mhurhangee/patent-ind-claim-en huggingface dataset:
A method for collecting particles likely to be present in an aerosol, comprising the following steps: - sucking the aerosol through a conduit from its inlet orifice to its outlet orifice ; - charging the finest particles, downstream of the inlet orifice, by unipolar ion diffusion in a space between an electrode in the form of a gate surrounding an electrode in the form of a wire generating a corona effect, and a first conductive portion of the internal wall of the conduit; - generating an electric field without a corona effect in the space between an electrode and a second conductive portion of the internal wall of the conduit, in order to collect the finest particles charged by the diffusion charger by deposition onto a first collection zone (Zn); - generating an electric field with a corona effect in the space between the wire or the point of an electrode and a third conductive portion of the internal wall of the conduit, in order to collect the biggest particles not charged by the diffusion charger by deposition onto a second collection zone (Zm) distinct from the first collection zone. - sucking the aerosol through a conduit from its inlet orifice to its outlet orifice ; - charging the finest particles, downstream of the inlet orifice, by unipolar ion diffusion in a space between an electrode in the form of a gate surrounding an electrode in the form of a wire generating a corona effect, and a first conductive portion of the internal wall of the conduit; - generating an electric field without a corona effect in the space between an electrode and a second conductive portion of the internal wall of the conduit, in order to collect the finest particles charged by the diffusion charger by deposition onto a first collection zone (Zn); - generating an electric field with a corona effect in the space between the wire or the point of an electrode and a third conductive portion of the internal wall of the conduit, in order to collect the biggest particles not charged by the diffusion charger by deposition onto a second collection zone (Zm) distinct from the first collection zone.
Housing for a connector that can be plugged into a counter connector along a connection direction (C) or for a counter connector into which a connector can be plugged along a connection direction (C), wherein the housing has a first pair of outer faces , the outer faces of the first pair being complementary to each other and lying opposite each other in a first stacking direction (P1, P4) that is perpendicular to the connection direction (C), and wherein the housing has a second pair of outer faces , the outer faces of the second pair being complementary to each other and lying opposite each other in a second stacking direction (P2, P5) that is perpendicular to the connection direction (C), wherein the first stacking direction (P1, P4) differs from the second stacking direction (P2, P5), wherein the housing has at least one pressing face that has a surface normal (N1, N2) that is inclined to the connection direction (C) and is accessible from outside, characterized in that the housing has a first pressing face that is accessible from outside and a second pressing face that is accessible from outside, wherein the second pressing face is adapted for cooperating with the first pressing face of a neighboring, identically embodied housing in the assembled state and at least one of the first pressing face and the second pressing face has a surface normal (N1, N2) that is inclined to the connection direction (C).
System for interconnecting oil-lubricated kinematic modules of an industrial robot, mainly those transmission or bearing modules of an industrial robot where each kinematic module comprises an oil-filled box intended for lubricating or cooling the moving parts of the kinematic module , whereas the kinematic modules are located in different axes of the industrial robot, characterized by the fact that the oil content of at least two kinematic modules is connected by an oil line so as to form a closed oil circuit between interconnected kinematic modules , that the system comprises an oil pump and that the system includes a filtration device . the oil content of at least two kinematic modules is connected by an oil line so as to form a closed oil circuit between interconnected kinematic modules , that the system comprises an oil pump and that the system includes a filtration device .
A mobile support system comprising: a medical device having an arm with a base , the base comprising a rail detect lever configured to be actuated when contact is made between the rail detect lever and a surface; a body comprising a housing and a carriage positioned within the housing ; a support arm coupled to the carriage and extending vertically upward from the housing , the support arm configured to support the arm of the medical device ; and a mounting block coupled to the carriage proximate to the support arm , the mounting block configured to couple with the base of the arm of the medical device . a medical device having an arm with a base , the base comprising a rail detect lever configured to be actuated when contact is made between the rail detect lever and a surface; a body comprising a housing and a carriage positioned within the housing ; a support arm coupled to the carriage and extending vertically upward from the housing , the support arm configured to support the arm of the medical device ; and a mounting block coupled to the carriage proximate to the support arm , the mounting block configured to couple with the base of the arm of the medical device .
A bone void filler material for sustained release of a therapeutic agent, the bone void filler material comprising a biodegradable matrix being a porous sponge and having ceramic particles and cement beads disposed within the matrix and being biodegradable, the cement beads loaded with the therapeutic agent to cause sustained release of the therapeutic agent.
A packed roof window, where the roof window is contained in a cardboard box , where packaging components are arranged inside the cardboard box , and where the packaging components are used for protecting and retaining components of the roof window, wherein the roof window comprises a ventilation passage and a ventilation flap , said ventilation passage extending from an interior side of the roof window to an exterior side of the roof window , said ventilation flap being provided on the interior side of the roof window and being moveable between a first position, where the ventilation passage is open, and a second position, where it covers the ventilation passage , characterised in that all packaging components are made from paper-based materials, which consist of a least 95% paper by weight, and in that one or more retainers made from folded cardboard include a ventilation flap retainer provided on or at the ventilation flap to prevent it from unintentional movement.
Method for measuring alternating-current system quantities through measurement channels producing frequency-dependent errors, the method comprising steps of a) producing an analog signal through each channel (IL1-3, 101, 102), depicting a selected current/voltage quantity (22, 24.1-4), and b) sampling at least one analog signal (24.5) at a frequency f s being a multiple of an approximately measured frequency f m , creating a base series depicting a period on the corresponding measurement channel (IL1, IL2, IL3, 101, 102), c) calculating from each base series obtained, values of a base frequency and a magnitude and/or a phase-angle, of at least one harmonic frequency component with the aid of a selected frequency analysis , d) correcting each calculated magnitude and/or phase-angle value with the aid of a calibrated frequency-dependent function k(fn) giving a frequency dependent correction value for each calculated value, in order to eliminate the said error of each measurement channel and obtaining calibrated magnitude and/or phase-angle values, e) calculating the selected quantities, from the calibrated magnitude and/or phase-angle values, characterized in that momentary frequency-dependent correction values are produced with a correction function for the calculation when the approximately measured frequency f m changes by more than a selected criterion. a) producing an analog signal through each channel (IL1-3, 101, 102), depicting a selected current/voltage quantity (22, 24.1-4), and b) sampling at least one analog signal (24.5) at a frequency f s being a multiple of an approximately measured frequency f m , creating a base series depicting a period on the corresponding measurement channel (IL1, IL2, IL3, 101, 102), c) calculating from each base series obtained, values of a base frequency and a magnitude and/or a phase-angle, of at least one harmonic frequency component with the aid of a selected frequency analysis , d) correcting each calculated magnitude and/or phase-angle value with the aid of a calibrated frequency-dependent function k(fn) giving a frequency dependent correction value for each calculated value, in order to eliminate the said error of each measurement channel and obtaining calibrated magnitude and/or phase-angle values, e) calculating the selected quantities, from the calibrated magnitude and/or phase-angle values,
Focussing module (M) for a form filter (F) for adjusting a spatial intensity distribution of an x-ray beam , having - a frame (R) with a continuous opening (H), - an arrangement of groove pairs (NP), which are arranged on the frame (R), - a first guide rail (RN1) and a second guide rail (RN2), wherein a focal point (T), faced by the continuous opening (H), can be defined in relation to the arrangement of groove pairs (NP), - wherein the groove pairs (NP) are arranged adjacent to one another along the continuous opening (H) so that they are located in different planes (E) which have the focal point (T) in each case, - wherein the groove pairs (NP) each have a first groove (N1) and a second groove (N2) opposing the first groove (N1) in respect of the continuous opening (H), wherein the first groove (N1) and the second groove (N2) are embodied so that a fin plate (L) on two mutually opposing edges of the fin plate (L) can be received in the first groove (N1) and the second groove (N2) and can be introduced into the continuous opening (H) along the first groove (N1) and the second groove (N2), - wherein the respective first grooves (N1) of the groove pairs (NP) are embodied in the first guide rail (RN1), - wherein the respective second grooves (N2) of the groove pairs (NP) are embodied in the second guide rail (RN2), characterised in that the first guide rail (RN1) and/or the second guide rail (RN2) are produced from a crystalline semiconductor material. - a frame (R) with a continuous opening (H), - an arrangement of groove pairs (NP), which are arranged on the frame (R), - a first guide rail (RN1) and a second guide rail (RN2), wherein a focal point (T), faced by the continuous opening (H), can be defined in relation to the arrangement of groove pairs (NP), - wherein the groove pairs (NP) are arranged adjacent to one another along the continuous opening (H) so that they are located in different planes (E) which have the focal point (T) in each case, - wherein the groove pairs (NP) each have a first groove (N1) and a second groove (N2) opposing the first groove (N1) in respect of the continuous opening (H), wherein the first groove (N1) and the second groove (N2) are embodied so that a fin plate (L) on two mutually opposing edges of the fin plate (L) can be received in the first groove (N1) and the second groove (N2) and can be introduced into the continuous opening (H) along the first groove (N1) and the second groove (N2), - wherein the respective first grooves (N1) of the groove pairs (NP) are embodied in the first guide rail (RN1), - wherein the respective second grooves (N2) of the groove pairs (NP) are embodied in the second guide rail (RN2), characterised in that
Method for adjusting the acoustic comfort of an apparatus , in particular an apparatus for heating, ventilating and/or air-conditioning a motor-vehicle , method characterized in that - a loudness SZp and a degree of interference SInt of the background noise of the sound level of a passenger compartment in which the apparatus is at least partially arranged are determined, said loudness SZp being dependent on an acoustic pressure of said apparatus and said degree of interference SInt of the background noise of the sound level of a passenger compartment corresponding to the measurement of how difficult it is to perceive a sound in a background noise, and - an acoustic preference factor Pfa is determined depending on the loudness SZp and on the degree of interference SInt of the background noise of the passenger compartment and in that the acoustic preference factor Pfa is a linear function of the loudness SZp and of the degree of interference SInt of the background noise of the sound level of the passenger compartment and in that the acoustic preference factor Pfa, the loudness SZp and the degree of interference SInt of the background noise are related by coefficients Aa, Ba and Ca, according to the relationship: Pfa = Aa × SZp + Ba × SInt + Ca , Aa, Ba and Ca being acoustic coefficients comprised between -20 and +20 and in that , depending on the acoustic preference factor Pfa, means for controlling specific components of the apparatus are controlled in order to achieve the desired acoustic comfort. - a loudness SZp and a degree of interference SInt of the background noise of the sound level of a passenger compartment in which the apparatus is at least partially arranged are determined, said loudness SZp being dependent on an acoustic pressure of said apparatus and said degree of interference SInt of the background noise of the sound level of a passenger compartment corresponding to the measurement of how difficult it is to perceive a sound in a background noise, and - an acoustic preference factor Pfa is determined depending on the loudness SZp and on the degree of interference SInt of the background noise of the passenger compartment Aa, Ba and Ca being acoustic coefficients comprised between -20 and +20 and in that , depending on the acoustic preference factor Pfa, means for controlling specific components of the apparatus are controlled in order to achieve the desired acoustic comfort.
Method of treating scatterable material by means of pressure and heat with a device comprising a) at least one hopper for storing the scatterable material , b) a scattering device for the dosed dispensing of the scatterable material from the hopper, c) a conveyor belt , onto which the scatterable material can be scattered and d) a device for exposing the scatterable material supplied via the conveyor belt in a conveying direction with pressure and heat, wherein the hopper comprises several chambers (20.1, 20.2, 20.3) which are perpendicular to the conveying direction, characterised in that - before treatment, at least two chambers (20.1, 20.2, 20.3) are at least partially filled with scatterable materials that differ in terms of their physical or chemical properties, - the scatterable materials are then scattered onto at least one conveyor belt by way of at least scattering device (13, 13.1, 13.2, 13.3) to form at least one scattered material mat , - and finally, in a device for exposing the supplied scatterable material to pressure and heat , the scattered material mat is dewatered and formed into an end product . a) at least one hopper for storing the scatterable material , b) a scattering device for the dosed dispensing of the scatterable material from the hopper, c) a conveyor belt , onto which the scatterable material can be scattered and d) a device for exposing the scatterable material supplied via the conveyor belt in a conveying direction with pressure and heat, - before treatment, at least two chambers (20.1, 20.2, 20.3) are at least partially filled with scatterable materials that differ in terms of their physical or chemical properties, - the scatterable materials are then scattered onto at least one conveyor belt by way of at least scattering device (13, 13.1, 13.2, 13.3) to form at least one scattered material mat , - and finally, in a device for exposing the supplied scatterable material to pressure and heat , the scattered material mat is dewatered and formed into an end product .
An inkjet head, comprising: a pressure chamber for storing ink; a nozzle communicating with the pressure chamber; an actuator configured to eject the ink through the nozzle by changing a volume of the pressure chamber; and an actuator drive circuit configured to output to the actuator a drive signal that has a drive waveform having a predetermined cycle based on a number of gradation levels being used for printing, wherein, when printing is performed using three or more gradation levels, the drive circuit outputs the drive signal having a multi-drop drive waveform including: two or more first waveforms for ejecting first to (n-1)-th droplets of the ink, where n is equal to or greater than 3, a second waveform for ejecting an n-th droplet of the ink, characterised in an intermediate time (Tm) between the first waveform for ejecting the (n-1)-th droplet and the second waveform for ejecting the n-th droplet, the intermediate time being longer than a time between two of the first waveforms that are adjacent to each other and being equal to or greater than an acoustic length of the ink in the inkjet head multiplied by four. a pressure chamber for storing ink; a nozzle communicating with the pressure chamber; an actuator configured to eject the ink through the nozzle by changing a volume of the pressure chamber; and an actuator drive circuit configured to output to the actuator a drive signal that has a drive waveform having a predetermined cycle based on a number of gradation levels being used for printing, wherein, when printing is performed using three or more gradation levels, the drive circuit outputs the drive signal having a multi-drop drive waveform including: two or more first waveforms for ejecting first to (n-1)-th droplets of the ink, where n is equal to or greater than 3, a second waveform for ejecting an n-th droplet of the ink, characterised in an intermediate time (Tm) between the first waveform for ejecting the (n-1)-th droplet and the second waveform for ejecting the n-th droplet, the intermediate time being longer than a time between two of the first waveforms that are adjacent to each other and being equal to or greater than an acoustic length of the ink in the inkjet head multiplied by four. two or more first waveforms for ejecting first to (n-1)-th droplets of the ink, where n is equal to or greater than 3, a second waveform for ejecting an n-th droplet of the ink, characterised in an intermediate time (Tm) between the first waveform for ejecting the (n-1)-th droplet and the second waveform for ejecting the n-th droplet, the intermediate time being longer than a time between two of the first waveforms that are adjacent to each other and being equal to or greater than an acoustic length of the ink in the inkjet head multiplied by four.
A magnetic resonance imaging apparatus comprising: sequence controlling circuitry configured, while a k-space is divided into a plurality of segments, to execute a pulse sequence by which a tag pulse is applied and subsequently acquisition is performed; and processing circuitry configured to generate only one image based on the pulse sequence executed by the sequence controlling circuitry , wherein the pulse sequence is a pulse sequence by which the acquisition is repeatedly performed at a center of the k-space, and the sequence controlling circuitry is configured to execute the pulse sequence, while changing a range to which the tag pulse is applied, for each of the plurality of segments and the processing circuitry is configured to generate the one image based on the pulse sequence, the one image being generated from all k-space segments after applying the tag pulse while changing the range to which the tag pulse is applied for each of the plurality of segments. sequence controlling circuitry configured, while a k-space is divided into a plurality of segments, to execute a pulse sequence by which a tag pulse is applied and subsequently acquisition is performed; and processing circuitry configured to generate only one image based on the pulse sequence executed by the sequence controlling circuitry , wherein the pulse sequence is a pulse sequence by which the acquisition is repeatedly performed at a center of the k-space, and the sequence controlling circuitry is configured to execute the pulse sequence, while changing a range to which the tag pulse is applied, for each of the plurality of segments and the processing circuitry is configured to generate the one image based on the pulse sequence, the one image being generated from all k-space segments after applying the tag pulse while changing the range to which the tag pulse is applied for each of the plurality of segments.
A UE-to-Network Relay, UTNR, node that is configured to connect to a radio access network, the UTNR node comprising: a receiver unit configured to receive, from a remote user equipment, UE, over a non-Uu radio interface: a request message including request message content comprising either category information of the remote UE or, identification of type(s) of system information suitable for the remote UE ; a processor unit configured to generate a response message; and a transmitter unit configured to transmit the response message to the remote UE over the non-Uu radio interface, wherein in a case that the request message content comprising the category information of the remote UE is received, the processor unit is configured to generate the response message including system information suitable for the remote UE , wherein the system information is determined based on a predetermined relation with the category information, and in a case that the request message content comprising the identification of the type(s) of the system information suitable for the remote UE is received, the processor unit is configured to generate the response message including system information suitable for the remote UE and corresponding to the identification of the type(s) of the system information suitable for the remote UE . a receiver unit configured to receive, from a remote user equipment, UE, over a non-Uu radio interface: a request message including request message content comprising either category information of the remote UE or, identification of type(s) of system information suitable for the remote UE ; a processor unit configured to generate a response message; and a transmitter unit configured to transmit the response message to the remote UE over the non-Uu radio interface, wherein in a case that the request message content comprising the category information of the remote UE is received, the processor unit is configured to generate the response message including system information suitable for the remote UE , wherein the system information is determined based on a predetermined relation with the category information, and in a case that the request message content comprising the identification of the type(s) of the system information suitable for the remote UE is received, the processor unit is configured to generate the response message including system information suitable for the remote UE and corresponding to the identification of the type(s) of the system information suitable for the remote UE .