mhurhangee/patent-ind-claim-en huggingface dataset:
A head worn computer comprising: a housing, wherein the housing includes: a plurality of regions and further two end regions ; wherein the head worn computer is configured to wrap around a portion of the user's head, such that the two end regions are located at the front of the user's head, and the two end regions are on opposite sides of the user's head; wherein the housing includes at least one spring configured to apply inward force to the user's head; and the plurality of regions includes a first flexible region and a second flexible region ; wherein the first flexible region is located between a center of the housing and a first stiff region , said center of the housing being located at the back of the user's head when the head worn computer is worn; wherein the second flexible region is located between the first stiff region and a second stiff region , wherein the first stiff region and the second stiff region are on a same side of the user's head; and wherein the first flexible region is closer to the center of the housing than the second flexible region , and as a result is arranged to provide a greater inward force to the user's head than the second flexible region , wherein the housing is supported by the back of the user's head when the head worn computer is worn. a plurality of regions and further two end regions ; wherein the head worn computer is configured to wrap around a portion of the user's head, such that the two end regions are located at the front of the user's head, and the two end regions are on opposite sides of the user's head; wherein the housing includes at least one spring configured to apply inward force to the user's head; and the plurality of regions includes a first flexible region and a second flexible region ; wherein the first flexible region is located between a center of the housing and a first stiff region , said center of the housing being located at the back of the user's head when the head worn computer is worn; wherein the second flexible region is located between the first stiff region and a second stiff region , wherein the first stiff region and the second stiff region are on a same side of the user's head; and wherein the first flexible region is closer to the center of the housing than the second flexible region , and as a result is arranged to provide a greater inward force to the user's head than the second flexible region , wherein the housing is supported by the back of the user's head when the head worn computer is worn.
A mould flux having a composition of, in weight%: SiO 2 15-25; CaO 15-35; Al 2 O 3 1-7; Na 2 O 18-30; K 2 O 15-25; Fe 2 O 3 0-5; C 0-4; TiO 2 0-2; MnO 0-2; MgO 0-2; Li 2 O 0-10; and wherein the melting point of the mould flux is less than or equal to 1300°C.
The use of a semicrystalline thermoplastic polyester for producing biaxially stretched hollow bodies, said polyester comprising: • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C); wherein the (A)/[(A)+(B)] molar ratio is at least 0.1 and at most 0.30; said polyester not containing any aliphatic non-cyclic diol units, and the reduced solution viscosity (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g. • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C);
A method for manufacturing an electride of mayenite-type compounds, the method comprising: converting a mayenite-type compound to an electride by making a current directly flow through the mayenite-type compound by applying a voltage to the mayenite-type compound in a heating state.
A method comprising: fabricating a preform by continuously: heating fiber reinforced material to a sticking point temperature for a constituent material within the fiber reinforced material ; feeding the fiber reinforced material through a die that exhibits a channel having a lengthwise curvature through which the fiber reinforced material travels while the fiber reinforced material is heated to the sticking point temperature, the die forming the fiber reinforced material into a preform ; varying path lengths of fibers within the preform as the preform passes through the die ; cooling the preform below the sticking point temperature while the fiber reinforced material continues traveling through the die, by driving pressurized fluid through a cooling chamber of the die and onto the preform as the preform travels within the die; and pulling the preform out of the die . heating fiber reinforced material to a sticking point temperature for a constituent material within the fiber reinforced material ; feeding the fiber reinforced material through a die that exhibits a channel having a lengthwise curvature through which the fiber reinforced material travels while the fiber reinforced material is heated to the sticking point temperature, the die forming the fiber reinforced material into a preform ; varying path lengths of fibers within the preform as the preform passes through the die ; cooling the preform below the sticking point temperature while the fiber reinforced material continues traveling through the die, by driving pressurized fluid through a cooling chamber of the die and onto the preform as the preform travels within the die; and pulling the preform out of the die .
A computer-implemented method for processing audio content during a communication session, comprising: determining, by a computing system , first audio associated with a first user and second audio associated with a second user, the first user and the second user associated with the communication session; muting, by the computing system , the second audio based on a determination that the first audio and the second audio overlap; and providing, by the computing system , the second audio based on completion of the first audio; characterised by the determination that the first audio and the second audio overlap further comprising: determining, by the computing system , a first topic associated with the first audio based on keywords identified in speech included in the first audio and a second topic associated with the second audio based on keywords identified in speech included in the second audio; wherein the first topic associated with the first audio based on keywords identified in speech included in the first audio is determined, by the computing system , to be more similar to a topic of a discussion associated with the communication session than the second topic. determining, by a computing system , first audio associated with a first user and second audio associated with a second user, the first user and the second user associated with the communication session; muting, by the computing system , the second audio based on a determination that the first audio and the second audio overlap; and providing, by the computing system , the second audio based on completion of the first audio; characterised by the determination that the first audio and the second audio overlap further comprising: determining, by the computing system , a first topic associated with the first audio based on keywords identified in speech included in the first audio and a second topic associated with the second audio based on keywords identified in speech included in the second audio; wherein the first topic associated with the first audio based on keywords identified in speech included in the first audio is determined, by the computing system , to be more similar to a topic of a discussion associated with the communication session than the second topic.
An optoelectronic sensor , in particular laser scanner, for detecting objects in a monitoring area , comprising at least one light transmitter for transmitting a plurality of light beams separated from one another, at least one light receiver for generating a respective received signal from the light beams remitted in the monitoring area , a movable deflection unit for periodically guiding the transmitted light beams through the monitoring area in order to scan a respective scan layer with the separated light beams in the course of the movement of the scanning unit , and a control and evaluation unit configured to obtain information about the objects in the monitoring area from the respective received signal, in particular to measure a distance by means of a light time-of-flight method, the control and evaluation unit being further configured to detect the presence of a safety-relevant object per scan layer and to decide, by jointly evaluating the presence of a safety-relevant object detected per scan layer , whether a safety-related reaction is triggered, wherein, in order to increase the robustness, a detected presence of safety-relevant objects over a plurality of scan layers is required for triggering a safety-related reaction, with exceptionally the detected presence of a safety-relevant object only in a lowermost scan layer above the ground being sufficient for detecting lying persons.
A computer-implemented method for removing erroneous points from a set of points (355-1..355-15) of a three dimensional, 3D, virtual object provided by 3D imaging of a corresponding real world object by means of a camera with an image sensor wherein the method comprises: - obtaining said set of points (355-1..355-15); - identifying , for a respective point , conflicting points, if any, in the set wherein a conflicting point is a point of the set that cannot validly coexist with the respective point according to predefined one or more criteria; and - removing , from the set, based on said identification for a respective point of the set, one or more points of the set that have been involved in conflicts a greater number of times than other points of the set involved in conflicts, wherein a respective point of the set is considered involved in a conflict each time there is identified a conflicting point in the set for the respective point and/or each time the respective point itself is identified as a conflicting point to another point of the set. wherein the method comprises: - obtaining said set of points (355-1..355-15); - identifying , for a respective point , conflicting points, if any, in the set - obtaining said set of points (355-1..355-15); - identifying , for a respective point , conflicting points, if any, in the set wherein a conflicting point is a point of the set that cannot validly coexist with the respective point according to predefined one or more criteria; and - removing , from the set, based on said identification for a respective point of the set, one or more points of the set that have been involved in conflicts a greater number of times than other points of the set involved in conflicts, wherein a respective point of the set is considered involved in a conflict each time there is identified a conflicting point in the set for the respective point and/or each time the respective point itself is identified as a conflicting point to another point of the set. - removing , from the set, based on said identification for a respective point of the set, one or more points of the set that have been involved in conflicts a greater number of times than other points of the set involved in conflicts, wherein a respective point of the set is considered involved in a conflict each time there is identified a conflicting point in the set for the respective point and/or each time the respective point itself is identified as a conflicting point to another point of the set.
A storage device carrier adapted to locate storage devices of differing thickness, the storage device carrier comprising: a main body comprising two walls ; a locating member disposed on at least one of the two walls and configured to locate storage devices of differing thicknesses, the locating member being a tab or a column ; at least one storage device holding element to hold storage devices of differing thicknesses in the storage device carrier; wherein the at least one storage device holding element comprises a rotatable element with multiple different bearing surfaces of differing heights as measured from a rotation axis of the rotatable element, wherein the multiple different bearing surfaces are configured to abut top surfaces of the storage devices of differing thicknesses; the storage device carrier characterized in that the bearing surfaces comprise a long arm , a short arm , and a flat bearing surface . a main body comprising two walls ; a locating member disposed on at least one of the two walls and configured to locate storage devices of differing thicknesses, the locating member being a tab or a column ; at least one storage device holding element to hold storage devices of differing thicknesses in the storage device carrier; wherein the at least one storage device holding element comprises a rotatable element with multiple different bearing surfaces of differing heights as measured from a rotation axis of the rotatable element, wherein the multiple different bearing surfaces are configured to abut top surfaces of the storage devices of differing thicknesses; the storage device carrier characterized in that the bearing surfaces comprise a long arm , a short arm , and a flat bearing surface .
A method of manufacturing a tube having a hollow interior for housing an axle shaft, which transmits rotational motion from a prime mover to a wheel of a vehicle, with the tube formed in a machine having a fixed base and a press structure movable toward the fixed base, a first die assembly coupled to the fixed base, a second die assembly coupled to the fixed base, a first mandrel coupled to the press structure, a second mandrel coupled to the press structure and spaced from the first mandrel, a third die assembly coupled to the fixed base, and a third mandrel coupled to the press structure and spaced from the first and second mandrels, said method comprising the steps of: placing a billet into a cavity of the first die assembly; pressing the billet into the cavity of the first die assembly with the first mandrel coupled to the press structure to form a bore at one end of the billet thereby producing a pre-formed billet ; moving the pre-formed billet from the cavity of the first die assembly to a cavity of the second die assembly; pressing the pre-formed billet into the cavity of the second die assembly with the second mandrel coupled to the press structure to elongate the pre-formed billet and form a hollow interior therein thereby producing an extruded tube ; moving the extruded tube from the cavity of the second die assembly to a cavity of the third die assembly; and pressing the extruded tube into the cavity of the third die assembly with the third mandrel coupled to the press structure to elongate the extruded tube and decrease a thickness of a wall of the extruded tube thereby producing a drawn tube ; wherein the thickness of the wall of the drawn tube is of from about 3 to about 18 millimeters and the drawn tube has a yield strength of at least 600 MPa. placing a billet into a cavity of the first die assembly; pressing the billet into the cavity of the first die assembly with the first mandrel coupled to the press structure to form a bore at one end of the billet thereby producing a pre-formed billet ; moving the pre-formed billet from the cavity of the first die assembly to a cavity of the second die assembly; pressing the pre-formed billet into the cavity of the second die assembly with the second mandrel coupled to the press structure to elongate the pre-formed billet and form a hollow interior therein thereby producing an extruded tube ; moving the extruded tube from the cavity of the second die assembly to a cavity of the third die assembly; and pressing the extruded tube into the cavity of the third die assembly with the third mandrel coupled to the press structure to elongate the extruded tube and decrease a thickness of a wall of the extruded tube thereby producing a drawn tube ; wherein the thickness of the wall of the drawn tube is of from about 3 to about 18 millimeters and the drawn tube has a yield strength of at least 600 MPa.
An exoskeleton , comprising: a first link and a second link , wherein the first link and the second link are rotatable relative to each other about a first axis of rotation, thereby forming a first rotary joint of the exoskeleton ; and a joint drive with a first element and a second element ; wherein the first link is an elongated rigid body; wherein the first element is connected to the first link by a second rotary joint ; wherein the second element is connected to the second link by a linear joint ; and wherein the second element is connected to the first element by a third rotary joint ; characterized in that the first link is an upper arm link and the second link is a shoulder link; and the second link is an angled rigid body. a first link and a second link , wherein the first link and the second link are rotatable relative to each other about a first axis of rotation, thereby forming a first rotary joint of the exoskeleton ; and a joint drive with a first element and a second element ; wherein the first link is an elongated rigid body; wherein the first element is connected to the first link by a second rotary joint ; wherein the second element is connected to the second link by a linear joint ; and wherein the second element is connected to the first element by a third rotary joint ; characterized in that the first link is an upper arm link and the second link is a shoulder link; and the second link is an angled rigid body.
A display apparatus for a vehicle comprising: a display element comprising a plurality of display elements in the form of a pixel array forming a display surface having a display perimeter disposed in a housing and configured to display image data in a display emission; an electrochromic element abutting the display element and configured to selectively transmit the display emission therethrough; and an imager module disposed on the display surface , the imager module comprising: an image sensor configured to capture image data of an object in a field of view directed through the electrochromic element ; and a light source configured to transmit an emission through the electrochromic element , wherein the image sensor is configured to capture image data comprising reflected light from the emission through the electrochromic element ; wherein an opening is formed within the plurality of display elements and wherein the opening encloses about a sensor perimeter of the image sensor such that the image sensor is disposed within the display perimeter . a display element comprising a plurality of display elements in the form of a pixel array forming a display surface having a display perimeter disposed in a housing and configured to display image data in a display emission; an electrochromic element abutting the display element and configured to selectively transmit the display emission therethrough; and an imager module disposed on the display surface , the imager module comprising: an image sensor configured to capture image data of an object in a field of view directed through the electrochromic element ; and a light source configured to transmit an emission through the electrochromic element , wherein the image sensor is configured to capture image data comprising reflected light from the emission through the electrochromic element ; an image sensor configured to capture image data of an object in a field of view directed through the electrochromic element ; and a light source configured to transmit an emission through the electrochromic element , wherein the image sensor is configured to capture image data comprising reflected light from the emission through the electrochromic element ; wherein an opening is formed within the plurality of display elements and wherein the opening encloses about a sensor perimeter of the image sensor such that the image sensor is disposed within the display perimeter .
A thin-film transistor comprising: an oxide semiconductor layer comprising indium (In), gallium (Ga), zinc (Zn), tin (Sn), and oxygen (O); and a source electrode and a drain electrode formed on the oxide semiconductor layer , wherein a content of indium (In) in the oxide semiconductor layer is greater than a content of gallium (Ga), and a content of indium (In) in the oxide semiconductor layer is greater than a content of tin (Sn), characterized in that the oxide semiconductor layer includes a first layer and a second layer formed on the first layer , wherein an oxygen (O) content of the second layer is greater than an oxygen (O) content of the first layer , wherein a content ratio of each of indium (In), gallium (Ga), zinc (Zn) and tin (Sn) based on total amount of indium (In), gallium (Ga), zinc (Zn) and tin (Sn) is substantially same in the first layer and the second layer , and wherein a thickness of a portion of the second layer exposed by the source electrode and the drain electrode is greater than a thickness of a portion of the second layer that is covered by the source electrode or the drain electrode . an oxide semiconductor layer comprising indium (In), gallium (Ga), zinc (Zn), tin (Sn), and oxygen (O); and a source electrode and a drain electrode formed on the oxide semiconductor layer , wherein a content of indium (In) in the oxide semiconductor layer is greater than a content of gallium (Ga), and a content of indium (In) in the oxide semiconductor layer is greater than a content of tin (Sn), characterized in that the oxide semiconductor layer includes a first layer and a second layer formed on the first layer , wherein an oxygen (O) content of the second layer is greater than an oxygen (O) content of the first layer , wherein a content ratio of each of indium (In), gallium (Ga), zinc (Zn) and tin (Sn) based on total amount of indium (In), gallium (Ga), zinc (Zn) and tin (Sn) is substantially same in the first layer and the second layer , and wherein a thickness of a portion of the second layer exposed by the source electrode and the drain electrode is greater than a thickness of a portion of the second layer that is covered by the source electrode or the drain electrode .
A network connection method, characterized by comprising: extracting a network frequency point table from a frequency point storage area if it is detected that a vehicle is in a stalled state, wherein the network frequency point table comprises at least one network frequency point, and the at least one network frequency point is corresponding to at least one base station within a certain distance from the vehicle and acquired and stored in the network frequency point table after the vehicle is started (S301); cyclically searching for each network frequency point in the network frequency point table (S303); determining a current network signal strength corresponding to each network frequency point (S305); determining, according to the current network signal strength corresponding to each network frequency point, a target network frequency point to be connected (S307); and connecting to the target network frequency point, and then performing data interaction (S309). extracting a network frequency point table from a frequency point storage area if it is detected that a vehicle is in a stalled state, wherein the network frequency point table comprises at least one network frequency point, and the at least one network frequency point is corresponding to at least one base station within a certain distance from the vehicle and acquired and stored in the network frequency point table after the vehicle is started (S301); cyclically searching for each network frequency point in the network frequency point table (S303); determining a current network signal strength corresponding to each network frequency point (S305); determining, according to the current network signal strength corresponding to each network frequency point, a target network frequency point to be connected (S307); and connecting to the target network frequency point, and then performing data interaction (S309).