Abstract: Platform movement systems and methods of using the same. A system for moving a platform of the present disclosure can include a first actuator pivotally attached to a base, the first actuator having a first rod positioned therethrough and configured to move the first rod in a first direction and an opposing second direction along a first rod axis; a second actuator pivotally attached to the base, the second actuator having a second rod positioned therethrough and configured to move the second rod in a first direction and an opposing second direction along a second rod axis; an arm attached to the base using an arm connector; and a platform coupled to the first rod, the second rod, and the arm, the platform configured to move about the base upon operation of the first actuator and/or the second actuator.

Abstract: Platform movement systems and methods of using the same. A system for moving a platform of the present disclosure can include a first actuator pivotally attached to a base, the first actuator having a first rod positioned therethrough and configured to move the first rod in a first direction and an opposing second direction along a first rod axis; a second actuator pivotally attached to the base, the second actuator having a second rod positioned therethrough and configured to move the second rod in a first direction and an opposing second direction along a second rod axis; an arm attached to the base using an arm connector; and a platform coupled to the first rod, the second rod, and the arm, the platform configured to move about the base upon operation of the first actuator and/or the second actuator.

Abstract: Systems and devices and methods of making and using the same to prepare nut milk products. An exemplary system of the present disclosure includes a blending device capable of blending a quantity of nuts with a quantity of a liquid to break down the quantity of nuts into pieces to generate a blended product, a porous vessel defining an opening and configured to strain the blended product so that when the blended product is introduced into the opening, at least part of a solid fraction of the blended product remains within the porous vessel, and at least part of a liquid fraction of the blended product passes through the porous vessel which is collected as a filtered or strained product, and a non-porous vessel configured to receive at least part of the porous vessel therein and further configured to receive the filtered or strained product.

Abstract: Platform movement systems and methods of using the same. A system for moving a platform of the present disclosure can include a first actuator pivotally attached to a base, the first actuator having a first rod positioned therethrough and configured to move the first rod in a first direction and an opposing second direction along a first rod axis; a second actuator pivotally attached to the base, the second actuator having a second rod positioned therethrough and configured to move the second rod in a first direction and an opposing second direction along a second rod axis; an arm attached to the base using an arm connector; and a platform coupled to the first rod, the second rod, and the arm, the platform configured to move about the base upon operation of the first actuator and/or the second actuator.

Abstract: Methods and apparatuses are provided that allow for the synchronization of an operating point transition in an embedded system environment. Identification of an upcoming operating point transition, operating point transition constraints, and maximum parking latency parameters is provided. Then, an ordering of seizing bus activity as well as an ordering of resuming bus activity is determined. The operating point transition is then implemented using the determined ordering. Simulation and determination of change of successfully completing operating point transition prior to initiating and while the transition is pending are also provided.

Abstract: Methods and apparatuses for control call allocation in an embedded system environment are provided. Control calls are placed into groups, with each group having a globally unique identifier. Control calls within each group are assigned relative offset values. Subsequently, as control calls are allocated to hardware resources, such as, for example, during the initial setup of the embedded system or when hardware resources are added to the embedded system, a base offset for each group, and a request number, derivable from the base offset and the relative offset is allocated for each supported control call. Hardware resources may be accessed in a similar manner.

Abstract: Methods and apparatuses for control call allocation in an embedded system environment are provided. Control calls are placed into groups, with each group having a globally unique identifier. Control calls within each group are assigned relative offset values. Subsequently, as control calls are allocated to hardware resources, such as, for example, during the initial setup of the embedded system or when hardware resources are added to the embedded system, a base offset for each group, and a request number, derivable from the base offset and the relative offset is allocated for each supported control call. Hardware resources may be accessed in a similar manner.

Abstract: Methods and apparatuses are provided that allow for the synchronization of an operating point transition in an embedded system environment. Identification of an upcoming operating point transition, operating point transition constraints, and maximum parking latency parameters is provided. Then, an ordering of seizing bus activity as well as an ordering of resuming bus activity is determined. The operating point transition is then implemented using the determined ordering. Simulation and determination of change of successfully completing operating point transition prior to initiating and while the transition is pending are also provided.

Abstract: The movement and mixing of microdroplets through microchannels is described employing silicon-based microscale devices, comprising microdroplet transport channels, reaction regions, electrophoresis modules, and radiation detectors. The discrete droplets are differentially heated and propelled through etched channels. Electronic components are fabricated on the same substrate material, allowing sensors and controlling circuitry to be incorporated in the same device.

Abstract: The movement and mixing of microdroplets through microchannels is described employing silicon-based microscale devices, comprising microdroplet transport channels, reaction regions, electrophoresis modules, and radiation detectors. The discrete droplets are differentially heated and propelled through etched channels. Electronic components are fabricated on the same substrate material, allowing sensors and controlling circuitry to be incorporated in the same device.

Abstract: The movement and mixing of microdroplets through microchannels is described employing silicon-based microscale devices, comprising microdroplet transport channels, reaction regions, electrophoresis modules, and radiation detectors. The discrete droplets are differentially heated and propelled through etched channels. Electronic components are fabricated on the same substrate material, allowing sensors and controlling circuitry to be incorporated in the same device.