Abstract: A method of generating an oligosaccharide encapsulated cannabidiol (CBD) formulation includes forming a cannabidiol ethanol mixture comprising ethanol and cannabidiol, forming an oligosaccharide CBD slurry by mixing the oligosaccharide with the cannabidiol ethanol mixture. The slurry is heated and mixed in a pressurized chamber to form a colloidal mixture, which is distributed into a tray as a layer. A cover is added to the tray to form an evaporation vessel, which is heated in a heating chamber. A rapid cooling process is performed on the colloidal mixture layer by removing the cover and spraying pulverized dry ice on the layer. The rapid cooling process is repeated until crystal formation is detected within the layer, the crystals including oligosaccharide encapsulated cannabidiol. An oligosaccharide encapsulated cannabidiol formulation includes cannabidiol and at least one oligosaccharide in a ratio in the range between about 1000:1 to 2200:1 (w/w) of CBD.

Abstract: A method of generating an oligosaccharide encapsulated cannabidiol (CBD) formulation includes forming a cannabidiol ethanol mixture comprising ethanol and cannabidiol, forming an oligosaccharide CBD slurry by mixing the oligosaccharide with the cannabidiol ethanol mixture. The slurry is heated and mixed in a pressurized chamber to form a colloidal mixture, which is distributed into a tray as a layer. A cover is added to the tray to form an evaporation vessel, which is heated in a heating chamber. A rapid cooling process is performed on the colloidal mixture layer by removing the cover and spraying pulverized dry ice on the layer. The rapid cooling process is repeated until crystal formation is detected within the layer, the crystals including oligosaccharide encapsulated cannabidiol. An oligosaccharide encapsulated cannabidiol formulation includes cannabidiol and at least one oligosaccharide in a ratio in the range between about 1000:1 to 2200:1 (w/w) of CBD.

Abstract: A method of cannabinoid preservation includes separating a cannabinoid ethanol (EtOH) mixture from a cannabis extract through a filtration process; forming a slurry by combining a crystalline compound with the cannabinoid EtOH mixture; heating and agitating the slurry in a pressurized chamber to form a colloidal cannabinoid EtOH mixture; distributing the colloidal cannabinoid EtOH mixture into a tray to form an evenly distributed mixture layer; forming an evaporation vessel for the evenly distributed mixture layer through the attachment of a detachable cover to the tray; positioning and heating the evaporation vessel within a heating chamber; performing a rapid cools process as the evenly distributed mixture layer approaches approaches saturation temperature; repeating the rapid cooling process until crystal formation is detected within the evenly distributed mixture layer; and/or removing the evaporation vessel from the heating chamber upon detection of crystal formation.

Abstract: An apparatus contains photosynthetic marine microorganisms within water, to permit the marine microorganisms to be cultivated and harvested. A self-supporting buoyant frame of the apparatus is to be placed within the water. A mesh lining of the apparatus is situated within the interior of the frame. The mesh lining is adapted to permit the water and nutrients to enter through the mesh lining while at least substantially preventing the marine microorganisms that are being cultivated from escaping through the mesh lining. A funnel of the apparatus is attached to a corresponding hole at a bottom of the mesh lining, and is adapted to permit the marine microorganisms that have been cultivated to be harvested. A buoyancy leveling subsystem of the apparatus is adapted to control an extent to which the frame is submerged within the water.

Abstract: Undesirable components are removed from water while photosynthetic marine microorganisms within the water are contained, cultivated, and harvested. An apparatus is placed within the water. The apparatus has a mesh lining adapted to permit the water, the undesirable components, and nutrients to enter through the mesh lining while at least substantially preventing the marine microorganisms that are being cultivated from escaping through the mesh lining. The marine microorganisms are cultivated, including by adding the nutrients to the water. The nutrients at least accelerate growth of the marine microorganisms, where the marine microorganisms feed off the undesirable components and the nutrients. The marine microorganisms that have been cultivated are then harvested, which includes removing the marine microorganisms from the water.