mhurhangee/ep-ind-claims huggingface dataset:
A laminated vehicle glazing for fitting within a metal surround, said glazing comprising: an inner pane, an outer pane, a bonding layer between said inner pane and said outer pane, and a conductive panel, arranged to define at least one elongated dielectric slot antenna between an edge of the metal surround and an edge of the conductive panel, said at least one slot antenna comprising a high-frequency current-conductive frame bounding an elongated area of the antenna and opposed edge conductors adapted for the connection of connecting leads, and at least one device that can emit electromagnetic radiation, wherein said device occupies an area located in said at least one edge region; and characterized in that the area of the at least one device that can emit electromagnetic radiation and the area of the at least one slot antenna do not overlap in the projection of said areas on the plane of the outer pane, wherein the conductive panel is arranged to overlap with the metal surround in at least one edge region of the glazing thereby being high-frequency current coupled to said metal surround at said at least one edge region. an inner pane, an outer pane, a bonding layer between said inner pane and said outer pane, and a conductive panel, arranged to define at least one elongated dielectric slot antenna between an edge of the metal surround and an edge of the conductive panel, said at least one slot antenna comprising a high-frequency current-conductive frame bounding an elongated area of the antenna and opposed edge conductors adapted for the connection of connecting leads, and at least one device that can emit electromagnetic radiation, wherein said device occupies an area located in said at least one edge region; and characterized in that the area of the at least one device that can emit electromagnetic radiation and the area of the at least one slot antenna do not overlap in the projection of said areas on the plane of the outer pane, wherein the conductive panel is arranged to overlap with the metal surround in at least one edge region of the glazing thereby being high-frequency current coupled to said metal surround at said at least one edge region.
A gear having excellent seizing resistance, characterized by comprising a chemical composition consisting of C: 0.15 to 0.45% (by mass percent, the same shall apply hereinafter to the chemical compositions), Si: 0.05 to 1.0%, Mn: 1.0 to 2.0%, P: 0.05% or less, S: 0.05% or less, Cr: 0.9 to 2%, Al: 0.01 to 0.1%, and N: 0.02% or less, optionally Mo: 0.5% or less, optionally at least one element selected from the group consisting of V: 0.2% or less, Ti: 0.1 % or less, and Nb: 0.2% or less, optionally B: 0.01% or less, optionally at least one element selected from the group consisting of Cu: 5% or less and Ni: 5% or less, with the remainder consisting of Fe and inevitable impurities, the gear having a surface-layer part that has a steel microstructure including at least one phase of tempered martensite and tempered bainite, 1 to 10% retained austenite by area percentage, and 5% or more carbide being precipitated by area percentage, and the gear having a nitrogen content of 2.0 to 6.0% at a depth of 20 μm below a surface of the gear.
A process for preparing cis-1,1,1,4,4,4-hexafluorobut-2-ene comprising steps: (a) reacting CCl 4 with a compound having the formula: CF 3 CX=CXH where X = halogen or H independent of each other, to form a compound having the formula: CF 3 CXClCXHCCl 3 (b) fluorinating the compound formed in step (a) to form a compound having the formula: CF 3 CXClCXHCF 3 (c) converting the compound formed in step (b) by a reaction selected from the group consisting of dehydrohalogenation, dehalogenation and both reactions, to form a compound having the formula: CF 3 C≡CCF 3 wherein when X=H, step (c) comprises the steps of 1) adding Cl 2: CF 3 CH=CHCF 3 + Cl 2 → CF 3 CHClCHClCF 3 and 2) a subsequent dehalogenation step: CF 3 CHClCHClCF 3 → CF 3 C≡CCF 3 + 2HCl and (d) catalytically reducing the compound formed in step (c) with hydrogen to form the compound having the formula: (a) reacting CCl 4 with a compound having the formula: CF 3 CX=CXH where X = halogen or H independent of each other, to form a compound having the formula: CF 3 CXClCXHCCl 3 (b) fluorinating the compound formed in step (a) to form a compound having the formula: CF 3 CXClCXHCF 3 (c) converting the compound formed in step (b) by a reaction selected from the group consisting of dehydrohalogenation, dehalogenation and both reactions, to form a compound having the formula: CF 3 C≡CCF 3 wherein when X=H, step (c) comprises the steps of 1) adding Cl 2: CF 3 CH=CHCF 3 + Cl 2 → CF 3 CHClCHClCF 3 and 2) a subsequent dehalogenation step: CF 3 CHClCHClCF 3 → CF 3 C≡CCF 3 + 2HCl and 1) adding Cl 2: CF 3 CH=CHCF 3 + Cl 2 → CF 3 CHClCHClCF 3 and 2) a subsequent dehalogenation step: CF 3 CHClCHClCF 3 → CF 3 C≡CCF 3 + 2HCl (d) catalytically reducing the compound formed in step (c) with hydrogen to form the compound having the formula:
A device for evaluating the sound exposure of an individual spending time in at least one location (L 1; L 3; L 5; L 6; L 7) exposed to the noise emitted by at least one source (1; 10-18) the individual carrying an object including a specific identification number associated to that individual, characterized in that it comprises: - at least one means for determining moments of entry and of exit of the individual respectively into and out of the location (L 1; L 3; L 5; L 6; L 7), the or each means for determination including at least a recognition member capable of interacting with the object carried by the individual in order to determine the moments of entry and of exit of the individual respectively into and out of the location; - at least one sensor installed in the location (L 1; L 3; L 5; L 6; L 7) and capable of measuring noise in at least one point of the location (L 1; L 3; L 5; L 6; L 7); and - a calculator capable, on the one hand, of communicating with the or each determination means and of defining the length of time spent by the individual in the location (L 1; L 3; L 5; L 6; L 7) between the moments of entry and of exit and, on the other hand, of communicating with the or each sensor and of defining values representative of the sound exposure of the individual during the time spent, the calculator being capable of emitting signals representative of this sound exposure. - at least one means for determining moments of entry and of exit of the individual respectively into and out of the location (L 1; L 3; L 5; L 6; L 7), the or each means for determination including at least a recognition member capable of interacting with the object carried by the individual in order to determine the moments of entry and of exit of the individual respectively into and out of the location; - at least one sensor installed in the location (L 1; L 3; L 5; L 6; L 7) and capable of measuring noise in at least one point of the location (L 1; L 3; L 5; L 6; L 7); and - a calculator capable, on the one hand, of communicating with the or each determination means and of defining the length of time spent by the individual in the location (L 1; L 3; L 5; L 6; L 7) between the moments of entry and of exit and, on the other hand, of communicating with the or each sensor and of defining values representative of the sound exposure of the individual during the time spent, the calculator being capable of emitting signals representative of this sound exposure.
A method executed by a user equipment, UE, in a wireless communication system, the method comprising: receiving assistance data, AD, transmitted by a network node, the AD identifying at least one cell for which positioning reference signal, PRSs, are to be measured and transmission power pattern information for the at least one cell, wherein the transmission power pattern defines a transmission power for each PRS of a series, wherein the transmission power for each PRS of the series are part of a non-binary set of allowable transmission powers, wherein the at least one cell is identifiable based at least in part on its transmission power pattern; receiving PRSs transmitted by multiple cells, wherein the UE compares a quality of reception of the received PRSs from the cell to the PRS transmission power pattern information to verify that a source cell for the received PRSs is a cell from which PRSs are to be measured; generating PRS measurement data for the UE based on the received PRSs, wherein the PRS measurement data comprises information about particular power levels at which certain PRSs were received by the UE and identifying information of a source cell or network node associated with each power level reading; and transmitting the PRS measurement data to a positioning server. receiving assistance data, AD, transmitted by a network node, the AD identifying at least one cell for which positioning reference signal, PRSs, are to be measured and transmission power pattern information for the at least one cell, wherein the transmission power pattern defines a transmission power for each PRS of a series, wherein the transmission power for each PRS of the series are part of a non-binary set of allowable transmission powers, wherein the at least one cell is identifiable based at least in part on its transmission power pattern; receiving PRSs transmitted by multiple cells, wherein the UE compares a quality of reception of the received PRSs from the cell to the PRS transmission power pattern information to verify that a source cell for the received PRSs is a cell from which PRSs are to be measured; generating PRS measurement data for the UE based on the received PRSs, wherein the PRS measurement data comprises information about particular power levels at which certain PRSs were received by the UE and identifying information of a source cell or network node associated with each power level reading; and transmitting the PRS measurement data to a positioning server.
A light emitting device comprising: a support member having a stepped portion on a side surface; a light emitting structure on the support member, the light emitting structure comprising a first conductive type semiconductor layer, an active layer, and a second conductive type semiconductor layer to generate light; an electrode supplying a power to the first conductive type semiconductor layer, wherein the support member has a first surface on which the light emitting structure is disposed and a second surface having an area greater than that of the first surface, characterized in that it further comprises a channel layer between the light emitting structure and the support member, the channel layer being disposed along a circumference of a bottom surface of the light emitting structure, a current blocking layer between the light emitting structure and the support member, a portion of the current blocking layer vertically overlapping with the electrode, a first passivation layer extending from a top surface of the light emitting structure up to a top surface of the channel layer, a second passivation layer disposed on the first passivation layer, and having one end disposed on the light emitting structure and the other end disposed on the stepped portion along the side surface of the light emitting structure and the support member, and a top surface of the stepped portion being spaced from a bottom surface of the light emitting structure by a distance of 60 μ m to 120 μ m. a support member having a stepped portion on a side surface; a light emitting structure on the support member, the light emitting structure comprising a first conductive type semiconductor layer, an active layer, and a second conductive type semiconductor layer to generate light; an electrode supplying a power to the first conductive type semiconductor layer, wherein the support member has a first surface on which the light emitting structure is disposed and a second surface having an area greater than that of the first surface, characterized in that it further comprises a channel layer between the light emitting structure and the support member, the channel layer being disposed along a circumference of a bottom surface of the light emitting structure, a current blocking layer between the light emitting structure and the support member, a portion of the current blocking layer vertically overlapping with the electrode, a first passivation layer extending from a top surface of the light emitting structure up to a top surface of the channel layer, a second passivation layer disposed on the first passivation layer, and having one end disposed on the light emitting structure and the other end disposed on the stepped portion along the side surface of the light emitting structure and the support member, and a top surface of the stepped portion being spaced from a bottom surface of the light emitting structure by a distance of 60 μ m to 120 μ m.
Macitentan for use in the prevention or treatment of brain metastases in combination - with a cytotoxic chemotherapy agent selected from paclitaxel, temozolomide and a mixture of paclitaxel and temozolomide, or - with radiotherapy, or - with both radiotherapy and a cytotoxic chemotherapy agent selected from paclitaxel, temozolomide and a mixture of paclitaxel and temozolomide. - with a cytotoxic chemotherapy agent selected from paclitaxel, temozolomide and a mixture of paclitaxel and temozolomide, or - with radiotherapy, or - with both radiotherapy and a cytotoxic chemotherapy agent selected from paclitaxel, temozolomide and a mixture of paclitaxel and temozolomide.
A laser metal fusion or selective laser sintering method for the additive manufacture of components in layers in a powder bed by means of at least two laser beams (3a, 3b) which can be deflected two-dimensionally over the same powder bed region by means of a separate scanner each (7a, 7b) and each laser burn spot of which projected onto the power bed directly below the respective scanner (7a, 7b) is set to a diameter of a size of less than or equal to 300 μm, preferably 200 μm, particularly preferably 100 μm, wherein a component to be produced in the powder bed region can be manufactured by each of the laser beams (3a, 3b), wherein the laser burn spots of the laser beams (3a, 3b) projected directly below their respective scanners (7a, 7b) have the same diameter such that the laser beams (3a, 3b) are equally suited to produce a component with the same surface roughness, characterized in that each individual surface contour of the component to be produced in the powder bed region, said contour extending over multiple layers and being oriented perpendicularly to the powder bed or enclosing an angle of less than 20° with the normal of the powder bed, and/or each individual surface contour of the component to be produced in the powder bed region, said contour extending over multiple layers and not being oriented parallel to the powder bed, is manufactured solely by one of the laser beams (3a, 3b). wherein the laser burn spots of the laser beams (3a, 3b) projected directly below their respective scanners (7a, 7b) have the same diameter such that the laser beams (3a, 3b) are equally suited to produce a component with the same surface roughness, characterized in that each individual surface contour of the component to be produced in the powder bed region, said contour extending over multiple layers and being oriented perpendicularly to the powder bed or enclosing an angle of less than 20° with the normal of the powder bed, and/or each individual surface contour of the component to be produced in the powder bed region, said contour extending over multiple layers and not being oriented parallel to the powder bed, is manufactured solely by one of the laser beams (3a, 3b).
An endoscope for use with a tool, the endoscope comprising: an elongated shaft having a proximal section, an angled section, and a distal section, wherein the proximal section extends about a longitudinal axis and the distal section extends about a central axis, wherein the longitudinal axis is parallel to and offset from the central axis; an elastomeric sleeve surrounding the angled section, the distal section and a distal portion of the proximal section; an image sensor disposed at the distal end of the distal section; and a channel extending from said proximal section to said distal section and defined by a sleeve, wherein lateral sidewalls of the sleeve comprise cut-outs (220a, 220b), wherein the distal portion of the channel comprises a first configuration having a first cross-sectional shape that provides an open pathway through the channel, characterized in that a distal portion of the sleeve comprises a straight and rigid superior surface spaced from a flexible anterior surface, the anterior surface having a living hinge below the side wall cut-outs (220a, 220b), wherein, upon advancement of the tool through the channel and against the superior surface and the anterior surface, the living hinge deflects to cause the distal portion of the channel to assume a second configuration having a second cross-sectional shape larger than the first cross-sectional shape. an elongated shaft having a proximal section, an angled section, and a distal section, wherein the proximal section extends about a longitudinal axis and the distal section extends about a central axis, wherein the longitudinal axis is parallel to and offset from the central axis; an elastomeric sleeve surrounding the angled section, the distal section and a distal portion of the proximal section; an image sensor disposed at the distal end of the distal section; and a channel extending from said proximal section to said distal section and defined by a sleeve, wherein lateral sidewalls of the sleeve comprise cut-outs (220a, 220b), wherein the distal portion of the channel comprises a first configuration having a first cross-sectional shape that provides an open pathway through the channel, characterized in that a distal portion of the sleeve comprises a straight and rigid superior surface spaced from a flexible anterior surface, the anterior surface having a living hinge below the side wall cut-outs (220a, 220b), wherein, upon advancement of the tool through the channel and against the superior surface and the anterior surface, the living hinge deflects to cause the distal portion of the channel to assume a second configuration having a second cross-sectional shape larger than the first cross-sectional shape.
A method comprising: receiving, by one or more devices, information that identifies a label-switched path; determining, by the one or more devices, multiple policies for the label-switched path; identifying, by the one or more devices, time information; determining a plurality of network traffic behavior models for the label-switched path that differ based on the time information; and implementing, by the one or more devices and based on the time information and the plurality of network traffic behavior models, a particular policy, of the multiple policies, in association with the label-switched path, the particular policy enabling adjustment of a bandwidth reservation of the label-switched path. receiving, by one or more devices, information that identifies a label-switched path; determining, by the one or more devices, multiple policies for the label-switched path; identifying, by the one or more devices, time information; determining a plurality of network traffic behavior models for the label-switched path that differ based on the time information; and implementing, by the one or more devices and based on the time information and the plurality of network traffic behavior models, a particular policy, of the multiple policies, in association with the label-switched path, the particular policy enabling adjustment of a bandwidth reservation of the label-switched path.
A compound represented by Formula I: or a geometric isomer or tautomer; or a pharmaceutically acceptable salt or solvate of any of the foregoing; wherein R 1 is a chloro group located at the meta-position of the phenyl group to which it is attached.
A dry powder for inhalation comprising active particles and carrier particles for supporting active particles, the formulation further containing magnesium stearate in an amount of at least 0.5% by weight of the formulation, and wherein particles of magnesium stearate are disposed on the surface of the carrier particles such that the surface coverage of carrier particles, as determined using SEM-EDX, is less than 5%.
A surgical instrument comprising: a handle; an elongated shaft assembly extending distally from the handle, wherein the elongated shaft assembly includes an articulable portion; an articulation control associated with the elongated shaft assembly, wherein the articulation control is movable between a first position in which the elongated shaft assembly is arranged in a first articulation position and a second position in which the elongated shaft assembly is arranged in a second articulation position; and a fastener deployment system including a locking member that moves when the fastener deployment system is actuated to permit actuation of the fastener deployment system, movement of the locking member being blocked to prevent actuation of the fastener deployment system, characterised in that the articulation control blocks movement of the locking member when the articulation control is located in the first position, and wherein the articulation control permits movement of the locking member when the articulation control is located in the second position. a handle; an elongated shaft assembly extending distally from the handle, wherein the elongated shaft assembly includes an articulable portion; an articulation control associated with the elongated shaft assembly, wherein the articulation control is movable between a first position in which the elongated shaft assembly is arranged in a first articulation position and a second position in which the elongated shaft assembly is arranged in a second articulation position; and a fastener deployment system including a locking member that moves when the fastener deployment system is actuated to permit actuation of the fastener deployment system, movement of the locking member being blocked to prevent actuation of the fastener deployment system, characterised in that the articulation control blocks movement of the locking member when the articulation control is located in the first position, and wherein the articulation control permits movement of the locking member when the articulation control is located in the second position.