mhurhangee/patent-ind-claim-en huggingface dataset:
A mixer for mixing two to-be-mixed materials, the mixer comprising a casing and a mixing component , the mixing component comprising: a first vertical wall and a second vertical wall disposed in opposite and parallel to the first vertical wall ; an inlet baffle disposed on one end of the first vertical wall and the second vertical wall , the inlet baffle separating the two to-be-mixed materials into two streams; an outlet baffle disposed on the other end of the first vertical wall and the second vertical wall , the outlet baffle exporting the streams; and a plurality of first arc shape guiding plates and second arc shape guiding plates disposed between the inlet baffle and the outlet baffle , the first arc shape guiding plates and the second arc shape guiding plates being mutually spaced and disposed in opposite; each second arc shape guiding plate has one side thereof provided with a gap and the other side thereof provided with a first path through where the streams pass; characterized in that the first arc shape guiding plates extend from the first vertical wall toward the outlet baffle , the second arc shape guiding plates extend from the second vertical wall toward the inlet baffle . a first vertical wall and a second vertical wall disposed in opposite and parallel to the first vertical wall ; an inlet baffle disposed on one end of the first vertical wall and the second vertical wall , the inlet baffle separating the two to-be-mixed materials into two streams; an outlet baffle disposed on the other end of the first vertical wall and the second vertical wall , the outlet baffle exporting the streams; and a plurality of first arc shape guiding plates and second arc shape guiding plates disposed between the inlet baffle and the outlet baffle , the first arc shape guiding plates and the second arc shape guiding plates being mutually spaced and disposed in opposite; each second arc shape guiding plate has one side thereof provided with a gap and the other side thereof provided with a first path through where the streams pass; characterized in that the first arc shape guiding plates extend from the first vertical wall toward the outlet baffle , the second arc shape guiding plates extend from the second vertical wall toward the inlet baffle .
An optomechanical tool (10a-10g and 10i-10o) for machining a workpiece (W), the optomechanical tool (10a-10o) comprising: a body of material having an entrance face , a rake face , a flank face , a rake side face , and a flank side face , the rake side face and the flank side face are connected to the entrance face , the rake side face is connected to the rake face , the flank side face is connected to the flank face , the rake face is connected to the flank face to define an at least partially curved cutting edge , wherein the entrance face extends away from the flank side face to define a back-relief angle (θ 12 ), wherein the rake face extends away from the rake side face to define a rake angle (θ 14 ), and wherein the entrance face is configured to direct a light beam (L) toward one or more of the rake face , the flank face , the rake side face , the flank side face , and the at least partially curved cutting edge and through one or more of the rake face , the flank face , and the at least partially curved cutting edge , causing the light beam (L) to refract onto the workpiece (W); characterized in that the entrance face is defined by: an inwardly-projecting surface having a non-linear, curved or arcuate configuration; and/or an outwardly-projecting surface having a non-linear, curved or arcuate configuration. a body of material having an entrance face , a rake face , a flank face , a rake side face , and a flank side face , the rake side face and the flank side face are connected to the entrance face , the rake side face is connected to the rake face , the flank side face is connected to the flank face , the rake face is connected to the flank face to define an at least partially curved cutting edge , wherein the entrance face extends away from the flank side face to define a back-relief angle (θ 12 ), wherein the rake face extends away from the rake side face to define a rake angle (θ 14 ), and wherein the entrance face is configured to direct a light beam (L) toward one or more of the rake face , the flank face , the rake side face , the flank side face , and the at least partially curved cutting edge and through one or more of the rake face , the flank face , and the at least partially curved cutting edge , causing the light beam (L) to refract onto the workpiece (W); characterized in that the entrance face is defined by: an inwardly-projecting surface having a non-linear, curved or arcuate configuration; and/or an outwardly-projecting surface having a non-linear, curved or arcuate configuration. an inwardly-projecting surface having a non-linear, curved or arcuate configuration; and/or an outwardly-projecting surface having a non-linear, curved or arcuate configuration.
A method performed by a vision control system for supporting in low light conditions in surroundings of a moving vehicle , object detection by at least a first on-board rearward- and/or sideward-facing image capturing device , said method comprising: capturing a surrounding located rearward and/or sideward of said moving vehicle with support from said at least first image capturing device ; determining light conditions in said surrounding; and providing with support from at least a first light source , when said light conditions fulfill insufficient light criteria, a light output illuminating a ground region of said surrounding to facilitate object detection by said at least first image capturing device , wherein said providing with support from at least a first light source comprises providing with support from at least a first light source comprised in an entity positioned within a predeterminable distance from the vehicle , for instance in a secondary vehicle and/or in a piece of infrastructure , said providing comprising providing said light output based on a, to said entity communicated, request signal indicative of said surrounding. capturing a surrounding located rearward and/or sideward of said moving vehicle with support from said at least first image capturing device ; determining light conditions in said surrounding; and providing with support from at least a first light source , when said light conditions fulfill insufficient light criteria, a light output illuminating a ground region of said surrounding to facilitate object detection by said at least first image capturing device , wherein said providing with support from at least a first light source comprises providing with support from at least a first light source comprised in an entity positioned within a predeterminable distance from the vehicle , for instance in a secondary vehicle and/or in a piece of infrastructure , said providing comprising providing said light output based on a, to said entity communicated, request signal indicative of said surrounding.
A method for controlling access to a physical space secured by an electronic lock , the method being performed in an access evaluator and comprising: obtaining one or more input parameters relating to a user requesting access to the restricted physical space; evaluating a first access condition based on a credential presented by the user; evaluating a second access condition using a machine-learning model, based on the one or more input parameters; unlocking the electronic lock when both the first access condition and the second access condition are evaluated to be true evaluating a third access condition when the first access condition is evaluated to be true and the second access condition is evaluated to be false; unlocking the electronic lock when both the first access condition and the third access condition are evaluated to be true; and training the machine learning model with the one or more input parameters when both the first access condition and the third access condition are evaluated to be true. obtaining one or more input parameters relating to a user requesting access to the restricted physical space; evaluating a first access condition based on a credential presented by the user; evaluating a second access condition using a machine-learning model, based on the one or more input parameters; unlocking the electronic lock when both the first access condition and the second access condition are evaluated to be true evaluating a third access condition when the first access condition is evaluated to be true and the second access condition is evaluated to be false; unlocking the electronic lock when both the first access condition and the third access condition are evaluated to be true; and training the machine learning model with the one or more input parameters when both the first access condition and the third access condition are evaluated to be true.
An automatic analyzer comprising: a housing unit for housing a plurality of reagent bottles each of which is formed in a rectangular parallelepiped shape and has an IC tag on one surface of short-side side surfaces thereof; an antenna for communicating with the IC tag; a detector for detecting the presence or absence of the reagent bottles; and a control unit for executing a reagent registration operation on a reagent bottle housed in the housing unit every time when the housing unit is opened and closed, wherein the housing unit includes a housing container for being cooled by a cooling machine , a heat insulating material for covering a periphery of the housing container, a reagent tray which is provided with a plurality of reagent bottle holding portions for holding the reagent bottles, a disk for rotatably holding the reagent tray, and a driving unit for driving the disk, characterized in that the control unit is configured to, in performing the reagent registration operation, when the detector detects a reagent bottle at a read position, the control unit performs a communication operation with the IC tag of the reagent bottle installed in the reagent bottle holding portion located at the read position, whereas when no reagent bottle is detected, the control unit skips the communication operation, and when it is unable to communicate with the IC tag of a first reagent bottle installed in the reagent bottle holding potion where a reagent bottle is detected by the detector, the control unit determines that the first reagent bottle is installed in a reverse direction. a housing unit for housing a plurality of reagent bottles each of which is formed in a rectangular parallelepiped shape and has an IC tag on one surface of short-side side surfaces thereof; an antenna for communicating with the IC tag; a detector for detecting the presence or absence of the reagent bottles; and a control unit for executing a reagent registration operation on a reagent bottle housed in the housing unit every time when the housing unit is opened and closed, wherein the housing unit includes a housing container for being cooled by a cooling machine , a heat insulating material for covering a periphery of the housing container, a reagent tray which is provided with a plurality of reagent bottle holding portions for holding the reagent bottles, a disk for rotatably holding the reagent tray, and a driving unit for driving the disk, characterized in that the control unit is configured to, in performing the reagent registration operation, when the detector detects a reagent bottle at a read position, the control unit performs a communication operation with the IC tag of the reagent bottle installed in the reagent bottle holding portion located at the read position, whereas when no reagent bottle is detected, the control unit skips the communication operation, and when it is unable to communicate with the IC tag of a first reagent bottle installed in the reagent bottle holding potion where a reagent bottle is detected by the detector, the control unit determines that the first reagent bottle is installed in a reverse direction.
A method of producing a wind turbine rotor blade which has at least one inner blade portion and at least one outer blade portion and a connecting element for connecting the at least one inner blade portion and the at least one outer blade portion , comprising the steps: winding the inner blade portion on a winding form having a first and a second winding portion , wherein the first and second winding portions are fixed to each other, wherein the second winding portion is of a conical configuration so that after winding of the inner blade portion a sleeve is produced at an end of the inner blade portion , winding the connecting element for connecting the inner blade portion and the outer blade portion on a winding form , wherein the connecting element has a first and a second portion , wherein a form having a conical shape is pushed on to the first portion of the connecting element before the winding laminate is hardened in order to provide a first portion of a conical configuration and having a smooth surface. winding the inner blade portion on a winding form having a first and a second winding portion , wherein the first and second winding portions are fixed to each other, wherein the second winding portion is of a conical configuration so that after winding of the inner blade portion a sleeve is produced at an end of the inner blade portion , winding the connecting element for connecting the inner blade portion and the outer blade portion on a winding form , wherein the connecting element has a first and a second portion , wherein a form having a conical shape is pushed on to the first portion of the connecting element before the winding laminate is hardened in order to provide a first portion of a conical configuration and having a smooth surface.
A composite body comprising at least one functional component and a moulded body , wherein the generatively produced moulded body completely encloses the at least one functional component , characterised in that - the at least one functional component is arranged in connection with a metallic or ceramic carrier structure having at least one contour element (3.1), - the at least one functional component , except for the contour elements (3.1), is enclosed by at least one thermally insulating ceramic layer , above which it is coated at least in some areas with thermally conductive metal or metal oxide, so that there is no cohesive bond between the functional component and the moulded body , and - the moulded body produced generatively by beam melting of a metal powder, in addition to the at least one functional component , also completely encloses the carrier structure with the at least one contour element (3.1), at least one of the at least one contour element (3.1) having a cohesive bond with the moulded body . - the at least one functional component is arranged in connection with a metallic or ceramic carrier structure having at least one contour element (3.1), - the at least one functional component , except for the contour elements (3.1), is enclosed by at least one thermally insulating ceramic layer , above which it is coated at least in some areas with thermally conductive metal or metal oxide, so that there is no cohesive bond between the functional component and the moulded body , and - the moulded body produced generatively by beam melting of a metal powder, in addition to the at least one functional component , also completely encloses the carrier structure with the at least one contour element (3.1), at least one of the at least one contour element (3.1) having a cohesive bond with the moulded body .
An apparatus comprising: a silicon substrate ; a PMOS device on the silicon substrate including a gate electrode on a surface in an area of the silicon substrate defined by a N-type well; a single crystal silicon germanium alloy material disposed in each of a first junction region and a second junction region in the silicon substrate adjacent the gate electrode of the PMOS device , wherein (a) a lattice spacing of the silicon germanium alloy material is different than a lattice spacing of a material of the N-type well of the silicon substrate and (b) a surface of the first junction region and a surface of the second junction region are in a non-planar relationship with the surface of the silicon substrate ; a NMOS device complementary to the PMOS device and comprising junction regions defined by doped portions of a material of a P-type well of the silicon substrate , the NMOS device having a gate electrode and spacers along sidewalls of the gate electrode ; an STI structure adjacent the NMOS device ; and an etch stop layer conformally disposed on the silicon substrate along the spacers of the NMOS device , on the junction regions of the NMOS device , and on the STI structure , the etch stop layer exclusive of the gate electrode of the PMOS device , wherein the etch stop layer causes tensile stress in the NMOS device . a silicon substrate ; a PMOS device on the silicon substrate including a gate electrode on a surface in an area of the silicon substrate defined by a N-type well; a single crystal silicon germanium alloy material disposed in each of a first junction region and a second junction region in the silicon substrate adjacent the gate electrode of the PMOS device , wherein (a) a lattice spacing of the silicon germanium alloy material is different than a lattice spacing of a material of the N-type well of the silicon substrate and (b) a surface of the first junction region and a surface of the second junction region are in a non-planar relationship with the surface of the silicon substrate ; a NMOS device complementary to the PMOS device and comprising junction regions defined by doped portions of a material of a P-type well of the silicon substrate , the NMOS device having a gate electrode and spacers along sidewalls of the gate electrode ; an STI structure adjacent the NMOS device ; and an etch stop layer conformally disposed on the silicon substrate along the spacers of the NMOS device , on the junction regions of the NMOS device , and on the STI structure , the etch stop layer exclusive of the gate electrode of the PMOS device , wherein the etch stop layer causes tensile stress in the NMOS device .
A bronze-polytetrafluoroethylene compound, comprising a sintered mixture of bronze particles and polytetrafluoroethylene, wherein the amount of the bronze particles is from 40 to 60 mass%, and the amount of the polytetrafluoroethylene is from 60 to 40 mass%, based on the total mass of the bronze particles and the polytetrafluoroethylene, characterized in that the bronze particles have an elemental composition consisting of: Sn in an amount of from 10 to 30 mass%; Zn in an amount of from 2 to 20 mass%; and one of the following elements: Al in an amount of from 0.1 to 5 mass%; or P in an amount of from 0.01 to 0.4 mass%, with the remainder consisting of Cu and inevitable impurities, wherein the bronze particles have no surface coating. Sn in an amount of from 10 to 30 mass%; Zn in an amount of from 2 to 20 mass%; and one of the following elements: Al in an amount of from 0.1 to 5 mass%; or P in an amount of from 0.01 to 0.4 mass%, with the remainder consisting of Cu and inevitable impurities, wherein the bronze particles have no surface coating. Al in an amount of from 0.1 to 5 mass%; or P in an amount of from 0.01 to 0.4 mass%, with the remainder consisting of Cu and inevitable impurities, wherein the bronze particles have no surface coating.
A mechanical thrombectomy apparatus for removing a clot from a vessel , the apparatus comprising: an elongate inversion support catheter having a distal end and a distal end opening; an elongate puller extending within the elongate inversion support catheter ; and a flexible tractor tube having a free first end and a second end that is coupled to a distal end region of the elongate puller , wherein the flexible tractor tube is inverted over the elongate inversion support catheter and is held within the elongate inversion support catheter in a collapsed first configuration; characterized in that the thrombectomy apparatus further comprises an annular bias element disposed at least partially around the free first end of the flexible tractor tube , wherein the flexible tractor tube is configured to be extended from the distal end opening of the elongate inversion support catheter and to expand into an expanded second configuration, and wherein the annular bias element is configured to be extended from the distal end opening of the elongate inversion support catheter and to expand along with the flexible tractor tube from the collapsed first configuration to the expanded second configuration, and wherein the annular bias element has a diameter that is larger than an outer diameter of the elongate inversion support catheter when the flexible tractor tube is in the expanded second configuration. an elongate inversion support catheter having a distal end and a distal end opening; an elongate puller extending within the elongate inversion support catheter ; and a flexible tractor tube having a free first end and a second end that is coupled to a distal end region of the elongate puller , wherein the flexible tractor tube is inverted over the elongate inversion support catheter and is held within the elongate inversion support catheter in a collapsed first configuration; characterized in that the thrombectomy apparatus further comprises an annular bias element disposed at least partially around the free first end of the flexible tractor tube , wherein the flexible tractor tube is configured to be extended from the distal end opening of the elongate inversion support catheter and to expand into an expanded second configuration, and wherein the annular bias element is configured to be extended from the distal end opening of the elongate inversion support catheter and to expand along with the flexible tractor tube from the collapsed first configuration to the expanded second configuration, and wherein the annular bias element has a diameter that is larger than an outer diameter of the elongate inversion support catheter when the flexible tractor tube is in the expanded second configuration.
An electric motor control system comprising: an electric motor which drives a steering mechanism of a vehicle, and a controller which controls the electric motor , wherein the electric motor is provided with a stator equipped with 2 sets of plural phase windings, and a rotor equipped with a permanent magnet , and wherein the controller is provided with 2 sets of control systems which control a supply current to each set of the windings; when both sets of the windings and the control system are normal, the controller distributes and supplies current to 2 sets of windings; and when abnormality occurs in one set of the windings and the control system, the controller sets 0 to the supply current to all phase or partial phase windings of an abnormality occurrence set, characterized in that : the controller increases the supply current to a normal set of the windings up to an irreversible current that increases an irreversible demagnetizing factor of the permanent magnet more than normal time. an electric motor which drives a steering mechanism of a vehicle, and a controller which controls the electric motor , wherein the electric motor is provided with a stator equipped with 2 sets of plural phase windings, and a rotor equipped with a permanent magnet , and wherein the controller is provided with 2 sets of control systems which control a supply current to each set of the windings; when both sets of the windings and the control system are normal, the controller distributes and supplies current to 2 sets of windings; and when abnormality occurs in one set of the windings and the control system, the controller sets 0 to the supply current to all phase or partial phase windings of an abnormality occurrence set, characterized in that : the controller increases the supply current to a normal set of the windings up to an irreversible current that increases an irreversible demagnetizing factor of the permanent magnet more than normal time.