mhurhangee/patent-ind-claim-en huggingface dataset:
Body provided with a superficial area adapted to reduce drag when the body is moving relative to a gaseous or watery medium, comprising depressions in said superficial area , wherein the depressions have a greater length than width, wherein the depressions are deprived of sharp edges in a transitional area wherein the depressions meet the superficial area , and that the depressions have a maximum depth (D) relative to the superficial area of 5% of the depressions' width, wherein the depressions are provided with a curvature in a length direction of said depressions so as to cause that in use a turbulent boundary layer of the gaseous or watery medium adjacent to the superficial area is exposed to lateral excitation with reference to a movement direction of the body relative to the gaseous or watery medium or with reference to a flow direction of said turbulent boundary layer along said superficial area of the body .
Arrangement for automatically configuring a magnetic drive (2-4, 16-19), said arrangement comprising: a vacuum switching device (8-14) having a movable contact and a fixed contact , and a magnetic drive (2-4, 16-19) having two coils which can be connected in parallel or in series, wherein the magnetic drive (2-4, 16-19) is designed, in the switched-on state, to exert an attractive force (F) on a magnet armature and to move said magnet armature, and a transfer mechanism (5-7) which is designed to translate a movement of the magnet armature into a movement of the movable contact toward the fixed contact , and an actuating device for the magnetic drive (2-4, 16-19), which actuating device can be configured for an input voltage, characterized in that the magnetic drive (2-4, 16-19) has controllable switching devices (16-19) for the coils , and in that a configuration device is designed to measure the input voltage and to configure the actuating device for the measured input voltage, and to interconnect the coils in parallel or in series depending on the measured input voltage by means of the controllable switching devices (16-19). a vacuum switching device (8-14) having a movable contact and a fixed contact , and a magnetic drive (2-4, 16-19) having two coils which can be connected in parallel or in series, wherein the magnetic drive (2-4, 16-19) is designed, in the switched-on state, to exert an attractive force (F) on a magnet armature and to move said magnet armature, and a transfer mechanism (5-7) which is designed to translate a movement of the magnet armature into a movement of the movable contact toward the fixed contact , and an actuating device for the magnetic drive (2-4, 16-19), which actuating device can be configured for an input voltage, characterized in that the magnetic drive (2-4, 16-19) has controllable switching devices (16-19) for the coils , and in that a configuration device is designed to measure the input voltage and to configure the actuating device for the measured input voltage, and to interconnect the coils in parallel or in series depending on the measured input voltage by means of the controllable switching devices (16-19).
A system of an engine , comprising: a clearance control thermal ring ; and a seal ring , wherein a radial gap (240;504) with respect to an axial centerline of the engine is formed between a radial end of the clearance control thermal ring and a facing radial surface of the seal ring , wherein the clearance control thermal ring is made of a first material and the seal ring is made of a second material that is different from the first material, and characterised in that a first coefficient of thermal expansion of the first material is less than a second coefficient of thermal expansion of the second material so as to decrease a radial length of the radial gap (240;504) as a temperature of the clearance control thermal ring and the seal ring increases, thereby effectuating radially outward growth of the seal ring with respect to the axial centerline , wherein the system is configured to limit radially outward growth of the seal ring beyond a predetermined position corresponding to a position of the seal ring when the radial gap (240;504) is closed. a clearance control thermal ring ; and a seal ring , wherein a radial gap (240;504) with respect to an axial centerline of the engine is formed between a radial end of the clearance control thermal ring and a facing radial surface of the seal ring , wherein the clearance control thermal ring is made of a first material and the seal ring is made of a second material that is different from the first material, and characterised in that a first coefficient of thermal expansion of the first material is less than a second coefficient of thermal expansion of the second material so as to decrease a radial length of the radial gap (240;504) as a temperature of the clearance control thermal ring and the seal ring increases, thereby effectuating radially outward growth of the seal ring with respect to the axial centerline , wherein the system is configured to limit radially outward growth of the seal ring beyond a predetermined position corresponding to a position of the seal ring when the radial gap (240;504) is closed.
A method of managing a wireless connection in a voice and data communication, comprising: receiving radio link control, RLC, control information, including one or more RLC flow control thresholds; detecting one or more radio frequency, RF, conditions indicating RF quality; evaluating whether the RF conditions indicate that RLC flow control has surpassed a threshold trigger point indicated by the one or more RLC flow control thresholds; determining whether there is transmit data available in an RLC buffer; and dynamically adjusting , independent of the one or more RLC flow control thresholds in the received RLC control information, the RLC flow control by extending a range of allowable settings of RLC flow control parameters in response to_a determination that the RLC flow control has surpassed the threshold trigger point and there is transmit data available in the RLC buffer. receiving radio link control, RLC, control information, including one or more RLC flow control thresholds; detecting one or more radio frequency, RF, conditions indicating RF quality; evaluating whether the RF conditions indicate that RLC flow control has surpassed a threshold trigger point indicated by the one or more RLC flow control thresholds; determining whether there is transmit data available in an RLC buffer; and dynamically adjusting , independent of the one or more RLC flow control thresholds in the received RLC control information, the RLC flow control by extending a range of allowable settings of RLC flow control parameters in response to_a determination that the RLC flow control has surpassed the threshold trigger point and there is transmit data available in the RLC buffer.
Method for producing a component of an electromechanical transducer that has windings, wherein the method comprises the steps of: molding one of the free ends of two winding-forming conductor pieces which are to be conductively interconnected; arranging and fixing the conductor pieces to be interconnected in the component of the electromechanical transducer in a configuration intended for a welding process; wherein the molding, arranging and fixing is carried out in such a way that the two conductor pieces abut one another in the intended configuration and a recess which widens toward the free ends is provided between the two conductor pieces ; welding the two conductor pieces to be connected by means of a beam welding process, wherein the beam is introduced into the widening recess so that a conductive weld connection is established which connects the two conductor pieces to be interconnected; characterized in that the two conductor pieces to be interconnected have the same conductor cross section and in that the conductive weld connection has a cross section of at least 80% and at most 140% of the conductor cross section of the conductor pieces . molding one of the free ends of two winding-forming conductor pieces which are to be conductively interconnected; arranging and fixing the conductor pieces to be interconnected in the component of the electromechanical transducer in a configuration intended for a welding process; wherein the molding, arranging and fixing is carried out in such a way that the two conductor pieces abut one another in the intended configuration and a recess which widens toward the free ends is provided between the two conductor pieces ; welding the two conductor pieces to be connected by means of a beam welding process, wherein the beam is introduced into the widening recess so that a conductive weld connection is established which connects the two conductor pieces to be interconnected; characterized in that the two conductor pieces to be interconnected have the same conductor cross section and in that the conductive weld connection has a cross section of at least 80% and at most 140% of the conductor cross section of the conductor pieces .
A head-mounted display comprising an optical element , wherein the optical element comprises: a primary electrode ; a secondary electrode overlapping at least a portion of the primary electrode; and an electroactive ceramic layer disposed between and abutting the primary electrode and the secondary electrode, wherein the electroactive ceramic layer comprises an average grain size of less than 200 nm; a relative density of at least 99%; a transmissivity within the visible spectrum of at least 50%; and a thickness ranging from 10 nanometers to 300 micrometers. a primary electrode ; a secondary electrode overlapping at least a portion of the primary electrode; and an electroactive ceramic layer disposed between and abutting the primary electrode and the secondary electrode, wherein the electroactive ceramic layer comprises an average grain size of less than 200 nm; a relative density of at least 99%; a transmissivity within the visible spectrum of at least 50%; and a thickness ranging from 10 nanometers to 300 micrometers.
A metering system for a fuel atomizer, comprising: a housing having a mixing chamber ; a first metering member positioned within the housing and operable to control flow of oxidizer to the mixing chamber ; a second metering member positioned within the housing and arranged coaxial with and extending through the first metering member , the second metering member being operable to control flow of fuel to the mixing chamber , with the first metering member being configured to move from a closed position to an open position before the second metering member moves from a closed position to an open position; a biasing member interposed between the first and second metering members , ; and a single solenoid configured to control movement of both the first metering member and the second metering member , characterized in that : a plurality of flow channels extend from the first metering member to the mixing chamber , the flow channels being arranged to create a swirl effect of oxidizer within the mixing chamber ; and moving the first metering member from the closed position to the open position releases the biasing member to permit the second metering member to move from a closed position to an open position, with a spring constant of the biasing member determining an amount of time that the first metering member is open before the second metering member opens and an amount of time the first metering member is open after the second metering member closes. a housing having a mixing chamber ; a first metering member positioned within the housing and operable to control flow of oxidizer to the mixing chamber ; a second metering member positioned within the housing and arranged coaxial with and extending through the first metering member , the second metering member being operable to control flow of fuel to the mixing chamber , with the first metering member being configured to move from a closed position to an open position before the second metering member moves from a closed position to an open position; a biasing member interposed between the first and second metering members , ; and a single solenoid configured to control movement of both the first metering member and the second metering member , characterized in that : a plurality of flow channels extend from the first metering member to the mixing chamber , the flow channels being arranged to create a swirl effect of oxidizer within the mixing chamber ; and moving the first metering member from the closed position to the open position releases the biasing member to permit the second metering member to move from a closed position to an open position, with a spring constant of the biasing member determining an amount of time that the first metering member is open before the second metering member opens and an amount of time the first metering member is open after the second metering member closes.
A medical device, comprising: a vascular access device for communicating with the vascular system of a patient, wherein the vascular access device comprises: a body with a lumen, and a status indicator comprising: a reservoir having a colored liquid and a seal configured to break in response to pressure to release the colored liquid from the reservoir; a window disposed a distance from the reservoir; a fluid channel between the reservoir and the window ; and a porous or absorbent material disposed within the fluid channel and configured to wick the colored liquid from the reservoir to the window. a body with a lumen, and a status indicator comprising: a reservoir having a colored liquid and a seal configured to break in response to pressure to release the colored liquid from the reservoir; a window disposed a distance from the reservoir; a fluid channel between the reservoir and the window ; and a porous or absorbent material disposed within the fluid channel and configured to wick the colored liquid from the reservoir to the window. a reservoir having a colored liquid and a seal configured to break in response to pressure to release the colored liquid from the reservoir; a window disposed a distance from the reservoir; a fluid channel between the reservoir and the window ; and a porous or absorbent material disposed within the fluid channel and configured to wick the colored liquid from the reservoir to the window.
A method for real-time formation assessment using a multi-component induction logging tool comprising: conveying a multi-component induction (MCI) logging tool along a borehole through a formation; determining a relative dip and a relative azimuth of the formation based on measurement data from the MCI logging tool; calculating true dip and true azimuth of the formation based on the relative dip and the relative azimuth; and assessing a quality of the true dip and the true azimuth calculations. conveying a multi-component induction (MCI) logging tool along a borehole through a formation; determining a relative dip and a relative azimuth of the formation based on measurement data from the MCI logging tool; calculating true dip and true azimuth of the formation based on the relative dip and the relative azimuth; and assessing a quality of the true dip and the true azimuth calculations.
A filter element assembly which comprises a filtration media and an end fitting through which a sealing connection is made between the filter element assembly and a housing so that, when the sealing connection is made, the end fitting defines in part a flow path for fluid between the housing and the filtration media, characterised in that the end fitting has first and second parts which can be separated axially, the filtration media extending axially away from the second part in a direction away from the first part, each of the first and second parts having an outer wall (204, 206; 160, 162) with an external cylindrical surface which is threaded (212; 158), and in which each of the first and second parts has an axially facing edge surface (208, 210; 163) which faces the other of the first and second parts, the facing edge surfaces being shaped to define a pre-determined relative rotational alignment of the first and second parts in which the first and second parts fit together so that the threads on the external surfaces of the first and second parts form a continuous thread .
An integrated circuit comprising an interconnection system which comprises a multilevel routing track the multilevel routing track comprising at least a first and a second conductive line, wherein each of the first and the second conductive line comprises conductive parts extending in parallel in at least three levels including a lower extension line level (L0), a centerline level (L1) arranged directly above the lower extension line level and an upper extension line level (L2) arranged directly above the centerline level, wherein the conductive parts in said three levels have longitudinal sidewalls that are coplanar; wherein a first of the conductive parts of the first conductive line is arranged in the lower extension line level; wherein a first of the conductive parts of the second conductive line is arranged in the upper extension line level; the first conductive part of the first conductive line and the first conductive part of the second conductive line being separated by an insulating layer arranged in the centerline level; the first conductive part of the first conductive line being connected to a first crossing conductive line under the first conductive part of the first conductive line, and the first conductive part of the second conductive line being connected to a second crossing conductive line over the first conductive part of the first conductive line. the multilevel routing track comprising at least a first and a second conductive line, wherein each of the first and the second conductive line comprises conductive parts extending in parallel in at least three levels including a lower extension line level (L0), a centerline level (L1) arranged directly above the lower extension line level and an upper extension line level (L2) arranged directly above the centerline level, wherein the conductive parts in said three levels have longitudinal sidewalls that are coplanar; wherein a first of the conductive parts of the first conductive line is arranged in the lower extension line level; wherein a first of the conductive parts of the second conductive line is arranged in the upper extension line level; the first conductive part of the first conductive line and the first conductive part of the second conductive line being separated by an insulating layer arranged in the centerline level; the first conductive part of the first conductive line being connected to a first crossing conductive line under the first conductive part of the first conductive line, and the first conductive part of the second conductive line being connected to a second crossing conductive line over the first conductive part of the first conductive line.
Vehicle comprising a steering column partly masked by complementary lower and upper shells and to which an anti-theft device is laterally coupled, said lower shell comprising a lower wall having an internal surface on which is installed a first impact absorption part and a lateral wall defining a lateral bulge housing a part of said anti-theft device , characterized in that it further comprises a second impact absorption part installed in said lateral bulge under said anti-theft device .
A sole structure for an article of footwear having an upper , the sole structure comprising: a fluid-filled chamber including a first barrier layer , a second barrier layer secured to the first barrier layer to define an interior void between the first barrier layer and the second barrier layer, a foam structure disposed within the interior void, the foam structure including a first concave surface opposing the upper, and a tensile member disposed within the interior void between the foam structure and one of the first barrier layer and the second barrier layer, the tensile member including a plurality of fibers extending in a first direction between the first barrier layer and the second barrier layer, wherein the fluid-filled chamber and the foam structure extend from a forefoot region of the sole structure to a heel region of the sole structure. a fluid-filled chamber including a first barrier layer , a second barrier layer secured to the first barrier layer to define an interior void between the first barrier layer and the second barrier layer, a foam structure disposed within the interior void, the foam structure including a first concave surface opposing the upper, and a tensile member disposed within the interior void between the foam structure and one of the first barrier layer and the second barrier layer, the tensile member including a plurality of fibers extending in a first direction between the first barrier layer and the second barrier layer, wherein the fluid-filled chamber and the foam structure extend from a forefoot region of the sole structure to a heel region of the sole structure.
A method for manufacturing a thermo-optic component , comprising the following steps of: a) providing a SOI substrate comprising: - a surface layer made of monocrystalline silicon, extending according to a main plane (x,y) and disposed on a dielectric layer , which is itself disposed on a support made of silicon, and - at least one buried cavity , arranged in the support and opening under the dielectric layer , and then, b) forming an optical waveguide extending in the main plane (x,y) and comprising a core formed in the surface layer and surrounded by an optical confinement layer including the dielectric layer , and then, c) producing at least one heating element on the optical waveguide , said heating element being positioned, in the main plane (x,y), vertically in line with a portion of the optical waveguide , or on either side of said portion , the heating element and the portion of the optical waveguide being vertically in line with the at least one buried cavity . a) providing a SOI substrate comprising: - a surface layer made of monocrystalline silicon, extending according to a main plane (x,y) and disposed on a dielectric layer , which is itself disposed on a support made of silicon, and - at least one buried cavity , arranged in the support and opening under the dielectric layer , and then, - a surface layer made of monocrystalline silicon, extending according to a main plane (x,y) and disposed on a dielectric layer , which is itself disposed on a support made of silicon, and - at least one buried cavity , arranged in the support and opening under the dielectric layer , and then, b) forming an optical waveguide extending in the main plane (x,y) and comprising a core formed in the surface layer and surrounded by an optical confinement layer including the dielectric layer , and then, c) producing at least one heating element on the optical waveguide , said heating element being positioned, in the main plane (x,y), vertically in line with a portion of the optical waveguide , or on either side of said portion , the heating element and the portion of the optical waveguide being vertically in line with the at least one buried cavity .
A process for repairing defects on a carbon fiber reinforced plastic, CFRP, component, wherein defects on the CFRP component are selectively repaired by electrodeposition coating using an insulating coating material, characterized in that the electrodeposition coating is carried out with an electrically insulating dipping varnish that can be cured at a temperature at or below 250°C.