mhurhangee/ep-ind-claims huggingface dataset:
Clear composition comprising: at least one anionic surfactant as component A, at least one betaine surfactant as component B, at least one N-methyl-N-acylglucamine as component C, wherein the N-methyl-N-acylgluamine has a C 8 -C 22 -acyl radical, at least one triglyceride oil as component D, at least one solvent as component E, and optionally one or more additives as component F. at least one anionic surfactant as component A, at least one betaine surfactant as component B, at least one N-methyl-N-acylglucamine as component C, wherein the N-methyl-N-acylgluamine has a C 8 -C 22 -acyl radical, at least one triglyceride oil as component D, at least one solvent as component E, and optionally one or more additives as component F.
Method for fabricating a layup mandrel, comprising providing a first component and a second component characterised in that the first component and the second component are separated from one another by a gap, the gap having a depth and a width, wherein at least one of the first component and the second component comprises a sacrificial edge-tab; and in that the method further comprises: exposing the sacrificial edge-tab to laser energy, the laser energy being sufficient to melt at least a portion of the sacrificial edge-tab; forming a melt-pool in the gap between the first component and the second component, the melt-pool comprising material from the melted portion of the sacrificial edge-tab; and solidifying the melt-pool to form a weld that joins the first component and the second component together. the first component and the second component are separated from one another by a gap, the gap having a depth and a width, wherein at least one of the first component and the second component comprises a sacrificial edge-tab; and in that the method further comprises: exposing the sacrificial edge-tab to laser energy, the laser energy being sufficient to melt at least a portion of the sacrificial edge-tab; forming a melt-pool in the gap between the first component and the second component, the melt-pool comprising material from the melted portion of the sacrificial edge-tab; and solidifying the melt-pool to form a weld that joins the first component and the second component together. exposing the sacrificial edge-tab to laser energy, the laser energy being sufficient to melt at least a portion of the sacrificial edge-tab; forming a melt-pool in the gap between the first component and the second component, the melt-pool comprising material from the melted portion of the sacrificial edge-tab; and solidifying the melt-pool to form a weld that joins the first component and the second component together.
A system for sensing a position of an ultrasound imaging device comprising: an ultrasound imaging device; and a position sensor mount including: an elastic body portion; a first rigid shell disposed on a distal portion of the elastic body portion; a second rigid shell disposed on a proximal portion of the elastic body portion; and a first adhesive disposed on the first rigid shell; and a position sensor mounted on the first rigid shell and configured to sense position information of the US imaging device in a coordinate system, wherein the US imaging device is received by the position sensor mount and circumscribed by the first adhesive. an ultrasound imaging device; and a position sensor mount including: an elastic body portion; a first rigid shell disposed on a distal portion of the elastic body portion; a second rigid shell disposed on a proximal portion of the elastic body portion; and a first adhesive disposed on the first rigid shell; and an elastic body portion; a first rigid shell disposed on a distal portion of the elastic body portion; a second rigid shell disposed on a proximal portion of the elastic body portion; and a first adhesive disposed on the first rigid shell; and a position sensor mounted on the first rigid shell and configured to sense position information of the US imaging device in a coordinate system, wherein the US imaging device is received by the position sensor mount and circumscribed by the first adhesive.
A receiving device, in particular a distributor, for receiving a tube (6 - 8) for electric cables (2 - 5), having: a main body having at least one receptacle portion (19 - 21, 50 - 52), in which an end portion (22 - 24) of the tube (6 - 8) at least in portions is receivable, wherein the main body has a first half shell and a second half shell between which the end portion (22 - 24) of the tube (6 - 8) is disposable; a plurality of engagement portions (27 - 30, 44 - 49) which are deformable in a spring-elastic manner and which protrude radially into the at least one receptacle portion (19 - 21, 50 - 52) and which are specified for engaging in a form-fitting manner in the tube (6 - 8), wherein a first part of the engagement portions (27 - 30, 44 - 49) is provided on the first half shell, and a second part of the engagement portions (27 - 30, 44 - 49) is provided on the second half shell; and an annular portion which encircles the at least one receptacle portion (19 - 21, 50 - 52) and on which the engagement portions (27 - 30, 44 - 49) are provided, wherein the annular portion is subdivided into a first annular segment that is assigned to the first half shell and into a second annular segment that is assigned to the second half shell, and wherein the first annular segment in a closed state of the receiving device protrudes into the second half shell. a main body having at least one receptacle portion (19 - 21, 50 - 52), in which an end portion (22 - 24) of the tube (6 - 8) at least in portions is receivable, wherein the main body has a first half shell and a second half shell between which the end portion (22 - 24) of the tube (6 - 8) is disposable; a plurality of engagement portions (27 - 30, 44 - 49) which are deformable in a spring-elastic manner and which protrude radially into the at least one receptacle portion (19 - 21, 50 - 52) and which are specified for engaging in a form-fitting manner in the tube (6 - 8), wherein a first part of the engagement portions (27 - 30, 44 - 49) is provided on the first half shell, and a second part of the engagement portions (27 - 30, 44 - 49) is provided on the second half shell; and an annular portion which encircles the at least one receptacle portion (19 - 21, 50 - 52) and on which the engagement portions (27 - 30, 44 - 49) are provided, wherein the annular portion is subdivided into a first annular segment that is assigned to the first half shell and into a second annular segment that is assigned to the second half shell, and wherein the first annular segment in a closed state of the receiving device protrudes into the second half shell.
A seat trim cover (12, 52) for a vehicle seat, comprising: a moldable polyurethane cellular foam interlayer (80, 216) having an upper surface; a cover material (78, 212) having a lower surface, the lower surface adhered to the upper surface of the moldable polyurethane cellular foam interlayer (80, 216) to form a laminate blank; the cover material (78, 212) comprising one or more of a vinyl, fabric, and/or leather; wherein the laminate blank is compression molded in a 3-dimensional mold (98, 100) at 10 bar (150 psi) to 17 bar (250 psi) compressive force while at least a portion of the laminate blank is heated to a temperature of 104°C (220°F) to 127°C (260°F) to compression mold the foam interlayer (80, 216) into a 3-dimensional shape. a moldable polyurethane cellular foam interlayer (80, 216) having an upper surface; a cover material (78, 212) having a lower surface, the lower surface adhered to the upper surface of the moldable polyurethane cellular foam interlayer (80, 216) to form a laminate blank; the cover material (78, 212) comprising one or more of a vinyl, fabric, and/or leather; wherein the laminate blank is compression molded in a 3-dimensional mold (98, 100) at 10 bar (150 psi) to 17 bar (250 psi) compressive force while at least a portion of the laminate blank is heated to a temperature of 104°C (220°F) to 127°C (260°F) to compression mold the foam interlayer (80, 216) into a 3-dimensional shape.
A method for multicast load balancing at an access point in a wireless network, the method comprising: receiving a request from a first client for a first multicast stream; providing the first multicast stream to the first client; receiving a request from a second client for a second multicast stream; determining whether the second multicast stream is already being provided by the access point to another client; determining whether there is sufficient bandwidth available for the second multicast stream responsive to determining that the second multicast stream is not already being provided by the access point to another client; and providing the second multicast stream by rate limiting the transmission of the second multicast stream to the second client responsive to determining that the second multicast stream is not already being provided by the access point to another client and that there is insufficient bandwidth available for the second multicast stream, wherein the first multicast stream is not rate limited while rate limiting the second multicast stream. receiving a request from a first client for a first multicast stream; providing the first multicast stream to the first client; receiving a request from a second client for a second multicast stream; determining whether the second multicast stream is already being provided by the access point to another client; determining whether there is sufficient bandwidth available for the second multicast stream responsive to determining that the second multicast stream is not already being provided by the access point to another client; and providing the second multicast stream by rate limiting the transmission of the second multicast stream to the second client responsive to determining that the second multicast stream is not already being provided by the access point to another client and that there is insufficient bandwidth available for the second multicast stream, wherein the first multicast stream is not rate limited while rate limiting the second multicast stream.
A waveguide E-plane filter component comprising a first main part which in turn comprises a first waveguide section part and a second main part which in turn comprises a second waveguide section part, the main parts (2, 4) being arranged to be mounted to each other, each waveguide section part (3, 5) comprising a bottom wall, corresponding side walls and an open side (8, 9), where the open side of the first waveguide section part is arranged to face the open side of the second waveguide section part, where the waveguide E-plane filter component further comprises at least one electrically conducting foil (10, 11) that is arranged to be placed between the first main part and the second main part when the main parts (2, 4) are mounted to each other, said foil (10, 11) having a longitudinal extension and comprising a filter part that is arranged to run between the waveguide section parts (3, 5), the filter part being divided into a first filter part and a second filter part by an imaginary symmetry line running along the longitudinal extension in the middle of the filter part, the filter part at least comprising a first aperture and a second aperture in said foil (10, 11), the major part of the first aperture being, positioned in the first filter part and that the major part of the second aperture being, positioned in the second filter part, characterized in that, all parts of the apertures being separated along the longitudinal extension.
A method for producing oven muffles (10; 52), comprising: (a) providing a muffle floor (12; 60), a muffle top wall, two opposing muffle side walls (16; 32) and a muffle rear wall (18; 62), (b) providing said muffle side walls (16; 32) with means for supporting food preparation trays at a plurality of discrete heights, by alternatively (i) integrally forming a plurality of tracks (34; 54) in the muffle side walls, or (ii) providing for each muffle side wall a tray rack comprising a plurality of tracks and providing means (28, 30, 40) for attaching said racks to said muffle side walls; and (c) connecting said muffle rear wall (18; 62) to said muffle floor (12; 60), said muffle top wall and said muffle side walls (16; 32); in which method a dimensioning and shaping is selected for the components of the oven muffle (10; 52) such that the clear width for insertion of trays at the tray support means of opposing muffle side walls (16; 32) is independent of the choice selected in step (b), in order to provide for the same clear width for insertion of trays into said oven muffle as compared to an oven muffle in which a tray rack is provided, characterized in that said tray racks provided in step (b) (ii) are made of metal bars, and wherein at least one additional plateau is formed in the muffle side wall in step (b) (i), wherein said plateau has a height which corresponds to the diameter of said metal bars. (a) providing a muffle floor (12; 60), a muffle top wall, two opposing muffle side walls (16; 32) and a muffle rear wall (18; 62), (b) providing said muffle side walls (16; 32) with means for supporting food preparation trays at a plurality of discrete heights, by alternatively (i) integrally forming a plurality of tracks (34; 54) in the muffle side walls, or (ii) providing for each muffle side wall a tray rack comprising a plurality of tracks and providing means (28, 30, 40) for attaching said racks to said muffle side walls; and (i) integrally forming a plurality of tracks (34; 54) in the muffle side walls, or (ii) providing for each muffle side wall a tray rack comprising a plurality of tracks and providing means (28, 30, 40) for attaching said racks to said muffle side walls; and (c) connecting said muffle rear wall (18; 62) to said muffle floor (12; 60), said muffle top wall and said muffle side walls (16; 32);
Combustion arrangement, comprising: - a casing; - a combustion chamber arranged within the casing, wherein an inner casing volume (107, 109) is defined to be a volume inside the casing but outside the combustion chamber; - a partitioning wall partitioning the inner casing volume into a first volume portion and a second volume portion, the partitioning wall having at least one aperture (111, 113) to allow fluid communication between the first volume portion and the second volume portion; and - a valve arranged at the casing to allow an outgoing fluid flow from the inner casing volume (107, 109) to an outside of the casing depending on a valve operating position; wherein the combustion chamber has a combustion entry port for supplying an oxidant into the combustion chamber, wherein the combustion entry port is in fluid communication with the first volume portion, wherein the arrangement (100, 125) is adapted to adjust the valve operating position for damping an oscillation of the arrangement. - a casing; - a combustion chamber arranged within the casing, wherein an inner casing volume (107, 109) is defined to be a volume inside the casing but outside the combustion chamber; - a partitioning wall partitioning the inner casing volume into a first volume portion and a second volume portion, the partitioning wall having at least one aperture (111, 113) to allow fluid communication between the first volume portion and the second volume portion; and - a valve arranged at the casing to allow an outgoing fluid flow from the inner casing volume (107, 109) to an outside of the casing depending on a valve operating position; wherein the combustion chamber has a combustion entry port for supplying an oxidant into the combustion chamber, wherein the combustion entry port is in fluid communication with the first volume portion, wherein the arrangement (100, 125) is adapted to adjust the valve operating position for damping an oscillation of the arrangement.
An ignition system comprising: a spark plug; a discharge power supply for applying voltage to the spark plug to generate a spark discharge; and an AC power supply for supplying AC power to a spark generated by the spark discharge, wherein the spark plug includes an insulator having an axial hole extending in an axis direction thereof, an electrode disposed in the axial hole and having a tip end located frontward of a tip end of the insulator in the axis direction, a metal shell arranged on a periphery of the insulator, and a ground electrode fixed to a tip end portion of the metal shell and forming a gap between the tip end portion of the electrode and the ground electrode, voltage from the discharge power supply and AC power from the AC power supply are supplied to the gap through the electrode, and the AC power from the AC power supply is applied to a spark generated by the voltage from the discharge power supply in the gap; wherein, with a wavelength of the AC power set to λ (m), a protruding length of the tip end of the electrode from the tip end of the metal shell along the axis is set to λ/8 (m) or less. a spark plug; a discharge power supply for applying voltage to the spark plug to generate a spark discharge; and an AC power supply for supplying AC power to a spark generated by the spark discharge, wherein the spark plug includes an insulator having an axial hole extending in an axis direction thereof, an electrode disposed in the axial hole and having a tip end located frontward of a tip end of the insulator in the axis direction, a metal shell arranged on a periphery of the insulator, and a ground electrode fixed to a tip end portion of the metal shell and forming a gap between the tip end portion of the electrode and the ground electrode, voltage from the discharge power supply and AC power from the AC power supply are supplied to the gap through the electrode, and the AC power from the AC power supply is applied to a spark generated by the voltage from the discharge power supply in the gap; wherein, with a wavelength of the AC power set to λ (m), a protruding length of the tip end of the electrode from the tip end of the metal shell along the axis is set to λ/8 (m) or less.
A linear electro-mechanical actuator with built-in anti-rotation, comprising: - a containment structure housing an electric motor, the electric motor comprising an outer stator and a rotor positioned inside the stator; - at least one pusher designed to translate relative to the containment structure in such a way that it at least partly comes out of the containment structure during actuator operation; - a nut located in the containment structure and inside the rotor, in rigid connection with the rotor, and able to rotate about an axis which coincides with the axis of the rotor, the nut being driven by the electromagnetic interaction between the rotor and the stator; - a screw shaft inserted in the nut and connected to the pusher, the screw shaft being interconnected with the nut by means of a helical recirculating ball coupling (5a, 6a) in such a way that a rotation of the nut causes a translation of the screw shaft along the axis; - an anti-rotation mechanism acting on the screw shaft to prevent the screw shaft from rotating about said axis; wherein the anti-rotation mechanism comprises at least one guide bar fixed to the containment structure and coupled in a sliding fashion with the screw shaft, the guide bar extending along a direction parallel to the axis and spaced from the axis. - a containment structure housing an electric motor, the electric motor comprising an outer stator and a rotor positioned inside the stator; - at least one pusher designed to translate relative to the containment structure in such a way that it at least partly comes out of the containment structure during actuator operation; - a nut located in the containment structure and inside the rotor, in rigid connection with the rotor, and able to rotate about an axis which coincides with the axis of the rotor, the nut being driven by the electromagnetic interaction between the rotor and the stator; - a screw shaft inserted in the nut and connected to the pusher, the screw shaft being interconnected with the nut by means of a helical recirculating ball coupling (5a, 6a) in such a way that a rotation of the nut causes a translation of the screw shaft along the axis; - an anti-rotation mechanism acting on the screw shaft to prevent the screw shaft from rotating about said axis;
A system for ascertaining a location of a sensing electrode within a body of a subject, the system comprising: Circuitry, configured to, while the sensing electrode is connected to a sampling terminal of an analog-to-digital (A/D) converter, connect three pairs of electrodes (30x, 30y, 30z), which are coupled to the body of the subject such that the pairs lie along different respective axes that are orthogonal to each other, in multiple different configurations, in each of which (i) at least one of the pairs is connected to respective terminals of a signal generator, such that the signal generator applies an alternating voltage between the pair, thus causing a sensing-electrode voltage to be attained at the sensing electrode, and (ii) at least one other one of the pairs is connected to a ground terminal of the A/D converter; and a processor, configured to: for each configuration, receive, from the A/D converter, a digital representation of a sampling-terminal voltage at the sampling terminal with respect to the ground terminal, identify respective amplitudes of the sensing-electrode voltage for the configurations, based on the digital representation of the sampling-terminal voltage received for each configuration, and based on the respective amplitudes of the sensing-electrode voltage, ascertain the location. Circuitry, configured to, while the sensing electrode is connected to a sampling terminal of an analog-to-digital (A/D) converter, connect three pairs of electrodes (30x, 30y, 30z), which are coupled to the body of the subject such that the pairs lie along different respective axes that are orthogonal to each other, in multiple different configurations, in each of which (i) at least one of the pairs is connected to respective terminals of a signal generator, such that the signal generator applies an alternating voltage between the pair, thus causing a sensing-electrode voltage to be attained at the sensing electrode, and (ii) at least one other one of the pairs is connected to a ground terminal of the A/D converter; and a processor, configured to: for each configuration, receive, from the A/D converter, a digital representation of a sampling-terminal voltage at the sampling terminal with respect to the ground terminal, identify respective amplitudes of the sensing-electrode voltage for the configurations, based on the digital representation of the sampling-terminal voltage received for each configuration, and based on the respective amplitudes of the sensing-electrode voltage, ascertain the location. for each configuration, receive, from the A/D converter, a digital representation of a sampling-terminal voltage at the sampling terminal with respect to the ground terminal, identify respective amplitudes of the sensing-electrode voltage for the configurations, based on the digital representation of the sampling-terminal voltage received for each configuration, and based on the respective amplitudes of the sensing-electrode voltage, ascertain the location.