mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for three dimensional, 3D, space carving of a user environment based on movement through the user environment of one or more users, where each user wears a near-eye display, NED, system comprising: identifying by one or more processors one or more navigable paths traversed by one or more users wearing the NED system in the user environment based on user physical features including user height and user body width, and sensor data from one or more sensors on the NED system; merging overlapping portions of the one or more navigable paths traversed by the one or more users; storing position and spatial dimensions for the one or more navigable paths as space carving data representative of empty space carved out by the one or more users traversing the user environment along the navigable paths for a 3D space carving model of the user environment; and displaying a visual representation of the state of space carving representative of the empty space carved out by the users and uncarved space in the user environment by the NED as feedback to a user. identifying by one or more processors one or more navigable paths traversed by one or more users wearing the NED system in the user environment based on user physical features including user height and user body width, and sensor data from one or more sensors on the NED system; merging overlapping portions of the one or more navigable paths traversed by the one or more users; storing position and spatial dimensions for the one or more navigable paths as space carving data representative of empty space carved out by the one or more users traversing the user environment along the navigable paths for a 3D space carving model of the user environment; and displaying a visual representation of the state of space carving representative of the empty space carved out by the users and uncarved space in the user environment by the NED as feedback to a user.
Rolling bearing for longitudinal movements, with torque-transmitting capability, comprising the following features: - an outer part having a cavity which penetrates the outer part in a longitudinal direction of movement, - an inner part which passes through the cavity, - between the inner and the outer part (10, 20), there are arranged at least two rows of rolling bodies by way of which the two parts (10, 20) are longitudinally movable in relation to each other, - on the inner and/or outer part (10, 20), there are arranged raceway inserts on which the rolling bodies are provided for rolling purposes, - only one of the raceway inserts of one of the rolling body rows is resiliently mounted, at least perpendicularly with respect to the longitudinal direction of movement, in a corresponding cutout on the inner or outer part (10, 20), and - the raceway inserts are configured as rolling surfaces for the rolling bodies, which are configured as balls, with groove-like recesses extending in the longitudinal direction, characterized in that - the remaining raceway insert(s) of the other rolling body row(s) is or are fixed, captively and without play, in a corresponding cutout on the inner or outer part (10, 20) in a positively locking and/or materially bonded manner. - an outer part having a cavity which penetrates the outer part in a longitudinal direction of movement, - an inner part which passes through the cavity, - between the inner and the outer part (10, 20), there are arranged at least two rows of rolling bodies by way of which the two parts (10, 20) are longitudinally movable in relation to each other, - on the inner and/or outer part (10, 20), there are arranged raceway inserts on which the rolling bodies are provided for rolling purposes, - only one of the raceway inserts of one of the rolling body rows is resiliently mounted, at least perpendicularly with respect to the longitudinal direction of movement, in a corresponding cutout on the inner or outer part (10, 20), and - the raceway inserts are configured as rolling surfaces for the rolling bodies, which are configured as balls, with groove-like recesses extending in the longitudinal direction, characterized in that - the remaining raceway insert(s) of the other rolling body row(s) is or are fixed, captively and without play, in a corresponding cutout on the inner or outer part (10, 20) in a positively locking and/or materially bonded manner.
A tire forming apparatus comprising: a drum spindle body (1, 31); a plurality of arms (2, 32) arranged in an annular shape on an outer circumferential side of the drum spindle body (1, 31); and pushing means (3, 33) configured to push the arms (2, 32) in a direction approaching an unvulcanized tire member (10, 30), along an axial direction of the drum spindle body (1, 31), wherein each of the arms (2, 32) includes: a slidable contact portion provided on one end side of the arm (2, 32) and configured to slidably contact the pushing means (3, 33); a press portion provided on an other end side of the arm (2, 32) and configured to come into contact with the unvulcanized tire member (10, 30) and press the unvulcanized tire member (10, 30); and characterised by a connecting portion provided between the slidable contact portion and the press portion in an extending direction of the arm (2, 32) and connected to the drum spindle body (1, 31), on the drum spindle body side with respect to a line segment connecting the slidable contact portion and the press portion, wherein: the slidable contact portion moves in a sliding contact manner on a corresponding slidable contact surface of the pushing means (3, 33) from the outside to the inside in the radial direction of the drum spindle body (1, 31) while receiving a pushing force in the axial direction of the drum spindle body (1, 31) from the corresponding slidable contact surface (S') of the pushing means (3, 33), thereby an inclination angle of the arm (2, 32) with respect to the axial direction of the drum spindle body (1, 31) increases. a slidable contact portion provided on one end side of the arm (2, 32) and configured to slidably contact the pushing means (3, 33); a press portion provided on an other end side of the arm (2, 32) and configured to come into contact with the unvulcanized tire member (10, 30) and press the unvulcanized tire member (10, 30); and characterised by a connecting portion provided between the slidable contact portion and the press portion in an extending direction of the arm (2, 32) and connected to the drum spindle body (1, 31), on the drum spindle body side with respect to a line segment connecting the slidable contact portion and the press portion, wherein: the slidable contact portion moves in a sliding contact manner on a corresponding slidable contact surface of the pushing means (3, 33) from the outside to the inside in the radial direction of the drum spindle body (1, 31) while receiving a pushing force in the axial direction of the drum spindle body (1, 31) from the corresponding slidable contact surface (S') of the pushing means (3, 33), thereby an inclination angle of the arm (2, 32) with respect to the axial direction of the drum spindle body (1, 31) increases.
A vehicle to X, V2X, message sending method, wherein the method comprises: obtaining, by a terminal, first configuration information and second configuration information from an access network device, wherein the first configuration information is used for determining a first transmission resource pool, the second configuration information is used for determining a second transmission resource pool, a manner of obtaining a transmission resource from the second transmission resource pool is a second transmission resource obtaining manner, and the second transmission resource obtaining manner is a transmission resource obtaining manner in which a transmission resource is selected from the second transmission resource pool after sensing in the second transmission resource pool is performed for sensing duration T2; selecting, by the terminal, a first transmission resource from the first transmission resource pool in a first transmission resource obtaining manner when sensing duration in the second transmission resource pool is less than T2, wherein the first transmission resource obtaining manner comprises a random selection manner; and sending, by the terminal, a V2X message by using the first transmission resource. obtaining, by a terminal, first configuration information and second configuration information from an access network device, wherein the first configuration information is used for determining a first transmission resource pool, the second configuration information is used for determining a second transmission resource pool, a manner of obtaining a transmission resource from the second transmission resource pool is a second transmission resource obtaining manner, and the second transmission resource obtaining manner is a transmission resource obtaining manner in which a transmission resource is selected from the second transmission resource pool after sensing in the second transmission resource pool is performed for sensing duration T2; selecting, by the terminal, a first transmission resource from the first transmission resource pool in a first transmission resource obtaining manner when sensing duration in the second transmission resource pool is less than T2, wherein the first transmission resource obtaining manner comprises a random selection manner; and sending, by the terminal, a V2X message by using the first transmission resource.
A method for operating a wireless communication network, wherein a first member of the network transmits a scheduling message to a secondary member of the network, the secondary member being a user equipment; the secondary member receives the scheduling message; and the secondary member schedules and transmits, utilising beam forming, sounding signal transmissions based on the scheduling message; wherein the scheduling message refers to a schedule for sounding signals based on a status of beam forming performed in the network and the scheduling message refers to a compact schedule of sounding signals, the compact schedule scheduling sounding of a bandwidth of a carrier or channel in a compact timeframe such that at least one subband is sounded at least twice in the compact timeframe, wherein the compact timeframe is one subframe. a first member of the network transmits a scheduling message to a secondary member of the network, the secondary member being a user equipment; the secondary member receives the scheduling message; and the secondary member schedules and transmits, utilising beam forming, sounding signal transmissions based on the scheduling message; wherein the scheduling message refers to a schedule for sounding signals based on a status of beam forming performed in the network and the scheduling message refers to a compact schedule of sounding signals, the compact schedule scheduling sounding of a bandwidth of a carrier or channel in a compact timeframe such that at least one subband is sounded at least twice in the compact timeframe, wherein the compact timeframe is one subframe.
Method for healing defects in a layer of composition ABO 3 where A consists of at least one element selected from: Li, Na, K, H, Ca, Mg, Ba, Sr, Pb, La, Bi, Y, Dy, Gd, Tb, Ce, Pr, Nd, Sm, Eu, Ho, Zr, Sc, Ag, Tl and B consists of at least one element selected from: Nb, Ta, Sb, Ti, Zr, Sn, Ru, Fe, V, Sc, C, Ga, Al, Si, Mn, Zr, Tl, said layer being obtained by a layer transfer method in which ionic species are implanted into a substrate of composition ABO 3 so as to form a weakened zone delineating said layer, said substrate then being detached along the weakened zone in order to obtain a layer detached from the rest of the donor substrate, characterised in that it comprises exposing said layer to a medium containing ions of a constituent element A so as to make said ions penetrate into said transferred layer.
A force sensor comprising a polymer composition, said composition comprising: a substantially non-conductive polymer binder; and a first electrically conductive filler comprised of particles having a void-bearing structure due to external protrusions; characterised in that said polymer composition further comprises a second electrically conductive filler comprised of particles that are needle shaped and have an aspect ratio greater than 1. a substantially non-conductive polymer binder; and a first electrically conductive filler comprised of particles having a void-bearing structure due to external protrusions;
A ceramic heater element comprising an insulating substrate, and a heating resistor embedded in the insulating substrate, characterized in that: the insulating substrate contains a main phase formed of β-SiAION or a multiphase SiAION of β-SiAION and α-SiAION; a grain boundary phase containing a rare earth element; and a silicide of at least one species selected from among Cr, W, Mo, V, and Fe; and the heating resistor contains a main phase formed of an electrically conductive compound containing at least one species selected from among silicide, nitride, and carbide of Mo, and silicide, nitride, and carbide of W; β-SiAlON or a multiphase SiAION of β-SiAION and α-SiAlON; and a grain boundary phase containing a rare earth element, wherein the SiAION phase contained in the insulating substrate or the heating resistor has a percent α content of 50% or less. the insulating substrate contains a main phase formed of β-SiAION or a multiphase SiAION of β-SiAION and α-SiAION; a grain boundary phase containing a rare earth element; and a silicide of at least one species selected from among Cr, W, Mo, V, and Fe; and the heating resistor contains a main phase formed of an electrically conductive compound containing at least one species selected from among silicide, nitride, and carbide of Mo, and silicide, nitride, and carbide of W; β-SiAlON or a multiphase SiAION of β-SiAION and α-SiAlON; and a grain boundary phase containing a rare earth element, wherein the SiAION phase contained in the insulating substrate or the heating resistor has a percent α content of 50% or less.
An image information processing apparatus including an operating panel on which an operating screen is displayed, the image information processing apparatus comprising: a storage configured to store, therein, a first type application and a second type application, the first type application implementing, when being executed by an information device (3, 4, 4a, 4b, 4c) capable of displaying the operating screen, a process that includes accessing a cloud system communicably connected to the image information processing apparatus, and capturing image information from the cloud system thus accessed, and the second type application implementing, when being executed by the information device (3, 4, 4a, 4b, 4c), a process that includes accessing the cloud system directly or indirectly via the image information processing apparatus, and transfers capturing image information from the cloud system thus accessed to the image information processing apparatus with excluding the capturing image information from the information device (3, 4, 4a, 4b, 4c); a determination portion configured to determine, when the information device (3, 4, 4a, 4b, 4c) is communicably connected to the image information processing apparatus, whether or not the information device (3, 4, 4a, 4b, 4c) corresponds to an authorized operational device; and a program transfer portion configured to download the first type application onto the information device (3, 4, 4a, 4b, 4c) when the determination portion determines that the information device (3, 4, 4a, 4b, 4c) corresponds to the authorized operational device, and to download the second type application onto the information device (3, 4, 4a, 4b, 4c) when the determination portion determines that the information device (3, 4, 4a, 4b, 4c) does not correspond to the authorized operational device. a storage configured to store, therein, a first type application and a second type application, the first type application implementing, when being executed by an information device (3, 4, 4a, 4b, 4c) capable of displaying the operating screen, a process that includes accessing a cloud system communicably connected to the image information processing apparatus, and capturing image information from the cloud system thus accessed, and the second type application implementing, when being executed by the information device (3, 4, 4a, 4b, 4c), a process that includes accessing the cloud system directly or indirectly via the image information processing apparatus, and transfers capturing image information from the cloud system thus accessed to the image information processing apparatus with excluding the capturing image information from the information device (3, 4, 4a, 4b, 4c);
A motor control device comprising: a voltage command value calculation unit (40, 41, 42, 43, 44) configured to calculate three-phase voltage command values (va0, vb0, vc0) to be applied to a three-phase motor; an amplitude calculation unit configured to calculate an amplitude of the three-phase voltage command values (va0, vb0, vc0), and a third harmonic calculation unit configured to calculate a first third harmonic, characterized in that the third harmonic calculation unit is configured to calculate the first third harmonic on a basis of an average value between a voltage command value of a maximum phase with a maximum duty ratio and a voltage command value of a minimum phase with a minimum duty ratio among the three-phase voltage command values (va0, vb0, vc0), and further characterized by a gain calculation unit configured to calculate a correction gain on a basis of the first third harmonic and the amplitude; a multiplication unit configured to convert the first third harmonic into a second third harmonic by multiplying the first third harmonic by the correction gain; a subtractor configured to correct the three-phase voltage command values (va0, vb0, vcβ) by subtracting the second third harmonic from the three-phase voltage command values (va0, vb0, vc0); and a drive circuit (46, 47) configured to drive the three-phase motor on a basis of the corrected three-phase voltage command values (va1, vb1, vc1). a voltage command value calculation unit (40, 41, 42, 43, 44) configured to calculate three-phase voltage command values (va0, vb0, vc0) to be applied to a three-phase motor; an amplitude calculation unit configured to calculate an amplitude of the three-phase voltage command values (va0, vb0, vc0), and a third harmonic calculation unit configured to calculate a first third harmonic, characterized in that the third harmonic calculation unit is configured to calculate the first third harmonic on a basis of an average value between a voltage command value of a maximum phase with a maximum duty ratio and a voltage command value of a minimum phase with a minimum duty ratio among the three-phase voltage command values (va0, vb0, vc0), and further characterized by a gain calculation unit configured to calculate a correction gain on a basis of the first third harmonic and the amplitude; a multiplication unit configured to convert the first third harmonic into a second third harmonic by multiplying the first third harmonic by the correction gain; a subtractor configured to correct the three-phase voltage command values (va0, vb0, vcβ) by subtracting the second third harmonic from the three-phase voltage command values (va0, vb0, vc0); and a drive circuit (46, 47) configured to drive the three-phase motor on a basis of the corrected three-phase voltage command values (va1, vb1, vc1).
A manufacturing method for a composite material having reinforced base materials and a resin impregnated in the reinforced base materials, characterised by: applying an unactivated powdered adhesive to at least one surface of a plurality of reinforced base material sheets; laminating the reinforced base material sheets to form a laminate; removing a portion of the powdered adhesive that is applied between layers of the laminate by means of an airflow that flows with respect to the laminate in a lamination direction of the reinforced base material from one surface to the other surface to form a first portion in which the powdered adhesive is applied between the layers of the laminate, and a second portion in which an applied density of the powdered adhesive is less than that in the first portion; activating the powdered adhesive; and forming a preform having a first region in which the activated adhesive is impregnated in the laminate and a second region in which a content density of the adhesive is less than that in the first region. applying an unactivated powdered adhesive to at least one surface of a plurality of reinforced base material sheets; laminating the reinforced base material sheets to form a laminate; removing a portion of the powdered adhesive that is applied between layers of the laminate by means of an airflow that flows with respect to the laminate in a lamination direction of the reinforced base material from one surface to the other surface to form a first portion in which the powdered adhesive is applied between the layers of the laminate, and a second portion in which an applied density of the powdered adhesive is less than that in the first portion; activating the powdered adhesive; and forming a preform having a first region in which the activated adhesive is impregnated in the laminate and a second region in which a content density of the adhesive is less than that in the first region.
A component for a gas turbine engine, the component comprising: a wall having a first surface and a second surface, wherein the second surface is exposed to hot gas flow; and a cooling hole extending through the wall, the cooling hole comprising: a metering section extending from an inlet in the first surface of the wall to a transition; a diffusing section extending from the transition to an outlet in the second surface of the wall; a cusp on the transition; and a first longitudinal ridge extending along the diffusing section between the transition and the outlet, wherein the first longitudinal ridge divides the diffusing section into first and second lobes, and characterized in that the cusp tapers as it extends from the transition to the inlet. a wall having a first surface and a second surface, wherein the second surface is exposed to hot gas flow; and a cooling hole extending through the wall, the cooling hole comprising: a metering section extending from an inlet in the first surface of the wall to a transition; a diffusing section extending from the transition to an outlet in the second surface of the wall; a cusp on the transition; and a first longitudinal ridge extending along the diffusing section between the transition and the outlet, wherein the first longitudinal ridge divides the diffusing section into first and second lobes, and characterized in that the cusp tapers as it extends from the transition to the inlet. a metering section extending from an inlet in the first surface of the wall to a transition; a diffusing section extending from the transition to an outlet in the second surface of the wall; a cusp on the transition; and a first longitudinal ridge extending along the diffusing section between the transition and the outlet, wherein the first longitudinal ridge divides the diffusing section into first and second lobes, and characterized in that the cusp tapers as it extends from the transition to the inlet.