Expanded matter detection using algorithms

Abstract

The new hand held device is called the hand held matter detection apparatus with a disposable cartridge. The new device is a smaller lightweight hand held universal multipurpose matter detection apparatus "UMMDA" with updated algorithms.

Description

COMPLETE SPECIFICATIONTITLE OF THE INVENTIONEXPANDED MATTER DETECTION USING ALGORITHMSCROSS-REFERENCE TO RELATED APPLICATIONSThis application claims priority to and the benefit of the following: U.S. Provisional Application No. 63 / 526,998, filed on July 15, 2023, entitled ‘System and method for accurate detection and classification of matter and micro-organisms in indoor and outdoor environments using algorithms’; U.S. Provisional Application No. 63 / 540,053, filed on September 23, 2023, entitled ‘Mobile automated medical image, laser and pin apparatus for diagnostics and treatment of malignant cells; U.S. Provisional Application No. 63 / 543,0537, filed on October 11, 2023, entitled ‘Machine Learning Intelligence recognizance and disarming application for law enforcement and military operations; U.S. Provisional Application No. 63 / 566,521, filed on March 16, 2024, entitled ‘Expanded Sample Matter Collection Method and Data Application’ U.S. Provisional Application No. 63 / 638,367, filed on April 24, 2024, entitled ‘Device for biosensing microorganisms, cells, and contaminants in near real-time’ U.S. Provisional Application No. 63 / 638,362, filed on April 24, 2024, entitled ‘Portable handheld device’ and U.S. Provisional Application No. 63 / 638,356, filed on April 24, 2024, entitled ‘Method for detecting matter, pathogens and contaminates in specimens”, which are incorporated herein by reference in their entity. United States Patent Office application 18 / 141,374 and the World Intellectual Property Organization application PCT / US23 / 20501 will also be cross referenced in this application and will rely on some of the descriptions outlined in both applications.FIELD OF THE INVENTION

[0001] The field of invention is the detection of matter using algorithms. The present expanded technology are additions to a Universal Multipurpose Matter Detection Apparatus “UMMDA” described in USPTO application 18 / 141,374 and PCT application PCT / US23 / 20501. Both applications are based on detection of matter using machine learning algorithms. The overview of the prior UMMDA application can be utilized as a manual application where the user obtains samples of matter to test for pollen around their home. TheUMMDA utilizes trained data to detect for all matter including allergens, molds, contaminates, bacteria and viruses. The matter is deposited into a receptacle connected to a liquid tube which pumps the matter (most times water is used) suspended in liquid through many image enlargement devices placed near the liquid tube that utilize computer software algorithms to detect any type of matter. As an extension of the prior applications, the new invention is an improvement of the UMMDA application filed by the inventor. The new field of invention is a manual hand held apparatus that is much smaller in size and utilizes a replaceable and disposable cartridge. The new hand held device apparatus is the “Hand Held apparatus with a disposable cartridge”. The liquid tube component of the prior UMMDA version has receptacle matter deposit upgrades and revisions and matter detection methods. They include a replaceable liquid tube cartridge, named “cartridge”, that can be replaced, cleaned, or reconditioned for further use. There are many new versions of the hand held apparatus with the disposable cartridge. The versions range from very expensive to very inexpensive depending on what additions were added. The following is the list of the new additions to the UMMDA. The liquid tube defined in the prior application by the inventor is a liquid tube consisting of microscope slides embedded in the liquid tube, pumps, receptacle for deposit of matter, track lighting, image enlargement devise, and basic algorithms. The algorithms were defined as operation and machine learning algorithms for detection of matter. The entire UMMDA apparatus can be explained in the prior applications but for purposes of this application the focus is a hand-held apparatus device that can be charged, ran on batteries, or connected to an electrical outlet that can be operated manually and in a remote area by user interface touchscreen. The focus will also be the algorithms have been updated and are more specific and the liquid tube has been reconfigured. The additions to the liquid tube, which is referred to as the disposable cartridge, incorporates the manufacture of the hand held apparatus with a disposable cartridge using a high-end 3D printer whereby the 3D printer can construct a liquid tube with a basic liquid tube design but can also be manufactured and constructed in a large manufacturing facility not using a 3D printer. The replaceable liquid tube cartridge with a receptacle, incorporates a new design with a smaller version of a tropical fish magnetic filter pump, tabs on the outside of the liquid tube cartridge to attach track lighting and string lighting replacing the use of microscope condensers, slots incorporated in the manufacturing of the liquid tube for magnets to slide in that will be theanchor for the liquid tube cartridge into the hand held apparatus with a disposable cartridge. The new design incorporates a new design of a small cylinder (spring loaded) at the end of the mainframe case of the hand held apparatus with a disposable cartridge whereby the liquid tube cartridge fits into the metal frame of the hand held apparatus with the disposable cartridge. Located at the top of the hand held apparatus with cartridge there can be swivel latch that will hold in the cartridge in place, or magnets affixed (slid in) to the outside of the liquid tube can be used to secure the cartridge in the hand held, can also utilize a valve to allow for the flows of liquid between the cartridge and receptacle, a breakable water tight seal between the liquid tube and the receptacle, the liquid tube cartridge can also maintain a seal made of plastic, paper, or rubber, where the paper is water soluble, whereby the receptable can be pressed into the liquid tube cartridge. On the low-end version of the hand held apparatus with a disposable cartridge, pumps can be replaced with methods of bubblers, different weight, and different size balls for mixing internally (homogenization) in the liquid tube and the low-end version of tipping and shaking to homogenize matter with the liquid in the liquid tube cartridge for detection. The UMMDA can now be used as a medical application for depositing blood, feces, urine, sputum, hair, fur, finger, and toenails, and on some occasions, fragments of teeth, bone, and tissue samples from a human and animal. The new technology is based on a new design of obtaining and inputting matter from human bodies into the hand held apparatus with a disposable cartridge for the accurate detection of matter in real-time using algorithms. Further, the present disclosure provides for an easier way of cleaning the hand held apparatus with a disposable cartridge after each use by offering a choice of a disposable cartridge that is designed to capture a plurality and mixtures of matter and fluids from human bodies or a new method of replacing the receptacle and the liquid tube cartridge with ease of use for the user. The hand held UMMDA apparatus with the disposable cartridge that’s used in the detection application is a new method of detecting matter. The new application can also use robots and or drones (both by attached mechanical arm) to replace disposable cartridges in the new design of the hand held UMMDA apparatus with a disposable cartridge. The new design offers a larger application for farm animals and a smaller version of a hand held UMMDA apparatus with a disposable cartridge. The input of human matter, human bodily fluids and animal matter into a receptacle attached to the handheld apparatus with a disposable cartridge has been revised to make it more user friendly utilizing a touchscreen and easier to obtain human matter in the medical industry.

[0002] The subject matter discussed in the background section should not be assumed to be prior art merely as a result of mentioning the prior applications but addons and components to the original apparatus. Similarly, a problem mentioned in the background section or associated with the subject matter of the background section should not be assumed to have been previously recognized in the prior art. The subject matter in the background section merely represents different approaches, which in and of themselves may also be inventions.SUMMARY OF THE INVENTION

[0003] Currently, the prior UMMDA operates without an error check. The new invention has an upgraded version of an error health check algorithm. The system is monitored if clean and ready to detect matter sometimes referred to as a new “detection process”. The new user interface is a touchscreen with more options which can be used directly with the newly designed hand grip version which weighs approximately 4.98 lbs. The larger UMMDA version utilizes an industrial sized receptacle so that farm animals can be lowered into the receptacle for testing of surface matter. This new UMMDA application also has two new hardware components, a UMMDA liquid tube that is constructed to become one unit and a single unit reusable cartridge for non-transfer (for isolation of matter, hazardous matter, and stored matter for further testing) of contaminated matter from prior detection processes and applications. The new software components are algorithmic software programs that monitor if the system is clean, functioning correctly, if the UMMDA liquid tube is clogged, if the type of pump or gravity application is not functioning to enable flow of matter, and if any image enlargement device is not functioning. The purpose of the reusable cartridge is for use in the medical industry and veterinarian industry as opposed to environmental industry applications. Environmental applications can utilize continuous runs of detection processes and reuse cleaned cartridges whereby the medical industry and animal matter testing application for bodily fluids requires a clean start to each process and a “good to go” thumbs up from the apparatus that its ready with a clean slate. These new algorithms have replaced older algorithms, upgraded some algorithms while new algorithms have been added for moreapplications such as a revised user checklist. Also, a new Automated Biosensing Imaging System “ABIS” database technology has been added as a new software component to the UMMDA base technology. These algorithms have been updated and are shown in a flow chart in diagrams as to purpose, instruction and direction. The apparatus is a smaller version of the UMMDA that can be used and stored on a countertop in a medical testing setting for purpose of ease of use for inputting matter. Different sizes can be utilized whereby the small end apparatus (from 4.9 pounds) width of 12 inches and length of 16 inches can be moved easily where the larger models can range in weight to over 1,000 pounds with a width of over 20 feet and length of over 30 feet. One version of the hand held is under 6 inches in length and 4 inches in width, which is the top end smaller version in hardware. The larger models maintain more than four image enlargement devices, more than one pump and a longer liquid tube and more than one sensor. The receptacle can be used as a cleaning mechanism for farm animals while testing for surface matter.

[0004] In an embodiment of the new invention, the new invention can be administered by a smaller handheld UMMDA apparatus called a Hand Grip apparatus with a disposable cartridge.

[0005] In an embodiment of the new invention, since the hand held apparatus with a disposable cartridge is much smaller than the original UMMDA version in the prior application the hand held apparatus with a disposable cartridge can be used in a mobile setting or an untethered setting whereby the hand held UMMDA apparatus (hereafter the “hand held apparatus” with a disposable cartridge can be powered by a battery which can be used by a medical professional in a remote area.

[0006] In an embodiment of the invention, a medical professional can operate the hand held apparatus with a disposable cartridge manually.

[0007] In an aspect of the invention, a medical professional can perform a variety of tests from a hand held apparatus with a disposable cartridge. The hand held apparatus with a disposable cartridge can test for bodily matter from a human and animal patient.

[0008] The medical hand held apparatus with a disposable cartridge utilizes a replaceable, disposable, and cleanable cartridge that can be inserted in a spring-loaded version and held in by a latch, see Figures 16 and 17, whereby the cartridge is designed to be removed and replaced from hand held apparatus with a disposable cartridge.

[0009] The medical professional with continuous power supplied to the hand held apparatus with a disposable cartridge, can operate the Hand Grip apparatus with a disposable cartridge in a continuous manner after replacing a disposable cartridge which is designed to be replaced after each test.

[0010] In an embodiment of the new invention, the hand held apparatus with a disposable cartridge can maintain a battery charge and supply power for up to 22 medical tests from a patient. See Figure 9.

[0011] In an aspect of the invention, the hand held apparatus with a disposable cartridge can stay charged for 16 hours without being used.

[0012] In an embodiment of the new invention, the liquid tube unit is defined as the replaceable disposable cartridge that can be constructed as a single unit. The replaceable cartridge is the liquid tube itself. See Figure 10, 12, 18, 23. The replaceable liquid tube disposable cartridge can be manufactured with the receptacle or without it. The disposable cartridge receptacle can be pressed on the liquid tube at a later date if manufactured separately. Further, the replaceable liquid tube disposable cartridge can be manufactured with a receptacle attached or without it. The hand held apparatus with a disposable cartridge component consists of and is defined as the liquid tube with two microscope slides embedded and constructed within the unit whereby the liquid tube is connected to a receptacle for the deposit of matter, a small platform inside the tube where a liquid pump can be affixed, 4 tabs to attach string and track lighting (2 on each side of the liquid tube), 4 other tabs to slide 4 magnets onto the side of the liquid tube, and 2 ridges of uneven thickness each to slide into the hand grip handheld apparatus metal frame case. The 2 microscope slides are the full length of the liquid tube to allow for 4 image enlargement devices to be placed over the top microscope slide whereby the top microscope slide is larger than the bottom microscope slide which will allow for matter mixed with liquid to go through the two microscope slides in the liquid tube whereby the matter and the liquid goes over the surface of the bottom microscope slide and between the 2 microscope slides. See Figure 27. A bubbler can also be incorporated in the liquid tube construction, as in Figure 27, whereby the bubbler inside the liquid tube can be attached to a hose outside the liquid tube that supplies air from a pump located inside the metal frame case of the hand held apparatus.

[0013] In an embodiment of the invention, magnets on the hand held apparatus with a disposable cartridge slid into a slot on the liquid tube or affixed (“glued”) hold the hand held apparatus with a disposable cartridge in place in the handheld apparatus metal frame case which also has magnets to hold the liquid tube in place. See Figure 15.

[0014] In an embodiment of the invention, ridges on the construction of the hand held apparatus with a disposable cartridge will be used to hold the liquid tube in place in a version of the liquid tube replaceable cartridge. See Figure 17 and 27.

[0015] In an embodiment of the new invention, the hand held apparatus with a disposable cartridge has 6 versions of the disposable cartridge. The first version is an internal pump which can be constructed inside the liquid tube or placed inside the liquid tube after construction. The pump will circulate the matter and the liquid in the replaceable liquid tube cartridge. The second version of the disposable cartridge can be manufactured to include a bubbler like that in a tropical fish tank in a residence. The liquid tube unit can be manufactured to include a bubbler. The hand held apparatus with a disposable cartridge can be constructed to incorporate different types of internal pumps. One such pump can be operated wirelessly and wired. Another such pump can be operated by magnets externally by magnets as in a tropical fish tank pump, using magnetic pumps. The pump can be operated from outside the liquid tube unit by magnetic application such as a tropical fish filter. A magnetic liquid pump is powered through the use of magnetism rather than electricity from an outside source. The magnetic liquid pump requires no seals or lubricants for operation. The magnetic pump can circulate many types of fluids. Because of this design, the chance of a liquid leak is limited. The basics of how the magnetic pump works is where a rotating impeller located in an enclosed housing in the liquid tube is powered by rotating magnetic fields produced by individual magnets outside the liquid tube. The rotation of the impeller produces a force that drives the liquid and matter throughout the liquid tube. The magnetic pump drive, the impeller, and the motor all have magnets attached to them. The magnets are attached to the pump drive assembly, which is called the drive magnet, whereby this drive magnet is responsible for driving the inner motor which is attached on a second shaft operated by a motor. When the motor is turned on it spins its magnet whereby the magnetic force by the motor’s magnet causes the magnet in the pump in the liquid tube to spin and rotate the impeller causing force to move the liquid and matter along the liquid tube. Themagnetic pump drive is a centrifugal pump meaning the liquid pumped through the system exists at a different point than where it’s sucked into the pump in the liquid tube. When the matter and liquid enter the pump, it is thrown off the impeller and into a discharge chamber of the pump which flows into the liquid tube. The rotation of the impeller causes the liquid to increase in energy, increasing the amount of pressure in which the liquid and matter discharges from the pump. This increase in pressure is what keeps the fluid moving throughout the liquid tube. The low-end version of the hand held apparatus with a disposable cartridge can use the tipping or shaking method in lieu of pumps, as described below, to have the matter and liquid homogenized. The metal frame is encased in plastic whereby the front of the hand held apparatus with a disposable cartridge has a user interface touchscreen while the back of the hand held apparatus with a disposable cartridge can be removed. The internal liquid tube pump can be inserted before construction of the liquid tube or after construction. The bubbler can also be inserted before or after construction of the liquid tube unit. For purposes of this application, the hand held apparatus with a replacable cartridge is defined as the liquid tube which includes a wireless pump, 2 microscope slides, 4 image enlargement devices, or both a magnetic pump, tabs for track lighting, magnets, magnet tabs where the magnets are affixed to the liquid tube, and a receptacle that can either be manufactured onto the liquid tube cartridge or added separately and pressed on later for a water tight seal with a rubber gasket (o ring) between the liquid tube and the receptacle.

[0016] In an aspect of the invention, 4 enlargement image devices with separate algorithms, will monitor if all internal areas of the liquid tube are clean of foreign matter before a new start.

[0017] In an aspect of the invention, various chemicals can be used to clean all internal areas of the liquid tube. Whereas one of the cleaning materials can be a biosurfactant, specifically a rhamnolipid.

[0018] In an embodiment of the invention, the high-end version of the hand held apparatus with a disposable cartridge will also utilize the internal pump of the liquid tube to clean the liquid tube by attaching a hose to the outside of the hand held apparatus with a disposable cartridge where the hose will pump clean sterile fluids to clean the hand held apparatus with a disposable cartridge.

[0019] In an aspect of the new invention, the new unit can be made by a 3D printer whereby 2 microscope slides, the liquid tube, a receptacle, 2 tabs for tracks and string lighting can be made with 4 magnets embedded. See Figure 10.

[0020] In an aspect of the new invention, the 4 magnets of the disposable cartridge will line up with 4 magnets inside of the metal frame of the hand held apparatus.

[0021] In an embodiment of the new invention, a receptacle can be made separately from the liquid tube unit whereby the receptacle can be pressed on into the liquid tube unit to become one unit. See Figure 23.

[0022] In an embodiment of the new invention, as long as a 3D printer is available that is a high- end version to construct a replaceable cartridge, the cartridge unit will maintain 2 elongated (the bottom microscope slide is shorter than the top microscope slide.), an endless supply of hand held disposable cartridges.

[0023] If the hand held apparatus with a disposable cartridge has the version of a disposable cartridge application, the hand held cartridge can be cleaned and inserted for another test.

[0024] In an embodiment of the invention, on some version the receptacle can be removed to be cleaned by inserting a nozzle to pump a cleaning solution with high pressure. See Figure 23.

[0025] In an embodiment of the invention, the hand held apparatus replaceable cartridge can be cleaned, replaced, or reconditioned.

[0026] In an embodiment of the invention, the hand held apparatus disposable cartridge can be constructed with liquids inside the liquid tube unit.

[0027] In an aspect of the invention, the hand held apparatus disposable cartridge can be filled by a medical professional by removing the top rubber cap of the cartridge, replacing the fluid, and replacing the O-ring seal. See Figure 23.

[0028] In an embodiment of the invention, the hand held apparatus disposable cartridge can be removed and replaced with ease.

[0029] In an aspect of the invention, the hand held disposable cartridge presses into the hand held metal frame in 3 manners whereby the first manner the liquid tube fits inside a cylinder inside the Hand Grip apparatus. See Figure 16 and 17.

[0030] In an aspect of the invention, the disposable cartridge can be constructed with 4 magnets embedded in the liquid tube unit to match up with 4 magnets inside the hand held metal frame.

[0031] In an aspect of the invention, the hand held replaceable cartridge can slide into the handheld metal frame case whereby ridges constructed on the tube are different thicknesses for easy insertion into the hand held apparatus.

[0032] In an embodiment of the invention, the testing data from the hand held apparatus with a replacable cartridge can be performed to test many different human bodily fluids.

[0033] In an embodiment of the invention, the hand held apparatus with a replacable cartridge can test blood for abnormalities and blood count, skin cells for healthy skin cells and abnormalities, tissue for healthy cells and abnormalities, hair for traces of foreign matter, finger and toe nails for abnormalities, sputum for healthy cells and abnormalities, urine for abnormalities, feces and stool for abnormalities and in some instances organ tissue and bone fragments abnormalities.

[0034] In an aspect of the invention, if bone and organ matter is deposited into the receptacle, the hand held can be used in this setting to test for abnormalities in the matter.

[0035] In an embodiment of the invention, the hand held disposable cartridge can be filled with distilled water, another sterile liquid, or a combination of both whereby the cartridge is sealed by a rubber valve and O-ring, or a seal made of plastic or rubber as shown in Figure 23.

[0036] In another aspect of the invention, the hand held apparatus replaceable cartridge can be manufactured with a sterile liquid, whereby the shelf life of the hand grip disposable cartridge can be up to 4 months with some liquids prolonging the shelf life to one year.

[0037] In an embodiment of the invention, the sterile testing of bodily fluids is important. Therefore, a version of the hand held apparatus with a disposable cartridge utilizes a closed receptacle whereby the pumps in the liquid tube draw the matter and liquid from the receptacle into the liquid tube for testing. This is after the bodily fluids mixed with liquids are deposited through the top of the receptable. This is after the matter sample has been taken from the patient.

[0038] In an embodiment of the invention, the Hand Grip disposable cartridge can be washed with a sterile process by removing the receptacle component from the liquid tube component for direct access to the internal area of the liquid tube component of the Hand Grip disposable cartridge.

[0039] In an embodiment of the invention, the liquid tube unit in the hand held replaceable cartridge can be filled with liquid by a medical profession at a medical facility manually or by UMMDA robot.

[0040] In an embodiment of the invention, for the shake and tip version, a liquid fill measurement line is at the top of the liquid tube unit inside the hand held replaceable cartridge whereby room must be left for air to remain in the hand grip disposable cartridge after filling with liquid. This is apparent to leave some room for an air bubble to remain in the cartridge after filling to expedite mixing and flow of matter suspended in the liquid.

[0041] In an aspect of the invention, the hand grip replaceable cartridge liquid tube unit will offer the mixing of bodily fluids to become homogenized inside the receptacle of the hand held replaceable cartridge.

[0042] In an embodiment of the invention, the receptable attached to the cartridge of the hand held apparatus is used to obtain bodily fluids from a human or animal patient.

[0043] In an embodiment of the invention, the bodily fluids of a human or animal are deposited into the hand held apparatus replaceable cartridge receptacle by placing, dropping, or the pin prick method described in Figure 19, 20, and 21.

[0044] In an embodiment of the invention, bodily fluids such as sputum, stool, blood, and urine can be deposited into the hand held apparatus receptacle for testing.

[0045] In an embodiment of the invention, a swab can be used to collect saliva from a patient’s mouth and rub the swab against the inside wall of the receptacle. The swab can be rubbed submerged in the liquid tube or above the water line. More liquids can be used to water down the inside of the receptacle to accelerate the transfer of saliva in the liquid into the receptacle.

[0046] In an aspect of the invention, a patient can spit sputum into the receptacle for testing purposes or for testing of their sputum.

[0047] In one embodiment of the invention, the receptacle to the hand held apparatus is lying flat on a countertop, whereby liquid is poured into the receptacle transferring matter into the cartridge.

[0048] In an embodiment of the invention, the valve to the hand held apparatus replacable cartridge is opened whereby the liquid mixed with matter inside the receptacle can be transported into the liquid tube unit for matter detection. See Figure 10, 18, and 26.

[0049] In an embodiment of the invention, the hand held apparatus can be tipped 16 degrees back and forth for matter to be transferred into the hand held replaceable cartridge for detection by the 4 image enlargement devices that are supplied power by the battery pack or electricity to the power unit as described in Figure 13.

[0050] In an aspect of the invention, the low-end version without any pumps or bubblers in the liquid tube utilizes a tip and shake method to homogenize the liquid in the liquid tube cartridge with the matter. The liquid tube in the hand grip apparatus replacable cartridge will provide the mixing of bodily fluids to be become homogenized in the liquid tube enabling mixing of the bodily fluids to flow over the top surface of the bottom microscope slide. The liquid tube cylinder with some air in the liquid tube will offer the mixing of bodily fluids to become homogenized throughout the liquid tube whereby the air pocket enables the space to mix the liquid and matter.

[0051] In an aspect of the invention, the air pocket in the liquid tube in the hand held apparatus replaceable cartridge will allow the bodily fluids to become homogenized to travel between both microscope slides in the liquid tube unit to provide the image enlargement devices to gather images and data on the bodily fluids.

[0052] The hand held apparatus operates in the same manner as prior UMMDA versions in prior applications whereby algorithms are used to detect matter in their normal and abnormal structure using image enlargement devices that are connected motherboards in computers whereby the UMMDA algorithms detect the matter in real time.

[0053] The algorithms have been updated where there is now a control unit algorithm that controls all aspects of the application.

[0054] In one aspect of the invention, a pin is located in the reservoir of the hand held apparatus receptacle to induce bleeding from a patient.

[0055] In an aspect of the invention, a patient is instructed to press their finger against the pin in the hand held apparatus receptacle to induce bleeding.

[0056] In an aspect of the invention, the pin prick method in the last section is used to flow blood samples from the hand held apparatus receptacle into the hand held replacable cartridge for matter detection.

[0057] In an aspect of the invention, the blood in the receptacle from the patient can be transferred into the hand held disposable cartridge in 5 methods.

[0058] This first method is by tipping the hand held apparatus.

[0059] The second method is by closing the valve to the liquid tube unit in the replaceable cartridge and shaking the unit.

[0060] The third method of transferring bodily fluids from the hand held apparatus receptable is by using plastic balls weighted in different weights that flow from the receptacle into the hand grip cartridge whereby the balls are deposited into the reservoir before any liquid is added to the reservoir whereby the plastic balls enter after the pin prick method.

[0061] The fourth method is where a pump pulls human bodily fluid matter from the receptable into the liquid tube replaceable cartridge.

[0062] The fifth method of bodily fluid transfer from a patient into the hand held apparatus disposable cartridge receptacle also utilizes tiny bits of fabric or water-soluble fabric that are placed into the disposable cartridge by a medical professional using forceps and tweezers to deposit the water-soluble material into the cartridge.

[0063] In an embodiment of the invention, a medical professional can deposit a water-soluble fabric or paper or directly deposit the bodily fluid with a dropper or a hypodermic needle into the replaceable cartridge and simply close the top of the liquid tube with a rubber stopper for a one-time use. Place the cartridge back into the hand held apparatus with a disposable cartridge for testing of human bodily fluids.

[0064] The medical professional can also deposit the water-soluble fabric directly into the receptacle linked to the replaceable cartridge.

[0065] In one aspect of the invention, upon the pin prick of the blood in the finger water-soluble fabric is used to wipe blood from the finger and place directly into the cartridge for matter testing.

[0066] In one aspect of the invention, upon the pin pick of the blood in the finger after removing the finger, tip the hand grip to the right and to the left 4 times and the bodily fluids will travel under the image enlargement devices for imaging.

[0067] In an aspect of the invention, if the four image enlargement devices do not detect any matter form the bodily fluids, open, the manual application directs the closing of the valve and to shake the hand held apparatus lightly 4 times to homogenize the matter in the liquid. If a liquid pump is used in the application, the pump can remain on or be controlled by an algorithm to run at certain time intervals.

[0068] In an embodiment of the invention, the UMMDA liquid tube application can be manufactured with a liquid pump positioned anywhere in the liquid tube cartridge or in some versions, the liquid pump can be free floating.

[0069] In an embodiment of the invention, a high end hand held disposable cartridge can be manufactured with a small pump at the top or bottom of the liquid tube unit between the receptacle and the liquid tube unit as in Figure 12 and 25 whereby the pump is activated wirelessly to pull the liquid and the matter from the receptacle into liquid tube unit whereby the pump activated wirelessly by the algorithm continuously pumps liquid and matter over the bottom microscope slide as well as between the 2 microscope slides, as in the prior UMMDA application using a control unit, in the liquid tube cartridge unit, as described in Figure 12 and 27.

[0070] In an aspect of the invention, the liquid tube unit of the cartridge maintains a miniature pump that can have 3 methods of operation. 1) continuous pumping of bodily fluids suspended in the liquid over the bottom microscope slides and between the two microscope slides until one of the four image enlargement devices detects the matter that it has been programmed to detect using different algorithms.

[0071] In an aspect, the miniature pump manufactured within the hand held apparatus disposable cartridge can operate wirelessly whereby no wires are needed and the pump is located inside the liquid tube. It can also be operated by a miniature pump inside the liquid tube that is connected externally to a power source as in Figure 12, 25, and 27.

[0072] In an embodiment of the invention a pump with magnets can be operated from outside the liquid tube unit to propel bodily fluids and liquids over the top surface of the bottom of the microscope slide and between the two microscope slides in the liquid tube cartridge.

[0073] In an aspect of the invention, the pump is located inside the liquid tube cartridge and is operated and controlled outside the liquid tube unit.

[0074] The pump is submerged in the liquid and can be operated remotely.

[0075] In an embodiment of the invention, a wireless bubbler can be constructed in the liquid tube replaceable cartridge whereby the bubbler can be wirelessly operated whereby the bubbler is submerged in the liquid in the liquid tube cartridge as opposed to using a pump.

[0076] In an aspect to the invention, you can use both a bubbler and a pump in the liquid tube cartridge to circulate matter and liquid.

[0077] In an embodiment of the invention, the disposable cartridge can be cleaned while being maintained inside the hand held apparatus whereby a sterile fluid can be pumped into the liquid tube unit to clean out the matter. The cartridge can be refilled with liquid and a rubber stopper can be affixed to the top of the liquid tube.

[0078] In an embodiment of the invention, a pump can be used to circulate sterile liquid to clean the cartridge that is heated whereby the liquid tube cartridge can withstand high heat for cleaning purposes.

[0079] In an aspect of the invention, in regard to maintenance, the back plate to the hand held is removable whereby the 4 image enlargement device lens can be cleaned by pressured air or a very small cotton swab or UMMDA robot.

[0080] In an embodiment of the invention, maintenance can be done on the hand held apparatus whereby the back plate of the hand held apparatus with a disposable cartridge can be removed.

[0081] In an aspect of the invention, after removing the back plate from the hand held apparatus, the four image enlargement device lenses, or any other component that requires maintenance, can be cleaned by pressured air or a tiny cotton swab with a cleaning solution utilizing a UMMDA robot to clean the hand held apparatus with a replacable cartridge.

[0082] In an aspect of the invention, after the back plate of the hand held apparatus has been removed, all components of the hand held apparatus can be inspected, updated, removed, replaced, or fixed if a malfunction has taken place. The back plate snaps on and off the metal frame of the hand held apparatus with a replaceable cartridge.

[0083] In an embodiment of the invention, the following addon or upgrades can be utilized or not in many different versions of the hand held apparatus with a replacable cartridge: One of the new components to the application has 16 new addons whereby the next 16 sections list each addon or upgrades component. The addons and upgrades are 1) a UMMDA device that has a touch screen interface, 2) an opening in the frame that holds a UMMDA replaceable cartridge 3) a replaceable cartridge that utilizes low grade magnets to hold the liquid tube in place in its new hand held metal frame housing. 4) A receptacle that is covered for sterile purposes before and after use. The receptacle is covered with a water-soluble paper or fabric or a plastic wrap that can be broken by pressing a finger against it for depositing matter that is also affixed to the replaceable cartridge for easy matter entry. 5) where both the receptacleand the cartridge can either be cleaned or replaced. 6) The receptacle is directly attached to the cartridge for the blood pin prick method (described later), sputum, phlegm (matter from mouth), urine, stool, skin cells, hair, and organ matter can be deposited directly into the cartridge for testing. 7) a smaller UMMDA that be used and stored on a countertop in a medical testing setting and facility for purpose of ease of use for inputting matter. 8) algorithms that monitor and manage errors. 9) the smaller apparatus maintains a connection for charging the battery if the apparatus is run by battery. 10) the smaller apparatus maintains a USB port connection, or other data transfer cables for upload of system updates and download of data to a laptop, server, or desktop computer. 1 1) an SD card slot for easy upgrades and or downloads of data if apparatus is not connected to a computer. 12) a battery replacement slot for rechargeable batteries when a hand grip unit comes with rechargeable batteries. 13) a port to charge the battery or run on electricity. 14) a wireless component with an on and off toggle switch on the user interface face touch screen 15) a solid state storage device. For purposes of this application, a cartridge is a case or container that holds a substance, device, or material that can be easily changed. 16) a medical professional can deposit matter directly into the liquid tube, add liquid, and replace the rubber stoppers for testing in the new apparatus.

[0084] In an embodiment of the invention, a medical professional can wipe a patient with a water-soluble fabric or paper and obtain sputum, blood, urine, or a stool sample and placed into the liquid tube cartridge, liquid is added by the medical professional, and a rubber stopper is secured to the top of the liquid tube.

[0085] In an embodiment of the invention, a medical professional can use a pin-prick method within the receptable or outside of the receptacle to induce bleeding and enter that blood sample manually into the liquid tube cartridge anyway they see fit for testing.

[0086] In an embodiment of the invention, a new receptacle design that acts as a facilitator to obtaining blood samples from humans and animals. The receptacle has two applications, one with a pin affixed to the side of the receptacle above the liquid line of the receptible and one pin on the other side (opposite) that pin where the pin is submerged in the liquid of the receptacle. The first pin can be used to prick the skin of an animal or human to drip the blood into the receptacle. The second pin is also to prick the skin of an animal or human wherebythe blood flows or is deposited directly into the liquid solution. This application is for a blood test.

[0087] In an aspect of the invention, a veterinarian can simply deposit any animal fluids, skin, fur, tissue, hair, or any matter from an animal into the liquid tube replaceable cartridge, add liquid, seal with a rubber stopper, and test in the new UMMDA device.

[0088] A 17thnew addon to the UMMDA, is a new biosensor device that is either placed in the receptacle connected to the liquid tube, or inside the liquid tube of the UMMDA apparatus. The biosensor measures biological or chemical reactions by generating signals proportional to the concentration of an analyte in the reaction in the tube or receptacle. The biosensor can monitor or detect the composition of biological and chemical reactions within the liquid tube or receptacle including florescence. The reaction of the biological or chemical reaction generates signals limitations of these methods are monitored by UMMDA algorithms.

[0089] A further addon (18thaddon), a receptacle designed with no liquid present in the receptacle to enable a light based or other electromagnetic, radio- active or sound frequencybased sensor to evaluate matter.

[0090] A further addon (19thaddon) is the ABIS (Automated Biosensing Imaging System) or cloud computing comprised of a computing and memory application, enabling the sensing, evaluation and reporting of data obtained from matter contained in the UMMDA.

[0091] A further addon (20thaddon) is an algorithmic software application providing metrics and analytics of the results obtained from the new UMMDA applications.

[0092] A further addon (21staddon) to detect life in the universe or astro-biological matter using the UMMDA.

[0093] A further addon (22ond addon) where expanded machine learning algorithms allow for backend propagation of database analysis.

[0094] This specification recognizes that there is a need for an apparatus and method that do not use chemicals, require no maintenance, are fully managed by an artificial intelligence and machine learning platform, and provide solutions that leave no residual effect on the environment.

[0095] The present disclosure addresses these issues by also providing a replaceable transparent liquid tube designed for real-time pathogens or contaminant detection in a secure and dependable way. This technology can aid in the detection of pathogens or contaminants,preventing the spread of diseases and reducing the associated costs and risks. Real time data is paramount in any setting whether it be an airport or a hospital.

[0096] The disadvantages and limitations of traditional approaches will become apparent to the person skilled in the art through a comparison of the described method with some aspects of the present disclosure, as put forward in the remainder of the present application and with reference to the drawings.

[0097] An aspect of the present disclosure relates to methods of matter data capture and the methods of compilation, organizing, analyzing the data, and using machine learning to learn from the data. After these steps, specific machine learning algorithms are used to predict future events.

[0098] An aspect of the present disclosure relates to methods of data capture of matter as described in the Universal Multipurpose Matter Detection Apparatus “UMMDA” in the prior applications. The UMMDA is an apparatus that obtains matter for detection utilizing drones, robots (automated application) and by hand (manual application) that also utilizes algorithms (operation of apparatus) and machine learning algorithms (learning from data compiled). For purposes of this application, matter is defined as anything that has weight and takes up space.

[0099] An aspect of this application is the method of obtaining matter from humans and animals and the organization, analyzation and the machine learning results from that data. The application utilizes specific algorithms for the operation of all components of the application (operation algorithms) as well as machine learning algorithms (learning algorithms) as defined herein.

[0100] An aspect of the application is the constant machine learning. The entire application and all the types of data being used whether it be error data in from an application or malfunction of a hardware or software component is constantly being learned from by machine learning algorithms.

[0101] Another aspect of the present disclosure is to provide a system for detecting pathogens or contaminants in a liquid sample using the replaceable liquid tube cartridge as defined herein.

[0102] The present disclosure also introduces a new software application whereby data from databases that are basic but also specialized. The Automated Biosensing Imaging System or ABIS is hereby introduced. For purposes of this application, ABIS data, ABIS data application or ABIS data pool will be defined as any data that was captured or obtain by theapparatus or any of its components, data pools compiled and analyzed or any data that is stored by use of any component of the apparatus and its applications. The ABIS data is also any machined learning application that produces a final result, any identifying algorithm for detection, any operational algorithm or computer software application, any error data, any matter data whether known or unknown data, any exact GPS data (longitude and latitude data) where data was detected, or any unknown phenomenon that the apparatus detects or comes into contact with whereby an example would be how a virus or bacteria survived in a setting that offers no chance of survival. Any data that is unknown will be assigned a name by the ABIS.

[0103] In some embodiments, the UMMDA may not utilize the ABIS. For purposes of this application, any size of the UMMDA will be referred to as the UMMDA, the apparatus, or the UMMDAmanver whether or not it is a handheld device, a stationary device or a large industrial UMMDA which may be bigger than a tractor trailer.

[0104] In some embodiments, the ABIS is designed to categorize what data goes where and in what folder in the ABIS database. The ABIS is designed to utilize data to and from the UMMDA, as well as the handheld device, servers, computers, laptops, cellphones, and the cloud. ABIS can be managed from an SD card, an external hard disk storage device, a server farm, and all ABIS cloud interactions. For purposes of this application, ABIS cloud data pool will be defined as computer data storage in which data from the UMMDA is stored remotely and is accessible to users over a network which would be the internet.

[0105] An aspect of the present disclosure relates to the methods and steps of collecting matter from both living and dead beings (including both humans and animals). The ABIS data can be utilized and also stored on a smartphone, a tablet, a laptop, servers or desktop computer or an array of computing software devices.

[0106] The ABIS for purposes of this application, will be defined as computer data storage in which data from the UMMDA is stored remotely and is accessible to users over a network which would be the internet.

[0107] In an aspect, the further method includes a step of collecting matter from both living and dead beings which includes both humans and animals. The method includes a step of obtaining matter from a data pool. For purposes of data pool, the data pool will be defined as all types of matter which includes any fluids, stool, blood, organ tissue, hair, skin cells andbone fragments that are obtained from humans and animals. Included in this data pool of matter also includes foreign matter that can also be obtained from humans and animals. This type of matter can be found in mouths by intake of air, food, and liquids and foreign matter that was introduced into the mouth such as contaminates and pollutants with an example of smoke particles, fertilizers, and fecal matter. Contaminates and pollutants and foreign matter, unhealthy cells, abnormal cells can also be found in data pool matter. Foreign matter can also be food particles, fragments of teeth, and liquid residue such as tobacco. The data pool of matter also exists from space where some matter is unknown, unnamed, and is outside of earth. Matter is defined as anything that has weight and takes up space.

[0108] In some embodiments, when the UMMDA application is used in the medical industry, certain testing of certain matter is germane to that industry, but the data used in UMMDA machine learning applications may also come from other industries and applications such as the environmental industry. In the medical industry data comes from humans, test tubes or from physical matter found inside of the medical facility. In the environmental industry, data may come from bodies of water. Both data pools may be used in predictive data whereby forecasted events may be in residences. Stationary or mobile drones and or robots can assist in the automated application of obtaining data from patients, and or the surroundings and compare both sets of data using “point of contact algorithms”. An example would be if a patient of a hospital contracts a sickness and the doctors would desire to know if the sickness and or strain of bacteria, vims or fungus that caused that specific sickness was also found on the floors, walls, or anything else inside the hospital. If the strain of bacteria that caused the sickness in the patient, is also the same strain of bacteria that was also found 3 doors down on a floor by a UMMDA robot, the point of contact algorithms will note the relationship and possibly learn from the data pool. This specific machine learned data may save lives.

[0109] In an aspect, the apparatus application utilizes the covered pin prick receptacle in a medical setting to obtain a blood sample from a patient whether a human or an animal. The UMMDA pin prick application is used in the following manner. The receptacle that is attached to the UMMDA for entrance of matter in the liquid tube component can have this unique characteristic for medical applications.

[0110] In an aspect of the invention, the receptacle has a whirlpool mechanism that turns the liquid clockwise or counterclockwise whereby causing the blood from the puncture of theskin to become flowing and into the liquid tube. The flow can be induced by pumps are simple gravity. This same mechanism can also be used to break apart matter so that the matter may touch the surface of the microscope slides located in the liquid tube. An example of this may be the space between the microscope slides may be set and the matter cannot fit between the microscope slides in the liquid tube. The matter must be broken apart by the whirlpool device which can have protruded teeth like those of a food blending machine. On some higher end versions of the UMMDA, the space between the microscope slides in the liquid tube can be adjusted. The liquid can either be transparent on non-transparent and can be any singular or combination of gases, liquids or in some cases solids such as ice and a semi solid based material. Different types of medium in the liquid tube may be used to lighten or darken the matter for image enlargement purposes.

[0111] In an aspect of the invention, the top of the receptacle can have a thin layer of plastic, paper or rubber-based material that covers the entire top of the receptacle to keep it sterile before and after use. In figures 12, 14, and 26 the receptacle may also have a dome swivel cover. The human body part can be cleaned with alcohol before being entered into the a larger receptacle. Upon pressure from a finger, a toe, or an arm (requires a larger receptacle), the material is broken, and the body part enters the receptacle space. The receptacle has a liquid level line whereby one side of the receptacle maintains a sharp pin above the liquid line (can be made of any material including a hollow needle-based pin or a hypodermic needle) to pierce the skin enough to visually see bleeding. The blood is then dripped into the receptacle. The other side of the receptacle can also have a pin affixed to the inside of the receptacle below the liquid line whereby the pin prick will produce a blood sample into the UMMDA without the drip. Utilizing the UMMDA for blood testing is in real time, results immediate and the costs are lower with less mistake of tainting.

[0112] In an embodiment of the invention, a method can be used to drip matter from a hypodermic needle into the receptacle above the water line or the matter from the syringe can be injected below the water line into the receptable.[001 13] In embodiments of the disclosure, the algorithms used with the UMMDA applications are developed for specific use with the application, the use of licensed and free to use third party algorithms are also used with the UMMDA application or a combination of both.

[0114] In embodiments of the application, there are numerous specific types of algorithms which include but are not limited to control algorithms, instruction algorithms, error algorithms, machine learning algorithms, predictive algorithms, automated algorithms whereby the entire operation (both software and hardware applications) of the applications are managed by control algorithms. An updated touch screen whereby users can be more involved in the processes of detection of matter. An example would be where a certain version of the UMMDA is set to run for a minimum of 1 hour as a default. The user can override that default by revising the time. New UMMDA algorithms seek answers from questions to the user whereby offering a level of comfort and comprehensive instruction (see figures 1,2, 3, 4 and 9) This back and forth from user to UMMDA algorithms is beneficial to both user and UMMDA algorithms whereby both user and UMMDA algorithms learn from each other. While learning from these choices, the new algorithms (machine learning) can forego all automation and have the user manage all UMMDA operations by interacting with a touch screen user interface on a UMMDA laptop. Or the UMMDA can take over some or all automation.

[0115] Accordingly, one advantage of the present invention is that it does not use chemicals, requires no maintenance, and is fully managed or automated by control and operation algorithms that mange the entire system and machine learning algorithms that leam from every facet of every application, which includes failures, application successes and detection of unknown data or processes, and will provide real time data and solutions that leave no residual effect on the environment. The user does not have to be in contact with any component of the UMMDA other than the disposable cartridge (if equipped with such) and the laptop screen.

[0116] The flow charts to some of the main algorithms are listed in the figure sections at the end of this application.

[0117] The following detailed description is made with reference to the accompanying figures.

[0118] It is further important to note that the figures included in the present disclosure are not to scale. While the figures are intended to illustrate the key features and functionality of the invention, they are not intended to represent the size or proportion of any various components accurately. Instead, the figures are intended to provide a clear and concise depiction of the invention that will aid in understanding its operation and functionality. Itshould be understood that the relative sizes and dimensions of any components may differ from what is shown in the figures and that the figures should not be relied upon for precise measurements or scaling. The description provided herein should be consulted for further details regarding the size and dimensions of the invention.

[0119] The UMMDA is also referred to as both the new version and old version whereby components are interchangeable on some versions of the "Hand Held Apparatus". An older version of the UMMDA apparatus is stilled used as a closed system where liquid and matter are continuously circled through the apparatus where only new matter is entered via the reservoir. With this closed UMMDA option, contaminates and microbes detected are specific to an area. The new application utilizes ABIS and some of the following components and versions.

[0120] The hand held version utilizes smaller components than the prior version. Image enlargement devices, pumps, receptacles, and microslides are decreased in size during construction. The smaller UMMDA components are constructed with simulation software which simulates the structure, operation, and manufacture of the components sending the specifications to a 3D printer to make some or all of the components. Some components are nanosized and purchased from third parties, while others are made from 3D printers.

[0121] An aspect of the invention is such that a disposable cartridge can be secured and stored with a hazardous matter material for later additional testing. Some versions of the UMMDA will offer a replaceable cartridge that is not held in place with magnets. The magnets may affect the outcome of results whereby a more robust cartridge (thicker plastic used in the 3d printer and a thicker rubber seal in lieu of paper is used to avoid seepage) is used and secured by a simple tab that holds the cartridge in place in the UMMDA apparatus.

[0122] The UMMDA application for the medical industry is also specific whereby the matter is very specific in whom the data is obtained from and what data is obtained. Blood, sputum, bodily fluids, stool, urine, skin tissue, hair, finger, and toenails, and in some occasions bone marrow and organ tissue tells a specific story and what event or events may occur in the future for a single person or a group of people. An example of the ABIS data pool application would be age, gender and environmental surroundings with a data pool consisting of past present and future diet of an individual (types of foods and drinks) may become an outlier of things to come as a skin disease. In the future that particular skin disease may be linked to atype of diet and combinations of specific foods, drinks and environment may be the cause. The UMMDA machine learning algorithms and predictive algorithms also rely on how the data is interpreted by the ABIS. This ABIS new application does not place the data in one folder or application but throughout many different scenarios in the ABIS including what other influences were forced upon the final data point. An example of this is if a test of hair from an individual detecting the presence of a poisonous chemical residue, the algorithm would seek out did their diet have an impact on the results. In some outlier cases, ingestion of fumes / gases / vapors by accident leaves some traces that can be detected by the UMMDA from hair and blood samples. Also noted is the unknown ingestion of chemical contaminates from food causing sickness. The UMMDA can also test for foreign matter in foods.

[0123] In an embodiment of the invention, the UMMMDA robots will obtain matter testing samples from humans and animals.

[0124] In an embodiment of the invention, UMMDA robots and or drones will replace the replaceable liquid tube cartridge in the Hand Grip apparatus with a disposable cartridge.

[0125] In an embodiment of the invention, both drones and robots will automate and assist in all aspects of gathering matter from patients, managing the ABIS databases, and will perform maintenance on all aspects, application hardware and software of the invention.

[0126] In an embodiment of the invention, the algorithms for all the new versions are outlined below.DESCRIPTION OF FIGURES. OVERVIEW OF NEW UMMDA ALGORITHMSFIGURE 1 All UMMDA hardware, software programs, and algorithms are managed by one algorithm - called the Matriarca Algorithm.FIGURE 2 Operational and Management software programs and algorithms - are called the Instruction Algorithms.FIGURE 3 Error Management Algorithms - are called Error Algorithms.FIGURE 4 Machine Learning Algorithms - are called the Machine Learning Algorithms.FIGURE 5 Future Events Algorithms - are called the Predictive Algorithms.FIGURE 6 Data Base Algorithms - are called ABIS Algorithms.FIGURE 7 Deposit Receptacle -water soluble screen for urine, sputum, and feces.FIGURE 8 Receptacle pin prick device for blood testing in humans and animals.FIGURE 9 UMMDA Hand grip schematics.FIGURE 10 Liquid tube cartridge and deposit receptacle.FIGURE 11 Embedded microscope slides in liquid tube.FIGURE 12 Liquid tube cartridge with magnets side view.FIGURE 13 UMMDA hand grip internal.FIGURE 14 Swivel Cover.FIGURE 15 Liquid tube cartridge and UMMDA hand grip version with magnets affixedFIGURE 16 Liquid tube cylinder slot top viewFIGURE 17 Liquid tube cylinder slot side view.FIGURE 18 Liquid tube cartridge valveFIGURE 19 Reservoir for depositing of matterFIGURE 20 Covering of the receptable with water soluble materialsFIGURE 21 Reservoir with pin prick for blood inducementFIGURE 22 Industrial UMMDA versionFIGURE 23 Replaceable and reusable receptacle and liquid tube cartridgeFIGURE 24 Liquid tube cartridge with magnetic pumpFIGURE 25 Receptacle and liquid tube cartridge pump connected with a tubeFIGURE 26 Liquid tube cartridge and receptacle without magnetsFIGURE 27 Liquid tube cartridge without magnets side view.FIGURE 28 Swivel latchWhen used in this application, algorithm and algorithms are defined as a set of rules, step by step plans, and sequence of instructions that specify how to solve a problem or perform a calculation. The algorithms may run repeatedly until terminated. The term computer software program has the same characteristics as an algorithm but for purposes of this application, the following definition applies. Computer software program is defined as a computer software application that is easier to maintain than algorithms, easier to update, easier to fix bugs, and usually has an interface to allow for end users to interact with the software program. For purposes of thisapplication, all computer software programs, and algorithmic software programs will be referred to as algorithms, the plural tense. Some of the third-party hardware such as drones, robots, pumps, string and or track lighting, and microscopes that are used with the UMMDA are purchased from third parties. The 3D printers mentioned are either bought, rented or companies that specialize in 3D printing are hired. The software is bundled with the hardware when purchased, leased, licensed, or is free to use, download form the internet or amend the software code. Some of the computer written code for the UMMDA is written strictly for the UMMDA, while other code is offered for free from third parties, still further some software code is licensed. All software code and algorithms utilized by the UMMDA may be used singularly or be used in any combination of all the software choices mentioned in this application. For purposes of this application, when a block on a flowchart is referenced, it usually means it’s an algorithm that is referenced.All databases, database applications, and database algorithmic technology of the UMMDA will be referred to Automated Biosensing Imaging System or “ABIS” technology as just ABIS.For purposes of this application, the algorithmic overview in this section relates to the limited number of algorithms utilized on the low-end version of the UMMDA. All components whether they are hardware based or computer software program based will be referred to as the entire UMMDA application.Reference Characters for FiguresDescription of Figures and Flowcharts of New UMMDA Algorithms are located in a corresponding document titled “Reference Character”.Definitions of the hand held apparatus may also include, hand held, manual hand held apparatus, hand held unit, hand held device, hand grip, hand grip apparatus, counter top unit, apparatus, device, liquid tube apparatus, UMMDA hand held or hand held apparatus.Definitions of the replaceable liquid tube cartridge unit may be also include, liquid tube unit, disposable cartridge, cassette, replaceable cartridge, liquid tube unit, liquid tube cartridge with receptacle, deposit liquid tube receptacle, and replaceable cartridge or just cartridge.The receptacle may be referred to as a single unit of the unit together with liquid tube unit. The liquid tube unit is located inside of the hand held apparatus while the receptacle is located outside the hand held.Reference Characters for FiguresReference figures for algorithms and hand held apparatus with replaceable liquid tube cartridge.Definitions of the hand held apparatus may also include, manual hand held apparatus, hand held unit, hand held device, hand grip, hand grip apparatus, counter top unit, apparatus, device, liquid tube apparatus, UMMDA hand held, or hand held apparatus.Definitions of the replaceable liquid tube cartridge unit may be also include liquid tube unit, liquid tube, disposable cartridge, cassette, liquid tube unit with receptacle, deposit liquid tube receptacle, and replaceable cartridge.The receptacle may be referred to as a single unit of the unit together with liquid tube unit. The receptacle may also be referred to as a disposable cartridge receptacle. The liquid tube unit is located inside of the hand held apparatus.HAND HELD APPARTUS COMPONENTSThere are many components that make up the hand held apparatus. Some components have to be present for the hand held apparatus to work. Those must have components are:Metal frame of the hand held.A motherboard. A mother board is affixed to the metal frame of the hand held. Most components in the hand held apparatus as well as some components of the replaceable liquid tube cartridge are connected to the motherboard.A motherboard is a circuit board that allows and directs communication to components of the hand held system. The main components are the central processing unit (CPU), Graphic Processing Unit (GPU), power supply unit (attaches to the mother board and connects to an electrical outlet) that supply’s power to all components of the hand held including all components of the replaceable liquid tube cartridge which are listed below.A solid state drive (storage unit that stores images and algorithms) is connected to the motherboard.A user interface on the front of the hand held apparatus that connects to the motherboard.4 image enlargement devices. The 4 image enlargement devices are connected to 4 digital camera adaptors that are connected to the mother board.A semi dish with spring that holds the liquid tube cartridge in place at one end of the hand held apparatus.A latch (located on the outside of the metal frame) that swivels over the replaceable liquid tube cartridge top to hold the cartridge in place whereby the spring at the other end of the hand held presses against the bottom of the replaceable liquid tube cartridge.A plastic cover that attaches to the back of the metal frame.REPLACABLE LIQUID TUBE CARTRIDGE COMPONENTSThe must have components of the replaceable liquid tube cartridge are:A liquid tube with 2 with microscope slides embedded during the construction.A receptacle for depositing natter where the receptacle is attached to the replaceable liquid tube cartridge during or after construction.A liquid fdled to 7 / 8 of the entire replaceable liquid tube cartridge.FIGURES 1 THROUGH 28The following are figures and algorithms that are explained in referenced figures that are each numbered. For purposes of instruction of the algorithms, the algorithms are described in algorithmic flow charts are based upon a very simple instruction and direction to understand their purpose. The algorithms in the flow charts are simple in nature and does help with the understanding. Not all versions and components of the hand held apparatus and the replaceable liquid tube cartridge are referenced. Only the components and views that will provide a general understanding of the function of the new UMMDA apparatus and the new functions are referenced in the numbered figures.FIGURE 1 All UMMDA hardware, software programs, and algorithms are managed by one algorithm - called the Matriarca Algorithm.FIGURE 2 Operational and Management software programs and algorithms - are called the Instruction Algorithms.FIGURE S Error Management Algorithms - are called Error Algorithms.FIGURE 4 Machine Learning Algorithms - are called the Machine Learning Algorithms.FIGURE S Future Events Algorithms - are called the Predictive Algorithms.FIGURE 6 Data Base Algorithms - are called ABIS Algorithms.FIGURE ? Deposit Receptacle -water soluble screen for urine, sputum, and feces.FIGURE S Receptacle pin prick device for blood testing in humans and animals.FIGURE 9 UMMDA Hand grip schematics.FIGURE 10 Liquid tube cartridge and deposit receptacle.FIGURE 11 Embedded microscope slides in liquid tube.FIGURE 12 Liquid tube cartridge with magnets side view.FIGURE 13 UMMDA hand grip internal.FIGURE 14 Swivel Cover.FIGURE 15 Liquid tube cartridge and UMMDA hand grip version with magnets affixedFIGURE 16 Liquid tube cylinder slot top viewFIGURE 17 Liquid tube cylinder slot side view.FIGURE 18 Liquid tube cartridge valveFIGURE 19 Reservoir for depositing of matterFIGURE 20 Covering of the receptable with water soluble materialsFIGURE 21 Reservoir with pin prick for blood inducementFIGURE 22 Industrial UMMDA versionFIGURE 23 Replaceable and reusable receptacle and liquid tube cartridgeFIGURE 24 Liquid tube cartridge with magnetic pumpFIGURE 25 Receptacle and liquid tube cartridge pump connected with a tubeFIGURE 26 Liquid tube cartridge and receptacle without magnetsFIGURE 27 Liquid tube cartridge without magnets side view.FIGURE 28 Swivel latchFIGURE 1 Main UMMDA Control Algorithm. Matriarca Algorithm.Figure 1 is a flow chart of a basic algorithmic control algorithm of the UMMDA. This is the main algorithm that directs all instructions of the UMMDA. This algorithm is the first one encountered when the UMMDA is turned on. This algorithm is the manager of all managers (sub algorithms) hereafter will be referred to as the “Matriarca”. This algorithm is also called the UMMDA control unit.The Matriarca is the control unit for all UMMDA applications whether a software or hardware application. This main control unit controls and instructs all sub control units (units = different algorithms). An example would be if the Matriarca control unit (Control algorithm) controls a UMMDA hardware component. A further example would be when another software application controls the path and instruction of a UMMDA mobile vehicle such as a drone. That particular software program controls the instructions of the sub drone path program. In some instances, a hardware component of the UMMDA such as a pump and or light will control the output data of information to an algorithm. This is known as a hardware control unit. The UMMDA has many sub control mechanisms, units, and applications of which the Matriarca directs all aspects of the UMMDA. The four main algorithm groups are instruction algorithms, error algorithms, all machine learning algorithms, and all predictive algorithms. There are many more sub algorithms and software programs under the 4 main algorithm groups. The Matriarca also controls all aspects of the ABIS database applications and errors. All errors from operations, malfunctions,breakdowns, corrupted software updates, corrupted data uploads and corrupted data downloads, and breaches of data are outlined in Error Management Algorithms in figure 3. The Error Management algorithm is managed by the Matriarca.The many new versions of the UMMDAthat have a wide range of large industrial applications such as testing on farms with animals for surface matter on the animal. The hand held apparatus is the focus of these algorithms and reference figures. At times, the larger UMMDA (not the hand held apparatus) may be referred to help with explanations and understandings of the new invention. The new UMMDA versions come with many choices for the user whereby the low- end version is the completely manual version, whereas the high-end version (usually for military and law enforcement) is completely automated while there are many versions available in between both. The low end UMMDA hand held apparatus (with some exceptions as mentioned above) will be the version that is described in the figures for its simplicity. The low-end version, which is simplest to understand with its basic instruction to the user on a UMMDA touch screen herein that incorporates a basic algorithmic instruction that should be easy to understand by the user. The instructions outlined herein have been stripped of all detailed instruction and are very basic, utilizing flowcharts that should outline general direction and instruction for the reader. The application outlined is very basic whereby matter detection of an allergen such as pollen has shown to be easy to understand. The flow of the instruction given by the algorithms will only detect one type of matter and will also be referred to as the basic pollen detection application or just “pollen” for the flowcharts included with this section. To understand the algorithmic UMMDA hand held start up process, the following figures 1.01 through 1.11 will also provide an overview.The hardware on the low end UMMDA hand held is limited to a receptacle (for depositing the matter), a replaceable liquid tube cartridge “cartridge” with non-adjustable affixed 2 microslides (microscope slides) to the inside of the cartridge (see figure 11), external track lighting affixed to cartridge (removable and replaceable) connected to the mother board, 4 image enlargement devices connected to the digital camera devices (the image enlargement devices are without condenser replaced with string lighting), digital devices that connect to the mother board (called imaging devices or camera photographic devices). For purposes of streamlining the flow chart in this figure 1, the UMMDA hand held utilizes the low-end detection application of one type ofpollen and the algorithms are only trained to recognize this one type of pollen from the allergen folder in the ABIS.Before any UMMDA application is started, the user must check if the receptacle in the cartridge is filled to the proper level (fill line is usually 7 / 8 from the top of the cartridge), whereby for this particular pollen detection application, faucet (Tap) water is used if needed. The rubber top can be easily removed and replaced for filling and the cartridge can be easily inserted back into the hand held case. A metal frame has areas for all the components of the hand held including the cartridge and the entire metal frame has a plastic case encasing the metal frame. The back of the plastic cover case can be easily removed while the front of the case is a touch screen for user in interact with the hand held. The sides of the case maintain different options for different add ons such as an SD micro card or batteries that can be replaced.The low end hand held UMMDA version has very few algorithms whereby some operate on a simple yes or no basis and transfer to the algorithm which is also the next set of instructions. These are very basic “instruction” algorithms. The end result is to inform the user if the UMMDA has detected any pollen in this specific UMMDA application. The instructions to the user to obtain samples are the following. After checking for liquid level in receptacle, power up the apparatus, simply by plugging it in, turn on the power to the liquid tube which include, the image enlargement devices, the pump, the string lights, and the laptop. The buttons on the low end UMMDA version are for green which is for on and red is for off for all hardware components. Each hardware component must be turned on and off with this version.As depicted in figure 1.1, when the UMMDA is powered on, all components are checked by a specific algorithm for errors and are operating correctly and a hand held cartridge is in fact in the unit.The system checks for errors in figure 1.2.If no errors are reported, the algorithm reports the bootup a success as in fig 1.3.The algorithm moves to contact the next algorithm as in fig 1.11, which is the detection instruction algorithm “Instruction Algorithm” in figure 2.If errors are detected, it’s either a software error (fig 1.4) or hardware issue (fig 1.5), whichever comes first. Is a replaceable liquid tube cartridge in the hand held or was it removed and not replaced- would be an example of a hardware issue. Directions on touch screen will appear for the user with a picture tutorial on how to remove, replace or fill a replaceable liquid tube cartridge if required.Both error messages have the system restart after the user performs a checklist.If an error has cleared after checklist by user has been completed or the hardware issue has been corrected, the algorithm transfers to a different instruction (the detection) algorithm in figure 2.Fig 1.6 an algorithm checklist blinks on the screen for the user. Green all clear, blinking red, error still present. This where the machine will decide to shut down after instructing the user to contact a professional.If the user desires to preprogram the Instruction algorithm in Fig 111, they can choose to instruct the hand held through the touch screen to run as many times as they desire with fig 1.7.Fig. 1.11 if there is a 1 code, transfer to fig 2 and move on with the operation. If a 2 code , a shutdown of operations occurs.Fig 1.11 instructs the algorithm to detect next whereby the UMMDA will run up to 26 runs for detection of pollen unless the user utilizes the user interface and programs a lesser run total. This is the default. If the user desires to run the data for higher accuracy, the user can choose so as many times as they choose by interfacing with the user screen and request the algorithm to run the data. The more runs, the more accuracy. For purposes of this section, a run will be defined as a time frame that was set by the user or how many times the exact data passes by the 4 image enlargement devices. The norm is 26 runs for a normal reading above 60% for detection of the type of matter the user desires to detect.FIGURE 2. Matter detection instruction algorithms.Figure 2.1 The first question this algorithm asks is if the user requests different levels of automation. For purposes of this section, if the user requests automation (via touch screen) for the obtaining of matter for deposit into the hand held receptacle using a robot with a mechanicalarm, the control unit algorithm (Matriarca) contacts a UMMDA ABIS server through the internet, wireless connection or a wired connection to a server and requests a download of automation algorithms. Robot with mechanical arm may have to be delivered by courier. This instruction takes take a different level with many more algorithms becoming downloaded and utilized. For these flowcharts and algorithms, the manual use of the hand held, and their associated algorithms are outlined herein. Figure 2.2 is the automation algorithm not utilized here. The algorithm in figure 2.3 is summoned and instructed to contact the ABIS.In figure 2.4 the algorithm contacts the storage device in the hand held for the information the user has inputted through the touch screen (programmed and stored) Here we know the user just desires to detect pollen and stated such on the touch screen where this data point is saved to the hand held but also communication with the ABIS in the cloud (internet wireless connection to the pollen database stored in the ABIS cloud in the folder where all the trained data of the pollen images are found. Here all the trained data (data that has images and are labeled pollen) whereby there may be thousands of trained data in the ABIS UMMDA databases where also there are sub folders of different types of pollen that are labeled pollen images and are stored. An example of the ABIS automated filing system is when there is almost an exact image that was detected by the UMMDA hand held apparatus that closely matches an image in the ABIS pollen database subfolder but, it is not exact. The ABIS will save this information that at a later date may be reanalyzed many more times and it just may be determined that another pollen spore overlapped the main spore with .034 percent of the image where the ABIS refers to this phenomenon as a “sosi” or a “slight overlap of a same image”. The ABIS through training of thousands more runs will build a database that have many of these sosi’s and label the image as an exact match to pollen images in further runs. If the hand held through its algorithms determines that the images are blurred, these images indicate clusters are formed and a combo cluster buster may be needed in the replacement liquid tube cartridge. For medical applications, cluster do not form as much as in UMMDA environmental applications.In figure 2.6, the ABIS is summoned. The pictures of the Pollen that were deposited into the receptacle and were detected by the image enlargement device (UMMDA) were then run against the ABIS database figures of Pollen. Since Pollen was detected and the ABIS data base was contacted, the instruction algorithm is directed to transfer to algorithm in figure 2.7 whereby thedata populates a ABIS database and specifically a folder that is labeled with the name of the user and the new Pollen images detected. The user then sees results on the touch screen that can be sent to a chatbot for verbal results in different languages or texted to a cell phone if wireless capabilities are installed on the hand held apparatus.Before this figure 2 is put into action (instruction of algorithm) if the user has chosen to manually obtain matter for detection by depositing such matter in the receptacle attached to the replaceable liquid tube cartridge (as in this example), the user is instructed to perform the following matter seeking exercise.User is instructed to cut a rag with dimensions of about an inch in width by inch in length. Wet the cloth with faucet water and wipe two windowsills in the home (or any indoor space) with a space of 6 inches per wipe, wipe the floor directly in front of the door entrance and then place the cloth in the UMMDA receptacle and allow the liquid in the receptacle to penetrate the rag after powering up the UMMDA. This should allow for matter to become deposited into the receptacle. This particular version again only utilizes ABIS trained Pollan data from the database. If the UMMDA does not detect any pollen, the user is instructed to try wiping other areas in the space such as countertops, furniture and lamp tops and repeat. Our research shows that after 26 attempts, the pollen may be in small amounts or not exist at all. For database purposes, thousands of images of Pollen may be in our trained database folder in the ABIS.For purposes of this description, user must start the process by obtaining matter for detection. Figure 2 starts where the previous section Figure 1 ended. Recapping the prior section, there are controlling algorithms (Matriarca) that control all sub algorithms. Separate from all operational and management UMMDA algorithms, predictive algorithms, and machine learning algorithms (figure 2) cross reference with each other through the main controlling algorithm (Matriarca). The predictive algorithms and machine learning algorithms have no contact with any UMMDA operational or management of the apparatus. At this point, the user has deposited matter that has been detected for purposes of this application. The following is a simple way an algorithm performs:Would you like to detect matter?Is the system automated? Yes, or No?Since the answer is no, the algorithm will contact the user data and ask what is being detected.What matter is being detected; user data was inputted already from a menu of matter choices. Since this is the low-end version, only pollen detection is scheduled.The ABIS database of trained data for pollen is contracted whereby thousands of images of pollen are stored and labeled in many different labels from past detection runs by the UMMDA whether they be from a user or from UMMDA demonstrations for clients. Each ran adds to the ABIS database. An example would be a geographical hit of pollen on a fishing boat that was at sea for 1 month. This data point would be noted as an odd data point because fishing boats at sea usually encounter ocean spray that would wash the pollen into the sea after a couple od days at sea.After detection, was a hit made? Yes, a hit was made for pollen and yes “pollen was detected by the UMMDA hand held”.This algorithm takes the pollen detected by the user and matches it against the database of pollen images from past applications. In this specific application, a hit is made. At times, a user will only require small amount of data.The user before the Matriarca algorithm starts is asked what level of accuracy is desired. If the user chooses 25% accuracy whereby 100% will require more time to compare the images from the database to the images the user has obtained. If the images the user has obtained are less than 10, the accuracy is 14%. If the images obtained by the user are over 100, the accuracy is 50. 1%. This also stands for how much data (Pollen images) is in the ABIS database. If the images are not less than 1,000 in the ABIS database, the accuracy will be more than 60%. The UMMDA will not offer services of detection unless the database has over 1,000 images.The results are in text on the user face screen. With the low-end version, the UMMDA will list at least 1 line of results. Pollen was detected with at least 60% accuracy is the result.FIGURE 3 Error algorithms.Figure 3.1 Errors always start with the Matriarca algorithm. When the UMMDA is started up and all power is supplied to all UMMDA components, the system check is done by Matriarca. On some versions of the UMMD, the power for all components is supplied from one power switch. Once the power is turned on, power is supplied to all components on the UMMDA hand held apparatus.Figure 3.5 is an algorithm that collects error messages and stores them in the ABIS. If an error is detected, the apparatus bounces back and forth between the error algorithm and the Matriarca algorithm.Figure 3.3 is when the UMMDA reports no errors and goes back to figure 2 (Instruction algorithms).Figure 3.5 Error detected- what is the error? We are going back to the Matriarca algorithm (figure 1) to do a system check.Figure 3.6 The Matriarca algorithm will a complete system check during startup of UMMDA and during operation of all algorithms.Figure 3.7 During a system check, the first thing the Matriarca algorithm does is check for power to all hardware components.Figure 3.8 a checklist flashes on the user interface screen and asks user to physically perform a list of checks mostly for hardware components such as is a cartridge in the hand held. If a spring is not depressed, the image enlargement devices don’t detect any liquid or microscope slide, or sees the back of the hand held that is painted black- this would indicate that a cartridge is not present and the user will be an error message on the touch screen.Figure 3.9 If checklist is gone through twice and the system cannot operate correctly, the user is asked to contact a professional for service.Figure 3.10 is contacted, and the “OK” is sent to the algorithm, the system returns back to instructional algorithm (Figure 2).FIGURE 4 Machine Learning Algorithms.The machine learning algorithms are numerous and for purposes of this application, the low end UMMDA version will be used in its simplest way. There are 3 types of algorithms the UMMDA utilizes. Learning from data, predicting events from that data, and learning from errors. The UMMDA will also scour the internet for both online for free and paid for databases and compare and contrast data obtained by the UMMDA. This application is a trade secret and will NOT be disclosed.There are machine learning algorithms that learn from the error data of the management and operation of the UMMDA. All errors from operations, malfunctions, breakdowns, corrupted software updates, corrupted data uploads and corrupted data downloads, breaches of data are all stored in a separate ABIS database folder called “errors of operation” This folder is connected to separate operational and management algorithms that track and learn from errors.Figure 4.1 The control unit algorithm Matriarca, is programmed to file data in 4 ways, outside third party (intemet / paid for databases) learning from detection data obtained, learning from errors, and using predictive algorithms for all 4. Due to the complexity of machine learning algorithms, the basic premise for purposes of this application is, is it good or bad?Figure 4.2 Is the Error algorithm ABIS database propagated?Figure 4.3 is the Learning algorithm ABIS database propagated?Figure 4.4 is the Predictive algorithm ABIS database propagated?Figure 4.5 does any of this information currently exist in the ABIS database?Figure 4.6 If yes, can we learn from it Yes? Figure 4.8.Figure 4.7 If no, no more calculations are needed.Figure 4.8 If we can learn, there are billions upon billions of calculations that will now take place. Since this is a pollen detection learning application, but more data has been obtained in the cluster of matter, the following calculations take place.Figure 4.9 If pollen was found in an area that normally does not have pollen, How did it get there, what type of Pollen, were there high winds, what was the longitude and latitude ofdetection area, was a plant brought into the house, what else is present with the detection of pollen. .. whereby the rest of the algorithms utilize automation of hardware and software. What other mater was clustered with the pollen spore or pollen spores? Was this matter usually attached to such pollen spores?FIGURE 5 Predictive Algorithms.Figure 5 is a flowchart of how UMMDA predictive algorithms work. As with the example used in this application, once pollen has been detected, and all other checklists for machine learning have been meet, the data gained from the 4 sources can be useful in predicting events. If the pollen detected in the home of the user is not present from any nearby areas, the drones and robots will do their forensics. One such instance was pollen was found in a home that was originally traced to being located more than 4,000 miles away. Alaska in the winter does not possess much pollen. A robot was able to ascertain that the pollen was from a dog, luggage, clothes, and the inside of the car whereby the person visiting with the dog first visited the area with a high pollen count, then traveled to Alaska.Fig. 5.1 Data collected from the user.Fig 5.2 The data is pre-processed using processing algorithms.Fig 5.3 Artificial Neural Network models are created using the data collected and the algorithms.Fig 5.4 Machine Learning Regression Algorithm models are created using the data collected and the algorithms.Fig 5.5 The data can be visualized in the predictive dashboard - dashboard designed with specific software programs, specific algorithms with specific details. An example of this is when an image “hit” that was detected with a hand held apparatus, the replaceable cartridge was removed and liquid with the pollen was tested for counts of pollen spores and grains in a volume of liquid, not air as the governments do. The UMMDA tests pollen count in bodies of water and on indoor and outdoor surfaces to learn how the air count may be different in air volume count and help people avoid certain high pollen areas when the government is stating pollen counts are low.Fig 5.6 The models can be validated manually and with validation algorithms to ensure validity and accuracy.Fig 5.7 Results of all the findings can be given to the user.FIGURE 6 Data Base Algorithms.The new ABIS technology has not been disclosed but an overview of the technology is based on thinking databases. The UMMDA has unique methods and algorithms to detect matter. This leads to new ways of propagating databases.Fig 6.1 User data is collected and sent to ABIS Cloud.Fig 6.2 The user data is received and pre-processed using processing algorithms.Fig 6.3 The processed data is referenced against trained data in ABIS and previous existing data.Fig 6.4 The results, confidence levels, and other metrics and analysis are determined.Fig 6.5 The data is categorized and stored in appropriate structures, folders, and tables based on the results of the ABIS processing algorithms.Fig 6.6 The results are sent to the user.Fig 6.7 The initial user data and the results can be accessed and retrieved at a later date and is used to help improve the ABIS algorithms.Fig 6.8 Further data analysis and predictive analysis can be done using the user data and results. See figure 5.FIGURE 7 Water soluble materials for UMMDA receptacle.This new application tests stool, urine, sputum, blood, organ matter, hair, skin cells, fingernails, and toenail matter whereby all testing is in real time using numerous UMMDA algorithms.The past versions of the UMMDA receptacle were developed separately and affixed to the liquid tube while the nonadjustable microscope slides were also affixed inside and on top of the liquidtube which was expensive. Now the liquid tube is constructed with the receptacle by 3D printers with the microscope slides embedded and constructed inside the liquid tube also by the 3D printer. For purposes of this application, the new design construction of the three components whereby the liquid tube, the receptacle and the microscope slides will hereafter be referred to as the “cartridge”. The smaller countertop version of the UMMDA and still further the smaller hand held version of the UMMDA will also incorporate the new design. The easiest ways sometimes to obtain matter and then to deposit that matter in the receptacle attached to the cartridge is by hand. Obtaining the matter without tainting the matter, disturbing the integrity of the matter, or obtaining a matter that can be tested immediately in the medical industry has been a constant challenge. The issue in the medical issue is the action of gaining a matter sample from a human or animal in the form of stool, urine, or blood with ease without tainting has also been a challenge. The next section is a new invention method of doing so.FIGURE 7 is a water-soluble screen made of paper where a patient can clean themselves of feces after a bowel movement and deposit the paper into the UMMDA receptacle or directly place the paper into the cartridge in the hand held for testing of matter. A medical professional can also collect a feces sample from a patient by gathering a feces sample by physically grabbing the stool from a sterile toilet used by the patient, using a soluble paper to grab the feces by hand directly during a bowel movement and dropping such feces into the cartridge for testing. This can be done manually by hand or by robots with mechanical arms by automation or by manually managing the robot by a person or a group of people. This process can also be used for testing urine and blood samples from people and animals by using the sterile water soluble paper to splash urine onto, drip blood from a prick onto the paper, or spit into the paper to gain a sputum sample. The water soluble screen can be made of any material that is water soluble. Other material that is also soluble in other types of liquids can also be used in place of the paper. In some occasions human tissue can be placed onto the paper or the tissue can be directly deposited into the cartridge.Figure 7.1 is the front view of the frayed outer edge of the water-soluble paper screen.Figure 7.2 is water soluble paper woven into a screen to hold feces until deposit into UMMDA receptacle or directly into the hand held replaceable liquid tube cartridge.FIGURE 8 Receptacle pin prick device for blood testing in humans and animals.The UMMDA receptacle is a depository for matter that will be pumped into the liquid tube for detection of matter.The new design of the receptacle maintains needles, pins, razor blades or devices that are spring loaded with a pin and or razor blade. The manner in which the new design works is to gain a blood sample by piercing the skin of a person or animal. The top of the receptacle maintains a layer of plastic, rubber, paper, fabric, or any combination of these materials along with others that keep the receptacle sterile by covering the entire opening before use. Any of the prior materials and materials that are not listed that are water soluble can also be used. The body part can either be submerged or not submerged in the liquid (for purposes of this application the liquid will be water) whereby there are 4 types of applications within the receptacle that can be used.The design of the new UMMDA receptacle (which may also be made by a 3D printer) maintains a water line whereby one skin piercing application to induce bleeding and have blood enter the receptacle is affixed above the water line and further enter the liquid tube for detection. The skin piercing application that is below the water line is to gain blood flow directly in the water of the receptacle which will further be transferred or pumped into the cartridge for detection.The applications are:A stationary pinhead affixed at one side of the receptacle above the water line and the other located at the other side that is below the water line. The patient after breaking the sterile seal on top of the receptacle by pressing down with enough force to break the seal, will be directed by a physician to use one of the two choices.A spring-loaded pin prick application whereby a spring-loaded pin within the receptacle replaces the pinheads on both sides with enough force to pierce the skin of the patient to induce bleeding. The spring may be calibrated to reduce or increase the force for piercing the human or animal for bleeding inducement. The UMMDA application offers a large receptacle where an entire animal or person can step into (or be lowered into) the receptacle for blood, urine, feces, skin, hair, or surface matter located on the subject such as a person, animal, plant, or tree. The applicationdubs as a cleaning application before the testing of matter. The receptacle can be used a bath and or shower to clean the animal or plant before testing.Hypodermic Needles can also be substituted for the pins in the receptacles. This application is used to gain matter for deposit into receptacle such as tissue matter, bone or any other matter located deep in the body of the patient. The needle can be designed to be used manually whereby the physician can direct the needle by inserting their hand from outside the receptacle where the glove the receptacle (hand does not come in contact with liquid inside the receptacle). The needles can be affixed to the receptacle and operated from outside the receptacle. The portals can also be constructed to replace the needles and parts thereof. A simple method can be used to simply place the tip of the hypodermic needle directly into the cartridge for matter testing and bypass the receptacle. On some versions of the hand held, a receptacle is not used and eliminated from the construction whereby medical professionals deposit the matter directly into the replaceable liquid tube cartridge, seal it and place it the cartridge into the hand held apparatus for matter testing.Razor blades can also be used where the skin is tougher to pierce for inducement of bleeding. The razor blades can replace affixed pins on either side of the receptacle above and below the liquid line. The new application can also utilize one application list above or combined applications. An example would be a hypodermic needle affixed above the liquid line on the left side of the receptacle while the right side of the receptacle would have a pin affixed to it. Any combination or just one induced bleeding application can be used.There are some instances when a stool sample is needed from an animal. With this particular application, the animal can be placed inside the receptacle whereby a warm liquid is pumped into the receptacle to induce excreting feces, or a physician can use a finger or stool capture tool in the anus of the animal to obtain fecal matter and deposit into the receptacle.The screen stool method.The application that can be used to gather stool and deposit stool into the UMMDA receptacle. A box constructed with screening can be placed, submerged in the receptacle for a brief time or affixed to the side of the receptacle whereby the still or flowing water from a UMMDA pump, has some of the fecal matter be released into the receptacle and further into the liquid tube fordetection. The screen be made of any material where the stool sample can be mushed into the screen slate (like that of a screen for a window), placed in a five-sided screen box (with the top open) or a stool sample can be deposited into a water soluble 5-sided box (with the top open) and dropped into the UMMDA receptacle. The water-soluble box can be made of water-soluble paper, water soluble fabric or water-soluble screen made of any water-soluble material. The screen and or box can also be made of other materials that dissolve in a liquid. The stool can also be dropped into the receptacle by a patient.Figure 8 is a top view of a UMMDA receptacle.Figure 8. 1 is the rim of the UMMDA receptacle.Figure 8.2 is the whirlpool maker located at the bottom of the receptacle that connects to an electrical outlet and spins to create a whirlpool.Figure 8.3 is the right-side pin head that will puncture skin to induce bleeding to deposit blood into the receptacle that will be pumped into the liquid tube.Figure 8.4 is the electrical cord that either plugs into the liquid tube or into an electrical outlet.Figure 8.5 is the liquid tube screw (male end) in version that connects to the unit (by screwing the receptacle clockwise) if not constructed in one UMMDA unit as in the 3D printed UMMDA unit.Figure 8.6 the female screw in end that is watertight and affixed to the side of the receptacle to the male end.Figure 8.7 is the left-hand side pin head that will puncture skin to induce bleeding to deposit blood into the receptacle that will be pumped into the liquid tube.FIGURE 9 Hand held version.A new version of the UMMDA has been developed whereby the size with the new additions has been lowered in weight, length, and width. The new version can be small enough to fit on a counter in a medical facility and still further, can be used as a hand held as a UMMDAapplication. The cartridge can be replaced and disposed of without the need for depositing the used cartridge in a hazardous material container in some instances.The replaceable liquid tube cartridge “cartridge” is basically the same design as the previous version of the UMMDA liquid tube, but the microscope slides can be embedded in the smaller version and the receptacle affixes to the outside of the hand held. In some specific applications in the environmental industry, the need for adjustable microscope slides is still needed. An example of this would be when the UMMDA switched from bacteria detection to contaminate detection in gravel that needs to be deposited into the receptacle. The the space between the two microscope slides needs to be larger. In the medical profession only very small amounts of matter from a patient are needed for accurate matter testing and the space between the slides can remain small. There is a version of the liquid tube whereby the hand held liquid tube replaceable cartridge utilizes adjustable microscope slides to increase or decrease the space between the top and bottom microscope slides. The receptacle can be affixed easily to the handheld and be removed when such is required. The manual depositing of matter directly into the hand held liquid tube replaceable cartridge alleviates the need for a receptacle.The hand held apparatus is a new design.The cartridge is enclosed in a metal frame with a plastic case whereby the front of the hand held is a touch screen for interaction with the user and the back of the metal frame maintains a plastic cover that can be snaped off and back on with ease for maintenance and cleaning.The liquid tube and microscope slides are less likely to be broken where the entire apparatus has a plastic cover. The entire cover is plastic and can also be made by a 3D printer.Figure 9 is a front view UMMDA hand held version.Figure 9.1 is a front cover with a video touch screen.Figure 9.2 is a slot for power / battery connector.Figure 9.3 is a USB slot for a connecting USB cable.Figure 9.4 is a SD micro card slot.Figure 9.5 is a replaceable liquid tube cartridge slot. The slot has the microscope slides directly under the 4 image enlargement devices with no blocking of view.Figure 9.6 is the on / off button.Figure 9.7 is the power / battery cable.FIGURE 10 Replicable liquid tube cartridge and receptacle.UMMDA liquid tube, receptacle and microscope slides, tabs for stringed and tracked lighting constructed in one disposable unit that can replaced with a sterile one.The new invention as in figure 10 is a top view that is one piece with the receptacle, the liquid tube, and the microscope slides (top and bottom) all constructed in one unit. The construction may be of plastic, glass, metal, rubber, cloth, fabric, water soluble tape, water soluble paper, water soluble fabric or wood or a combination of any material of its entire structure. Also, the materials that make up the liquid in the tube can be other types of liquids, gases, or semi solids. Magnets can be affixed or slid in place on variations of the cartridge.Figure 10 is a top view of the replaceable liquid tube cartridge with receptacle.Figure 10.1 is the top view of the opening to the receptacle whereby the receptacle is at times solid and thicker than the liquid tube.Figure 10.2 is the top view of the right wall of the liquid tube.Figure 10.3 is the top view of the left tab to connect string lighting.Figure 10.4 is the top view of the opening to the liquid tube that can be connected to pumps, more tube or blocked off.Figure 10.5 is the top view of the right tab to connect string lighting.Figure 10.6 is the top view of the left wall of the liquid tube.Figure 10.7 is the top view of the bottom microscope slide.Figure 10.8 is the top view of the of the top microscope slide.Figure 10.9 is the top view of the top ridge of the receptacle.Figure 10.10 is the top view of the rubber push seal to stop the liquid from exiting cartridge.Figure 10.11 is the top view of the liquid tube ridge to secure a rubber cap if used to also stop the liquid from exiting cartridge.Figure 10.12 is the top view of top right magnet affixed to liquid tube.Figure 10.13 is the top view of bottom back right magnet affixed to liquid tubeFigure 10.14 is the top view of bottom left magnet affixed to liquid tubeFigure 10.15 is the top view of top left magnet affixed to liquid tubeIf the spring dish sleeve with the swivel lever is not used to secure the replaceable liquid tube cartridge in the hand held apparatus, then magnets are used.FIGURE 11. Embedded microscope slides with open space for matter suspended in liquid to enter the space between the top and bottom microscope slides.Figure 11. is a side view of liquid tube cartridge.Figure 11.1 is a side view of the top microscope slide embedded into the liquid tube cartridge by a 3D printer. This microscope slide is elongated and usually larger than the bottom microscope slide for matter mixed with liquid in the cartridge to enter the space between the microscope slides.Figure 11.2 is a side view of the bottom microscope slide embedded into the side of the liquid tube cartridge by a 3d printer, but the slide is shorter than the top slide for flow of matter between the microscope slides. By shaking or tipping the hand held version (no internal pump) with the cartridge, will allow the matter suspended in liquid to enter in the space between the microscope slides for detection.Figure 11.3 is a side view of the bottom microscope slide affixed to the inside of the cartridge.Figure 11.4 is a side view of the left open section for matter suspended in liquid to enter the space between the slides upon tipping and shaking between the microscope slides in the cartridge.Figure 11.5 is a side view of the right open section for matter to enter upon tipping and shaking between the microscope slides in the liquid tube cartridge.FIGURE 12 Liquid tube cartridge with magnets side view.This side view of the replaceable liquid tube cartridge with a receptacle shows a version with magnets affixed. There will be another set of magnets affixed inside the hand held metal frame case to secure the liquid tube cartridge in place.Figure 12 Side view of the liquid tube cartridge with magnets.Figure 12.1 is the side view of the opening to the receptacle whereby the receptacle is at times solid and thicker than the thickness of the liquid tube.Figure 12.2 is the side view of the front magnet.Figure 12.3 is the side view of a secondary rubber stop if hazardous materials are detected in the liquid tube aside for a top rubber seal (figure 12.09)Figure 12.4 is the side view of the top microscope slide.Figure 12.5 is the side view of the top wall of the liquid tube.Figure 12.6 is the side view of the back magnetFigure 12.7 is the side view of the bottom microscope slide.Figure 12.8 is the side view of the bottom wall of the liquid tube.Figure 12.9 is the side view of the valve to stop liquid from exiting cartridge.Figure 12.10 is the side view of the bottom of the receptacle.Figure 12.11 ridge to hold the liquid tube cylinder in place in the hand held apparatus.Figure 12.12 is the side view of the front magnet.Figure 12.13 is the side view of the track and string lighting.Figure 12.14 is the side view of the back tab to hold track and string lighting.Figure 12.15 is the side view of the stand-alone magnetic operated pump.FIGURE 13 UMMDA hand held apparatus.This top view of the UMMDA hand held version shows the internal components of the hand held apparatus. If the faceplate with the user touch screen is removed, the metal frame case is now exposed along with the replaceable liquid tube cartridge, receptacle (outside of case), 4 image enlargement devices, 4 digital camera devices, power supply, mother board, internal magnetic pump in side cartridge, external magnetic pump inside metal frame case (the external pump makes no contract with the internal pump- magnets rotate the pump inside the cartridge), 8 magnets to hold the cartridge in place (4 on cartridge - 4 affixed to the metal frame of the hand held), SD micro card slot, USB cable connection, wireless device, power supply unit, electrical power cord attached to power supply unit, replaceable battery, solid state storage device, and press on receptacle.Figure 13 Is the top view of UMMDA hand held version with its faceplate removed.Figure 13.01 Is the top view of left side of hand held UMMDA frame case.Figure 13.02 Is the top view of the receptacle.Figure 13.03 Is the top view of the opening to the receptacle whereby the receptacle is solid and thicker than the liquid tube for durability since its outside the metal frame and exposed to breaking.Figure 13.04 Is the top view of the top wall of the liquid tube.Figure 13.05 Is the top view of the image enlargement device number 4.Figure 13.06 bottom microscope slide.Figure 13.07 is the top view of the magnet attached to the metal frame that pulls towards the magnet on the cartridge in figure 12.6 opposite side.Figure 13.08 is the top view of the top microscope slide- see through glass.Figure 13.09 is the top view of the press valve to stop liquid from exiting cartridge.Figure 13.10 is the top view of the opening in the metal frame to slide in a replacement cartridge.Figure 13.11 is the top view of the digital camera device on top of image enlargement device number 1 affixed to the metal frame.Figure 13.12 is the top view of the data and power transfer cables for image enlargement device and camera digital device number 1 affixed to the metal frame.Figure 13.13 is the top view of the power supply unit affixed to the metal frame.Figure 13.14 is the top view of the mother board affixed to the metal frame.Figure 13.15 is the top view of the slot to connect electric power cord affixed to the metal frame.Figure 13.16 is the top view of the USB slot to plug in a UBS cable.Figure 13.17 is the top view of the SD micro card slot where its spring loaded to insert and remove an SD micro card for storage.Figure 13.18 is the top view of the wireless transmitter device.Figure 13.19 power cord of external pump to power supply unit.Figure 13.20 Is the top view of the image enlargement device number 3.Figure 13.21 Is the top view of the image enlargement device number 2.Figure 13.22 Is the top view of the image enlargement device number 1.Figure 13.23 is the top view of the digital camera device on top of image enlargement device number 4 affixed to the metal frame.Figure 13.24 is the top view of the digital camera device on top of image enlargement device number 3 affixed to the metal frame.Figure 13.25 is the top view of the digital camera device on top of image enlargement device number 2 affixed to the metal frameFigure 13.26 data and power transfer cables for digital camera device on top of image enlargement device 2.Figure 13.27 data and power transfer cables digital camera device on top of image enlargement device 3.Figure 13.28 data and power transfer cables digital camera device on top of image enlargement device 4.Figure 13.29 top of UMMDA hand held metal frame.Figure 13.30 right side of UMMDA metal frame.Figure 13.31 bottom metal frame of UMMDA.Figure 13.32 top view of magnetic pump inside the cartridge.Figure 13.33 top view of magnetic pump outside the cartridge located inside the metal frame.Figure 13.34 top view of solid state storage device.FIGURE 14 Swivel Cover on receptacle.This side view of the receptacle shows the swivel cover on the receptacle. The swivel cover keeps the matter within the receptacle from spilling out. It has a rubber edge for a water tight sealFigure 14 Is the side view of receptacle with swivel cover.Figure 14.1 Is the side view of the receptacle covering for preventing matter from exiting receptacle.Figure 14.2 Is the side view of the opening to the receptacle whereby the receptacle is covered by a soluble paper cover.Figure 14.3 Is the side view of the hinge.Figure 14.4 Is the side view of the rubber top that forms a water tight seal.FIGURE 15 Liquid tube cartridge and UMMDA hand held version with magnets affixed metal frame.This top view shows the liquid tube cartridge in the cylinder slot in the UMMDA hand held version. The two magnets are affixed to the metal frame and the other two magnets are affixed to the outside of the cartridge.Figure 15 The side view of the close up top view of all 4 magnets.Figure 15.1 The side view of the UMMDA hand held open slot for a cartridge.Figure 15.2 The side view of the top magnet affixed to the interior metal that holds the cartridge in place through magnetic force. A simple pull on the top of the cartridge will break the seal whereby the magnetic field is strong enough to hold the cartridge and weak enough to be broken.Figure 15.3 The side view of the top magnet affixed to the top of the cartridge.Figure 15.4 The side view of the magnet affixed to the bottom of the cartridge.Figure 15.5 The side view of the bottom magnet affixed to the interior metal that holds the cartridge in place through magnetic forceFigure 15.6 The side view of the open slot to slide cartridge into the meal frame of the hand held.Figure 15.7 The side view of the lip of the cartridge that extends beyond the metal frame.FIGURE 16 Cartridge cylinder slot side view.In some versions of the hand held, the cartridge can slip into a cylinder in lieu of using magnets. The open part of the cylinder is just about the elongated top microscope slide. This top view of the cylinder for cartridge shows the liquid tube version without magnets inserted onto the cartridge in the UMMDA hand held version. The end of the slot has a spring to eject the liquid tube cartridge and a latch in the opening at the top of the metal frame to keep it in place. This is where the swivel latch is affixed to the metal frame.Figure 16 Close up side view of the cylinder sleeve that holds the cartridge in place.Figure 16.1 Close up side view of the side wall of cylinder sleeve.Figure 16.2 Close up side view of the back wall of cylinder that holds cartridge.Figure 16.3 Close up side view of the side wall of cylinder sleeve.Figure 16.4 Close up side view of the Side wall of the UMMDA metal frame case.Figure 16.5 Close up side view of the open slot in metal frame to slide in cartridge.Figure 16.6 Close up side view of the cartridge lip protruding above the metal frame.Figure 16.7 Close up side view of the side wall of the metal frame.Figure 16.8 Close up side view of the spring.Figure 16.9 Close up side view of the top microscope slide.Figure 16.10 Close up side view of the left support.Figure 16.11 Close up side view of the right support.FIGURE 17Close up of cartridge side view in hand held apparatus.This side view of the cartridge and UMMDA hand held version shows the cartridge version without magnets whereby the end of the slot has a spring to eject the cartridge and a swivel latch at the opening to keep it in place.Figure 17 Close up and side view of the cylinder sleeve that holds the cartridge in place.Figure 17.01 Close up and side view of the cartridge top wall.Figure 17.02 Close up and side view and left support on side wall of UMMDA mainframe case.Figure 17.03 Close up and side view of top microscope slide.Figure 17.04 Close up and side view of left support on side wall of metal frame case.Figure 17.05 Close up and side view of spring.Figure 17.06 Close up and side view of support drum sleeve to hold spring and press against cartridge.Figure 17.07 Close up and side view of right support beam for cylinder sleeve end cap.Figure 17.08 Close up and side view of bottom microscope slide.Figure 17.09 Close up and side view of right support beam for cartridge.Figure 17.10 Close up and side view of left support beam for cartridge.Figure 17.11 Bottom wall of the hand held metal frame case.Figure 17.12 side view of latch to hold liquid tube cartridge in the cylinder sleeve after being down.Figure 17. 13 Close up and side view of top wall with open slot for the cartridge of the hand held metal frame case.Figure 17.14 Close up and side view of smaller latch to hold liquid tube cartridge in the cylinder sleeve after being down.Figure 17.15 Close up of rubber topper that can be pressed down into cartridge to hold liquid and matter in the liquid tube cartridge.Figure 17.16 Close up of rubber topper ridge to keep the liquid tube cartridge in place.FIGURE 18 Liquid tube cartridge valve.This top view of the liquid tube cartridge shows the water tight valve that closes to keep the liquid matter the receptable in the liquid tube. The valve can be pushed in or pulled out manually. The version is in lieu of the rubber seal cap that is also pushed on manually or pulled off to fill or remove liquid from the cartridge.Figure 18 is the side close up top view of cartridge valve.Figure 18.1 is the side close up top view of slot where the push valve is located in cartridge.Figure 18.2 is the side close up view of the spring that presses against the valve which also presses against the latch when swiveled over the top of cartridge to hold the cartridge in place.Figure 18.3 is the side close up view of the top microscope slide.Figure 18.4 is the side close up view of the top of the cartridge.Figure 18.5 is the side close up view of the valve chamber.Figure 18.6 is the side close up view of the rubber valve.Figure 18.7 is the side close up view of the solid wall of the outside of the deposit receptacle.Figure 18.8 is a side close up view of the valve semi pushed in where there is still space above the end of the valve. The rubber valve can be pushed more to close the entire cartridge off whereby enough valve is protruding to be able to grab it and fully pull it out. This is done before the cartridge is slipped into the metal frame case.Figure 18.9 is a side close up view of a swivel latch that swivels over the valve to hold cartridge in.FIGURE 19 Reservoir for depositing of matter.Figure 19.1 is a side view of patient finger.Figure 19.2 is a side view of reservoir.FIGURE 20 Covering of the receptable with water soluble materials.The cover of the receptable is a water-soluble paper. Other materials can be used such as a plastic or rubber cap.Figure 20. l is a side view of patient finger.Figure 20.2 is a side view of reservoir.Figure 20.3 is a side view of water soluble paper or other material.FIGURE 21 Reservoir with pin prick for blood inducement.This top view shows the reservoir with a finger being pin pricked to draw blood from the patient and entered into the reservoir.Figure 21.1 is a side view of reservoir.Figure 21.2 is a side view of patient finger.Figure 21.3 is a side view of needle.FIGURE 22 Industrial UMMDA version.This is a side view of a large UMMDA receptacle that allows for an animal to be lowered in the receptacle for testing of surface matter on the animal. The animal can also be sprayed with a liquid that can drip into receptacle for matter detection.Figure 22. l is a side view of a large UMMDA receptacle.Figure 22.2 is a side view of an animal inside UMMDA receptacle.FIGURE 23 Replaceable liquid tube cartridge.This side view of the reusable receptacle shows the receptable being pressed on the liquid tube by sliding onto the O-ring. The receptacle can be removed, and the receptacle and the liquid tube can be cleaned and reused.Figure 23 Is a side view of the replaceable receptable that can be pressed on the liquid tube.Figure 23.1 Is a side view of the replaceable receptacleFigure 23.2 Is a side view of O-ring to attach the receptacle to the liquid tube cartridge for a water tight fit.Figure 23.3 Is a side view of O-ring to attach the liquid tube cartridge to the receptacle.Figure 23.4 Is a side view of liquid tube cartridge.Figure 23.5 Is a side view of the connecting shaft that connects the receptacle to the liquid tube.Figure 23.6 Is a side view of a larger shaft that fits snug into the smaller shaft (figure 23.7)Figure 23.7 Is a side view of a smaller shaft that fits inside the lager shaft figure 23.6. After fit, it becomes difficult to separate whereby the fit is very tight for water tight purposes.FIGURE 24 Liquid tube cartridge with magnetic pump.This side view of the liquid tube cartridge shows the magnetic pump and the outside magnetic component that is affixed to the UMMDAhand held metal frame. Because of the two separate components, leaking of liquid becomes difficult due to one part of the pump inside the cartridge (maintains magnetic blades that operate through magnetics whereby there is no electrical power supplied to this component) and the other component (has actual power to spin the rotor to rotate the internal pump creating magnetics) outside affixed to the metal frame.Figure 24 Is a side view of the cartridge with magnetic pump and external pump component.Figure 24.1 Is a side view of the magnetic pump in the liquid tube cartridge, (no electrical power supplied)Figure 24.2 Is a side view of the replaceable cartridge.Figure 24.3 Is a side view of the outside magnetic pump component that spins the internal magnetic pump, (electrical power supplied)Figure 24.4 liquid tube cartridge receptacle which also maintains a magnetic pump whereby making it easier to draw matter suspended in liquid into the cartridge.FIGURE 25 Receptacle and liquid tube cartridge pump connected with a tube.This side view of a liquid tube cartridge and receptacle shows a version with a liquid pump in the receptacle and a liquid pump in the liquid tube cartridge connected by a rubber tube enabling the transfer of liquid from the receptacle into the liquid tube. The pumps can also be magnetic whereby both magnetic pumps can be turned by one powered magnetic pump,Figure 25 Side view of the liquid tube cartridge with 2 pumps and a tube connecting the 2 pumps.Figure 25.1 Is a side view of liquid tube cartridge.Figure 25.2 Is a side view of pump 2 inside the liquid tube cartridge.Figure 25.3 Is a side view of rubber or plastic tube connecting the 2 pumps.Figure 25.4 Is a side view of pump 1 inside the receptacle.Figure 25.5 Is a side view of the receptacle.Figure 25.6 Is a side view of an external magnetic pump (akin to those of a tropical fish tank magnetic filter pump) that can operate both pumps 1 and pumps 2 whereby the this pump is external and affixed to the metal frame of the hand held.FIGURE 26 Liquid tube replaceable cartridge and receptacle without magnets.UMMDA liquid tube, receptacle and microscope slides, tabs for stringed and tracked lighting constructed in one disposable cartridge unit that can replaced with a sterile cartridge with no magnets.The new invention as in is a top view whereby the liquid tube cartridge and the receptacle are one piece whereby all components are constructed by a 3 D printer and assembled later. The liquid tube, and the microscope slides (top and bottom) are constructed in one unit that may be interchangeable that has no magnets. The construction may be of plastic, glass, metal, rubber, or wood or a combination of any material of its entire structure. Also, the materials that make up the liquid in the cartridge tube can be liquids, gases, or semi solids.Figure 26 is the top view of the liquid tube cartridge without magnets.Figure 26.1 is the top view of the opening to the receptacle whereby the receptacle is solid and thicker than the liquid tube.Figure 26.2 is the top view of top wall of a transparent liquid tube.Figure 26.3 is the top view of left tab to connect string lighting.Figure 26.4 is the top view of the opening to the liquid tube that can be connected to pumps, more tube or blocked off.Figure 26.5 is the top view of right tab to connect string lighting.Figure 26.6 is the top view of the bottom wall of the transparent liquid tube.Figure 26.7 is the top view of bottom microscope slide.Figure 26.8 is the top view of top microscope slide.Figure 26.9 is the top view of the solid nontransparent outside of the receptacle.Figure 26.10 is the top view of valve to stop liquid from exiting cartridge.Figure 26.11 is the top view of liquid tube covering.FIGURE 27 Liquid tube cartridge without magnets side view.This side view of the liquid tube cartridge with a receptacle shows a version without magnets affixed.Figure 27 Side view of the liquid tube cartridge without magnets.Figure 27.1 is the side view of the opening to the receptacle whereby the receptacle is solid and thicker than the liquid tube.Figure 27.2 is the side view of the liquid tube covering.Figure 27.3 is the side view of the top microscope slide.Figure 27.4 is the side view of the top wall of the transparent liquid tube.Figure 27.5 is the side view of the back tab for track and string lighting.Figure 27.6 is the side view of the bottom microscope slide.Figure 27.7 is the side view of the bottom wall of the transparent liquid tube.Figure 27.8 v is the side view of the alve to stop liquid from exiting cartridge.Figure 27.9 is the side view of the the solid nontransparent outside of the receptacle.Figure 27.10 is the side view of the ridge to hold the liquid tube cylinder in place.Figure 27.11 is the side view of the pump.Figure 27.12 is the side view of the track and string lighting.Figure 27.13 is the side view of the front tab to hold track and string lighting.Figure 27.14 is the side view of the bubbler.FIGURE 28 Swivel latchThis side view of the UMMDA hand held version shows two swivel latches that can be moved over the liquid tube cartridge to secure it in place within the UMMDA hand held version.Figure 28 Side view of the handheld apparatus metal frame case.Figure 28.1 is the side view of the top wall of handheld apparatus metal frame case.Figure 28.2 is the side view of the hinge to hold the 2 latches.Figure 28.3 is the side view of the top swivel latch.Figure 28.4 is the side view of the bottom swivel latch.Figure 28.5 is the side view of the cylinder sleeve where liquid tube cartridge is inserted, and the 2 latches are swiveled over the inserted liquid tube cartridge to secure it in place.Figure 28.6 is the side view of the bottom wall of handheld apparatus metal frame case.

Claims

CLAIMSClaim 1 . A liquid tube replaceable cartridge unit is utilized in an enclosed hand held apparatus that detects matter and micro-organisms in real time using algorithms.Claim 2. A claim according to claim 1 where the liquid tube replaceable cartridge unit can be removed from the hand held apparatus then replaced by rotating both swivel levers away from the center of the liquid tube replaceable cartridge unit top on the side of hand held apparatus and sliding out the liquid tube replaceable cartridge unit and replacing another unit in the same reversed manner.Claim 3. A claim according to claim 1 whereby numerous water tight liquid tube replaceable cartridge units can consist of a plurality of different components that can be added or removed including a receptacle.Claim 4. A claim according to claims 1, 2 and 3 whereby the hand held apparatus allows for medical professionals, robots, or both to perform testing of matter, then replace the liquid tube cartridge unit for another matter detection process and method.Claim 5. A claim according to claims 1 through 3 where the replaceable cartridge unit is disposable, cleanable, or can be reconditioned to be reused.Claim 6. A claim according to claim 4 whereby a 3D printer constructs the liquid tube replaceable cartridge unit with microscope slides embedded in the unit.Claim 7. A claim according to claim 6 where the liquid tube replaceable cartridge unit is constructed with 2 elongated microscope slides with an opening at one end that maintains a ridge for a rubber cap to seal liquid inside the liquid tube replaceable cartridge unit.Claim 8. A claim according to claim 1 where the replaceable cartridge unit is fdled with a liquid during or after construction.Claim 9. A claim according to claim 6 where the replaceable cartridge unit is constructed with a receptacle for depositing matter into the receptacle that can be pressed onto the end of replaceable cartridge unit, or the receptacle can be constructed together with the replaceable cartridge unit as one unit.Claim 10. A claim according to claim 1 where a magnetic operated pump affixed to the inside the replaceable cartridge unit can be operated from outside the liquid tube cartridge by a separate control unit located inside the hand held apparatus.Claim 11. A claim according to claim 1 where a magnetic pump can be powered and operated from the inside the receptacle, another separate pump can operate inside the liquid tube cartridge whereby they can be connected to each other by a hose or not connected and operated separately.Claim 12. A claim according to claim 1 where a liquid tube replaceable cartridge is connected to a receptacle that can intake human bodily fluids and transfer that matter into the replaceable cartridge unit for testing.Claim 13. A claim according to claim 1 where the hand held apparatus can be a mobile battery- operated unit for the accurate detection of matter and micro-organisms in real time using algorithms whereby the panel cover located on the back of hand held apparatus can be removed and the battery inside the hand held apparatus can be replaced or recharged wirelessly or by a plug connected to an electrical outlet.Claim 14. A claim according to claim 1 where the liquid tube replaceable cartridge can be slide in and out of the hand held apparatus outside casing by swiveling a level to hold the replaceable cartridge unit in place in the hand held apparatus.Claim 15. A claim according to claim 1 where the hand held apparatus back panel cover of the hand held unit can also be removed to replace the liquid tube replaceable cartridge unit.Claim 16. A claim according to claim 1 where a receptacle can intake human bodily fluids and transfer that matter into the replaceable cartridge unit for testing.Claim 17. A claim according to claim 1 whereby the replaceable cartridge unit can be filled with a liquid during construction and sealed or filled with a liquid after construction by a medical professional and sealed.Claim 18. A claim according to claim 15 whereby matter deposited into a recepticle can be transferred into a connected replaceable cartridge unit connected to the hand held for testing.Claim 19. A claim according to claim 18 whereby a medical professional can operate the hand held apparatus manually through a touch screen, remove the replaceable liquid tube cartridge or replace the liquid tube cartridge in the hand held apparatus.Claim 20. A claim according to claim 18 whereby the hand held apparatus can be operated autonomously by a robot, a drone or both.

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