Abstract: A method for purification and separation of cannabinoids, such as cannabidiol and tetrahydrocannabinol, e.g., from dried hemp and cannabis leaves can use a continuous simulated moving bed process, a batch column chromatography method, or a single column, and a combination of one or more of a sequence of purification steps including: filtration, decolorization, activation or decarboxylation, dewaxing, polishing, and crystallization to separate a cannabinoid from the cannabis plant and to provide various cannabinoid products. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: A method of removing THC and THCA from a non-decarboxylated hemp extract, the non-decarboxylated hemp extract including THC and THCA and at least one cannabinoid is provided. The method comprises passing a first feedstock stream through a first chromatographic resin arranged in a simulated moving bed (SMB) chromatography configuration to provide a primary raffinate stream, preparing a second feedstock stream, the second feedstock stream comprising the primary raffinate stream or a concentrated primary raffinate stream, and passing the second feedstock stream through a second chromatographic resin to provide an eluate stream, the eluate stream having less than 0.1 wt % THC on a solvent free basis. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: A method of removing THC and/or THCA from a mixture, the mixture including THC and/or THCA and at least one cannabinoid is provided. The method comprises passing a first feedstock stream through a first chromatographic resin arranged in a simulated moving bed (SMB) chromatography configuration to provide a primary raffinate stream, preparing a second feedstock stream, the second feedstock stream comprising the primary raffinate stream or a concentrated primary raffinate stream, and passing the second feedstock stream through a second chromatographic resin to provide an eluate stream, the eluate stream having less than 0.3 wt % THC on a solvent free basis. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: A method for purification and separation of cannabinoids, such as cannabidiol and tetrahydrocannabinol, e.g., from dried hemp and cannabis leaves can use a continuous simulated moving bed process, a batch column chromatography method, or a single column, and a combination of one or more of a sequence of purification steps including: filtration, decolorization, activation or decarboxylation, dewaxing, polishing, and crystallization to separate a cannabinoid from the cannabis plant and to provide various cannabinoid products. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: A method for purification and separation of cannabinoids, such as cannabidiol and tetrahydrocannabinol, e.g., from dried hemp and cannabis leaves can use a continuous simulated moving bed process, a batch column chromatography method, or a single column, and a combination of one or more of a sequence of purification steps including: filtration, decolorization, activation or decarboxylation, dewaxing, polishing, and crystallization to separate a cannabinoid from the cannabis plant and to provide various cannabinoid products. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: A method for purification and separation of cannabinoids, such as cannabidiol and tetrahydrocannabinol, e.g., from dried hemp and cannabis leaves can use a continuous simulated moving bed process, a batch column chromatography method, or a single column, and a combination of one or more of a sequence of purification steps including: filtration, decolorization, activation or decarboxylation, dewaxing, polishing, and crystallization to separate a cannabinoid from the cannabis plant and to provide various cannabinoid products. The cannabinoid products can be used in various pharmaceutical and nutraceutical applications.

Abstract: Systems and methods for providing a network management platform for managing a plurality of deployments are described herein. In an embodiment, a server computer receives a request to generate a plurality of network deployments, including first interface elements and rules for a first network deployment and second interface elements and rules for a second network deployment. The server computer sends the first network deployment to a first plurality of client computing devices and sends the second network deployment to a second plurality of client computing devices. When the server computer receives network usage data from the first and second plurality of computing devices, the server computer provides the network usage data to a network operation with an identification of a corresponding deployment.

Abstract: Embodiments of a method of purifying tetrahydrocannabinol (THC) from a composition containing THC and at least one impurity, e.g., from pesticides, waxes, lipids, pigments, and other cannabinoids, can use a continuous simulated moving bed process, a batch column chromatography method, or a single column, and a combination of one or more of a sequence of purification steps including: filtration, decolorization, activation or decarboxylation, dewaxing, polishing, and crystallization to separate a cannabinoid from the cannabis plant and to provide various cannabinoid products. The THC products can be used in various pharmaceutical and nutraceutical applications.

Abstract: Computer systems and methods for managing network data consumption between a client computer and one or more server computers.

Abstract: Computer systems and methods for managing network data consumption between a client computer and one or more server computers. A computer system comprising: a memory persistently storing a set of instructions; one or more processors coupled to the memory, wherein the one or more processors execute the set of instructions, which causes the one or more processors to: intercept, at a client computer, a first request to a first server computer from a first application being executed on the client computer before the client computer sends the first request to the first server computer; determine whether the first request should be monitored based on data associated with the first application; in response to determining that the first request should be monitored, redirect the first request to a second server computer that is different than the first server computer, and include one or more parameters that identify the first application and the first server computer.

Abstract: A motion-sensing remote control is described. In an embodiment, a television remote control can include various sensors that sense a motion of the device. The television remote control also includes an integrated circuit that receives a motion signal corresponding to the motion from the sensors and converts the motion signal into a remote control command. The television remote control further includes a light source that is activated by the integrated circuit to communicate the remote control command to a television client device to initiate a device action. In another embodiment, a television remote control can include various sensors that sense a motion of the device. The television remote control can also include computer-executable instructions that execute on a processor to translate the motion into a remote control command, and initiate communication of the remote control command to a television client device to initiate a device action.

Abstract: On-demand asset distribution is described. In embodiment(s), a client device can maintain an on-demand asset received from a content distributor, such as with a recording media. The client device can allocate upstream bandwidth for distribution of segments of video data for the on-demand asset to other requesting client devices. When the client device that maintains the on-demand asset receives a request from another client device for the on-demand asset, the segments of the video data for the on-demand asset can be communicated to the requesting client device utilizing the allocated upstream bandwidth.

Abstract: A motion-sensing remote control is described. In an embodiment, a television remote control can include various sensors that sense a motion of the device. The television remote control also includes an integrated circuit that receives a motion signal corresponding to the motion from the sensors and converts the motion signal into a remote control command. The television remote control further includes a light source that is activated by the integrated circuit to communicate the remote control command to a television client device to initiate a device action. In another embodiment, a television remote control can include various sensors that sense a motion of the device. The television remote control can also include computer-executable instructions that execute on a processor to translate the motion into a remote control command, and initiate communication of the remote control command to a television client device to initiate a device action.

Abstract: On-demand asset distribution is described. In embodiment(s), a client device can maintain an on-demand asset received from a content distributor, such as with a recording media. The client device can allocate upstream bandwidth for distribution of segments of video data for the on-demand asset to other requesting client devices. When the client device that maintains the on-demand asset receives a request from another client device for the on-demand asset, the segments of the video data for the on-demand asset can be communicated to the requesting client device utilizing the allocated upstream bandwidth.