mhurhangee/patent-ind-claim-en huggingface dataset:
A seal assembly, comprising: a seal arc segment defining first and second seal supports ; a carriage defining first and second support members , the first support member supporting the seal arc segment in a first ramped interface and the second support member supporting the seal arc segment in a second ramped interface ; a spring configured to bias the seal arc segment axially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment; and a heat shield radially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, inward of the spring ; further comprising the heat shield having a radially-extending, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, leg disposed axially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, between the spring and the seal arc segment . a seal arc segment defining first and second seal supports ; a carriage defining first and second support members , the first support member supporting the seal arc segment in a first ramped interface and the second support member supporting the seal arc segment in a second ramped interface ; a spring configured to bias the seal arc segment axially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment; and a heat shield radially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, inward of the spring ; further comprising the heat shield having a radially-extending, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, leg disposed axially, relative to a central longitudinal axis (A) defined by the curvature of the arc of the seal arc segment, between the spring and the seal arc segment .
Regulating member for a mechanical chronograph movement comprising a vibrating oscillator including a tuning-fork or a vibrating blade mechanically connected to an anchor having impulse surfaces alternately receiving a mechanical impulse from teeth of an escapement wheel , so as to maintain isochronous oscillations of said vibrating oscillator, and to advance said escapement wheel by one tooth with each alternation of said oscillations, a barrel driving said escapement wheel through a gear , said vibrating oscillator comprising an end fixed with respect to a plate and a free end, the anchor comprising a flexible beam having a first end and a second end, and two arms integral with said first end of said flexible beam , characterized in that the free end of said vibrating oscillator is connected to the second end of said flexible beam so that the vibrations of the free end of the vibrating oscillator are transmitted through this connection to the flexible beam and so that the vibrations of the flexible beam are transmitted through this connection to the vibrating oscillator .
An ophthalmic apparatus having regions of one or more base spherical powers and one or more cylinder powers that are added to the one or more base spherical power for correcting an astigmatism, the apparatus comprising two or more optical zones , wherein the two or more optical zones include: a first optical zone defined by a freeform-polynomial surface area coincident with one or more distinct cylinder powers, wherein the first freeform-polynomial surface area is defined as a mathematical expression comprising a combination of one or more polynomial expressions each having a distinct complex orders; and a second optical zone defined by a second freeform-polynomial surface region, wherein the second freeform-polynomial surface area is characterized and defined by a second polynomial, wherein the two or more optical zones are configured such that incident light is focused to a plurality of focus points that are offset radially to one another thereby establishing a band of operational meridian for the apparatus to an intended correction meridian. wherein the two or more optical zones include: a first optical zone defined by a freeform-polynomial surface area coincident with one or more distinct cylinder powers, wherein the first freeform-polynomial surface area is defined as a mathematical expression comprising a combination of one or more polynomial expressions each having a distinct complex orders; and a second optical zone defined by a second freeform-polynomial surface region, wherein the second freeform-polynomial surface area is characterized and defined by a second polynomial, a first optical zone defined by a freeform-polynomial surface area coincident with one or more distinct cylinder powers, wherein the first freeform-polynomial surface area is defined as a mathematical expression comprising a combination of one or more polynomial expressions each having a distinct complex orders; and a second optical zone defined by a second freeform-polynomial surface region, wherein the second freeform-polynomial surface area is characterized and defined by a second polynomial, wherein the two or more optical zones are configured such that incident light is focused to a plurality of focus points that are offset radially to one another thereby establishing a band of operational meridian for the apparatus to an intended correction meridian.
A discharge unit comprising: a casing having a front side opposite of a rear side, a top side opposite of a bottom side and two opposing lateral sides, in which an air passage extending from the front side of the casing to the rear side of the casing is formed to allow air to pass therethrough; a discharge electrode and a counter electrode located in the air passage ; and a voltage supply section configured to give a potential difference between the discharge electrode and the counter electrode , wherein the discharge unit includes an insulating member having a support which supports the discharge electrode and a base which supports the counter electrode , the counter electrode is supported on a periphery of the base , the base has a recess recessed in a direction extending from the top side of the casing to the bottom side of the casing and intersecting with a flow of air flowing through the air passage , and the support extends from a bottom of the recess to protrude outward from an open end of the recess , wherein the base has an elongated shape extending in a direction extending from a lateral side of the casing to the other lateral side of the casing and intersecting with the flow of air, and the recess has an elongated shape extending in the direction extending from a lateral side of the casing to the other lateral side of the casing along the base . a casing having a front side opposite of a rear side, a top side opposite of a bottom side and two opposing lateral sides, in which an air passage extending from the front side of the casing to the rear side of the casing is formed to allow air to pass therethrough; a discharge electrode and a counter electrode located in the air passage ; and a voltage supply section configured to give a potential difference between the discharge electrode and the counter electrode , wherein the discharge unit includes an insulating member having a support which supports the discharge electrode and a base which supports the counter electrode , the counter electrode is supported on a periphery of the base , the base has a recess recessed in a direction extending from the top side of the casing to the bottom side of the casing and intersecting with a flow of air flowing through the air passage , and the support extends from a bottom of the recess to protrude outward from an open end of the recess , wherein the base has an elongated shape extending in a direction extending from a lateral side of the casing to the other lateral side of the casing and intersecting with the flow of air, and the recess has an elongated shape extending in the direction extending from a lateral side of the casing to the other lateral side of the casing along the base .
A micromechanical reflector system comprising one or more supports and a reflector body, wherein the reflector body is suspended from the one or more supports by four suspenders , whereby each suspender comprises an outer section , a middle section and an inner section , wherein: the outer section is fixed at a first end to one of the one or more supports and is connected at the second end to the middle section, and wherein the outer section extends from the support in a first direction around a portion of the perimeter of the reflector body to the middle section; the inner section is disposed between the outer section and the reflector body and is connected at a first end to the middle section, wherein the inner section extends from the middle section in a second direction, opposite to the first direction, around at least part of the portion of the perimeter of the reflector body; characterised in that the reflector body is connected to the suspender at the middle section and a second end of the inner section distal to the middle section; and a first piezoelectric actuator is located on the outer section and a second piezoelectric actuator is located on the inner section. the outer section is fixed at a first end to one of the one or more supports and is connected at the second end to the middle section, and wherein the outer section extends from the support in a first direction around a portion of the perimeter of the reflector body to the middle section; the inner section is disposed between the outer section and the reflector body and is connected at a first end to the middle section, wherein the inner section extends from the middle section in a second direction, opposite to the first direction, around at least part of the portion of the perimeter of the reflector body; characterised in that the reflector body is connected to the suspender at the middle section and a second end of the inner section distal to the middle section; and a first piezoelectric actuator is located on the outer section and a second piezoelectric actuator is located on the inner section.
Wearable device that is configured to be powered by a smart device via a microphone interface of the wearable device , the wearable device comprising: a power management module connected to the microphone interface ; a function module connected to the power management module ; and a control module connected to the power management module and configured to: monitor whether a user instruction comprises a voice communication instruction; and enable the power management module to supply power to a microphone and output a first voltage to supply power to the control module if the user instruction comprises the voice communication instruction; otherwise, enable the power management module to cut off the power supply to the microphone and output a second voltage to supply power to the control module and the function module , or output the first voltage to supply power to the control module and output the second voltage to supply power to the function module , wherein the first voltage is less than the second voltage. a power management module connected to the microphone interface ; a function module connected to the power management module ; and a control module connected to the power management module and configured to: monitor whether a user instruction comprises a voice communication instruction; and enable the power management module to supply power to a microphone and output a first voltage to supply power to the control module if the user instruction comprises the voice communication instruction; otherwise, enable the power management module to cut off the power supply to the microphone and output a second voltage to supply power to the control module and the function module , or output the first voltage to supply power to the control module and output the second voltage to supply power to the function module , wherein the first voltage is less than the second voltage. monitor whether a user instruction comprises a voice communication instruction; and enable the power management module to supply power to a microphone and output a first voltage to supply power to the control module if the user instruction comprises the voice communication instruction; otherwise, enable the power management module to cut off the power supply to the microphone and output a second voltage to supply power to the control module and the function module , or output the first voltage to supply power to the control module and output the second voltage to supply power to the function module , wherein the first voltage is less than the second voltage.
An apparatus of a User Equipment, UE, operable to communicate with a fifth-generation Evolved Node-B, gNB, on a wireless network, the apparatus comprising: a receiving circuitry configured to receive a wireless communication having one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols within a plurality of slots, wherein at least one slot from among the plurality of slots includes a Tracking Reference Signal, TRS, transmission and a Synchronization Signal block, SS-block, transmission , the TRS transmission spanning one or more OFDM symbols following one or more OFDM symbols of SS-block transmission ; one or more processors to: process the TRS transmission , process the SS-block transmission , and measure a reference signal parameter based on the TRS transmission and the SS- block transmission ; and an interface for receiving the TRS transmission and the SS-block transmission from the receiving circuitry. a receiving circuitry configured to receive a wireless communication having one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols within a plurality of slots, wherein at least one slot from among the plurality of slots includes a Tracking Reference Signal, TRS, transmission and a Synchronization Signal block, SS-block, transmission , the TRS transmission spanning one or more OFDM symbols following one or more OFDM symbols of SS-block transmission ; one or more processors to: process the TRS transmission , process the SS-block transmission , and measure a reference signal parameter based on the TRS transmission and the SS- block transmission ; and an interface for receiving the TRS transmission and the SS-block transmission from the receiving circuitry. process the TRS transmission , process the SS-block transmission , and measure a reference signal parameter based on the TRS transmission and the SS- block transmission ; and an interface for receiving the TRS transmission and the SS-block transmission from the receiving circuitry.
A detection apparatus comprising: an inclination sensor arranged to be capable of inclining according to an outer shape of a specimen container , wherein the specimen container has a varied outer diameter along an axial direction, the inclination sensor configured to detect inclination information; and an information processor configured to detect posture information of the specimen container based on the inclination information; wherein the inclination sensor is at a tilting member comprising a detection surface facing an outer face of the specimen container , and the detection apparatus further comprises a mover supporting the tilting member in such a manner that the tilting member is tiltable, the mover configured to move the tilting member between a detecting position where the detection surface is configured to contact the outer face of the specimen container and a standby position where the detection surface is away from the specimen container ; characterized in that the inclination sensor is configured such that the tilting member is adapted to move in a direction approaching to or separating from the placement plane wherein the specimen container is placed, the tilting member is a plate member, and the mover comprises a support shaft coupled to the plate member, a driver configured to reciprocate the support shaft, and a guide rail configured to guide the support shaft to move in a direction to approach or separate from the outer face of the specimen container . an inclination sensor arranged to be capable of inclining according to an outer shape of a specimen container , wherein the specimen container has a varied outer diameter along an axial direction, the inclination sensor configured to detect inclination information; and an information processor configured to detect posture information of the specimen container based on the inclination information; wherein the inclination sensor is at a tilting member comprising a detection surface facing an outer face of the specimen container , and the detection apparatus further comprises a mover supporting the tilting member in such a manner that the tilting member is tiltable, the mover configured to move the tilting member between a detecting position where the detection surface is configured to contact the outer face of the specimen container and a standby position where the detection surface is away from the specimen container ; characterized in that the inclination sensor is configured such that the tilting member is adapted to move in a direction approaching to or separating from the placement plane wherein the specimen container is placed, the tilting member is a plate member, and the mover comprises a support shaft coupled to the plate member, a driver configured to reciprocate the support shaft, and a guide rail configured to guide the support shaft to move in a direction to approach or separate from the outer face of the specimen container .
A high-strength steel sheet excellent in chemical conversion treatability, having: a composition containing C: 0.02% to less than 0.10%, Si: 0.001% to less than 0.1%, Mn: 0.2% to less than 1.0%, P: 0.10% or less, S: 0.020% or less, Al: 0.01% to 0.10%, N: 0.010% or less, Nb: 0.003% to 0.050% on a mass basis, and optionally one or more of Cr: less than 0.5%, Mo: 0.3% or less, B: 0.005% or less, Cu: 0.3% or less, and Ni: 0.3% or less, the remainder being Fe and inevitable impurities; a steel microstructure (i) which contains ferrite: 90% or more and a total of pearlite, martensite, retained austenite, and cementite: 0% to 10% on an area fraction basis, (ii) in which the average grain size of the ferrite is 15.0 μm or less, and (iii) in which the average aspect ratio of the ferrite is 1.2 or more; an area fraction of a micro-region free from phosphates of 5% or less; and a tensile strength of 300 MPa to 500 MPa. a composition containing C: 0.02% to less than 0.10%, Si: 0.001% to less than 0.1%, Mn: 0.2% to less than 1.0%, P: 0.10% or less, S: 0.020% or less, Al: 0.01% to 0.10%, N: 0.010% or less, Nb: 0.003% to 0.050% on a mass basis, and optionally one or more of Cr: less than 0.5%, Mo: 0.3% or less, B: 0.005% or less, Cu: 0.3% or less, and Ni: 0.3% or less, the remainder being Fe and inevitable impurities; a steel microstructure (i) which contains ferrite: 90% or more and a total of pearlite, martensite, retained austenite, and cementite: 0% to 10% on an area fraction basis, (ii) in which the average grain size of the ferrite is 15.0 μm or less, and (iii) in which the average aspect ratio of the ferrite is 1.2 or more; (i) which contains ferrite: 90% or more and a total of pearlite, martensite, retained austenite, and cementite: 0% to 10% on an area fraction basis, (ii) in which the average grain size of the ferrite is 15.0 μm or less, and (iii) in which the average aspect ratio of the ferrite is 1.2 or more; an area fraction of a micro-region free from phosphates of 5% or less; and a tensile strength of 300 MPa to 500 MPa.
A power module stack for switching a current in a converter and comprising at least two power modules connected in series, each power module comprises: a plurality of normally-on semiconductor switches based on a wide bandgap substrate, the normally-on semiconductor switches connected in parallel; a balancing unit comprising a capacitor and a balancing semiconductor switch connected in series configured for balancing the module voltages of the power module stack, which are connected in parallel to the normally-on semiconductor switches ; a controller adapted for providing a gate signal for the normally-on semiconductor switches and for providing a gate signal for the balancing semiconductor switch ; wherein the controller is adapted for turning the normally-on semiconductor switches on and off with a given switching frequency; wherein the controller is adapted for turning off the balancing semiconductor switch , when the normally-on semiconductor switches are turned on and for turning on the balancing semiconductor switch , when the normally-on semiconductor switches are turned off. a plurality of normally-on semiconductor switches based on a wide bandgap substrate, the normally-on semiconductor switches connected in parallel; a balancing unit comprising a capacitor and a balancing semiconductor switch connected in series configured for balancing the module voltages of the power module stack, which are connected in parallel to the normally-on semiconductor switches ; a controller adapted for providing a gate signal for the normally-on semiconductor switches and for providing a gate signal for the balancing semiconductor switch ; wherein the controller is adapted for turning the normally-on semiconductor switches on and off with a given switching frequency; wherein the controller is adapted for turning off the balancing semiconductor switch , when the normally-on semiconductor switches are turned on and for turning on the balancing semiconductor switch , when the normally-on semiconductor switches are turned off.
A method of forming a film cooling hole in a component having an internal surface and an external surface, the method comprising: forming the component with a first feature on the external surface; and measuring a geometry of the external surface to determine a first placement of the first feature; wherein the first feature is an indentation and the first placement is at a location of maximum depth of the first feature; characterised in that the method further comprises: forming the component with a second feature on the internal surface, the second feature having an indentation; measuring a geometry of the internal surface to determine a second placement of the second feature; drilling the film cooling hole through the component from the first placement to the second placement. forming the component with a first feature on the external surface; and measuring a geometry of the external surface to determine a first placement of the first feature; wherein the first feature is an indentation and the first placement is at a location of maximum depth of the first feature; forming the component with a second feature on the internal surface, the second feature having an indentation; measuring a geometry of the internal surface to determine a second placement of the second feature; drilling the film cooling hole through the component from the first placement to the second placement.
Method for assembling a tool for a kitchen appliance, wherein a shaft , via which a blade can be made to rotate when operated with the kitchen appliance, is mounted in a foot part and a head part of the tool and the foot part comprises a stem provided for accommodating the shaft and the head part comprises a coupling for coupling the tool to the kitchen appliance, wherein, in one step of the method, the foot part and the head part are interconnected by a rotary movement, wherein, before the head part is connected to the foot part by a rotary movement, the head part and the foot part are plugged into one another in a shell , characterised in that the foot part and the head part are rotary-closed by a thread and that the foot part and the head part are self-locking counter to the direction of rotation of the thread .