Real-time management of analyte recovery

Abstract

Embodiments provide a method for real-time management of analyte recovery within a system by monitoring signals from the system against a set of conditions, the system for measuring at least one parameter of a fluid within the system, the method comprising: receiving a signal from the system providing information about the system, wherein the system comprises at least one reagent, the reagent flowing into the system and recovering an analyte within the fluid, wherein the analyte provides an indication of a value of the at least one parameter; identifying, by analyzing the signal, whether the analyte recovery of the system satisfies a set of conditions, the set of conditions identifying a desired analyte recovery of the system; and modifying, based on the analyte recovery not satisfying the set of conditions, a condition of the system for recovering the analyte, wherein the modifying comprises adjusting at least one parameter of the system.

Description

[0001] Cross-references to related applications

[0002] This application claims priority to U.S. Patent Application Serial No. 17 / 174,972, entitled “Real-time Management of Analyte Recovery”, filed on February 12, 2021, the contents of which are incorporated herein by reference. Technical Field

[0003] This application generally relates to systems for measuring parameters in fluids, and more specifically, to the real-time management of analyte recovery within the system. Background Technology

[0004] Ensuring water quality is crucial in many industries, such as pharmaceuticals and other manufacturing sectors. Furthermore, ensuring water quality is essential for the health and well-being of humans, animals, and plants that depend on water for survival. To determine water quality, various parameters of the water are measured. Similarly, devices or systems can be used to measure various parameters of any fluid. Because different devices can measure different parameters, measurement data from each device are combined to determine the overall quality of the fluid or other multi-parameter measurements or values. Summary of the Invention

[0005] One embodiment provides a method for real-time management of analyte recovery within a system by monitoring signals from a system against a set of conditions, the system being used to measure at least one parameter of a fluid within the system, the method comprising: receiving from the system a signal providing information about the system, wherein the system includes at least one reagent flowing into the system and recovering an analyte within the fluid, wherein the analyte provides an indication of the value of the at least one parameter; identifying, by analyzing the signal, whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying desired analyte recovery of the system; and modifying the conditions of the system for analyte recovery based on the analyte recovery not satisfying the set of conditions, wherein the modification includes adjusting at least one parameter of the system.

[0006] Another embodiment provides a system for real-time management of analyte recovery within a system by monitoring signals from the system against a set of conditions, the system for measuring at least one parameter of a fluid within the system, the system comprising: at least one reagent, the reagent flowing into the system; a memory storing instructions executable by a processor to: receive, from the system, signals providing information about the system, wherein the system recovers an analyte within the fluid, wherein the analyte provides an indication of a value of the at least one parameter; identify, by analyzing the signals, whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying a desired analyte recovery of the system; and modify, based on the analyte recovery not satisfying the set of conditions, conditions of the system for recovering analyte, wherein the modifying comprises adjusting at least one parameter of the system.

[0007] Yet another embodiment provides a computer program product for real-time management of analyte recovery within a system by monitoring signals from the system against a set of conditions, the system for measuring at least one parameter of a fluid within the system, the computer program product comprising: a storage device having code stored therein, the code executable by the processor and comprising: code to receive, from the system, signals providing information about the system, wherein the system recovers an analyte within the fluid, wherein the analyte provides an indication of a value of the at least one parameter; code to identify, by analyzing the signals, whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying a desired analyte recovery of the system; and code to modify, based on the analyte recovery not satisfying the set of conditions, conditions of the system for recovering analyte, wherein the modifying comprises adjusting at least one parameter of the system.

[0008] The foregoing is a summary and thus can contain simplifications, generalizations, and omissions of detail; consequently, those skilled in the art will appreciate that the summary is illustrative only and is not intended to be in any way limiting.

[0009] For a better understanding of the embodiments, and to show how the same can be carried into effect, reference will now be made, purely by way of example, to the accompanying drawings. The scope of the application is set out in the accompanying claims. BRIEF DESCRIPTION OF DRAWINGS

[0010] Figure 1 An exemplary method for real-time management of analyte recovery within a system by monitoring signals from the system against a set of conditions, the system for measuring at least one parameter of a fluid within the system, is shown.

[0011] Figure 2 An exemplary system diagram of an exemplary embodiment of the described system is shown.

[0012] Figure 3 Examples of computer circuitry are shown. DETAILED DESCRIPTION

[0013] It will be readily understood that the components of the embodiments, as generally described and illustrated in the figures herein, can be arranged and designed in a wide variety of different configurations. Thus, the following more detailed description of the example embodiments, as represented in the figures, is not intended to limit scope, as claimed, of the embodiments, but is merely representative of

[0014] The following detailed description is presented in terms of a number of specific examples showing examples of devices, methods, and procedures. These examples are not intended to limit the scope of the present disclosure, but rather to illustrate various aspects of the disclosure. Skilled persons will recognize from the following description that substitutions and alterations are within the scope of the present disclosure. The terms "one embodiment" or "an embodiment" as used herein convey the meaning that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment. Thus, the appearances of the phrases "in one embodiment" or "in an embodiment" or similar phrases in various places throughout this specification are not necessarily all referring to the same embodiment.

[0015] Furthermore, the described features, structures, or characteristics can be combined in any suitable manner in one or more embodiments. In the following description, numerous specific details are provided to give a thorough understanding of embodiments. One skilled in relevant art will recognize, however, that the various embodiments can be practiced without one or more of the specific details, or with other methods, components, materials, etc. In other instances, well-known structures, materials, or operations are not shown or described in detail to avoid obscuring aspects of the embodiments.

[0016] A device is used to measure a parameter of a fluid. For example, a fluid can flow through a cabinet or cartridge (for ease of readability, referred to herein as a system), and different parameters affecting the quality of the fluid can be measured using the system. In some cases, multiple parameters affecting the quality of the fluid can be measured. Alternatively, the system can measure a single parameter of the fluid. To aid in measuring the parameter, the system utilizes one or more reagents added to the fluid in order to produce a measurable entity that will produce a signal corresponding to an analyte within the fluid. The analyte is measured and can be correlated to a value of the parameter within the fluid. This type of system is one that is typically used to measure more than one analyte, even in the case where a single parameter of the fluid is measured. To measure more than one analyte, the system typically uses more than one reagent, each reagent corresponding to one of the analytes being measured. Within the system, the volume of the reagents is typically the same, held at the same pressure, the same temperature, etc.

[0017] While the idea behind such systems is to be able to achieve optimal recovery of all analytes being measured, this often does not occur. Instead, the recovery of one analyte within a fluid can be better than the recovery of another analyte within the fluid. The recovery of one analyte can be affected for a variety of reasons. For example, reactions between reagents and the fluid and / or analytes within the fluid can result in byproducts, intermediates, etc. that interfere with the reactions of other reagents with the analytes within the fluid. As another example, different reagents and / or analytes can cause side reactions, interactions between analytes, and / or the like, which affect the recovery performance of one analyte relative to another analyte. Conventionally, there is no technique or system that can address the imbalance in analyte recovery.

[0018] Accordingly, embodiments provide a system and method for real-time management of analyte recovery within a system by monitoring signals from the system against a set of conditions, the system for measuring at least one parameter of a fluid within the system. The system receives signals from the system that provide information about the system. For example, the signals can identify reagent consumption, system temperature, chamber conditions, analytes, signal growth rate, etc. From these signals, the system can determine whether the analyte recovery of the system satisfies a set of conditions that indicate whether there is an imbalance in the analyte recovery of the system. If there is an imbalance in the analyte recovery, the system can modify an operating condition or parameter of the system, e.g., a property of one or more reagents, a variable of the system, or the like, in order to correct the imbalance in the analyte recovery.

[0019] Accordingly, the described system and method provide a technique to address the imbalance in analyte recovery in a system that is not possible using conventional techniques. Moreover, the system monitors the analyte recovery as it is being performed, so that modifications can be made to the system in real-time. This prevents the analyte recovery within the fluid from being inaccurate or affected. As the analyte recovery is no longer affected or inaccurate, the described system and method provide a more accurate measurement of the desired parameters of the fluid.

[0020] The illustrated example embodiments will be best understood by reference to the accompanying drawings. The following description is merely intended to exemplify certain example embodiments.

[0021] Figure 1An example is shown of real-time management of analyte recovery within a system for measuring at least one parameter of a fluid within the system by monitoring signals from the system against a set of control conditions. At 101, the system receives signals from a system that measures at least one parameter of a fluid introduced into the system. The system includes at least one reagent introduced into the fluid to generate a signal resulting from a reaction between the reagent and an analyte that can be measured and then correlated to the at least one parameter. For example, the system can be a colorimetric system that uses a reagent that causes a colorimetric change in the fluid. By way of example only, some suitable analytes include (1) N,N-diethyl-p-phenylenediamine radical (a magenta-colored Wurster dye formed by reaction of a DPD reagent with the parameter chlorine); (2) vanadomolybdom phosphoric acid (a yellow inorganic complex formed by reaction of a molybdate vanadate reagent with the parameter phosphorus); (3) a diazotized salt of chromotropic acid (a pink complex formed by reaction of a p-aminobenzenesulfonic acid reagent with the nitrite parameter); (4) carbon dioxide (formed by reaction of an ozone, manganese reagent with the organic carbon parameter); (5) nitrate (formed by reaction of an ozone, manganese reagent with the total nitrogen parameter), etc.

[0022] The system can measure a color change or provide an optical signal in the infrared or ultraviolet region of the electromagnetic spectrum (i.e., the analyte in the present example) that can be correlated to a measurement of a parameter (e.g., chlorine, nitrogen, etc.) in the fluid. By way of example only, other suitable parameters can include phosphates, chlorine, nitrites, total organic carbon, total nitrogen, etc. To help with understanding, the analyte is a compound formed by a reaction between the desired determined parameter and a reagent. The parameter is the ultimate deciding factor for the value provided to the customer that needs to be converted into an analyte in an analytical procedure involving a chemical reaction due to the lack of a physical scientific method to determine the parameter on its own without any reagent or chemical reaction. Thus, the system recovers the analyte within the fluid from the signal(s) resulting from the reaction between the reagent(s) and the parameter within the fluid. The analyte(s) can be measured and then can be correlated to the value of the parameter. Thus, the recovered analyte(s) provide an indication of the value of the parameter(s) within the fluid.

[0023] As an example use case that will be referenced throughout this disclosure, the system can be a system that measures both total nitrogen and total organic carbon (TN and TOC) parameters within a fluid simultaneously. In a conventional system, due to cross-reactions, reaction conditions (e.g., reagents, time, temperature, etc.) that are not optimized for simultaneous efficient recovery of both compounds, the kinetics and thermodynamics of compound oxidation are different (e.g., hydroxyl radical oxidation of nitrogen compounds is generally slower than carbonaceous compounds), the oxidation after- products are gaseous (N2, CO2, etc.) and can be lost to the atmosphere, etc., the system does not recover both compounds efficiently. x O YSimultaneous oxidation of nitrogen-containing compounds and carbon-containing compounds in a single reactor chamber can result in suboptimal recovery due to loss of oxidized nitrogen compounds (e.g., gases) due to suboptimal oxidation conditions, lower recovery rates, etc. The described system seeks to overcome these issues to allow for optimal recovery of both parameters simultaneously by using the methods and systems described herein.

[0024] The signals received at 101 can include signals that provide indications about any portion of the system, which can provide indications of how the system is functioning, reagent usage, and / or analyte measurements. In other words, the signals received at 101 can include any signals that provide indications of analyte recovery of the system. For example, the signals can provide indications about properties within the system (e.g., reagent consumption, system temperature, chamber conditions, analytes being measured, signal growth rate, etc.). As another example, the signals can provide indications about feedback from the system, e.g., reagent delivery rate, reagent delivery amount, temperature ramp, reagent concentration, etc. As a final non-limiting example, the signals can provide indications about reagents and / or analytes, e.g., analyte measurements, historical reagent volumes associated with historical analyte values, etc. Using the TN and TOC examples, the signals can provide indications of reagents consumed in the recovery of TN and TOC (which can be based on N2and C measurements), temperature of the system during recovery, historical measurements corresponding to both TN values and TOC values, and conditions of the system that produced these measurements, reagent delivery rate for each of TN recovery and TOC recovery, etc.

[0025] At 102, the system identifies, by analyzing the signals, whether the analyte recovery of the system satisfies a set of conditions, where the set of conditions identifies a desired analyte recovery of the system. A single analyte can also be transformed into multiple or plural analytes. It should be noted that a user of the system can desire a recovery of one analyte to be better than a recovery of another analyte, e.g., based on application, based on overall parameter values or composite indices, etc. Accordingly, the described systems and methods allow the user to configure the analyte recovery as desired, even if the desired configuration of the system does not provide maximum or optimal analyte recovery of all analytes within the fluid.

[0026] Using the TN and TOC example, the user can select to have the most efficient N2recovery, the most efficient C recovery, or can select to have efficient N2and C recovery. The last option will likely result in lower recovery of N2and C than the respective analyte associated with one of the first two options. In other words, selecting efficient N2and C recovery will likely result in lower N2recovery than the N2recovery in the option selecting the most efficient N2recovery. Based on the selected recovery option, the system will utilize algorithms built into the system to provide the best conditions (e.g., temperature, reagent volume, time, etc.) to achieve the desired recovery option. Thus, the system automates the instrument / system by optimizing the recovery method based on the inputs obtained from the customer to meet the user’s requirements on a dynamic basis.

[0027] The set of conditions can identify an expected response of a value of an analyte based on a change in a system parameter (e.g., a reagent parameter, a system variable, etc.). In other words, the set of conditions can identify that a particular change (e.g., increase, decrease, maintain, etc.) in the value of the analyte based on a known or predetermined change in the system provides an indication of how well the analyte is being recovered. Thus, the set of conditions can provide a type of “if / then” condition that identifies that a particular change in the value of the analyte in response to a change in the system indicates whether the analyte recovery meets a desired parameter and, if not, what type of change needs to be made to the system. Since the described system can provide feedback in real-time, the identification of any change can be compared to previous reaction process values. In other words, the system can store measurement values corresponding to previous reaction process runs and then compare subsequent measurement values to those runs to identify changes in the response of the measurement values.

[0028] Referring to the illustration of an example set of conditions Figure 2 wherein Figure 2 Also included are example iterations of the described system and method. The system introduces a fluid or sample containing analyte 1 (Al) (e.g., TN in the TN and TOC example) and analyte 2 (A2) (e.g., TOC in the TN and TOC example) into a measurement system. The reaction process is started upon introduction of a reagent into the sample. The system then measures Al and A2 to determine whether one or both of Al and A2 are present within the sample. If Al and A2 are present, the system increases the amount of reagent 1 (Rl). A new portion of the sample containing Al and A2 is then used and the reaction process is restarted with the new Rl amount. The system measures Al and A2 with the new Rl amount.

[0029] In response to an increase in the amount of Rl, if the measured value of Al increases and the measured value of A2 is held constant compared to the first measured value, this can indicate that the concentration of Rl should be increased. Similarly, if the measured value of Al remains constant and the measured value of A2 increases, this can indicate that the concentration of a second reagent different from Rl should be increased. On the other hand, if both Al and A2 values increase, this can indicate that a different variable Vl of the system should be increased, as discussed in more detail below. If the Al and A2 measured values remain constant in response to changes in reagent concentrations, the system can determine that an analyte measurement value should be reported. In this example, the analyte measurement value is TOC or TN. After any modifications to reagent amounts, concentrations, etc. or another system variable, the system can rerun the reaction process with the modification and determine whether the set of conditions is met.

[0030] It should be understood that Figure 2 The examples shown in FIG. 1 are merely examples, as different sets of conditions identifying different conditions and responses can be implemented. The set of conditions that can be employed can depend on the application, operating conditions, user expectations, etc. Moreover, different modification responses can be taken in response to the same conditions. For example, instead of changing the Rl concentration in response to an increase in the Al value and A2 remaining constant, the system can change the amount of Rl or a different system variable.

[0031] If at 102, the analyte recovery of the system meets a set of conditions or a set of sets of conditions, at 104, the system can report a parameter value from the signal generated by the reaction between the analyte and the reagent under the conditions defined by the system. Reporting an analyte measurement value can include associating the analyte measurement value with a parameter value and then reporting the parameter value to a user. In other words, the analyte measurement value can not be reported to the user, but rather the analyte measurement value can be reported to a user or a different system as a result of the derivation. For example, instead of reporting the parameter value to the user, the parameter value can be reported to a system for determining an overall parameter value, a composite index value, or other multi-parameter value. As indicated above, the parameter value can be derived from or correspond to the analyte measurement value. While the described system can generally relate to a system that provides a multi-parameter value, the described system is not limited as such. Rather, the described system can also be used in applications where only a single parameter is measured and / or reported. Even if only a single parameter is measured, the system can measure multiple analyte values or only a single analyte value.

[0032] On the other hand, if the analyte recovery of the system does not satisfy the desired set of conditions at 102, the system can modify the conditions of the system for recovering the analyte at 103. To change the conditions of the system, and thus the analyte recovery of the system, the system can adjust one or more parameters or variables of the system. Parameters or variables of the system can include reagent parameters, system variables, and the like. Exemplary reagent parameters include reagent concentration, reagent temperature, reagent pressure, reagent volume, reagent amount, and the like. Exemplary system variables include concentration or volume of a buffer, diluent, cleaning solution, or other fluid, system temperature, enablement of a system cleaning cycle, modification of an upstream process, and the like. It should also be understood that multiple system parameters or variables can be modified in response to the analyte recovery not satisfying the desired set of conditions.

[0033] As will be understood from the explanation of Figure 2 The described system and method are an iterative process that can be run and rerun until a desired analyte recovery is achieved, thus optimizing the analyte recovery with respect to the desired analyte recovery, as will be understood from the explanation of Figure 2 The system and method can proceed by starting a reaction process by introducing a fluid sample into the system, identifying an analyte present within the fluid, introducing one or more reagents into the fluid having the analyte, and measuring an analyte value after the introduction of the reagent(s), as described in connection with

[0034] While various other circuits, circuitry, or components can be used in an information processing device, in terms of an instrument for alkalinity measurement according to any one of the various embodiments described herein, Figure 3An example is shown in FIG. 1. Device circuitry 10' can include a measurement system on a chip design base, e.g., a particular computing platform (e.g., mobile computing, desktop computing, etc.). The software and processor(s) are combined in a single chip 11'. The processor includes internal arithmetic units, registers, cache memory, buses, I / O ports, etc., as is well known in the art. The internal buses, etc., are dependent on different vendors, but basically all peripherals (12') can be attached to the single chip 11'. The circuitry 10' combines the processor, memory control, and I / O controller hub all into a single chip 11'. Also, this type of system 10' typically does not use SATA or PCI or LPC. For example, common interfaces include SDIO and I2C.

[0035] There are power management chip(s) 13', e.g., a battery management unit BMU, which manages power provided, e.g., via a rechargeable battery 14' that can be recharged by connection to a power source (not shown). In at least one design, a single chip such as 11' is used to provide BIOS-like functionality and DRAM memory.

[0036] The system 10' typically includes one or more of a WWAN transceiver 15' and a WLAN transceiver 16' for connecting to various networks, such as a telecommunications network and a wireless Internet device, e.g., an access point. Also, there are typically included devices 12', e.g., transmit and receive antennas, oscillators, PLLs, etc. The system 10' includes input / output devices 17' for data input and display / presentation (e.g., at a computing location of the single-beam system that is remote from easy access by a user). The system 10' typically also includes various memory devices, e.g., flash memory 18' and SDRAM 19'.

[0037] From the foregoing, it will be appreciated that the electronic components of one or more systems or devices can include, without limitation, at least one processing unit, memory, and a communication bus or communication means coupling various components including the memory to the processing unit(s). The system or device can include or can be in communication with one or more devices readable media. The system memory can include device readable storage media in the form of volatile and / or nonvolatile memory such as read only memory (ROM) and / or random access memory (RAM). By way of example, and without limitation, the system memory can additionally include an operating system, application programs, other program modules, and program data.

[0038] Embodiments can be implemented as an apparatus, a system, a method or a program product. Thus, embodiments can take the form of an entirely hardware embodiment, or an embodiment including software (including firmware, resident software, microcode, etc.) that can be referred to herein as a "circuit," "module" or "system." Furthermore, embodiments can take the form of a program product embodied in at least one device readable medium having device readable program code embodied therewith.

[0039] Combinations of the above can be employed. In the context of this document, a device readable storage medium (or device readable storage media) can be any tangible, non-signal medium that can contain or store program code for use by or in connection with an instruction execution system, apparatus or device. For the purpose of this disclosure, a storage medium or device is considered non-transitory if it is not a signal or a medium that carries a signal.

[0040] This disclosure is presented to illustrate and describe the present embodiments and is not intended to be exhaustive or to limit the scope of the disclosure. Many modifications and variations are possible in light of the above teachings. Selected and described embodiments were chosen for purposes of illustration and

[0041] Thus, although exemplary embodiments have been described herein with reference to the accompanying drawings, it is to be understood that the description is not limiting and that various other changes and modifications can be affected therein by one skilled in the art without departing from the scope or spirit of the disclosure.

Claims

1. A method for real-time management of analyte recovery within a system by monitoring signals from a system using a set of control conditions, the system being used to measure at least one parameter of a fluid within the system, the method comprising: Receive a signal from the system that provides information about the system, wherein the system includes at least one reagent that flows into the system and recovers an analyte within the fluid, wherein the analyte provides an indication of the value of the at least one parameter; By analyzing the signal, it is identified whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying the desired analyte recovery options of the system, wherein the set of conditions includes at least one of the analytes for which recovery is to be optimized. and Based on the fact that the recovery of the analyte does not meet the set of conditions, and using at least one algorithm that identifies the conditions of the system for recovering at least one of the analytes, the configuration of the system for recovering at least one of the analytes is modified, wherein the modification includes adjusting at least one parameter of the system.

2. The method according to claim 1, wherein, The identification includes identifying that the analyte recovery does not meet the set of conditions by identifying that, after increasing the volume of the at least one reagent, the value of at least one of the analytes increases and the value of at least another of the analytes remains unchanged.

3. The method according to claim 2, wherein, Adjusting at least one parameter of the system includes adjusting the parameters of the at least one reagent.

4. The method according to claim 1, wherein, The identification includes identifying that the analyte recovery does not meet the set of conditions by identifying an increase in the value of at least one of the analytes and an increase in the value of at least another of the analytes after increasing the volume of the at least one reagent.

5. The method according to claim 4, wherein, Adjusting at least one parameter includes adjusting the variables of the system.

6. The method according to claim 1, wherein, The identification includes identifying that the analyte recovery satisfies the set of conditions by identifying that, after increasing the volume of the at least one reagent, the value of at least one of the analytes is maintained and the value of at least another of the analytes is maintained.

7. The method of claim 6, further comprising reporting the at least one parameter derived from the value of the at least one of the analytes and the value of the at least other of the analytes.

8. The method of claim 1, comprising initiating a reaction process, identifying the presence of the analyte in the fluid, and introducing the at least one reagent into the fluid containing the analyte, the reaction process comprising introducing the fluid into the system; and in, The identification response is based on the measurement value of the analyte after the introduction of the at least one reagent.

9. The method of claim 8, further comprising rerunning the reaction process and modifying the analyte recovery in response to identifying, based on a measurement of the value, that the analyte recovery does not meet the set of conditions.

10. The method according to claim 1, wherein, The system measures multiple parameters of the fluid; The parameters include total nitrogen and total organic carbon; and The set of conditions is selected from the group consisting of the following items: most efficient N2 recycling, most efficient C recycling, and efficient N2 and C recycling.

11. A system for real-time management of analyte recovery within a system by monitoring signals from the system using a set of control conditions, the system being used to measure at least one parameter of a fluid within the system, the system comprising: At least one reagent, said reagent flowing into said system; A memory that stores instructions that can be executed by a processor to: Receive a signal from the system that provides information about the system, wherein the system recovers analytes from the fluid, wherein the analytes provide an indication of the value of at least one parameter; By analyzing the signal, it is identified whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying the desired analyte recovery options of the system, wherein the set of conditions includes at least one of the analytes for which recovery is to be optimized. and Based on the fact that the recovery of the analyte does not meet the set of conditions, and using at least one algorithm that identifies the conditions of the system for recovering at least one of the analytes, the configuration of the system for recovering at least one of the analytes is modified, wherein the modification includes adjusting at least one parameter of the system.

12. The system according to claim 11, wherein, The identification includes identifying that the analyte recovery does not meet the set of conditions by identifying that, after increasing the volume of the at least one reagent, the value of at least one of the analytes increases and the value of at least another of the analytes remains unchanged.

13. The system according to claim 12, wherein, Adjusting at least one parameter of the system includes adjusting the parameters of the at least one reagent.

14. The system according to claim 11, wherein, The identification includes identifying that the analyte recovery does not meet the set of conditions by identifying an increase in the value of at least one of the analytes and an increase in the value of at least another of the analytes after increasing the volume of the at least one reagent.

15. The system according to claim 14, wherein, Adjusting at least one parameter includes adjusting the variables of the system.

16. The system according to claim 11, wherein, The identification includes identifying that the analyte recovery satisfies the set of conditions by identifying that, after increasing the volume of the at least one reagent, the value of at least one of the analytes is maintained and the value of at least another of the analytes is maintained.

17. The system of claim 16, further comprising reporting the at least one parameter derived from the value of the at least one of the analytes and the value of the at least other of the analytes.

18. The system of claim 11, comprising initiating a reaction process, identifying the presence of the analyte in the fluid, and introducing the at least one reagent into the fluid containing the analyte, the reaction process comprising introducing the fluid into the system; and in, The identification response is based on the measurement value of the analyte after the introduction of the at least one reagent.

19. The system of claim 18, further comprising rerunning the reaction process and modifying the analyte recovery in response to identifying, based on a measurement of the value, that the analyte recovery does not meet the set of conditions.

20. A computer program product for real-time management of analyte recovery within a system by monitoring signals from a system using a set of control conditions, the system being used to measure at least one parameter of a fluid within the system, the computer program product comprising: A storage device having code stored therein, the code being executable by a processor and including: The system receives a code that provides a signal about the system, wherein the system recovers an analyte from the fluid, wherein the analyte provides an indication of the value of at least one parameter; By analyzing the signal, a code is identified to determine whether the analyte recovery of the system satisfies the set of conditions, the set of conditions identifying the desired analyte recovery options for the system, wherein the set of conditions includes identifying at least one of the analytes for which recovery is optimized; and Based on the fact that the analyte recovery does not meet the set of conditions, and using at least one algorithm that identifies the conditions for the system to recover at least one of the analytes, the system's configuration code for recovering at least one of the analytes is modified, wherein the modification includes adjusting at least one parameter of the system.

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