Abstract: An allergen delivery system with a tray and delivery set. The delivery set includes a dispensing well. The dispensing well holds a wettable material to receive an allergen and provide it to a delivery barb that has been received into the dispensing well. A conduit is connected to the dispensing well, to receive the allergen and provide it to the dispensing well. A reservoir is connected to the conduit to receive the allergen and provide it to the conduit. A cap is disposed on the reservoir, with a hole, such that when a finger depresses the cap, the finger covers the hole and the depression creates pressure within the reservoir, which motivates an amount of the allergen to flow out from the reservoir through the conduit and into the dispensing well, to be absorbed by the wettable material, where the allergen is available for delivery to the barbed delivery applicator.

Abstract: An automated allergy office system and method provides a medical professional with a new allergy treatment plan to administer to a patient. The automated allergy office system comprises a viewing device to select a test site on the patient's skin that is clear. A multiple test applicator is in cooperative engagement with a fluid tray and delivers a small amount of a first allergen to a first test site on the patient's skin as a small amount of a second allergen is delivered to a second test site on the patient's skin. The allergy condition of the patient is detected as a wheal forms at the first test site after fifteen minutes. The elements of the treatment plan are retrieved from a database for treating the patient's allergy condition. The patient's electronic medical record is checked to confirm that the allergy treatment is new for this patient.

Abstract: The kit evaluates the patient's skin for penicillin sensitivity. The kit comprises a container, a multi-site skin test system, five preloaded syringes, and a tattoo-type label that is transferable onto the patient's skin. A multi-site skin test applicator is cooperatively engageable with four reservoirs in a fluid tray. The applicator pierces the patient's skin as trace amounts of the allergy test fluids are simultaneously administered. The tattoo-type label is transferable onto the skin of the patient and includes a QR Code. The QR Code includes machine-readable linkage to artificial intelligence for assisting a doctor in interpreting patient test results. The doctor reviews the artificial intelligence analysis and decides either to accept the analysis or modify it. The doctor may also decide to verify negative results with a subcutaneous skin test. The five syringes are preloaded with saline, two syringes are preloaded with Pre-Pen, and two syringes are preloaded with Pen-G.

Abstract: An allergen delivery system with a tray and delivery set. The delivery set includes a dispensing well. The dispensing well holds a wettable material to receive an allergen and provide it to a delivery barb that has been received into the dispensing well. A conduit is connected to the dispensing well, to receive the allergen and provide it to the dispensing well. A reservoir is connected to the conduit to receive the allergen and provide it to the conduit. A cap is disposed on the reservoir, with a hole, such that when a finger depresses the cap, the finger covers the hole and the depression creates pressure within the reservoir, which motivates an amount of the allergen to flow out from the reservoir through the conduit and into the dispensing well, to be absorbed by the wettable material, where the allergen is available for delivery to the barbed delivery applicator.

Abstract: An automated allergy office system and method provides a medical professional with a new allergy treatment plan to administer to a patient. The automated allergy office system comprises a viewing device to select a test site on the patient's skin that is clear. A multiple test applicator is in cooperative engagement with a fluid tray and delivers a small amount of a first allergen to a first test site on the patient's skin as a small amount of a second allergen is delivered to a second test site on the patient's skin. The allergy condition of the patient is detected as a wheal forms at the first test site after fifteen minutes. The elements of the treatment plan are retrieved from a database for treating the patient's allergy condition. The patient's electronic medical record is checked to confirm that the allergy treatment is new for this patient.

Abstract: The automated allergy office system and method takes a medical professional through an allergy testing process and a follow-on immunology injection process step-by-step using LED computer screen tables, computer tablets, smart phones, an internal office computer system accessing Patient medical records, and an augmenter reality headset. The augmented reality headset technology and artificial intelligence are layered onto an improved manual system to minimize false positives and negatives, to improve the patient experience patient, resulting in cost savings for the doctor and patient and enabling portions of the allergy testing to be performed remotely from the office of the allergist, either by the patient or by a trained medical technician.

Abstract: A multiple test applicator has a first and second scratching barb in cooperative engagement with each other and a first and second reservoir in a fluid tray each filled with a first and second allergen. During allergen loading, the first allergen is loaded onto the first scratching barb as the second allergen is loaded onto the second scratching barb. Then, during allergen deposition the applicator is removed from the fluid tray and the first scratching barb moves laterally across the patient's skin as the second scratching barb moves laterally across the patient's skin toward the first scratching barb. The first scratching barb then scratches the epidermis at a first test site as a trace amount of the first allergen is deposited into a first site as the second scratching barb scratches a second site as a trace amount of the second allergen seeps into the second site.

Abstract: The kit evaluates the patient's skin for penicillin sensitivity. The kit comprises a container, a multi-site skin test system, five preloaded syringes, and a tattoo-type label that is transferable onto the patient's skin. A multi-site skin test applicator is cooperatively engageable with four reservoirs in a fluid tray. The applicator pierces the patient's skin as trace amounts of the allergy test fluids are simultaneously administered. The tattoo-type label is transferable onto the skin of the patient and includes a QR Code. The QR Code includes machine-readable linkage to artificial intelligence for assisting a doctor in interpreting patient test results. The doctor reviews the artificial intelligence analysis and decides either to accept the analysis or modify it. The doctor may also decide to verify negative results with a subcutaneous skin test. The five syringes are preloaded with saline, two syringes are preloaded with Pre-Pen, and two syringes are preloaded with Pen-G.

Abstract: A multiple test applicator has a first and second scratching barb in cooperative engagement with each other and a first and second reservoir in a fluid tray each filled with a first and second allergen. During allergen loading, the first allergen is loaded onto the first scratching barb as the second allergen is loaded onto the second scratching barb. Then, during allergen deposition the applicator is removed from the fluid tray and the first scratching barb moves laterally across the patient's skin as the second scratching barb moves laterally across the patient's skin toward the first scratching barb. The first scratching barb then scratches the epidermis at a first test site as a trace amount of the first allergen is deposited into a first site as the second scratching barb scratches a second site as a trace amount of the second allergen seeps into the second site.

Abstract: The kit evaluates the patient's skin for penicillin sensitivity. The kit comprises a container, a multi-site skin test system, four preloaded syringes, and a tattoo-type label that is transferable onto the patient's skin. A multi-site skin test applicator is cooperatively engageable with four reservoirs in a fluid tray. The applicator pierces the patient's skin as trace amounts of the allergy test fluids are simultaneously administered. The tattoo-type label is transferable onto the skin of the patient and includes a QR Code. The QR Code includes machine-readable linkage to artificial intelligence for assisting a doctor in interpreting patient test results. The doctor reviews the artificial intelligence analysis and decides either to accept the analysis or modify it. The doctor may also decide to verify negative results with a subcutaneous skin test. The four syringes for the subcutaneous skin tests are preloaded with saline, Pre-Pen, Pen-G, and histamine.

Abstract: The multiple allergen testing system includes an applicator and a fluid tray. The fluid tray is cooperatively engageable with the applicator. The applicator has an allergen loading position and an allergen deposition position. In the allergen loading position, a different allergen is loaded onto each respective scratching barb from each respective reservoir of the loading tray. Each scratching barb is designed to retain a trace of allergen fluid. A pair of finger grips are positioned on opposing sides of the applicator frame. The applicator fits into one hand of a medical technician administering the allergen skin testing. The applicator is removed from the fluid tray and repositioned onto the skin of the patient. The applicator is made of compressible material. In the allergen deposition position, the applicator is compressed, and each allergen is deposited into each respective scratch generated by each respective scratching barb on the skin for further analysis.

Abstract: The method for administering a plurality of allergens into the skin of a patient uses a multiple test applicator in cooperative engagement with a fluid tray. The applicator has a plurality of scratching barbs each aligned with a plurality of reservoirs in the fluid tray. The method deploys allergen loading followed by allergen deposition. During allergen loading, a different allergen is loaded onto each respective scratching barb from each respective reservoir. Each scratching barb is designed to retain a trace amount of allergen. The applicator fits into one hand of a medical technician administering the skin test. The applicator is removed from the fluid tray and repositioned onto the skin of the patient for allergen deposition. Then, each scratching barb pierces the outer layer of the skin at each respective test site as a trace amount of each respective allergen seeps into each respective test site from each scratching barb.

Abstract: The multiple allergen testing system includes an applicator and a fluid tray. The fluid tray is cooperatively engageable with the applicator. The applicator has an allergen loading position and an allergen deposition position. In the allergen loading position, a different allergen is loaded onto each respective scratching barb from each respective reservoir of the loading tray. Each scratching barb is designed to retain a trace of allergen fluid. A pair of finger grips are positioned on opposing sides of the applicator frame. The applicator fits into one hand of a medical technician administering the allergen skin testing. The applicator is removed from the fluid tray and repositioned onto the skin of the patient. The applicator is made of compressible material. In the allergen deposition position, the applicator is compressed, and each allergen is deposited into each respective scratch generated by each respective scratching barb on the skin for further analysis.

Abstract: The method for administering a plurality of allergens into the skin of a patient uses a multiple test applicator in cooperative engagement with a fluid tray. The applicator has a plurality of scratching barbs each aligned with a plurality of reservoirs in the fluid tray. The method deploys allergen loading followed by allergen deposition. During allergen loading, a different allergen is loaded onto each respective scratching barb from each respective reservoir. Each scratching barb is designed to retain a trace amount of allergen. The applicator fits into one hand of a medical technician administering the skin test. The applicator is removed from the fluid tray and repositioned onto the skin of the patient for allergen deposition. Then, each scratching barb pierces the outer layer of the skin at each respective test site as a trace amount of each respective allergen seeps into each respective test site from each scratching barb.

Abstract: The processes for inserting fluid under the skin of a patient using a safety syringe assembly include initially locating an up-alignment marker. The marker is aligned with a bevel in the needle of the safety syringe assembly so the orientation of the needle bevel is always known by the medical professional, even when the needle bevel cannot be seen. The needle is inserted bevel up prior to insertion. Once inserted, the medical professional inverts the safety syringe assembly so that the bevel is down. This is done by merely flicking the wrist of the hand holding the safety syringe assembly. This prevents splash back of any body fluids from the patient to the medical professional. The same safety syringe assembly and the same process are used for withdrawing fluids from the body of the patient.

Abstract: The processes for inserting fluid under the skin of a patient using a safety syringe assembly include initially locating an up-alignment marker. The marker is aligned with a bevel in the needle of the safety syringe assembly so the orientation of the needle bevel is always known by the medical professional, even when the needle bevel cannot be seen. The needle is inserted bevel up prior to insertion. Once inserted, the medical professional inverts the safety syringe assembly so that the bevel is down. This is done by merely flicking the wrist of the hand holding the safety syringe assembly. This prevents splash back of any body fluids from the patient to the medical professional. The same safety syringe assembly and the same process are used for withdrawing fluids from the body of the patient.

Abstract: The safety syringe assembly is for inserting a needle into a patient and comprises a needle hub assembly and a safety cover. The needle hub assembly includes a needle, needle hub, and hub flex unit. The needle is mounted on the front side of the needle hub while the rear side is for receiving a syringe. The safety cover houses the needle hub assembly in a first position during shipping, a second position during insertion of the needle into the patient, and in a third position after the needle has been inserted into the patient while awaiting disposal. A portion of the safety cover includes magnification enabling a user to view a dosage calibration scale, needle bevel and air bubbles. The hub flex unit assumes a first enlarged position during shipping, is compressed during insertion into the patient, and slides into a third position after usage while awaiting disposal.

Abstract: The safety syringe assembly is for inserting a needle into a patient and comprises a needle hub assembly and a safety cover. The needle hub assembly includes a needle, needle hub, and hub flex unit. The needle is mounted on the front side of the needle hub while the rear side is for receiving a syringe. The safety cover houses the needle hub assembly in a first position during shipping, a second position during insertion of the needle into the patient, and in a third position after the needle has been inserted into the patient while awaiting disposal. A portion of the safety cover includes magnification enabling a user to view a dosage calibration scale, needle bevel and air bubbles. The hub flex unit assumes a first enlarged position during shipping, is compressed during insertion into the patient, and slides into a third position after usage while awaiting disposal.