mhurhangee/patent-ind-claim-en huggingface dataset:
A plate handler system for a flow cytometer comprising a drawtube, the plate handler system comprising: • a vertical actuation system that is coupled to the flow cytometer and that adjusts the vertical distance between the drawtube and a sample tray; • a horizontal linkage system that positions the sample tray in a horizontal plane including: ∘ a base arm that rotates about a base arm joint , wherein the base arm joint is concentric with a vertical actuation axis of the vertical actuation system ; and ∘ a sample arm that rotates about a sample arm joint on the base arm ; • a drive system comprising a first drive motor that is coupled to the base arm and a second drive motor that is coupled to the sample arm , wherein the drive system is configured to independently rotate the base arm and the sample arm to rotate any sample of the sample tray between the drawtube and the sample arm; characterized in that the horizontal linkage system further comprises: ∘ a plurality of positioning pegs for stopping the base arm and the sample arm when the arms are rotated to calibration positions; and ∘ a bumper for calibrating relative position between the drawtube and the sample tray. • a vertical actuation system that is coupled to the flow cytometer and that adjusts the vertical distance between the drawtube and a sample tray; • a horizontal linkage system that positions the sample tray in a horizontal plane including: ∘ a base arm that rotates about a base arm joint , wherein the base arm joint is concentric with a vertical actuation axis of the vertical actuation system ; and ∘ a sample arm that rotates about a sample arm joint on the base arm ; ∘ a base arm that rotates about a base arm joint , wherein the base arm joint is concentric with a vertical actuation axis of the vertical actuation system ; and ∘ a sample arm that rotates about a sample arm joint on the base arm ; • a drive system comprising a first drive motor that is coupled to the base arm and a second drive motor that is coupled to the sample arm , wherein the drive system is configured to independently rotate the base arm and the sample arm to rotate any sample of the sample tray between the drawtube and the sample arm; characterized in that the horizontal linkage system further comprises: ∘ a plurality of positioning pegs for stopping the base arm and the sample arm when the arms are rotated to calibration positions; and ∘ a bumper for calibrating relative position between the drawtube and the sample tray. ∘ a plurality of positioning pegs for stopping the base arm and the sample arm when the arms are rotated to calibration positions; and ∘ a bumper for calibrating relative position between the drawtube and the sample tray.
A method of using scan data of a dental implant pre-positioned in bone within the mouth of a patient to develop a virtual model for use in a virtual design process, comprising: receiving scan data of the mouth of the patient including an upper surface of the dental implant, the scan data including information corresponding to a scannable code (22a-c,24a-c,26) on the upper surface of the dental implant for providing information for at least two features of the dental implant, the scannable code including a circumferentially extending marker (24a-c) having a radius of curvature that is centered around a central axis of the dental implant, wherein the radius of curvature provides a position of the central axis to assist with the virtual design process; developing a virtual model of at least a portion of the mouth of the patient; and using the scan data to locate a virtual implant within the virtual model. receiving scan data of the mouth of the patient including an upper surface of the dental implant, the scan data including information corresponding to a scannable code (22a-c,24a-c,26) on the upper surface of the dental implant for providing information for at least two features of the dental implant, the scannable code including a circumferentially extending marker (24a-c) having a radius of curvature that is centered around a central axis of the dental implant, wherein the radius of curvature provides a position of the central axis to assist with the virtual design process; developing a virtual model of at least a portion of the mouth of the patient; and using the scan data to locate a virtual implant within the virtual model.
Method for managing optional features (f i ) in a screw driving system implementing a group of at least two control hubs (12 1 , ..., 12 N ) each controlling at least one piece of production equipment , and being capable of being used with at least one optional feature (f i ), non-differentiated tokens being stored in each of said control hubs (12 1 , ..., 12 N ), characterised in that said at least one optional feature (f i ) is assigned a predefined weight, corresponding to a number of tokens, said at least one optional feature being pre-installed and deactivated in said control hub, in that said at least one feature can be selectively activated on said control hub, on the condition that the control hub has a number of tokens available thereto greater than the weight of said feature, a quantity of tokens corresponding to the weight of said feature being debited from said number of tokens available to the control hub, in that said at least one feature can be selectively deactivated , said tokens corresponding to the weight of said feature thus being made free for use , and in that transfers (F 22 ) of non-differentiated tokens can be carried out between two of said control hubs. non-differentiated tokens being stored in each of said control hubs (12 1 , ..., 12 N ), characterised in that said at least one optional feature (f i ) is assigned a predefined weight, corresponding to a number of tokens, said at least one optional feature being pre-installed and deactivated in said control hub, in that said at least one feature can be selectively activated on said control hub, on the condition that the control hub has a number of tokens available thereto greater than the weight of said feature, a quantity of tokens corresponding to the weight of said feature being debited from said number of tokens available to the control hub, in that said at least one feature can be selectively deactivated , said tokens corresponding to the weight of said feature thus being made free for use , and in that transfers (F 22 ) of non-differentiated tokens can be carried out between two of said control hubs.
A method for operating a printer apparatus, the method comprising: monitoring, by a monitoring unit , a utilization rate of each heating element in a first set of heating elements defined by a print head arrangement ; generating, by the monitoring unit , a utilization dataset based upon monitoring of the utilization rate of each heating element in the first set of heating elements ; analyzing, by a heating element identification unit , the utilization dataset to identify one or more overutilized heating elements of the first set of heating elements ; identifying, by the heating element identification unit , a second set of heating elements defined by the print head arrangement , wherein the second set of heating elements comprises a portion of the first set of heating elements exclusive of the one or more overutilized heating elements; and modifying, by a print job modification unit , one or more of a size of data included in a print job, a position of data included in the print job, or a font type of the data included in the print job to determine a processed print job, wherein printing the processed print job causes utilization of the second set of heating elements to print the processed print job such that energization of the identified one or more overutilized heating elements is minimized. monitoring, by a monitoring unit , a utilization rate of each heating element in a first set of heating elements defined by a print head arrangement ; generating, by the monitoring unit , a utilization dataset based upon monitoring of the utilization rate of each heating element in the first set of heating elements ; analyzing, by a heating element identification unit , the utilization dataset to identify one or more overutilized heating elements of the first set of heating elements ; identifying, by the heating element identification unit , a second set of heating elements defined by the print head arrangement , wherein the second set of heating elements comprises a portion of the first set of heating elements exclusive of the one or more overutilized heating elements; and modifying, by a print job modification unit , one or more of a size of data included in a print job, a position of data included in the print job, or a font type of the data included in the print job to determine a processed print job, wherein printing the processed print job causes utilization of the second set of heating elements to print the processed print job such that energization of the identified one or more overutilized heating elements is minimized.
Hydro Stirling engine comprising: at least two hydro Stirling units , which in each case comprise a container configured as a standing cylinder, wherein for each container a heating device for heating an upper region or an upper end region is provided, and wherein an axially movable and controllable displacement piston unit with a displacement piston comprising a regenerator is arranged in the interior of each container , an energy converter unit, and a common working fluid circuit, which has, for each hydro Stirling unit, at least one working fluid line , which connects the hydro Stirling unit to the energy converter unit, characterised in that the energy converter unit is a turbine unit , which has a turbine vessel and a turbine wheel arranged in this turbine vessel , that the working fluid lines extend between the hydro Stirling units and the turbine unit in such a way that working fluid, which flows from a hydro Stirling unit to the turbine unit , firstly impinges on the turbine wheel and then falls into a region of the turbine vessel below the turbine wheel , that the working fluid circuit comprises for each hydro Stirling unit at least one working fluid return line , which connects the turbine unit to the hydro Stirling unit , and that each displacement piston unit comprises a cylinder shell extending downwardly from the displacement piston , wherein the outer surface of the cylinder shell is substantially aligned with the outer surface of the displacement piston . at least two hydro Stirling units , which in each case comprise a container configured as a standing cylinder, wherein for each container a heating device for heating an upper region or an upper end region is provided, and wherein an axially movable and controllable displacement piston unit with a displacement piston comprising a regenerator is arranged in the interior of each container , an energy converter unit, and a common working fluid circuit, which has, for each hydro Stirling unit, at least one working fluid line , which connects the hydro Stirling unit to the energy converter unit, characterised in that the energy converter unit is a turbine unit , which has a turbine vessel and a turbine wheel arranged in this turbine vessel , that the working fluid lines extend between the hydro Stirling units and the turbine unit in such a way that working fluid, which flows from a hydro Stirling unit to the turbine unit , firstly impinges on the turbine wheel and then falls into a region of the turbine vessel below the turbine wheel , that the working fluid circuit comprises for each hydro Stirling unit at least one working fluid return line , which connects the turbine unit to the hydro Stirling unit , and that each displacement piston unit comprises a cylinder shell extending downwardly from the displacement piston , wherein the outer surface of the cylinder shell is substantially aligned with the outer surface of the displacement piston .
A method for manufacturing a boron-doped diamond (BDD) pH electrode with having a pH sensitive carbon region including sp2 oxidized carbon structures and quinone or quinone-like groups, comprising: selecting a pattern for machining with laser pulses the carbon region with an array of laser machined spots across an electrode surface; modifying laser machining parameters adjusting a pulse overlap such that a single spot on the surface is machined no more than twice; machining the sp2 carbon region with the modified laser machining parameters in the selected pattern by pulsing a laser onto a the BDD electrode surface in the selected pattern, thereby reducing heating of the electrode material in the pulse overlap area. selecting a pattern for machining with laser pulses the carbon region with an array of laser machined spots across an electrode surface; modifying laser machining parameters adjusting a pulse overlap such that a single spot on the surface is machined no more than twice; machining the sp2 carbon region with the modified laser machining parameters in the selected pattern by pulsing a laser onto a the BDD electrode surface in the selected pattern, thereby reducing heating of the electrode material in the pulse overlap area.
A bearing limiting system, comprising a position-limiting projection which is projected radially from a bearing shaft, a bearing inner race , and a force transferring member arranged between the position-limiting projection and the bearing inner race in an axial direction of the bearing shaft, wherein an inner diameter of the bearing inner race is larger than an outer diameter of the position-limiting projection , characterised in that the force transferring member is a rigid component, and the rigid force transferring member comprises a first rigid component and a second rigid component , the first rigid component is located close to the bearing inner race , the second rigid component is located close to the position-limiting projection , wherein the first rigid component is a rigid ring mounted on the bearing shaft by an interference fit and abuts against the bearing inner race , the second rigid component is in a form of a two-piece or multi-piece ring.
Method for producing a layer of composition AA'BO 3 where A consists of at least one element selected from: Li, Na, K, Ca, Mg, Ba, Sr, Pb, La, Bi, Y, Dy, Gd, Tb, Ce, Pr, Nd, Sm, Eu, Ho, Zr, Sc, Ag, Tl and B consists of at least one element selected from: Nb, Ta, Sb, Ti, Zr, Sn, Ru, Fe, V, Sc, C, Ga, Al, Si, Mn, Zr, Tl, characterised in that it comprises: - providing a donor substrate of composition ABO 3 , - forming a layer of composition ABO 3 by thinning said donor substrate , - before and/or after the thinning step, exposing said layer of composition ABO 3 to a medium (M) containing ions of an element A' belonging to the same list of elements as A, A' being different from A, such that said ions penetrate into said layer to form a layer of composition AA'BO 3 . - providing a donor substrate of composition ABO 3 , - forming a layer of composition ABO 3 by thinning said donor substrate , - before and/or after the thinning step, exposing said layer of composition ABO 3 to a medium (M) containing ions of an element A' belonging to the same list of elements as A, A' being different from A, such that said ions penetrate into said layer to form a layer of composition AA'BO 3 .
A liquid ejecting head comprising: a plurality of individual flow paths (P), each of which has a pressure chamber (C) and communicates with a nozzle (N) that ejects a liquid in a first axis direction; and a first common liquid chamber (R1) coupled to the plurality of individual flow paths, wherein when viewed in the first axis direction, the plurality of individual flow paths are arranged in parallel along a second axis direction orthogonal to a first axis to form an individual flow path row , when two individual flow paths adjacent to each other in the individual flow path row are assumed to be a first individual flow path and a second individual flow path, the first individual flow path includes a first local flow path (H1) that causes the pressure chamber and the nozzle to communicate with each other, the second individual flow path includes a second local flow path (H3) that causes the pressure chamber and the nozzle to communicate with each other, the first local flow path does not overlap the second individual flow path when viewed in the second axis direction, and the second local flow path does not overlap the first individual flow path when viewed in the second axis direction, characterized in that , when viewed in the second axis direction: the pressure chamber in the first individual flow path does not overlap the second individual flow path, and the pressure chamber in the second individual flow path does not overlap the first individual flow path. a plurality of individual flow paths (P), each of which has a pressure chamber (C) and communicates with a nozzle (N) that ejects a liquid in a first axis direction; and a first common liquid chamber (R1) coupled to the plurality of individual flow paths, wherein when viewed in the first axis direction, the plurality of individual flow paths are arranged in parallel along a second axis direction orthogonal to a first axis to form an individual flow path row , when two individual flow paths adjacent to each other in the individual flow path row are assumed to be a first individual flow path and a second individual flow path, the first individual flow path includes a first local flow path (H1) that causes the pressure chamber and the nozzle to communicate with each other, the second individual flow path includes a second local flow path (H3) that causes the pressure chamber and the nozzle to communicate with each other, the first local flow path does not overlap the second individual flow path when viewed in the second axis direction, and the second local flow path does not overlap the first individual flow path when viewed in the second axis direction, characterized in that , when viewed in the second axis direction: the pressure chamber in the first individual flow path does not overlap the second individual flow path, and the pressure chamber in the second individual flow path does not overlap the first individual flow path. the pressure chamber in the first individual flow path does not overlap the second individual flow path, and the pressure chamber in the second individual flow path does not overlap the first individual flow path.
A method, comprising: determining, using a computer system , a current state of a vehicle , wherein the vehicle is configured to operate in an autonomous mode; determining, using the computer system, a current state of an environment of the vehicle , wherein the environment of the vehicle comprises at least one other vehicle ; determining, using the computer system, a predicted behavior of the at least one other vehicle based on at least the current state of the vehicle and the current state of the environment of the vehicle ; determining, using the computer system, a confidence level, wherein the confidence level comprises a likelihood of the at least one other vehicle to perform the predicted behavior, and wherein the confidence level is based on at least the predicted behavior, the current state of the vehicle , and the current state of the environment of the vehicle ; and controlling, using the computer system, the vehicle in the autonomous mode based on the predicted behavior, the confidence level, the current state of the vehicle , and the current state of the environment of the vehicle . determining, using a computer system , a current state of a vehicle , wherein the vehicle is configured to operate in an autonomous mode; determining, using the computer system, a current state of an environment of the vehicle , wherein the environment of the vehicle comprises at least one other vehicle ; determining, using the computer system, a predicted behavior of the at least one other vehicle based on at least the current state of the vehicle and the current state of the environment of the vehicle ; determining, using the computer system, a confidence level, wherein the confidence level comprises a likelihood of the at least one other vehicle to perform the predicted behavior, and wherein the confidence level is based on at least the predicted behavior, the current state of the vehicle , and the current state of the environment of the vehicle ; and controlling, using the computer system, the vehicle in the autonomous mode based on the predicted behavior, the confidence level, the current state of the vehicle , and the current state of the environment of the vehicle .
A positive electrode active material particle comprising a core that includes lithium cobalt oxide represented by the following Chemical Formula 1; and a shell that is located on the surface of the core and includes lithium cobalt phosphate represented by the following Chemical Formula 2, wherein the shell has a tetrahedral phase: Li a Co (1-x) M x O 2-y A y wherein M is at least one of Ti, Mg, Zn, Si, Al, Zr, V, Mn, Nb, and Ni, A is oxygen-substitutional halogen, and 0.95≤a≤1.05, 0≤x≤0.2, 0≤y≤0.2, and 0≤x+y≤0.2, Li b CoPO 4 wherein 0≤b≤1.
A motor control device comprising: a voltage command value calculation unit configured to calculate three-phase voltage command values (va0, vb0, vc0) to be applied to a three-phase motor ; an amplitude calculation unit configured to calculate an amplitude (A) of the three-phase voltage command values (va0, vb0, vc0), and a third harmonic calculation unit configured to calculate a first third harmonic (thw1), characterized in that the third harmonic calculation unit is configured to calculate the first third harmonic (thw1) on a basis of an average value between a voltage command value of a maximum phase with a maximum duty ratio and a voltage command value of a minimum phase with a minimum duty ratio among the three-phase voltage command values (va0, vb0, vc0), and further characterized by a gain calculation unit configured to calculate a correction gain (G) on a basis of the first third harmonic (thw1) and the amplitude (A); a multiplication unit configured to convert the first third harmonic (thw1) into a second third harmonic (thw2) by multiplying the first third harmonic (thw1) by the correction gain (G); a subtractor configured to correct the three-phase voltage command values (va0, vb0, vcβ) by subtracting the second third harmonic (thw2) from the three-phase voltage command values (va0, vb0, vc0); and a drive circuit configured to drive the three-phase motor on a basis of the corrected three-phase voltage command values (va1, vb1, vc1). a voltage command value calculation unit configured to calculate three-phase voltage command values (va0, vb0, vc0) to be applied to a three-phase motor ; an amplitude calculation unit configured to calculate an amplitude (A) of the three-phase voltage command values (va0, vb0, vc0), and a third harmonic calculation unit configured to calculate a first third harmonic (thw1), characterized in that the third harmonic calculation unit is configured to calculate the first third harmonic (thw1) on a basis of an average value between a voltage command value of a maximum phase with a maximum duty ratio and a voltage command value of a minimum phase with a minimum duty ratio among the three-phase voltage command values (va0, vb0, vc0), and further characterized by a gain calculation unit configured to calculate a correction gain (G) on a basis of the first third harmonic (thw1) and the amplitude (A); a multiplication unit configured to convert the first third harmonic (thw1) into a second third harmonic (thw2) by multiplying the first third harmonic (thw1) by the correction gain (G); a subtractor configured to correct the three-phase voltage command values (va0, vb0, vcβ) by subtracting the second third harmonic (thw2) from the three-phase voltage command values (va0, vb0, vc0); and a drive circuit configured to drive the three-phase motor on a basis of the corrected three-phase voltage command values (va1, vb1, vc1).