mhurhangee/ep-ind-claims huggingface dataset:
A nonwoven trough (12, 12', 312) for bundling, routing and protecting one or more elongate members, the nonwoven trough (12, 12', 312) comprising: at least one nonwoven wall (14, 14', 314) formed from a mixture of bonded natural cellulosic fibers and thermoplastic fibers, said at least one nonwoven wall (14, 14', 314) having a base (22, 22', 322) extending along a longitudinal axis (19, 19', 319) and having a midsection (18, 18', 318) and opposite end portions (20, 20', 320), said midsection (18, 18', 318) having a pair of sidewalls (24, 24', 324) extending upwardly from said base (22, 22', 322) to provide said midsection (18, 18', 318) with a generally U-shaped cross-section taken generally transversely to said longitudinal axis (19, 19', 319); and at least one flange (30, 30', 330) extending laterally outwardly from said base (22, 22', 322), said at least one flange (30, 30', 330) being configured for attachment to a vehicle member. at least one nonwoven wall (14, 14', 314) formed from a mixture of bonded natural cellulosic fibers and thermoplastic fibers, said at least one nonwoven wall (14, 14', 314) having a base (22, 22', 322) extending along a longitudinal axis (19, 19', 319) and having a midsection (18, 18', 318) and opposite end portions (20, 20', 320), said midsection (18, 18', 318) having a pair of sidewalls (24, 24', 324) extending upwardly from said base (22, 22', 322) to provide said midsection (18, 18', 318) with a generally U-shaped cross-section taken generally transversely to said longitudinal axis (19, 19', 319); and at least one flange (30, 30', 330) extending laterally outwardly from said base (22, 22', 322), said at least one flange (30, 30', 330) being configured for attachment to a vehicle member.
A method for wireless communications performed by a base station, BS, comprising: transmitting an indication of a scheduled physical random access channel, PRACH, region comprising a set of transmission resources for transmitting scheduled PRACH signals by a first user equipment, UE, wherein the scheduled PRACH region is within a narrowband region of a wider system bandwidth, wherein the scheduled PRACH region is a subset of a set of PRACH resources indicated by the BS, and wherein the indication comprises a parameter indicating a starting offset of the scheduled PRACH region, wherein the starting offset indicates a second region within the scheduled PRACH region that is offset from one of the boundaries of the scheduled PRACH region; determining to command the first UE to transmit the scheduled PRACH signal; dynamically updating the scheduled PRACH region, based on the determination, wherein dynamically updating comprises dynamically changing a configuration of the subset of the set of PRACH resources; transmitting an indication of the dynamic updating to the first UE; and transmitting a first command to the first UE to transmit a scheduled PRACH signal using transmission resources in the scheduled PRACH region. transmitting an indication of a scheduled physical random access channel, PRACH, region comprising a set of transmission resources for transmitting scheduled PRACH signals by a first user equipment, UE, wherein the scheduled PRACH region is within a narrowband region of a wider system bandwidth, wherein the scheduled PRACH region is a subset of a set of PRACH resources indicated by the BS, and wherein the indication comprises a parameter indicating a starting offset of the scheduled PRACH region, wherein the starting offset indicates a second region within the scheduled PRACH region that is offset from one of the boundaries of the scheduled PRACH region; determining to command the first UE to transmit the scheduled PRACH signal; dynamically updating the scheduled PRACH region, based on the determination, wherein dynamically updating comprises dynamically changing a configuration of the subset of the set of PRACH resources; transmitting an indication of the dynamic updating to the first UE; and transmitting a first command to the first UE to transmit a scheduled PRACH signal using transmission resources in the scheduled PRACH region.
A method of manufacturing a purified product of a liquid medium-chain alkyl-modified polydimethylsiloxane comprising the steps of: synthesizing a liquid medium-chain alkyl-modified polydimethylsiloxane represented by general formula, given below, by carrying out a hydrosilylation reaction between a hydrosilyl-containing polydimethylsiloxane of formula and an α-olefin with 6 to 12 carbon atoms; and subjecting a crude product of the liquid medium-chain alkyl-modified polydimethylsiloxane obtained in preceding step to an odor-removing treatment by conducting a hydrogenation reaction which is carried out in the presence of a hydrogenation catalyst: where R 1 represents a hydrogen atom or a methyl group; "m" is an integer from 0 to 6; and "n" is an integer from 0 to 3; however, when "n" is 0, then at least one R 1 represents a hydrogen atom; where R 2 represents an alkyl group with 6 to 12 carbon atoms; R 3 are groups represented by R 2 above or a methyl group; and "m" and "n" are the same numbers as defined above for general formula; however, when "n" is 0, at least one R 3 is the same group as defined for R 2. synthesizing a liquid medium-chain alkyl-modified polydimethylsiloxane represented by general formula, given below, by carrying out a hydrosilylation reaction between a hydrosilyl-containing polydimethylsiloxane of formula and an α-olefin with 6 to 12 carbon atoms; and subjecting a crude product of the liquid medium-chain alkyl-modified polydimethylsiloxane obtained in preceding step to an odor-removing treatment by conducting a hydrogenation reaction which is carried out in the presence of a hydrogenation catalyst: where R 1 represents a hydrogen atom or a methyl group; "m" is an integer from 0 to 6; and "n" is an integer from 0 to 3; however, when "n" is 0, then at least one R 1 represents a hydrogen atom; where R 2 represents an alkyl group with 6 to 12 carbon atoms; R 3 are groups represented by R 2 above or a methyl group; and "m" and "n" are the same numbers as defined above for general formula; however, when "n" is 0, at least one R 3 is the same group as defined for R 2.
A system comprising: a portable air sensing device configured to sense a concentration of a component gas in surrounding air and wirelessly transmit the sensed concentration; an electronic interface device suitable for being positioned within a cockpit of an aircraft and communicatively coupled with the portable air sensing device, the electronic interface device configured to: receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and a portable computing device having a display, the portable computing device being separate from and communicatively coupled to the electronic interface device and configured to display the indication of the received concentration of the component gas in relation to the defined threshold maximum concentration of the component gas. a portable air sensing device configured to sense a concentration of a component gas in surrounding air and wirelessly transmit the sensed concentration; an electronic interface device suitable for being positioned within a cockpit of an aircraft and communicatively coupled with the portable air sensing device, the electronic interface device configured to: receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and receive the wirelessly transmitted concentration from the portable air sensing device; and generate, for display, an indication of the received concentration in relation to a defined threshold maximum concentration of the component gas; and a portable computing device having a display, the portable computing device being separate from and communicatively coupled to the electronic interface device and configured to display the indication of the received concentration of the component gas in relation to the defined threshold maximum concentration of the component gas.
An inkjet printing apparatus comprising: a stage for receiving a substrate; an inkjet head disposed above the stage to spray ink onto the substrate; an ink storage to store ink; a first link pipe (IL1, IL1_1) connecting the ink storage and the inkjet head to each other to supply ink from the ink storage to the inkjet head; a second link pipe (IL2, IL2_1) connecting the ink storage and the inkjet head to each other to collect a portion of the ink that remains in the inkjet head after ink is ejected from the inkjet head, back to the ink storage; and a temperature controller (200, 202, 203) including a cooling portion and a heating portion, wherein the first link pipe is disposed at the heating portion of the temperature controller, and the second link pipe is disposed at the cooling portion of the temperature controller, characterised in that: the ink includes solvent and solid particles dispersed in the solvent; the temperature controller further comprises a temperature adjustment member (270, 273) disposed between the cooling portion and the heating portion, wherein the temperature adjustment member is configured to absorb heat energy from ink flowing through the second link pipe at the cooling portion and discharge the heat energy to ink flowing through the first link pipe at the heating portion. a stage for receiving a substrate; an inkjet head disposed above the stage to spray ink onto the substrate; an ink storage to store ink; a first link pipe (IL1, IL1_1) connecting the ink storage and the inkjet head to each other to supply ink from the ink storage to the inkjet head; a second link pipe (IL2, IL2_1) connecting the ink storage and the inkjet head to each other to collect a portion of the ink that remains in the inkjet head after ink is ejected from the inkjet head, back to the ink storage; and a temperature controller (200, 202, 203) including a cooling portion and a heating portion, wherein the first link pipe is disposed at the heating portion of the temperature controller, and the second link pipe is disposed at the cooling portion of the temperature controller, characterised in that: the ink includes solvent and solid particles dispersed in the solvent; the temperature controller further comprises a temperature adjustment member (270, 273) disposed between the cooling portion and the heating portion, wherein the temperature adjustment member is configured to absorb heat energy from ink flowing through the second link pipe at the cooling portion and discharge the heat energy to ink flowing through the first link pipe at the heating portion.
Computer-implemented method for determining an appropriate control strategy for a robotic device in an environment with at least one dynamic object (2, 3, 4), comprising the steps of: - Providing a number of different scenarios wherein to each of the scenarios the at least one dynamic object (2, 3, 4) is associated, wherein with each of the scenarios, each of the at least one dynamic object (2, 3, 4) is associated with a start, a goal and an individual behavior specification; - Providing a number of control strategy candidates for the robotic device; - Evaluating each of the control strategy candidates in each of the provided scenarios; - Selecting the control strategy for the robotic device depending on the result of the evaluating of the control strategy candidates. - Providing a number of different scenarios wherein to each of the scenarios the at least one dynamic object (2, 3, 4) is associated, wherein with each of the scenarios, each of the at least one dynamic object (2, 3, 4) is associated with a start, a goal and an individual behavior specification; - Providing a number of control strategy candidates for the robotic device; - Evaluating each of the control strategy candidates in each of the provided scenarios; - Selecting the control strategy for the robotic device depending on the result of the evaluating of the control strategy candidates.
An insert for forming an end connection in a substantially uni-axial composite material, the insert comprising a sleeve (10, 120, 301) characterised in that the sleeve comprises a plurality of fibres having a multi-axial arrangement, wherein at least a portion of the interior surface of the sleeve comprises a thread formation (25, 303), wherein the sleeve comprises a plurality of layers of multi-axial fibre fabric, and wherein the sleeve further comprises at least one helically wound fibre layer (221a, 221b).
A method of building up a component layer by layer from a photopolymerizable material, in particular from a resin with a ceramic or metallic filler, comprising successively forming component layers (10', 10'', 10′′′) one on top of the other by forming a material layer of the photopolymerizable material on a material carrier and lowering the building platform or the component at least partially built up on the building platform into the material layer, so that a layer of the photopolymerizable material is formed between the building platform or the component and the material carrier, which layer is cured in a location-selective manner, in particular by irradiation through the material carrier, to form the desired geometry of the component layer (10', 10", 10ʺ′), whereafter the component is lifted with the component layer (10', 10", 10'''), wherein after the formation of the component layer (10', 10", 10ʺ′) a material removal step is carried out, in which, after lifting the component photopolymerizable material that is not or not fully cured adhering to the component, in particular to the component layer (10', 10'', 10′′′), is at least partially removed by means of a material removal unit, characterized in that the material removal unit for the material removal step is brought between the lifted component and the material carrier.
A screen element for a disc screen device, said device comprising a plurality of rotatable axes (2, 3) which are orientated parallel to each other and on which a plurality of screen elements which are axially spaced with respect to each other are respectively arranged non-rotationally, wherein: a) the screen element comprises elastically flexible fingers; and b) at least one of the fingers is embodied as a cleaning finger with no reinforcing parts, for cleaning an adjacent axis of rotation (2; 3) and/or a screen element arranged on the adjacent axis of rotation (2; 3), characterised in that c) at least the radial end of the at least one cleaning finger consists of a material which exhibits a greater rigidity than the other fingers. a) the screen element comprises elastically flexible fingers; and b) at least one of the fingers is embodied as a cleaning finger with no reinforcing parts, for cleaning an adjacent axis of rotation (2; 3) and/or a screen element arranged on the adjacent axis of rotation (2; 3), characterised in that c) at least the radial end of the at least one cleaning finger consists of a material which exhibits a greater rigidity than the other fingers.
A molten metal pump comprising: an impeller; a pump base housing at least partially enclosing the impeller; a shaft connected to the impeller; a motor connected to the shaft; a motor mount plate for supporting the motor; a post for connecting the motor mount plate to the pump base housing, and a connector connecting the post to the motor mount plate; the connector comprising: a side wall; an internal wall extending from the side wall and including an axially aligned opening, the side wall and the internal wall defining a lower receptacle adapted to receive the post, characterized in that the side wall and the internal wall defining an upper receptacle adapted to cooperate with a motor mount plate or a structure connected to the motor mount plate. an impeller; a pump base housing at least partially enclosing the impeller; a shaft connected to the impeller; a motor connected to the shaft; a motor mount plate for supporting the motor; a post for connecting the motor mount plate to the pump base housing, and a connector connecting the post to the motor mount plate; a side wall; an internal wall extending from the side wall and including an axially aligned opening, the side wall and the internal wall defining a lower receptacle adapted to receive the post,
A sound absorbing sheet comprising: a number of convex-concave patterns having a pitch of 0.5 mm to 20 mm, said convex-concave patterns comprising protrusions having a width or diameter of 0.2 mm to 5 mm and depressions on one surface of a porous substrate, wherein the sound absorbing sheet has an area ratio of the depressions from 40% to 99%, as represented by Equation 1, and a region corresponding to the depressions exhibits lower air permeability than a region corresponding to the protrusions, wherein the porous substrate has a basis weight of 30 g/m 2 to 800 g/m 2, and wherein the porous substrate has an air permeability of 20 L/m 2 /s to 1200 L/m 2 /s at a pressure of 200 Pa after formation of the convex-concave patterns. Area ratio of depressions = Area of depressions / Area of porous substrate a number of convex-concave patterns having a pitch of 0.5 mm to 20 mm, said convex-concave patterns comprising protrusions having a width or diameter of 0.2 mm to 5 mm and depressions on one surface of a porous substrate, wherein the sound absorbing sheet has an area ratio of the depressions from 40% to 99%, as represented by Equation 1, and a region corresponding to the depressions exhibits lower air permeability than a region corresponding to the protrusions, wherein the porous substrate has a basis weight of 30 g/m 2 to 800 g/m 2, and wherein the porous substrate has an air permeability of 20 L/m 2 /s to 1200 L/m 2 /s at a pressure of 200 Pa after formation of the convex-concave patterns. Area ratio of depressions = Area of depressions / Area of porous substrate
A laser scanning microscope for imaging at least one microscopic property of a sample, comprising at least one light source (114, 116) for generating at least coherent illumination light of at least one illumination wavelength, further comprising at least one optical system for illuminating at least one area within or on the sample with the at least one illumination light, and a beam splitter for spatially separating coherent detection light emitted from the sample from the incoherent detection light emitted from the sample, characterized by at least one additional beam splitter element arranged in the beam path and configured to separate coherent detection light, the wavelength of which is different from the wavelength of the illumination light, from the coherent illumination light emitted from the sample, as well as by at least one detection device for detection of the coherent detection light, and by an additional detection device for detection of the incoherent detection light emitted from the sample, the laser scanning microscope being configured such that the coherent detection signal is a CARS signal, an SHG signal, a four-wave mixing signal or a frequency mixing signal, and the incoherent detection signal is a Raman signal, a fluorescence signal, a phosphorescence signal or a FRET signal, and wherein the beam splitter has at least two areas (310, 312) with different properties, with at least one first area with a high transmission of more than 90% and with at least a second area with a high reflectivity of greater than 90%, wherein the peripheral first area takes up most of the area of the beam splitter, and wherein the central second area presents a circular or an oval or an elliptical shape on the beam splitter, wherein the incoherent detection light portion approximately completely illuminates the available opening of the beam splitter and this incoherent detection light portion is substantially transmitted by this beam splitter, and wherein the portion of the incoherent detection light reflected by the second area of the beam splitter in the direction of the light source (114, 116) is negligibly small due to a uniform illumination and a small area ratio between the second area and the first area. and wherein the beam splitter has at least two areas (310, 312) with different properties, with at least one first area with a high transmission of more than 90% and with at least a second area with a high reflectivity of greater than 90%, wherein the peripheral first area takes up most of the area of the beam splitter, and wherein the central second area presents a circular or an oval or an elliptical shape on the beam splitter,
A method for updating a password of an electronic device, comprising: in response to detecting a trigger condition of a password update, randomly generating (S201, S301), by an electronic device, a first password, wherein the trigger condition of the password update comprises that used duration of a current login password of the electronic device reaches preset duration; updating (S202, S302), by the electronic device, a login password of the electronic device to the first password; and sending, by the electronic device, a password updating message to a server, and enabling a user to query the first password from the server, wherein the password updating message is configured to indicate an identification of the electronic device and the first password. in response to detecting a trigger condition of a password update, randomly generating (S201, S301), by an electronic device, a first password, wherein the trigger condition of the password update comprises that used duration of a current login password of the electronic device reaches preset duration; updating (S202, S302), by the electronic device, a login password of the electronic device to the first password; and sending, by the electronic device, a password updating message to a server, and enabling a user to query the first password from the server, wherein the password updating message is configured to indicate an identification of the electronic device and the first password.
Liquid bread improver suitable for preparing bakery foods comprising, proteins, salt, enzymes, a bread improvement agent and water, wherein the salt is present in 5 to 20 wt.% of the liquid bread improver, wherein the liquid bread improver has a water activity of lower than 0.9.
Method for monitoring a calibration of a plurality of environment sensors relative to extrinsic calibration parameters, which environment sensors record sensor data from the environment of a motor vehicle and are installed in an installation position in the motor vehicle described by extrinsic calibration parameters, wherein for detecting a decalibration of at least one environment sensor, sensor data from different environment sensors describing the same feature of the environment in the same capacity are evaluated by at least one decalibration criterion comparing the sensor data, wherein by means of the decalibration criterion, position data of the feature contained in the sensor data are compared and by means of the decalibration criterion a check is performed to see whether the sensor data of all environment sensors detecting a feature are within a reference environment in the parameter range described by at least one expansion variable, which is dependent on measurement errors assigned to the respective sensor data.