mhurhangee/ep-ind-claims huggingface dataset:
Coordinate measuring device, in particular laser tracker, for capturing the position and alignment of a measuring aid, which is movable in space and comprises a retroreflector, wherein the coordinate measuring device at least comprises • a base and a support, which is fastened on the base so it is rotatable about a first axis of rotation, • a beam deflection unit, which is fastened on the support so it is rotatable about a second axis of rotation, which is essentially orthogonal to the first axis of rotation, • a first bearing for the rotatable mounting of the beam deflection unit on the support, and • a second bearing for the rotatable mounting of the support on the base, wherein • the beam deflection unit comprises an optical distance measuring device having at least one distance meter (13, 14) for measuring the distance to the measuring aid by means of measurement radiation, • the first bearing comprises a first angle encoder and the second bearing comprises a second angle encoder, and • a first inclination sensor is provided on the base, characterized by • a second inclination sensor on the support, wherein the first inclination sensor and the second inclination sensor are each embodied ∘ to capture an inclination in at least two essentially orthogonal directions in relation to the direction of gravity and ∘ to output inclination data, and • an analysis and control unit, which is embodied, for the purpose of self-monitoring and/or self-calibration of the coordinate measuring device, to capture and analyze the inclination data of the two inclination sensors (29, 49). • a base and a support, which is fastened on the base so it is rotatable about a first axis of rotation, • a beam deflection unit, which is fastened on the support so it is rotatable about a second axis of rotation, which is essentially orthogonal to the first axis of rotation, • a first bearing for the rotatable mounting of the beam deflection unit on the support, and • a second bearing for the rotatable mounting of the support on the base, • the beam deflection unit comprises an optical distance measuring device having at least one distance meter (13, 14) for measuring the distance to the measuring aid by means of measurement radiation, • the first bearing comprises a first angle encoder and the second bearing comprises a second angle encoder, and • a first inclination sensor is provided on the base, • a second inclination sensor on the support, wherein the first inclination sensor and the second inclination sensor are each embodied ∘ to capture an inclination in at least two essentially orthogonal directions in relation to the direction of gravity and ∘ to output inclination data, and ∘ to capture an inclination in at least two essentially orthogonal directions in relation to the direction of gravity and ∘ to output inclination data, and • an analysis and control unit, which is embodied, for the purpose of self-monitoring and/or self-calibration of the coordinate measuring device, to capture and analyze the inclination data of the two inclination sensors (29, 49).
A nasal implant (32, 1800, 1900) for changing or supporting an aspect of a body structure or shape of the nose comprising: a body comprising a distal end; a proximal end; a proximal feature disposed at the proximal end and defined by a blunt end, a central portion disposed between the proximal end and the distal end, wherein the central portion comprises a plurality of ribs (80a, 80b), and a strain relief section at the proximal end having a smaller cross-sectional area than another portion of the implant, the strain relief section adapted to work in conjunction with the proximal feature to hold the implant in a tissue; and a first arm (40, 76a) and a second arm (42, 76b) disposed at the distal end, the first arm (40, 76a) and the second arm (42, 76b) each having a proximal end fixed to the body and a distal end not fixed to the body, and the distal end of the first arm (40, 76a) and the distal end of the second arm (42, 76b) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration. a body comprising a distal end; a proximal end; a proximal feature disposed at the proximal end and defined by a blunt end, a central portion disposed between the proximal end and the distal end, a distal end; a proximal end; a proximal feature disposed at the proximal end and defined by a blunt end, a central portion disposed between the proximal end and the distal end, wherein the central portion comprises a plurality of ribs (80a, 80b), and a strain relief section at the proximal end having a smaller cross-sectional area than another portion of the implant, the strain relief section adapted to work in conjunction with the proximal feature to hold the implant in a tissue; and a first arm (40, 76a) and a second arm (42, 76b) disposed at the distal end, the first arm (40, 76a) and the second arm (42, 76b) each having a proximal end fixed to the body and a distal end not fixed to the body, and the distal end of the first arm (40, 76a) and the distal end of the second arm (42, 76b) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration.
A system for predicting a cardiac event of a patient, the system comprising; an adherent device attachable to a patient to electronically measure impedance data from the patient; and a processor and a tangible memory readable by the processor; and an input for receiving patient descriptive data indicating at least one descriptive characteristic of the patient wherein the memory stores instructions that, when executed by the processor, cause the system to receive the impedance data; establish at least one personalized value for the patient based on the impedance data, wherein said at least one personalized value represents a patient-specific baseline impedance that reflects a patient-specific baseline fluid measurement; and receive patient descriptive data indicating at least one descriptive characteristic of the patient corresponding to the amount of fat in the patient's body; establish a predicted impedance specific to the patient, based at least in part on the patient descriptive data; and generate a patient event prediction output predictive of a patient cardiac event based at least in part on the measured impedance data, the patient-specific baseline impedance and on the relationship of the measured impedance data to the patient's predicted impedance. an input for receiving patient descriptive data indicating at least one descriptive characteristic of the patient wherein the memory stores instructions that, when executed by the processor, cause the system to receive the impedance data; wherein said at least one personalized value represents a patient-specific baseline impedance that reflects a patient-specific baseline fluid measurement; and receive patient descriptive data indicating at least one descriptive characteristic of the patient corresponding to the amount of fat in the patient's body; establish a predicted impedance specific to the patient, based at least in part on the patient descriptive data; and generate a patient event prediction output predictive of a patient cardiac event based at least in part on the measured impedance data, the patient-specific baseline impedance and on the relationship of the measured impedance data to the patient's predicted impedance.
First and second co-operating devices (1, 2), both having means for recording environmental data, the first device having means (15, 12) for receiving and storing data transmitted by the second device, the second device having means (20, 21) for collecting environmental data, and means for transmitting the data it has collected to the first device in response to a prompt, characterized in that the second device has an ancillary relation to the first device and is detachable or separate therefrom, and that the prompt is generated in response to initial powering up of the first device.
An active matrix substrate comprising a scanning line, a signal line, a switching element, and a pixel electrode on a substrate, and a plurality of first spacers on the substrate, wherein each first spacer includes a first base layer and a first covering layer formed of a thermocured photoresist, the first base layer being buried in the first covering layer, wherein the upper surface and all side surfaces of the first base layer are covered with the first covering layer, wherein the first base layer is made of a material for another component of the active matrix substrate selected from the group of the scanning line, the signal line, a semiconductor layer of the switching element, and the pixel electrode, characterised in that the first spacers are arranged on the scanning line and/or on a storage capacitor wiring, and the distance between the edge of the top of the first base layer and the edge of the top of the first covering layer of each first spacer is 5 μm or more whereby the top of each first spacer is rendered flat to an extent that a difference in the height of each first spacer is 0.1 μm or less.
Aircraft seat device with at least one backrest (10a; 10b; 10f; 10g; 10h), with at least one seat component (12a; 12b; 12f; 12h; 12i) that is coupled with the backrest (10a; 10b; 10f; 10g; 10h) and with a backrest impact safety device (14a; 14b; 14f; 14g; 14h) that is configured, by way of a partial decoupling of the backrest (10a; 10b; 10f; 10g; 10h) from the seat component (12a; 12b; 12f; 12h; 12i), to at least partly reduce impact forces on the backrest (10a; 10b; 10f; 10g; 10h) at least in the event of a crash, wherein the backrest impact safety device (14a; 14b; 14f; 14g; 14h) is configured to decouple the backrest (10a; 10b; 10f; 10g; 10h) from the seat component (12a; 12b; 12f; 12h; 12i) prior to the impact forces taking effect, wherein the backrest impact safety device (14a; 14b; 14f; 14g; 14h) comprises at least one inertia module (16a; 16b; 16f; 16g; 16h) that is configured for a decoupling of the backrest impact safety device (14a; 14b; 14f; 14g; 14h; 14i) at least in the event of a crash, characterised in that the backrest impact safety device comprises at least one knee joint that is configured, in a normal operation state, to be coupled with the inertia module.
A guide wire (1, 1A-1H, 1J) comprising: a core shaft; and a coil body (20, 20A-20G) formed by winding a wire around the core shaft, wherein the wire includes a long axis and a short axis in a transverse section, the coil body (20, 20A-20G) includes an inclined portion (201, 201A-201E) where an angle formed by the long axis of the wire and an axial line of the coil body (20, 20A-20G) is acute with respect to a first direction along the axial line of the coil body (20, 20A-20G) over the entire circumference of the coil body (20, 20A-20G) and, wherein the guide wire (1, 1A-1H, 1J) further comprises a distal end side fixing part (51, 51D, 51E) placed at the distal end part of the guide wire (1, 1A-1H, 1J) and configured to integrally hold the distal end part of the core shaft and the distal end part of the inclined portion (201, 201A-201E). a core shaft; and a coil body (20, 20A-20G) formed by winding a wire around the core shaft, wherein the wire includes a long axis and a short axis in a transverse section, the coil body (20, 20A-20G) includes an inclined portion (201, 201A-201E) where an angle formed by the long axis of the wire and an axial line of the coil body (20, 20A-20G) is acute with respect to a first direction along the axial line of the coil body (20, 20A-20G) over the entire circumference of the coil body (20, 20A-20G) and, wherein the guide wire (1, 1A-1H, 1J) further comprises a distal end side fixing part (51, 51D, 51E) placed at the distal end part of the guide wire (1, 1A-1H, 1J) and configured to integrally hold the distal end part of the core shaft and the distal end part of the inclined portion (201, 201A-201E).
A silicone structure-containing polymer comprising recurring units having the formula, recurring units having the formula, and recurring units having the formula and recurring units having the formula: wherein R 1 to R 4 are each independently a C 1 -C 8 monovalent hydrocarbon group, m and n are each independently an integer of 0 to 300, X 1 is a divalent group having the formula: wherein R 11 is each independently hydrogen or a C 1 -C 8 monovalent hydrocarbon group in which at least one hydrogen may be substituted by halogen, R 12 is each independently a C 1 -C 8 straight, branched or cyclic alkylene group in which any methylene moiety may be substituted by an ether bond or phenylene moiety, R 13 is each independently hydrogen, a C 1 -C 8 monovalent hydrocarbon group, hydroxyl group or glycidyl group, p and q are each independently an integer of 0 to 4, Y 1 is a single bond or a divalent organic group having the formula, or: wherein R 14 is a C 1 -C 8 monovalent hydrocarbon group in which at least one hydrogen may be substituted by halogen, Y 2 is a divalent organic group, r and s are each independently an integer of 0 to 3, t and u are each independently an integer of 0 to 2, wherein R 1 to R 4, m and n are as defined above, X 4 is a divalent group having the formula: wherein R 41 is each independently hydrogen or methyl, and g is each independently an integer of 0 to 7.
Assembly, comprising: - a skeletal structure and/or a wall bearing structure of a building, comprising at least one carrier; - a filling element extending from the carrier, comprising: - a plate; and - an I-shaped beam, said assembly being characterised in that said I-shaped beam comprises - a first flange being an upper flange that comprises an extension extending therefrom and that is supported on the carrier, wherein said first flange and said extension are at a distance from the plate; and - a second flange being a lower flange that is embedded in the plate to define the beam as a structurally integrated part of the filling element with the plate; and in that said assembly comprises a bolted connection connecting the beam to the carrier at a vertical offset from the extension - a skeletal structure and/or a wall bearing structure of a building, comprising at least one carrier; - a filling element extending from the carrier, comprising: - a plate; and - an I-shaped beam, said assembly being characterised in that said I-shaped beam comprises - a first flange being an upper flange that comprises an extension extending therefrom and that is supported on the carrier, wherein said first flange and said extension are at a distance from the plate; and - a second flange being a lower flange that is embedded in the plate to define the beam as a structurally integrated part of the filling element with the plate; and - a plate; and - an I-shaped beam, said assembly being characterised in that said I-shaped beam comprises - a first flange being an upper flange that comprises an extension extending therefrom and that is supported on the carrier, wherein said first flange and said extension are at a distance from the plate; and - a second flange being a lower flange that is embedded in the plate to define the beam as a structurally integrated part of the filling element with the plate; and - a first flange being an upper flange that comprises an extension extending therefrom and that is supported on the carrier, wherein said first flange and said extension are at a distance from the plate; and - a second flange being a lower flange that is embedded in the plate to define the beam as a structurally integrated part of the filling element with the plate; and
Apparatus for changing physical characteristics of a metal workpiece having a surface, the apparatus comprising: a support for the workpiece; a driven member for applying multiple impacts to a surface of the workpiece and creating impact energy that moves as a stress wave from the driven member to the surface of the workpiece, the stress wave being then transferred from the surface as an internal compressive layer within the workpiece; and a controller having adjustable parameters operatively connected to the driven member to operate the driven member for applying multiple impacts against the surface of the workpiece within a range of the adjustable parameters for changing physical characteristics of the metal workpiece, wherein the support for the workpiece has a surface, the workpiece having a second surface which bears against the surface of the support and in that the support comprises an anvil bearing against the second surface of the workpiece for opposing the multiple impacts to the surface of the workpiece, the apparatus further comprising elongated clamps configured to cooperate with the support to secure the workpiece in place during impacting by the driven member. a support for the workpiece; a driven member for applying multiple impacts to a surface of the workpiece and creating impact energy that moves as a stress wave from the driven member to the surface of the workpiece, the stress wave being then transferred from the surface as an internal compressive layer within the workpiece; and a controller having adjustable parameters operatively connected to the driven member to operate the driven member for applying multiple impacts against the surface of the workpiece within a range of the adjustable parameters for changing physical characteristics of the metal workpiece, wherein the support for the workpiece has a surface, the workpiece having a second surface which bears against the surface of the support and in that the support comprises an anvil bearing against the second surface of the workpiece for opposing the multiple impacts to the surface of the workpiece, the apparatus further comprising elongated clamps configured to cooperate with the support to secure the workpiece in place during impacting by the driven member.
A sheet for semiconductor processing, the sheet comprising a base material and a pressure sensitive adhesive layer laminated on at least one surface of the base material, the pressure sensitive adhesive layer being formed of a pressure sensitive adhesive composition, the pressure sensitive adhesive composition containing a polymer having a salt and an energy ray curable group and an energy ray curable pressure sensitive adhesive component (excluding the polymer), and the polymer having a (meth) acryloyl group as the energy ray curable group.
A pultrusion apparatus comprising: a) a portion for receiving fibres, b) a portion for injecting resin into the fibres, c) a portion for impregnating the resin injected fibres, and d) a portion for shaping the impregnated fibres, wherein the fibres, following their passage through the receiving portion, converge in the resin injection portion to receive the resin, and the resin flows outwards following injection as the fibres progress from the injection portion through the impregnation portion; characterised in that the fibre receiving portion comprises an inlet comprising openings of varying size in an oscillating lattice arrangement. a) a portion for receiving fibres, b) a portion for injecting resin into the fibres, c) a portion for impregnating the resin injected fibres, and d) a portion for shaping the impregnated fibres,
A cable header connector comprising a contact module having a support body (304, 374) and a plurality of cable assemblies held by the support body and arranged in a column or row, each of the cable assemblies comprising a contact sub-assembly, and a ground shield coupled to the contact sub-assembly, the contact sub-assembly having a pair of signal contacts extending between mating ends and terminating ends, the signal contacts being peripherally surrounded by the ground shield, the cable header connector including an electrically conductive ground bridge (302, 372, 390), the contact sub-assembly is configured to be terminated to a cable; the signal contacts are terminated to corresponding signal wires (104, 106) of the cable at the terminating ends; the electrically conductive ground bridge (302, 372, 390) is coupled to the support body (304, 374); characterised in that the ground bridge includes intercolumn bridges (306, 380, 392), each intercolumn bridge arranged between two adjacent cable assemblies and engaging and electrically connected to the ground shield of each of its adjacent cable assemblies, whereby the ground bridge electrically connects the cable assemblies via the intercolumn bridges; and in that each intercolumn bridge includes a finger engaging one ground shield and a flexible beam extending from the finger and engaging another ground shield to electrically connect the ground shields.
A wind power system for generating electric energy, comprising a tower; a nacelle fitted to the tower to rotate about a first axis; a hub fitted to the nacelle to rotate about a second axis; at least one blade fitted to the hub to rotate about a third axis; and at least one safety device (8; 25; 53) positioned contacting a first area at the root of the blade, and a second area of the nacelle, so as to connect the blade electrically to the nacelle; and wherein the safety device (8; 25; 53) is deformable to compensate for variations in the distance between the first and second area; characterized in that the wind power system comprises a shell, which is electrically insulated from the hub, extends about the hub and the root of the blade and includes an annular edge adjacent to the nacelle and an opening housing the root of the blade; the safety device comprising a first slide supported by the shell at said opening in sliding contact with the root of the blade, and a second slide supported by the shell at said annular edge in sliding contact with the nacelle.
A management device, managing a packet circulating network comprising a master device and a plurality of slave devices connected to the master device, the management device comprising: an actual configuration information acquisition unit, acquiring actual configuration information of the actual network from the master device; a ring topology detection unit, detecting a ring topology configured from the slave devices based on the actual configuration information, and identifiably displaying the ring topology in an actual network configuration diagram displayed based on the actual configuration information, the management device characterized in that the actual configuration information comprises slave connection information of each of the slave devices and each of the slave connection information comprises between-port connection information, and the ring topology detection unit traces connection relationship between an input port and an output port in an order from the input port to the output port and detects the ring topology based on the between-port connection information included in the slave connection information. an actual configuration information acquisition unit, acquiring actual configuration information of the actual network from the master device; a ring topology detection unit, detecting a ring topology configured from the slave devices based on the actual configuration information, and identifiably displaying the ring topology in an actual network configuration diagram displayed based on the actual configuration information, the management device characterized in that the actual configuration information comprises slave connection information of each of the slave devices and each of the slave connection information comprises between-port connection information, and the ring topology detection unit traces connection relationship between an input port and an output port in an order from the input port to the output port and detects the ring topology based on the between-port connection information included in the slave connection information.