mhurhangee/ep-ind-claims huggingface dataset:
A method of packaging a semiconductor light emitting device in a reflector comprising a moat around the light emitting device and a reflective cavity defined by a sidewall (5, 6) within which the light emitting device is located, the method comprising: dispensing a first quantity of encapsulant material into the reflective cavity to cover the light emitting device and curing the first quantity of encapsulant material in the reflective cavity characterised in that the moat is positioned in a substantially horizontal shoulder portion between upper and sloped lower sidewalls (5, 6) defining the reflective cavity and in that the first quantity of encapsulant material is dispensed to form a first convex meniscus in the cavity extending from an edge of the moat without contacting the upper sidewall of the reflective cavity; wherein curing the first quantity of encapsulant material is followed by: dispensing a second quantity of encapsulant material onto the cured first quantity of encapsulant material to form a second convex meniscus of encapsulant material in the reflective cavity extending from an edge of the moat without contacting the upper sidewall of the reflector; positioning a lens in the reflective cavity proximate the dispensed second quantity of encapsulant material; and curing the dispensed second quantity of encapsulant material to attach the lens in the reflective cavity. dispensing a first quantity of encapsulant material into the reflective cavity to cover the light emitting device and curing the first quantity of encapsulant material in the reflective cavity characterised in that the moat is positioned in a substantially horizontal shoulder portion between upper and sloped lower sidewalls (5, 6) defining the reflective cavity and in that the first quantity of encapsulant material is dispensed to form a first convex meniscus in the cavity extending from an edge of the moat without contacting the upper sidewall of the reflective cavity; dispensing a second quantity of encapsulant material onto the cured first quantity of encapsulant material to form a second convex meniscus of encapsulant material in the reflective cavity extending from an edge of the moat without contacting the upper sidewall of the reflector; positioning a lens in the reflective cavity proximate the dispensed second quantity of encapsulant material; and curing the dispensed second quantity of encapsulant material to attach the lens in the reflective cavity.
A system comprising a first and a second node (2 i) for a cellular network, the first node (2 1) serving a first cell (7 1) and the second node (2 2) serving a second cell (7 2) of two cells (7 i) distributed along a track, each node (2 i) having at least two different beams (8 i,k) for wireless communication with a user equipment in said node's cell (7 i) via one of the beams (8 i,k) selected by said node (2 i), wherein each beam (8 i,k) of the first node (2 1) covers a different one of a first succession of sections (10 1,k) of the track, each beam (8 2,k) of the second node (2 2) covers a different one of a second succession of sections (10 2,k) of the track, characterised in that the last section (10 1,3) in the first succession and the first section (10 2,1) in the second succession coincide, wherein the first node (2 1) is configured to send a handover request regarding a user equipment to the second node (2 2) when the beam (8 i,k) selected for wireless communication with said user equipment changes from the beam (8 1,2) that covers the last but one section (8 1,2) of the first node (2 1) to the beam (8 1,3) that covers the last section (8 1,3) of the first node (2 1). each node (2 i) having at least two different beams (8 i,k) for wireless communication with a user equipment in said node's cell (7 i) via one of the beams (8 i,k) selected by said node (2 i), wherein each beam (8 i,k) of the first node (2 1) covers a different one of a first succession of sections (10 1,k) of the track, each beam (8 2,k) of the second node (2 2) covers a different one of a second succession of sections (10 2,k) of the track, characterised in that the last section (10 1,3) in the first succession and the first section (10 2,1) in the second succession coincide, wherein the first node (2 1) is configured to send a handover request regarding a user equipment to the second node (2 2) when the beam (8 i,k) selected for wireless communication with said user equipment changes from the beam (8 1,2) that covers the last but one section (8 1,2) of the first node (2 1) to the beam (8 1,3) that covers the last section (8 1,3) of the first node (2 1).
A vehicle brake control device comprising: a wheel speed acquisition section (111, 112) configured to acquire a wheel speed of one of a front wheel and a rear wheel; a wheel acceleration calculation section (131, 132) configured to calculate a wheel acceleration of the one wheel based on the wheel speed; an anti-lock brake control section (141, 142) configured to execute an anti-lock brake control for the one wheel based on a slip amount based on the wheel speed and a vehicle speed; a bad road determination section configured to determine whether or not a running road surface is a bad road based on the wheel acceleration; and a bad road amount setting section configured to set a bad road amount for correcting the slip amount based on the determination result of the bad road determination section, characterized in that the wheel acceleration calculation section calculates, as the wheel acceleration, a first wheel acceleration and a second wheel acceleration in which a high-frequency component is attenuated more than the first wheel acceleration. a wheel speed acquisition section (111, 112) configured to acquire a wheel speed of one of a front wheel and a rear wheel; a wheel acceleration calculation section (131, 132) configured to calculate a wheel acceleration of the one wheel based on the wheel speed; an anti-lock brake control section (141, 142) configured to execute an anti-lock brake control for the one wheel based on a slip amount based on the wheel speed and a vehicle speed; a bad road determination section configured to determine whether or not a running road surface is a bad road based on the wheel acceleration; and a bad road amount setting section configured to set a bad road amount for correcting the slip amount based on the determination result of the bad road determination section, characterized in that the wheel acceleration calculation section calculates, as the wheel acceleration, a first wheel acceleration and a second wheel acceleration in which a high-frequency component is attenuated more than the first wheel acceleration.
An illumination detection system, comprising: an excitation radiation source and associated radiation processing arrangement (18,20) for providing excitation radiation, the radiation processing arrangement comprising a line forming element and a beam shaping element; a focusing arrangement for focusing the excitation radiation onto an analysis region of a sample; a radiation collection arrangement for collecting analysis radiation from the analysis region of the sample in the form of fluorescence and/or phosphorescence and resulting from the excitation; a detector for detecting the collected analysis radiation, wherein the focused excitation radiation comprises an excitation line which is evanescent in the sample, and wherein the system further comprises means for scanning the excitation line across the sample. an excitation radiation source and associated radiation processing arrangement (18,20) for providing excitation radiation, the radiation processing arrangement comprising a line forming element and a beam shaping element; a focusing arrangement for focusing the excitation radiation onto an analysis region of a sample; a radiation collection arrangement for collecting analysis radiation from the analysis region of the sample in the form of fluorescence and/or phosphorescence and resulting from the excitation; a detector for detecting the collected analysis radiation, wherein the focused excitation radiation comprises an excitation line which is evanescent in the sample, and wherein the system further comprises means for scanning the excitation line across the sample.
A therapeutically effective amount of a compound 9 or a pharmaceutically acceptable salt or ester thereof, or a pharmaceutical compositio n comprising the compound or pharmaceutically acceptable salt or ester thereof for the use in treating or preventing age-related macular degeneration, further comprising identifying or having identified the subject as being infected with a microorganism in the intraocular space, wherein the microorganism comprises Bacillus megaterium,
Amine based additive composition for controlling and inhibition of polymerization of aromatic vinyl monomers including styrene comprising: (a) one or more nitroxide (i.e. nitroxyl) compounds; and (b) one or more aromatic nitro compounds, characterized in that the said composition further comprises one or more (c) amines, wherein said amines are selected from a group comprising: (i) hydroxyl alkyl tertiary amines, (ii) tertiary alkyl amines, (iii) hydroxyl alkyl primary amines; and (iv) mixtures thereof. (a) one or more nitroxide (i.e. nitroxyl) compounds; and (b) one or more aromatic nitro compounds, characterized in that the said composition further comprises one or more (c) amines, (i) hydroxyl alkyl tertiary amines, (ii) tertiary alkyl amines, (iii) hydroxyl alkyl primary amines; and (iv) mixtures thereof.
A baling press for agricultural crops, having a pressing channel and having at least one binding unit for a tape-shaped binding material, preferably made of a weldable or adhesively bondable plastic material, for enveloping the bale to be pressed, wherein the binding unit has a material bond generator connecting the binding material in a materially bonded manner, wherein the baling press has a pressing piston movable in the pressing channel along the longitudinal center axis of the pressing channel, and the binding unit has a front clamping device arranged between the material bond generator and the pressing piston and a rear clamping device arranged on the side of the material bond generator facing away from the pressing piston, characterized in that the front clamping device has a cutting unit.
A method of producing the seamless capsule comprising a shell formed by a shell composition comprising gelatin and a plasticizer, which does not comprise an interfacial tension modifier chosen in the group of phospholipid, fat, oils, surfactant, polar organic solvent and a gelling agent chosen in the group of polar organic solvents and polysaccharides, and a capsule content without comprising an interfacial tension modifier chosen in the group of phospholipid, fat, oils, surfactant, polar organic solvent and a gelling agent chosen in the group of polar organic solvents and polysaccharides by a drop in oil method, wherein temperatures of the "capsule content without comprising an interfacial tension modifier and a gelling agent", the "aqueous shell composition solution formed by a shell composition comprising gelatin and a plasticizer, which does not comprise an interfacial tension modifier and a gelling agent" and the "carrier liquid" are each controlled near multiple nozzles of an apparatus used for the drop in oil method.
Use of a conductive ink for application to a photovoltaic cell comprising a semiconductor substrate, an anti-reflection coating and conductive grid lines formed from said conductive ink, wherein the ink comprises a glass frit; a conductive species; an organic medium; and one or more metallo-organic components that form metal oxides upon firing, wherein the glass frit and metallo-organic components are combined in a paste adapted to be applied to a substrate, wherein the metallo-organic components comprise bismuth metallo-organic; wherein the ink is adapted to reduce series resistance to the same or greater degree as inks that do not include metallo-organic components; and wherein said conductive ink is processed to remove the organic medium and to sinter the conductive species.
A method performed by a User Equipment, UE, for Scheduling Request, SR resource prioritization, the method comprising: receiving, from a Base Station, BS, a first SR configuration indicating a first SR index associated with a first SR resource, the first SR configuration specifically for Beam Failure Recovery, BFR; receiving, from the BS, a second SR configuration indicating a second SR index associated with a second SR resource; triggering a first SR procedure for requesting an uplink resource for transmitting information regarding a beam failure event based on the first SR configuration and depending on availability of uplink resources; triggering a second SR procedure for a Buffer Status Report, BSR, procedure based on the second SR configuration; and in a case that the first SR procedure and the second SR procedure are triggered and not cancelled, and the first SR resource overlaps the second SR resource in a time domain, prioritizing the first SR resource over the second SR resource; and transmitting an SR on the first SR resource rather than the second SR resource after prioritizing the first SR resource over the second SR resource. receiving, from a Base Station, BS, a first SR configuration indicating a first SR index associated with a first SR resource, the first SR configuration specifically for Beam Failure Recovery, BFR; receiving, from the BS, a second SR configuration indicating a second SR index associated with a second SR resource; triggering a first SR procedure for requesting an uplink resource for transmitting information regarding a beam failure event based on the first SR configuration and depending on availability of uplink resources; triggering a second SR procedure for a Buffer Status Report, BSR, procedure based on the second SR configuration; and in a case that the first SR procedure and the second SR procedure are triggered and not cancelled, and the first SR resource overlaps the second SR resource in a time domain, prioritizing the first SR resource over the second SR resource; and transmitting an SR on the first SR resource rather than the second SR resource after prioritizing the first SR resource over the second SR resource. prioritizing the first SR resource over the second SR resource; and transmitting an SR on the first SR resource rather than the second SR resource after prioritizing the first SR resource over the second SR resource.
A photonic integrated circuit, PIC, comprising: a semiconductor laser comprising: a laser mating surface, said laser mating surface comprising a tapered laser mating surface (112, 114); and a laser facet on the laser mating surface; and a PIC substrate comprising: a tapered substrate mating surface (224, 226); and a waveguide formed on the PIC substrate, wherein the semiconductor laser is arranged on the PIC substrate; the waveguide is configured to receive a laser beam that exits the laser facet in a forward direction; the tapered laser mating surface (112,114) protrudes from the laser mating surface in the forward direction such that the laser facet is set back from a leading front edge of the tapered laser mating surface (112,114); and a shape of the tapered laser mating surface (112,114) and a shape of the tapered substrate mating surface (224,226) correspond so as to align the semiconductor laser with the PIC substrate in three dimensions. a semiconductor laser comprising: a laser mating surface, said laser mating surface comprising a tapered laser mating surface (112, 114); and a laser facet on the laser mating surface; and a laser mating surface, said laser mating surface comprising a tapered laser mating surface (112, 114); and a laser facet on the laser mating surface; and a PIC substrate comprising: a tapered substrate mating surface (224, 226); and a waveguide formed on the PIC substrate, wherein the semiconductor laser is arranged on the PIC substrate; a tapered substrate mating surface (224, 226); and a waveguide formed on the PIC substrate, wherein the semiconductor laser is arranged on the PIC substrate; the waveguide is configured to receive a laser beam that exits the laser facet in a forward direction; the tapered laser mating surface (112,114) protrudes from the laser mating surface in the forward direction such that the laser facet is set back from a leading front edge of the tapered laser mating surface (112,114); and a shape of the tapered laser mating surface (112,114) and a shape of the tapered substrate mating surface (224,226) correspond so as to align the semiconductor laser with the PIC substrate in three dimensions.
A roller bearing in particular for a vacuum pump with at least one inner ring, at least one outer ring and roller elements wherein the roller bearing comprises at least one dynamic sealing element and at least one outlet channel (190, 190'), which is formed as an outlet channel forming a connection between a volume (198, 198') delimited by the sealing element and a feedback provided outside the roller bearing, characterised in that the dynamic sealing element has a splash edge arranged on an outer face of the inner ring.
An electromagnetic positioning device, in particular a pull device, having a stationary spool unit, having a moveably guided anchor, in particular a pull anchor, which forms a positioning section and which can be axially displaced along a displacement axis in response to supplying the spool unit with current, as well as having a one-part cup-shaped yoke-core element, which receives the anchor and which comprises a core section as well as a yoke section and which has a yoke-core bottom extending perpendicular to the displacement axis and a yoke-core sheath extending perpendicular to the yoke-core bottom along the displacement axis, a longitudinally cut transition area reduced in thickness and arranged between the core section and the yoke section being realized in the yoke-core sheath, a guide pin for the anchor being fixed, preferably pressed in, in a, preferably centric, guide pin recess in the yoke-core bottom and protruding axially into a, preferably centric, guide opening of the anchor and being displaceable relative to the anchor during its displacement movement, characterized in that an anti-twist pin extending parallel to the guide pin is arranged adjacent to the guide pin and is fixed, in particular pressed in, in an anti-twist pin recess in the yoke-core bottom.
A method for wireless communication in a network comprising a communication device restricted at least in terms of energy resources and at least one proxy device, wherein the method comprises the following steps: - the communication device (ZGPD) transmitting a frame containing source identifier to be forwarded to a destination device in the network, - the proxy device receiving the frame, - the proxy constructing, from the frame, a packet to be forwarded to at least the destination device, - the proxy device associating a delay to the packet and scheduling forwarding of the packet after this delay, wherein the step of constructing a packet from the frame comprises deriving source-related information from the received frame and including this information in the packet. characterized in that the step of deriving source-related information comprises: - determining a source address as a function of the communication device source identifier, - including the determined source address in the packet to be forwarded. - the communication device (ZGPD) transmitting a frame containing source identifier to be forwarded to a destination device in the network, - the proxy device receiving the frame, - the proxy constructing, from the frame, a packet to be forwarded to at least the destination device, - the proxy device associating a delay to the packet and scheduling forwarding of the packet after this delay, - determining a source address as a function of the communication device source identifier, - including the determined source address in the packet to be forwarded.
A process for simultaneous forming and filling of a container from a preform that is configured to form the container, comprising: seating the preform in a cavity of a mold, and expanding the preform within the cavity of the mold by introducing an incompressible fluid under a blow pressure into the preform to stretch the preform to assume a shape of the surrounding cavity, characterized in that a liquid flowrate in a range of 0.5 L/sec to 3.0 L/sec of the incompressible fluid is used for the simultaneous forming and filling of the container, the preform comprising: a high-density polyethylene (HDPE) resin having: a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter. seating the preform in a cavity of a mold, and expanding the preform within the cavity of the mold by introducing an incompressible fluid under a blow pressure into the preform to stretch the preform to assume a shape of the surrounding cavity, characterized in that a liquid flowrate in a range of 0.5 L/sec to 3.0 L/sec of the incompressible fluid is used for the simultaneous forming and filling of the container, the preform comprising: a high-density polyethylene (HDPE) resin having: a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter. a melt flow index of 0.3 - 10.0 grams per 10 minutes at a temperature of 190°C under 2.16 kilograms of load through an extrusion plastometer test fixture with die orifice diameter of 2.0955 mm and length of 8.000 mm, wherein the melt flow index is measured according to the description; a polydispersity index of 4 - 24; and a density of between 0.943 and 0.965 grams per cubic centimeter.