mhurhangee/ep-ind-claims huggingface dataset:
Process for fabricating an optoelectronic device comprising a matrix-array of diodes, each diode comprising: a semiconductor stack formed from a first doped segment and from a second doped segment between which segments is located an active region, and having a coefficient of thermal expansion α es, the process comprising the following steps: i) providing a growth substrate having a coefficient of thermal expansion α sc lower than α es and comprising a carrier substrate coated with a nucleation layer defining a nucleation surface; ii) depositing, on the nucleation surface, a dielectric layer made of an electrically insulating material having a coefficient of thermal expansion α mc lower than aes; iii) forming, in the dielectric layer, a plurality of through-apertures that open onto the nucleation surface, ∘ etching the nucleation layer located in the through-apertures so as to free an upper surface of the carrier substrate and to expose a lateral face of the nucleation layer forming a nucleation lateral face, then ∘ forming a dielectric region (13, 15) extending through or over the carrier substrate, so that, in step iv) of epitaxial growth, each first doped segment is especially formed from the nucleation lateral face; iv) producing, by epitaxial growth, in the through-apertures and from the nucleation surface, said semiconductor stacks, so that at least the first doped segments and the active regions are located in the through-apertures. i) providing a growth substrate having a coefficient of thermal expansion α sc lower than α es and comprising a carrier substrate coated with a nucleation layer defining a nucleation surface; ii) depositing, on the nucleation surface, a dielectric layer made of an electrically insulating material having a coefficient of thermal expansion α mc lower than aes; iii) forming, in the dielectric layer, a plurality of through-apertures that open onto the nucleation surface, ∘ etching the nucleation layer located in the through-apertures so as to free an upper surface of the carrier substrate and to expose a lateral face of the nucleation layer forming a nucleation lateral face, then ∘ forming a dielectric region (13, 15) extending through or over the carrier substrate, so that, in step iv) of epitaxial growth, each first doped segment is especially formed from the nucleation lateral face; ∘ etching the nucleation layer located in the through-apertures so as to free an upper surface of the carrier substrate and to expose a lateral face of the nucleation layer forming a nucleation lateral face, then ∘ forming a dielectric region (13, 15) extending through or over the carrier substrate, so that, in step iv) of epitaxial growth, each first doped segment is especially formed from the nucleation lateral face; iv) producing, by epitaxial growth, in the through-apertures and from the nucleation surface, said semiconductor stacks, so that at least the first doped segments and the active regions are located in the through-apertures.
An extension module for a load carrier, in particular a bicycle carrier, which is or can be fastened to a vehicle and comprises at least one profile rail (4, 5) for receiving loads, in particular bicycles, having at least one extension profile rail for receiving loads, in particular a bicycle, and at least one fastening unit for attaching the extension profile rail to the profile rail of the load carrier, the fastening unit having a support element which is connected at its one axial end region to the extension profile rail and at its other axial end region to a mounting device, wherein the fastening unit also has an adapter unit which is or can be connected detachably to the mounting device by means of a fastening mechanism and is designed to be fixed to the profile rail of the load carrier, characterised in that the adapter unit comprises a number of adapter elements (25, 26) which are or can be braced against the profile rail in order to be fixed with force-fit to the latter and to prevent movement of the adapter unit in the longitudinal direction of the profile rail, wherein the adapter elements (25, 26) are screwed or can be screwed to one another in order to be braced against the profile rail or the adapter elements (25, 26) are linked together on one side of the profile rail by a hook engagement and are screwed to one another on an opposing side of the profile rail in order to be braced against the profile rail.
Hydraulically damping bush bearing comprising an elongated inner part, an outer bush, an elastomeric damping member arranged between the outer bush and inner part, a pair of axial chambers with at least two axial chambers (42, 64) offset from one another in the axial direction of the inner part and communicating with one another via at least one axial passage, a pair of radial chambers comprising at least two radial chambers which communicate via at least one radial channel, are arranged between the axial chambers (42, 64), and are offset in the circumferential direction of the inner part characterised in that there is at least one fluid-free damping chamber between the axial chambers (42, 64) arranged offset from one another in the axial direction which is bordered partly by the elastomeric damping member and partly by the walls of an intermediary diaphragm element placed on the elastomeric damping member.
A method comprising: causing a playback device (200, 804, 806) located in a playback zone to play a first audio signal by a speaker of the playback device; receiving, from the playback device, data indicating a second audio signal, the second audio signal comprising a portion corresponding to the first audio signal and detected by a microphone of the playback device; determining an audio processing algorithm by determining an acoustic characteristic of the playback zone by removing an acoustic characteristic of the playback device from an acoustic response of the playback zone to the first audio signal played by the playback device, the acoustic response of the playback zone determined based on the second audio signal; and transmitting, to the playback device, data indicating the determined audio processing algorithm. causing a playback device (200, 804, 806) located in a playback zone to play a first audio signal by a speaker of the playback device; receiving, from the playback device, data indicating a second audio signal, the second audio signal comprising a portion corresponding to the first audio signal and detected by a microphone of the playback device; determining an audio processing algorithm by determining an acoustic characteristic of the playback zone by removing an acoustic characteristic of the playback device from an acoustic response of the playback zone to the first audio signal played by the playback device, the acoustic response of the playback zone determined based on the second audio signal; and transmitting, to the playback device, data indicating the determined audio processing algorithm.
A humanized antibody to Liv-1, wherein the mature heavy chain variable region has an amino acid sequence designated SEQ ID NO:52 or 53 and the mature light chain variable region has an amino acid sequence designated SEQ ID NO:59 or 60.
A process for enriching or isolating a target compound from pulp and paper waste water, said process comprising the steps of: - obtaining a condensate from a recovery evaporator or a reverse osmosis retentate of condensates of a pulp and paper mill, or both, the condensate, retentate or both being free of higher molecular weight cellulose and/or lignin and/or lignin-derived material, - centrifuging the condensate or RO retentate to collect water insoluble material, and - extracting the insoluble material in the condensate with an organic solvent by solid-liquid extraction to produce an extract containing said target compounds. - obtaining a condensate from a recovery evaporator or a reverse osmosis retentate of condensates of a pulp and paper mill, or both, the condensate, retentate or both being free of higher molecular weight cellulose and/or lignin and/or lignin-derived material, - centrifuging the condensate or RO retentate to collect water insoluble material, and - extracting the insoluble material in the condensate with an organic solvent by solid-liquid extraction to produce an extract containing said target compounds.
Construction damper with at least one at least in regions ladder-like constructed thrust damping part which has at least two longitudinal beams (6, 8) which are connected to each other by at least two rung-like transverse beams which are aligned parallel to each other in a first alignment, wherein the rung-like transverse beams at their ends are each connected to the longitudinal beams (6, 8) in a bending-rigid manner, the thrust damping part has a spatial structure in which at least two further rung-like transverse beams extending parallel to each other are arranged in a second alignment deviating from the first alignment, and at least one thrust damping part has at least one force introduction means (14, 17), characterized in that at least one force introduction means (14, 17) is constructed as a u-shaped plate with two parallel legs, the legs of which laterally encompass the thrust damping part and at the outer leg ends of which a traverse (15, 18) connecting the two leg ends is arranged for closing the u-shaped recess. the thrust damping part has a spatial structure in which at least two further rung-like transverse beams extending parallel to each other are arranged in a second alignment deviating from the first alignment, and at least one thrust damping part has at least one force introduction means (14, 17), characterized in that at least one force introduction means (14, 17) is constructed as a u-shaped plate with two parallel legs, the legs of which laterally encompass the thrust damping part and at the outer leg ends of which a traverse (15, 18) connecting the two leg ends is arranged for closing the u-shaped recess.
Process for laminating flexible films, the process comprising: i) providing at least one lamination roller and a heating device, the lamination roller being arranged behind the heating device along a process direction, ii) providing a first film having a thermoplastic surface, iii) providing a second film, iv) bringing the first film and the second film together by means of pressure wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller (1, 2), wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2. i) providing at least one lamination roller and a heating device, the lamination roller being arranged behind the heating device along a process direction, ii) providing a first film having a thermoplastic surface, iii) providing a second film, iv) bringing the first film and the second film together by means of pressure wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller (1, 2), wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2. wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller (1, 2), wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2.
An underwater cleaning robot designed to be able to move and to clean aquatic beds, the underwater robot comprising: - a chassis that extends longitudinally along an axis (Y-Y), the chassis comprising a central part and two wings located on either side of the central part, - two movement tracks which define the overall dimensions of the underwater robot along the axis (Y-Y), each movement track being secured to a wing of the chassis, and the movement tracks are designed to move over muddy ground, and - a dredging head mounted on the chassis, the dredging head being designed to excavate and suck up natural sediment, - means for adjusting the buoyancy of the underwater robot, the adjustment means make it possible to adjust the Archimedean thrust which applies to the robot so that the movement tracks come to bear on a heterogeneous medium of which the density fluctuates, such as muddy ground, characterized in that the dredging head is secured along a central axis (X-X) of the central part of the chassis, the dredging head being included in the overall dimensions of the underwater robot along the axis (Y-Y). - a chassis that extends longitudinally along an axis (Y-Y), the chassis comprising a central part and two wings located on either side of the central part, - two movement tracks which define the overall dimensions of the underwater robot along the axis (Y-Y), each movement track being secured to a wing of the chassis, and the movement tracks are designed to move over muddy ground, and - a dredging head mounted on the chassis, the dredging head being designed to excavate and suck up natural sediment, - means for adjusting the buoyancy of the underwater robot, the adjustment means make it possible to adjust the Archimedean thrust which applies to the robot so that the movement tracks come to bear on a heterogeneous medium of which the density fluctuates, such as muddy ground,
A method for determining a human sleep phase favorable to awakening, the method comprising: registering a pulse wave signal and an occurrence of limb movements of the human during sleep using a pulse wave sensor and at least one motion sensor attached to a body of the human; measuring values of RR intervals and a respiratory rate; and determining values of function F (Δ t i) over preset time intervals Δ t i and determining an onset and termination of the sleep phase favorable to awakening based on an increment of function F (Δ t i), where i is a serial number of a time interval, wherein: F Δ t i = − K 1 P 1 − K 2 P 2 − K 3 P 3 + K 4 P 4 + K 5 P 5 + K 6 P 6, wherein: P 1 is a mean value of the RR intervals over a time interval Δ t i; P 2 is a minimal value of the RR intervals over the time interval Δ t i; P 3 is a maximal value of RR intervals over the time interval Δ t i; P 4 is a standard deviation of the RR intervals over a preceding time interval of 3 to 20 min; P 5 is a mean value of the respiratory rate over the time interval Δ t i; P 6 is an average number of human limb movements over a preceding time period ranging from 0.5 minutes to 10 minutes; and K 1 - K 6 are weight coefficients characterizing contribution of parameters P 1 - P 6 to the values of the function F (Δ t i). registering a pulse wave signal and an occurrence of limb movements of the human during sleep using a pulse wave sensor and at least one motion sensor attached to a body of the human; measuring values of RR intervals and a respiratory rate; and determining values of function F (Δ t i) over preset time intervals Δ t i and determining an onset and termination of the sleep phase favorable to awakening based on an increment of function F (Δ t i), where i is a serial number of a time interval, wherein: F Δ t i = − K 1 P 1 − K 2 P 2 − K 3 P 3 + K 4 P 4 + K 5 P 5 + K 6 P 6, wherein: P 1 is a mean value of the RR intervals over a time interval Δ t i; P 2 is a minimal value of the RR intervals over the time interval Δ t i; P 3 is a maximal value of RR intervals over the time interval Δ t i; P 4 is a standard deviation of the RR intervals over a preceding time interval of 3 to 20 min; P 5 is a mean value of the respiratory rate over the time interval Δ t i; P 6 is an average number of human limb movements over a preceding time period ranging from 0.5 minutes to 10 minutes; and K 1 - K 6 are weight coefficients characterizing contribution of parameters P 1 - P 6 to the values of the function F (Δ t i). wherein: P 1 is a mean value of the RR intervals over a time interval Δ t i; P 2 is a minimal value of the RR intervals over the time interval Δ t i; P 3 is a maximal value of RR intervals over the time interval Δ t i; P 4 is a standard deviation of the RR intervals over a preceding time interval of 3 to 20 min; P 5 is a mean value of the respiratory rate over the time interval Δ t i; P 6 is an average number of human limb movements over a preceding time period ranging from 0.5 minutes to 10 minutes; and K 1 - K 6 are weight coefficients characterizing contribution of parameters P 1 - P 6 to the values of the function F (Δ t i).
Joint shaft with at least one cross pin, on each of the oppositely disposed pins (4, 5) of which a shaft member (1, 2) is attached, and with a generator for producing electric energy, wherein the generator is arranged in one of said shaft members (1, 2) in a rotationally fixed manner, characterized in that said joint shaft comprises a logic, which evaluates the electrical output of said generator and which evaluates the voltage generated by said generator in order to determine the cardan effect.
A portable electronic device comprising: a housing; a first touch-sensitive screen technology sub-system effective to detect user input (209, 229) for a touch-sensitive screen supported by the housing, the first touch-sensitive screen technology sub-system (209, 229) configured to have an active state and an inactive state; a second touch-sensitive screen technology sub-system effective to detect user input (207, 231) for the touch-sensitive screen supported by the housing, the second touch-sensitive screen technology sub-system (207, 231) configured to have an inactive state and an active state, wherein the second touch-sensitive screen technology sub-system (207, 231) is in the inactive state while the first touch-sensitive screen technology sub-system (209, 229) is in the active state; at least one sensor (113, 219) supported by the housing, the at least one sensor (113, 219) for detecting a predetermined environmental condition, wherein the second touch-sensitive screen technology sub-system (207, 231) is configured to change from the inactive state to the active state and the first touch-sensitive screen technology sub-system (209, 229) is configured to change from the active state to the inactive state in response to the at least one sensor detecting the predetermined environmental condition, and wherein the second touch-sensitive screen technology sub-system (207, 231) is configured to provide a different sensitivity level than the first touch-sensitive screen technology sub-system (209, 229) under the predetermined environmental condition. a housing; a first touch-sensitive screen technology sub-system effective to detect user input (209, 229) for a touch-sensitive screen supported by the housing, the first touch-sensitive screen technology sub-system (209, 229) configured to have an active state and an inactive state; a second touch-sensitive screen technology sub-system effective to detect user input (207, 231) for the touch-sensitive screen supported by the housing, the second touch-sensitive screen technology sub-system (207, 231) configured to have an inactive state and an active state, wherein the second touch-sensitive screen technology sub-system (207, 231) is in the inactive state while the first touch-sensitive screen technology sub-system (209, 229) is in the active state; at least one sensor (113, 219) supported by the housing, the at least one sensor (113, 219) for detecting a predetermined environmental condition, wherein the second touch-sensitive screen technology sub-system (207, 231) is configured to change from the inactive state to the active state and the first touch-sensitive screen technology sub-system (209, 229) is configured to change from the active state to the inactive state in response to the at least one sensor detecting the predetermined environmental condition, and wherein the second touch-sensitive screen technology sub-system (207, 231) is configured to provide a different sensitivity level than the first touch-sensitive screen technology sub-system (209, 229) under the predetermined environmental condition.
The rail sleeper for laying on a track bed, in particular a ballast bed or a solid track bed, the rail sleeper having a - preferably reinforced - sleeper body, in particular a concrete body, which has an upper side with at least one rail fastening device by which a rail extension direction is defined, an underside and lateral surfaces extending between the upper side and the underside, wherein to at least one lateral surface of the sleeper body - preferably to two opposite lateral surfaces each - a damping device is attached, characterized in that the at least one damping device is a shear damping device for damping vibrations of the sleeper body transversely to the rail extension direction at least in the frequency range from 150 Hz to 200 Hz, the shear damping device being attached to a longitudinal lateral surface of the sleeper body extending transversely to the rail extension direction and being formed by at least one - preferably plate-shaped - shear damping element, which is firmly connected to the longitudinal lateral surface of the sleeper body and which comprises a track bed coupling surface on the side facing away from the sleeper body and a shear-elastic layer between the longitudinal lateral surface of the sleeper body and the track bed coupling surface for damping shear vibrations between the sleeper body and the track bed coupling surface.