mhurhangee/ep-ind-claims huggingface dataset:
Media line having a contoured connection portion, wherein the media line is multi-ply and is provided with the contoured connection portion at at least its one line end, wherein the multi-ply media line is overmoulded with the contoured connection portion, wherein the media line has at the line end or in the region of the line end at least one joining zone for the media-tight joining of the media line and the contoured connection portion, characterised in that the media line has at the line end or in the region of the line end remote from the joining zone of the media line at least one injection-moulding region, wherein the multi-ply media line has in the joining zone at least one exposed portion which is exposed as far as a joining layer of the line wall of the media line, and the contoured connection portion is injection moulded onto the media line externally via the injection-moulding region, wherein at least one injection point is provided in the injection-moulding region of the contoured connection portion and is arranged at or in the region of a protruding formation of the contoured connection portion, remote from the joining zone.
A light module of a headlamp of a motor vehicle, the light module including at least one light source for emitting light, at least one primary optical system for focusing at least some of the emitted light, at least one secondary optical system for projecting at least some of the focused light as a light distribution onto the roadway ahead of the motor vehicle, and at least one glare-reduction assembly, located between the at least one primary optical system and the at least one secondary optical system in the beam path, wherein the at least one glare-reduction assembly has at least one edge, which projects the secondary optical system as a light/dark boundary of the light distribution on the roadway, and a surface of the glare-reduction assembly is at least provided with light-scattering and/or light-absorbing elements, which are embodied and located such that, in a region of the light distribution above the light/dark boundary, a lesser intensity of the light reflected in that direction by the glare-reduction assembly results than when the light-scattering and/or light-absorbing elements were not present, and the region, in which the intensity of the light reflected toward it by the glare-reduction assembly has decreased, thanks to the light-scattering and/or light-absorbing elements, is located in the vicinity of a kink point between a first portion of an asymmetrical light/dark boundary and a rising portion of the light/dark boundary, characterized in that the glare-reduction assembly has a roller-shaped glare-reduction element, which is rotatable about a rotary axis located essentially horizontally and perpendicular to an optical axis of the light module and on the circumferential surface of which various contours are embodied as edges for forming the light/dark boundary of the light distribution, and the light-scattering and/or light-absorbing elements are embodied as shaping elements in the form of a cylindrical section in cross section, and the roller-shaped glare-reduction element is made from plastic as its basic material.
A polyether compound represented by the following general formula, in the formula, R 1 represents a hydrogen atom or a methyl group, R 2 represents a hydrogen atom or -C(=O)-C(R 3)=CH 2, R 3 represents a hydrogen atom or a methyl group, and, R 1, R 2 and R 3 may be the same as or different from each other.
A compound represented by the following general formula: wherein R 1 represents hydrogen atom, or the same or different one to four substituents binding to the benzene ring; R 2, R 3, R 4, R 5, R 6 and R 7 independently represent hydrogen atom, hydroxyl group, an alkyl group, or a halogen atom; R 8 and R 9 independently represent hydrogen atom, or an alkyl group; X represents a C 1 -C 3 alkylene group; and R 10 represents an acyl group, or a salt thereof.
Tolerance compensation arrangement for fastening a first component to a second component with automatic compensation of tolerances in the spacing between the first and the second component, comprising the following features: a. a base element which comprises a first metal element with a first inner thread and a second metal element with a second inner thread, and b. an adjustment unit which comprises a threaded sleeve made of metal with an outer thread and a dragging unit at least partially arranged in the threaded sleeve, wherein the outer thread forms a first thread pairing of a first thread direction with the first inner thread of the first metal element of the base element, characterized in that c. the base element comprises a supporting element, preferably made of metal, and arranged between the first and the second metal element, wherein d. the first and the second metal element are spaced from each other, preferably along a longitudinal axis of the base element while e. a fastening screw is insertable through an opening of a base unit and the adjustment unit, wherein the base unit is formed of the base element, the first and the second metal element as well as the support element, and is screwable into the second inner thread of the second metal element of the base element via a second thread pairing of a second thread direction opposite to the first thread direction and is connectable with the adjustment unit via the dragging unit through a releasable dragging connection so as to co-rotate the adjustment unit and thereby moving it into abutment with the first component when rotating-in the fastening screw. a. a base element which comprises a first metal element with a first inner thread and a second metal element with a second inner thread, and b. an adjustment unit which comprises a threaded sleeve made of metal with an outer thread and a dragging unit at least partially arranged in the threaded sleeve, wherein the outer thread forms a first thread pairing of a first thread direction with the first inner thread of the first metal element of the base element, characterized in that c. the base element comprises a supporting element, preferably made of metal, and arranged between the first and the second metal element, wherein d. the first and the second metal element are spaced from each other, preferably along a longitudinal axis of the base element while e. a fastening screw is insertable through an opening of a base unit and the adjustment unit, wherein the base unit is formed of the base element, the first and the second metal element as well as the support element, and is screwable into the second inner thread of the second metal element of the base element via a second thread pairing of a second thread direction opposite to the first thread direction and is connectable with the adjustment unit via the dragging unit through a releasable dragging connection so as to co-rotate the adjustment unit and thereby moving it into abutment with the first component when rotating-in the fastening screw.
A complex comprising a polymer comprising a poly(β-amino ester (PBAE) or a PBAE derivative having a functional group at an end of the polymer chain, and a therapeutic agent effective in the treatment of a cartilage disease or condition, for use in the treatment of cartilage damage, wherein the PBAE or PBAE derivative is covalently bound to the therapeutic agent and said complex is administered such that the complex penetrates pre-existing cartilage tissue.
Method for producing a precast concrete part using a formwork device, the formwork device having two formwork panels which are hingedly connected to one another, preferably detachably, in order to be transferred from an unfolded state to a folded state, each formwork panel having a formwork front face and a formwork rear face, and the formwork rear faces of the two formwork panels facing each other in the folded state, a cover and a formwork chamber which is intended for being filled with concrete and can be closed by the cover being provided at least on one of the formwork front faces, characterised in that said chamber is filled with concrete in the unfolded state, and the concrete is hardened in an at least partially folded state of the formwork device.
A method of calibrating a plurality of radars, comprising; selecting a reference radar from among the plurality of radars; selecting one or more pairs of radars, each one of the pairs of radars including the reference radar and a respective paired radar from among the plurality of radars; identifying at least three targets; generating a first at least three target tracks associated with the at least three targets with the reference radar 106); generating a second at least three target tracks associated with the at least three targets with the paired radar; and relating, in a simultaneous equation processor, the first at least three target tracks with the second at least three target tracks in at least three simultaneous equations and solving the simultaneous equations to provide a calibration indicative of a relative position and a relative time delay of the paired radar relative to the reference radar.
A road safety system for pre-installation in a vehicle, the system comprising means to identify a driver and request a driving profile of the driver from a remote server, and characterized by means to evaluate the driver's consciousness level, means to evaluate tire pressure levels of each tire installed on the vehicle, and means to inform the driver prior to the vehicle being driven if the driver's driving profile, consciousness level or the tire pressure levels fall outside a set of predetermined safety conditions.
A hydrostatic pressure indicator, comprising: a) a sealed vessel forming a fluid chamber and at least one transparent indicating chamber in fluid communication with the fluid chamber; b) an indicating material contained within the fluid chamber; and c) a gas contained within the at least one transparent indicating chamber; characterized in that the fluid chamber is configured to compress under a hydrostatic pressure, and in that, when the hydrostatic pressure is applied to fluid chamber, the indicating material is irreversibly squeezed out of the fluid chamber and into the at least one transparent indicating chamber, displacing or compressing the gas contained therein until an equilibrium is reached, thereby the indicating material providing a visual indication that the hydrostatic pressure acted upon the fluid chamber; a) a sealed vessel forming a fluid chamber and at least one transparent indicating chamber in fluid communication with the fluid chamber; b) an indicating material contained within the fluid chamber; and c) a gas contained within the at least one transparent indicating chamber;
A method for communication, the method comprising: in an optical transceiver comprising a silicon photonics interposer (321,513), a polarization splitter, a lens array, and a prism with a coarse wavelength division multiplexing, CWDM, coating and a high reflectivity, HR, coating, where the polarization splitter, lens array, and prism are coupled to the silicon photonics interposer (321,513); receiving an input optical signal comprising a plurality of different wavelength and a plurality of different polarization optical signals; spatially separating signals of different polarization using the polarization splitter; reflecting signals of a first wavelength range into the lens array using the CWDM coating while passing signals in a second wavelength range through the CWDM coating; reflecting signals of the second wavelength range to the lens array using the HR coating; coupling optical signals into the silicon photonics interposer (321,513) using the lens array; and demultiplexing signals of two different wavelengths in the first wavelength range and signals of two different wavelengths in the second wavelength range using demultiplexers in the silicon photonics interposer (321,513). receiving an input optical signal comprising a plurality of different wavelength and a plurality of different polarization optical signals; spatially separating signals of different polarization using the polarization splitter; reflecting signals of a first wavelength range into the lens array using the CWDM coating while passing signals in a second wavelength range through the CWDM coating; reflecting signals of the second wavelength range to the lens array using the HR coating; coupling optical signals into the silicon photonics interposer (321,513) using the lens array; and demultiplexing signals of two different wavelengths in the first wavelength range and signals of two different wavelengths in the second wavelength range using demultiplexers in the silicon photonics interposer (321,513).
A method of manufacturing an optoelectronic device (10; 60; 90; 95; 100; 105; 110), comprising the successive steps of: a) providing a substrate at least partially made of a semiconductor material and having first and second opposite faces (72, 74); b) forming light-emitting diodes on the substrate, each light-emitting diode comprising a semiconductor microwire or nanowire covered by a shell; c) forming an encapsulation layer surrounding the light-emitting diodes; d) forming conductive pads on the encapsulation layer, on the side of the encapsulation layer opposite to the substrate, in contact with the light-emitting diodes; and e) forming through openings in the substrate from the side of the second face, said openings being opposite at least part of the light-emitting diodes and delimiting walls in the substrate. a) providing a substrate at least partially made of a semiconductor material and having first and second opposite faces (72, 74); b) forming light-emitting diodes on the substrate, each light-emitting diode comprising a semiconductor microwire or nanowire covered by a shell; c) forming an encapsulation layer surrounding the light-emitting diodes; d) forming conductive pads on the encapsulation layer, on the side of the encapsulation layer opposite to the substrate, in contact with the light-emitting diodes; and e) forming through openings in the substrate from the side of the second face, said openings being opposite at least part of the light-emitting diodes and delimiting walls in the substrate.
Plastic container with a container bottom, four side walls (2.1, 2.2, 2.3, 2.4) and a wheel tread, wherein the container bottom has a rib structure, wherein the rib structure is formed on the one hand with the container bottom and on the other hand with the wheel tread, wherein the container bottom has four lateral edges (5. 1, 5.2, 5.3, 5.4) and the wheel tread forms four outer longitudinal sides (6.1, 6.2, 6.3, 6.4) and four inner longitudinal sides (7.1, 7.2, 7.3, 7.4), the four side walls (2.1, 2.2, 2.3, 2.4) being connected to one another via four corner roundings (8.1, 8.2, 8.3, 8.4) to form a quadrangular shape, characterized in that that the wheel tread rebounds from the four lateral edges (5.1, 5.2, 5.3, 5.4) of the container bottom to a common center of the container bottom, wherein, however, each of the four outer longitudinal sides (6.1, 6.2, 6.3, 6. 4) forms an expansion (9.1, 9.2, 9.3, 9.4) away from the common center, wherein the rib structure forms end webs (10, 10.1), which increase the distance of the rebounding wheel tread by means of a bevel (11, 11. 1) to the four lateral edges (5.1, 5.2, 5.3, 5.4) of the container base, wherein the bevel (11, 11.1) is adapted in its shape and orientation to the respective expansion (9.1, 9.2, 9.3, 9. 4) and extends from the corners of the four outer longitudinal sides (6.1, 6.2, 6.3, 6.4) to the respective expansion (9.1, 9.2, 9.3, 9.4) of the outer longitudinal side (6.1, 6.2, 6.3, 6.4) projecting away from the center so that a boat bow shape is formed.
A magnetic tunnel junction including a tunnel barrier layer provided between a first magnetic layer and a second magnetic layer, the tunnel barrier layer being a crystal body made of a stacked structure of a first insulating layer and a second insulating layer, the crystal body being oriented, the first insulating layer being made of an oxide of Mg 1- x X x, wherein 0 ≤ x ≤ 0.15, X including at least one element selected from the group consisting of Al and Ti, the second insulating layer being made of an oxide of an alloy including at least two elements selected from the group consisting of Mg, Al, Zn, and Li, both the first magnetic layer and the second magnetic layer being made of an alloy including B and at least one element selected from the group consisting of Co and Fe, characterized in that a thickness of the first insulating layer is 0.05 nm to 1.2 nm, the second insulating layer is a crystal layer, and a total thickness of a stacked film of the first insulating layer and the second insulating layer is 0.6 nm to 3 nm. the tunnel barrier layer being a crystal body made of a stacked structure of a first insulating layer and a second insulating layer, the crystal body being oriented, the first insulating layer being made of an oxide of Mg 1- x X x, wherein 0 ≤ x ≤ 0.15, X including at least one element selected from the group consisting of Al and Ti, the second insulating layer being made of an oxide of an alloy including at least two elements selected from the group consisting of Mg, Al, Zn, and Li, both the first magnetic layer and the second magnetic layer being made of an alloy including B and at least one element selected from the group consisting of Co and Fe, characterized in that a thickness of the first insulating layer is 0.05 nm to 1.2 nm, the second insulating layer is a crystal layer, and a total thickness of a stacked film of the first insulating layer and the second insulating layer is 0.6 nm to 3 nm.
A joint assembly comprising a first gas turbine engine casing having a first flange and a second gas turbine engine casing having a second flange, the first and second flanges (42,44) extending parallel to each other, the first flange having a plurality of first apertures extending there-through, the second flange having a plurality of second apertures extending there-through, the second apertures in the second flange being aligned with the first apertures in the first flange, a plurality of bolts and a plurality of nuts, each bolt extending through a respective first aperture in the first flange and a respective second aperture in the second flange, at least one collar, the at least one collar being arranged around a shank of one of the bolts, each nut being secured on a respective one of the bolts, the at least one collar being arranged between one of the flanges (42,44) and the respective nut or between one of the flanges (42,44) and a head of the respective bolt, characterised in that the at least one collar comprising a first member and a second member, the second member being arranged at a first end of the first member, the first member of the collar being annular, the second member being annular and substantially U-shaped or V-shaped in cross-section, the second member having a first radially inner end, a second radially inner end and a radially outer mid portion (72,76) and the second member defining an axial space between the first radially inner end and the second radially inner end of the second member, the first radially inner end of the second member and the first member have the same diameter.
A method for processing a downlink subframe at a user equipment in a wireless communication system, the method comprising: receiving information signaling a Physical Hybrid-automatic repeat request Indicator Channel, PHICH, duration; receiving a subframe that includes a PHICH, a Physical Downlink Control Channel, PDCCH, and a Physical Downlink Shared Channel, PDSCH; and obtaining the PDSCH starting at the next symbol after a PDCCH duration in the subframe, the method being characterized in that, if the PHICH duration is larger than the PDCCH duration, the obtaining of the PDSCH is performed in consideration of PHICH resources in one or more symbols that belong to the PHICH duration but not to the PDCCH duration. receiving information signaling a Physical Hybrid-automatic repeat request Indicator Channel, PHICH, duration; receiving a subframe that includes a PHICH, a Physical Downlink Control Channel, PDCCH, and a Physical Downlink Shared Channel, PDSCH; and obtaining the PDSCH starting at the next symbol after a PDCCH duration in the subframe, the method being characterized in that, if the PHICH duration is larger than the PDCCH duration, the obtaining of the PDSCH is performed in consideration of PHICH resources in one or more symbols that belong to the PHICH duration but not to the PDCCH duration.
A load sharing method, comprising: obtaining, by a router device, load sharing information of all downstream router devices that are in a load sharing relationship with the router device, wherein the load sharing information comprises load sharing algorithms and disturbance factors of all the downstream router devices that are in a load sharing relationship with the router device, wherein the load sharing algorithms and the disturbance factors are used to perform hash route selection, each of the disturbance factors is a random number generated by the respective downstream router device; determining, by the router device, first load sharing information of the router device according to the load sharing information of all the downstream router devices that are in a load sharing relationship with the router device, wherein the first load sharing information comprises a first load sharing algorithm and a first disturbance factor that are of the router device, and the first disturbance factor is different from the disturbance factors of all the downstream router devices that are in a load sharing relationship with the router device; sending, by the router device, the first load sharing information and the load sharing information of all the downstream router devices that are in a load sharing relationship with the router device to an upstream router device that is in a load sharing relationship with the router device; and when the router device receives a data packet, determining, by the router device, a forwarding path of the data packet by using the first load sharing information. obtaining, by a router device, load sharing information of all downstream router devices that are in a load sharing relationship with the router device, wherein the load sharing information comprises load sharing algorithms and disturbance factors of all the downstream router devices that are in a load sharing relationship with the router device, wherein the load sharing algorithms and the disturbance factors are used to perform hash route selection, each of the disturbance factors is a random number generated by the respective downstream router device; determining, by the router device, first load sharing information of the router device according to the load sharing information of all the downstream router devices that are in a load sharing relationship with the router device, wherein the first load sharing information comprises a first load sharing algorithm and a first disturbance factor that are of the router device, and the first disturbance factor is different from the disturbance factors of all the downstream router devices that are in a load sharing relationship with the router device; sending, by the router device, the first load sharing information and the load sharing information of all the downstream router devices that are in a load sharing relationship with the router device to an upstream router device that is in a load sharing relationship with the router device; and when the router device receives a data packet, determining, by the router device, a forwarding path of the data packet by using the first load sharing information.