INTERFEROMETRIC DETECTION AND QUANTIFICATION SYSTEM AND METHODS OF USE

Abstract

A point-of-care analyte detection and quantification system is provided. Related methods are also provided.

Description

INTERFEROMETRIC DETECTION AND QUANTIFICATION SYSTEM AND METHODS OF USE RAOznn / eznz / E / YiAi Background of the Invention Pathological and chemical contamination is a problem for all industries. With increasing understanding of global pandemics, public awareness of the presence of pathogens or harmful chemicals in, on or around the body of mammals has become a serious concern. There is also more public awareness of beneficial microbes in the body and in the environment. There is also a need for efficient and high-performance in vitro diagnostic systems that can provide users with information related to qualitative and quantitative data for a variety of pathogens or chemical contaminants in a single test sample. Summary of the Invention A portable interferometric system is provided for the detection and quantification of an analyte within a test sample composition. The system includes an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit within a housing unit; and a cartridge system adapted to be inserted into the housing Ref. 343663 and removed after one or more uses. The cartridge system comprising an interferometric chip and a flow cell wafer. The interferometric chip includes one or more waveguide channels having a detection layer thereon, the detection layer being adapted to bind or otherwise be selectively perturbed by one or more analytes within the test sample composition. . According to one embodiment, the housing is sized and shaped to fit in the user's hand. According to one embodiment, the portable interferometric system further includes at least one display unit. According to one embodiment, the portable interferometric system includes an external camera, the external camera being adapted to capture a photo or video. According to one embodiment, the interferometric system includes alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. According to one embodiment, the detection layer comprises one or more antigens, antibodies, aptamers, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids or molecularly imprinted polymers, or immunoglobulins suitable for binding one or more analytes within a test sample composition. According to one embodiment, the system is configured to analyze light signals from two or more waveguide channels to RAOznn / eznz / E / YiAi detect the presence of an analyte which individual waveguides could not have detected alone. According to one embodiment, the one or more waveguide flow channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide flow channel. According to one embodiment, the responsive layer is configured to bind one or more chemicals, antibodies, virus antigens, virus proteins, bacteria, fungi, pathogens, RNA, mRNA, plant growth regulators, metal or any combination of the same. According to one embodiment, the portable interferometric system has a downstream analyte detection limit of up to about 1.0 picogram / L. According to one embodiment, the portable interferometric system has an analyte detection limit of up to about 1000 pfu / ml. According to one embodiment, wherein the detector unit has a sensitivity of at least 2 pixels per pair of diffraction lines. According to one embodiment, the portable interferometric system further includes a location means adapted to determine the physical location of the system. A method is provided for detecting and quantifying the level of analyte in a test sample composition. The method includes the steps of: RAOznn / cznz / E / YiAi collect a target sample containing one or more analytes; optionally enter an ID associated with the target sample; introducing the target sample into a portable interferometric system as indicated here; optionally, mixing the target sample with a buffer solution to form a test sample composition; initiating waveguide interferometry on the test sample composition; process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. According to one embodiment, the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. According to one embodiment, the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Brief Description of the Figures Figure 1 illustrates a perspective view of one embodiment of a portable interferometric system as provided herein. RAOznn / eznz / E / YiAi Figure 2A illustrates a front view of one embodiment of a portable interferometric system as provided herein. Figure 2B illustrates a rear view of one embodiment of a portable interferometric system as provided herein. Figure 3A illustrates a cross-sectional view of an interferometric chip that can be integrated into a cartridge system as provided here. Figure 3B illustrates a bottom view of a flow cell wafer having a coil-shaped detection microchannel. Figure 3C illustrates a top view of a chip illustrating the movement of a light signal across the chip. Figure 4 illustrates a side view of one embodiment of an optical assembly typically found in the portable interferometric system of Figure 1. Figure 5A illustrates a cross-sectional view of the optical assembly of Figure 4. Figure 5B illustrates an alignment means according to one embodiment. Figure 5C illustrates an embodiment of a top view of the optical assembly and alignment means. Figure 6 illustrates the cross-sectional view of the optical assembly of Figure 5A with one embodiment of a RAOznn / eznz / E / YiAi cartridge inserted into the optical assembly. Figure 7 illustrates a top view of the optical assembly of Figure 5A with one embodiment of a cartridge system inserted into the optical assembly. Figure 8A illustrates a top surface view of one embodiment of a single-use cartridge system. Figure 8B illustrates a bottom surface view of one embodiment of a single-use cartridge system. Figure 8C illustrates a back surface view of one embodiment of a single-use cartridge system. Figure 8D illustrates a front surface view of one embodiment of a single-use cartridge system. Figure 8E illustrates a side surface view of one embodiment of a single-use cartridge system. Figure 8F illustrates a cross-sectional view (looking downward) of a single-use cartridge system along the horizontal line of Figure 8E. Figure 9A illustrates a top surface view of one embodiment of a multi-use cartridge system. Figure 9B illustrates a bottom surface view of one embodiment of a multi-use cartridge system. Figure 9C illustrates a view of the rear surface of one embodiment of a cartridge system RAOznn / eznz / E / YiAi multiple uses. Figure 9D illustrates a front surface view of one embodiment of a multi-use cartridge system. Figure 9E illustrates a side surface view of one embodiment of a multi-use cartridge system. Figure 9F illustrates a cross-sectional view (looking downward) of one embodiment of a multi-use cartridge system along the horizontal line of Figure 9E. Figure 10 illustrates a perspective view of an alternative single-use cartridge system. Figure 11 illustrates a method for detecting and quantifying the level of the analyte in a test sample composition. Figure 12A illustrates a quantification and monitoring system for analytes within an aqueous target sample from a rinse sink. Figure 12B illustrates a system for quantifying and monitoring analytes within an aqueous target sample from an aspiration line. Detailed description of the invention One or more aspects and modalities may be incorporated into a different modality, even if they are not specifically described. That is, all aspects and modalities can be combined in any way or combination. When referring to the compounds described herein, the RAOznn / eznz / E / YiAi The following terms have the following meanings, unless otherwise indicated. The following definitions are intended to clarify, but not limit, the defined terms. If a particular term used herein is not specifically defined, the term should not be considered undefined. Rather, the terms are used within their accepted meanings. Definitions As used herein, the term portable refers to the ability of the interferometric systems described herein to be transported or otherwise carried to a target sample location for use in accordance with the methods provided herein. As used here, the term chemical refers to a form of matter, natural or synthetic, that has a constant chemical composition. As used herein, the term analyte refers to a substance that is detected, identified, measured, or any combination thereof by the systems provided herein. Analyte includes any solid, liquid, or gas that affects (positively or negatively) an environment of interest. The analyte can be beneficial or harmful. The analyte includes, but is not limited to, chemicals, as well as bacteria and other pathogenic microorganisms that can negatively affect RAOznn / eznz / E / YiAi positively health. The analyte includes, but is not limited to, microbes (beneficial or pathogenic that may be alive or dead), biomarkers, RNA, DNA, pathogen, antigen or a portion thereof, antibody, virus, metabolite generated as a reaction to a disease. or infection, or viral protein. A chemical analyte may include any pesticides, herbicides (for example, fluridone), insecticides, plant growth regulators, biocides, nutrients, polychlorinated biphenyls (PCBs), volatile organic compounds (for example, benzene, toluene, ethylbenzene and xylenes), tetrachloroethylene (PCE), trichloroethylene (TCE) and vinyl chloride (VC)), gasoline, oil, nitrites or metals. As used herein, the terms sample and target sample refer to any substance that may be subject to the methods and systems provided herein. In particular, these terms refer to any matter (animate or inanimate) where an analyte may be present and may be detected, quantified, monitored, or a combination thereof. Suitable examples of targets include, but are not limited to, any animate or inanimate surface, soil, food, ambient air, or soil. Targets also include air, surfaces, fluids, and mixtures thereof in or from laboratories, healthcare facilities, human skin, hair, or body fluids (e.g., whole blood, RAOznn / cznz / E / YiAi blood serum, saliva, vaginal fluids, semen, mucus, urine or similar internal fluid), skin, hair or body fluids of animals (for example, whole blood, blood serum, saliva, vaginal fluids, semen , mucus, urine or similar internal fluid), industrial processes, lakes, rivers and streams. The goal also includes the exhaled breath. As used herein, the term buffer refers to a carrier that is mixed with the target sample that includes at least one analyte. As used herein, the term test sample composition refers to the combination of at least one buffer solution and a target sample. As used herein, the term test sample composition refers to the combination of at least one buffer solution and a target sample taken from a particular environment. As used herein, the term environment refers to a location where use of an interferometric system occurs, such as remote locations of a centralized laboratory facility included. As used herein, the term "communication" refers to the movement of air, liquid, mist, mist, buffer, test sample composition, or other suitable source capable of transporting an analyte through or RAOznn / eznz / E / YiAi within the cartridge system. The term communication can also refer to the movement of electronic signals between components, both internal and external to the cartridge systems described here. As used herein, the term single-use refers to the cartridge system that is used in an interferometric system for a single test or assay before being discarded (i.e., not reused or used a second time). As used herein, the term multiple uses refers to the cartridge system that is used for more than one test sample composition (e.g., assay) before disposal. As used herein, the term multiplex refers to the cartridge system used to detect multiple analytes from a target sample composition. As used herein, the term pathogenic, pathological, pathological contaminant, and pathological organism refer to any bacteria, virus, or other microorganism (fungi, protozoa, etc.) that can cause disease to a member of the plant or animal kingdom. As used herein, the term point of care refers to the applicability of the systems provided herein for use in various settings by a medical professional or other trained user. The systems RAOznn / eznz / E / YiAi provided here may be used by emergency medical technicians while providing care and transportation to patients. Optionally or optionally means that the event or circumstance described below may or may not occur, and that the description includes cases where the event or circumstance occurs and cases where it does not occur. In order to address the need for faster and more reliable handling of analyte detection and quantification, portable systems and methods are described here. In particular, methods and systems are provided here to address the need to monitor, identify, quantify and even certify samples with the results provided, in a rapid, sensitive and accurate manner. The systems provided here can be mobile (handheld) or portable to facilitate point-of-care use in various environments. Principles of optical interferometry The systems supplied include a detector that operates using ultrasensitive, optical, waveguide interferometry. Waveguide and interferometry techniques are combined to detect, monitor, and even measure small changes that occur in an optical beam along a propagation path. These changes may result due to changes in path length RAOznn / eznz / E / YiAi of the beam, a change in the wavelength of the light, a change in the refractive index of the media through which the beam travels, or any combination of these, as shown in Equation 1. (p=2nLn / Á Equation 1 According to Equation 1, φ is the phase shift, which is directly proportional to the path length, L, and the refractive index, n, and inversely proportional to the wavelength shift (Á). According to the systems and methods provided here, the change in refractive index is used. Optical waveguides are used as efficient sensors for the detection of refractive index change by probing near the surface region of the sample with an evanescent field. In particular, the systems provided here can detect small changes in an interference pattern. According to one embodiment, the waveguide and the interferometer act independently or in tandem to focus an interferometric diffraction pattern. According to one embodiment, the waveguide, interferometer and sensor act independently or in tandem, or collectively to focus an interferometric pattern with or without mirrors or other reflective or focal median. According to one embodiment, the waveguide and the interferometer exhibit a coupling angle such that the focus RAOznn / cznz / E / YiAi is at an optimal angle to allow the system to be compact and suitable to be portable and handheld. Interferometric System Overview The interferometric systems provided here are mobile (handheld) and portable for ease of use in various environments. Interferometric systems include overall weight and dimensions so that the user can comfortably hold the entire interferometric system in one hand. According to one embodiment, the complete interferometric system weighs less than three pounds. Thus, the present disclosure provides a lightweight, portable, handheld, and easy-to-use interferometric system that can quickly, precisely, and accurately provide detection and quantification of analytes in a variety of environments. Systems as provided here provide a high performance modular design. Systems as provided herein can provide qualitative and quantitative results of one or more analytes within a test sample composition. In particular, the systems provided herein can simultaneously provide the detection and quantification of one or more analytes from a target sample. According to one embodiment, both qualitative and quantitative results are provided in real time or near real time. RAOznn / eznz / E / YiAi The interferometric systems provided here generally include a housing for various detection, analysis and visualization components. The interferometric system housing includes a robust, stable cover or box. The interferometric system housing can withstand the hazards of use and case surface cleaning or disinfection procedures. The interferometric system housing can be manufactured from a polymer using various techniques, such as injection molding or 3D printing. The interferometric system housing may be manufactured to include a coloration that provides the interferometric system housing a particular color or color scheme. According to one embodiment, the interferometric systems provided herein include sealed, impermeable or water-resistant components to minimize opportunities for contamination of a target sample. The overall arrangement of components within interferometric systems minimizes harboring contaminants in any hard-to-reach areas, facilitating disinfection. The interferometric systems provided herein include a cartridge system. The cartridge systems provided here are integrated with one or more stand-alone or integrated optical waveguide interphenometers. The RAOznn / eznz / E / YiAi cartridge systems provide efficient communication of sample composition through a microfluidic system mounted on or within the cartridge housing. The cartridge is suitable for one or more analytes to be detected in a single sample concurrently, simultaneously, sequentially or in parallel. The cartridge systems provided here can be used to perform analysis in a multiplex manner. That is, a test sample composition will be tested for the presence of multiple analytes at the same time using a plurality of waveguide channels that interact with the test sample composition. The cartridge systems provided here are easily removable and disposable, allowing for quick and efficient general use without the risk of cross-contamination from a previous target sample. The cartridge can be safely discarded after a single use. Disposal after a single use may reduce or eliminate the user's exposure to biological hazards. According to one embodiment, the cartridge system includes materials that are biodegradable, or recycled materials, to reduce environmental impact. The cartridge system can be cleaned and reused or otherwise recycled after a single use. The cartridge system as provided herein may be suitable for single use or for multiple uses. He RAOznn / eznz / E / YiAi single-use cartridge system may be manufactured such that a buffer solution is preloaded into the microfluidic system. By providing pre-filled buffer solution in the single-use cartridge system, gas bubbles are reduced or otherwise eliminated. After a single use, the entire cartridge system is safely discarded or recycled for further use after cleaning. Stated another way, after introduction and detection of a test sample composition, the entire single-use cartridge system is not reused and is instead discarded. Cartridge systems as provided here may be suitable for multiple uses. According to such an embodiment, the cartridge system may be used one or more times before the cartridge system is safely disposed of or recycled. The cartridge system can also be cleaned and reused or recycled after multiple uses. According to one embodiment, the cartridge system facilitates cleaning and retrofitting to allow the cartridge system to be replenished and returned to operation. According to one embodiment, the interferometric systems provided herein have an analyte detection limit of up to about 10 picograms / ml. According to one embodiment, the systems provided herein have a detection limit of analytes RAOznn / eznz / E / YiAi up to approximately 1.0 picogram / ml. According to one embodiment, the systems provided herein have an analyte detection limit of up to about 0.1 picograms / ml. According to one embodiment, the systems provided herein have an analyte detection limit of up to about 0.01 picograms / ml. According to one embodiment, the interferometric systems provided herein have an analyte detection limit of up to about 3000 plate forming units per milliliter (pfu / ml). According to one embodiment, the systems provided herein have an analyte detection limit of up to about 2000 pfu / ml. According to one embodiment, the systems provided herein have an analyte detection limit of up to about 1000 pfu / ml. According to one embodiment, the systems provided herein have an analyte detection limit of up to about 500 plaque-forming units per milliliter (pfu / ml). According to one embodiment, the systems provided herein have an analyte detection limit of up to about 100 plaque-forming units per milliliter (pfu / ml). According to one embodiment, the systems provided herein have an analyte detection limit of up to about 10 plaque-forming units per milliliter (pfu / ml). According to one modality, RAOznn / eznz / E / YiAi systems provided here have an analyte detection limit of up to approximately 1 plaque-forming unit per milliliter (pfu / ml). According to one embodiment, the systems provided herein have an analyte detection limit of about 1 plaque-forming unit per liter (pfu / 1). According to one embodiment, the interferometric systems provided herein provide qualitative and quantitative results in, or in less than 60 minutes after introduction of the sample to the system. According to one embodiment, both qualitative and quantitative results are provided in, or in less than 30 minutes. According to one embodiment, they are provided in, or in less than 10 minutes. According to one embodiment, both qualitative and quantitative results are provided in, or less than, 5 minutes. According to one embodiment, qualitative and quantitative results are provided in, or in less than 2 minutes. According to one embodiment, both qualitative and quantitative results are provided in or less than 1 minute. The interferometric systems provided herein can be powered by alternating current or direct current. The direct current may be provided by a battery such as, for example, one or more lithium or alkaline batteries. Alternating or direct current can be RAOznn / eznz / E / YiAi provided by alternative energy sources such as wind or solar. According to one embodiment, the interferometric system is stabilized to address vibrational distortions. The system can be stabilized by various means, including mechanical, chemical (fluid flotation or gel pack), computer-aided system (electronically), or digitally (e.g., via a camera). In some implementations, the systems provided here allow for point-of-use testing that is stable under various conditions, including ambient temperature and humidity, as well as extreme heat, cold, and humidity. The interferometric systems provided herein may be equipped with one or more computer program packages loaded thereon. The computer program may be electronically connected to the various components of the system in accordance with the provisions herein. The computer program can also be electronically integrated with a screen for the user to view. The display may be any of a variety of display types, such as, for example, an LED-backlit LCD display. The system may further include a video display unit, such as a liquid crystal display (LCD), a diode RAOznn / eznz / E / YiAi organic light-emitting diode (OLED), a flat panel display, a solid-state display, or a cathode ray tube (CRT). According to one embodiment, the interferometric system as provided herein may interact with, or otherwise communicate with, a transmission component. The transmission component may be in electronic signal communication with the cartridge system and the interferometric system components. The transmission component sends or transmits a signal with respect to the analyte detection data and the quantification data. The transmission of such data may include real-time transmission over any of a number of known communication channels, including packet data networks, and in any of a number of forms, including instant messages, notifications, emails. or text messages. Such real-time transmission can be sent to a remote destination via a wireless signal. The wireless signal can travel through an Internet access via a surrounding Wi-Fi network. The wireless signal can also communicate with a remote destination via Bluetooth or other radio frequency transmission. The remote destination can be a smartphone, keyboard, computer, cloud device, or server. The server can store RAOznn / eznz / E / YiAi any data for subsequent analysis and subsequent recovery. The server can analyze any incoming data with the use of artificial intelligence learning algorithms or specialized pathological, physical or quantum mechanical expertise programmed into the server and transmit a signal. According to one embodiment, the transmission component may include a wireless data link with a telephone line. Alternatively, a wireless data link can be used with a building Local Area Network. The system may also be linked with a Telephone Base Unit (TBU) which is designed to physically connect to a telephone jack and provide 900 MHz wireless communications, thereby allowing the system to communicate anywhere. moment with the telephone line that is available. According to one embodiment, the interferometric system may include a localization means. Such location means includes one or more geolocation devices that record and transmit location information. The location means may be in communication with a server, either from a GPS sensor included in the system or a GPS computer program function capable of generating the location. RAOznn / cznz / E / YiAi of the system in cooperation with a cellular network or other communication network in communication with the system. According to a particular embodiment, the location means, such as a geolocation device (such as GPS), can be used from its own device or from a mobile phone or a similarly assigned device or network to determine the physical location of the cartridge system. According to one embodiment, the interferometric system contains a geolocation capability that is activated when a sample is analyzed to geo-tag the sample results for archival purposes. According to one embodiment, the interferometric system contains a date and time capability that is activated when a sample is analyzed to time stamp sample results for archival purposes. The interferometric systems provided here can interact with the computer program that can process the signals hitting the detector unit. The cartridge system as provided herein may include a storage medium for storing data. The storage medium is located on or within the cartridge housing or within the interferometric system housing. The storage medium communicates directly with the electronic components of the interferometric system. The storage medium is readable by RAOznn / eznz / E / YiAi the interferometric system. The data can be stored as a visible code or index number for later retrieval through a centralized database that allows data to be updated after the cartridge system has been manufactured. The storage medium may include memory configured to store the data provided herein. The data preserved in the storage medium can be related to various elements useful in the operation of the interferometric system. According to a particular embodiment, the data may provide the overall status of the interferometric system or cartridge system, such as whether the cartridge system has been used previously or is completely new or unused. According to a particular embodiment, the data may provide a cartridge system or interferometric system identification. Such identification may include any series of letters, numbers, or a combination thereof. Such identification can be readable through a QR code. Identification may alternatively be summarized on a decal located on the cartridge housing or the interferometric system housing. According to one embodiment, the cartridge housing contains a barcode or a QR code. According to one embodiment, the RAOznn / eznz / E / YiAi cartridge system contains a barcode or a QR code for calibration or alignment. According to one embodiment, the cartridge system contains a barcode or QR code for identification of the cartridge or test assay to be performed. According to one embodiment, the cartridge system contains a barcode or QR code for identification of the owner and the location from which the generated data is to be transmitted. A user can scan the QR code with the external camera of the interferometric system before using it to use the system, so that identification and transmission can occur (e.g., automatically or under user direction). According to a particular embodiment, the data retained on the storage medium may provide the number of uses remaining for a multi-use cartridge system. According to a particular embodiment, the data may provide calibration data required by the interferometric system to process any raw data into interpretable results. According to a particular embodiment, the data may be related to information about the analyte and any special processing instructions that may be used by the cartridge system to customize the procedure for the specific combination of receptive surface(s) and RAOznn / eznz / E / YiAi analyte(s). The interferometric system as provided herein may include an electronic memory for storing data via a code or index number for later retrieval by a centralized database that allows for updates to the data to be provided after manufacture of the cartridge system. The interferometric system may include a memory component so that operating instructions for the interferometric system may be stored. All data can be stored or archived for later retrieval or download to a workstation, tablet, smartphone or other device. According to one embodiment, any data obtained from the system provided herein may be sent wirelessly to a remote server. The interferometric system may include logic stored in local memory to interpret the raw data and findings directly, or the system may communicate over a network with a remotely located server to transfer the raw data or findings and request interpretation by logic located on the server. The interferometric system can be configured to translate information into electrical signals or data in a predetermined format and to transmit the electrical signals or data over a connection. RAOznn / eznz / E / YiAi wireless (e.g. Bluetooth) or wired within the system or to a separate mobile device. The interferometric system can make some or all necessary data adjustments, for example, adjustments to the detected information based on analyte type or age, or it can simply pass the data for transmission to a separate device for display or additional processing. The interferometric systems provided herein may include a processor, such as a central processing unit (CPU), a graphics processing unit (GPU), or both. Additionally, the system may include main memory and static memory that may communicate with each other over a bus. Additionally, the system may include one or more input devices, such as a keyboard, touch pad, touch pad, scanner, digital camera, or audio input device, and a cursor control device, such as a mouse. The system may include a signal generating device, such as a speaker or remote control, and a network interface device. According to one embodiment, the interferometric system may include color indication means for providing a visible color change to identify a particular analyte. According to one embodiment, the RAOznn / cznz / E / YiAi system may include a reference component that provides secondary confirmation that the system is operating correctly. Such secondary confirmation may include visual confirmation or an analyte reference that it is detected and measured by the detector. The interferometric system provided here may also include a transmitter component. The transmitting component may be in electronic signal communication with the detecting component. The transmitter component sends or transmits a signal regarding the analyte detection and quantification data. The transmission of such data may include real-time transmission over any of a number of known communications channels, including packet data networks, and in any of a number of forms, including text messages, email, etc Such real-time transmission can be sent to a remote destination via a wireless signal. The wireless signal can travel through Internet access via a surrounding Wi-Fi network. The wireless signal can also communicate with a remote destination via Bluetooth or other radio frequency transmission. The remote destination can be a smartphone, tablet, computer, cloud device, or server. The server can store any data for later analysis and later recovery. He RAOznn / eznz / E / YiAi server can analyze any incoming data with the use of artificial intelligence learning algorithms or specialized pathological, physical or quantum mechanical expertise programmed into the server and transmit a signal. According to one embodiment, the interferometric system includes a wireless data link with a telephone line. Alternatively, a wireless data link can be used with a building local area network. The system can also be linked with a Telephone Base Unit (TBU) which is designed to physically connect to a telephone jack and provide 900 MHz wireless communications, allowing the system to communicate any time the line is available. telephone. According to one embodiment, the system may also include geolocation information in its communications with the server, either from a GPS sensor included in the system or a GPS software function capable of generating the location of the system in cooperation with a cellular network or other communication network in communication with the system. According to a particular embodiment, the system may include a geolocation device (such as GPS or REID) either from its own device or from a mobile phone or similarly associated device or network to determine the location RAOznn / eznz / E / YiAi system physics. According to one embodiment, the interferometric system includes an external camera. The external camera may be located at least partially within the interferometric system housing, but include a lens exposed to the exterior of the housing so that the external camera can take photos and videos of a target sample prior to collection (e.g. , land, plant, etc.). The external camera can capture video or images that assist in the identification of an analyte and confirmation of the resulting data. The external camera can also capture video images that help select an appropriate remedial measure. The external camera can capture video or images that assist in the identification of a target sample or source thereof. The external camera may capture video or images in connection with the scan and identify a QR code (such as a QR code on an external surface of a cartridge housing). When located on an external surface of the cartridge casing, the QR code can also help identify ownership of the data generated and the transmission of such data to a correct owner. According to one embodiment, the cartridge system contains a geolocation capability that is activated when a sample is analyzed to geotag. RAOznn / eznz / E / YiAi sample results for archival purposes. According to one embodiment, the cartridge system contains a date and time capability that is activated when a sample is analyzed to time stamp sample results for archival purposes. According to one embodiment, the cartridge system includes materials that are biodegradable, or recycled materials, to reduce environmental impact. Any used cartridge system provided herein may be disposed of in any acceptable manner, such as through a standard biohazard container. According to one embodiment, the cartridge system facilitates cleaning and retrofitting to allow the cartridge system to be replenished and returned to operation. According to one embodiment, the cartridge system is stabilized to address vibrational distortions. The system may be stabilized by various means of stabilization, including mechanical (alignment means as provided herein), chemically (fluid float or gel pack), computer-assisted (electronically), or digitally (e.g. through a camera or digital processing). Microfluidic System Overview – Single Use Cartridge System The single-use cartridge system provided here includes a microfluidic system to communicate or otherwise RAOznn / eznz / E / YiAi form provides a means for the test sample and buffer solution to mix, thereby resulting in a test sample composition. The microfluidic system causes the test sample composition to move through the detection region to allow detection and analysis of one or more analytes. The microfluidic system includes an injection port for introduction of a test sample. The injection port can optionally include a non-return valve. The microfluidic system further includes a first microchannel section having a first end connected in communication with the injection port non-return valve and a second end in communication with an elastic mixing chamber. According to one embodiment, the first microchannel section contains a filter for removing materials without detection and quantification capabilities. The elastic mixing chamber is otherwise sized, formed and configured to store the buffer solution. The elastic mixing chamber is sized, formed and otherwise configured to assist in mixing the buffer solution and the test sample to form the test sample composition. The elastic mixing chamber can be bypassed so that the test sample composition can be automatically discharged or allowed to advance through the system. RAOznn / eznz / E / YiAi microfluidic. The elastic mixing chamber may include a temperature control means in the form of a metal coil wrapped around the elastic mixing chamber, such that the temperature control means is heated by the introduction of an electrical current. The microfluidic system further includes a second microchannel section having a first end engaged in communication with the elastic mixing chamber and a second end engaged in communication with a flow cell having at least one sensing microchannel. By including multiple, two or more detection microchannels, the cartridge system is particularly suitable for high-throughput and improved testing efficiency by having the ability to detect and quantify analytes in more than one test sample composition. The microfluidic system further includes at least one pump. Suitable pumps include micropumps such as, but are not limited to, diaphragm, piezoelectric, peristaltic, valveless, capillary, chemically energized or light-actuated micropumps. According to an alternative embodiment, the microfluidic system further includes at least one pump that is a positive displacement pump, pulse pump, velocity pump, gravity pump, steam pump, or valveless pump of any appropriate size. According to a RAOznn / eznz / E / YiAi single-use mode of the cartridge system, the cartridge system contains at least one pump located within the cartridge housing. According to one embodiment of a single-use cartridge system, the pump overlaps or otherwise engages or touches the first microchannel section, the second microchannel section, and the elastic mixing chamber. The single-use cartridge system microfluidic system as provided herein may be manufactured and packaged under negative pressure or vacuum sealed. In this way, negative pressure allows a test sample to be extracted and self-loaded when introducing the test sample. Negative pressure also allows a test sample to be extracted into the microfluidic system to reduce, avoid or eliminate the formation of bubbles after introduction of the test sample. According to an alternative embodiment, the microfluidic system is manufactured and packaged under positive pressure. According to any of the embodiments, the microfluidic system of a single-use cartridge system may be pre-filled with a buffer solution at the time of manufacturing. The buffer can be custom designed or designated for the detection of a particular analyte. The buffer solution used (in this case, the buffer waste) and the waste resulting from RAOznn / eznz / E / YiAi test sample composition may be permanently contained in the single-use cartridge system. According to one embodiment, the pump may be powered by a battery or electricity transferred from the test device. Alternatively, the energy to energize the pump can be transferred mechanically by direct force, electromagnetic induction, magnetic attraction, audio waves or piezoelectric transfer. According to one embodiment, the cartridge system includes at least one pulse damping component, such as a regulator or accumulator or elastic chamber. Microfluidic System Overview: Multi-Use Cartridge System The multi-use cartridge system provided herein includes a microfluidic system for communicating or otherwise providing a means for a test sample composition to move through the cartridge system and enable detection and analysis of one or more analytes. . According to a particular embodiment, the test sample and the test sample composition are air or liquid. An input port is located on a front surface of the multi-purpose cartridge system. The inlet port is in communication with a first microchannel section having a first end coupled in communication with an inlet port non-return valve. RAOznn / eznz / E / YiAi input and a second end in communication with the second microchannel section. A filter may be located anywhere within the first microchannel section. The second microchannel section includes a first end in communication, the first microchannel section and a second end in communication with a flow cell having at least one detection microchannel. The cartridge system includes a sensing region that receives or is adapted to receive the chip and the flow cell wafer. The detection microchannel is in communication with a first end of a third microchannel section. The third microchannel section includes a flow electrode to approximate the flow rate and correlates with the measured impedance. The third microchannel section includes a second end in communication with the first end of a fourth microchannel. The fourth microchannel includes a second end in communication with a non-return valve which, in turn, is in communication with an outlet port. The chip used in the multi-use mode may be removable from the cartridge system. The microfluidic system also includes at least one pump. Suitable pumps include micropumps including, but not limited to, diaphragm, piezoelectric, peristaltic, valveless, capillary, chemical or light-actuated micropumps. OK RAOznn / cznz / E / YiAi In an alternative embodiment, the microfluidic system further includes at least one pump that is a positive displacement pump, impulse pump, velocity pump, gravity pump, steam pump or valveless pump. any appropriate size. According to a multi-use embodiment of the cartridge system, the cartridge system contains at least one pump located outside (external to) the cartridge housing, but in communication with the microfluidic system. The external pump can be used to move the test sample composition through the microfluidic system to help remove air or bubble that may be present in a liquid test sample composition before use. According to one embodiment, the cartridge system contains at least one pump damping device. All cartridge systems provided herein can use the pump to manipulate the communication of the test sample composition through the microfluidic system. According to one embodiment, the pump causes or otherwise assists the movement of the test sample composition through the microchannels, as well as the elastic mixing chamber, when present. Portable Handheld Interferometric System - Exemplary Modality Figure 1 illustrates a perspective view of a RAOznn / eznz / E / YiAi modality of a portable interferometric system 100 as provided here. The portable interferometric system 100 may include a display unit 102. The portable interferometric system 100 may include a housing 104 adapted to fit within a user's hand. Figure 2A illustrates a front view of one embodiment of a portable interferometric system 100 using the cartridge systems provided herein. The housing 104 includes an external front surface 106 defining an opening 108 adapted to receive the cartridge system provided herein. The opening 108 assists in the proper alignment and positioning of the cartridge system as provided herein within the portable interferometric system 100. The opening 108 may optionally include a flap 110 that shields or covers the opening 108 when the cartridge is not inserted. Flap 110 may be hinged on either side to facilitate movement of flap 110 from a first closed position to a second open position upon inserting the cartridge system. Figure 2B illustrates a rear view of one embodiment of a portable interferometric system 100 as provided herein. The housing 104 is adapted to include a USB type C 112, USB type A 114, a data input or phone line 116, power cable input 118, power switch 120 and an external camera or other RAOznn / eznz / E / YiAi light sensitive device 122. Chip Overview As noted above, the cartridge systems provided herein further include a sensing region. This sensing region receives or is adapted to receive an interferometric chip and a flow cell wafer. The flow cell wafer includes at least one detection microchannel. The flow cell wafer sits directly on top of the chip. The sensing microchannel may be surface etched onto a flow cell wafer having a transparent or substantially transparent panel or window. The sensing microchannel is aligned with each waveguide channel on the chip. In use, a light signal may be emitted from a light unit located in the interferometric system. Light enters the stream through input gradients on the chip and through one or more waveguide channels. According to a particular embodiment, there may be two or more waveguide channels to determine the presence of a separate analyte, which each of the individual waveguide channels alone would not have been able to identify on its own. The evanescent field is created when light illuminates the waveguide channel. The light signal is then directed along output gradients toward a detector unit, such as a camera unit. The detector unit is configured to RAOznn / eznz / E / YiAi receive the light signal and detect an analyte present in a test sample composition. The chip may also include a reference waveguide channel. A detection layer is attached to a top side of one or more waveguide channels. According to a particular embodiment, the detection layer may include one or more antigens or antibodies that are immobilized on the waveguide channel surface to detect the antigen-specific antibody or antigen, respectively. According to another embodiment, the sensing layer may include an envelope, membrane, N nucleocapsid proteins, or different domains of one of the proteins in a natural or artificial virus used to deliver RNA interference (RNAi) as a treatment. According to a particular embodiment, the sensing layer may include a molecularly imprinted polymer. The molecularly imprinted polymer leaves cavities in the polymer matrix with an affinity for a particular analyte, such as an antibiotic. According to a particular embodiment, the detection layer may include a DNA microarray of DNA probes. Each probe can be specific for a pathogen (in this case, bacterial species) and when the probe hybridizes with a sample, the sample / probe complex fluoresces in UV light or can be detected by interferometric analysis. RAOznn / eznz / E / YiAi According to one embodiment, the detection layer may use immunoassays on top of the waveguide channels for the detection of one or more analytes. According to one embodiment, the system may include, or operate based on, an enzyme-linked immunosorbent assay (ELISA) or other ligand binding assays that detect analytes in target samples. According to one embodiment, the detection layer may use one or more polypeptides, nucleic acids, antibodies, carbohydrates, lipids, receptors or receptor ligands, fragments thereof, and combinations thereof. According to one of these embodiments, the detection layer is configured to include one or more antibodies, as well as one or more immunoglobulins to assist in indicating the analyte infection step. Suitable immunoglobulins include IgG, IgM, IgA, IgE and IgD. Flow Cell Overview Each of the cartridge systems described herein includes a flow cell having at least one sensing microchannel adapted to communicate with one or more test sample compositions flowing through an on-chip waveguide channel. below the flow cell. According to one embodiment, the cartridge systems may include at least two, at least three, or at least four detection microchannels with each RAOznn / cznz / E / YiAi detection microchannel adapted to communicate one or more test sample compositions that allow the detection of the same or different analytes. Each sensing microchannel is located on or within a flow cell fabricated from a wafer. At least one sensing microchannel may be chemically surface etched, molded, or otherwise etched on one side of the flow cell wafer. Therefore, at least one sensing microchannel may be in the shape of a concave path as a result of chemical etching or molding within the flow cell wafer. The flow cell wafer is oriented above the chip during use, so that the sensing microchannel can be oriented or otherwise positioned in a variety of flow patterns above the waveguide channels. The sensing microchannel may be arranged, for example, in a simple half-loop flow pattern, in a series flow pattern, or in a serpentine flow pattern. The serpentine flow pattern is particularly suitable for embodiments where there are multiple waveguide channels that are arranged in a parallel arrangement. By using the serpentine flow pattern, the test composition flows consistently over the waveguide channels without varying the flow dynamics. RAOznn / eznz / E / YiAi Chip, Flow Cell and Optical Assembly: Exemplary Mode Figure 3A illustrates a cross-sectional view of an optical sensing region 200 of a cartridge system. A chip (or substrate) 202 includes a waveguide channel 204 coupled to a surface 205 (such as the illustrated top surface) of the chip 202. An evanescent field 206 is located above the waveguide channel 204. A layer detection layer 208 is adhered to an upper side of the waveguide channel 204. As illustrated, the antibodies 210 are shown so that they can be attached or otherwise immobilized to the detection layer 208, however, the sensitive layer 208 can be tailored to bind to any variety of analytes. As such, adjusting or otherwise modifying the detection layer 208 allows the cartridge system to be used for multiple different types of analytes without having to modify the cartridge system or surrounding interferometric system components. In general use, a light signal (e.g., a laser beam) illuminates the waveguide channel 204 which creates the evanescent field 206 that encompasses the detection layer 208. Binding of an analyte impacts the effective rate of refraction of waveguide channel 204. A bottom view of an exemplary flow cell 300 is illustrated in Figure 3B. At least one detection microchannel 302 is located on or within a RAOznn / eznz / E / YiAi 300 flow cell manufactured from a transparent wafer. The at least one sensing microchannel 302 may be chemically etched, molded, or otherwise etched into one side of the flow cell wafer 304. Thus, the at least one sensing microchannel 302 may be in the shape of a concave path as a result of chemical etching or molding within the flow cell wafer 304. The flow cell wafer 304 may be manufactured from a material such as an opaque plastic, or other suitable material. The flow cell wafer 304 may optionally be coated with an anti-reflective composition. The movement of a light signal 308 (series of arrows) across a chip 310 is illustrated in Figure 3C. The light signal 308 moves from a light unit 312, such as a laser unit, through a plurality of input gradients 314 and through one or more waveguide channels 316. Each channel includes a pair of guides. wave (321, 323) . One of the pairs of waveguides 321 is coated with a detection layer 208 (as indicated by shading in Figure 3C). The other of the pair of waveguides 323 is not coated with the detection layer 208 (which serves as a reference). The combination of light from each in the pair of waveguides (312, 323) creates an interference pattern, which is illuminated in the detector unit 320. According to a particular embodiment, both are used RAOznn / eznz / E / YiAi or more waveguide channels 316 that have the ability to determine the presence of an analyte, which each of the individual waveguide channels 316 alone would not have been able to identify alone. The light signal 308 is then directed along the output gradients 318 toward a detector unit 320, such as a camera unit. The detector unit 320 is configured to receive the light signal 308 and detect any analyte present in a target sample composition flowing through the detection microchannel 302 (see Figure 3B). Chip 310 includes a combination of substrate 202 (see Figure 3A), the waveguide channel (see Figure 3A, part 204 and Figure 3C, part 316), and a detection layer 208 (see Figure 3A). The flow cell 300 is oriented above the top surface 205 of the chip 310 during use, so that the sensing microchannel 302 can be oriented or otherwise arranged in a variety of flow patterns above the flow channels. waveguide 316. The sensing microchannel 302 may be arranged, for example, in a simple half-loop flow pattern, a series flow pattern, or in a serpentine flow pattern as illustrated in Figure 3B. The serpentine flow pattern is particularly suitable for embodiments where there are multiple waveguide channels 316 that are arranged in a parallel arrangement (see Figure 3C). By using the pattern RAOznn / eznz / E / YiAi coil flow, the test composition flows consistently over the waveguide channels 316 without varying the flow dynamics. The light signal passing through each waveguide channel, as illustrated in Figure 3C, can be combined, thereby forming diffraction patterns in the detector unit. The interaction of the analyte 210 (see Figure 3A) and the detection layer 208 changes the refractive index of light in the waveguide channel according to Equation 1. The diffraction pattern moves, which is detected by the unit detector. The detector unit as provided herein may be in electronic communication with the video processing computer program. Any movement of the diffraction pattern can be reported in radians of displacement. The processing computer program can register this change as a positive result. The rate of change in radians that occurs as the test is performed may be proportional to the concentration of the analyte. Figure 4 illustrates a side view of an exemplary embodiment of an optical assembly unit 400 that can be found in the portable handheld interferometric systems described herein (such as in Figures 1-2). The optical assembly unit 400 includes an aligned light unit 402 RAOznn / eznz / E / YiAi in a light unit housing 404. The optical assembly unit 400 includes a detector unit 406, such as a camera unit, aligned in a camera unit housing 408. Figure 5Ά illustrates a cross-sectional view of the optical assembly unit 400 of Figure 4. The light unit 402 is located at an angle relative to the shutter flap element 420. The shutter flap element 420 is adapted to slide open and close under the tension of a shutter spring 422. The shutter flap element 420 is illustrated in a first closed position without the cartridge system inserted. The shutter flap element 420 includes an upper control arm 423 that is located within a rail portion 425. A complementary communication means 424 extends downward to make electronic contact with the electronic communication means located in the cartridge housing (see Figures 6, 8A and 9A). The complementary communication means 424 may be metal contacts such that, when inserted, the metal contacts on the outer surface of the cartridge housing touch and establish electronic communication between the cartridge system and the remaining components of the interferometric system (e.g. example, the light unit, camera unit, etc.). The complementary communication means 424, as illustrated, includes one or more V-shaped, substantially pointed RAOznn / eznz / E / YiAi to push down or otherwise contact the cartridge housing metal contacts. The number of complementary communication means 424 may correspond and align with the number of metal contacts on the outer surface of the cartridge housing. At least one downward cantilever tilt spring 426 may be located within the optical assembly unit 400 such that, upon insertion of the cartridge through the interferometric system housing opening, the downward cantilever tilt spring 42 6 pushes against a top side of the cartridge housing, thereby forcing the cartridge housing against an opposite side or bottom portion or surface 428 of the cartridge cavity 430, resulting in proper alignment along a vertical plane (see Figures 5A, 5B, 5C and 6). The light unit 402 is optionally adjustable along various planes for optimal emission of light signal 432. As illustrated, the signal 432 is shown to be emitted and focused by at least one lens 433. The camera unit 406 It is located at an angle relative to the shutter flap element 420 to receive the light signal 432 upon exiting the cartridge (see Figure 6). A first roller adjusting screw 434 and a second roller adjusting screw 436 are located on the sides opposite RAOznn / eznz / E / YiAi of the light unit 402 to adjust the roller of the light unit 402. A first upward adjustment screw 438 and a second upward adjustment screw 440 are located parallel on each side of the light unit 402 to adjust the light unit 402 toward the cartridge system (in this case, substantially upward). An angle of incidence screw 442 is located against the light unit 402 to allow adjustments in the angle of incidence for a proper engagement angle. A translation screw 444 is located in direct communication with the light unit 402 to adjust the translation in the X axis. A spring element 446 maintains the position of the light unit 402 against the light unit 402 by assisting the adjustment screws (432, 436), the angle screw 442 and the translation screw 444. Referring specifically to Figures 5A, 5B and 5C, the lower portion 428 of the cartridge cavity 430 further includes an alignment means that includes at least one rail portion 425 for engaging both male pin portions in the cartridge housing. (see 824, 826 of Figure 8A; see 920, 922 of Figure 9A). The lower portion or surface 428 of the cartridge cavity 430 includes a first raised surface 421A and a second raised surface 421B. A 423 Shutter Upper Control Arm RAOznn / eznz / E / YiAi is located within the rail portion 425. The rail portion 425 includes a first rail wing 427 and a second rail wing 429 adapted to receive and engage the male pin portions (see 824, 826 of Figure 8A; see 920, 922 of Figure 9A). By including such an alignment means, the cartridge systems provided herein can only be activated in certain ways, thereby avoiding incorrect insertion and provided that proper optical and microfluidic alignment occurs. Figure 6 illustrates a cross-sectional view of the optical assembly 400 of Figure 5A with one embodiment of a cartridge system 800 inserted into the optical assembly 400. As illustrated, the shutter flap element 420 is pushed back when inserting the system. cartridge 800. Although not shown, the plug spring 422 is compressed rearwardly. The shutter flap element 420 moves along a path system 450 having a stationary male rail 452 in which a female rail portion 454 slides from a first closed position without inserted cartridge system 800 toward a second. open position, as illustrated in Figure 6 upon insertion of the cartridge system 800. Figure 6 further illustrates the positioning of the cartridge system 800 in the optical assembly 400. The cartridge system 800 includes an interferometric chip 832 positioned RAOznn / cznz / E / YiAi below the flow cell wafer 888. The cartridge system 800 includes the storage medium 807 as provided herein positioned within the cartridge housing 802. While the cartridge system 800 is illustrated As a single-use system, the alignment and positioning of the single-use cartridge assembly can also be applied to the multi-use cartridge systems provided herein (for example, see Figures 9A-9F). Figure 7 illustrates a top view of the optical assembly unit 400 of Figure 5A with one embodiment of a cartridge system 800 inserted into the optical assembly unit 400. The cartridge system 800, as illustrated, is a A single-use system, however, a multi-use system can be inserted in the same way within the interferometric system. The cartridge system 800 includes a cartridge housing 802 with a top surface 805. The optical assembly unit 400, as illustrated, includes a plurality of cantilever tilt springs 426. The optical assembly unit 400 further includes a lateral tilt 460 such that, upon inserting the cartridge system 800, the lateral tilt spring 460 pushes against a horizontal side 860 of the cartridge housing, thereby forcing the cartridge housing 802 into correct alignment along a RAOznn / eznz / E / YiAi horizontal plane. Cartridge System Overview The cartridge systems provided herein include a cartridge housing. The cartridge housing can be manufactured from any polymer suitable for single or multiple uses. The cartridge can be manufactured according to a variety of additive processing techniques, such as 3D printing. The cartridge can be manufactured by traditional techniques such as injection molding. The polymer may include an expansion coefficient so that the housing does not expand or contract in a manner that disrupts the alignment of any of the microfluidic or sensing components described herein when the cartridge is exposed to hot or cold ambient conditions. The cartridge housing may include a light prevention means to help reduce, prevent or eliminate external, ambient light that interferes with the detection of one or more analytes. The light prevention means may include a colored (e.g., black) cartridge housing that is dyed or color coated during manufacturing. According to one embodiment, a dye can be introduced into the polymer to provide a specific color for a region or for the entire cartridge housing. Suitable colors include any color that RAOznn / eznz / E / YiAi helps reduce, prevent or eliminate ambient, outdoor light that interferes with the detection of one or more analytes. The cartridge systems provided herein further include a sensing region. This sensing region receives or is adapted to receive an interferometric chip and a flow cell wafer. The flow cell wafer includes at least one detection microchannel. The flow cell wafer sits directly on top of the chip. The sensing microchannel may be chemically etched onto a flow cell wafer having a transparent or substantially transparent panel or window. The flow cell wafer, the chip, or both the flow cell and the chip may be coated with a substance that reduces or eliminates fogging or condensation. According to one embodiment, the chip can be heated to reduce or eliminate fogging or condensation. The cartridge systems provided herein are configured or otherwise adapted or designed to be easily inserted and instantly aligned within an interferometric system such as, for example, a portable interferometric system. Being configured to allow instant alignment, the user does not require any additional adjustment to align any microfluidic components and any sensing-related internal components, RAOznn / eznz / E / YiAi such as the laser, the chip with waveguides and the exposed channels in a detection region of the cartridge, the optical detector and any other components related to focusing in the interferometric system. The cartridge housing includes dimensions that are complementary in size and shape to the size and shape of an internal surface that defines a cavity within an interferometric system. As provided and illustrated in the non-limiting examples herein, the cartridge housing may generally be completely rectangular in shape. According to one embodiment, the cartridge system can be inserted and removed automatically. According to one embodiment, the cartridge housing contains a barcode or QR code. According to one embodiment, the cartridge system contains a barcode or QR code for calibration or alignment. To assist in alignment, the cartridge housing includes an alignment means on an external surface of the cartridge housing. The alignment means can take a variety of shapes that ensure instantaneous alignment of any microfluidic components and any internal components related to the detection upon inserting the cartridge into the interferometric system. The alignment means also helps prevent incorrect orientation insertion within the interferometric system and RAOznn / eznz / E / YiAi allows insertion only after proper alignment is achieved. Alignment allows additional stabilization of the cartridge system to address vibration distortions. The alignment means may include at least one male pin portion for engaging and securing within a corresponding female rail located on the interferometric system. The male pin portion may be disposed on the bottom surface of the cartridge housing, however, the male pin portion may be located on any exterior surface of the cartridge housing. Other suitable alignment means include one or more microswitches or sensing devices that guide the cartridge housing to ensure proper alignment. According to a particular embodiment, the cartridge housing includes an upper portion and a lower portion based on the orientation of insertion into an interferometric system. The top portion may include a top surface that defines at least one through hole in at least one external surface of either the top portion or bottom portion. At least one through hole is adapted to receive a removable fastening means for securing the upper portion and the lower portion together. Suitable means of fastening include screws or other suitable fasteners that can be RAOznn / eznz / E / YiAi remove. By allowing the top and bottom portion of the cartridge housing to be separated and replaced, the user can open the cartridge housing to allow for cleaning and chip replacement. The cartridge system as provided herein may include a temperature control means for controlling temperature and humidity. The cartridge system as provided herein may include a temperature control means for controlling the temperature of test sample composition. By controlling the temperature and humidity around the cartridge system, the interferometric system can provide more repeatable and accurate results. According to one embodiment, the cartridge system contains a heating capability to facilitate constant measurement and operation in cold temperatures. By controlling the temperature and humidity around the cartridge system, interfering mist or condensation in the sensing region of the cartridge system is reduced or otherwise eliminated. The temperature control means may be located on or within the cartridge housing. According to one embodiment of the single-use cartridge system, the temperature control means is located in or around the elastic mixing chamber of the microfluidic fluid system described herein. The means of control RAOznn / eznz / E / YiAi temperature may be located on an outer surface of the cartridge housing. A suitable temperature control means includes a metal coil that is heated by introducing an electrical current. Another suitable temperature control means includes one or more heating strips or Peltier devices that can provide heating or cooling. Each of the cartridge systems described herein includes a flow cell having at least one sensing microchannel adapted to communicate with one or more test sample compositions flowing through an on-chip waveguide channel. below the flow cell. According to one embodiment, the cartridge systems may include at least two detection microchannels with each detection microchannel adapted to communicate one or more test sample compositions allowing detection of the same or different analytes. According to one embodiment, the cartridge system includes a flow cell having at least three detection microchannels with each detection microchannel adapted to communicate one or more test sample compositions allowing detection of the same analytes or different analytes. According to one embodiment, the cartridge system includes a flow cell having at least four detection microchannels with each detection microchannel RAOznn / cznz / E / YiAi detection adapted to report one or more test sample compositions allowing detection of the same or different analytes. Cartridge System - Exemplary Modalities An exemplary embodiment of a single-use cartridge system 800 is illustrated in Figures 8A-8F. A top view of a cartridge system 800 is provided in Figure 8A. The cartridge system 800 includes a cartridge housing 802 as described herein. The housing 802 includes a top portion 804 (see Figure 8C) having a top surface 805. The top surface 805 includes four heat stake posts 808 for joining the top portion 804 of the cartridge housing 802 to a bottom portion 810 (see Figure 8C). See Figure 8C) of the cartridge housing 802. By using heat stake posts 808, the upper portion 804 can be permanently attached to a lower portion 810 of the cartridge housing 802. The upper surface 805 includes an injection port 812. for the introduction of a test sample. The cartridge housing 802 further includes an electronic communication means 816 located on a second outer surface 818 that is located in a different horizontal plane than the upper surface 805. The electronic communication means 816 as illustrated includes a plurality of metal contacts . RAOznn / eznz / E / YiAi The cartridge system further includes a vent port 820. The vent port 820 allows any air in the microfluidic system 870 (see Figure 8F) to escape, such as in the form of bubbles. The vent port 820 may include a vent cover 821 over the vent port 820. The vent cover 821 may be manufactured from a material that repels liquid while at the same time allowing the passage of air or vapor, such as such as, for example, expanded polytetrafluoroethylene (commercially available as Goretex®. Vent cover 821 allows air to be purged from the cartridge system 800, but will not allow fluid to pass, such as when a vacuum is applied to prime the system microfluidic 870. In this way, the formation of bubbles in a liquid test sample composition is eliminated or prevented. The upper surface 805 also includes two port seals 822. The port seals 822 can be made of rubber and provide the sealing of the 870 microfluidic system within the 800 cartridge system. Figure 8B illustrates a view of the bottom surface 823 of one embodiment of a single-use cartridge system 800. The bottom surface 823 includes a first male pin portion 824 and a second male pin portion 826. The pin portions male (824, 826) hook RAOznn / eznz / E / YiAi with a corresponding rail portion (425 - See Figures 5A, 5B and 5C) located in the cartridge cavity 430 of the optical assembly 400. The bottom surface 823 further defines a first detent 828 and a second detent 830. The detents (828, 830) engage or otherwise receive a first raised surface and a corresponding second raised surface (421A, 421B) within the cartridge cavity 430 of the optical assembly 400 (see Figures 5A, 5B and 5C ). When engaged with the first retainer 828 and the second retainer 830, the first raised surface and the second raised surface (421A, 421B) help secure the cartridge system 800 within the cartridge cavity 430. The chip 832 is substantially transparent and allows the light signal to enter, interact with one or more waveguide channels (See Figure 3C) and allows the binding of analyte flowing into the at least one detection microchannel 834 within the 888 flow cell wafer. The bottom surface 823 further defines an input slot 836. The light input slot 836 allows a light signal to enter the cartridge system 800. In particular, the light input slot 836 allows a light signal to enter on chip 832 and the light signal moves through any waveguide channel (not shown; see, for example, part 316 of Figure 3C) on chip 832 while interacting with the analytes in he RAOznn / eznz / E / YiAi at least one detection microchannel 834 before the light signal is diverted by one or more gratings (not shown) towards the detector unit 406 (see, for example, Figure 3C and 6 ). Figure 8C illustrates a view of the rear surface 840 of the cartridge housing 802 of a single-use cartridge system 800. The cartridge housing 802 includes an upper portion 804 and a lower portion 810. The male pin portions ( 824, 826) are shown extending from the lower portion 810 of the cartridge housing 802. Figure 8D Illustrates a view of the front surface 850 of the cartridge housing 802 of a single-use cartridge system 800. The male pin portions (824, 826) are shown extending from the lower portion 810 of the cartridge housing. 802 cartridge. Figure 8E illustrates a view of a side surface 860 of the cartridge housing 802 of a single-use cartridge system 800, the opposite side is in mirror image. Figure 8F illustrates a downward cross-sectional view of a single-use cartridge system 800 along the horizontal line of Figure 8E. The cartridge system 800 includes a sensing region 831 that receives or is otherwise adapted to receive a chip 832 and a flow cell wafer 888. The single-use cartridge system RAOznn / eznz / E / YiAi 800 includes a microfluidic system 870 for communicating or providing a means for a test sample composition to move through the cartridge system 800 and enable detection and analysis of one or more analytes. The microfluidic system 870 includes an injection port 812 for introduction of a test sample. The injection port 812 may optionally include a non-return valve 872. The microfluidic system 870 further includes a first microchannel section 874 having a first end 876 connected in communication with the non-return valve of the injection port 872 and a second end 878 in communication with an elastic mixing chamber 880. A filter 877 may be located anywhere within the first microchannel section 874. The microfluidic system 870 also includes a ventilation port 820 within the first microchannel section 874 between the first end 876 and the second end 878. The elastic mixing chamber 880 includes a temperature control means 881 in the form of a metal coil wrapped around the elastic mixing chamber 880 so that the temperature control means 881 is heated when introduced an electric current. The microfluidic system 870 further includes the second microchannel section 882 having a first end 884 connected in communication with the elastic mixing chamber. RAOznn / eznz / E / YiAi 880 and a second end 886 coupled in communication with a flow cell wafer 888 having at least one detection microchannel 834. The microfluidic system 870 further includes a third microchannel section 890 having a first end 892 coupled in communication with at least one sensing microchannel 834 and a second end 894 in communication with the elastic mixing chamber 880 to form a closed loop. The microfluidic system 870 further includes at least one micropump 898. The micropump 898, as illustrated, is a piezoelectric pump that overlaps or otherwise engages or touches one or more of the first microchannel section 874, the second microchannel section 882, the third microchannel section 890 and the elastic mixing chamber 880. The micropump 898 manipulates the communication of the test sample composition through the microfluidic system 870. The single-use cartridge system 800 may further include a transmission component 897 as provided herein. The single-use cartridge system 800 may further include a locating means 899 as provided herein. An exemplary embodiment of a multi-use cartridge system 900 is illustrated in Figures 9A-9F. A top view of a RAOznn / eznz / E / YiAi embodiment of a multi-purpose cartridge system 900. The cartridge system 900 includes a cartridge housing 902 as described herein. The housing 902 includes a top portion 904 (see Figure 9C) with a top surface 905. As illustrated, the top surface 905 includes four top through holes 908A. The upper through holes 908A are adapted (e.g., threaded) to receive a removable fastening means (not shown) for securing the upper portion 904 to a lower portion 910 (see Figure 9C). The top surface also includes two sealing holes 908B that allow the chip 936 to be sealed with the cartridge housing 902. The cartridge housing 902 further includes an electronic communication means 916 located on a second external surface 918 that is located in a different horizontal plane than the upper surface 905. The electronic communication means 916 as illustrated includes a plurality of contacts of metal. The top surface 905 also includes two port seals 919 and two sealing plugs (924, 926). Figure 9B illustrates a view of the bottom surface 923 of a multi-use cartridge system 900. The bottom surface 923 includes a first male pin portion 920 and a second male pin portion 922. The male pin portions (920, 922) hook up with RAOznn / cznz / E / YiAi a corresponding rail portion (425 - See Figures 5A, 5B and 5C) located in the interferometric system. The bottom surface 923 further defines a first detent 928 and a second detent 930. The detents (928, 930) engage with or otherwise receive a first raised surface and a corresponding second raised surface (421A, 421B) within the cavity. of cartridge 430 of the optical assembly 400 (see Figures 5A, 5B and 5C). When engaged with the first detent 928 and the second detent 930, the first raised surface and the second raised surface (421A, 421B) help secure the cartridge system 900 within the cartridge cavity 430. The bottom surface further includes lower through holes 908C that align and correspond with the four upper holes 908A. The lower through holes 908C can be adapted (e.g., threaded) to receive removable fastening means (not shown) for securing the upper portion 904 to a lower portion 910 (see Figure 9C). The bottom surface 923 further defines a light input slot 934. The light input slot 934 allows a light signal to enter the cartridge system 900. In particular, the light input slot 934 allows a light signal to enter the cartridge system 900. light enters chip 936 and the light signal moves through any of the waveguides on the chip RAOznn / eznz / E / YiAi 936 while interacting with analytes in the at least one detection microchannel 994 (see Figure 9F) before the light signal is deflected by one or more gratings (not shown) downward to the detector unit 406 (see Figure 6). Figure 9C illustrates a view of the rear surface 940 of one embodiment of a multi-use cartridge system 900. The housing includes an upper portion 904 that is optionally removable from a lower portion 910. The male pin portions (920, 922 ) are shown in ways that extend from the lower portion 910 of the cartridge housing 902. Figure 9D illustrates a view of the front surface 950 of one embodiment of a multi-use cartridge system 900. Figure 9E illustrates a view of a side surface 960 of one embodiment of a single-use cartridge system 900, the Opposite side is a mirror image. Figure 9F illustrates a downward cross-sectional view of a multi-use cartridge system 900 along the horizontal line of Figure 9E. The cartridge system 900, a storage medium 907 as provided herein, positioned within the cartridge housing 902. The multi-use cartridge system 900 includes a microfluidic system 970 for communicating or otherwise providing a means for a test sample composition to be RAOznn / eznz / E / YiAi move through the 900 cartridge system and enable detection and analysis of one or more analytes. An input port 972 is located on a front surface 950 (see Figure 9D) of the multi-use cartridge system 900. The input port 972 is in communication with a first microchannel section 974 having a first end 976 coupled in communication with an inlet port non-return valve 973 and a second end 978 in communication with the second microchannel section 979. A filter 977 may be located anywhere within the first microchannel section 974. A sample electrode 980 and a reference electrode 982 are in contact with the second microchannel section 979. Impedance can be measured between the sample electrode 980 and the reference electrode 982 to confirm the presence of the test sample composition. A valve test structure connection 984 is in communication with any test sample composition in the microfluidic system 970. The valve test structure connection 984 can be manufactured from a nitinol shape memory alloy and helps in the movement of the test sample composition in the 900 cartridge system. The second microchannel section 979 includes a first end 988 in communication with the first section of RAOznn / eznz / E / YiAi microchannel 974 and a second end 990 in communication with a flow cell 992 having at least one detection microchannel 994. The cartridge system 900 includes a detection region 993 that receives or is adapted from another way to receive the chip 936 and the flow cell 992. The chip 936 is substantially transparent and allows the light signal to enter, which interacts with one or more waveguide channels (not shown; see, for example , part 316 of Figure 3C) and allows the binding of the analyte flowing into the detection microchannel 994 into the flow cell 992. The sensing microchannel 994 is in communication with a first end 996 of a third microchannel section 998. The third microchannel section 998 includes a flow electrode 1000 to approximate the flow rate and correlates with the measured impedance. The third microchannel section 998 includes a second end 1002 in communication with the first end 1004 of a fourth microchannel 1006. The fourth microchannel 1006 includes a second end 1008 in communication with a non-return valve 1010 which, in turn, is in communication with an output port 1012. The sample electrode 980, the reference electrode 982 and the flow electrode 1000 are each made of inert nitinol or other conductive material RAOznn / eznz / E / YiAi corrosion resistant. The multi-use cartridge system 900 may further include a transmission component 1014 as provided herein. The multi-use cartridge system 900 may further include a locating means 1016 as provided herein. An exemplary embodiment of an alternative single-use cartridge system 1100 is illustrated in Figure 10. According to the illustrated embodiment, the cartridge system 1100 includes a connecting mechanism 1102 (or snap rod) having opposite ends ( 1104, 1106) extending from the housing 1108. The connection mechanism 1102 helps secure and interface the cartridge system 1100 with an interferometric system. Emerging from the housing 1108, there are injection ports 1110A-110D and outlet ports 1120A-1120D. Injection ports 1110A-1110D can be used to introduce a test sample, buffer solution, or test sample composition. The cartridge system includes four independent sensing microchannel ports that are in independent communication with a corresponding sensing microchannel (not shown) within a flow cell (not shown). The buffer solution may be prefilled into the flow cell. Any residual test sample composition can be collected at the outlet ports 1120A-1120D. RAOznn / eznz / E / YiAi Health Care Applications The interferometric systems provided here can be used as a point-of-care system. Point-of-care testing can be performed at or near the site where a target healthcare sample is obtained. In a healthcare setting, a medical professional can receive results in an efficient manner and any care decisions can be immediately implemented. The systems provided here, being mobile and used at the point of care, provide an important technical advance in the fight to diagnose and track pathogens that may result in global pandemics or be the cause of other growing, recurrent or endemic diseases. The interferometric systems provided herein can be used to analyze and detect analytes taken from a body fluid or gaseous emission from the body. Such bodily fluids include, but are not limited to, blood, urine and saliva. The interferometric systems provided herein are suitable for detecting and quantifying analytes such as one or more of a virus, bacteria or small molecule, such as a drug or drug metabolite. The interferometric systems provided here are particularly suitable for detecting and quantifying analytes of interest. RAOznn / cznz / E / YiAi private doctor, such as an illegal / illicit drug, SARSCoV-2, Yersinia pestis (plague), mycobacteria, influenza virus, hCG, human immunodeficiency virus, a particular vitamin, genetic mutation , IgG, IgE and CD4 T cells. The interferometric systems provided here are easily adaptable to new analytes within the healthcare environment as they emerge. Interferometric systems put high-quality diagnostic results in the hands of healthcare professionals in an efficient manner. According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped on, a mobile vehicle. Suitable mobile vehicles include, but are not limited to, unmanned aerial vehicles (UAVs), unmanned ground vehicles (UGVs), drones, manned aircraft, and manned vehicles. Animal Health Applications By being mobile and used close to the animals being studied, a user can receive results efficiently and any care decisions or corrective measures can be immediately implemented. The interferometric systems provided here provide an important technical advance for diagnosing pathogens in RAOznn / eznz / E / YiAi an animal health environment. This rapid detection will allow corrective action to be taken immediately rather than sending samples for laboratory testing. This will provide great advantages to the user because diseases could spread uncontrollably during the days that are typically required to send samples for analysis. The systems provided here provide a means to detect, quantify and even track various analytes within an animal health environment. The systems provided here also provide a means to assess the presence of analytes within animal enclosures, in transportation, and in water supplies. The system described here also provides a means to monitor animal microbiomes for pathogens or chemical imbalances that can be employed to provide an early warning system for the detection of undesirable outcomes within an animal health environment. By efficiently providing detection and quantification data, chemical exposure can be monitored in a tight and otherwise controlled manner. According to such an embodiment, the system will detect and quantify one or more chemicals at levels of parts per million (ppm), parts per billion (ppb), or parts per RAOznn / eznz / E / YiAi trillion (ppt). According to a particular embodiment, the systems provided herein can be used to detect and quantify the levels of various chemicals in an animal health environment, including, but not limited to, ammonia, benzene, toluene, xylene, trichlorethylene, perchloroethylene, dichloroethylene, vinyl chloride, chloramine, nicotine, nmethylphenylethylamine methamphetamine, Ν,Ν-dimethyl acetamide (DMAC), dimethylmethylphosphonate (DMMP), methyl salicylate, 2,4,6trinitrotoluene, acetaldehyde, methylene chloride, hexane, acetone, methanol, pyrrole, chloroform, chlorine (or any other element), hydrochloric acid, ammonia, Freon or 2vinylpyridine. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of bacteria, viruses or fungi in an animal health environment. Such bacteria can originate from exposure to humans, other animals, or parasites such as worms, fleas, ticks, lice, and biting flies. According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped with, a mobile vehicle. Suitable mobile vehicles include but are not limited to RAOznn / eznz / E / YiAi limiting, unmanned aerial vehicles (UAV), unmanned ground vehicles (UGV), drains, manned aircraft and manned vehicles. According to a particular embodiment, the interferometric system provided herein may be used in various types of animal health environments, such as a veterinary office, an animal laboratory testing facility, farm, pasture, or home (pets). Agricultural Applications By being mobile and used at the point of use, a user can receive results efficiently and any care decisions or corrective measures can be immediately implemented. The interferometric systems provided here provide an important technical advance in the fight to diagnose and track pathogens that can lead to crop damage or be the cause of other growing, recurrent or endemic diseases, as well as invasive species of pathogens in an agricultural environment. . The systems provided herein provide a means to indicate and otherwise assist in the control of disease surveillance, invasive pathogen species and pandemics or widespread outbreak control. The systems provided here also provide a means of evaluating water quality, as well as functioning as a RAOznn / eznz / E / YiAi microbiome-based monitoring system to provide an early warning system for the detection of unwanted pathogens in an agricultural environment. According to a particular embodiment, the systems provided herein can be used to detect and quantify pesticide levels in an agricultural environment. By providing detection and quantification data in an efficient manner within the agricultural environment, the rate of pesticide application and control can be monitored, adjusted and otherwise controlled. According to such modality, the system will detect and quantify pesticides at parts per million (ppm) levels. According to another embodiment, the system will detect and quantify pesticides at parts per billion (ppb) levels. According to another embodiment, the system will detect and quantify pesticides at parts per trillion (ppt) levels. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of an agricultural herbicide (e.g., 2,4-D (2,4-dichlorophenoxyacetic acid) and dicamba (2-methoxy-3 acid). ,6-dichlorobenzoic)) in an agricultural environment. By providing detection and quantification data in an efficient manner within the agricultural environment, the rate of herbicide application and control can be monitored, adjusted and otherwise controlled. Control also increases the efficiency of herbicide management. OK RAOznn / eznz / E / YiAi with such modality, the system will detect and quantify herbicides at parts per million (ppm) levels. According to another embodiment, the system will detect and quantify herbicides at parts per billion (ppb) levels. According to another embodiment, the system will detect and quantify pesticides at parts per trillion (ppt) levels. According to one embodiment, the system can be used to detect and quantify analytes from any vessel or container that may come into contact internally with an analyte, such as a chemical contaminant. The system as provided herein can be placed in fluid communication with a vessel to detect and quantify analytes in real time. Fluid communication may be established through a tube or other conduit that allows any fluid containing at least one analyte to contact or flow through the system as provided herein. According to a particular embodiment, a source of liquid or fluid containing an analyte can be obtained from an agricultural spray tank. The spray tank may be located on a tractor (or other agricultural implement), in a field / crop area, in a farmers' cooperative, or other location where a farmer will use the spray tank. According to the various embodiments described herein, the systems and methods provided can reduce the RAOznn / eznz / E / YiAi time typically required for spray tank decontamination, minimize the need to use (and store) large volumes of commercial tank cleaners, reduce dependence on the agricultural equipment operator when running processes of decontamination without the benefit of knowing the completion point, eliminate the application of improperly decontaminated spray tank rinse on labeled crops, and / or reduce legal risk to the agricultural equipment operator by providing documentation of spray tank decontamination . Modalities can also increase the efficiency of a single tank or piece of application equipment that has multiple specific independent uses. According to a particular embodiment, a fluid analyte source includes an industrial / commercial container. The container may be located in or around a shipping container that stores and transports a chemical fluid. The shipping container may be located on a truck, train, or other means of transportation. The shipping container may also be located on or around the shipping dock. According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped on, a mobile vehicle. The RAOznn / eznz / E / YiAi Suitable mobile vehicles include, but are not limited to, unmanned aircraft systems (UAS), unmanned vehicles (UAVs), autonomous vehicles , drones, manned aircraft and manned vehicles. Aquatic Applications By being mobile and used close to the aquatic environment in question, a user can receive results efficiently and any care decisions or corrective measures can be implemented immediately. The interferometric systems provided here provide an important technical advance in the fight to diagnose and track pathogens that are the cause of increasing, recurrent or endemic diseases, as well as invasive species of pathogens in an aquatic environment. The systems provided herein provide a means to indicate and otherwise assist in the control of disease surveillance, invasive species of pathogens, and pandemic or widespread outbreak control. The systems provided here also provide a means to assess water quality, as well as function as a microbial-based monitoring system to provide an early warning system for the detection of unwanted pathogens in an aquatic environment. According to a particular embodiment, the systems RAOznn / eznz / E / YiAi provided here can be used to detect and quantify pesticide levels in an aquatic environment. By efficiently providing detection and quantification data within the aquatic environment, the rate of pesticide application and control can be monitored, adjusted and otherwise controlled. According to such modality, the system will detect and quantify pesticides at parts per million (ppm) levels. According to another embodiment, the system will detect and quantify pesticides at parts per billion (ppb) levels. According to another embodiment, the system will detect and quantify pesticides at parts per trillion (ppt) levels. According to a particular embodiment, the systems provided herein can be used to detect and quantify in an aquatic environment the levels of an aquatic herbicide (for example, 2,4-D (2,4-dichlorophenoxyacetic acid) and flumioxazine (2- [7-fluoro-3,4-dihydro-3-oxo-4-(2-propynyl)2H-1,4-benzoxazin-6-yl]-4,5,6,7-tetrahydro-lH-isoindol1,3 (2H)-dione)). By efficiently providing detection and quantification data within the aquatic environment, herbicide application and control rate can be monitored, adjusted and otherwise controlled. Such control increases efficiency in the management of aquatic vegetation. Such vegetation may include waterhemp, duckweed or algae. RAOznn / eznz / E / YiAi According to one embodiment, the system can be used to detect and quantify analytes from any vessel or container that may come into contact internally with an analyte, such as a chemical contaminant. The system as provided herein can be placed in fluid communication with a vessel to detect and quantify analytes in real time. Fluid communication may be established through a tube or other conduit that allows any fluid containing the fluid containing the aquatic test sample composition to contact or flow through the system as provided herein. . According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped to, a mobile vehicle. Suitable mobile vehicles include, but are not limited to, unmanned aerial vehicles (UAV), unmanned ground vehicles (UGV), drones, manned aircraft, and manned vehicles. Food Applications By being mobile and used close to the food product in question, a user can receive results efficiently and any care decisions or corrective measures can be immediately implemented. The interferometric systems provided here provide an important technical advance to detect, quantify and RAOznn / eznz / E / YiAi even track various chemicals and pathogens within a food or food processing environment. The systems provided herein provide a means to indicate and assist in the control of the movement of analytes that affect food safety and quality. The systems provided here also provide a means to assess the presence of analytes in a food processing environment, as well as function as a microbiome-based monitoring system to provide an early warning system for the detection of unwanted pathogens in food processing environments. food. According to a particular embodiment, the systems provided herein can be used to detect and quantify pesticide levels in a food processing facility. By efficiently providing detection and quantification data within the food processing environment, exposure to analytes can be monitored, adjusted and otherwise controlled. According to such an embodiment, the system will detect and quantify one or more analytes at parts per million (ppm), parts per billion (ppb) or parts per trillion (ppt) levels. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of 2,4-D (2,4RAOznn / cznz / E / YiAi dichlorophenoxyacetic acid), dicamba (2-methoxy-3,6dichlorobenzoic acid) , butylated hydroxyanisole, butylated hydroxytoluene, recombinant bovine growth hormone, sodium aluminum sulfate, potassium aluminum, sulfate, bisphenol-A (BPA), sodium nitrite / nitrate, polycyclic aromatic hydrocarbons, heterocyclic amines, acrylamide, brominated vegetable oil, artificial food dyes / dyes and dioxins. According to one embodiment, the system can be used to detect and quantify analytes from any vessel or container that may come into contact internally with an analyte, such as a pathogen or chemical contaminant. The system as provided herein can be placed in fluid communication with a container or other piece of food processing equipment to detect and quantify analytes in real time. Fluid communication may be established through a tube or other conduit that allows any fluid containing at least analyte to contact or flow through the system as provided herein. According to a particular embodiment, a fluid source of analytes includes an industrial or commercial container adapted to store, process or transport food. Such a container may be located in or around a shipping container that stores and transports food. The shipping container can be RAOznn / eznz / E / YiAi located on a truck, train or other means of transportation. The shipping container may also be located on or around the shipping dock. According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped to, a mobile vehicle. Suitable mobile vehicles include, but are not limited to, unmanned aerial vehicles (UAV), unmanned ground vehicles (UGV), drones, manned aircraft, and manned vehicles. Chemical Applications By being mobile and used close to the point in the industrial supply chain where the analyte needs to be measured, a user can receive results in an efficient manner and any care decisions or corrective measures can be immediately implemented. The interferometric systems provided here provide an important technical advance for detecting, quantifying and even tracking various chemicals within a chemical environment. The systems provided herein provide a means to indicate and assist in the control of the processing, storage and movement of chemicals. The systems provided here also provide a means of evaluating the presence of chemicals in a water supply, just as they work RAOznn / eznz / E / YiAi as a microbe-based monitoring system to provide an early warning system for the detection of unwanted pathogens. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of a chemical in an industrial environment, such as in a chemical processing facility. By providing detection and quantification data efficiently within the production environment, chemical exposure can be monitored, adjusted and otherwise controlled. According to such an embodiment, the system will detect and quantify one or more chemicals at parts per million (ppm), parts per billion (ppb), or parts per trillion (ppt) levels. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of a chemical herbicide (e.g., 2,4-D (2,4-dichlorophenoxyacetic acid) and dicamba (2-methoxy-3, 6 -dichlorobenzoic)) in a chemical environment. According to one embodiment, the system can be used to detect and quantify analytes from a vessel or container that may come into internal contact with an analyte, such as a chemical contaminant. The system as provided herein may be placed in fluid communication with a chemical vessel or other piece of processing equipment. RAOznn / eznz / E / YiAi chemical to detect and quantify analytes in real time. Fluid communication may be established through a tube or other conduit that allows any fluid containing at least analyte to contact or flow through the system as provided herein. According to a particular embodiment, the systems provided herein can be used to detect and quantify levels of various chemicals, including, but not limited to, benzene, toluene, xylene, trichlorethylene, perchlorethylene, dichloroethylene, vinyl chloride, chloramine, nicotine, nmethylphenylethylamine methamphetamine, Ν,Ν-dimethyl acetamide (DMAC), dimethylmethylphosphonate (DMMP), methyl salicylate, 2,4,6trinitrotoluene, acetaldehyde, methylene chloride, hexane, acetone, methanol, pyrrole, chloroform, chlorine (or any other element), hydrochloric acid, ammonia, Freon or 2vinylpyridine. According to a particular embodiment, an analyte fluid source includes an industrial or commercial container adapted to store, process or transport one or more chemicals. The container may be located in or around a shipping container that stores and transports a chemical fluid. The shipping container may be located on a truck, train, or other means of transportation. The shipping container too RAOznn / cznz / E / YiAi may be located in or around the transport dock. According to a particular embodiment, the interferometric system provided herein may be used in connection with, or otherwise equipped on, a mobile vehicle. Suitable mobile vehicles include, but are not limited to, unmanned aerial vehicles (UAV), unmanned ground vehicles (UGV), drains, manned aircraft and manned vehicles. Detection and Quantification Methods Figure 11 illustrates a method 1200 for detecting and quantifying the analyte level in a test sample composition. The method includes the step of collecting 1202 or otherwise obtaining a target sample having one or more analytes. In different embodiments, the target sample can be obtained from the appropriate target which depends on the location and environment. According to one embodiment, the method further includes the optional step of entering 1204 a user identifier (ID) into the system. Additionally, an identification number associated with the sample, analyte or interest, or a combination thereof, may be entered. The used cartridge system may be equipped with a label or sticker bearing such information. The label or sticker may include a QR code that includes such information. The label or decal can be removed before RAOznn / eznz / E / YiAi of its use. Identification information may include metadata such as time, GPS data or other data generated by the interferometric system described herein. According to one embodiment, the method further includes the step of introducing the target sample into the interferometric system 1206. According to one embodiment, the target sample is introduced into the cartridge using a separate device, such as a syringe or a pump. According to one embodiment, the target sample is introduced by an injection device. According to one embodiment, the injection device may be permanently coupled to the cartridge system. According to one embodiment, the injection device is a pipette. According to one embodiment, the injection device is a syringe. According to one embodiment, the injection device is a lancet, pipette or capillary tube. When a multi-use cartridge system is used, the cartridge system can be fitted onto a tube or other transfer mechanism to allow the sample to be continuously taken from a large amount of the fluid being monitored. According to one embodiment, the method further includes the step of mixing 1208 the target sample with a buffer solution to form a test sample composition. In a multi-use cartridge system, such a step RAOznn / eznz / E / YiAi can be produced before the test sample composition is introduced into the cartridge system. In a single-use cartridge system, such a step can be produced in the elastic mixing chamber with the help of a pump. The method for detecting and quantifying the level of analyte in a sample includes initiating waveguide interferometry 1210 in the test sample composition. Such a step may include initiating movement of the light signal through the cartridge system as provided herein and receiving the light signal within the detector unit. Any change in an interference pattern is representative of the analyte in the test sample composition. In particular, such changes in an interference pattern generate data related to one or more analytes in the test sample composition. According to one embodiment, the step of initiating waveguide interferometry 1210 on the test sample composition includes the step of correlating the phase change data with the calibration data to obtain data related to analyte identity, the analyte concentration or a combination thereof. According to one embodiment, the method further includes the step of processing 1212 any data resulting from changes in the interference pattern. Such changes in the interference pattern can be processed and translated in another way, RAOznn / eznz / E / YiAi to indicate the presence and amount of an analyte in the composition in a test sample. The processing may be assisted by a computer program, processing units, processors, servers or other component suitable for processing. The step to process the data may further include storing the data on storage media as provided herein. According to one embodiment, the method further includes the step of transmitting a data signal 1214. The signal may result in the display of data on the system. The step of transmitting the data may include displaying analyte levels by projecting any data in real time on a screen as described here. The step of transmitting the data may include transmitting any data obtained to a mobile phone, smartphone, tablet, computer, laptop, watch or other wireless device. Data can also be sent to a device at a remote destination. The remote target device can be a locally operated mobile or portable device, such as a smartphone, tablet, keyboard, or laptop. The destination can also be a smartphone, keyboard, computer, cloud device, or server. In other embodiments, the remote destination may be a standalone or networked computer, a device on the RAOznn / eznz / E / YiAi cloud or a server accessible through a local portable device. A diagnosis of an infection in a healthcare setting may be based on the amount of analyte. Diagnosis can be based on the use of one or more immunoglobulins as detection materials. The method may optionally include the step of removing the test sample composition 1216 in accordance with legal requirements. Such legal requirements ensure that any sample still containing unacceptable levels of pathological contamination is properly disposed of so as not to cause harm to a user or the environment. According to one embodiment, the method further includes the step of initiating 1218 a cleanup or remedial countermeasure against any detected analyte. Such remedial measure may include introducing cleaning chemicals or beneficial microorganisms into the healthcare environment. Remedial measures may function to kill or otherwise neutralize any unwanted analytes present in the healthcare environment where a sample was taken. Although the present description describes components and functions that can be implemented in particular embodiments with reference to particular standards and protocols, the invention is not limited to such standards and RAOznn / eznz / E / YiAi protocols. For example, standards for the Internet and other packet transmission networks (e.g., TCP / IP, UDP / IP, HTML, HTTP) represent examples of the prior art. Such standards are periodically replaced by faster or more efficient equivalents that have essentially the same functions. Accordingly, replacement standards and protocols that have the same or similar functions as those described herein are considered equivalents thereof. Although specific embodiments of the present invention are illustrated and described in detail, the invention is not limited thereto. The above detailed descriptions are provided as exemplary of the present invention and should not be construed as constituting any limitation of the invention. The modifications will be apparent to those skilled in the art, and all modifications that do not depart from the spirit of the invention are intended to be included within the scope of the appended claims. PROPHETIC EXAMPLE 1 Detection and Quantification of SARS-CoV-2 A healthcare setting or assessment unit can be configured to assist in the high-throughput detection and quantification of SARS-CoV-2 in a patient. A medical professional or other trained user RAOznn / eznz / E / YiAi can get a sample. A user can obtain a sample in the form of a small blood sample. In the case of a blood sample, the user can clean a patient's finger with an alcohol swab. The user can prick or otherwise prick the finger and obtain an effective amount (aliquot) of blood to the system. The blood aliquot can be obtained through a medical device such as a sterile disposable hemoglobin pipette. Since the systems provided here only require a small amount of sample, the system eliminates the need for large volume sampling and centrifugation, thereby significantly simplifying use and speeding up the process compared to existing technologies that require a large sample volume. A cartridge is then placed into the sensing component of the system, if not already present. The cartridge can be fully replaceable and disposable after each use. The user can optionally enter a user identifier (ID) into the system and the system optionally transmits that information to the remote server for authentication or stores the information locally. Any of a number of techniques can be used to tag identifiers, such as radio frequency identifiers (RFID) on, or within a sample. Alternatively, a unique serial number, a RAOznn / eznz / E / YiAi code or other identifier associated with a sample can be manually entered into the system and, optionally, transmitted to a remote server. Additionally, the user may use the system to scan or manually enter one or more substance / contaminant identifiers, such as a Universal Product Code (UPC) for the one or more analytes believed to be present in the sample and inform the remote server of the one or more analytes. The system may also include geolocation information in its communications with the server, either from a GPS sensor included in the system or a GPS software function capable of generating the location of the system in cooperation with a cellular or other network. communication in communication with the system. For the detection and quantification of SARS-CoV-2, one or more antibodies specific for the surface proteins on SARS-CoV-2 will be included in the sensitive layer. Antibodies may be specific for spike, envelope, membrane and nucleocapsid proteins found on the surface of SARS-CoV-2. If present, the user can initialize the system by pressing a start button or other similar means to start any electronic component present in the system. If present, optionally the user can RAOznn / eznz / E / YiAi press an injection bulb or similar mechanical component to inject a buffer solution into the cartridge. Any display on the system may then provide a visual signal indicating that the system is ready for sample introduction (e.g., a READY signal). If present, the user can press another external display or button to indicate to the system that a sample is ready to be entered (for example, SAMPLE). To introduce a sample, an aliquot of the sample can be added via a sample collection component. Such a step can be achieved through a disposable pipette or similar device that is suitable for storing a sample until needed. A user can then press the injection bulb or similar mechanical component to mix the sample and buffer aliquot and introduce the mixture into the cartridge. According to an alternative embodiment, the buffer solution may be mixed with the sample aliquot in a separate step prior to introduction into the cartridge. A user may then press the injection bulb or similar mechanical component one or more times to ensure that the sample mixture has completely transitioned or otherwise migrated into the cartridge and begins to flow through. RAOznn / eznz / E / YiAi of the waveguide channels in the waveguide. Upon reaching the waveguide, the detection and quantification processes are carried out. Depending on the goal of the point-of-care procedure, one or more biological components in the sample will bind to the sensitive layer of the waveguide channels, thereby altering the evanescent field over the waveguide channels. Changes in the interference pattern will create an electronic signal that can be translated to produce a readout on a display on an external surface of the system. Any medical device used during use can be properly disposed of in a biowaste container. The cartridge within the system can then be removed and replaced with a new cartridge or cleaned before next use. The cartridge can be completely discarded and placed in a biological waste container along with medical devices used during use. PROPHETIC EXAMPLE 2 Avian Influenza Detection A healthcare setting or mobile testing unit can be configured to assist in high-throughput detection and quantification of avian influenza in a patient. A medical professional or other trained user can perform the same general steps as set forth in Prophetic Example 1. When detected and RAOznn / cznz / E / YiAi quantifies avian influenza in a sample, any avian influenza analyte particle can be captured with the use of avian influenza-specific antibodies on the sensitive layer that are configured to bind to the surface protein of avian influenza. In some embodiments, monoclonal and polyclonal antibodies can be used in the sensitive layer. In other embodiments, polyclonal antibodies can be used to bind to one or more antigenic sites on the viral protein, thereby reducing the probability of a false negative indication (avoiding looking at only one antigenic epitope). PROPHETIC EXAMPLE 3 Drug Detection The systems provided herein can be used to assist in high-throughput detection and quantification of a small molecule, such as a drug or drug metabolite in a patient. Such detection methods may be particularly useful for screening at work or for legal reasons. Such screening methods may also be particularly useful in emergency departments of healthcare facilities where drug overdose is suspected. A medical professional or other trained user can carry out the same general steps as set out in Predictive Example 1. When detecting and quantifying drug metabolites in a RAOznn / eznz / E / YiAi shows, any target small molecule can be captured with the use of molecularly imprinted polymers in the sensitive layer that are configured to bind small molecules. Data regarding a specific class of drug or specific pharmacological compound can be efficiently provided towards a user. Any applicable report can be sent wirelessly to a third party, such as a potential employer or law enforcement agency, if necessary. PROPHETIC EXAMPLE 4 Pathogenic Detection and Quantification in Dental Offices The systems provided here can be used to assist in the high-throughput detection and quantification of SARS-CoV-2 through implementation of the systems in dental offices. Dental offices deal with various oral diseases, but are also subject to common diseases and viral threats such as HIV, Hepatitis, Flu, and Corona Viruses such as SARS-CoV2. The United States dental industry has more than 150,000 dental hygienists who see approximately 8 patients per day or approximately 1,200,000 per day nationwide (0.38% of the United States population daily or approximately 7.5% of the population monthly) . More than half of the population of the United States RAOznn / eznz / E / YiAi United States visit a dental hygienist at least once a year. Dental hygienists are trained to deal with both saliva and blood and the real potential that the patient could be infected with various analytes such as SARS-CoV-2. Using the systems provided here to detect these potential viral analytes prior to a dental exam can serve at least two purposes: The systems provided here can diagnose a patient while providing early intervention, as well as monitor pathogens for help prevent outbreaks, epidemics or pandemics. According to one embodiment, the systems provided herein may be used to screen or detect a pathogen for each patient prior to, or upon entering, a dental office (HIPAA compliance required). The system may be located in a lobby or in a separate area so that results related to pathogenic infection can be provided prior to office entry and subsequent dental treatment. Screening can occur with a sample of saliva or blood from a patient. Such a screening process may be financially subsidized by a patient's dental insurance, as well as supported by both the ADA and the AMA. According to one embodiment, the systems provided herein can be used to provide the dental office with a source RAOznn / eznz / E / YiAi additional revenue through patient screening. Figure 12A illustrates a quantification and monitoring system for analytes within an aqueous target sample from a rinse sink. As illustrated in Figure 12A, an interferometric system 1300 may be used to monitor rinse water 1310 flowing out of a dental rinse sink 1320. In use, rinse water 1310 may move through a first pipe. drain 1330 and be diverted by a valve 1340 between a collection pipe 1350 for the interferometric system 1300 and a drain / septic pipe 1360. Figure 12A illustrates a quantification and monitoring system for analytes within an aqueous target sample from the suction line. As illustrated in Figure 12B, an interferometric system 1400 may be used to monitor rinse water 1410 flowing through a dental suction line 1420 used during a dental cleaning or other procedure. In use, rinse water 1410 may be moved through a first drain pipe 1430 and diverted by a valve 1440 between a collection pipe 1450 for the interferometric system 1400 and a drain / septic pipe 1460. The results of monitoring in a dental office can be sent to a third monitoring service. According to such a modality, the interferometric system RAOznn / eznz / E / YiAi 100 provides a reliable sampling of the general United States population. By enumerating patients, geolocating the suction or sink line, and sending the data to a central location (e.g., a cloud-based server), the system can function as a digitized monitoring system to map results to across the United States. After sampling rinse water from a particular patient, the system can initiate a cleaning and decontamination step of the suction line, tubing, and any components within the system. According to a particular embodiment, the cartridge system within the interferometric system can be removed and replaced with a new cartridge after each use or cleaned before the next use. According to a particular embodiment, the cartridge system within the interferometric system may be removed and replaced with a new cartridge periodically. The interferometric system can also become part of the normal maintenance of those managing the dental office, making detection and monitoring methods optimal. The statistical relevance of this type of monitoring allows for non-HIPAA data collection while monitoring the health of a particular region and, in turn, the United States as a whole. In the event that HIPAA laws require an authorization for this type of RAOznn / eznz / E / YiAi 101 monitoring, a bypass switch can be installed and the system will reduce the sample size for analysis by that number. PROPHETIC EXAMPLE 5 Detection and Quantification of Bartonella People at high risk for Bartonella infection include those who work or live with animals, or those with high exposure to fleas, ticks, lice, and biting flies. Infections such as bartonellosis are increasingly implicated in complex chronic disease syndromes, but are extremely difficult to diagnose accurately. Therefore, an animal health setting may use a system provided herein for rapid detection and quantification of Bartonella in a pet, such as a cat or dog, which may function as a vector for transmission. A veterinary professional or other trained user can obtain a sample. A user may obtain a sample in the form of a small sample of blood, tissue, or other biological fluid such as pus. In the case of a blood sample, the user can clean the target area with an alcohol swab. The user can prick or prick the animal's skin and obtain an effective amount (aliquot) of blood for the system. The blood aliquot can be RAOznn / eznz / E / YiAi 102 obtained through a medical device such as a sterile disposable hemoglobin pipette. Since the systems provided here only require a small amount of sample, the system eliminates the need for large volume sampling and centrifugation, thereby significantly simplifying use and speeding up the process compared to existing technologies that require large volumes. shows. A cartridge is then placed into the sensing component of the system, if it is not already present. The cartridge can be fully replaceable and disposable after each use. The user may optionally enter a user identifier (ID) into the system and the system optionally transmits that information to the remote server for authentication or stores the information locally. Any of a number of techniques can be used to label identifiers, such as radio frequency identifiers (REIDs) on or within a sample. Alternatively, a unique serial number, code or other identifier associated with a sample can be manually entered into the system and, optionally, transmitted to a remote server. Additionally, the user can use the system to scan or manually enter one or more substance / contaminant identifiers such as a RAOznn / eznz / E / YiAi 103 Universal Product Code (UPC) for one or more analytes believed to be present in the sample and inform the remote server of one or more analytes. The system may also include geolocation information in its communications with the server, either from a GPS sensor included in the system or a GPS software function capable of generating the location of the system in cooperation with a cellular or other network. communication in communication with the system. For the detection and quantification of Bartonella, one or more antibodies specific for surface proteins on Bartonella will be included on the reactive layer. Antibodies may be specific for the spike, envelope, membrane, and nucleocapsid proteins found on the surface of Bartonella. If present, the user can initialize the system by pressing a start button or other similar means to start any electronic component present in the system. If present, the user can optionally depress an injection bulb or similar mechanical component to inject a buffer solution into the cartridge. Any display on the system may then provide a visual signal that the system is ready for sample introduction (e.g., the READY signal). If present, then the user can RAOznn / eznz / E / YiAi 104 press another display or external button to indicate to the system that a sample is ready to be entered (for example, SAMPLE). To introduce a sample, an aliquot of the sample can be added via a sample collection component. Such a step can be achieved through a disposable pipette or similar device that is suitable for storing a sample until it is needed. A user can then press the injection bulb or similar mechanical component to mix the sample aliquot and buffer solution and introduce the mixture into the cartridge. According to an alternative embodiment, the buffer solution may be mixed with the sample aliquot in a separate step prior to introduction into the cartridge. A user can then press the injection bulb, or similar mechanical component, one or more times to ensure that the sample mixture has completely transitioned or migrated into the cartridge and begins to flow through the guide channels. wave in the waveguide. Upon reaching the waveguide, the detection and quantification processes are carried out. Depending on the goal of the point-of-care procedure, one or more biological components in the sample will bind to the reactive surface of the waveguide channels, thereby altering the evanescent field by RAOznn / eznz / E / YiAi 105 above the waveguide channels. Changes in the interference pattern will create an electronic signal that can be translated to produce a readout on a display on an external surface of the system. Any medical devices used during use can then be properly disposed of in a biowaste container. The cartridge inside the system can be removed and replaced with a new cartridge or cleaned before next use. The cartridge can be completely disposable and placed in a biological waste container along with used medical devices during use. PROPHETIC EXAMPLE 6 Avian Influenza Detection A portable interferometric system such as the one provided here could be installed in an animal health environment to help rapidly detect and quantify avian influenza in a chicken. A veterinary professional or other user can carry out the same general steps as set out in Predictive Example 1. When influenza is detected and quantified in a sample, any influenza analyte particles can be captured with the use of specific antibodies. of influenza in the reactive layer that are configured to bind to the influenza surface protein. In some embodiments, monoclonal and polyclonal antibodies can be used in the layer RAOznn / eznz / E / YiAi 106 reactive. In other embodiments, polyclonal antibodies can be used to bind to one or more antigenic sites on the viral protein, thereby reducing the likelihood of a false negative indication (in this case, avoiding looking at only one antigenic epitope). PROPHETIC EXAMPLE 7 Frion Detection Chronic Wasting Disease In an animal health setting, a portable interferometric system such as the one provided here may be established to help rapidly detect and quantify prions (misfolded proteins) in an animal suspected of suffering from chronic wasting disease. Such an animal can be a cow, sheep, deer or elk. A veterinary professional or other user can carry out the same general steps as set out in Predictive Example 1. When prions or related markers are detected and quantified in a sample, any prion particles can be captured with the use of specific antibodies or aptamers in the reactive layer that are configured to bind to the target prion. PROPHETIC EXAMPLE 8 Detection and Quantification of 2,4-D or Dicamba A point-of-use test unit can be configured to assist in high quantification detection. RAOznn / eznz / E / YiAi 107 performance of 2,4-D or dicamba in an agricultural tank. Dicamba products are typically diluted with water in a spray tank and sprayed onto the crop to selectively kill broadleaf weeds within fields of crops genetically modified to be resistant to herbicidal chemicals (GMOs). Dicamba is known to cause damage to many broadleaf plants at parts per trillion levels. Similarly, 2,4-D is also a powerful broadleaf herbicide and can be used in place of dicamba. If any of the residual herbicides are present in the spray tank when subsequently used for other crops that are sensitive to dicamba or 2,4-D, the non-GMO crop may be killed or significantly damaged, resulting in a loss of income. for the producer. A sample can be obtained from the tank. A cartridge is then placed inside the system sensing component, if it is not present. The cartridge can be fully replaceable and disposable after each use. The user can optionally enter a user identifier (ID) into the system and the system optionally transmits that information to the remote server for authentication or stores the information locally. Any of a number of identifier tagging techniques can be used, such as RAOznn / eznz / E / YiAi 108 radiofrequency (REID) on or within a sample. Alternatively, a unique serial number, code or other identifier associated with a sample can be manually entered into the system and, optionally, transmitted to a remote server. Additionally, the user may use the system to scan or manually enter one or more substance / contaminant identifiers, such as a Universal Product Code (UPC) for one or more analytes believed to be present. in the sample and inform the remote server of one or more analytes. The system may also include geolocation information in its communications with the server, either from a GPS sensor included in the system or a GPS software function capable of generating the location of the system in cooperation with a cellular or other network. communication in communication with the system. For the detection and quantification of 2,4-D, one or more antibodies specific for 2,4-D will be included in the detection layer of at least one of the waveguides. For the detection and quantification of dicamba, one or more 2,4-D-specific antibodies may be included in the detection layer of at least one of the waveguides and, in addition, a molecularly imprinted polymer (MIP). its acronym in English) designed specifically to be sensitive RAOznn / eznz / E / YiAi 109 a dicamba will be present in at least one of the waveguides. If present, the user can initialize the system by pressing a start button or other similar means to start any electronic component present in the system. If present, the user can optionally depress an injection bulb or similar mechanical component to inject a buffer solution into the cartridge. Any display on the system may provide a visual signal that the system is ready for sample introduction (e.g., READY signal). If present, the user can then press another external display or button to signal to the system that a sample is ready to be entered (e.g., SAMPLE). To introduce a sample, an aliquot of the sample can be added via a sample collection component. Such a step can be accomplished through a disposable pipette or similar device that is suitable for storing a sample until it is needed. A user can then press the injection bulb or similar mechanical component to mix the sample aliquot and buffer solution and introduce the mixture into the cartridge. According to an alternative embodiment, the buffer solution can be mixed with RAOznn / eznz / E / YiAi 110 the sample aliquot in a separate step before introduction into the cartridge. A user can then press the injection bulb, or similar mechanical component, one or more times to ensure that the sample mixture has completely transitioned or migrated into the cartridge and begins to flow through the injection channels. waveguide in the waveguide. Upon reaching the waveguide, detection and quantification processes are carried out. Depending on the goal of the point-of-use procedure, one or more analytes in the sample will bind to the detection layer of the waveguide channels, thereby altering the evanescent field over the waveguide channels. Changes in the interference pattern will create an electronic signal that can be translated to produce a readout on a display on an external surface of the system. The cartridge inside the system can be removed and replaced with a new cartridge or cleaned before next use. The cartridge can be completely discarded and placed in a suitable waste container. If the tank contains 2,4-D, the waveguides that are treated with the antibodies will provide a strong indication of its presence. Due to the similar chemical nature of dicamba, a weak signal will also be present from the molecularly imprinted polymer specific to dicamba. If instead of 2,4-D, dicamba is present in the RAOznn / eznz / E / YiAi 111 tank, the signals will be generated only by the molecularly imprinted polymer. The 2,4-D specific antibody will not show a positive result. If both dicamba and 2,4-D are present, both types of sensors would generate strong signals. The computer program will use the strength of the signals and the combination of which the sensors reported values ​​to determine the content and concentration of the contaminants. In this way, the combination of combined sensor data processing can detect and discriminate dicamba and 2,4-d in a way that is not possible with either sensor alone. PROPHETIC EXAMPLE 9 Detection of Analytes from Surface Waters Agricultural input runoff can present challenges for producers operating near bodies of water or near suburban or urban areas. An interferometric system such as that provided here can be established to assist in the high-throughput detection and quantification of one or more target analytes in a surface water source (e.g., a stream or drainage canal), particularly when analytes may be present. not wanted. A sample can be obtained using an automatic collection device that will deliver an aliquot of sample to the device after RAOznn / cznz / E / YiAi 112 have the system install a new cartridge as needed. Target analytes may include any chemical contaminant, including, but not limited to, a volatile organic compound (such as benzene, toluene, ethylbenzene, and xylenes), tetrachloroethylene (PCE), trichlorethylene (TCE), and vinyl chloride (VC). Other chemical contaminants include gasoline, oil, nitrites, metals, insecticides, and pesticides such as fluridone and algaecides. PROPHETIC EXAMPLE 10 Detection of Analytes of Microbiomes and / or Fungi in Soil An interferometric system as provided here can be established to assist in the high-throughput detection and quantification of one or more target analytes (e.g., pythium, rhizoctonia, etc. or metabolites generated by Pythium, Rhizoctonia, as well as biopesticides, insecticides, etc.) on the ground. A sample of the soil can be obtained (for example, around the root zone) and an aliquot of sample prepared for delivery to the device. The sample may contain either beneficial microbiome and / or fungi or pathogenic microbiome and / or fungi. The test can measure independently or multiple times. PROPHETIC EXAMPLE 11 Pesticide Leaks An interferometric system can be established as follows: RAOznn / eznz / E / YiAi 113 provided herein to assist in the high-throughput detection of one or more target analytes in a crop field or surrounding field in the vicinity of a crop field subject to pesticide application. With proper placement, the interferometric system can detect and quantify pesticide leaks. In particular, pesticide leaks can be detected and quantified from farm field to farm field and farm to farm. Detection and quantification can also provide an indication of the amount of the pesticide remaining in the target crop field. The interferometric system can also produce and transmit a certificate of pesticide leak results to a user or third party. PROPHETIC EXAMPLE 12 Detection and Quantification of Cholera and Cyanobacteria A point-of-use testing unit can be established to assist in rapid detection and quantification of cyanobacteria, cholera (vibrio cholera), or a combination thereof in a surface water source. Cholera and cyanobacteria are known to have a symbiotic relationship, so testing for both analytes may be necessary. A user can obtain a sample from the water source. A cartridge is then placed inside the RAOznn / cznz / E / YiAi 114 sensing component of the system, if not already present. The cartridge can be completely replaceable and discarded after each use. The user can optionally enter a user identifier (ID) into the system and the system optionally transmits that information to the remote server for authentication or stores the information locally. Any of a number of identifier labeling techniques, such as radio frequency identifiers (REIDs), can be used on or within a sample. Alternatively, a unique serial number, code or other identifier associated with a sample can be manually entered into the system and, optionally, transmitted to a remote server. Additionally, the user can use the system to scan or manually enter one or more substance / contaminant identifiers, such as a Universal Product Code (UPC) for one or more analytes believed to be present in the sample and report to the server. remote from one or more analytes. The system may also include geolocation information in its communications with the server, either from a GPS sensor included in the system or a GPS software function capable of generating the location of the system in cooperation with a cellular or other network. communication in communication with the system. For the detection and quantification of a cyanobacteria, RAOznn / eznz / E / YiAi 115 one or more antibodies specific for cyanobacteria will be included in the receiving layer. The antibodies may be specific for microcystins such as microcystinLR found in connection with cyanobacteria. If present, the user can initialize the system by pressing a start button or other similar means to start any electronic component present in the system. If present, the user can optionally depress an injection bulb or similar mechanical component to inject a buffer solution into the cartridge. Any display on the system may provide a visual signal that the system is ready for sample introduction (e.g., READY signal). If present, the user can press another external display or button to indicate to the system that a sample is ready to be entered (for example, the SAMPLE signal). To introduce a sample, an aliquot of the sample can be added via a sample collection component. Such a step can be accomplished through a disposable pipette or similar device that is suitable for storing a sample until it is needed. A user can then press the injection bulb or similar mechanical component to mix the sample aliquot and buffer solution and introduce RAOznn / eznz / E / YiAi 116 the mixture in the cartridge. According to an alternative embodiment, the buffer solution may be mixed with the sample aliquot in a separate step prior to introduction into the cartridge. A user can then press the injection bulb or similar mechanical component one or more times to ensure that the sample mixture has completely transitioned or migrated into the cartridge and begins to flow through the sample guide channels. wave in the waveguide. Upon reaching the waveguide, detection and quantification processes are carried out. Depending on the objective of the point-of-use procedure, one or more analytes in the sample will bind to the receptor surface of the waveguide channels, thereby altering the evanescent field over the waveguide channels. Changes in the interference pattern will create an electronic signal that can be translated to produce a readout on a display on an external surface of the system. Any collection devices and interferometric cartridges used during use may be properly disposed of in a suitable waste container. The cartridge inside the system can be removed and replaced with a new cartridge or cleaned before next use. The cartridge can be completely discarded and RAOznn / eznz / E / YiAi should be placed in a suitable waste container. 117 PROPHETIC EXAMPLE 13 Detection of Groundwater Analytes A point-of-use test unit can be established to assist in the rapid detection and quantification of one or more target analytes in a groundwater source (e.g., groundwater). A user can obtain a sample from the source water and carry out the steps set forth with respect to Example 1. The target analytes can include any chemical contaminant, including, but not limited to, a volatile organic compound such as benzene. , toluene, ethylbenzene and xylenes), tetrachloroethylene (PCE), trichlorethylene (TCE), vinyl chloride (VC) and gasoline. Other chemical contaminants include oil, nitrites, metals and pesticides. PROPHETIC EXAMPLE 14 Detection and Quantification of Chlorpyrifos in a Food Processing Plant An interferometric system as provided here can be established to assist in the rapid detection and quantification of chlorpyrifos in the outputs of a food processing plant. Chlorpyrifos is an organophosphate insecticide, acaricide and acaricide used primarily to control foliage and soil-borne insect pests on a variety of food and forage crops. Chlorpyrifos is not allowed to be present in RAOznn / eznz / E / YiAi 118 foods sold in the United States. For the detection and quantification of a chlorpyrifos, one or more chlorpyrifos-specific antibodies or aptamers may be included in the detection layer as described herein. If the test sample composition is shown to be contaminated with chlorpyrifos, remedial measures may be applied. PROPHETIC EXAMPLE 15 Grocery Store Product Testing An interferometric system can be configured as provided here to assist in the detection and quantification of one or more target analytes in products as the product arrives at a Grocery Store. A trained user can obtain a sample from the surface of the product. The test sample can be obtained using an automatic collection device that will supply an aliquot of sample to the interferometric system. Targeted analytes may include any chemical contaminant, including, but not limited to, a volatile organic compound such as benzene, toluene, ethylbenzene and xylenes), tetrachloroethylene (PCE), trichloroethylene (TCE), vinyl chloride (VC) and gasoline. Other chemical contaminants include oil, nitrites, metals and pesticides. PROPHETIC EXAMPLE 16 RAOznn / eznz / E / YiAi Detection and Quantification of Microbiomes and / or Fungi in 119 Product Warehouses An interferometric system as provided herein can be established in a product storage facility to assist in the high-throughput detection and quantification of one or more target pathogenic analytes commonly found in products. Such analytes include, but are not limited to, E. coli, salmonella, pythium, asperigillus, rhizoctonia or metabolites thereof). A sample of the surface of the product and an aliquot of prepared sample can be obtained by wiping the product with a swab containing a buffer solution. The buffer solution is expressed from the swab and could be transferred to the device with a pipette. The system can measure beneficial and pathogenic analytes independently or in multiples. PROPHETIC EXAMPLE 17 A portable interferometric system as provided here can be established to assist in the rapid detection and quantification of chlorpyrifos in the products of a chemical processing plant. Chlorpyrifos is an organophosphate insecticide, acaricide and miticide used primarily to control foliage and soil-borne insect pests on a variety of food and forage crops. Chlorpyrifos is not allowed to be present in foods sold in RAOznn / eznz / E / YiAi 120 the United States. RAOznn / eznz / E / YiAi After a container is used to process chlorpyrifos and before the container is used for another purpose, the tank needs to be cleaned. For the detection and quantification of a chlorpyrifos, one or more chlorpyrifos-specific antibodies or aptamers may be included in the detection layer as described herein. If the test sample composition is shown to be contaminated with chlorpyrifos, remedial cleaning may continue until an adequate level of cleanliness is achieved. The following statements provide a general description of the description and are not intended to limit the accompanying claims. Statement 1. A portable interferometric system for the detection and quantification of analytes within a health test sample composition, the system comprises: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit within a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer. 121 wherein the interferometric chip includes one or more waveguide channels having a detection layer thereon, the detection layer being adapted to bind or otherwise be selectively perturbed by one or more analytes within the composition animal health test sample. Statement 2. The portable interferometric system of statement 1, wherein the portable housing is sized and shaped to fit in the user's hand. Statement 3. The portable interferometric system of statements 1-2, further comprising at least one display unit. Statement 4. The portable interferometric system of statements 1-3, further comprising an external camera, the external camera being adapted to capture a photo or video. Statement 5. The portable interferometric system of statements 1-4, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Claim 6. The portable interferometric system of claims 1-5, wherein the detection layer comprises one or more antigens, antibodies, DNA, aptamers, polypeptides, nucleic acids, carbohydrates, lipids or immunoglobulin molecularly imprinted polymers. RAOznn / eznz / E / YiAi 122 suitable for binding one or more analytes within a healthcare test sample composition. Statement 7. The portable interferometric system of statements 1-6, configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that could not have been detected by the individual waveguides alone. . Statement 8. The portable interferometric system of statements 1-7, wherein the one or more waveguide channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide channel. Statement 9. The portable interferometric system of statements 1-8, wherein the sensitive layer is configured to bind one or more small molecules, antibodies, viral antigens, viral proteins, bacteria, fungi, pathogens, RNA, chemicals, mRNA or any combination thereof. Statement 10. The portable interferometric system of statements 1-9, which has an analyte detection limit of approximately 1.0 picograms / L. Statement 11. The portable interferometric system of statements 1-10, which has an analyte detection limit of up to approximately 1000 pfu / ml. Statement 12. The portable interferometric system of RAOznn / eznz / E / YiAi 123 statements 1-11, where the detector has sensitivity to at least 2 pixels per pair of diffraction lines. Statement 13. The portable interferometric system of statements 1-12, further comprising a location means adapted to determine the physical location of the system. Claim 14. The portable interferometric system of claims 1-11, wherein the analyte is one or more of a fungicide, herbicide, insecticide, fungus, bacteria or microbe. Statement 15. A method for detecting and quantifying the level of the analyte in a healthcare test sample composition, the method comprising the steps of: collect a healthcare target sample containing one or more analytes; optionally enter an ID associated with the target sample; enter the target healthcare sample into the portable interferometric system of statements 114; optionally, mixing the target sample with a buffer solution to form a healthcare test sample composition; start waveguide interferometry in the RAOznn / eznz / E / YiAi 124 test sample composition; process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. Statement 16. The method of statement 15, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 17. The method of statements 15-16, further comprising the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 18. The method of statements 15-17, wherein the target healthcare sample is taken from water, soil, air, exhaled breath, skin, hair, or a body fluid or gaseous emission. of the body. Statement 19. The method of statements 15-18, wherein the target healthcare sample is in the form of, dissolved in, or suspended in a liquid or gas. Statement 20. The method of statements 15-19, wherein the resulting waveguide interferometry data is provided in, or less than, 30 minutes. Statement 21. A portable interferometric system RAOznn / eznz / E / YiAi 125 for the detection and quantification of analytes within an animal health test sample composition, the system comprising: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit into a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer. wherein the interferometric chip includes one or more waveguide channels having a detection layer, the detection layer being adapted to bind or be selectively perturbed by one or more analytes within the animal health test sample composition. . Statement 22. The portable interferometric system of statement 21, wherein the portable housing is sized and shaped to fit in the user's hand. Statement 23. The portable interferometric system of statements 21-22, further comprising at least one display unit. Statement 24. The portable interferometric system of statements 21-23, further comprising an external camera, the external camera being adapted to capture a RAOznn / eznz / E / YiAi 126 photo or video. Statement 25. The portable interferometric system of statements 21-24, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Claim 26. The portable interferometric system of claims 21-25, wherein the detection layer comprises one or more molecularly imprinted antigens, antibodies, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids or polymers, or immunoglobulins suitable for bind one or more analytes within an animal health test sample composition. Statement 27. The portable interferometric system of statements 21-26, configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that individually the waveguide channels could not have detected alone. Statement 28. The portable interferometric system of statements 21-27, wherein the one or more waveguide channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide channel. Statement 29. The portable interferometric system of statements 21-28, wherein the sensitive layer is configured to bind one or more chemicals, antibodies, RAOznn / eznz / E / YiAi 127 virus antigens, virus proteins, bacteria, fungi, pathogens, RNA, mRNA, plant growth regulators, metals or any combination thereof. Statement 30. The portable interferometric system of statements 21-29, which has an analyte detection limit of approximately 1.0 picogram / L. Statement 31. The portable interferometric system of statements 21-30, which has an analyte detection limit of up to approximately 1000 pfu / ml. Statement 32. The portable interferometric system of statements 21-31, which has sensitivity to at least 2 pixels per pair of diffraction lines. Statement 33. The portable interferometric system of statements 21-32, further comprising a location means adapted to determine the physical location of the system. Statement 34. The portable interferometric system of statements 21-33, wherein the analyte is one or more of a fungicide, herbicide, insecticide, fungus, bacteria or microbe. Statement 35. Method for detecting and quantifying the level of analyte in the composition of an animal health test sample, method comprising the steps of: collect a target animal health sample containing one or more analytes; RAOznn / eznz / E / YiAi 128 optionally enter an ID associated with the target sample; enter the target animal health sample into the portable interferometric system of statements 21-34; optionally, mixing the target sample with a buffer solution to form an animal health test sample composition; initiate waveguide interferometry on the test sample composition; process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. Statement 36. The method of statement 35, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 37. The method of statements 35-36, further comprising the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 38. The method of statements 35-37, wherein the target animal health sample is taken from feed, water, soil, air, exhaled breath, skin, hair tissue, or body fluids in or around an animal. RAOznn / cznz / E / YiAi 129 animal health environment. Statement 39. The method of statements 35-38, wherein the target animal health sample is in the form of, dissolved in, or suspended in a liquid or a gas. Statement 40. The method of statements 35-4 0, wherein the data resulting from waveguide interferometry is provided in, or less than, 30 minutes. Statement 41. A portable interferometric system for the detection and quantification of analytes within an agricultural test sample composition, comprising: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit into a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer. wherein the interferometric chip includes one or more waveguide channels having a detection layer thereon, the detection layer being adapted to bind or be selectively perturbed by one or more analytes within the test sample composition. agricultural. Statement 42. The portable interferometric system of statement 41, wherein the portable housing has the RAOznn / cznz / E / YiAi 130 size and shape to fit in the user's hand. Statement 43. The portable interferometric system of statements 41-42, further comprising at least one display unit. Statement 44. The portable interferometric system of statements 41-43, further comprising an external camera, the external camera being adapted to capture a photo or video. Statement 45. The portable interferometric system of statements 41-44, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Claim 46. The portable interferometric system of claims 41-45, wherein the detection layer comprises one or more molecularly imprinted antigens, antibodies, aptamers, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids or polymers, or immunoglobulins. suitable for binding one or more analytes within an agricultural test sample composition. Statement 47. The portable interferometric system of statements 41-46, configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that individually the waveguide channels could not have detected alone. Statement 48. The portable interferometric system of RAOznn / eznz / E / YiAi 131 statements 41-47, wherein the one or more waveguide channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide channel. Statement 49. The portable interferometric system of statements 41-48, wherein the sensitive layer is configured to bind one or more antibodies, viral antigens, viral proteins, bacteria, fungi, pathogens, RNA, chemicals, mRNA or any combination thereof. Statement 50. The portable interferometric system of statements 41-49, which has an analyte detection limit up to approximately 1.0 picogram / L. Statement 51. The portable interferometric system of statements 41-50, which has an analyte detection limit up to approximately 1000 pfu / ml. Statement 52. The portable interferometric system of statements 41-51, wherein the detector has sensitivity to at least 2 pixels per pair of diffraction lines. Statement 53. The portable interferometric system of statements 41-52, further comprising a locating means adapted to determine the physical location of the system. Statement 54. The portable interferometric system of statements 41-53, wherein the analyte is one or more of RAOznn / eznz / E / YiAi 132 a fungicide, herbicide, plant growth regulator, insecticide, fungus, bacteria or microbe. Statement 55. A method for detecting and quantifying the analyte level in an agricultural test sample composition, the method comprising the steps of: collect an agricultural target sample containing one or more analytes; optionally enter an ID associated with the target sample; enter the agricultural target sample into the portable interferometric system of statements 41-54; optionally, mixing the target sample with a buffer solution to form an agricultural test sample composition; initiating waveguide interferometry on the test sample composition; process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. Statement 56. The method of statement 55, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 57. The method of statements 55-56, RAOznn / eznz / E / YiAi 133 which further comprises the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 58. The method of statements 55-57, wherein the agricultural target sample is taken from a plant material, agricultural inputs, buildings, equipment, chemical tanks, chemical containers, agricultural spray tanks, soil, water or air in or around an agricultural environment. Statement 59. The method of statements 55-58, wherein the agricultural target sample is in the form of, dissolved in, or suspended in a liquid or gas. Statement 60. The method of statements 55-59, wherein the data resulting from waveguide interferometry is provided in, or less than, 30 minutes. Statement 61. A portable interferometric system for the detection and quantification of analytes within a chemical test sample composition, comprising: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit into a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a wafer of RAOznn / eznz / E / YiAi 134 flow cell. wherein the interferometric chip includes one or more waveguide channels having a detection layer thereon, the detection layer being adapted to bind or be selectively perturbed by one or more analytes within the test sample composition. chemistry. Statement 62. The portable interferometric system of statement 61, wherein the portable housing is sized and shaped to fit in the user's hand. Statement 63. The portable interferometric system of statements 61-62, further comprising at least one display unit. Statement 64. The portable interferometric system of statements 61-63, further comprising an external camera, the external camera being adapted to capture a photo or video. Statement 65. The portable interferometric system of statements 61-64, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Statement 66. The portable interferometric system of statements 61-65, wherein the detection layer comprises one or more antigens, antibodies, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids or molecularly imprinted polymers, immunoglobulins RAOznn / eznz / E / YiAi 135 suitable for binding one or more analytes within a chemical test sample composition. Statement 67. The portable interferometric system of statements 61-66, configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that individually the waveguide channels could not have detected alone. Statement 68. The portable interferometric system of statements 61-67, wherein the one or more waveguide channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide channel. Statement 69. The portable interferometric system of statements 61-68, wherein the sensitive layer is configured to bind one or more antibodies, virus antigens, viral proteins, bacteria, fungi, pathogens, RNA, chemicals, mRNA or any combination of them. Statement 70. The portable interferometric system of statements 61-69, which has an analyte detection limit of up to approximately 1.0 picogram / L. Statement 71. The portable interferometric system of statements 61-70, which has an analyte detection limit of up to approximately 1000 pfu / L. Statement 72. The portable interferometric system of statements 61-71 where the detector has RAOznn / eznz / E / YiAi 136 sensitivity of up to at least 2 pixels per pair of diffraction lines. Statement 73. The portable interferometric system of statements 61-72, further comprising a locating means adapted to determine the physical location of the system. Claim 74. The portable interferometric system of claims 61-73, wherein the analyte is one or more of a fungicide, herbicide, plant growth regulator, insecticide, fungus, bacteria or microbe. Statement 75. A method for detecting and quantifying the level of analyte in the composition of a chemical test sample, the method comprising the steps of: collect a chemical target sample containing one or more analytes; optionally enter an ID associated with the target sample; introducing the chemical target sample into a portable interferometric system of statements 61-74; optionally, mixing the target sample with a buffer solution to form a chemical test sample composition; initiating waveguide interferometry on the test sample composition; process any data resulting from interferometry RAOznn / eznz / E / YiAi 137 waveguide; and optionally, transmit any data resulting from the waveguide interferometry. Statement 76. The method of statement 75, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 77. The method of statements 75-76, further comprising the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 78. The method of statements 75-77, wherein the chemical target sample is taken from a chemical tank, chemical container, chemical processing equipment, or soil or air in or around a chemical processing environment or within of the supply chain of the chemical processing environment. Statement 79. The method of statements 75-78, wherein the target chemical health sample is in the form of, dissolved in, or suspended in a liquid or gas. Statement 80. The method of statements 75-79, wherein the data resulting from waveguide interferometry is provided in, or less than, 30 minutes. Statement 81. A portable interferometric system for the detection and quantification of analytes within a RAOznn / eznz / E / YiAi 138 aquatic test sample composition, comprising: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit into a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer. wherein the interferometric chip includes one or more waveguide channels having a detection layer, the detection layer being adapted to bind or be selectively perturbed by one or more analytes within the aquatic test sample composition. Statement 82. The portable interferometric system of statement 81, wherein the portable housing is sized and shaped to fit in the user's hand. Statement 83. The portable interferometric system of statements 81-82, further comprising at least one display unit. Statement 84. The portable interphenometer system of statements 81-83, further comprising an external camera, the external camera being adapted to capture a photo or a video. RAOznn / eznz / E / YiAi Statement 85. The portable interferometric system of 139 statements 81-84, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Claim 86. The portable interferometric system of claims 81-85, wherein the detection layer comprises one or more molecularly imprinted antigens, antibodies, DNA, aptamers, polypeptides, nucleic acids, carbohydrates, lipids or polymers, or immunoglobulins suitable for bind one or more analytes within an aquatic test sample composition. Statement 87. The portable interferometric system of statements 81-86, wherein the system is configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that individually guides the channels. they could not have detected alone. Statement 88. The portable interferometric system of statements 81-87, wherein the one or more waveguide channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide channel. Statement 89. The portable interferometric system of statements 81-88, wherein the sensitive layer is configured to bind one or more antibodies, viral antigens, viral proteins, bacteria, fungi, pathogens, RAOznn / eznz / E / YiAi 140 RNA, chemicals, mRNA or any combination thereof. Statement 90. The portable interferometric system of statements 81-89, which has an analyte detection limit of up to approximately 1.0 picograms / L. Statement 91. The portable interferometric system of statements 81-90, which has an analyte detection limit of up to approximately 1000 pfu / ml. Statement 92. The portable interferometric system of statements 81-91, wherein the detector has sensitivity to at least 2 pixels per pair of diffraction lines. Statement 93. The portable interferometric system of statements 81-92, which further comprises a location means adapted to determine the physical location of the system. Statement 94. The portable interferometric system of statements 81-93, wherein the analyte is one or more of a fungicide, herbicide, plant growth regulator, insecticide, fungus, bacteria or microbe. Statement 95. Method for detecting and quantifying the analyte level in an aquatic sample composition, the method comprising the steps of: collect an aquatic target sample containing one or more analytes; optionally enter an ID associated with RAOznn / eznz / E / YiAi 141 the target sample; enter the aquatic target sample into a system of statements 81-94; optionally, mixing the target sample with a buffer solution to form an aquatic test sample composition; initiating waveguide interferometry on the test sample composition; process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. Statement 96. The method of statement 95, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 97. The method of statements 95-96, further comprising the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 98. The method of statements 95-97, wherein the aquatic target sample is collected from salt water, fresh water, a fish farm, effluent system, waterway, water reservoir, drinking water source, or sanitary sewer. RAOznn / eznz / E / YiAi 142 Statement 99. The method of statements 95-98, wherein the aquatic target sample is in the form of, dissolved in, or suspended in a liquid or a gas. Statement 100. The method of statements 95-99, wherein the data resulting from waveguide interferometry is provided in, or less than, 30 minutes. Statement 101. A portable interferometric system for the detection and quantification of analytes within a food processing test sample composition, the system comprising: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit into a portable housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer, wherein the interferometric chip includes one or more channels of waveguide having a detection layer, the detection layer is adapted to bind or be selectively perturbed by one or more analytes within the food processing test sample composition. Statement 102. The portable interferometric system of the RAOznn / cznz / E / YiAi 143 statement 101, wherein the wearable case is sized and shaped to fit in the user's hand. Statement 103. The portable intermetric system of statements 101-102, which further comprises at least one display unit. Statement 104. The portable interferometric system of statements 101-103, further comprising an external camera, the external camera being adapted to capture a photo or video. Statement 105. The portable interferometric system of statements 101-104, comprising an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system. Statement 106. The portable intermetric system of statements 101-105, wherein the detection layer comprises one or more molecularly imprinted antigens, antibodies, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids or polymers, or immunoglobulins suitable for bind one or more analytes within a food processing test sample composition. Statement 107. The portable interferometric system of statements 101-106 is configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that the guide channels RAOznn / eznz / E / YiAi 144 waves individually could not have been detected alone. Statement 108. The portable interferometric system of statements 101-107, wherein the one or more waveguide flow channels each comprise a different sensitive layer to allow the system to detect different analytes in each waveguide flow channel. vibe. Statement 109. The portable interferometric system of statements 101-108, wherein the sensitive layer is configured to bind one or more antibodies, viral antigens, viral proteins, bacteria, fungi, pathogens, RNA, chemicals, mRNA or any combination of the same. Statement 110. The portable interferometric system of statements 101-109, with an analyte detection limit of up to approximately 1.0 picograms / L. Statement 111. The portable interferometric system of statements 101-110, which has an analyte detection limit up to approximately 1000 pfu / ml. Statement 112. The portable interferometric system of statements 101-101, wherein the detector has sensitivity of up to at least 2 pixels per pair of diffraction lines. Statement 113. The portable interferometric system of statements 101-102, which further comprises a location means adapted to determine the physical location of the RAOznn / eznz / E / YiAi system. 145 Statement 114. The portable interferometric system of statements 101-103, wherein the analyte is one or more of 2,4-D (2,4-dichlorophenoxyacetic acid), dicamba (2methoxy-3,6-dichlorobenzoic acid), hydroxyanisole butylated, butylated hydroxytoluene, recombinant bovine growth hormone, sodium aluminum sulfate, potassium aluminum, sulfate, bisphenol-A (BPA), sodium nitrite / nitrate, polycyclic aromatic hydrocarbons, heterocyclic amines, acrylamide, brominated vegetable oil, colorants / artificial food dyes and dioxins. Statement 115. A method for detecting and quantifying the level of analyte in a food processing test sample composition, the method comprising the steps of: collect a food processing target sample containing one or more analytes; optionally enter an ID associated with the target sample; introduce the chemical target sample into the portable interferometric system of statements 10 1-114; optionally, mixing the target sample with a buffer solution to form a food processing test sample composition; start waveguide interferometry in the RAOznn / eznz / E / YiAi test sample composition; 146 process any data resulting from waveguide interferometry; and optionally, transmit any data resulting from the waveguide interferometry. Statement 116. The method of statement 115, wherein the step of transmitting the data includes wireless transmission of the analyte detection and quantification data to a mobile device or server. Statement 117. The method of statements 115-116, further comprising the step of displaying data related to the presence of the analyte in the test sample composition on the display unit. Statement 118. The method of statements 115-117, wherein the target food processing sample is taken from a food product, container, processing fluid, tank, container, food processing equipment, food storage equipment, or water, soil or air in or around a food processing environment. Statement 119. The method of statements 115-118, wherein the target food processing sample is in the form of, dissolved in, or suspended in a liquid or gas. Statement 120. The method of statements 115-119, wherein the data resulting from guidance interferometry RAOznn / eznz / E / YiAi 147 waves are provided in, or in less than 30 minutes. It is noted that in relation to this date, the best method known to the applicant to put the aforementioned invention into practice is the one that is clear from the present description of the invention.

Claims

1. A portable interferometric system for the detection and quantification of analytes within a test sample composition, characterized in that it comprises: an optical assembly unit, the optical assembly unit comprising a light unit and a detector unit, each adapted to fit within a housing unit; and a cartridge system adapted to be inserted into the housing and removed after one or more uses, the cartridge system comprising an interferometric chip and a flow cell wafer, wherein the interferometric chip includes one or more waveguide channels having a detection layer thereon, the detection layer being adapted to bind to or be selectively perturbed by one or more analytes within the test sample composition.

2. The portable interferometric system according to claim 1, characterized in that the housing is sized and molded to fit in the hand of the user. 149 3. The portable interferometric system according to claim 1, characterized in that it further comprises at least one display unit.

4. The portable interferometric system according to claim 1, characterized in that it further comprises an external camera, the external camera being adapted to capture a photo or video.

5. The portable interferometric system according to claim 1, characterized in that it comprises an alignment means for aligning the cartridge system within a cartridge cavity in the interferometric system.

6. The portable interferometric system according to claim 1, characterized in that the detection layer comprises one or more antigens, antibodies, aptamers, DNA microarrays, polypeptides, nucleic acids, carbohydrates, lipids, or molecularly imprinted polymers, or immunoglobulins suitable for binding one or more analytes within a test sample composition.

7. The portable interferometric system according to claim 1, characterized in that it is configured to analyze light signals from two or more waveguide channels to detect the presence of an analyte that the waveguides could not have detected individually. RAOznn / eznz / E / YiAi 150 8. The portable interferometric system according to claim 1, characterized in that one or more waveguide flow channels each comprise a different sensitive layer to enable the system to detect different analytes in each waveguide flow channel.

9. The portable interferometric system according to claim 1, characterized in that the sensitive layer is configured to bind to one or more chemicals, antibodies, virus antigens, virus proteins, bacteria, fungi, pathogens, RNA, mRNA, plant growth regulators, metals, or any combination thereof.

10. The portable interferometric system according to claim 1, characterized in that it has an analyte detection limit of up to approximately 1.0 picograms / L.

11. The portable interferometric system according to claim 1, characterized in that it has an analyte detection limit of up to approximately 1000 pfu / ml.

12. The portable interferometric system according to claim 1, characterized in that the detector unit has a sensitivity of up to at least 2 pixels per pair of diffraction lines.

13. The portable interferometric system according to RAOznn / eznz / E / YiAi 151 with claim 1, characterized in that it further comprises a localization means adapted to determine the physical location of the system.

14. A method for detecting and quantifying the level of analyte in the composition of a test sample, characterized in that it comprises the steps of: collecting a target sample containing one or more analytes; optionally introducing an identification associated with the target sample; introducing the target sample into a portable interferometric system according to claim 1; optionally, mixing the target sample with a buffer solution to form a test sample composition; initiating waveguide interferometry on the test sample composition; processing any data resulting from the waveguide interferometry; and optionally, transmitting any data resulting from the waveguide interferometry.

15. The method according to claim 14, characterized in that the step of transmitting the data includes the wireless transmission of the detection and quantification data of analytes to a mobile device or server.

16. The method according to claim 14, characterized in that it further comprises the step of displaying the data related to the presence of the analyte in the test sample composition on the display unit.

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