoring of at least one of these substances, for which purpose the method is used implemented by a computer to operate the system communication as described herein. As further as used herein, the terms “operate” and “operation” refers to the sequence of steps the method is configured to perform. cause the communication system to function in a way that desired. Methods for operating communication systems such as those disclosed herein includes the following steps, which may, preferably, carried out in the order given. Further, steps additional methods not listed here may be provided. Unless explicitly indicated that the applicable one is rather, any or all of the method steps, specifically adjacent method steps, can, at least partially partial, carried out simultaneously. Further, any or all steps of the method can be performed at least twice, as repeatedly, specifically to enable the process to be carried out repeated in-situ monitoring according to the present invention such as which is described below in more detail. Thus, the method for operating the system communication according to the present invention, wherein the communication system comprises cloud servers, the first server, at least one second server, and at least one third server, including the following steps: provides reference spectral information that refers to at least one reference sample and reference analytical data from the server first through the first communication interface to the cloud server, generate calibration models on cloud servers with using reference spectral information that refers to at least one such reference sample and the reference analytical data, where the model calibration includes at least one parameter, provides spectral information related to at least one substance from the second server via a communication interface second to cloud server applying calibration models on cloud servers to information spectral associated with at least one such substance, in where at least one value for at least one parameter the extracted: provide at least one such value for at least one of those parameters to the first server via the interface first communication, where the treatment data includes at least a piece of data related to the proposed treatment of at least one of these substances, determine treatment data by using at least one the value for at least one of these parameters that provided by the cloud server to the first serverj provides treatment data from the first server through third communication interface to the third server. In a further aspect of the present invention, a method is disclosed which computer implemented for in-situ monitoring of at least one substance used in the gas cleaning process. In relation to the term “implemented method” computer”, reference can be made to the definition provided above. The method as disclosed herein includes the following steps, which can, preferably, be done in the given order. More further, additional method steps that are not listed here can be provided. Unless explicitly indicated that what happens is the opposite, any or all steps method, specifically the adjacent method steps, can, at least partially, done simultaneously. More further, any or all of the method steps can be performed at least twice, as in repeatedly, specifically for makes it possible to do 1in-situ monitoring process by means of certain to repeatedly acquire at least one spectrum optical from at least one such substance, to repeat derive treatment data from it through the evaluation unit, and to repeatedly provide behavioral data to users for allowing the treatment of at least one substance to be appropriate with him. Thus, the computer-implemented method for in-situ monitoring of at least one substance used The gas cleaning process includes the following steps: obtain at least one optical reference spectrum from at least one reference sample, where each reference sample includes at least one substance to be monitored, where the data reference analysis is assigned to each reference sample, and derive reference spectral information that refers to at least one such reference sample from at least one reference spectrum the optics: obtain at least one optical spectrum from at least one such substance in-situ, and derive spectral information that associated with at least one of these substances 1in-situ from at least one of these optical spectra: carry out the method steps according to the method implemented computers to operate communication systems as described elsewhere here treat at least one of these substances in accordance with treatment data. In a further aspect, the present invention refers to a product computer program. As used generally, “computer product” computer program" refers to executable instructions for do at least one of these methods, preferably both method as indicated above, according to the present invention. For this purpose, a computer program may include 1instructions provided by means of computer program code configured to perform any or all method steps according to the present invention and, accordingly, to form formation of object images when implemented on a computer or data processing tools. Computer program code can be provided on a data storage medium or a separate device such as a media optical storage, for example, on compact discs, directly on a computer or data processing device, or over a network, such as in-house networks or the internet, such as in the cloud. For further details related to the method computer-implemented and computer program products that related, reference may be made to the system according to the present invention as expressed elsewhere here. In a further aspect of the present invention, the use of a system communication, monitoring system for 1in-situ monitoring of at least one substance used in the gas cleaning process, where the monitoring system includes communication systems, and methods related to the present invention is disclosed. Herein, the system communication, monitoring system for 1in-situ monitoring of at least one substance used in the gas cleaning process and related methods may, preferably, be used for the purpose selected uses from a group consisting of: use in carbon capture in flue gas or gas containing other oxygen from sources such as power plants fossil fuel-powered electricity or steam turbines: use for targeted acid gas removal for biogas applications, specifically in gas streams that containing alkanes, CO2 and / or H»S and / or oxygen and / or olefin use in natural gas applications, specifically from waste removal of CO» and / or H2S deep gas removal acid for LNG applications: use for gas removal in Syngas production, Ammonia, Hydrogen / Carbon Monoxide (HYCO) and iron ore: use for selective acid gas removal, namely, sulfur components of natural gas and acid gas enrichment (AGE) units or exhaust-gas treatment (TGT, Tail-Gas Treatment). Use in carbon capture from exhaust gases / gas- by-products of cement production However, further types of uses of this method in the gas cleaning process may also be possible. With certain considerations for cleaning monitoring gas, at least one of these parameters can be, preferably, selected from at least one at least one of the indicators, in particular content or concentration, which is related to: alrj amines, in particular tertiary amines, which are specifically selected from at least one of: methyldiethanolamine (MDEA), alkanolamine inhibited such as tert-butylaminoethoxyethanol, aminoethoxyethanol (AEBE), or (2-(2- (2-tert-butylaminoethoxy)ethoxy)ethyl)methyl ether (MEETB) : primary or secondary amines, which are specifically selected of at least one of: piperazine, monoethanolamine (MEA), diethanolamine (DEA): heat stable salt, which is specifically selected from at least one of: formate, phosphate, acetate, glycosate, oxalate, Succinate, gas, which is specifically selected from at least one from: carbon dioxide (CO2), hydrogen sulfide (H2S). As further used herein, the term “substance” refers to at least one compound used in the process gas cleaning for which spectral information is generated, specifically by using monitoring tools according to the invention this, and is provided through the communication interface of both servers. second. Therefore, at least one of these substances can, preferred, consisting of or including at least one solution, in specifically amine solutions, solutions that include heat-stable salts, gas solution, or mixture thereof, specifically of at least one substance as indicated above. However, Further types of substances are used in the cleaning process gas may also be possible. Here, certain substances may include at least one component, where the composition of the substance can remain constant or change during monitoring of a particular substance. As defined above, the term “parameter” refers to the representation of influence on data analytical with respect to a particular substance. As an alternative or In addition, at least two parameters can be combined. to generate further parameters. Thus, at least one of these parameters is assigned to the model Calibration, similarly, depends on the specific use of the monitoring system that includes communication systems and methods related to the present invention. Specifically, at least one the parameter can be selected from at least one of: regression values, specifically those selected from the concentration from at least one of the substances, from at least one component of the substance, from at least one product of the degeneration of a substance, from at least one by-products produced by the degeneration of substances, stability components: manufacturing level, age of substance classification values, specifically to identify at least one substance clustering value, specifically for cluster formation related to at least one of these substances: extracted features, specifically those selected from at least one feature related to spectral information. As a result thereof, treatment data are determined by using at least one of those values ​​for at least one such parameter also depends on the particular use from the monitoring system which includes communication systems and methods which are related. Thus, treatment data can, in a way specifically, including at least one of: a statement about the identification of at least one substance the: a statement about the authenticity of at least one substance or products containing at least one of these substances: statement about the origin of at least one of these substances: a statement about the existence or absence of a condition of at least one of these substances, a statement about the properties of at least one such substance, specifically selected from the quality, concentration, type of at least one of these substances, a statement about the properties of the components of at least one substance specifically selected from the concentration of the components of at least one of these substances, a statement about the stability of a mixture of at least one the substance with at least one other substance statement of recommended procedures based on the value of at least one of these parameters. Here, the recommended procedures can be selected from at least one of: replace at least part of at least one substance at a specified point or time range adding further amounts to at least one substance the: adding further substances to at least one of those substances, such as to carry out treatment with a drug: delay the addition of further substances to at least one substance the: remove at least one of these substances, change at least one of the temperature or pressure works on at least one of these substances, cleaning of at least one such substance or object in relation to substances. In particular, treatment units can, preferably, be selected from at least one of: designated storage container for storing a certain amount of more than one or more different substances and to provide part of it designated processing unit for homogenization at least one of these substances and / or to mix at least two different substances: designated cleaning unit to clean at least One such substance: waste containers designated to receive substances that have been used, valve control unit designated to control at least one valve, where controlling the valve can allow for regulation supply or removal of at least one of these substances, designated irradiation control unit capable of altering the irradiation of at least one of these substances: temperature control unit designated to change the temperature of at least one of these substances, pressure control unit designated to change the pressure in at least one of these substances, designated heating unit for those who hit at least one of these substances with heat, where the heating is at least one the substance can induce physical or chemical reactions from at least one of these substances, cooling unit designated to cool at least one such substance, where the cooling of at least one such substance can result in the inhibition or completion of physical reactions or chemical properties of at least one of these substances. However, further types of treatment units can also be possible. Thus, the communication system, monitoring system for in-situ monitoring of at least one substance used in gas cleaning process which includes communication systems and methods related to being able to provide efficient monitoring to at least one of these substances, thus enabling at least one piece of equipment used in the cleaning process gas to be placed in any location, even in areas that far away or difficult to access, at the user's residence. More further processing of measurement data obtained on or in near the location at least one piece of equipment is distributed among the first event represented by the infrastructure for perform the indicated operations within the cloud server, which can be generated and maintained by at least one server additionally, where the first event is aware of the data evaluation measurement, and the second event represented by the server first, where the second event is aware of the provision of data treatment, which, ultimately, is based on measurement data evaluated, to the user. Here, the systems and methods that related to being able to simultaneously apply best practices distributed and specific exchange of data in standards high data protection to users during data processing measurements in procedures that, thoroughly preferred, automatic. Summarizing, in the context of the present invention, the following embodiments considered to be particularly favored: Communication systems, communication systems that include servers cloud, first server, at least one second server, and at least one third server, where the first server further has an interface the first communication configured to provide information sSpectral reference and analytical data reference to cloud serverj where each second server has a communication interface the second one is configured to provide spectral information to the cloud server where the cloud server is configured for generate calibration models using information reference spectral and reference analytical data provided by the server first, where the calibration model includes at least one parameter: applying a calibration model to the spectral information provided by the second server, where at least one value is for at least one of these parameters is extracted, provide at least one such value for at least one of those parameters to the first server via the interface first communication, where the first server is further configured for determine treatment data using at least one value for at least one of the parameters provided by cloud server where the first server further has at least one third communication interface, where each interface the third communication is configured to provide treatment data to at least one third server. A communication system according to the previous Embodiment, wherein the second communication interface is configured to provide spectral information directly or indirectly to cloud server. A communication system according to the previous Embodiment, wherein spectral information is provided indirectly to cloud servers by providing spectral information to the first server, where the first server further has a fourth communication interface configured to provide spectral information to the server cloud. Communication system according to one of the Manifestations previously, where the parameter is selected from at least one of: regression value, classification value, clustering value, parameter sensory, extracted features. Communication system according to one of the Manifestations previously, where a third server encompassed or spurred the interface designated user to display at least one item information related to user treatment data. A communication system according to the previous Embodiment, wherein user interface includes a personal computer or communication device move. A communication system according to the previous Embodiment, wherein mobile communication device is at least one telephone smartphone, tablet, or personal digital assistant. Communication system according to one of the Manifestations previously, where the treatment data included at least one pieces of data related to the proposed treatment of at least one of these substances. Communication system according to one of the Manifestations previously, where the treatment data includes at least one of: a statement about the identification of at least one substance the: a statement about the authenticity of at least one substance or products containing at least one of these substances: statement about the origin of at least one of these substances: a statement about the existence or absence of a condition of at least one of these substances, a statement about the properties of at least one such substance, a statement about the properties of the components of at least one substance the: a statement about the stability of a mixture of at least one the substance with at least one other substance statement of recommended procedures based on the value of at least one of these parameters. A communication system according to the previous Embodiment, wherein recommended procedures are selected from at least one from: replace at least part of at least one substance at a specified point or time range adding further amounts to at least one substance the: adding further substances to at least one of those substances: delay the addition of further substances to at least one substance the: remove at least one of these substances, change at least one of the temperature or pressure works on at least one of these substances, cleaning of at least one such substance or object in relation to substances. Communication system according to one of the Manifestations previously, where a third server was designated to provide data treatment to at least one of the treatment units or systems simulation. A communication system according to the previous Embodiment, wherein treatment units are selected from at least one of: containers storage, processing units, cleaning units, waste containers, valve control unit, sorting unit, irradiation control unit, temperature control unit, pressure control unit, heating unit, cooling unit. Communication system according to one of the Manifestations previously, where the reference spectral information refers to at least one reference sample. Communication system according to one of the Manifestations previously, where the second server and the third server were integrated into a single unit. Monitoring system for in-situ monitoring of at least one substance used in the gas cleaning process, system monitoring which includes: communication system according to one of the Manifestations previously: optical spectrometer designated for obtain spectral information related to at least one of these substances, provide spectral information to at least one server. The monitoring system according to the previous Embodiment, wherein optical spectrometer is designated to provide spectral information to at least one second server configured by the system communication. Monitoring system according to one of the Embodiments previously referring to the monitoring system, further includes at least one of: at least one designated light source to illuminate at least part of at least one of these substances, optical quarry designated to measure optical signals that associated with at least one of these substances, the first connection between an optical quart and an optical spectrometer designated to guide the measured optical signal to optical spectrometer, the second connection between the light source and the optical quark designated to guide light to at least one such substance, data transfer unit designated for connections between Optical spectrometer and second server. The monitoring system according to the previous Embodiment, wherein data transfer unit is designated to provide time-bound transmission wired or wireless. The monitoring system according to the previous Embodiment, wherein data transfer unit at least one of the universal serial bus (USB) or a device that can activate Bluetooth. 148 Monitoring system according to one of three Manifestations previously, where light source and optical spectrometer, or optical quarts and optical spectrometers, or light source, optical quartz, and optical spectrometer integrated into a single unit. Monitoring system according to one of the four Manifestations previously, where the second server, optical spectrometer and unit data transfer is integrated into a single unit. Monitoring system according to one of the five Manifestations previously, where at least one of the first connections and the second connection includes an optical waveguide. Monitoring system according to one of the six Manifestations previously, where the light source was selected from at least one from incandescent lamps or thermal infrared emitters. Monitoring system according to one of the seven Manifestations previously, where the optical quarry included at least one of the tubes first and second tubes, where the first tube is designated for receives the first connection and the second tube is designated to receive second connection. The monitoring system according to the previous Embodiment, wherein at least one of the first tube and the second tube is a tube flexible. Monitoring system according to one of two Embodiments previously, where at least one tube was attached to the at least one seat. The monitoring system according to the previous Embodiment, wherein at least one seat is a rigid seat. Monitoring system according to one of the Embodiments previously referred to the monitoring system, where the optical quarry includes a setup for at least one of the geometries transmittance, transflection geometry, reflection geometry, in specifically diffuse reflection geometry or total reflection geometry attenuated. The monitoring system according to the previous Embodiment, wherein arrangement for transmittance geometry is designated to guide light through a layer thickness of 0.1 mm, preferably 0.2 mm mm, preferably 0.5 mm, up to 5 mm, preferably up to 2.5 mm, preferably up to 2 mm, specifically by 1 mm. Monitoring system according to one of the Embodiments previously referred to a monitoring system, where the spectrometer The optics further comprise a dispersive element and at least one detectors, specifically single detectors or detector arrays. The monitoring system according to the previous Embodiment, wherein dispersive elements are designated to receive light from at least one of these substances and separates it into a signal spectrum constituent wavelengths. The monitoring system according to the two previous Embodiments, wherein a single detector covers a single radiation-sensitive area, or in where the detector array includes a number of pixelated sensors, in which each pixelated sensor is adapted to receive at least part of one of the long-range signals constituent waves, where each signal has a wavelength constituents are related to the intensity of each length- constituent waves, and to produce at least one detector signal. The monitoring system according to the previous Embodiment, wherein each pixelated sensor covers a sensor area, where each sensor area includes radiation sensitive material. The monitoring system according to the previous Embodiment, wherein radiation sensitive materials are selected from silicon (Si), gallium antimonide (GaSb), germanium (Ge), indium gallium arsenide (InGaAs), indium arsenide (InAs), lead sulfide (PbS), indium antimonide (InSb), lead selenide (PbSe), mercury cadmium telluride (MCT, HgCdTe), triglycerides sulfate (TGS), and triglycerides sulfate deuterated (DTGS). Monitoring system according to one of two Embodiments previously related to the tool, where the sensor area is a diverse sensor area. Monitoring system according to one of three Manifestations previously, where pixelated sensors were designated for measures incoming light by generating a sensor signal through measurement of electrical resistance or conductivity of at least part of the sensor area. The apparatus according to the previous embodiment, wherein the elements radiation sensitive is designated to generate sensor signals with perform at least one measurement of electric current-electric voltage and / or at least one measurement-electric voltage-electric current. Monitoring system according to one of the Embodiments previously referred to the monitoring system, where at least some of the optical surface is an anti-adhesive surface designated to inhibit the adhesion of at least one substance the. Monitoring system according to one of the Embodiments previously referred to the monitoring system, where the optical quarry includes sensors designated to determine the physical impact on at least one of these substances. Monitoring system according to one of the Embodiments previously referred to the monitoring system, where the physical impact in at least one of the substances selected from the temperature of at least one of these substances or pressure on at least one substance the. Monitoring system according to one of the Embodiments previously referred to the monitoring system, where the optical quarry includes additional sensors designated to measure information related to-additives related to at least one of these substances. The monitoring system according to the previous Embodiment, wherein information related to the additional substances selected from at least one of temperature, density, flux, conductivity, viscosity, electromagnetic field, dielectric constant, index bias, luminescence, phosphorescence, magnetization value, pH value, buffer capacity, acid value, or zeta potential associated with at least one of these substances. Monitoring system according to one of the Embodiments previously referred to a monitoring system, where substances are selected from at least one of at least one solution, in particular amine solutions, solutions containing heat-stable salts, solutions gas, or a mixture thereof. The monitoring system according to the previous Embodiment, wherein amine solutions include at least one of the primary amines, amines secondary, tertiary amines. The monitoring system according to the previous Embodiment, wherein primary amine or secondary amine is selected from at least one from piperazine, monoethanolamine (MEA), diethanolamine (DEA). Monitoring system according to one of two Embodiments previously, where a tertiary amine was selected from at least one from methyldiethanolamine (MDEA), alkanolamines are inhibited such as tert-butylamoniethoxyethanol, aminoethoxyethanol (AEKE) or or (2- (2-(2-tert-butylaminotoxy)ethoxy)ethyl)methyl ether (MEETB). Monitoring system according to one of the four Manifestations previously, where heat stable salts were selected from at least one of formate, phosphate, acetate. Monitoring system according to one of the five Manifestations previously, where the gas solution included gases selected from at least one of carbon dioxide (CO2), hydrogen sulfide (H:2S). Monitoring system according to one of the Embodiments previously referred to the monitoring system, where the parameters selected from at least one of: regression values, values classification, clustering values, sensory parameters, features that extracted. A computer-implemented method for operating communication system, communication system that includes cloud servers, first server, at least one second server, and at least one third server, where the method includes the following steps: provide reference spectral information and reference analytical data from the first server through the first communication interface to the server cloud generate calibration models on cloud servers with using reference spectral information and reference analytical data, in where the calibration model includes at least one parameter, provides spectral information from a second server via second communication interface to cloud server: applying calibration models on cloud servers to information spectral, where at least one value for at least one the parameters are extracted: provide at least one such value for at least one of those parameters to the first server via the interface first communication, determine treatment data by using at least one the value for at least one of these parameters that provided by the cloud server to the first serverj provides treatment data from the first server through third communication interface to the third server. The method according to the prior embodiment, wherein the information spectral is provided directly or indirectly to cloud server. The method according to the prior embodiment, wherein the information spectral is provided indirectly to cloud servers with provides spectral information to the first server and provides spectral information from the first server to the cloud server via the fourth communication interface which is further composed by first server. The method according to the prior embodiment, wherein the information spectral is provided indirectly to cloud servers by, first of all, provide spectral information to the first server and, after that, provide spectral information from the server first to the cloud server via the fourth communication interface which further composed by the first server. The method according to either of the two preceding Embodiments, in where the calibration model is generated by applying the algorithm learning, preferably selected from the learning algorithm- deep learning machines or algorithms. The method according to any one of the foregoing Embodiments which refers to the method, where the determination of treatment data is done by use at least one of those values ​​for at least one These parameters are determined by applying an algorithm. learning to a combination of known values ​​for the parameters known with known treatment data. Computer-implemented methods for monitoring in- The situation of at least one substance used in the process gas cleaning, where the method includes the following steps: obtain at least one optical reference spectrum from at least one reference sample, where each reference sample includes at least one substance to be monitored, where the data reference analysis is assigned to each reference sample, and deriving reference spectral information from at least one spectrum the Ooptis reference: obtain at least one optical spectrum from at least one such substance in-situ, and derive spectral information from it. at least one of these optical spectra: perform the method steps according to one of the Embodiments previously referred to computer-implemented methods to operate the communication system: treat at least one of these substances in accordance with treatment data. The method according to any one of the foregoing Embodiments which refers to a method, in which at least one optical reference spectrum is obtained by measuring at least one optical sample reference with the same system type for 1in-situ monitoring of at least one of the substances at at least one of the temperatures the same or by adjusting at least one optical reference spectrum for at least one of the known temperature effects. or deviation known as optical spectrometer. The method according to any one of the foregoing Embodiments which refers to a method, in which at least one of the reference spectra optical and optical spectrum of at least one such substance covers wavelengths from 250 nm to 6 μm. The method according to any one of the foregoing Embodiments which refers to a method, in which at least one optical spectrum of at least one of these substances is obtained repeatedly in 1in- A temporary situation where the process involves at least one of these substances is in operation. The method according to any one of the foregoing Embodiments which refers to the method, where the treatment data includes at least one pieces of data related to the proposed treatment of at least one of these substances. The method according to any one of the foregoing Embodiments which refers to the method, where the treatment data includes at least one from: a statement about the identification of at least one substance the: a statement about the authenticity of at least one substance or products containing at least one of these substances: statement about the origin of at least one of these substances: a statement about the existence or absence of a condition of at least one of these substances, a statement about the properties of at least one such substance, a statement about the properties of the components of at least one substance the: a statement about the stability of a mixture of at least one the substance with at least one other substance statement of recommended procedures based on the value of at least one of these parameters. The method according to the previous embodiment, wherein the procedure recommended to be selected from at least one of: replace at least part of at least one substance at a specified point or time range adding further amounts to at least one substance the: adding further substances to at least one of those substances: delay the addition of further substances to at least one substance the: remove at least one of these substances, change at least one of the temperature or pressure works on at least one of these substances, cleaning of at least one such substance or object in relation to substances. The method according to any one of the foregoing Embodiments which refers to a method, where at least one piece of information is related to treatment data displayed to the user through user interface. The method according to any one of the foregoing Embodiments which refers to the method, where treatment data is provided to at least one of the treatment units or simulation systems. The method according to the previous embodiment, wherein the treatment unit selected from at least one of: storage containers, units processing, cleaning unit, waste container, control unit valve, sorting unit, irradiation control unit, control unit temperature, pressure control unit, heating unit, cooling unit. The method according to any one of the foregoing Embodiments which refers to the method, where the reference spectral information refers to at least one reference sample. A computer program product that includes instructions that can be executed executed to perform the method steps according to one of the The previous embodiment refers to the method. Use of monitoring systems according to one of the The prior embodiment refers to a monitoring system for in-situ monitoring of at least one substance used in gas cleaning process for selected uses from group consisting of: Short Description of Image Further optional details and features of the invention are visible it is clear from the description of the preferred example embodiment contained in along with the derived claims. In this context, the features Certain features can be implemented either individually or with other features. in combination. The present invention is not limited to embodiments Example. The embodiment of the example is shown schematically in the figure. Identical reference numbers in individual drawings refer to the same element. identical or elements with identical functions, or elements that correspond to each other in relation to their function. Specifically, in the image: Figure 1 illustrates a preferred example embodiment. of the monitoring system for in-situ monitoring of at least one substance used in the gas cleaning process, where The monitoring system includes a communication system and a spectrometer. Optical, according to the invention 1nij Figure 2 illustrates a preferred example embodiment. further development of the monitoring system for in-situ monitoring of at least one substance used in the gas cleaning process, where the monitoring system includes communication systems and optical spectrometer, according to the present invention: Figure 3 illustrates a preferred example embodiment. from the optical quasar designated to measure the optical signal that related to at least one of these substances as a matter of optionally composed by an optical spectrometer: Figure 4 illustrates a diagram indicating preferred example embodiment of the implemented method computer for in-situ monitoring of at least one substance used in gas cleaning processes, where the methods include methods for operating communication systems: Figure 5 illustrates an example of shear temperature-induced in the absorbance spectrum which has The number of waves is 7000 cm to 8000 cm: and Figures 6 to 8 each illustrate a diagram which presents reference spectral information and reference analytical data for a particular substance to be used in the calibration model. appropriate. Complete Description of the Invention Example embodiment Figure 1 illustrates, in a very schematic way, example embodiment of the monitoring system (110) for monitoring in-situ of at least one substance (112) used in the process gas cleaning according to the present invention. In particular, the system (110) can be in the form of an amine solution management system that can be capable of provide recommended procedures to installation operators removal of acid gases to allow safe operation of the installation smooth. However, further systems can be used in gas cleaning process may also be possible. As illustrated in the figure, the substance can in the form of a quantity of solution (114), such as a liquid solution or gas, which can be stored in a container (116), where the level (118) solution (114) in the container (116) can be obtained. Without limiting the scope of the present invention, the substance (112), in particular the solution (114), as used for the purposes of the present invention may be or includes at least one of: alrj solutions, specifically aqueous solutions, which include at least one amine, in particular tertiary amines, which are specifically selected from at least one of: methyldiethanolamine (MDEA), alkanolamine inhibited such as tert-butylaminoethoxyethanol, aminoethoxyethanol (ABE), or (2-(2-(2-tert-butylaminoethoxy)ethoxy)ethyl)methyl ether (MEETB) : primary or secondary amines, which are specifically selected of at least one of: piperazine, monoethanolamine (MEA), diethanolamine (DEA): solutions, specifically aqueous solutions, which include at least one heat-stable salt, where the heat-stable salt can, specifically, be selected from at least one of: formate, phosphate, acetate, glycolate, oxalate, succinate solutions, specifically gas solutions, which include at least one gas, where the gas can, specifically, be selected from at least one of: carbon dioxide (CO), hydrogen sulfide (H2S). However, other types of solutions can also be used in conjunction with this invention, in particular, selected from at least one of the OASE@ solutions OASE@ blue for use in deep carbon capture exhaust gas or other oxygen-containing gases from sources such as fossil fuel power plants or steam turbines OASE@ green for the removal of primarily acid gases targeted for biogas applications, specifically in gas streams containing oxygen and / or olefins OASE@ purple in natural gas applications, specifically from waste removal from CO? deep removal of acid gases for LNG applications: OASE@ white for acid-gas removal in production Syngas, Ammonia, Hydrogen / Carbon Monoxide (HYCO) and iron ore: OASE@ yellow for selective acid gas removal, i.e., sulfur components of natural gas and acid gas enrichment (AGE) units or exhaust-gas treatment (TGT, Tail-Gas Treatment). According to the present invention, the monitoring system (110) can be further further includes optical quarts (120), which are designated to measure optical signals related to the substance (112). As is generally schematically illustrated in Figure 1, the optical quasar (120) can be immersed in solution (114), preferably thoroughly under level (118) of the solution (114), in the container (116). In the embodiment In certain cases, the optical quart (120) may be mounted in a solvent loop from the acid gas removal installation, where it can attached to the interior wall (122) of the container (116), preferably near with the base (124) of the container (116), thus, avoiding interruption of the operation of the solution (114) as far as possible. For more details further related to optical quark (120), reference can be made to the description above, to Figure 3 and to the paragraphs it refers to to him. Here, the optical quartz 120 can be composed of a flow cell, in where the flow cell can, preferably, be located at the solvent loop acid gas removal installation and / or installed in the laboratory designated to process samples including solution (114). However, further embodiments may also be possible. The optical signal that can be measured by the optical quartz (120), can, preferred, guided through connection (126), which can be a connection cable-bound, such as optical waveguides (128), or connections wireless, to the optical spectrometer (130) as further composed by the monitoring system (110) of this invention. As Alternatively or in addition, an optical spectrometer (130) can be used. designated to directly acquire optical signals, in a specific using a structure, preferred, designed for reflection geometry, specifically for reflection geometry diffusion or attenuated reflection geometry (not shown in Here). Thus, the optical spectrometer (130) is designated for obtain spectral information related to the substance (112), for which purpose the optical signal as measured by optical quasar (120) or obtained directly by optical spectrometer (130) can be used. For this purpose, optical spectrometer (130) may, as illustrated further further in Figure 1, including at least one light source (132), which is designated to irradiate at least part of the substance (112). In particular, the light source (132) may emit radiation electromagnetic field that covers at least part of the range near-infrared (NIR) spectral band. In general, NIR spectral range is considered to cover the length wavelengths of 1 / 80 nm to 2500 nm. However, the light source (132) can also be able to emit further wavelengths in outside the NIR spectral range, such as the visible spectral range which covers wavelengths of 380 nm to 780 nm, or in another infrared spectral range with wavelengths in above 2.5 um, specifically for wavelengths up to 2.6 um, up to 3.1 um, up to 3.5 ym, up to 5 um, up to 5.5 ym, up to 6 um, up to 20 um, or up to 40 ym. For the purpose of producing the desired radiation, the source The light (132) may, preferably, include an incandescent lamp having metals with low electrical conductivity, specifically selected from at least one of tungsten or NiCr, or graphite, supplied in the form of filament or film. Here, filament or the film can be hit by an electric current in a way where heating of the filament produces emission of photons above the range very broad spectral range, which in particular, covers the range NIR spectral. Alternatively, the type of thermal radiation source others, specifically thermal infrared emitters such as those described above in more detail, can also be used. However, different light sources (132) may also be possible. As indicated above, the light source (132) can be a continuous light source or, alternatively a light source that is switched on in pulses, where the source light that is turned on in pulses can have a frequency modulation of at least 1 Hz, of at least 5 Hz, of at least 10 Hz, at least 50 Hz, at least 100 Hz, at least 500 Hz, at least 1 kHz, or more. As a result, the modulation frequency regularly corresponds to with a range of properties that can detect from infrared sensors that particularly sensitive at 500 Hz or above, mainly because strong influence of 1 / f noise. For this purpose, the generator comprehensive and expensive semiconductor-based radiation, such as light-emitting diodes, or lasers, specifically lasers quantum cascade, can be used. A cheap alternative can be provided by a mechanical chopper wheel or by using an infrared source that can be turned on periodically covering low thermal mass filaments of Wolfram or Nilr. Using an example, source type infrared which can be turned on periodically is available from Helioworks' EP series and EF series (referring to www.helioworks.com), or as FLIR from ICx Photonics (referring to to WWW. amstechnologies.com / fileadmin / amsmedia / downloads / 2533 IR Broadband Sources.pdf). As an alternative furthermore, a device for producing radiation such as that disclosed in European patent application 19 21 32 11.1, which registered on 3-December-2019, as described above in more detail, can also be used. As further illustrated in Figure 1, light emitted by the light source 132 can be guided towards optical quasar (120) using the same connection (126), preferably comprising the same optical waveguide (128), or different connections (not shown here) that can be arranged between the light source (132) and the optical beam (120). Such that depicted below in Figure 3 in more detail, connection (126) can be provided in a branched form, where the branches The first can be used to provide light as such generated by the light source 132 to the optical beam 120 temporarily the second branch can be used to guide the received light el of the optical quasar (120), which has, in general, been modified by the substance (112) being monitored, to the optical spectrometer (130). For this purpose, the optical spectrometer (130) may further includes a dispersive element (134), which is designated to receive light from the substance (112) and separates it into a spectrum of signals constituent wavelengths, and a detector array (136) that can includes a number of pixelated sensors, where each pixelated sensors are adapted to receive at least a portion of one of the constituent wavelength signals, in where each constituent wavelength signal is associated with the intensity of each constituent wavelength, and to produce at least one detector signal. As alternatively, a single detector that has a radiation sensitive area single may also be possible. Here, the dispersive element (134) is used in the spectrometer. optics (130) to separate the received light from the substance (112) into a spectrum of constituent wavelength signals such that so that only a single wavelength or range of wavelengths narrow waves can collide with at least one, preferably exactly one, pixelated sensor as arranged by the detector array (136), where each intensity or amplitude is determined. As described above in more detail In detail, the dispersive element (134) may be a diffractive element or interferometric elements, where the diffractive elements can be prisms or optical gratings, while interferometric elements can in the form of an interference filter, specifically a band-pass filter, band reject filters, Bragg filters, variable length filters, such as linearly varying filter, Fabry-Perot interferometer or Michelson interferometer. Alternatively, a spectrometer optics (130) may include at least one spectrophotometer Fourier transform infrared spectroscopy (FTIR), where, The optical spectrometer (130) may include at least one source broadband light and at least one interferometric element, such as the Michelson interferometer. The FTIR spectrophotometer can configured to illuminate an object with at least one beam light that has a time-dependent spectrum. Preferably, An FTIR spectrophotometer may include at least one mirror element which moves, where with the movement of the mirror elements of the beam light produced by the broadband light source 132 can alternately blocked and transmitted by elements interferometric. Optical spectrometers can, furthermore, includes at least one microelectromechanical system (MEMS) that configured to control the mirror elements. Furthermore, The FTIR spectrophotometer can be configured to modulate the beam light depends on wavelengths such that different wavelengths are modulated at different rates different. Furthermore, each sensor is pixelated as composed of a detector array (136) may cover a sensor area variously designated to receive light from substances (112) and separated into a spectrum of constituent wavelength signals by diffractive elements (134) as described above in more detail detail the manner in which the formation of at least one signal detector can be triggered. Preferably, the formation of at least one detector signals can be managed by defined relationships between the detector signal and the way the sensor area is illuminated. Here, the sensor area can have a size of 10 m x 1 mm or less, preferably 2 mm x 0.2 mm or less, preferably 1 mm x 0.1 mm or less, most preferably 0.5 mm x 0.05 mm or less. For the purpose of producing at least one detector signal after irradiation, the sensor area can include radiation sensitive materials that can be, preferably, selected from silicon (Si), specifically for wavelengths up to 1.1 um. For wavelengths above 1.1 um, radiation-sensitive materials can selected from at least one of gallium antimonide (GaSb), specifically for wavelengths up to 1.7 um: germanium (Ge), specifically for wavelengths up to 1.85 um: indium gallium arsenide (InGaAs), specifically for wavelengths up to 2.5 um: indium arsenide (InAs), specifically for long wavelengths up to 3.5 um: lead sulfide (PbS), specifically for wavelength up to 3.5 ym: indium antimonide (InSb), co specifically for wavelengths up to 5.5 ym: lead selenide (PbSe), specifically for wavelengths up to 6 um: mercury cadmium telluride (MCT, HgCdTe), specifically for long wavelengths up to 20 um, triglyceride sulfate (TGS), for wavelengths wavelengths up to 40 ym, and deuterated triglyceride sulfate (DTGS), for wavelengths up to 40 um. However, other materials can also it is possible to use in detector array (136). As further illustrated in Figure 1, optical spectrometer (130) includes an internal evaluation unit (138), designated to determine the desired spectral information by evaluating the detector signals provided by the array detector (136). However, an evaluation unit (138) may also be provided as a further unit separate from the optical spectrometer (130). As defined above, the term “evaluation unit" refers to a tool configured to determine information the desired spectral value associated with the substance (112) which from which the spectrum has been recorded, from which spectral information can be obtained by evaluating the detector signal as provided by the detector array (136). In addition, the optical spectrometer (130) may include an element further details not shown here. In particular, at least one transfer element (not shown here) may used, where the transfer element is designed to receive light of the substance (112), for example, by using optical quark (120) via a connection (126), preferably from an optical waveguide (128), and transfer it to the dispersive element (134), thus, preferred, concentrating light onto the dispersive element (134). Examples of preferred transfer elements can be found in WO 2019 / 115594 Al, WO 2019 / 115595 Al, or WO 2019 / 115596 Al. According to the present invention, the monitoring system (110) further includes a communication system (140) such as, schematically, indicated in Figure 1 by the content arranged by lines long dashed (142). As illustrated in the figure said, the communication system (140) includes a cloud server (144), first server (146), second server (148), and third server (150). As further illustrated in the figure, the system communication (140) may, further, include one or more a further second server (148') and one or more third servers further (150'), where the number of the second server (148, 148"), in general, the same as the number of third servers (150, 150'). Such as indicated by the short dotted line, the shared server (152, 152'), which can perform the second server task (148, 148') and the corresponding third server (150, 150'), can supplied as a single unit. As indicated above, each server (144, 146, 148, 150) are configured, specifically according to this invention, to play the role of a breaker, thus, allows processing of spectral information acquired by Optical spectrometer (130) to be distributed among servers (144, 146, 148, 150) which differ in a special way as outlined here. As a result thereof, where spectral information used for substance monitoring (112) is provided by the user, the processing of spectral information is carried out by the first event that is aware of the evaluation of spectral information, and treatment data as desired by the user produced by a second event that knows about it. By therefore, the communication system (140), thus, is capable of provide best distributed practices with regard to evaluation of spectral information and, at the same time, exchange specifics of the data in high data protection standards during the processing of spectral information within the procedure, which fully preferred, automatically designated to produce desired treatment data and to provide it to users. Spectral information that can be used to monitor substances (112) may, preferably, be provided by a data transfer unit (154) to second server (148). Here, the data transfer unit (154) can designated to transmit spectral information from optical spectrometer (130) to the second server (148) in transmission wired or wireless. For this purpose, the transfer unit data (154) may, preferably, be selected from at least one of the buses universal serial (USB) or a tool that can activate Bluetooth. As further shown in Figure 1, Optical spectrometer (130), data transfer unit (154) and second server (148), can, as schematically indicated by dotted line, also integrated into units single. However, other embodiments may also be possible. As schematically illustrated in Figure 1, the first server (146) further has a communication interface first (156), which is configured to provide information reference spectral reference to at least one reference sample and reference analytical data to cloud server (144). As described above and below in more detail, the reference spectral information and the reference analytical data is used by the cloud server 144 for generate a calibration model, where the calibration model is compiled in the way the calibration model includes at least one parameters. Furthermore, each second server (148, 148") having at least one second communication interface (158, 158"), where each of the second communication interfaces (158, 158') can configured, as illustrated schematically in Figure 1, to directly provide spectral information to cloud server (144). Alternative configuration for communication path in connection with the second communication interface (158, 158") shown in Figure 2. As described above and in below in more detail, the calibration model is maintained at cloud server (144) is applied to spectral information, where at least one value for at least one of those parameters extracted. Furthermore, at least one such value for at least one of these parameters is provided to the first server (146) using the first communication interface (156). As described above and below in more detail, first server (146) further configuration to determine treatment data using at least one of these values for at least one such parameter as provided by the cloud server (144) via the first communication interface (156). Furthermore, the first server (146) further has at least one third communication interface (160, 160') wherein each of the three communication interfaces (160, 160') is configured to provide treatment data to at least one third-party server (150, 150”). Here, one of the communication interfaces (156, 158, 158', 160, 160') can, preferably, be provided wirelessly: however, wired-bound communication may also be possible. For the purposes of the present invention, the first server (146) may include first data storage device (162), where the data storage device The first (162) can be configured to store information reference spectral reference to at least one reference sample and reference analytical data to be provided to the cloud server (144) through the first communication interface (156) and, in turn independent, to the first processing unit (164) which further composed by the first server (146). Furthermore, the first server (146) may include a second data storage device (166), wherein the second data storage device (166) may be configured to stores treatment data to be provided to at least one third server (150, 150”). Furthermore, the first processing unit 164 as compiled by the first server 146 can configured to generate treatment data using reference spectral information and reference analytical data as provided by the first data storage device 162 as well at least one such value for at least one parameter such as those provided by the cloud server 144 via first communication interface (156). Here, the data storage device first (162) and second data storage device (166) can be arranged by a single data storage device as indicated with the dotted line in Figure 1. However, the arrangement is more continuation from the first server (146) may also be possible. Furthermore, cloud servers (144) and, optionally at least one cloud data storage device (168), may be available on demand in the cloud (170) as illustrated schematically in Figure 1. In addition, one or more further tools can also contribute to cloud infrastructure (170). As is generally the case, cloud servers (144) and tools optional cloud data storage (168) may, thus, provide computing power and data storage capacity, in a sequentially, without requiring direct active management by user or operator of the first server (146) or the second server (148, 148'). Based on the infrastructure as depicted in Figure 1, the cloud server (144) for use by the present invention is configured For generate calibration models using information reference spectral reference to at least one reference sample and reference analytical data as provided by first server (146), where the calibration model includes at least one parameter applying calibration models to spectral information as provided by the first server (146), where at least one such value for at least one parameter is extracted, and provide at least one such value for at least one such parameter to the first server (146) via the interface first communication (156): For this purpose, service providers can be individuals and / or different entities may provide the model structure calibration. As indicated above, the calibration model has a structure that includes one or more parameters that on which the calibration model can be based. As described above in more detail, at least one of these parameters can be selected from regression values, classification values, values clustering, sensory parameters, extracted features. As further schematically illustrated in Figure 1, the third server (150) can drive the monitor (172), which can act as a designated user interface for displaying at least one item of information (174), which related to treatment data, to users. Here, item information (174) can be plain text, such as “throw away solution”, “refill solution” or graphic symbols that represent this type of information. As illustrated further in the figure, the monitor (172) can be driven automatically directly by the third server (150): however, the monitor (172) may also be compiled by a personal computer, which can accept items information (174) by the server (150). As an alternative or as additionally, mobile communication devices (176), preferably selected ones from at least one smartphone, tablet, or assistant personal digital, usable, where mobile communication devices includes a configurable viewer to provide at least one piece of information (174) to the user, such as by apply a specific application ("app") configured for this purpose. As an alternative or in addition, the exit tool Sound, such as at least one loudspeaker (178), may used to provide at least one item of information (174) to the user. As an alternative or in addition, a third server (150) may be designated to provide treatment data on an ongoing basis directly, such as through a cable-bound connection (182) or wirelessly, or indirectly, such as through a device further processing (not shown here), to the unit treatment (180). As schematically depicted in Figure 1, the treatment unit (180) may include at least one of storage container (184), which may be designated for store a further amount of solution (114) and is capable of provide a portion thereof to the container (116), as indicated by the dotted arrow, waste container (186), which may be designated to receive used liquid (188) from the container, as indicated by a further dotted arrow, for example, by providing an opening signal to the valve (190): temperature control unit (192), which can be designated to able to change the temperature of the solution (114) as arranged by container (116), in particular by cooling or heating solution (114), such as through the wall (122) and / or base (124) container (116), to change the properties of the solution (114), for example viscosity of the solution (114). However, further types of treatment units (180), such as as indicated in the description above or otherwise, may is also possible. As an alternative or in addition, a third server (150) may be designated to provide treatment data to at least one simulation system (not shown here), in where the simulation system can be composed by at least one of the servers third (150) or further processing equipment (not shown) here). For further details regarding the system simulation, reference can be made to the above description. As further illustrated in Figure 1, the server additional (198) may, together with additional interface (199), used to generate and maintain infrastructure in in the cloud server (144) as indicated in Figure 1 designated to perform operations within the cloud server (144) which produces a calibration model using the information reference spectral reference to at least one reference sample and reference analytical data as provided by first server (146), applying the calibration model to the information spectral as provided by the second server (148, 148”), thereby extracting at least one such value for at least one such parameter, and provides at least one such value for at least one such parameter to first server (146) via first communication interface (156). As indicated above, Figure 2 illustrates alternative configurations for communication paths in connection with the second communication interface (158, 158"). On this further preferred embodiment of the monitoring system (110) according to the present invention, which includes alternative configurations for the communication system (140), each communication interface second (158, 158') as arranged by each second server (148, 148') can be configured, as illustrated schematically in Figure 2, to indirectly provide spectral information to the cloud server (144). For the purpose of In this case, each of the second communication interfaces (158, 158") can directed to the first server (146) which, in a preferred embodiment This, can be configured to receive spectral information from each second communication interface (158, 158') and for provide it to the cloud server (144) using the interface fourth communication (194), which can be configured to, after that, providing spectral information to the cloud server (144). Here, the spectral information can simply be redirected back to fourth communication interface (194) without deploying any application even to spectral information. However, as depicted further further in Figure 2, the first server (146) may, in addition, includes a second processing unit (196) which is configurable to change the spectral information in such a way that described above in more detail. For further details regarding the embodiment further than the monitoring system (110), specifically the system communication (140) as schematically depicted in Figure 2, reference may be made to the description of such embodiments as which is illustrated in Figure 1 and described above. As indicated above, the communication system (140) composed by monitoring system 110 for in-situ monitoring of at least one such substance (112) as used in gas cleaning process. In particular with regard to the invention In this, the communication interface may, preferably, include a system OASE@ connecting software, specifically for transmission data between at least two components of a communications system (140), specifically the second server (148, 148') that receives the information spectral from the optical spectrometer (130), and the third server (150) which receives the treatment data that will be provided to the user. As a result, the OASE@ software system can send and / or receive data to and / or from cloud servers (1414) and / or first server (146), using the OASE@ connection portal with OASE@ plus digilab installed and Sample Analytics OASE@ back-end server, preferably located at the back firewall. Therefore, users can only communicate with the back-side of the OASE@ connection via the Sample Analytics connection OASE@ after authenticating via two-factor authentication. More Next, the user interface provided by Sample Analytics OASE@ plus digilab connection, can be configured to display recommended procedures to users. The above systems and methods as described herein can be embedded directly in the installation control system to calculate the overall performance of the installation under given conditions the last measured solvent and to mimic a digital twin, specifically in combination with using more DCS data further such as pressure, temperature, and flow rate. Here, communication with the installation control system can be done via implementation of the standard CAPE-OPEN interface OASF@. Furthermore, the results of the analyzed samples can be shown to the user in comparison with the aggregate sample results other installations use similar technology, so users can easily see how solvent the user is. compared to this reference component. Furthermore, similar to the measurement of the OASE@ solution, also gas-phase analysis can be implemented into the platform OASE@ connection software. Figure 3 illustrates a preferred example embodiment. from the optical quasar (120), which is designated to measure the optical signal related to the substance (112). As depicted in schematically in the figure, the optical quarry (120) may include the holder (210) on which the first tube (212) and the second tube are attached (214) is attached. For this purpose, screws (216, 218) can be used. However, other types of attachment may also be possible. In here, the mount (210) may, preferably, be a rigid mount, with thus, which is able to provide the desired stability to optical quasar (120), while at least one of the tubes (212, 214) can, preferably, be in the form of a flexible tube, thus, provide a certain level of flexibility to the tube (212, 214). As indicated above, the optical quasar (120) can be composed of flow cells that can be located in the solvent loop acid gas removal installation and / or installed in designated laboratory to process samples which includes solution (114). However, further embodiments may also be is possible. Here, small quantities, in particular as much as 0.5 ml to 10 ml, solution (114) may, preferably, injected into a flow cell that has walls at laboratory at temperatures ranging from 10”C to 50”Cc. Because rapid thermal equilibration with flow cell walls, solution (114) can, in particular, be characterized at or near room temperature, where the term “room temperature” is commonly used refers to a temperature of 20”C to 25”C. Furthermore, solution (114) can pass through a filter (not shown here) prior to characterization, where particles can be removed from the solution (114). Furthermore, solution (114) can be introduced into in the flow cell in a way that the occurrence of bubbles can be avoided so as not to interfere with any optical measurement signals. In a preferred embodiment, the optical quarry (120) may include An arrangement that can be used for optical measurements in at least one of the transmittance, transflection or reflection. As shown in Figure 3, the geometry transmittance may, in particular, be favored in the case of substance (112) which will be monitored includes at least one of the solutions (114) as indicated above in more detail. Here, the arrangement for the transmittance geometry may, preferably, be designated to guides the light through a thickness d layer of substance (112) that will monitored, specifically at 0.1 mm, preferably at 0.2 mm, preferably 0.5 mm, up to 5 mm, preferably up to 2.5 mm, preferably up to 2 mm, specifically up to 1 mm. At example embodiment of Figure 3, optical measurement location provided by the gap (220) in the seat (210), which defines the thickness of the layer of substance (112) to be monitored. However, in the case of substances (112) that will be monitored include waste materials, geometry reflections, such as attenuated total reflection geometry, can be more liked. In the preferred embodiment as depicted in Figure 3, the arrangement for the optical quarry (120), designated for optical measurements in transmittance geometry, first tube (212) designated to receive the first connection (222) while the tube second (214) is designated to receive the second connection (224). Here, the first connection (222) is provided between the optical measurement locations and an optical spectrometer (130) to guide the optical signal, which measured by the optical quart (120) at the optical measurement location, while a second connection (224) is provided between the light sources (132) and optical measurement location to guide light to the location optical measurements. Here, the connection (222, 224) can, preferably, in the form of cable-bound connections, especially optical waveguides, however, a wireless connection can, alternatively or as a addition, is also used. Connections (222, 224) can be attached to connection branch (126) as mentioned above in connection with with in Figures 1 and 2 by using the seal (226) which adapted and the corresponding coupler 228 as such illustrated as an example in Figure 3. However, more types further attachment may also be possible. In addition, the optical quarry (120) may include additional sensors (not shown here), which can be designated to measure information related to the additional substances of at least one such substance (112) which is further related to it in addition to at least one piece of information about at least one of the substances (112) obtained by using an optical spectrometer (130). Here, the information that related to further substances, preferably selected from at least one of temperature, density, flux, conductivity, viscosity, electromagnetic field, dielectric constant, index bias, luminescence, phosphorescence, magnetization value, pH value, buffer capacity, acid value, zeta-potential. However, the type of further information related to additives may also be possible. Here, additional sensors may, preferably, attached to the stand 210, where the lead is for power supply or hard read of data can, preferably, be guided through at least one of the first tube (212) and the second tube (214). In addition, further elements can be attached to optical quasar (120) is possible. It is indicated here that, regardless of the embodiment of the example monitoring system (110) according to the present invention as shown in Figure 1 or 2, a further embodiment of the system monitoring (110) may also be possible. Figure 4 illustrates, in a very schematic way, computer-implemented method (310) for 1-in-1 monitoring Situ substance (112), wherein is a method (310) for in-situ monitoring of the substance (112) includes the method steps (312) implemented computer to operate communication systems (140). In the reference acquisition step (314) according to step (1), at least one optical reference spectrum from at least one sample reference is obtained. As described above in more detail, each reference sample includes the substance (112) to be monitored, in where reference analytical data is assigned to each reference sample. For this purpose, at least one such optical reference spectrum can, in particular, be obtained by measuring at least one optical reference sample with the same system type (110) for in-situ monitoring of substance 112, preferably at the same temperature. Alternatively, at least one such optical reference spectrum can be set for at least one of the temperature effects known or known deviation from at least one of the optical spectrometer (130) or optical quartz (120). Furthermore, reference spectral information is derived in the reference acquisition step (314) of at least one such optical reference spectrum from at least one reference sample and, preferably, stored together with reference analytical data on the first data storage device (162) server first (146) to be provided to the cloud server (144) via first communication interface (156). In acquisition step (316) according to step (11), at least one optical spectrum of the substance (112) obtained in-situ by an optical spectrometer (130), preferably using a quartz optical (120), as described above in more detail. In Here, the desired spectral information is derived from at least one optical spectrum of the substance (112). In operation step 318 according to step (iii), step method (312) for operating the communication system (140), preferably to operate the communication system (140) as described above in more detail, is carried out. D1 here, in reference step (320) according to step a), reference spectral information referring to at least one sample such reference and reference analytical data as provided by the first server (146) is guided, as described above in more detail, through the first communication interface (156) to cloud servers (144). As indicated above, at least one of the cloud servers (144) or at least one storage device cloud data (168) can be used as data storage capacity to store reference spectral information and reference analytical data, specifically for use later in step b) below. In the calibration step (322) according to step b), the model calibration is generated on the cloud server (144) using reference spectral information referring to at least one sample such reference and analytical data of the reference as provided to the cloud server (144) in the referencing step (320). Such that described above in more detail, the calibration model includes at least one parameter that can be, preferably, determined by using the computing power as provided by cloud servers (144) and, if required, stored on at least one of the cloud servers (144) or at least one storage device cloud data (168), specifically for late use in step c) below. In the provision step (324) according to step c), the information spectral is provided from at least one second server (158, 158”) to the cloud server (144). As described above in more detail detailed, spectral information is provided by each of the two servers (148, 148'), from where the information can be guided to the cloud server (144) on a direct route via at least one second communication interface (158, 158") as illustrated schematically in Figure 1, or on an indirect route which involving at least one second communication interface (158, 158"), the first server (146), and the fourth communication interface (194) as schematically depicted in Figure 2. On the route no directly, spectral information can pass through the first server (146) with or without deploying any application to the information spectral. As described above, spectral information can, preferably, be stored on cloud servers (144), specifically for direct use in the following step d). However, spectral information can also be stored in at least one device cloud data storage (168). In the parameterization step (326) according to step d), the model calibration is applied on the cloud server (144) to the information spectral. In this way, at least one value for at least one such parameter is extracted from the spectral information certain, preferably using computing power such as that provided by the cloud server 144, which is for such purposes reference spectral information referring to at least one sample the reference and the reference analytical data, which are stored at least one of the cloud servers (144) or, preferably, at least one device cloud data storage (168), used. Preferably, at least one the parameters as extracted from the information certain spectral, can be stored on cloud servers (144), in a specifically for direct use in the following step e). In the supply step (328) according to step e), at least one such value for at least one such parameter supplied, preferably directly from the cloud server (144), to the server first (146) using the first communication interface (156). As indicated above, the first server (146) may, preferably, include a first processing unit (164), where where at least one of these values ​​is for at least one these parameters can, preferably, be saved, specifically for direct use in the following £) steps. In the determining step (330) according to step £), data treatment is determined, preferred on the first server (146), with use at least one of those values ​​for at least one such parameters as provided by the cloud server (144) to the first server (146) via the first communication interface (156) and, preferably, reference spectral information referring to at least one such reference sample and the reference analytical data as provided by the first data storage device 162. For the purpose of In this case, the first processing unit (164) may, preferably, be used as indicated above in more detail. In information step (332) according to step 9g), data treatment is provided from the first server (146) through at least one third communication interface (160, 160') to at least one third server (150, 150'). For this purpose, at least one server third (150, 150”) can drive the monitor (172), which can play a role as the designated user interface to display at least one piece of information (174) related to the data treatment to users. Alternatively or in addition, mobile communication device (176) can act as an interface user. Alternatively or in addition, loudspeakers sound (178) can provide at least one piece of information (174) to the user acoustically. As an alternative or as Additionally, at least one third server (150, 150”) may be designated to provide treatment data to treatment unit 180 such as described above in more detail, as illustrated schematically in Figures 1 and 2. As an alternative or as Additionally, at least one third server (150, 150") may be designated to provide treatment data to at least one system simulation as further described above. In treatment step (334) according to step (iv), substance (112), thus, it is treated according to the treatment data by at least one of the users or treatment units (180). Figure 5 illustrates an example of induced shear. temperature in the absorbance spectrum which has the number waves of 7000 cm: to 8000 cm1. As depicted there, the value for the absorbance of the substance (112), which defined as 1 minus the transmittance value of the substance (112), in In general, it varies with the flow cell temperature at which the absorbance is substance (112) is measured. Therefore, it is preferred to perform measurement of the absorbance of a substance (112) at or near the temperature space to minimize the influence of temperature on measurement results. Figures 6 to 8 each illustrate a diagram which presents reference spectral information and reference analytical data for a particular substance (112) to be used in the calibration model corresponding. Here Figure 6 refers to content measurements alr, Figure / refers to the measurement of MDEA content, and Figure 8 refers to the measurement of piperazine content, respectively. In each horizontal axis diagram represents the content which is actually measured in terms of the weight of the corresponding substance (112). while the vertical axis represents the average prediction obtained on a reference test set that includes a number of reference samples. The error bars attached to the samples represent the deviations. prediction standards. Reference Number Description 110 112 114 116 118 120 122 124 126 128 130 132 134 136 138 140 142 144 146 148 150 152 154 156 158 160 162 164 166 168 170 172 174 176 178 monitoring system substance solution receptacle level optical quarry wall base connection optical waveguide optical spectrometer light source dispersive elements detector array evaluation unit communication system long dotted line cloud server first server second server third server partner data transfer unit first communication interface second communication interface third communication interface first data storage device first processing unit second data storage device cloud data storage tools cloud monitor information item mobile communication devices loudspeaker 180 182 184 186 188 190 192 194 196 198 199 210 212 214 216 218 220 222 224 226 228 310 312 314 316 318 320 322 324 326 328 330 332 334 treatment unit connection storage containers waste container used fluids valve temperature control unit fourth communication interface second processing unit additional servers additional interfaces seat first tube second tube screw screw gap first connection second connection sealer coupler implemented methods in-situ monitoring of substances implemented methods operate communication systems reference acquisition steps acquisition steps operational steps reference steps calibration steps provision steps parameterization steps supply steps decisive steps information steps treatment steps computer computer For For

Claims

1, A communication system (140), a communication system (140) which includes a cloud server (144), a first server (146), at least one second server (148, 148'), and at least one third server (150, 150”): where the first server (146) further has an interface first communication (156) configured to provide reference spectral information referring to at least one sample reference and analytical data reference to cloud server (144): where each of the two servers (148, 148') has an interface second communication (158, 158") configured to provide spectral information associated with at least one substance (112) to cloud server (1441): where the cloud server (144) is configured to generate calibration models using information reference spectral reference to at least one reference sample and reference analytical data provided by the server first (146), where the calibration model includes at least one parameter: applying a calibration model to the spectral information related to at least one of the substances (112) which provided by the second server (148, 148'), where at least one the value for at least one of these parameters is extracted: provide at least one such value for at least one such parameter to the first server (146) via the interface first communication (156): where the first server (146) further configuration for determine treatment data using at least one value for at least one of the parameters provided by the cloud server 144, where the treatment data includes at least a piece of data related to the proposed treatment of at least one of the substances (112), where the first server (146) further has at least one third communication interface (160, 160'), where each the third communication interface (160, 160”) is configured for providing treatment data to at least one third server (150, 150”).

2. A communication system (140) according to the preceding claims, wherein the second communication interface (158, 158') is configured for provide spectral information directly or indirectly directly to the cloud server (144), where the spectral information provided indirectly to the cloud server 144 with provides spectral information to the first server (146), where the first server (146) further has a communication interface fourth (194) configured to provide information spectral from the first server to the cloud server (144).

3. Communication system (140) according to one of the claims previously, where the third server (150, 150") covers or spurs a user interface designated to display at least one information items related to treatment data users.

4. Communication system (140) according to one of the claims previously, where a third server (150, 150”) was designated for provide treatment data to at least one of the treatment units (180) or simulation system.

5. Communication system (140) according to one of the claims previously, where the second server (148, 148') and the third server (150, 150”) integrated into a single unit.

6. A monitoring system (110) for in-situ monitoring of at least one substance used in the gas cleaning process, monitoring system (110) which includes: communication system (140) according to one of the claims previously: optical spectrometer (130) designated for obtain spectral information related to at least one of the substances (112), provide spectral information to at least one server.

1. A monitoring system (110) according to the preceding claims, wherein optical spectrometer (130) is designated to provide information spectral associated with at least one substance (112) to at least one second server (148, 148') which is arranged by the communication system (140).

8. Monitoring system (110) according to one of the two claims previously, further includes at least one of: at least one light source (132) designated for irradiate at least part of at least one substance (112) the: optical quartz (120) designated for measuring optical signals which relates to at least one of the substances (112): the first connection (126, 222) between the optical quasar (120) and optical spectrometer (130) designated to guide the optical signal measured to the optical spectrometer (130): second connection (126, 224) between the light source (132) and optical quarry (120) designated to guide light to the optical quarry (120): data transfer unit (154) designated for connection between Optical spectrometer (130) and second server (148, 148'). 9, The monitoring system (110) according to the preceding claims, wherein second server (148, 148'), optical spectrometer (130) and unit data transfer (154) is integrated into a single unit.

10. Monitoring system (110) according to one of the two claims previously, where at least one of the first connections (126, 222) and the second connection (126, 224) includes an optical waveguide (128).

11. Monitoring system (110) according to one of the three claims previously, wherein the optical quarry (120) includes an arrangement for at least one of transmittance geometry, transflection geometry, or reflection geometry.

12. A computer-implemented method (310) for operating communication systems (140), communication systems (140) which includes cloud servers (144), first servers (146), at least one second server (148, 148'), and at least one third server (150, 150”), wherein the method (310) includes the following steps: provides reference spectral information that refers to at least one reference sample and reference analytical data from the server first (146) via the first communication interface (156) to the server cloud (144): generate calibration models on cloud servers (144) with using reference spectral information that refers to at least one reference sample and reference analytical data, where the calibration model includes at least one parameter: provides spectral information related to at least one substance (112) from the second server (148, 148') through second communication interface (158, 158') to cloud server (144): applying the calibration model on the cloud server (144) to spectral information associated with at least one substance (112), where at least one value for at least one such parameter is extracted: provide at least one such value for at least one such parameter to the first server (146) via the interface first communication (156): determine treatment data by using at least one the value for at least one of these parameters that provided by the cloud server 144 to the first server 146, where treatment data includes at least one piece of data that related to the proposed treatment of at least one the substance (112): provides treatment data from the first server (146) via third communication interface (160, 160') to the third server (150, 150”).

13. The method (310) according to the preceding claims, wherein the information spectral is provided directly or indirectly to cloud server (144), where spectral information is provided online. indirectly to the cloud server (144) by providing information spectral to the first server (146) and provides information spectral from the first server (146) to the cloud server (144) via the fourth communication interface (194) which is further composed by first server (146).

14. A computer-implemented method (312) for in-situ monitoring of at least one substance (112) used in a gas cleaning process, wherein the method (312) includes the step of following: obtain at least one optical reference spectrum from at least one reference sample, where each reference sample includes at least one of the substances (112) to be monitored, in where reference analytical data is assigned to each reference sample, and derive reference spectral information that refers to at least one such reference sample from at least one reference spectrum the optics: obtain at least one optical spectrum from at least one substance (112) is 1in-situ, and derives information spectral associated with at least one substance (112) in-situ from at least one of these optical spectra: performing the method steps (310) according to the prior art claims refers to a computer-implemented method (310) for operating communication systems (140): treat at least one of the substances (112) in accordance with with treatment data.

15. The method (312) according to the preceding claims, wherein at least one piece of information related to treatment data at least one of which is displayed to the user through the interface user, or provided to at least one of the treatment units (180) or simulation system.

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