mhurhangee/ep-ind-claims huggingface dataset:
A method of separating acetylene from a gas mixture comprising acetylene, the method comprising contacting the gas mixture with a hybrid porous material; wherein the hybrid porous material comprises a three-dimensional lattice of metal species and linker groups; wherein the metal species are linked together in a first and second dimension by first linker groups (L 1) and are linked together in a third dimension by second linker groups (L 2) to form the three-dimensional lattice; wherein one of L 1 and L 2 is an organic linker group and the other of L 1 and L 2 is an inorganic linker group; and wherein the gas mixture is selected from a gas mixture comprising acetylene and ethylene and/or a gas mixture comprising acetylene and carbon dioxide and/or a gas mixture comprising acetylene, ethylene and carbon dioxide.
Electro-optical component (30, 40) comprising a polymer layer (32, 42), into which a quantum dot structure (33, 43) is embedded, wherein the component (30, 40) is an organic light-emitting diode which comprises at least one organic layer (36, 46) for emitting light, characterized in that the quantum dot structure (33, 43) is a section of the polymer layer (32, 42) structured by means of two-photon polymerization, and the polymer layer (32, 42) with the embedded quantum dot structure (33, 43) adjoins the at least one organic layer (36, 46), and wherein the quantum dot structure (33, 43) is designed to change the wavelength range, preferably a blue wavelength range, of at least one part of the light emitted by the at least one organic layer (36, 46), or the quantum dot structure (33, 43) is designed to change an electron conductivity in an electron transport layer (35, 45) and/or a hole conductivity in a hole transport layer (37, 47) of the component (30, 40), or the quantum dot structure (33, 43) is designed for direct light emission.
A mobile station that communicates with a base station by aggregating a plurality of cells having different frequency bands, wherein the plurality of cells having different frequency bands are grouped into any one of cell groups, each of which includes cells having an identical transmission timing, and wherein the mobile station adjusts the transmission timing of each of the cell groups which are set from the base station, characterized in that the mobile station sets whether or not the transmission timing adjusted for each of the cell groups is to be applied after a connection reconfiguration, on the basis of information which describes for each of the cell groups whether or not the transmission timing before the connection reconfiguration is to be applied after the connection reconfiguration and which is transmitted from the base station.
Tension element whose one end is intended to be introduced into an anchoring cavity of an anchorage accessible from one side only, through a conduit, the said tension element being made up of a traction rod equipped at its end intended to be introduced into the said cavity with an end portion whose cross-sectional area is greater than the cross-sectional area of the said traction rod, the end portion or the end piece having a lower end portion of convex shape, this tension element being characterized in that the end portion or the end piece has an upper end portion and a central portion of tapered shape, limited by the upper end portion and the lower end portion, the cross-sectional area of smaller surface of the central portion being adjacent to the upper end portion, while the cross-sectional area of larger surface of the central portion is adjacent to the lower end portion.
Epoxy resin composition containing a) at least one epoxy resin, and b) at least one hardener, suitable for the hardening of epoxy resins, comprising the amine of formula. a) at least one epoxy resin, and b) at least one hardener, suitable for the hardening of epoxy resins, comprising the amine of formula.
A method of preparing an interference pigment,consisting of: (a) preparing a slurry by suspending a platelet-shaped substrate comprising at least one of natural mica, synthetic mica, alumina flakes, glass flakes and iron oxide flakes in water, followed by stirring the suspension; (b) coating a lower Fe 2 O 3 layer onto a surface of the platelet-shaped substrate by titrating an FeCl 3 solution into the slurry, followed by refluxing the slurry to hydrolyze a metal salt of the FeCl 3 solution; (c) coating a MgO·SiO 2 layer onto a surface of the lower Fe 2 O 3 layer by titrating a MgO·SiO 2 solution into the slurry after completion of (b), followed by refluxing the slurry to hydrolyze a metal salt of the MgO·SiO 2 solution; (d) coating an upper Fe 2 O 3 layer onto a surface of the MgO·SiO 2 layer by repeating (b) with respect to the slurry after completion of (c); (e) obtaining a residual intermediate product by dehydrating, washing and drying the slurry after completion of (d); and (f) calcining the intermediate product, the calcination being performed at 600°C to 900°C; each of the lower and upper first metal oxide layers and the second metal oxide layer having a thickness of 20 nm to 500 nm. (a) preparing a slurry by suspending a platelet-shaped substrate comprising at least one of natural mica, synthetic mica, alumina flakes, glass flakes and iron oxide flakes in water, followed by stirring the suspension; (b) coating a lower Fe 2 O 3 layer onto a surface of the platelet-shaped substrate by titrating an FeCl 3 solution into the slurry, followed by refluxing the slurry to hydrolyze a metal salt of the FeCl 3 solution; (c) coating a MgO·SiO 2 layer onto a surface of the lower Fe 2 O 3 layer by titrating a MgO·SiO 2 solution into the slurry after completion of (b), followed by refluxing the slurry to hydrolyze a metal salt of the MgO·SiO 2 solution; (d) coating an upper Fe 2 O 3 layer onto a surface of the MgO·SiO 2 layer by repeating (b) with respect to the slurry after completion of (c); (e) obtaining a residual intermediate product by dehydrating, washing and drying the slurry after completion of (d); and (f) calcining the intermediate product, the calcination being performed at 600°C to 900°C;
Method for manufacturing a motor vehicle, comprising the following steps: - producing a substructure and at least one body module of the motor vehicle, wherein the substructure and the body module each have at least one flange region, - painting at least the flange region of the substructure and/or of the body module, - connecting the flange regions of substructure and body module by means of solid punch rivets, wherein the solid punch rivets each have a head with an under head coating or an under head seal, and therefore the under head coating or under head seal bears against the painted flange region of the substructure or of the body module. - producing a substructure and at least one body module of the motor vehicle, wherein the substructure and the body module each have at least one flange region, - painting at least the flange region of the substructure and/or of the body module, - connecting the flange regions of substructure and body module by means of solid punch rivets, wherein the solid punch rivets each have a head with an under head coating or an under head seal, and therefore the under head coating or under head seal bears against the painted flange region of the substructure or of the body module.
An electronic device having an audio output unit, comprising: a housing having a side region, wherein the structure of the housing defines a first space and a second space, the first space being arranged to longitudinally penetrate the side region of the housing; and a rib vertically protruding from an upper surface of the housing, the rib defining a periphery of the second space and being arranged in a substantially lateral direction along the upper surface of the housing, the second space being configured to communicate with the first space and to receive the audio output unit therein; characterized in that a reinforcing member is received in the first space to reinforce the housing, the reinforcing member including a cavity in connection with the second space so that the first space, second space and cavity define resonant spaces in which sound output from the audio output unit resonates. a housing having a side region, wherein the structure of the housing defines a first space and a second space, the first space being arranged to longitudinally penetrate the side region of the housing; and a rib vertically protruding from an upper surface of the housing, the rib defining a periphery of the second space and being arranged in a substantially lateral direction along the upper surface of the housing, the second space being configured to communicate with the first space and to receive the audio output unit therein; characterized in that a reinforcing member is received in the first space to reinforce the housing, the reinforcing member including a cavity in connection with the second space so that the first space, second space and cavity define resonant spaces in which sound output from the audio output unit resonates.
Dumping vessel for dumping sinking particles like sand, blocks, rocks or stones onto the bottom of a lake or sea, comprising a floating hull and a fall pipe pending downwards towards the bottom, wherein the fall pipe comprises a lower dumping section and a series of fall pipe sections that are stacked onto each other on the dumping section, wherein multiple fall pipe sections each comprise a tube and an upper connector and a lower connector that are joint with the tube, wherein the upper connector and the lower connector of subsequent fall pipe sections engage each other, characterized in that the tube comprises a circumferential wall having at least one layer of fiber reinforced plastic.
An image display device comprising: an image display unit for displaying a still image or a moving image; an image capturing unit for capturing the image in a direction in which the image display unit displays the still image or the moving image; and a face detection unit for carrying out face detection processing, in which a face of a user which is included in the image captured by the image capturing unit is detected, at given intervals, characterized in that: the given intervals are variable according to whether or not the face of the user is included in the image captured by the image capturing unit, and when the detected face is still in position in whole or in part for a given time in the course of the face detection processing, the face detection unit omits the face detection of the face of the user. an image display unit for displaying a still image or a moving image; an image capturing unit for capturing the image in a direction in which the image display unit displays the still image or the moving image; and a face detection unit for carrying out face detection processing, in which a face of a user which is included in the image captured by the image capturing unit is detected, at given intervals, characterized in that: the given intervals are variable according to whether or not the face of the user is included in the image captured by the image capturing unit, and when the detected face is still in position in whole or in part for a given time in the course of the face detection processing, the face detection unit omits the face detection of the face of the user. the given intervals are variable according to whether or not the face of the user is included in the image captured by the image capturing unit, and when the detected face is still in position in whole or in part for a given time in the course of the face detection processing, the face detection unit omits the face detection of the face of the user.
A method for configuring a hearing system specifically for a user, wherein the hearing system comprises a receiving unit for receiving sound events, a converter unit for the frequency-dependent variable adaption of the received sound events, and a reproduction unit for the reproduction of the adapted sound events to the hearing organ of the user, wherein the following steps are performed: a) reproduction of a first sound event with a first frequency and a predetermined loudness via at least one sound generator; b) immediately thereafter, reproduction of a second sound event with a second frequency and, for a normal hearing person, the same loudness as the first sound event via the sound generator, wherein the frequencies of the first and of the second sound event are adjacent to one another; c) in the next step, successively changing at least one adaptation parameter of the converter unit of the hearing system if a loudness difference between the first and second sound event is detected by the user, so that the loudness of the first sound event is perceived by the user of the auditory system as equal to the loudness of the second sound event. a) reproduction of a first sound event with a first frequency and a predetermined loudness via at least one sound generator; b) immediately thereafter, reproduction of a second sound event with a second frequency and, for a normal hearing person, the same loudness as the first sound event via the sound generator, wherein the frequencies of the first and of the second sound event are adjacent to one another; c) in the next step, successively changing at least one adaptation parameter of the converter unit of the hearing system if a loudness difference between the first and second sound event is detected by the user, so that the loudness of the first sound event is perceived by the user of the auditory system as equal to the loudness of the second sound event.
A fastening tab for an article comprising a substrate having a first end region with a first outermost end and opposite thereto a second end region with a second outermost end, and a middle region between the first and second end regions (41, 43), wherein the first end region comprises at least one fastening region comprising a fastening material attached to the substrate wherein the fastening material comprises a plurality of mechanical fastening elements for releasable fastening, the tab further comprising a cover tape covering at least a portion of the middle region, and wherein at least a first portion of the cover tape is connected to the middle region by at least one releasable connection, wherein the at least one releasable connection comprises a releasable, non-adhesive bond, wherein the cover tape is connected by a second portion to the substrate by at least one non-releasable connection, wherein the at least one non-releasable connection is situated between the at least one releasable connection and the second end region and wherein the cover tape comprises a surface that can be attached to the article to create a bond between the article and that surface of the cover tape, characterized in that the releasable, non-adhesive bond is created by ultrasonic welding and wherein the tape and the substrate comprise, at least at their releasable connection, a thermoplastic material that does not differ in melting point or differs in melting point by less than (315,15 °K) 42°C.
Connecting apparatus, in particular a quick connector, for lines, having at least two connectors (1, 2), of which at least one connector (1, 2) comprises two projections (3, 4) which form a receptacle region for a line end, one of the two projections (3, 4) having a first section and a second section with a greater wall thickness than the first section, characterized in that a transition with a receptacle region-side wall is provided between the two sections (6, 7) of the projection, which receptacle region-side wall is of curved configuration in the longitudinal direction A of the connecting apparatus, a section of the wall being of concave configuration in the region of the first section of the projection, and a section of the wall being of convex configuration in the region of the second section of the projection.
A splash resistant multi-layered structure, the multi-layered structure comprising: an outer layer of material having an outer-facing surface and an inner-facing surface; an inner layer of material having an outer-facing surface and an inner-facing surface; and a first plurality of three-dimensional spacers disposed on a surface within the multi-layered structure, wherein the first plurality of three-dimensional spacers define a space between the outer layer of material and the inner layer of material, wherein the space spans a distance at least as great as a maximum height of the first plurality of three-dimensional spacers, further wherein the first plurality of three-dimensional spacers aid in absorbing energy associated with a fluid contacting the outer layer of material; characterised in that: the first plurality of three-dimensional spacers comprise a binder, an ink, an adhesive, or a combination thereof, and an encapsulated functional additive contained within the binder, the ink, the adhesive, or the combination thereof, wherein the encapsulated functional additive comprises a phase change material. an outer layer of material having an outer-facing surface and an inner-facing surface; an inner layer of material having an outer-facing surface and an inner-facing surface; and a first plurality of three-dimensional spacers disposed on a surface within the multi-layered structure, wherein the first plurality of three-dimensional spacers define a space between the outer layer of material and the inner layer of material, wherein the space spans a distance at least as great as a maximum height of the first plurality of three-dimensional spacers, further wherein the first plurality of three-dimensional spacers aid in absorbing energy associated with a fluid contacting the outer layer of material;
Method for controlling a resonance converter which is connected on the secondary side via a galvanic isolation, in particular via a transformer, to a self-commutated synchronous rectifier, wherein the resonance converter has at least two transistors (M1, M2), for each of which a switching frequency is predetermined, characterised in that at least one control signal of the transistors (M1, M2) of the resonance converter and at least one control signal of transistors (M3, M4) of the self-commutated synchronous rectifier are smoothed with at least one discrete low-pass filter and the smoothed control signals (T1, T2) are compared with each other by means of difference formation using a difference former, in particular a difference amplifier, wherein an adjustment of the switching frequencies of the transistors (M1, M2) of the resonance converter is performed based on a determined difference, such that the difference is equal to zero.
A vacuum chamber system of a coating apparatus, the system comprising: a vacuum chamber connected to a coating solution outlet of the coating apparatus; a negative pressure generating unit connected to the vacuum chamber to generate negative pressure therein; and a buffer tank provided between the vacuum chamber and the negative pressure generating unit, wherein control unit is further provided between the vacuum chamber and the buffer tank, and the control unit controls air to be selectively drawn into or blocked from the vacuum chamber and the negative pressure generating unit, characterised in that the system further comprises first and second said control units that enable the air to be independently drawn into or blocked from the vacuum chamber and the negative pressure generating unit. a vacuum chamber connected to a coating solution outlet of the coating apparatus; a negative pressure generating unit connected to the vacuum chamber to generate negative pressure therein; and a buffer tank provided between the vacuum chamber and the negative pressure generating unit, wherein control unit is further provided between the vacuum chamber and the buffer tank, and the control unit controls air to be selectively drawn into or blocked from the vacuum chamber and the negative pressure generating unit,
A method of phase correction at a wireless device comprising: estimating a phase slope for an OFDM symbol in a data portion of a packet; measuring a residual phase slope for the OFDM symbol in the data portion of the packet, the residual phase slope being based on a measurement of a phase slope from tracking pilots contained in the packet; and the method being characterized by: adjusting a phase correction based upon the phase slope and the residual phase slope. estimating a phase slope for an OFDM symbol in a data portion of a packet; measuring a residual phase slope for the OFDM symbol in the data portion of the packet, the residual phase slope being based on a measurement of a phase slope from tracking pilots contained in the packet; and the method being characterized by: adjusting a phase correction based upon the phase slope and the residual phase slope. adjusting a phase correction based upon the phase slope and the residual phase slope.
Laser arrangement, in particular a longitudinally diode-pumped solid-state laser having at least one active medium (2a, 2b, 19, 20) and at least one V-arrangement of two resonator branches (1a, 1b), connected via a folding element (9, 18) highly reflective at the fundamental wavelength, of the optical resonator, the laser arrangement further comprising an optical pump-imaging system; wherein the two resonator branches (1a, 1b) are respectively assigned an active volume (26a, 26b), and both are pumped at one end through a common objective (11, 17) of the pump-imaging system by the folding element (9, 18) transparent to the pump wavelength, wherein the at least one active medium (2a, 2b, 19, 20) has planar end faces and the folding element (9, 18) for reducing the optical force of the thermal lens in the optical resonator is implemented in a spherical convex manner and wherein either a common active medium has two active volumes (26a, 26b) which are positioned and aligned centrally and coaxially with the optical axis (27a, 27b) of the relevant resonator branch (1a, 1b), and the active medium comprises the two resonator branches (1a, 1b) or each resonator branch (1a, 1b) has in each case an active medium (2a, 2b), wherein the active volume (26a, 26b) assigned to a respective resonator branch (1a, 1b) is positioned and aligned centrally and coaxially with the optical axis (27a, 27b) of the relevant resonator branch (1a, 1b).
A process for producing an automotive glass with a member, the process comprising bonding together an adhesion surface of an adherend and an adhesion surface of an automotive glass using an adhesive, and then curing the adhesive using a superheated steam generator, thereby attaching the adherend to the automotive glass; characterized in that the superheated steam generator comprises: a boiler part for generating steam, a superheating unit for superheating the steam generated in the boiler part, and a superheated steam vessel equipped internally with one or more heaters and one or more superheated steam outlets for discharging the superheated steam supplied from the superheating unit; and in that the step of curing the adhesive is performed by covering the adherend placed on the automotive glass with the superheated steam vessel, spraying the superheated steam from the one or more superheated steam outlets to the adherend, and then spraying dry gas. a boiler part for generating steam, a superheating unit for superheating the steam generated in the boiler part, and a superheated steam vessel equipped internally with one or more heaters and one or more superheated steam outlets for discharging the superheated steam supplied from the superheating unit; and
A composition, in particular a pharmaceutical composition, preferably for topical use for purposes of local anesthetisation, wherein the composition contains lidocaine as a local anesthetic in effective, in particular in pharmaceutically effective, amounts, wherein the composition contains the lidocaine in the form of lidocaine nanocrystals as a dispersion of the lidocaine nanocrystals in a dispersing agent, and wherein the lidocaine nanocrystals contain the lidocaine in a salt-free form in the form of 2-diethylamino-N-(2,6-dimethylphenyl)acetamide.