mhurhangee/ep-ind-claims huggingface dataset:
An aqueous polyurethane coating composition which is free of blocking agents comprising: (a) a water-dilutable hydroxy-functional polyurethane resin comprising a reaction product of: a polyisocyanate comprising 50 to 100 weight percent of an aliphatic diisocyanate; a polyol having an OH number of 25 to 350 mg KOH/g solids; and an isocyanate-reactive component comprising an ionic group or potentially ionic group; (b) a water-dilutable aminoplast resin; and (c) a water-dilutable polycarbonate-polyurethane resin, wherein the polycarbonate-polyurethane resin is non-functional. (a) a water-dilutable hydroxy-functional polyurethane resin comprising a reaction product of: a polyisocyanate comprising 50 to 100 weight percent of an aliphatic diisocyanate; a polyol having an OH number of 25 to 350 mg KOH/g solids; and an isocyanate-reactive component comprising an ionic group or potentially ionic group; a polyisocyanate comprising 50 to 100 weight percent of an aliphatic diisocyanate; a polyol having an OH number of 25 to 350 mg KOH/g solids; and an isocyanate-reactive component comprising an ionic group or potentially ionic group; (b) a water-dilutable aminoplast resin; and (c) a water-dilutable polycarbonate-polyurethane resin,
Mounting assembly unit, comprising a mounting element made of a metal material, to be fixed by means of at least one fastening bolt, wherein at least one mounting element passage opening (14, 16) is provided in the mounting element for the passage of at least one fastening bolt, wherein the mounting element passage opening (14, 16) is elongated and has an opening width transverse to its direction of longitudinal extension, the opening width being greater than an external diameter of a fastening bolt, which is to be positioned or is positioned passing through the mounting element passage opening (14, 16), characterized in that in association to at least one mounting element passage opening (14, 16), a mounting aid unit (18a, 18b) made of a metal material is fixed to the mounting element by welding wherein the mounting aid unit (18a, 18b) comprises in association to the mounting element passage opening (14, 16) a mounting aid unit passage opening (22a, 22b), which is positioned aligned with respect to the mounting element passage opening (14, 16) such that an edge area (28a, 28b) of the mounting aid unit (18a, 18b) surrounding the mounting aid unit passage opening (22a, 22b), is arranged overlapping the mounting element passage opening (14, 16) in some areas.
A method for the analysis of the modulation spectrum of a sample modulator that modules light of a carrier frequency in the optical range, characterised in that laser light of a carrier frequency is divided into two beams, one sample beam and one pump beam, the sample beam is modulated with the sample modulator to be tested, the intensity of the sample beam is measured with a detector, the pump beam is coupled into the beam path of the sample beam with a component counter to the propagation direction thereof, the frequency of a modulator located in the pump beam is adjusted, the output signal of the detector being recorded depending on said frequency, the modulation spectrum of the sample modulator is determined from changes in the output signal of the detector, wherein the modulator located in the pump beam is used to modulate a sideband, which stimulates Brillouin scattering in the sample beam, to the carrier frequency of the pump beam, the Brillouin gain being recorded in the detector as a signal above the noise floor, wherein the frequency of the modulator is varied downwards and upwards within the frequency range in which the stimulated Brillouin scattering is expected, and wherein the modulation spectrum of the sample modulator is received and thus the bandwidth of the SBS gain curve is measured.
Motor vehicle door, notably a motor vehicle side door, comprising: - a structure, notably of plastic material, disposed on the side of an interior of the vehicle closed by the door in the installed position and configured so as to absorb most of the external impacts applied to the door, notably the front-end and side impacts applied to the side door, - at least one outer finishing panel, notably of plastic material, fixed onto said structure on the side opposite the interior, - a stiffening panel, disposed between the structure and said at least one outer finishing panel, formed in a plastic material, configured so as to confer a stiffness on said outer finishing panel with respect to the external impacts applied to the door on the side opposite the interior, and comprising elements for fixing, on said stiffening panel, a window lift system, - a window borne by said window lift system fixed to the stiffening panel and guided on said stiffening panel, the stiffening panel being interposed between the outer finishing panel and said window. - a structure, notably of plastic material, disposed on the side of an interior of the vehicle closed by the door in the installed position and configured so as to absorb most of the external impacts applied to the door, notably the front-end and side impacts applied to the side door, - at least one outer finishing panel, notably of plastic material, fixed onto said structure on the side opposite the interior, - a stiffening panel, disposed between the structure and said at least one outer finishing panel, formed in a plastic material, configured so as to confer a stiffness on said outer finishing panel with respect to the external impacts applied to the door on the side opposite the interior, and comprising elements for fixing, on said stiffening panel, a window lift system, - a window borne by said window lift system fixed to the stiffening panel and guided on said stiffening panel, the stiffening panel being interposed between the outer finishing panel and said window.
Machine for the production of a knitted fabric at least partially using drafted fibre material, including at least one stitch-forming system, on which stitch-forming elements can be brought into a fibre take-up position, a thread guide, which is associated with the stitch-forming system and has a passage for the fibre material, a drafting arrangement associated with the stitch-forming system for attenuating the fibre material and a spinning device, which is arranged between the drafting arrangement and the thread guide and contains at least one spinning member working with a blast air flow and a transport tube, which is connected to this spinning member and contains an outlet end for the fibre material opening into the thread guide, characterised in that the outlet end has an internal cross-section, which is exactly as large as or smaller than an internal cross-section at an outlet end of the passage, and that the intensity of the blast air flow is selected so that this is sufficient, without further aids, at least for the secure transport of the fibre material as far as the stitch-forming elements.
Hydraulic arrangement for actuating and/or cooling at least one clutch (2.1, 2.2) of a double clutch of a vehicle, having: - a pump for providing a hydraulic fluid for the at least one clutch; - an internal combustion engine which is set up to drive the pump; - a clutch pressure branch for providing the hydraulic fluid for actuating purposes; - a cooling branch for providing the hydraulic fluid for cooling purposes; the pump being configured as a variable displacement pump with an adjustable delivery volume, characterized in that the hydraulic arrangement has a control device which is set up to set the delivery volume of the variable displacement pump in a manner which is dependent on a rotational speed of the internal combustion engine. - a pump for providing a hydraulic fluid for the at least one clutch; - an internal combustion engine which is set up to drive the pump; - a clutch pressure branch for providing the hydraulic fluid for actuating purposes; - a cooling branch for providing the hydraulic fluid for cooling purposes;
A method comprising: positioning one or more drones in a monitored scene space to at least partially define a shape and position of a computer-implemented virtual boundary in a corresponding monitoring space; causing implementation of the computer-implemented virtual boundary in the monitoring space corresponding to the monitored scene space, and processing received data from sensors of the monitored scene space to generate a response event in response to a change in at least a portion of the monitored scene space relative to the computer-implemented virtual boundary in the corresponding monitoring space. positioning one or more drones in a monitored scene space to at least partially define a shape and position of a computer-implemented virtual boundary in a corresponding monitoring space; causing implementation of the computer-implemented virtual boundary in the monitoring space corresponding to the monitored scene space, and processing received data from sensors of the monitored scene space to generate a response event in response to a change in at least a portion of the monitored scene space relative to the computer-implemented virtual boundary in the corresponding monitoring space.
A light emitting device package comprising: a package body providing a flat chip mounting area, the package body including first and second lead terminals and a sidewall structure enclosing the flat chip mounting area, the sidewall structure having a sloping inner wall; an LED chip mounted on the surface of the flat chip mounting area and electrically connected to the first and second lead terminals, wherein the LED chip contacts the surface of the flat chip mounting area; a first groove portion disposed around the LED chip in the flat chip mounting area, said first groove portion being downwardly recessed from the surface of the flat chip mounting area and disposed to be lower than the LED chip; and a wavelength conversion portion formed of a resin containing a wavelength conversion material, the wavelength conversion portion enclosing the LED chip and having an outer shape substantially defined by the first groove portion; characterised in that said light emitting device further comprises a second groove portion disposed in the flat chip mounting area (11 a) and uniformly spaced apart from the first groove portion while enclosing the first groove portion, wherein the space (g) between the first groove portion and the second groove portion is 0.2 times or less a distance (Da) from the edge of the LED chip to the first groove portion, wherein the second groove portion is downwardly recessed from the surface of the flat chip mounting area and disposed to be lower than the LED chip. a package body providing a flat chip mounting area, the package body including first and second lead terminals and a sidewall structure enclosing the flat chip mounting area, the sidewall structure having a sloping inner wall; an LED chip mounted on the surface of the flat chip mounting area and electrically connected to the first and second lead terminals, wherein the LED chip contacts the surface of the flat chip mounting area; a first groove portion disposed around the LED chip in the flat chip mounting area, said first groove portion being downwardly recessed from the surface of the flat chip mounting area and disposed to be lower than the LED chip; and a wavelength conversion portion formed of a resin containing a wavelength conversion material, the wavelength conversion portion enclosing the LED chip and having an outer shape substantially defined by the first groove portion; characterised in that said light emitting device further comprises a second groove portion disposed in the flat chip mounting area (11 a) and uniformly spaced apart from the first groove portion while enclosing the first groove portion, wherein the space (g) between the first groove portion and the second groove portion is 0.2 times or less a distance (Da) from the edge of the LED chip to the first groove portion, wherein the second groove portion is downwardly recessed from the surface of the flat chip mounting area and disposed to be lower than the LED chip.
A reflection suppression segment (10, 10A, 10B, 10C) provided with a dielectric layer comprising an embossed surface (11R, 21R, 22R) and a flat surface (11F, 21F, 22F) which is on a side opposite to the embossed surface, wherein: a plane that approximates the flat surface is an X-Y plane; a normal direction to the X-Y plane is a Z direction; the embossed surface has inclined surfaces (11R1) that are inclined with respect to the Z direction; the inclined surfaces reflect incident light incident on the dielectric layer and emerge reflected light; an elevation angle, which is an angle between the inclined surface and the X-Y plane, is α, and a refractive index of the dielectric layer is n, which satisfy Formula, sin α ≤ (1 / n) < sin 2α... Formula; and the reflection suppression segment is further provided with a reflection layer on the inclined surfaces. a plane that approximates the flat surface is an X-Y plane; a normal direction to the X-Y plane is a Z direction; the embossed surface has inclined surfaces (11R1) that are inclined with respect to the Z direction; the inclined surfaces reflect incident light incident on the dielectric layer and emerge reflected light; an elevation angle, which is an angle between the inclined surface and the X-Y plane, is α, and a refractive index of the dielectric layer is n, which satisfy Formula, sin α ≤ (1 / n) < sin 2α... Formula; and the reflection suppression segment is further provided with a reflection layer on the inclined surfaces.
An underwater watercraft comprising: a compartment defining an interior space; an ingress/egress port positioned on the compartment, providing access to the interior space from outside the compartment, the ingress/egress port including a hatch assembly, the hatch assembly including an openable hatch cover positioned on the compartment which seals the ingress/egress port in a closed position, and a riser (70, 76, 78) extending from the compartment adjacent to the openable hatch cover; an attitude adjustment system adapted to move the watercraft in at least two operational modes including: a submerged mode defining a submerged mode center of gravity; and a surface mode defining a surface mode center of gravity, the surface mode center of gravity being closer to a front of the watercraft in relation to the submerged mode center of gravity; wherein the riser (70, 76, 78) is mounted at an angle relative to a horizontal plane in the submerged mode. a compartment defining an interior space; an ingress/egress port positioned on the compartment, providing access to the interior space from outside the compartment, the ingress/egress port including a hatch assembly, the hatch assembly including an openable hatch cover positioned on the compartment which seals the ingress/egress port in a closed position, and a riser (70, 76, 78) extending from the compartment adjacent to the openable hatch cover; the ingress/egress port including a hatch assembly, the hatch assembly including an openable hatch cover positioned on the compartment which seals the ingress/egress port in a closed position, and a riser (70, 76, 78) extending from the compartment adjacent to the openable hatch cover; an attitude adjustment system adapted to move the watercraft in at least two operational modes including: a submerged mode defining a submerged mode center of gravity; and a surface mode defining a surface mode center of gravity, the surface mode center of gravity being closer to a front of the watercraft in relation to the submerged mode center of gravity; wherein the riser (70, 76, 78) is mounted at an angle relative to a horizontal plane in the submerged mode. a submerged mode defining a submerged mode center of gravity; and a surface mode defining a surface mode center of gravity, the surface mode center of gravity being closer to a front of the watercraft in relation to the submerged mode center of gravity; wherein the riser (70, 76, 78) is mounted at an angle relative to a horizontal plane in the submerged mode.
A micro dosage peristaltic pump for micro dosage of a fluid, comprising: - a housing with an inner surface comprising at least one circular section, - a flexible tube placed upon the at least one circular section of the inner surface, - at least one compression element, - driving means for moving the at least one compression element in an eccentric circular motion having a circular circumference, whereby the at least one compression element is peristaltically engaged at the circumference with the tube placed upon the circular section of the inner surface, characterized in that the micro dosage peristaltic pump comprises a tolerance absorbing flexible layer placed between the inner surface and the flexible tube. - a housing with an inner surface comprising at least one circular section, - a flexible tube placed upon the at least one circular section of the inner surface, - at least one compression element, - driving means for moving the at least one compression element in an eccentric circular motion having a circular circumference, whereby the at least one compression element is peristaltically engaged at the circumference with the tube placed upon the circular section of the inner surface, characterized in that the micro dosage peristaltic pump comprises a tolerance absorbing flexible layer placed between the inner surface and the flexible tube.
A method of enabling uplink beamforming transmit diversity, comprising: receiving, by a wireless communications device, WCD (510, 1100), a beamforming weight vector in response to transmission by the WCD (510, 1100) of at least a first pilot channel and at least a second pilot channel; applying the received beamforming weight vector to at least one of the first pilot channel, one or more data channels, and one or more control channels, and optionally applying a second beamforming weight vector derived from the received beamforming weight vector to the second pilot channel, wherein the beamforming weight vector is determined to maximize a signal to noise ratio for at least one of the one or more data channels and for at least one of the one or more control channels; and transmitting, using two or more antennas, the first pilot channel, the second pilot channel, at least one of the one or more data channels, and at least one of the one or more control channels, and wherein the first pilot channel, the at least one of the one or more data channels, and the at least one of the one or more control channels are transmitted using a dominant virtual antenna of the two or more antennas and the second pilot channel is transmitted using a weaker virtual antenna of the two or more antennas. receiving, by a wireless communications device, WCD (510, 1100), a beamforming weight vector in response to transmission by the WCD (510, 1100) of at least a first pilot channel and at least a second pilot channel; applying the received beamforming weight vector to at least one of the first pilot channel, one or more data channels, and one or more control channels, and optionally applying a second beamforming weight vector derived from the received beamforming weight vector to the second pilot channel, wherein the beamforming weight vector is determined to maximize a signal to noise ratio for at least one of the one or more data channels and for at least one of the one or more control channels; and transmitting, using two or more antennas, the first pilot channel, the second pilot channel, at least one of the one or more data channels, and at least one of the one or more control channels, and wherein the first pilot channel, the at least one of the one or more data channels, and the at least one of the one or more control channels are transmitted using a dominant virtual antenna of the two or more antennas and the second pilot channel is transmitted using a weaker virtual antenna of the two or more antennas.
A communication entity comprising a Proxy Call Session Control Function, P-CSCF, the P-CSCF comprising: a transceiver and a controller; wherein the transceiver is operable: to receive a register request from a user equipment, UE, in a visited public land mobile network, VPLMN; and wherein the controller is operable: to retrieve a network identifier, PLMN ID, for the VPLMN by requesting and obtaining the PLMN ID where the UE is currently located from a Policy and Charging Rules Function, PCRF; to access a database to obtain a list of local emergency numbers for the VPLMN; and to include the PLMN ID in the register request before forwarding the register request to a Call Session Control Function, CSCF. a transceiver and a controller; wherein the transceiver is operable: to receive a register request from a user equipment, UE, in a visited public land mobile network, VPLMN; and wherein the controller is operable: to retrieve a network identifier, PLMN ID, for the VPLMN by requesting and obtaining the PLMN ID where the UE is currently located from a Policy and Charging Rules Function, PCRF; to access a database to obtain a list of local emergency numbers for the VPLMN; and to include the PLMN ID in the register request before forwarding the register request to a Call Session Control Function, CSCF. to retrieve a network identifier, PLMN ID, for the VPLMN by requesting and obtaining the PLMN ID where the UE is currently located from a Policy and Charging Rules Function, PCRF; to access a database to obtain a list of local emergency numbers for the VPLMN; and to include the PLMN ID in the register request before forwarding the register request to a Call Session Control Function, CSCF.
An X-ray detector comprising: a panel comprising a plurality of photo-detecting pixels configured to generate electrical signals in response to the detection of X-rays; a gate driver configured to provide a gate signal to the plurality of photo-detecting pixels, wherein the photo-detecting pixels output the electrical signals in response to the gate signal; a readout integrated circuit configured to read out the electrical signal output from the photo-detecting pixels in response to the gate signal; a main board including a controller configured to receive the electrical signal from the readout integrated circuit and convert the electrical signal to an image signal; and a film attached to the panel and the main board, the film including a signal line electrically connecting the readout integrated circuit to the panel and the main board, wherein the readout integrated circuit is mounted on the film characterized in that a shielding layer is disposed on the surface of the film and comprising a conductive material, wherein the shielding layer is configured to prevent externally applied electromagnetic signals from passing through the film. a panel comprising a plurality of photo-detecting pixels configured to generate electrical signals in response to the detection of X-rays; a gate driver configured to provide a gate signal to the plurality of photo-detecting pixels, wherein the photo-detecting pixels output the electrical signals in response to the gate signal; a readout integrated circuit configured to read out the electrical signal output from the photo-detecting pixels in response to the gate signal; a main board including a controller configured to receive the electrical signal from the readout integrated circuit and convert the electrical signal to an image signal; and a film attached to the panel and the main board, the film including a signal line electrically connecting the readout integrated circuit to the panel and the main board, wherein the readout integrated circuit is mounted on the film characterized in that a shielding layer is disposed on the surface of the film and comprising a conductive material, wherein the shielding layer is configured to prevent externally applied electromagnetic signals from passing through the film.