mhurhangee/patent-ind-claim-en huggingface dataset:
Composition comprising - at least one organic polymer containing silane groups; and - at least one catalyst of the formula (I), where A is an aliphatic or cycloaliphatic or arylaliphatic hydrocarbyl radical which has 3 to 30 carbon atoms, optionally contains unsaturated moieties, optionally contains oxygen or nitrogen atoms and optionally has amino groups or hydroxyl groups, or together with R 1 is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, R 1 is hydrogen or an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, or together with A is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, and R 2 and R 5 are each independently ethyl, isopropyl, tert-butyl, 3-(dimethylamino)propyl or cyclohexyl, and A is not the same radical as R 2 and R 5 ; where the catalyst of the formula (I) does not contain any nitrogen atom bonded directly to an aromatic ring or part of a heteroaromatic ring system. - at least one organic polymer containing silane groups; and - at least one catalyst of the formula (I), where A is an aliphatic or cycloaliphatic or arylaliphatic hydrocarbyl radical which has 3 to 30 carbon atoms, optionally contains unsaturated moieties, optionally contains oxygen or nitrogen atoms and optionally has amino groups or hydroxyl groups, or together with R 1 is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, R 1 is hydrogen or an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, or together with A is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, and R 2 and R 5 are each independently ethyl, isopropyl, tert-butyl, 3-(dimethylamino)propyl or cyclohexyl, and A is not the same radical as R 2 and R 5 ; where the catalyst of the formula (I) does not contain any nitrogen atom bonded directly to an aromatic ring or part of a heteroaromatic ring system. A is an aliphatic or cycloaliphatic or arylaliphatic hydrocarbyl radical which has 3 to 30 carbon atoms, optionally contains unsaturated moieties, optionally contains oxygen or nitrogen atoms and optionally has amino groups or hydroxyl groups, or together with R 1 is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, R 1 is hydrogen or an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, or together with A is a divalent, optionally branched alkylene radical which has 4 to 12 carbon atoms and optionally contains a heteroatom, and R 2 and R 5 are each independently ethyl, isopropyl, tert-butyl, 3-(dimethylamino)propyl or cyclohexyl, and A is not the same radical as R 2 and R 5 ; where the catalyst of the formula (I) does not contain any nitrogen atom bonded directly to an aromatic ring or part of a heteroaromatic ring system.
Method of manufacturing a formed extruded profile , - in which a metallic material is heated to a pressing temperature and then pressed through a die to form an extruded profile , - in which the extruded profile is cooled to a temperature of less than 50 °C, - in which the extruded profile is formed less than 7 days after cooling, at least in sections, in which a rib structure extending rectilinearly in the longitudinal direction of the extruded profile is at least partially foremd by alternate bending to form a rib structure extending undulatingly in the longitudinal direction of the extruded profile . - in which a metallic material is heated to a pressing temperature and then pressed through a die to form an extruded profile , - in which the extruded profile is cooled to a temperature of less than 50 °C, - in which the extruded profile is formed less than 7 days after cooling, at least in sections, in which a rib structure extending rectilinearly in the longitudinal direction of the extruded profile is at least partially foremd by alternate bending to form a rib structure extending undulatingly in the longitudinal direction of the extruded profile .
A method for manufacturing a ball having a panel , in particular a soccer ball, the method comprising: - providing a carrier material having an outer side and an inner side within a mold having at least one first and at least one second mold part ; - applying a material for an outer layer of the panel on the outer side of the carrier material within the mold; - three-dimensionally molding the outer layer of the panel on the outer side of the carrier material within the mold; - applying a material for an inner layer of the panel to the inner side of the carrier material within the first mold part; - three-dimensionally molding the inner layer of the panel on the inner side of the carrier material using at least the first mold part , wherein the inner layer is adapted to face an interior of the ball. - providing a carrier material having an outer side and an inner side within a mold having at least one first and at least one second mold part ; - applying a material for an outer layer of the panel on the outer side of the carrier material within the mold; - three-dimensionally molding the outer layer of the panel on the outer side of the carrier material within the mold; - applying a material for an inner layer of the panel to the inner side of the carrier material within the first mold part; - three-dimensionally molding the inner layer of the panel on the inner side of the carrier material using at least the first mold part , wherein the inner layer is adapted to face an interior of the ball.
Acoustic absorption and shading device including at least one vertical strip , or a vertical panel, made of a material including at least three structural layers, a central layer made of a sound-absorbing material, and two outer layers made of a knitted material with acoustic transparency, said outer layers being attached on either side of the central layer , characterized in that : - the two outer layers are made from flame-retardant polyester fibre yarns; and - the absorbing central layer is made of polyester felt including polyester fibres as its main component; and in that an assembly thickness of said three structural layers is less than 7 mm. - the two outer layers are made from flame-retardant polyester fibre yarns; and - the absorbing central layer is made of polyester felt including polyester fibres as its main component; and in that an assembly thickness of said three structural layers is less than 7 mm.
A segmented semiconductor light emitting device (100A - 100E; 220, 230, 310, 605) for a flash module , comprising: a die comprising a light emitting semiconductor structure formed from a substrate on which an n-layer , a light emitting active region and a p-layer are grown, the light emitting active region being disposed between the n-layer and the p-layer, the light emitting active layer configured to emit pump light having a first spectrum , and a plurality of trenches formed through the p-layer , the active region and at least a portion of the n-layer to separate the die into a plurality of individually addressable segments and wherein the trenches electrically insulate the individual segments of the die from one another; wherein each segment is provided with its own contacts ; and a wavelength-converting layer (120a - 120d; 180, 185, 190) disposed in contact with the substrate , configured to convert the pump light emitted by an active layer to light having a second spectrum different from the first spectrum and to limit an energy ratio of the pump light that passes through the wavelength-converting layer (120a - 120d; 180, 185, 190) unconverted to total light emitted by the segmented semiconductor light emitting device to less than 10%. a die comprising a light emitting semiconductor structure formed from a substrate on which an n-layer , a light emitting active region and a p-layer are grown, the light emitting active region being disposed between the n-layer and the p-layer, the light emitting active layer configured to emit pump light having a first spectrum , and a plurality of trenches formed through the p-layer , the active region and at least a portion of the n-layer to separate the die into a plurality of individually addressable segments and wherein the trenches electrically insulate the individual segments of the die from one another; wherein each segment is provided with its own contacts ; and a wavelength-converting layer (120a - 120d; 180, 185, 190) disposed in contact with the substrate , configured to convert the pump light emitted by an active layer to light having a second spectrum different from the first spectrum and to limit an energy ratio of the pump light that passes through the wavelength-converting layer (120a - 120d; 180, 185, 190) unconverted to total light emitted by the segmented semiconductor light emitting device to less than 10%.
A leading edge system for an aerospace vehicle , the leading edge system comprising: at least one structural member ; a plurality of removable modules removably attached to the at least one structural member , each removable module comprising: a hollow box substructure ; and at least one flange portion disposed along a first end of the hollow box substructure ; a plurality of first attachment elements configured for attaching the at least one flange portion of the removable module to a first end portion of the at least one structural member ; and a plurality of second attachment elements configured for attaching a second end of the hollow box substructure opposite the at least one flange portion , to a second end portion of the at least one structural member opposite the first end portion ; wherein the plurality of second attachment elements each comprises a dagger pin and a dagger pin nut . at least one structural member ; a plurality of removable modules removably attached to the at least one structural member , each removable module comprising: a hollow box substructure ; and at least one flange portion disposed along a first end of the hollow box substructure ; a hollow box substructure ; and at least one flange portion disposed along a first end of the hollow box substructure ; a plurality of first attachment elements configured for attaching the at least one flange portion of the removable module to a first end portion of the at least one structural member ; and a plurality of second attachment elements configured for attaching a second end of the hollow box substructure opposite the at least one flange portion , to a second end portion of the at least one structural member opposite the first end portion ; wherein the plurality of second attachment elements each comprises a dagger pin and a dagger pin nut .
A method of sending information in a communication system, comprising: mapping first information to M most significant bits, MSBs, of a message, wherein the first information comprises channel quality indicator, CQI, information, where M is one or greater; mapping second information to N least significant bits, LSBs, of the message if the second information is sent with the first information, wherein the second information comprises acknowledgement, ACK, information, where N is one or greater; and encoding the message with a (20, K) block code, wherein K equals M if the first information is sent alone or wherein K equals M plus N if the first information is sent with the second information in the message, and wherein the second information is sent with the first information or not sent in the message. mapping first information to M most significant bits, MSBs, of a message, wherein the first information comprises channel quality indicator, CQI, information, where M is one or greater; mapping second information to N least significant bits, LSBs, of the message if the second information is sent with the first information, wherein the second information comprises acknowledgement, ACK, information, where N is one or greater; and encoding the message with a (20, K) block code, wherein K equals M if the first information is sent alone or wherein K equals M plus N if the first information is sent with the second information in the message, and wherein the second information is sent with the first information or not sent in the message.
Method for establishing and maintaining Internet access through the use of a local computer network wireless communication protocol from a mobile client station , by way of several access points (AP1, AP2), to be chosen successively over time as a function of displacements of the mobile client station , from a set of Internet access points identified using this local computer network wireless communication protocol, comprising the following steps carried out by the mobile client station: - establish , for the mobile client station , Internet access through the use of the local computer network wireless communication protocol by way of a first access point (AP1) selected from the set of identified access points, - open on this occasion, for the mobile client station , a first communication session specific to this first access point (AP1) in compliance with the local computer network wireless communication protocol, - maintain, for the mobile client station , Internet access while opening at least one other communication session specific to at least one other access point (AP2) subsequently selected from the set of identified access points in compliance with the local computer network wireless communication protocol, characterized in that the maintaining of Internet access is ensured in the following manner: - on the occasion of the opening of the first session, furthermore open a main communication session for the mobile client station through the use of a public terrestrial mobile network communication protocol, - maintain this main session open as long as one wishes to maintain Internet access for the mobile client station , and - join the main session as well as each session specific to each selected access point (AP1, AP2) under the dependency of one and the same unique session identifier. - establish , for the mobile client station , Internet access through the use of the local computer network wireless communication protocol by way of a first access point (AP1) selected from the set of identified access points, - open on this occasion, for the mobile client station , a first communication session specific to this first access point (AP1) in compliance with the local computer network wireless communication protocol, - maintain, for the mobile client station , Internet access while opening at least one other communication session specific to at least one other access point (AP2) subsequently selected from the set of identified access points in compliance with the local computer network wireless communication protocol, - on the occasion of the opening of the first session, furthermore open a main communication session for the mobile client station through the use of a public terrestrial mobile network communication protocol, - maintain this main session open as long as one wishes to maintain Internet access for the mobile client station , and - join the main session as well as each session specific to each selected access point (AP1, AP2) under the dependency of one and the same unique session identifier.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: detecting (S400) that data is available for a bi-directional transmission, wherein the bi-directional transmission is performed via a bi-directional channel used as either uplink, UL, channel or sidelink, SL, channel; and transmitting (S430) the buffer status report for the bi-directional transmission to a network, wherein the buffer status report for the bi-directional transmission is transmitted via a buffer status report, BSR, media access control, MAC, control element, CE, specific to the bi-directional transmission. detecting (S400) that data is available for a bi-directional transmission, wherein the bi-directional transmission is performed via a bi-directional channel used as either uplink, UL, channel or sidelink, SL, channel; and transmitting (S430) the buffer status report for the bi-directional transmission to a network, wherein the buffer status report for the bi-directional transmission is transmitted via a buffer status report, BSR, media access control, MAC, control element, CE, specific to the bi-directional transmission.
Distance compensation element for arrangement between two components - with a metal foil and - with spring elements integral with the metal foil , - wherein the spring elements protrude from the plane (E) of the metal foil , - wherein the spring elements are designed to be in contact with at least one of the components, and. - wherein a slit arrangement with a plurality of slits is introduced into the metal foil , - wherein the metal foil is deformed by stretching. characterized in, - that the metal foil consists of at least two metal layers, - that at least one metal layer consists of a first metal, - that at least one metal layer consists of a second metal, - in that the first metal has a greater modulus of elasticity than the second metal, and - that the second metal has a greater thermal conductivity than the first metal. - with a metal foil and - with spring elements integral with the metal foil , - wherein the spring elements protrude from the plane (E) of the metal foil , - wherein the spring elements are designed to be in contact with at least one of the components, and. - wherein a slit arrangement with a plurality of slits is introduced into the metal foil , - wherein the metal foil is deformed by stretching. - that the metal foil consists of at least two metal layers, - that at least one metal layer consists of a first metal, - that at least one metal layer consists of a second metal, - in that the first metal has a greater modulus of elasticity than the second metal, and - that the second metal has a greater thermal conductivity than the first metal.
A blockage detection device of a fluid replacement passage in a hemodialysis system comprising a dialysate chamber divided into a supply chamber and a recovery chamber by a diaphragm (D), a dialysate supply passage connecting the supply chamber and a dialyzer , a dialysate recovery passage connecting the dialyzer and the recovery chamber , a dialysate pump provided in the dialysate recovery passage , a blood circuit connected to the dialyzer , a fluid replacement passage connected to the dialysate supply passage and the blood circuit , a fluid replacement pump provided in the fluid replacement passage , and control means (C) for controlling the dialysate pump and the fluid replacement pump , characterized in that the control means executes: a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating said fluid replacement pump at a predetermined set flow rate for a predetermined time in order to discharge a part of the dialysate supplied to fill the supply chamber , a third operation of operating the dialysate pump at the predetermined set flow rate, to obtain remaining discharge time until residual dialysate remaining in the supply chamber runs out after end of the second operation, and a fourth operation of determining that the fluid replacement passage is blocked, when a difference between the remaining discharge time and the total discharge time is in a required allowable error range. a first operation of operating the dialysate pump at a predetermined set flow rate to obtain total discharge time until dialysate supplied to fill the supply chamber runs out, a second operation of operating said fluid replacement pump at a predetermined set flow rate for a predetermined time in order to discharge a part of the dialysate supplied to fill the supply chamber , a third operation of operating the dialysate pump at the predetermined set flow rate, to obtain remaining discharge time until residual dialysate remaining in the supply chamber runs out after end of the second operation, and a fourth operation of determining that the fluid replacement passage is blocked, when a difference between the remaining discharge time and the total discharge time is in a required allowable error range.
An oxide superconducting solenoid wound coil comprising: plural tape-shaped oxide superconducting wires electrically connected in series and helically wound in multiple layers around a cylindrical winding barrel of a spool, thus forming a multilayer winding area, wherein the multilayer winding area is the area of the spool on which the superconducting wires are wound in multiple layers, wherein the oxide superconducting wires are connected together by overlaying their wider surfaces one on top of the other within the multilayer winding area, and wherein the oxide superconducting wires have a connecting portion at a position satisfying a relationship of formula below: L / 2 − 2.2 × 10 7 / dL ≤ z < L / 2 where L is the length in mm of the multilayer winding area in the axial direction of the spool, d is the inner diameter in mm of the multilayer winding area, and z is the distance in mm from the centre of the coil in an axial direction. plural tape-shaped oxide superconducting wires electrically connected in series and helically wound in multiple layers around a cylindrical winding barrel of a spool, thus forming a multilayer winding area, wherein the multilayer winding area is the area of the spool on which the superconducting wires are wound in multiple layers, wherein the oxide superconducting wires are connected together by overlaying their wider surfaces one on top of the other within the multilayer winding area, and wherein the oxide superconducting wires have a connecting portion at a position satisfying a relationship of formula below: L / 2 − 2.2 × 10 7 / dL ≤ z < L / 2 where L is the length in mm of the multilayer winding area in the axial direction of the spool, d is the inner diameter in mm of the multilayer winding area, and z is the distance in mm from the centre of the coil in an axial direction.
Measurement device for determination of the liquid level in a container with a wall , which measurement device comprises a first actuator configured to be arranged on a corresponding level on the wall , which actuator comprises an influence part which is configured to be arranged for influencing the wall on the outside of the container , a vibration sensor for said actuator , for measurement of the vibrations in the wall , and a control unit , which is connected to said actuator and the vibration sensor , and which is arranged to apply to the actuator a predetermined drive signal which makes the influence part to influence the wall with an oscillating force, wherein the vibration sensor are arranged fixed in relation to the corresponding influence part so that the vibration sensor moves in the same way as the influence part , which means that the vibration sensor will measure the vibrations in the same point of the wall as the actuator transfers force into the wall, wherein the measurement device is arranged to receive a resulting measurement signal from the vibration sensor , which measurement signal depends on the size of the vibrations, and to compare the measurement signal with earlier measured measurement signals in order to make a determination of the liquid level in the container , characterized in that the control unit is arranged to determine a curve obtained of earlier system responses, in the form of the impulse responses in the interval 0-2 ms, being mean values of amplitudes of the system responses, and obtained at different liquid levels in the container using the predetermined drive signal and the measured measurement signal; wherein, the control unit is arranged to determine a system response, being an impulse response, for the container using the predetermined drive signal and the measured measurement signal and to determine a mean value of the amplitude of the impulse response, and to determine the liquid level at arbitrary levels by using the curve.