Patent classifications
A23B7/152
RIPENING CHAMBER AND METHOD FOR RIPENING FRUIT
The present invention relates to a ripening chamber and a method for fruit ripening. In particular, the present invention relates to a banana ripening chamber and a method for the artificial ripening of bananas (banana ripening technique). In a method according to the invention for ripening fruits, bananas, a respiration of the fruits is measured in a closed chamber containing the fruits to be ripened. A ripening chamber according to the invention is adapted to carry out a method according to the invention for ripening fruit.
RIPENING CHAMBER AND METHOD FOR RIPENING FRUIT
The present invention relates to a ripening chamber and a method for fruit ripening. In particular, the present invention relates to a banana ripening chamber and a method for the artificial ripening of bananas (banana ripening technique). In a method according to the invention for ripening fruits, bananas, a respiration of the fruits is measured in a closed chamber containing the fruits to be ripened. A ripening chamber according to the invention is adapted to carry out a method according to the invention for ripening fruit.
SYSTEM, APPARATUSES AND METHODS FOR CONTROLLING THE RIPENING OF PERISHABLE FOODS
A system for controlling the ripening of perishable foods is provided.
SYSTEM, APPARATUSES AND METHODS FOR CONTROLLING THE RIPENING OF PERISHABLE FOODS
A system for controlling the ripening of perishable foods is provided.
LOW POWER OZONE GENERATOR IN MOISTURE RICH CLIMATE FOR THE PRESERVATION OF FRUITS AND VEGETABLES
A device for generating an ozone in a high moisture content environment is provided. The ozone generator features an enclosure with an interior space, an assembly within this interior space, at least one sheet of glass, and a power control board positioned in the housing and which houses the at least one sheet of glass. The assembly features at least one anode and at least one cathode where there is some overlap between the anode and cathode, which are preferably constructed out of aluminum. When in use, the ozone generator creates a plasma discharge which is used to prevent potential corrosive effects that may arise.
LOW POWER OZONE GENERATOR IN MOISTURE RICH CLIMATE FOR THE PRESERVATION OF FRUITS AND VEGETABLES
A device for generating an ozone in a high moisture content environment is provided. The ozone generator features an enclosure with an interior space, an assembly within this interior space, at least one sheet of glass, and a power control board positioned in the housing and which houses the at least one sheet of glass. The assembly features at least one anode and at least one cathode where there is some overlap between the anode and cathode, which are preferably constructed out of aluminum. When in use, the ozone generator creates a plasma discharge which is used to prevent potential corrosive effects that may arise.
ACTIVE POUCHES AND METHODS OF USE
Described herein are active pouches for obtaining selected release rates of 1-methylcyclopropene (1-MCP) therefrom. A pouch is a sealed thermoplastic containment or envelope defining an interior volume that is excluded from free exchange with the atmosphere, yet is permeable to both 1-MCP gas and water vapor. The active pouches enclose and contain a clathrate of 1-methylcyclopropene with α-cyclodextrin (1-MCP/CD). The rate of 1-MCP release from an active pouch subjected to a selected set of humidity-mediated disgorgement conditions may be varied by varying the interior volume of the active pouch relative to the amount of 1-MCP/CD contained within the active pouch.
ACTIVE POUCHES AND METHODS OF USE
Described herein are active pouches for obtaining selected release rates of 1-methylcyclopropene (1-MCP) therefrom. A pouch is a sealed thermoplastic containment or envelope defining an interior volume that is excluded from free exchange with the atmosphere, yet is permeable to both 1-MCP gas and water vapor. The active pouches enclose and contain a clathrate of 1-methylcyclopropene with α-cyclodextrin (1-MCP/CD). The rate of 1-MCP release from an active pouch subjected to a selected set of humidity-mediated disgorgement conditions may be varied by varying the interior volume of the active pouch relative to the amount of 1-MCP/CD contained within the active pouch.
AC electric field-assisted refrigerating container
An AC electric field-assisted refrigerating container comprises: an outer container casing made of metal and having a storage chamber thereinside; an inner container casing formed of a dielectric panel and disposed inside the outer container casing; cooling means to cool an inside of the storage chamber; a plurality of insulated electrodes each formed by densely covering an entire circumference of an electrode plate with an insulator and disposed on an inner wall of the inner container casing; and a transformer for supplying an AC of 10 to 20 VA, at a voltage of 2000 to 4000 V and a frequency of 50 to 60 Hz, wherein the transformer has a ground terminal; wherein the refrigerating container is configured to cause AC discharge from the insulated electrodes to form an AC electric field inside the storage chamber, wherein, as a result of the AC discharge, electrons are supplied to the inner container casing formed of the dielectric panel, and then flow throughout the inner container casing, thereby allowing the electric field to be uniformly distributed throughout the inside of the storage chamber, while being maintained in terms of intensity thereof and, wherein the dielectric panel is a woody panel.
AC electric field-assisted refrigerating container
An AC electric field-assisted refrigerating container comprises: an outer container casing made of metal and having a storage chamber thereinside; an inner container casing formed of a dielectric panel and disposed inside the outer container casing; cooling means to cool an inside of the storage chamber; a plurality of insulated electrodes each formed by densely covering an entire circumference of an electrode plate with an insulator and disposed on an inner wall of the inner container casing; and a transformer for supplying an AC of 10 to 20 VA, at a voltage of 2000 to 4000 V and a frequency of 50 to 60 Hz, wherein the transformer has a ground terminal; wherein the refrigerating container is configured to cause AC discharge from the insulated electrodes to form an AC electric field inside the storage chamber, wherein, as a result of the AC discharge, electrons are supplied to the inner container casing formed of the dielectric panel, and then flow throughout the inner container casing, thereby allowing the electric field to be uniformly distributed throughout the inside of the storage chamber, while being maintained in terms of intensity thereof and, wherein the dielectric panel is a woody panel.