The present invention relates to a low-temperature treated perilla oil for suppressing generation of coagulated suspended materials during low-temperature cold storage and a preparation method therefor, and more particularly, to a low-temperature treated perilla oil for suppressing generation of coagulated suspended materials during low-temperature cold storage and a preparation method therefor, wherein in the low-temperature storage and cold storage of perilla oil, which are essentially implemented to increase the storage period of the perilla oil through the minimization of rancidity of the perilla oil, a perilla oil without the generation of coagulated suspended materials during low-temperature cold storage is provided, and thus a high-quality clean perilla oil that does not give an eating person an unpleasant feeling due to suspended materials is provided.

The present invention relates to a low-temperature treated perilla oil for suppressing generation of coagulated suspended materials during low-temperature cold storage and a preparation method therefor, and more particularly, to a low-temperature treated perilla oil for suppressing generation of coagulated suspended materials during low-temperature cold storage and a preparation method therefor, wherein in the low-temperature storage and cold storage of perilla oil, which are essentially implemented to increase the storage period of the perilla oil through the minimization of rancidity of the perilla oil, a perilla oil without the generation of coagulated suspended materials during low-temperature cold storage is provided, and thus a high-quality clean perilla oil that does not give an eating person an unpleasant feeling due to suspended materials is provided.

A heat press for extracting fluid, such as oil, from a biological plant. A lower heat platen is fixedly attached to a main frame and an upper heat platen is retractably positioned opposite to the lower heat platen. A pneumatic or hydraulic cylinder or a manual or electronic linear actuator provides pressure to an actuation means that is operatively connected to the upper heat platen for initiating movement. A control mechanism that consists of a single pressure regulator system or a dual pressure regulator system is used to control pressure of a pressing operation of the heat press. Alternatively, a digital regulator system can be used to control pressure, time, and temperature of a pressing operation of the heat press. At least one of the upper and lower heat platens has embedded heating elements and an isolated thermocouple. A user interface panel, having an LCD display, a user keyboard, or a touchscreen display is also mounted to the main enclosure.

A heat press for extracting fluid, such as oil, from a biological plant. A lower heat platen is fixedly attached to a main frame and an upper heat platen is retractably positioned opposite to the lower heat platen. A pneumatic or hydraulic cylinder or a manual or electronic linear actuator provides pressure to an actuation means that is operatively connected to the upper heat platen for initiating movement. A control mechanism that consists of a single pressure regulator system or a dual pressure regulator system is used to control pressure of a pressing operation of the heat press. Alternatively, a digital regulator system can be used to control pressure, time, and temperature of a pressing operation of the heat press. At least one of the upper and lower heat platens has embedded heating elements and an isolated thermocouple. A user interface panel, having an LCD display, a user keyboard, or a touchscreen display is also mounted to the main enclosure.

Systems, devices, and methods are disclosed for a rosin press that allows improved extraction over existing presses. Computerized systems are provided for controlling and monitoring the system in an automated fashion, including via a wireless device or a server.

The invention relates to a process for the fractionation of seeds of oleaginous plants of to the Asteraceae family, comprising at least one mechanical pressing operation of the seeds and an extraction with polar organic solvent of the first residue obtained. Said process allows to separate oil, active substances and a solid residue which is particularly suitable to be used in animal feed. The present invention also relates to said solid residue and to its use for the production of animal feed, as well as to the extracted active substances and to their use as cosmetic and/or pharmaceutical ingredient.

The invention relates to a process for the fractionation of seeds of oleaginous plants of to the Asteraceae family, comprising at least one mechanical pressing operation of the seeds and an extraction with polar organic solvent of the first residue obtained. Said process allows to separate oil, active substances and a solid residue which is particularly suitable to be used in animal feed. The present invention also relates to said solid residue and to its use for the production of animal feed, as well as to the extracted active substances and to their use as cosmetic and/or pharmaceutical ingredient.

A method and system for extracting fluids from plant parts is provided. Plant parts are placed into a filter bag that is placed within a fluid impermeable holder, which is generally a non-stick holder such as wax paper or parchment. The fluid impermeable holder is placed into a press that is operable at an elevated temperature. The press applies pressure at a predetermined temperature for a predetermined time to the fluid impermeable holder and filter bag to compress the plant parts and squeeze or extrude the fluid from the plant parts. After a predetermined time, the press is opened and the fluid impermeable holder is removed. The filter bag, with residual plant parts, is removed from the fluid impermeable holder. The fluid impermeable holder is manipulated to collect the fluids, which manipulation may include freezing the fluids and peeling the fluids from the inner surface of the bag.

A method and system for extracting fluids from plant parts is provided. Plant parts are placed into a filter bag that is placed within a fluid impermeable holder, which is generally a non-stick holder such as wax paper or parchment. The fluid impermeable holder is placed into a press that is operable at an elevated temperature. The press applies pressure at a predetermined temperature for a predetermined time to the fluid impermeable holder and filter bag to compress the plant parts and squeeze or extrude the fluid from the plant parts. After a predetermined time, the press is opened and the fluid impermeable holder is removed. The filter bag, with residual plant parts, is removed from the fluid impermeable holder. The fluid impermeable holder is manipulated to collect the fluids, which manipulation may include freezing the fluids and peeling the fluids from the inner surface of the bag.

Apparatus for forming a cake of compressed plant material, comprising a bottom die having a cylindrical upper portion, an inverted conical lower portion and a post extending vertically upwardly from a small-diameter region of the lower portion, wherein plant material is introducible into a cavity of the bottom die surrounding the post; a top die designed and configured to conform to the cylindrical upper portion and the post and having an inverted conical lower portion with a narrower diameter than a corresponding portion in the bottom die; a power train operable to drive the top die into the bottom die so as to be in pressing relation with the plant material interposed between the top and bottom dies for a sufficient duration to produce a cake of compressed plant material.