Abstract: The instant application relates to an antimicrobial soap. The soap may comprise water, ethylenediaminetraacetic acid, cocamidopropyl betaine, at least one fatty additive, at least one quaternary amine, and benzyl alcohol.

Abstract: A process is described herein for applying antimicrobials to substrates to prevent the growth of biological agents. An antimicrobial-binder mixture is provided. The binder comprises guar gum, ammonium sulfate, urea, and methyl acryloid. The antimicrobial is an organo silane quarternary amine antimicrobial. The antimicrobial-binder mixture is ionized to comprise negatively charged particles. The antimicrobial-binder mixture is aerosolized to form fog. The fog is administered to the surface and dried.

Abstract: This application is directed to mosquito repellent formulas and methods of making the same. In one embodiment, a mosquito repellent composition comprises coconut oil and an ionizing agent. In another embodiment, a mosquito repellent composition comprises coconut oil, deionized water, soybean oil, castor oil, sunflower oil, or combinations thereof. Another embodiment is directed to methods of making mosquito repellent spray compositions. Deionized water is directed to a tank. Coconut oil is mixed with the deionized water, and thereafter an ionizing agent is mixed with the contents of the tank. SDA alcohol is mixed with the contents of the tank, and the resultant mixture is mixed with soybean oil. Thereafter, the tank contents are mixed with first castor oil, and then sunflower oil. The contents are then mixed while heated to a temperature of at least 95° F. (35° C.). After mixing, the contents of the tank are cooled, then mixed once more to form a mosquito repellent spray composition.

Abstract: This disclosure relates to anti-microbial sanitizer compositions and methods of making the same. The sanitizer compositions described herein are comprised of benzalkonium chloride, coconut oil, palm kernel oil, water, dihydroxypropyl PEG-5, linoleammonium chloride, and glycereth-2 cocoate. To forming the sanitizer compositions discussed herein, water is mixed with benzalkonium chloride to form a first mixture. This first mixture is then mixed with coconut oil and palm kernel oil to form a second mixture, which is subsequently heated to at least 100° F. After heating, the second mixture is mixed with dihydroxypropyl PEG-5 to form a third mixture, which is then settled while the temperature is maintained at or above 100° F. Thereafter, the third mixture is cooled to room temperature, and mixed with linoleammonium chloride and glycereth-2 coate to form the sanitizer composition.

Abstract: This application is directed to methods of making a binder. In one embodiment, the method comprises mixing guar gum with water at a temperature greater than 145° F. A guar gum-water mixture is formed and then cooled to approximately 135-145° F. Ammonium sulfate and water are mixed with the guar gum-water mixture to form an ammonium sulfate-guar gum-water mixture. Urea is then mixed with the ammonium sulfate-guar gum-water mixture, forming a urea-ammonium sulfate-guar gum-water mixture. Water and methyl acryloid are added to the urea-ammonium sulfate-guar gum-water mixture to form the binder.

Abstract: This disclosure relates to anti-microbial sanitizer compositions and methods of making the same. The sanitizer compositions described herein are comprised of benzalkonium chloride, coconut oil, palm kernel oil, water, dihydroxypropyl PEG-5, linoleammonium chloride, and glycereth-2 cocoate. To forming the sanitizer compositions discussed herein, water is mixed with benzalkonium chloride to form a first mixture. This first mixture is then mixed with coconut oil and palm kernel oil to form a second mixture, which is subsequently heated to at least 100° F. After heating, the second mixture is mixed with dihydroxypropyl PEG-5 to form a third mixture, which is then settled while the temperature is maintained at or above 100° F. Thereafter, the third mixture is cooled to room temperature, and mixed with linoleammonium chloride and glycereth-2 coate to form the sanitizer composition.

Abstract: This disclosure relates to anti-microbial sanitizer compositions and methods of making the same. The sanitizer compositions described herein are comprised of benzalkonium chloride, coconut oil, palm kernel oil, water, dihydroxypropyl PEG-5, linoleammonium chloride, and glycereth-2 cocoate. To forming the sanitizer compositions discussed herein, water is mixed with benzalkonium chloride to form a first mixture. This first mixture is then mixed with coconut oil and palm kernel oil to form a second mixture, which is subsequently heated to at least 100° F. After heating, the second mixture is mixed with dihydroxypropyl PEG-5 to form a third mixture, which is then settled while the temperature is maintained at or above 100° F., Thereafter, the third mixture is cooled to room temperature, and mixed with linoleammonium chloride and glycereth-2 cocoate to form the sanitizer composition.

Abstract: A process is described herein for applying antimicrobials to substrates to prevent the growth of biological agents. An antimicrobial-binder mixture is provided. The binder comprises guar gum, ammonium sulfate, urea, and methyl acryloid. The antimicrobial is an organo silane quartemary amine antimicrobial. The antimicrobial-binder mixture is ionized to comprise negatively charged particles. The antimicrobial-binder mixture is aerosolized to form fog. The fog is administered to the surface and dried.

Abstract: This disclosure relates to anti-microbial sanitizer compositions and methods of making the same. The sanitizer compositions described herein are comprised of benzalkonium chloride, coconut oil, palm kernel oil, water, dihydroxypropyl PEG-5, linoleammonium chloride, and glycereth-2 cocoate. To forming the sanitizer compositions discussed herein, water is mixed with benzalkonium chloride to form a first mixture. This first mixture is then mixed with coconut oil and palm kernel oil to form a second mixture, which is subsequently heated to at least 100° F. After heating, the second mixture is mixed with dihydroxypropyl PEG-5 to form a third mixture, which is then settled while the temperature is maintained at or above 100° F. Thereafter, the third mixture is cooled to room temperature, and mixed with linoleammonium chloride and glycereth-2 coate to form the sanitizer composition.

Abstract: This disclosure relates to a method of filtering air for use in a combustion engine. A filter is utilized that comprises a treated filter fabric and a treated filter foam. The treated filter fabric and the treated filter foam include an ionizing agent, a binder comprising guar gum and ammonium sulfate, and an organo silane quarternary amine antimicrobial. Air is directed into the treated filter fabric. As air moves through the treated filter fabric, a first set of contaminants is removed. The air is then directed into the treated filter foam, which is positioned adjacent to the treated filter fabric. As the air moves through the treated filter foam, a second set of contaminants is removed.

Abstract: This application is directed to methods of making a binder. In one embodiment, the method comprises mixing guar gum with water at a temperature greater than 145° F. A guar gum-water mixture is formed and then cooled to approximately 135-145° F. Ammonium sulfate and water are mixed with the guar gum-water mixture to form an ammonium sulfate-guar gum-water mixture. Urea is then mixed with the ammonium sulfate-guar gum-water mixture, forming a urea-ammonium sulfate-guar gum-water mixture. Water and methyl acryloid are added to the urea-ammonium sulfate-guar gum-water mixture to form the binder.

Abstract: There is disclosed a system and process for diagnosing or determining a condition of a user. In particular the system and process can be used to provide a series of questions based upon personalized information of the user. This personalized information can be uploaded to a database. A series of questions can be automatically generated or a user can be assisted in creating a series of questions for a patient based upon this uploaded media. In addition, the system and process can use this personalized media to treat the patient and to assist the patient in their daily tasks.

Abstract: A process is described herein for applying antimicrobials to substrates such as fabrics. An antimicrobial-binder mixture is provided that includes an antimicrobial and a binder that includes guar gum in an aqueous solution, which is applied to the substrate. Once the substrate is cured, spikes formed by the antimicrobial are disposed on the fabric and function to rupture membranes of infectious agents.

Abstract: This disclosure relates to a method of filtering air for use in a combustion engine. A filter is utilized that comprises a treated filter fabric and a treated filter foam. The treated filter fabric and the treated filter foam include an ionizing agent, a binder comprising guar gum and ammonium sulfate, and an organo silane quarternary amine antimicrobial. Air is directed into the treated filter fabric. As air moves through the treated filter fabric, a first set of contaminants is removed. The air is then directed into the treated filter foam, which is positioned adjacent to the treated filter fabric. As the air moves through the treated filter foam, a second set of contaminants is removed.

Abstract: A process is described herein for applying antimicrobials to substrates such as fabrics. An antimicrobial-binder mixture is provided that includes an antimicrobial and a binder that includes guar gum in an aqueous solution, which is applied to the substrate. Once the substrate is cured, spikes formed by the antimicrobial are disposed on the fabric and function to rupture membranes of infectious agents.

Abstract: A process is described herein for applying antimicrobials to substrates such as fabrics. An antimicrobial-binder mixture is provided that includes an antimicrobial and a binder that includes guar gum in an aqueous solution, which is applied to the substrate. Once the substrate is cured, spikes formed by the antimicrobial are disposed on the fabric and function to rupture membranes of infectious agents.