mhurhangee/ep-ind-claims huggingface dataset:
A brushless direct-current (BLDC) motor comprising: a stator having a stator core, a plurality of teeth extending radially outwardly from the stator core, and a plurality of windings wound around the stator teeth; a rotor shaft extending along a center axis; a rotor having a rotor core disposed around the stator, a plurality of permanent magnets secured to the rotor core, an inner annular member mounted on the rotor shaft, and a plurality of radial blades extending angularly from the rotor core to the inner annular member forming a fan adjacent the stator that generates an airflow with rotation of the rotor shaft; a first end cap including a radial back plate proximate the fan and a center opening in the radial back plate through which the rotor shaft extends; and a second end cap including a main body disposed adjacent the stator opposite the fan, and characterized in that: the radial back plate including at least one sloped surface (120A and/or 120B) forming at least one air gap (123A and/or 123B), wherein the airflow generated by the fan is centrifugally guided within the first end cap by the at least one sloped surface and caused to exit the first end cap through the at least one air gap; and the second end cap comprises a first plurality of openings for passage of airflow and a second plurality of openings for passage of a plurality of motor terminals arranged to electrically couple to the plurality of windings of the stator. a stator having a stator core, a plurality of teeth extending radially outwardly from the stator core, and a plurality of windings wound around the stator teeth; a rotor shaft extending along a center axis; a rotor having a rotor core disposed around the stator, a plurality of permanent magnets secured to the rotor core, an inner annular member mounted on the rotor shaft, and a plurality of radial blades extending angularly from the rotor core to the inner annular member forming a fan adjacent the stator that generates an airflow with rotation of the rotor shaft; a first end cap including a radial back plate proximate the fan and a center opening in the radial back plate through which the rotor shaft extends; and a second end cap including a main body disposed adjacent the stator opposite the fan, and the radial back plate including at least one sloped surface (120A and/or 120B) forming at least one air gap (123A and/or 123B), wherein the airflow generated by the fan is centrifugally guided within the first end cap by the at least one sloped surface and caused to exit the first end cap through the at least one air gap; and the second end cap comprises a first plurality of openings for passage of airflow and a second plurality of openings for passage of a plurality of motor terminals arranged to electrically couple to the plurality of windings of the stator.
A fan section for a gas turbine engine comprising: a nacelle, a rotor and a plurality of fan blades, said fan blades for delivering air into a bypass duct defined inwardly of the nacelle and for delivering air into a core engine, and guide vanes inward of said nacelle; a surface (160, 162, 402, 412, 512, 516) of said fan section being provided with a removable film material for accumulation of debris, characterised in that: said removable film material includes a plurality of layers of removable material. a nacelle, a rotor and a plurality of fan blades, said fan blades for delivering air into a bypass duct defined inwardly of the nacelle and for delivering air into a core engine, and guide vanes inward of said nacelle; a surface (160, 162, 402, 412, 512, 516) of said fan section being provided with a removable film material for accumulation of debris, characterised in that: said removable film material includes a plurality of layers of removable material.
An apparatus, comprising: an inlet region for receiving a gas mixture; an ionizer for supplying hydronium ions to the received gas mixture to generate ions from molecules comprised in the gas mixture, wherein the ionizer comprises a membrane for receiving the gas mixture, and wherein the membrane is capable of generating hydronium ions from water; and an ion detector for detecting ions generated from molecules comprised in the gas mixture; characterized in that the membrane is a graphene oxide membrane. an inlet region for receiving a gas mixture; an ionizer for supplying hydronium ions to the received gas mixture to generate ions from molecules comprised in the gas mixture, wherein the ionizer comprises a membrane for receiving the gas mixture, and wherein the membrane is capable of generating hydronium ions from water; and an ion detector for detecting ions generated from molecules comprised in the gas mixture; characterized in that the membrane is a graphene oxide membrane.
Nickel-base superalloy powder with a high gamma-prime precipitation content for additive manufacturing of three-dimensional articles characterized in that the powder has the following chemical composition (in wt. -%): 15.7-16.3 Cr, 8.0-9.0 Co, 1.5-2.0 Mo, 2.4-2.8 W, 1.5-2.0 Ta, 3.2-3.7 Al, 2.2-3.7 Ti, 0.6-1.1 Nb, 0.09-0.13 C, 0.007-0.012 B, 0.004≤Zr<0.03, 0.001≤Si<0.03, remainder Ni and unavoidable residual elements and wherein the powder has a powder size distribution between 10 and 100 μm and a spherical morphology.
Folding assembly of a continuous sheet of packaging material, in particular paper, applicable to automatic packaging machines of the type comprising a sliding plane for conveying a continuous sheet of packaging material along a conveying direction, said sliding plane comprising an entrance end for entering said continuous sheet of packaging material and two opposite sides (103, 104) parallel to said conveying direction, and a feeding assembly for feeding said continuous sheet of packaging material along a feeding plane which is orthogonal or substantially orthogonal to said conveying direction and defined at said entrance end of said sliding plane, wherein the machine is designed so that said continuous sheet of packaging material can be fed along said feeding plane according to a feeding direction orthogonal or substantially orthogonal to said sliding plane and is deviated of a right or a substantially right angle while passing from said feeding plane to said sliding plane, wherein said folding assembly comprises, for at least one of the opposite sides (103, 104) of said sliding plane, a respective block which is associable with said at least one opposite side of said sliding plane at said entrance end and which is provided with a rectilinear edge which, considering said folding assembly in the mounting configuration on said packaging machine, faces said feeding plane and is substantially parallel to said feeding direction so as to define a longitudinal creasing element of said continuous sheet of packaging material for folding a corresponding longitudinal flap (F1, F2) thereof and wherein said folding assembly is characterized in that it comprises a body provided with a cone-sector surface which is associated with said block with the vertex of said cone-sector surface arranged at the outlet end of said rectilinear edge at which said continuous sheet of packaging material provided with said longitudinal creasing exits and which cone-sector surface, considering said folding assembly in the mounting configuration on said packaging machine, has a conicity converging towards said entrance end of said sliding plane, wherein, considering said folding assembly in the mounting configuration on said packaging machine, said cone-sector surface supports said longitudinal flap (F1, F2) during said longitudinal creasing and accompanies it during the folding along said longitudinal creasing.
A method that is computer-implemented for selection of dosimetry levels and sphere amounts of radioactive compounds for use in a radioembolization procedure for procedure planning, the method comprising: inputting activity parameter information into a dosimetry portal of a dosimetry selection tool; determining, via a processor, a customized activity based on the activity parameter information and one or more customized activity algorithms; generating at least two sphere amount and dosage recommendations based on the customized activity and one or more dosimetry selection algorithms; selecting one of the at least two sphere amount and dosage recommendations as a selected sphere amount and dosage recommendation; modifying the selected sphere amount and dosage recommendation as a modified selected sphere amount and dosage recommendation; and generating, via the processor, a radioactive compound order for the radioembolization procedure based on the customized activity and the modified selected sphere amount and dosage recommendation. inputting activity parameter information into a dosimetry portal of a dosimetry selection tool; determining, via a processor, a customized activity based on the activity parameter information and one or more customized activity algorithms; generating at least two sphere amount and dosage recommendations based on the customized activity and one or more dosimetry selection algorithms; selecting one of the at least two sphere amount and dosage recommendations as a selected sphere amount and dosage recommendation; modifying the selected sphere amount and dosage recommendation as a modified selected sphere amount and dosage recommendation; and generating, via the processor, a radioactive compound order for the radioembolization procedure based on the customized activity and the modified selected sphere amount and dosage recommendation.
A maintenance tool comprising: - a force generating device comprising an actuator for fastening to an end of a planet wheel pin of a planetary gear and for directing axial force to the planet wheel pin, the actuator being movable with respect to a frame of the force generating device, and - a body structure for mechanically supporting the frame of the force generating device with respect to a planet carrier of the planetary gear so as to allow the actuator to move the planet wheel pin axially with respect to the planet carrier, characterized in that an end of the actuator is a threaded rod for matching a centric and axial threaded hole of the end of the planet wheel pin, the body structure comprises two or more support sections (107a, 107b, 107c, 107d) each being capable of mechanically supporting the frame of the force generating device with respect to the planet carrier so that the maintenance tool is capable of moving two or more planet wheel pins of the planetary gear without a need to rotate the body structure with respect to the planet carrier. - a force generating device comprising an actuator for fastening to an end of a planet wheel pin of a planetary gear and for directing axial force to the planet wheel pin, the actuator being movable with respect to a frame of the force generating device, and - a body structure for mechanically supporting the frame of the force generating device with respect to a planet carrier of the planetary gear so as to allow the actuator to move the planet wheel pin axially with respect to the planet carrier,
A damper device, comprising a cylinder body and a piston body, wherein at least one of the cylinder body and the piston body is attached to an article subject to damping so that the damping is applied to movement or relative movement of the article subject to the damping, wherein said damper device includes a run-through hole formed in an inner recess part of the cylinder body facing the piston body; and a stopper-like body having a shaft part movably inserted into the run-through hole and a fluid passage gap (x) formed between the shaft part and the run-through hole, wherein the stopper-like body has a head part integrally having said shaft part, wherein an insertion length of the shaft part of the stopper-like body into the run-through hole is arranged to change by a change of pressure caused by the movement or relative movement of the piston body, characterized in that a male coupling part for coupling with a female coupling part on the cylinder body is formed in the stopper-like body in a state that the shaft part is inserted into the run-through hole, wherein a window hole-shaped coupling part is formed on both sides on a cylindrical body constituting the cylinder body on the outside of a partitioning plate, which partitions this cylindrical body, and a claw-shaped coupling part, which enters into said coupling part, is provided on both sides on the head part of said stopper-like body.
A method for cold-rolling a steel sheet, comprising cold-rolling a steel sheet with a tandem rolling mill to which rolling oil is supplied in a recirculating manner, the method characterised in that: the rolling oil is supplied to the tandem rolling mill such that, when expressed in terms of a thickness h of a film of oil introduced into a roll bite of a last stand as calculated by equation below, a work roll roughness R N of the last stand, and a work roll roughness R N-1 of a stand immediately before the last stand, expression below has a value of 0.5 or more: h = 1 + h 1 ⋅ B − 1 + h 1 ⋅ B 2 − 1 ⋅ h 1 h 1 = A ⋅ Q / ρ × 10 − 6 B = e δ − e − α ⋅ σ + δ ⋅ Ld α ⋅ 6 ⁢ η ⋅ V 1 + V 2 ⋅ R ′ δ = β T − 40 wherein: A is a plate-out efficiency (-); Q is an amount of rolling oil supplied per unit area (kg/m 2); ρ is an oil density (kg/m 3); σ is a yield stress of a material (Pa); Ld is a contact arc length (mm); R' is a flattened roll radius (mm); V 1 is a roll speed of the last stand (m/sec.); V 2 is a sheet speed on an exit side of the last stand (m/sec.); η is a viscosity of the rolling oil at 40°C and atmospheric pressure (Pa·s); α is a pressure-viscosity coefficient (1/Pa); β is a temperature-viscosity coefficient (1/°C); and T is an oil temperature on an entry side of the roll bite (°C), and h / R N 2 + R N − 1 2 2 wherein: R N is the work roll roughness of the last stand (μm Ra); and R N-1 is the work roll roughness of the stand immediately before the last stand (μm Ra). A is a plate-out efficiency (-); Q is an amount of rolling oil supplied per unit area (kg/m 2); ρ is an oil density (kg/m 3); σ is a yield stress of a material (Pa); Ld is a contact arc length (mm); R' is a flattened roll radius (mm); V 1 is a roll speed of the last stand (m/sec.); V 2 is a sheet speed on an exit side of the last stand (m/sec.); η is a viscosity of the rolling oil at 40°C and atmospheric pressure (Pa·s); α is a pressure-viscosity coefficient (1/Pa); β is a temperature-viscosity coefficient (1/°C); and T is an oil temperature on an entry side of the roll bite (°C), and R N is the work roll roughness of the last stand (μm Ra); and R N-1 is the work roll roughness of the stand immediately before the last stand (μm Ra).
An in-mold foamed molded product (20, 50, 70) which is an olefin resin-containing in-mold foamed molded product having a melting point or softening temperature of not lower than 110°C, the in-mold foamed molded product (20, 50, 70) comprising: a contact surface at least part of which is in contact with a mold in a placement completion state in which the in-mold foamed molded product (20, 50, 70) is placed in the mold; and a sealing protrusion (22, 22A, 22B, 52) which prevents a polyurethane liquid introduced into the mold and a polyurethane foam obtained from the polyurethane liquid from entering in between the contact surface and the mold in the placement completion state, wherein the sealing protrusion (22, 22A, 22B, 52) is molded from a foam and is formed such that ease of deformation of the sealing protrusion (22, 22A, 22B, 52) in response to a pressing force applied upon contact with another object, which is different from the sealing protrusion (22, 22A, 22B, 52), increases with increasing proximity to a tip of the sealing protrusion (22, 22A, 22B, 52), wherein the in-mold foamed molded product (20, 50, 70) is an in-mold foamed molded product made up of polyolefin-based resin expanded particles or expanded particles of a composite resin that contains a polyolefin resin and a polystyrene resin, a contact surface at least part of which is in contact with a mold in a placement completion state in which the in-mold foamed molded product (20, 50, 70) is placed in the mold; and a sealing protrusion (22, 22A, 22B, 52) which prevents a polyurethane liquid introduced into the mold and a polyurethane foam obtained from the polyurethane liquid from entering in between the contact surface and the mold in the placement completion state, wherein the sealing protrusion (22, 22A, 22B, 52) is molded from a foam and is formed such that ease of deformation of the sealing protrusion (22, 22A, 22B, 52) in response to a pressing force applied upon contact with another object, which is different from the sealing protrusion (22, 22A, 22B, 52), increases with increasing proximity to a tip of the sealing protrusion (22, 22A, 22B, 52), wherein the in-mold foamed molded product (20, 50, 70) is an in-mold foamed molded product made up of polyolefin-based resin expanded particles or expanded particles of a composite resin that contains a polyolefin resin and a polystyrene resin,
A control device for controlling a machine tool, wherein the machine tool and the control device are configured in such a way that a tool and/or a workpiece disposed on the machine tool can be moved with at least one first speed and at least one second speed, wherein the control device has an input device for triggering the movement with the second speed, characterized in that the control device is further configured in such a way that, when switching from a movement with the first speed to a movement with the second speed, the tool or the workpiece is at first stopped prior to the execution of the movement with the second speed if the second speed is greater that the first speed by at least a predetermined factor, and the subsequent execution of the movement with the second speed is triggered by an operator input on the input device.
A flow meter comprising: a cylindrical measurement tube including an inlet through which liquid enters and an outlet through which the liquid flowing from the inlet exits, and having an internal flow passage extending along an axis; and a temperature detecting substrate having a heating resistance element and a temperature detecting resistance element (12b, 12c) formed on a detection surface thereof along the axis, wherein an outer circumferential surface of the measurement tube is provided with a flat surface arranged as opposed to the detection surface of the temperature detecting substrate, and the flat surface and the detection surface are bonded together to form a planar bonding area having a width in a direction orthogonal to the axis, characterized in that, a pair of recesses (11e, 11f) is arranged so as to sandwich the internal flow passage at the position where the heating resistance element is arranged on the axis, and the width of the bonding area in a first portion on the axis where the pair of recesses (11e, 11f) is arranged is narrower than the width of the bonding area in a second portion (A2, A3) on the axis where the pair of recesses (11e, 11f) is not arranged. a cylindrical measurement tube including an inlet through which liquid enters and an outlet through which the liquid flowing from the inlet exits, and having an internal flow passage extending along an axis; and a temperature detecting substrate having a heating resistance element and a temperature detecting resistance element (12b, 12c) formed on a detection surface thereof along the axis, wherein an outer circumferential surface of the measurement tube is provided with a flat surface arranged as opposed to the detection surface of the temperature detecting substrate, and the flat surface and the detection surface are bonded together to form a planar bonding area having a width in a direction orthogonal to the axis, characterized in that, a pair of recesses (11e, 11f) is arranged so as to sandwich the internal flow passage at the position where the heating resistance element is arranged on the axis, and the width of the bonding area in a first portion on the axis where the pair of recesses (11e, 11f) is arranged is narrower than the width of the bonding area in a second portion (A2, A3) on the axis where the pair of recesses (11e, 11f) is not arranged.
A fluid pump comprising: a housing of the fluid pump retaining all together the pump section, the motor section and the outlet section) of the fluid pump; an inlet for introducing fluid into said fluid pump; an outlet for discharging fluid from said fluid pump; a motor having a shaft that rotates about an axis, said shaft having an upper end and a lower end; a motor frame having a top section, a base section, and a plurality of legs axially separating said top section and said base section; and wherein said base section connects each plurality of legs; wherein said base section includes a recess extending axially thereinto; an outlet plate disposed coaxially within said recess; wherein said outlet plate defines a lower bushing extending through the outlet plate, said lower bushing radially supports said lower end of said shaft; wherein said top section defines an upper bushing therein for radially supporting said upper end of said shaft; and wherein said base section maintains a coaxial relationship between said lower bushing and said upper bushing. a housing of the fluid pump retaining all together the pump section, the motor section and the outlet section) of the fluid pump; an inlet for introducing fluid into said fluid pump; an outlet for discharging fluid from said fluid pump; a motor having a shaft that rotates about an axis, said shaft having an upper end and a lower end; a motor frame having a top section, a base section, and a plurality of legs axially separating said top section and said base section; and wherein said base section connects each plurality of legs; wherein said base section includes a recess extending axially thereinto; an outlet plate disposed coaxially within said recess; wherein said outlet plate defines a lower bushing extending through the outlet plate, said lower bushing radially supports said lower end of said shaft; wherein said top section defines an upper bushing therein for radially supporting said upper end of said shaft; and wherein said base section maintains a coaxial relationship between said lower bushing and said upper bushing.