mhurhangee/ep-ind-claims huggingface dataset:
An automotive light comprising: a rear casing, which is substantially basin-shaped and is structured in such a way as to be fixed on the vehicle body; a front half-shell, which is placed in order to close the mouth of the rear casing and is provided with at least a transparent or semitransparent portion; and at least one lighting assembly, which emits light upon command and is located within the rear casing in such a way as to be able to backlight said transparent or semitransparent portion of the front half-shell; said lighting assembly in turn comprising a platelike light-guide body, which extends within the rear casing in such a way as to arrange a front sidewall thereof so that it faces the transparent or semitransparent portion of the front half-shell, and a rear sidewall thereof so that it faces the bottom of the rear casing; and a light-emitting device, which is located inside the rear casing and is structured so as to direct the light produced within the platelike light-guide body, in such a way that the light can reach, and exit from, the front sidewall; wherein the rear sidewall of the platelike light-guide body has a curved profile having a substantially parabolic shape, with the concavity facing the front sidewall, and is provided with a transverse slot, which extends within the platelike light-guide body, from the rear sidewall to the front sidewall, remaining substantially perpendicular to the midplane of the platelike light-guide body and substantially parallel to an optical axis of the automotive light in such a way as to divide the rear sidewall into two semiparabolic portions (7a, 7b; 7c, 7d, 7e), each of which follows a specific curved profile with complex parabolic geometry; the automotive light being characterised in that the light-emitting device engages said transverse slot and is provided with two light sources, which are positioned within the transverse slot, each directly facing a respective inner sidewall of the platelike light-guide body in such a way as to direct the light produced within the platelike light-guide body towards a corresponding semiparabolic portion (7a, 7b; 7c, 7d, 7e) of the rear sidewall; and in that at least one of the two semiparabolic portions (7a, 7b; 7c, 7d, 7e) of the rear sidewall is shaped in such a way as to direct the light rays coming from the light source towards the front sidewall in such a way that the light rays exiting from the front sidewall are collimated in a first direction (d 1) substantially parallel to said optical axis of the automotive light, and also at least in a second direction (d 2, d 3) inclined with respect to the optical axis of the automotive light by a first pre-set angle.
A medical system comprising: a sheath member; an image capture device extending through the sheath member and configured to image at least a portion of an anatomical workspace of a patient; a manually operable elongate body operatively coupled to the image capture device, wherein the elongate body extends through the sheath member; an optical fiber comprising a Bragg grating provided thereon; and a controller operatively coupled to the optical fiber and configured to: receive a signal from the Bragg grating; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber, wherein the optical fiber is further positioned on the image capture device. a sheath member; an image capture device extending through the sheath member and configured to image at least a portion of an anatomical workspace of a patient; a manually operable elongate body operatively coupled to the image capture device, wherein the elongate body extends through the sheath member; an optical fiber comprising a Bragg grating provided thereon; and a controller operatively coupled to the optical fiber and configured to: receive a signal from the Bragg grating; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber, wherein the optical fiber is further positioned on the image capture device. receive a signal from the Bragg grating; and determine one or more position and/or orientation variables of the image capture device based on signals received from the Bragg grating provided on the optical fiber,
A method for controlling a tool, characterized by the following method steps: - Providing a reference matrix of reference points, wherein the reference matrix is disposed as a regular pattern of reference points at precisely defined spacing in lines and columns disposed perpendicular to each other, and a centering matrix of centering points in a material processing plane, wherein the centering matrix is defined as a marking disposed at precisely defined spacing from two sides disposed perpendicular to each other on a stable support, and the centering points are applied for establishing the relationship of the tool to a camera, - imaging the material processing plane by means of a camera as a camera image the size of the camera image field, - equalizing the camera image of the material processing plane by comparing with the reference matrix, - scaling the pixel size of the camera image by comparing with the reference matrix, - centering the camera image by comparing with the centering points, - projecting a processing contour onto the equalized and scaled camera image of a workpiece, and - aligning the processing contour to the camera image of the workpiece and starting processing, wherein the processing of the workpiece by the tool occurs along the processing contour, wherein the tool is implemented as a laser processing head and the camera implements a separate beam path from the laser optics of the laser processing head. - Providing a reference matrix of reference points, wherein the reference matrix is disposed as a regular pattern of reference points at precisely defined spacing in lines and columns disposed perpendicular to each other, and a centering matrix of centering points in a material processing plane, wherein the centering matrix is defined as a marking disposed at precisely defined spacing from two sides disposed perpendicular to each other on a stable support, and the centering points are applied for establishing the relationship of the tool to a camera, - imaging the material processing plane by means of a camera as a camera image the size of the camera image field, - equalizing the camera image of the material processing plane by comparing with the reference matrix, - scaling the pixel size of the camera image by comparing with the reference matrix, - centering the camera image by comparing with the centering points, - projecting a processing contour onto the equalized and scaled camera image of a workpiece, and - aligning the processing contour to the camera image of the workpiece and starting processing, wherein the processing of the workpiece by the tool occurs along the processing contour,
A denture base comprising: a base portion; a socket that is demarcated by a step portion from a gingival area of the base portion and to which an artificial tooth is to be attached; and interdental papilla areas of the gingival area, which are positioned at both ends of the socket along a tooth row and which correspond to interdental papillae between adjacent teeth, wherein, in a state in which the socket is facing upward: a basal surface of the socket has a ridge-shaped socket apex portion interconnecting the interdental papilla areas at both ends and is configured by a surface that is convex overall, a peripheral area of the basal surface is in mutually continuous abutment with the step portion, and characterized in that the socket apex portion is positioned substantially as high as, or higher than, apex portions of the interdental papilla areas that are seen from a labial side in a state in which the artificial tooth is attached to the socket. a base portion; a socket that is demarcated by a step portion from a gingival area of the base portion and to which an artificial tooth is to be attached; and interdental papilla areas of the gingival area, which are positioned at both ends of the socket along a tooth row and which correspond to interdental papillae between adjacent teeth, wherein, in a state in which the socket is facing upward: a basal surface of the socket has a ridge-shaped socket apex portion interconnecting the interdental papilla areas at both ends and is configured by a surface that is convex overall, a peripheral area of the basal surface is in mutually continuous abutment with the step portion, and characterized in that the socket apex portion is positioned substantially as high as, or higher than, apex portions of the interdental papilla areas that are seen from a labial side in a state in which the artificial tooth is attached to the socket. a basal surface of the socket has a ridge-shaped socket apex portion interconnecting the interdental papilla areas at both ends and is configured by a surface that is convex overall, a peripheral area of the basal surface is in mutually continuous abutment with the step portion, and characterized in that the socket apex portion is positioned substantially as high as, or higher than, apex portions of the interdental papilla areas that are seen from a labial side in a state in which the artificial tooth is attached to the socket.
An on-vehicle antenna device which is adapted to be provided at an end part of a roof of a vehicle body, said on-vehicle antenna device comprising: an antenna having antenna elements (14, 15) which include a first antenna element and a second antenna element, the first antenna element being drawn out from one feed point of a pair of feed points (13a, 13b) in a first direction, and the second antenna element being drawn out from another feed point of the pair of feed points (13a, 13b) in a second direction which is different from the first direction; the on-vehicle antenna device being configured such that, in a case where said on-vehicle antenna device is mounted on the vehicle body, the first antenna element has (i) a first part which is provided in a first surface that intersects with the horizontal plane and (ii) a second part which is provided in a second surface that intersects with the first surface, and the second antenna element is provided in a third surface which lies along the horizontal plane and faces with the second surface. an antenna having antenna elements (14, 15) which include a first antenna element and a second antenna element, the first antenna element being drawn out from one feed point of a pair of feed points (13a, 13b) in a first direction, and the second antenna element being drawn out from another feed point of the pair of feed points (13a, 13b) in a second direction which is different from the first direction; the on-vehicle antenna device being configured such that, in a case where said on-vehicle antenna device is mounted on the vehicle body, the first antenna element has (i) a first part which is provided in a first surface that intersects with the horizontal plane and (ii) a second part which is provided in a second surface that intersects with the first surface, and the second antenna element is provided in a third surface which lies along the horizontal plane and faces with the second surface.
Packaging for writing instruments, comprising: - a gripping part having an elongate general form, - at least two connectors, each connector being able to be fixed to a respective writing instrument, characterized in that the connectors are, respectively, connected to the gripping part via an elastically deformable zone so as to be able to pivot one connector individually relative to an in-line stored position with the other connectors, the deformable zones having, respectively, a tab form. - a gripping part having an elongate general form, - at least two connectors, each connector being able to be fixed to a respective writing instrument,
A method for treating a metal substrate comprising: (a) depositing a metal with an oxidation potential greater than the substrate onto at least a portion of the substrate, and then (b) contacting the substrate with a pretreatment composition that comprises a group IIIB and/or IVB metal compound and is substantially free of zinc phosphate and chromate. (a) depositing a metal with an oxidation potential greater than the substrate onto at least a portion of the substrate, and then (b) contacting the substrate with a pretreatment composition that comprises a group IIIB and/or IVB metal compound and is substantially free of zinc phosphate and chromate.
A sealing apparatus for use in a wellbore tubular, comprising: (a) a radially expandable sleeve member (104,106) having a circumferential groove having an arcuate portion; (b) a radially expandable seal member (110,114) disposed in the groove, the seal member (110,114) having a radially outward sealing surface that increases surface contact area with the wellbore tubular as the seal member (110,114) expands, wherein the seal member (110,114) has a seating surface complementary to the arcuate portion, wherein the seal member (110,114) forms a substantially gas tight seal with the wellbore tubular; a plurality of circumferential ribs formed at an axially spaced-apart distance from the seal member (110,114), the circumferential ribs engaging the wellbore tubular when expanded, wherein the circumferential ribs are adapted to form a liquid seal with the wellbore tubular; and a swage (118,120) expanding the sleeve member (104,106), wherein the sleeve member (104,106) and a swage (118,120) coact to provide an expansion force for the seal member (110,114) that is different from an expansion force provided for the circumferential ribs. (a) a radially expandable sleeve member (104,106) having a circumferential groove having an arcuate portion; (b) a radially expandable seal member (110,114) disposed in the groove, the seal member (110,114) having a radially outward sealing surface that increases surface contact area with the wellbore tubular as the seal member (110,114) expands, wherein the seal member (110,114) has a seating surface complementary to the arcuate portion, wherein the seal member (110,114) forms a substantially gas tight seal with the wellbore tubular;
An agent comprising a nucleic acid molecule for use in a therapeutic method, said method comprising transfecting cells with said nucleic acid molecule by electroporation within a cochlea of a subject, wherein said method comprises: introducing into the cochlea a cochlear implant comprising a linear array of electrodes configured as a series of independently addressable nodes along a length of the cochlear implant which lies within the cochlea, connecting to an electroporation driving circuitry, for generating an electroporation pulse signal, one or more electrodes as anodes and one or more other electrodes interspersed along the electrode array as cathodes for current delivery for electroporation, providing the nucleic acid molecule to the cochlea, and once the agent and electrodes are present in the cochlea-, providing an electroporation pulse signal via the anodes and cathodes of the linear electrode array to generate an electric field and thereby transfecting cells along the length of the array close to the cochlear implant with the nucleic acid molecule such that the transfected cells express said encoded neurotrophic factor or have upregulated expression of said endogenous neurotrophic factor. introducing into the cochlea a cochlear implant comprising a linear array of electrodes configured as a series of independently addressable nodes along a length of the cochlear implant which lies within the cochlea, connecting to an electroporation driving circuitry, for generating an electroporation pulse signal, one or more electrodes as anodes and one or more other electrodes interspersed along the electrode array as cathodes for current delivery for electroporation, providing the nucleic acid molecule to the cochlea, and once the agent and electrodes are present in the cochlea-, providing an electroporation pulse signal via the anodes and cathodes of the linear electrode array to generate an electric field and thereby transfecting cells along the length of the array close to the cochlear implant with the nucleic acid molecule such that the transfected cells express said encoded neurotrophic factor or have upregulated expression of said endogenous neurotrophic factor.
A gas turbine engine defining a radial direction and an axial direction, the gas turbine engine comprising: a turbine section comprising a low pressure, LP, turbine and a high pressure, HP, turbine and a turbine frame, the LP turbine comprising a first plurality of turbine rotor blades and a second plurality of turbine rotor blades, the first plurality of turbine rotor blades and second plurality of turbine rotor blades alternatingly spaced along the axial direction; an HP shaft drivingly connected to the HP turbine; an LP shaft drivingly connected to the LP turbine; a gearbox, the first plurality of turbine rotor blades and second plurality of turbine rotor blades rotatable with one another through the gearbox about a first axis to drive the LP shaft; and an electric machine assembly comprising a rotary connection member and an electric machine, the rotary connection member coupled to the first plurality of turbine rotor blades or the second plurality of turbine rotor blades, the electric machine comprising a rotor and a stator, the rotary connection member drivingly coupled to the rotor; wherein the turbine frame is a turbine center frame, wherein the turbine section further comprises a turbine rear frame, and wherein the stator of the electric machine of the electric machine assembly is coupled to the turbine rear frame; and wherein the rotor is rotatable about a second axis, the second axis being offset radially from the first axis and oblique to the first axis, the first axis being an axis of the LP shaft. a turbine section comprising a low pressure, LP, turbine and a high pressure, HP, turbine and a turbine frame, the LP turbine comprising a first plurality of turbine rotor blades and a second plurality of turbine rotor blades, the first plurality of turbine rotor blades and second plurality of turbine rotor blades alternatingly spaced along the axial direction; an HP shaft drivingly connected to the HP turbine; an LP shaft drivingly connected to the LP turbine; a gearbox, the first plurality of turbine rotor blades and second plurality of turbine rotor blades rotatable with one another through the gearbox about a first axis to drive the LP shaft; and an electric machine assembly comprising a rotary connection member and an electric machine, the rotary connection member coupled to the first plurality of turbine rotor blades or the second plurality of turbine rotor blades, the electric machine comprising a rotor and a stator, the rotary connection member drivingly coupled to the rotor; wherein the turbine frame is a turbine center frame, wherein the turbine section further comprises a turbine rear frame, and wherein the stator of the electric machine of the electric machine assembly is coupled to the turbine rear frame; and wherein the rotor is rotatable about a second axis, the second axis being offset radially from the first axis and oblique to the first axis, the first axis being an axis of the LP shaft.
A therapy planning system that facilitates reducing radiation dose to healthy tissue near a target volume, comprising: a tracking module adapted to track target volume motion using one or more 4D computed tomography images reconstructed from acquired CT scan data of the target volume; a processor configured to: generate a 4D motion model for the target volume using tracking information generated by the tracking module; generate a dynamic planned target volume for each of a plurality of motion phases of the target volume identified in the motion model; and a motion estimation tool configured to track the target volume; wherein the processor is further configured to, at each motion phase of the target volume: select a dynamic PTV corresponding to the motion phase to cover the target volume; and determine multi leaf collimator leaf positions and output instructions for irradiating the selected dynamic PTV at each motion phase of the target volume. a tracking module adapted to track target volume motion using one or more 4D computed tomography images reconstructed from acquired CT scan data of the target volume; a processor configured to: generate a 4D motion model for the target volume using tracking information generated by the tracking module; generate a dynamic planned target volume for each of a plurality of motion phases of the target volume identified in the motion model; and generate a 4D motion model for the target volume using tracking information generated by the tracking module; generate a dynamic planned target volume for each of a plurality of motion phases of the target volume identified in the motion model; and a motion estimation tool configured to track the target volume; wherein the processor is further configured to, at each motion phase of the target volume: select a dynamic PTV corresponding to the motion phase to cover the target volume; and determine multi leaf collimator leaf positions and output instructions for irradiating the selected dynamic PTV at each motion phase of the target volume.
A method comprising: generating a transformed downlink signal by performing a frequency transform on a downlink signal, wherein the transformed downlink signal represents the downlink signal in a frequency domain; determining that at least one sub-band of the transformed downlink signal includes data to be transmitted via a distributed antenna system; extracting the at least one sub-band from the transformed downlink signal for transmission via the distributed antenna system, wherein the extracting comprises: determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band. generating a transformed downlink signal by performing a frequency transform on a downlink signal, wherein the transformed downlink signal represents the downlink signal in a frequency domain; determining that at least one sub-band of the transformed downlink signal includes data to be transmitted via a distributed antenna system; extracting the at least one sub-band from the transformed downlink signal for transmission via the distributed antenna system, wherein the extracting comprises: determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band. determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band.