mhurhangee/patent-ind-claim-en huggingface dataset:
A drain valve for a sanitary flushing cistern , in particular a flush-mounted flushing cistern, comprising a valve housing and a valve body guided in the valve housing and configured as an overflow pipe having a seal assigned to a valve seat , wherein the valve body is provided with at least one pull tab for lifting the valve body , and a buoyant body , characterised in that the valve housing at its upper end is provided with a spacer for aligning and fixing the drain valve in the flushing cistern, wherein the pull tab is pivotably connected to the valve body and the spacer has an abutment (26.9) assigned to the pull tab , which functions as a pivot point for the pull tab , so that the pull tab is movable from an upright position into a folded position and the valve body connected to the pull tab in the folded position of the pull tab is raised vis-à-vis the valve seat .
An inductive device comprising: - a winding defining an axial direction; - a coil former ; and - a magnetic core comprising a base core portion from which an outer core portion and an inner core portion extend in the axial direction so as to form a void for accommodating the coil former and the winding ; wherein the coil former defines a void for receiving the winding and separates the winding from the inner core portion and from the outer core portion ; wherein the coil former comprises one or more end walls , and an inner wall , wherein the inner wall extends in the axial direction from one of the one or more end walls , and wherein the inner wall is interposed between the inner core portion and the winding , wherein the coil former further comprises an outer wall , wherein the outer wall extends in the axial direction from one of the one or more end walls , and wherein the outer wall is interposed between the outer core portion and the winding ; and characterized in that the inductive device comprises a flow channel extending between an inner surface of the magnetic core and an outer surface of the coil former , the flow channel defining an inlet port for inserting a liquid curable material into the flow channel and allowing the curable material to fill a void between the outer surface of the coil former and the inner surface of the magnetic core . - a winding defining an axial direction; - a coil former ; and - a magnetic core comprising a base core portion from which an outer core portion and an inner core portion extend in the axial direction so as to form a void for accommodating the coil former and the winding ;
Process for manufacturing a mirror without a copper layer, comprising the following steps: a) providing a glass substrate, b) placing the glass substrate in contact with a silvering solution so as to form a silver layer on the substrate, c) performing a sequence of steps consisting essentially in: i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step. a) providing a glass substrate, b) placing the glass substrate in contact with a silvering solution so as to form a silver layer on the substrate, c) performing a sequence of steps consisting essentially in: i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step. i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step.
An isolated antibody that binds to human LAG3, wherein the antibody comprises (a) a VH domain comprising (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO:1, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO:2, and (iii) HVR-H3 comprising an amino acid sequence selected from SEQ ID NO:3; and (b) a VL domain comprising (i) HVR-L1 comprising the amino acid sequence of SEQ ID NO:4; (ii) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5 and (iii) HVR-L3 comprising the amino acid sequence of SEQ ID NO:6.
A load cancelling hydrostatic system comprising: at least a first and second hydrostatic module, wherein the first module comprises a 1 st and a 2 nd hydraulic piston drive unit and the second module comprises a 3 rd and a 4 th hydraulic piston drive unit; a common input drive shaft coupling the 1 st and 3 rd hydraulic piston drive units together; a common output drive shaft coupling the 2 nd and 4 th hydraulic piston drive units together; wherein each of the hydraulic piston drive units comprises a plurality of pistons ; wherein the 1 st and 3 rd hydraulic piston drive units share a similar geometry and the number and size of the pistons in each is the same; wherein the 2 nd and 4 th hydraulic piston drive units share a similar geometry and the number and size of the pistons in each is the same; wherein the pistons in the 1 st and 3 rd hydraulic piston drive units are coupled together with an input timing angle; and wherein the pistons in the 2 nd and 4 th hydraulic piston drive units are coupled together with an output timing angle; characterized in that at least one of the input and output timing angles is in the range from -0.5° to +0.5°, and wherein the load cancelling hydrostatic system further comprises bearing sets for the common input and output drive shafts, wherein the bearing sets essentially consist of radial bearings . at least a first and second hydrostatic module, wherein the first module comprises a 1 st and a 2 nd hydraulic piston drive unit and the second module comprises a 3 rd and a 4 th hydraulic piston drive unit; a common input drive shaft coupling the 1 st and 3 rd hydraulic piston drive units together; a common output drive shaft coupling the 2 nd and 4 th hydraulic piston drive units together; wherein each of the hydraulic piston drive units comprises a plurality of pistons ; wherein the 1 st and 3 rd hydraulic piston drive units share a similar geometry and the number and size of the pistons in each is the same; wherein the 2 nd and 4 th hydraulic piston drive units share a similar geometry and the number and size of the pistons in each is the same; wherein the pistons in the 1 st and 3 rd hydraulic piston drive units are coupled together with an input timing angle; and wherein the pistons in the 2 nd and 4 th hydraulic piston drive units are coupled together with an output timing angle; characterized in that at least one of the input and output timing angles is in the range from -0.5° to +0.5°, and wherein the load cancelling hydrostatic system further comprises bearing sets for the common input and output drive shafts, wherein the bearing sets essentially consist of radial bearings .
Dishwasher , in particular household dishwasher , having a wash container for holding items to be washed, which features a front loading opening and a reinforcement element , which reinforces the wash container along at least one front edge region of the wash container , and having a cover arrangement to at least partially cover at least one gap, which results outside a water-conducting region of the wash container between the wash container and at least one surface running along the front edge region of the wash container , wherein the cover arrangement comprises at least one cover element having a fastening segment with an I-shaped cross section, running in its longitudinal direction parallel to the respective surface and being fixed in a fastening segment with a U-shaped cross section, which is configured on the reinforcement element , and wherein the arms of the U-shaped fastening segment are aligned parallel to a plane which is defined by the front edge regions of the wash container , characterised in that the open side of the U-shaped fastening segment points towards an exterior of the wash container and that the cover element has a support segment disposed on its I-shaped fastening segment , with a sealing lip arrangement disposed thereon, which comprises at least one sealing lip to make contact with the respective surface , wherein the I-shaped fastening segment and the support segment together form an L-shaped cross section, preferably a T-shaped cross section.
A solid electrolyte material consisting of: Li, M1, M2, and X, wherein M1 is at least two selected from the group consisting of Ca, Mg, and Zn; M2 is at least one selected from the group consisting of Y, Gd, and Sm; and X is at least one selected from the group consisting of F, Cl, Br, and I. Li, M1, M2, and X, wherein M1 is at least two selected from the group consisting of Ca, Mg, and Zn; M2 is at least one selected from the group consisting of Y, Gd, and Sm; and X is at least one selected from the group consisting of F, Cl, Br, and I.
A dual mode imaging system, comprising: a sample platform configured to hold a sample, the sample platform being movable relative to a bi-telecentric optical imaging system between a first location and a second location; and a light source subsystem including an illumination source configured to generate an illumination beam, the light source subsystem comprising beam-shaping optics configured to project the illumination beam onto a part of a focal plane; relay optics configured to receive and redirect the illumination beam through an objective lens when the sample platform is in the second location; a detector subsystem for detecting light from the sample platform , and comprising a light detector having an array of sensing locations; and the bi-telecentric optical imaging system , comprising optical elements configured to receive light from the sample platform and to pass or to direct the received light to the light detector; wherein when the sample platform is in the first location, the sample platform coincides with the focal plane, the illumination beam impinges on at least a portion of the sample platform , and the bi-telecentric optical imaging system receives light directly from the portion of the sample platform ; and wherein when the sample platform is in the second location the illumination beam interacts with the relay optics and impinges on at least a portion of the sample platform through the objective lens and the light from the portion of the sample platform is directed back through the objective lens and the relay optics and to the bi-telecentric optical imaging system . a sample platform configured to hold a sample, the sample platform being movable relative to a bi-telecentric optical imaging system between a first location and a second location; and a light source subsystem including an illumination source configured to generate an illumination beam, the light source subsystem comprising beam-shaping optics configured to project the illumination beam onto a part of a focal plane; relay optics configured to receive and redirect the illumination beam through an objective lens when the sample platform is in the second location; a detector subsystem for detecting light from the sample platform , and comprising a light detector having an array of sensing locations; and the bi-telecentric optical imaging system , comprising optical elements configured to receive light from the sample platform and to pass or to direct the received light to the light detector; wherein when the sample platform is in the first location, the sample platform coincides with the focal plane, the illumination beam impinges on at least a portion of the sample platform , and the bi-telecentric optical imaging system receives light directly from the portion of the sample platform ; and wherein when the sample platform is in the second location the illumination beam interacts with the relay optics and impinges on at least a portion of the sample platform through the objective lens and the light from the portion of the sample platform is directed back through the objective lens and the relay optics and to the bi-telecentric optical imaging system .
A temperature control apparatus for fuel cell system comprising: a fuel cell stack ; a first cooling line configured to circulate a first coolant that passes via the fuel cell stack ; a first radiator disposed on the first cooling line and being configured to cool the first coolant; a valve configured to switch a flow path of the first coolant to the fuel cell stack or the first radiator ; and a controller connected to the valve , characterized in that the controller is configured to: set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve ; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator ; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range. a fuel cell stack ; a first cooling line configured to circulate a first coolant that passes via the fuel cell stack ; a first radiator disposed on the first cooling line and being configured to cool the first coolant; a valve configured to switch a flow path of the first coolant to the fuel cell stack or the first radiator ; and a controller connected to the valve , characterized in that the controller is configured to: set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve ; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator ; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range. set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve ; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator ; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range.
A sensor assembly (700; 900) comprising: a multilayer circuit (708; 908) extending between a proximal end and a distal end along a longitudinal axis (724; 924), the multilayer circuit (708; 908) including a plurality of electrical pads positioned at the proximal end; a first magnetic field sensor (720A; 920A) coupled to the multilayer circuit (708; 908) and having a primary sensing direction aligned with the longitudinal axis (724; 924); and a second magnetic field sensor (720B; 920B) coupled to the multilayer circuit (708; 908) and oriented with respect to the first magnetic field sensor (720A; 920A) such that the second magnetic field sensor (720B; 920B) has a primary sensing direction aligned with an axis orthogonal to the longitudinal axis (724; 924), wherein the multilayer circuit (708; 908) includes a flexible substrate layer (712; 912), wherein a first subset of the plurality of electrical pads is positioned on a first side of the flexible substrate layer (712; 912), characterized in that a second subset of the plurality of electrical pads is positioned on a second side of the flexible substrate layer (712; 912), and wherein the first side and the second side face in opposite directions. a multilayer circuit (708; 908) extending between a proximal end and a distal end along a longitudinal axis (724; 924), the multilayer circuit (708; 908) including a plurality of electrical pads positioned at the proximal end; a first magnetic field sensor (720A; 920A) coupled to the multilayer circuit (708; 908) and having a primary sensing direction aligned with the longitudinal axis (724; 924); and a second magnetic field sensor (720B; 920B) coupled to the multilayer circuit (708; 908) and oriented with respect to the first magnetic field sensor (720A; 920A) such that the second magnetic field sensor (720B; 920B) has a primary sensing direction aligned with an axis orthogonal to the longitudinal axis (724; 924), wherein the multilayer circuit (708; 908) includes a flexible substrate layer (712; 912), wherein a first subset of the plurality of electrical pads is positioned on a first side of the flexible substrate layer (712; 912), characterized in that a second subset of the plurality of electrical pads is positioned on a second side of the flexible substrate layer (712; 912), and wherein the first side and the second side face in opposite directions.
A system of an electronic cam lock and a metal cabinet or furniture wherein the cam lock is fixed to a door, cabinet, panel or drawer in the metal cabinet or furniture that provides ingress and no egress, without a mechanical key, comprising: a compact housing containing electronics and having an access terminal enabling entry of a code by a user, such code when properly entered causing the electronics to permit access, the housing being affixed in a generally U-shaped top rail or generally U-shaped vertical side rail of said cabinet or furniture , and the housing having a face at the front of the housing , the housing being inside-mounted, fitted within the top rail or side rail such that a portion of the housing face having the access terminal is exposed through an opening in a front rail piece of the top rail or side rail, and the housing being secured to the inside of the top rail or side rail, a cam lock cylinder unit extending from a back side of the housing, with a lock driver in the cylinder unit engaged with a cam or latch device at the inside of the cabinet or furniture, and including a knob or handle secured to the front of the housing and separate from the terminal, through an opening in the front rail piece , for operating the lock manually without a mechanical key to rotate the lock driver and the cam or latch device when permitted by the electronics, the housing being a self-contained, single housing containing all electronics of the cam lock, and a power source connected to power the electronics. a compact housing containing electronics and having an access terminal enabling entry of a code by a user, such code when properly entered causing the electronics to permit access, the housing being affixed in a generally U-shaped top rail or generally U-shaped vertical side rail of said cabinet or furniture , and the housing having a face at the front of the housing , the housing being inside-mounted, fitted within the top rail or side rail such that a portion of the housing face having the access terminal is exposed through an opening in a front rail piece of the top rail or side rail, and the housing being secured to the inside of the top rail or side rail, a cam lock cylinder unit extending from a back side of the housing, with a lock driver in the cylinder unit engaged with a cam or latch device at the inside of the cabinet or furniture, and including a knob or handle secured to the front of the housing and separate from the terminal, through an opening in the front rail piece , for operating the lock manually without a mechanical key to rotate the lock driver and the cam or latch device when permitted by the electronics, the housing being a self-contained, single housing containing all electronics of the cam lock, and a power source connected to power the electronics.
An ultrasound imaging system, comprising: a first ultrasound imaging device and a second ultrasound imaging device; and a console configured to selectively communicate with the first ultrasound imaging device and the second ultrasound imaging device, the console comprising a housing, a computing device disposed within the housing, and a connector receptacle assembly coupled to the housing, the connector receptacle assembly comprising: a first connector bank comprising a first plurality of electrical connections; and a second connector bank comprising a second plurality of electrical connections, wherein the connector receptacle assembly is selectively matable to a first connector of the first ultrasound imaging device via only the first connector bank or to a single second connector of the second ultrasound imaging device via the first and second connector banks together, the single second connector housing a first and second connector module configured to couple to the first the second connector bank respectively. a first ultrasound imaging device and a second ultrasound imaging device; and a console configured to selectively communicate with the first ultrasound imaging device and the second ultrasound imaging device, the console comprising a housing, a computing device disposed within the housing, and a connector receptacle assembly coupled to the housing, the connector receptacle assembly comprising: a first connector bank comprising a first plurality of electrical connections; and a second connector bank comprising a second plurality of electrical connections, wherein the connector receptacle assembly is selectively matable to a first connector of the first ultrasound imaging device via only the first connector bank or to a single second connector of the second ultrasound imaging device via the first and second connector banks together, the single second connector housing a first and second connector module configured to couple to the first the second connector bank respectively. a first connector bank comprising a first plurality of electrical connections; and a second connector bank comprising a second plurality of electrical connections, wherein the connector receptacle assembly is selectively matable to a first connector of the first ultrasound imaging device via only the first connector bank or to a single second connector of the second ultrasound imaging device via the first and second connector banks together, the single second connector housing a first and second connector module configured to couple to the first the second connector bank respectively.