Disclosed is system for inactivating bacteria and/or reducing microbial count on product, in particular a food product, susceptible to microbial presence, said system comprising a processing chamber which is operably connected to i) a means for generating UV-C light, ii) a means for generating hydrogen peroxide vapor and/or means for generating ozone, and iii) a heat source. Also disclosed is a method for inactivating bacteria and/or reducing microbial count on a product, in particular food product, which is susceptible to microbial presence, said method comprising subjecting said product in a processing chamber to exposure with ultraviolet C (UV-C) light and hydrogen peroxide vapor and/or ozone, and heat, for a processing time of between 5-120 seconds, wherein the hydrogen peroxide vapor is present at up to 12% v/v solution, and the temperature inside the processing chamber is maintained between about 22° C. and 60° C.

A multilayer produce packaging film includes a first layer and a chlorine dioxide-producing layer. The chlorine dioxide-producing layer includes a polymer composition and a plurality of chlorite ions. The chlorine dioxide-producing layer is substantially free of an energy-activated catalyst and is substantially free of an acid-releasing compound. However, the film is capable of generating chlorine dioxide when exposed to UV light and moisture.

A multilayer produce packaging film includes a first layer and a chlorine dioxide-producing layer. The chlorine dioxide-producing layer includes a polymer composition and a plurality of chlorite ions. The chlorine dioxide-producing layer is substantially free of an energy-activated catalyst and is substantially free of an acid-releasing compound. However, the film is capable of generating chlorine dioxide when exposed to UV light and moisture.

A method for treating a substrate with a volatile liquid, crop-preservative formulation includes transporting a predetermined quantity of the formulation from a reservoir to an injection device and applying the predetermined quantity to the substrate. The substrate may thereafter be in proximity to a crop to be treated by the vapor from the formulation. The substrate is most conveniently a portion of a container in which the crop is stored or shipped.

A method for treating a substrate with a volatile liquid, crop-preservative formulation includes transporting a predetermined quantity of the formulation from a reservoir to an injection device and applying the predetermined quantity to the substrate. The substrate may thereafter be in proximity to a crop to be treated by the vapor from the formulation. The substrate is most conveniently a portion of a container in which the crop is stored or shipped.

The present invention generally relates to the field of Purification Device, method and system. More particularly, this invention relates to purification of raw food produce using Advanced Oxidation Process & Photolysis that performs on Nanotechnology. The invention reduces the impact of harmful pesticides, insecticides, germs, pathogens, virus, harmful anti-oxidants, heavy metals, etc., while keeping the inherent properties intact.

An in-line spraying system via ultrasound, which can be used in the dispensing of agrochemical agents for post-harvest fruit, which has a spray chamber formed by a closed tank containing the liquid to be sprayed, an agitator, two ultrasound transducers and a fan; a chamber for applying the mist to the fruit, formed by a closed chamber disposed on the processing line, which has gates with slats for allowing the fruit in and out, a cylindrical applicator for the agrochemical, which is connected to the spray chamber via a duct; and a chamber for recovering the mist, formed by a closed tank coupled to the application chamber, below the Processing line, which is connected to the spray chamber via a duct, and wherein the recovered mist is moved by the fan. A process for operating the system is also disclosed.

An in-line spraying system via ultrasound, which can be used in the dispensing of agrochemical agents for post-harvest fruit, which has a spray chamber formed by a closed tank containing the liquid to be sprayed, an agitator, two ultrasound transducers and a fan; a chamber for applying the mist to the fruit, formed by a closed chamber disposed on the processing line, which has gates with slats for allowing the fruit in and out, a cylindrical applicator for the agrochemical, which is connected to the spray chamber via a duct; and a chamber for recovering the mist, formed by a closed tank coupled to the application chamber, below the Processing line, which is connected to the spray chamber via a duct, and wherein the recovered mist is moved by the fan. A process for operating the system is also disclosed.

Systems and methods are disclosed for the generation of a treatment compound fluid to inhibit the ripening process of agricultural products, the application of the treatment compound fluid to a confined atmosphere at a location at which the products are stored, and the collection of a sample of the treated atmosphere. In one form, the system includes a treatment compound generator and a sampling subsystem. The treatment compound generator has an exit port fluidly connectable to the confined atmosphere and is configured to generate a treatment compound fluid in-situ. The sampling subsystem includes an inlet port fluidly connected to a pump and a collection chamber. The inlet port is fluidly connectable to the confined atmosphere such that the sampling subsystem can collect a sample of the treated atmosphere through the inlet port and store the sample within the collection chamber.

Systems and methods are disclosed for the generation of a treatment compound fluid to inhibit the ripening process of agricultural products, the application of the treatment compound fluid to a confined atmosphere at a location at which the products are stored, and the collection of a sample of the treated atmosphere. In one form, the system includes a treatment compound generator and a sampling subsystem. The treatment compound generator has an exit port fluidly connectable to the confined atmosphere and is configured to generate a treatment compound fluid in-situ. The sampling subsystem includes an inlet port fluidly connected to a pump and a collection chamber. The inlet port is fluidly connectable to the confined atmosphere such that the sampling subsystem can collect a sample of the treated atmosphere through the inlet port and store the sample within the collection chamber.