Abstract: Methods, systems 1 and devices such as robots 8, 9 for farming are disclosed. An autonomous monitoring robot is configured to traverse a farm plot and generate, from a sensor set of the monitoring robot, a farm plot data set. The farm plot data set is processed to generate operating instructions for a tending robot. The tending robot is arranged to execute the operating instructions so as to traverse the farm plot and performs tending tasks on it including such as seed-planting, weeding, and applying crop treatments such as fertiliser, fungicide, herbicide or pesticide.

Abstract: A system identifies an ordered data structure that enables a computer to follow a particular order of execution for solving blocks of equations that collectively constitute a simulation model. The system uses the ordered data structure to identify a subset of the blocks of equations that require optimizing by an optimizer program and/or a remaining set of blocks of equations which can be solved without optimization by the optimizer program. The optimizer program optimizes only the subset of the blocks of equations that require optimizing by the optimizer program, thereby reducing an amount of computer resources required for optimization, by varying any blocks of equations declared as independent variables in an iterative process until the optimizer program generates optimized values that converge on a solution. Using the optimized values, a solver program executes each calculation only once when sequentially solving the remaining set of the blocks of equations.

Abstract: A system and method for reducing loss for retail stores is provided. In one aspect, the system prevents loss caused by fraudulent returns. In another aspect, the system prevents loss by increasing worker efficiency. The system generally comprises a computing entity having a user interface, a processor operably connected to said computing entity, a scanning device operably connected to the processor, and a non-transitory computer-readable medium having instructions stored thereon. The system generates return actions, which may instruct a user whether or not to process a return.

Abstract: A system and method for reducing loss for retail stores is provided. In one aspect, the system prevents loss caused by fraudulent returns. In another aspect, the system prevents loss by increasing worker efficiency. The system generally comprises a computing entity having a user interface, a processor operably connected to said computing entity, a scanning device operably connected to the processor, and a non-transitory computer-readable medium having instructions stored thereon. The system generates return actions, which may instruct a user whether or not to process a return.

Abstract: A scanning apparatus that can include (a) a scan actuator including a linear actuator and a mount for a removeable vessel, wherein the mount has a mechanical fastener that is configured to engage a complementary mechanical fastener on the removeable vessel, and wherein the linear actuator is configured to translate the mount while the mechanical fastener engages the complementary mechanical fastener on the removeable vessel; (b) a reference surface; and (c) a preload configured to urge the vessel to contact the reference surface, wherein the linear actuator is configured to slide the vessel along the reference surface while the preload urges the vessel to contact the reference surface.

Abstract: A processor executable method, system, and computer-readable media expedite the process of entering equations for use in developing simulations of chemical processes. The process of entering equations is expedited by dynamically inferring the dimensions of variables. The process infers the dimensions of all variables in user-added equations, and infers the dimensions of each variable in a user-added equation sequentially. The process automatically creates variables with unassigned dimensions in response to indications, such as inputs from a user, to declare new equations. The process assigns dimensions to variables based on relations between variables, such as logical relations between the dimensions of variables.

Abstract: Methods, systems 1 and devices such as robots 8, 9 for farming are disclosed. An autonomous monitoring robot is configured to traverse a farm plot and generate, from a sensor set of the monitoring robot, a farm plot data set. The farm plot data set is processed to generate operating instructions for a tending robot. The tending robot is arranged to execute the operating instructions so as to traverse the farm plot and performs tending tasks on it including such as seed-planting, weeding, and applying crop treatments such as fertiliser, fungicide, herbicide or pesticide.

Abstract: The invention relates to methods of detection, capture, isolation and targeting of cancer cells for example circulating tumor cells (CTCs) using carbohydrate recognition domain of a lectin. The invention relates to methods of diagnosis, prognosis and treatment of cancer.

Abstract: The invention relates to methods of detection, capture, isolation and targeting of cancer cells for example circulating tumor cells (CTCs) using carbohydrate recognition domain of a lectin. The invention relates to methods of diagnosis, prognosis and treatment of cancer.

Abstract: A processor executable method, system, and computer-readable media expedite the process of entering equations for use in developing simulations of chemical processes. The process of entering equations is expedited by dynamically inferring the dimensions of variables. The process infers the dimensions of all variables in user-added equations, and infers the dimensions of each variable in a user-added equation sequentially. The process automatically creates variables with unassigned dimensions in response to indications, such as inputs from a user, to declare new equations. The process assigns dimensions to variables based on relations between variables, such as logical relations between the dimensions of variables.

Abstract: An apparatus can include a vessel, a reference surface, a preload, a scan actuator, and a transmitter. The reference surface can form a structural loop with a detector. The preload can be configured to urge the vessel to contact an area on the reference surface. The scan actuator can be configured to slide the vessel along the reference surface in a scan dimension. The transmitter can be configured to direct signal from the vessel to a detector and/or direct energy from an energy source to the vessel, when the vessel is urged by the preload to contact the reference surface.

Abstract: A modular sorting station includes a frame defining an inbound bay and an outbound bay, each of the bays being sized to receive an inventory holder containing inventory. A robotic grasper is mounted to the frame and positioned above one of the inbound and outbound bays and operable to transfer inventory items from the inbound bay to the outbound bay, and a sensor mounted to one of the frame or robotic grasper and operable to identify inventory at the inbound bay when the inventory holder is present in the inbound bay. The frame is sized and arranged to align with a material handling grid and permit drive units to transport inventory holders into and out of the inbound bay and/or outbound bays while moving along the material handling grid; and the frame is portable such that the modular sorting station can be moved as a modular unit for deployment.

Abstract: A processor executable method, system, and computer-readable media expedite the process of entering equations for use in developing simulations of chemical processes. The process of entering equations is expedited by dynamically inferring the dimensions of variables. The process infers the dimensions of all variables in user-added equations, and infers the dimensions of each variable in a user-added equation sequentially. The process automatically creates variables with unassigned dimensions in response to indications, such as inputs from a user, to declare new equations. The process assigns dimensions to variables based on relations between variables, such as logical relations between the dimensions of variables.

Abstract: Described herein are improvements to bioprinting technology that facilitate automation of tissue and organ fabrication processes.

Abstract: An apparatus can include a vessel, a reference surface, a preload, a scan actuator, and a transmitter. The reference surface can form a structural loop with a detector. The preload can be configured to urge the vessel to contact an area on the reference surface. The scan actuator can be configured to slide the vessel along the reference surface in a scan dimension. The transmitter can be configured to direct signal from the vessel to a detector and/or direct energy from an energy source to the vessel, when the vessel is urged by the preload to contact the reference surface.

Abstract: An apparatus can include a vessel, a reference surface, a preload, a scan actuator, and a transmitter. The reference surface can form a structural loop with a detector. The preload can be configured to urge the vessel to contact an area on the reference surface. The scan actuator can be configured to slide the vessel along the reference surface in a scan dimension. The transmitter can be configured to direct signal from the vessel to a detector and/or direct energy from an energy source to the vessel, when the vessel is urged by the preload to contact the reference surface.

Abstract: A scanning apparatus that can include (a) a scan actuator including a linear actuator and a mount for a removeable vessel, wherein the mount has a mechanical fastener that is configured to engage a complementary mechanical fastener on the removeable vessel, and wherein the linear actuator is configured to translate the mount while the mechanical fastener engages the complementary mechanical fastener on the removeable vessel; (b) a reference surface; and (c) a preload configured to urge the vessel to contact the reference surface, wherein the linear actuator is configured to slide the vessel along the reference surface while the preload urges the vessel to contact the reference surface.

Abstract: An apparatus can include a vessel, a reference surface, a preload, a scan actuator, and a transmitter. The reference surface can form a structural loop with a detector. The preload can be configured to urge the vessel to contact an area on the reference surface. The scan actuator can be configured to slide the vessel along the reference surface in a scan dimension. The transmitter can be configured to direct signal from the vessel to a detector and/or direct energy from an energy source to the vessel, when the vessel is urged by the preload to contact the reference surface.

Abstract: An apparatus can include a vessel, a reference surface, a preload, a scan actuator, and a transmitter. The reference surface can form a structural loop with a detector. The preload can be configured to urge the vessel to contact an area on the reference surface. The scan actuator can be configured to slide the vessel along the reference surface in a scan dimension. The transmitter can be configured to direct signal from the vessel to a detector and/or direct energy from an energy source to the vessel, when the vessel is urged by the preload to contact the reference surface.

Abstract: A processor executable method, system, and computer-readable media expedite the process of entering equations for use in developing simulations of chemical processes. The process of entering equations is expedited by dynamically inferring the dimensions of variables. The process infers the dimensions of all variables in user-added equations, and infers the dimensions of each variable in a user-added equation sequentially. The process automatically creates variables with unassigned dimensions in response to indications, such as inputs from a user, to declare new equations. The process assigns dimensions to variables based on relations between variables, such as logical relations between the dimensions of variables.