mhurhangee/ep-ind-claims huggingface dataset:
An audio processing system comprising: a processor; a gain vector generation module executable by the processor to analyze an audio input signal configured to drive a plurality of loudspeakers in a listening space and estimate a plurality of respective perceptual locations within a listener perceived sound stage of each of a plurality of audio sources included in the audio input signal; the gain vector generation module further executable by the processor to generate a locational filter bank containing a plurality of locational filters based on the respective perceptual locations within the listener perceived sound stage wherein each locational filter includes one or more gain location vectors; and a vector processing module executable by the processor to apply the locational filter bank to the audio input signal to generate a plurality of sound source vectors, each of the gain location vectors corresponding to one of the respective perceptual locations; wherein the locational filters and the sound source vectors are repetitively generated at each of a plurality of points in time, the audio processing system further comprising a perceptual model and a source model executable with the processor, the source model executable to identify changes in amplitude or frequency of the audio input signal that exceed a predetermined rate of change, and the perceptual model executable to dynamically smooth the gain location vectors included in each of the locational filters based on the identified changes in amplitude or frequency that exceed the predetermined rate of change. a processor; a gain vector generation module executable by the processor to analyze an audio input signal configured to drive a plurality of loudspeakers in a listening space and estimate a plurality of respective perceptual locations within a listener perceived sound stage of each of a plurality of audio sources included in the audio input signal; the gain vector generation module further executable by the processor to generate a locational filter bank containing a plurality of locational filters based on the respective perceptual locations within the listener perceived sound stage wherein each locational filter includes one or more gain location vectors; and a vector processing module executable by the processor to apply the locational filter bank to the audio input signal to generate a plurality of sound source vectors, each of the gain location vectors corresponding to one of the respective perceptual locations; wherein the locational filters and the sound source vectors are repetitively generated at each of a plurality of points in time, the audio processing system further comprising a perceptual model and a source model executable with the processor, the source model executable to identify changes in amplitude or frequency of the audio input signal that exceed a predetermined rate of change, and the perceptual model executable to dynamically smooth the gain location vectors included in each of the locational filters based on the identified changes in amplitude or frequency that exceed the predetermined rate of change.
Method of paving a road surface by a road paver and a compactor, comprising paving a road surface by means of a paving screed of the road paver, defining a target rolling field by means of an electronic data processing system (17, 23, 31) on the basis of a temperature image generated by means of simulation calculation, determining a speed and a compression power of the compactor as well as a relative position of the compactor in relation to the target rolling field, as operating parameters of the compactor, generating a vibration of a main driving switch of the compactor, depending on the relative position of the compactor to the target rolling field, and depending on the determined speed and/or the determined compression power, wherein a vibration pattern varies depending on the type of operating parameter, relative position, speed and compression power. paving a road surface by means of a paving screed of the road paver, defining a target rolling field by means of an electronic data processing system (17, 23, 31) on the basis of a temperature image generated by means of simulation calculation, determining a speed and a compression power of the compactor as well as a relative position of the compactor in relation to the target rolling field, as operating parameters of the compactor, generating a vibration of a main driving switch of the compactor, depending on the relative position of the compactor to the target rolling field, and depending on the determined speed and/or the determined compression power, wherein a vibration pattern varies depending on the type of operating parameter, relative position, speed and compression power.
A terminal block cover for use in an integrated drive generator comprising: a body having a closed outer face and extending to an open inner face, parallel to the closed outer face, and having an open side and a closed side, parallel to each other and perpendicular to the open inner face and closed outer face, there being four connection channels for receiving electric connections for each of three phases of power and a neutral, and extending from said closed side to said open side, and characterized by there being spacing channels formed between adjacent ones of each of said four connection channels, with said spacing channels being each formed by two spaced ribs (112, 114) within an interior space; and further characterized in that outer sides of said ribs are spaced by a first distance, and there being a second distance between interior facing sides of said ribs, and a ratio of said first distance to said second distance being between 1.8 and 2.0, and wherein the width of said terminal block cover is defined between said open inner face and said closed outer face and a ratio of said width to said second distance being between 5.7 and 6.1, and wherein a ratio of said width to said first distance is between 3.0 and 3.2. a body having a closed outer face and extending to an open inner face, parallel to the closed outer face, and having an open side and a closed side, parallel to each other and perpendicular to the open inner face and closed outer face, there being four connection channels for receiving electric connections for each of three phases of power and a neutral, and extending from said closed side to said open side, and characterized by there being spacing channels formed between adjacent ones of each of said four connection channels, with said spacing channels being each formed by two spaced ribs (112, 114) within an interior space; and further characterized in that outer sides of said ribs are spaced by a first distance, and there being a second distance between interior facing sides of said ribs, and a ratio of said first distance to said second distance being between 1.8 and 2.0, and wherein the width of said terminal block cover is defined between said open inner face and said closed outer face and a ratio of said width to said second distance being between 5.7 and 6.1, and wherein a ratio of said width to said first distance is between 3.0 and 3.2.
Method implemented by an access point (AP 110) of a wireless communication network to which a plurality of terminals (T 111, 112, 113) is connected, the access point transmitting in the wireless communication network frames triggering coordinated random access procedure, each frame triggering coordinated random access procedure offering an opportunity for access to the medium of said wireless communication network to each terminal for which said frame is intended, each terminal that seizes said opportunity for access to the medium performing an OFDMA uplink transmission toward said access point in response to said frame, characterised in that the access point includes (303, 308), in each frame triggering coordinated random access procedure, information representing a method of selecting a frequency resource, chosen by said access point according to a predefined policy, among the following two: - a random selection method, according to which each terminal concerned is supposed to randomly select a frequency resource among a set of candidate frequency resources submitted (304, 308) by said access point in said frame triggering coordinated random access procedure; and - a free selection method, according to which each terminal concerned is supposed to freely select a frequency resource among a set of candidate frequency resources submitted (304, 308) by said access point in said frame triggering coordinated random access procedure. - a random selection method, according to which each terminal concerned is supposed to randomly select a frequency resource among a set of candidate frequency resources submitted (304, 308) by said access point in said frame triggering coordinated random access procedure; and - a free selection method, according to which each terminal concerned is supposed to freely select a frequency resource among a set of candidate frequency resources submitted (304, 308) by said access point in said frame triggering coordinated random access procedure.
A system for delivering fluid to a wound therapy dressing, the system comprising: a fluid reservoir an actuator configured to engage said fluid reservoir, the actuator adapted to expel fluid from the fluid reservoir, wherein the fluid reservoir is adapted to be in fluid communication with the wound therapy dressing; a pressure source configured to provide positive pressure to the actuator and negative pressure to the wound therapy dressing; and a fluid control device adapted to control fluid communication between the fluid reservoir and the wound therapy dressing. a fluid reservoir an actuator configured to engage said fluid reservoir, the actuator adapted to expel fluid from the fluid reservoir, wherein the fluid reservoir is adapted to be in fluid communication with the wound therapy dressing; a pressure source configured to provide positive pressure to the actuator and negative pressure to the wound therapy dressing; and a fluid control device adapted to control fluid communication between the fluid reservoir and the wound therapy dressing.
A manufacturing apparatus of a spiral duct including an elbow, comprising: a wave bending unit that is adapted to upwardly bend projecting wave portions of metal plate members supplied in a state where the metal plate members are cut in such a manner that a straight line and waves are formed; a transfer unit that is adapted to transfer the metal plate members having the bent wave portions; and a forming and cutting unit that is adapted to form the metal plate members transferred from the transfer unit into a cylindrical spiral shape, to press the metal plate members to form an elbow, and then to cut the metal plate members. a wave bending unit that is adapted to upwardly bend projecting wave portions of metal plate members supplied in a state where the metal plate members are cut in such a manner that a straight line and waves are formed; a transfer unit that is adapted to transfer the metal plate members having the bent wave portions; and a forming and cutting unit that is adapted to form the metal plate members transferred from the transfer unit into a cylindrical spiral shape, to press the metal plate members to form an elbow, and then to cut the metal plate members.
Die cutter blanket for counter-die of rotary die cutting machine, comprising a cover having two ends that wraps the counter-die forming a cylindrical sleeve around said counter-die with both ends joined together, said cover comprising at each end a plurality of fingers engageable with the fingers of the other end, which provides a jig-saw joint of both ends, the cover comprising in turn a key insertable into a slot of the counter-die for the fixing thereof around the counter-die, the cutter blanket further comprising at least a stabilizing inner bar inserted inside the key axially along its entire length, the inner bar having higher hardness than the cover, for increasing dimensional stability of said cover, wherein both the inner bar and the key are divided in several parts by said jig-saw joint, said die cutter blanket characterized in that the dimensions of the section of the inner bar fits in use the geometry of the slot and said inner bar is peripherally coated by the cover.
A screw comprising a head and a shank extending from said head according to a pre-set longitudinal axis, wherein said shank comprises at least two axial portions, of which a first portion, proximal to the head, which has an outer thread adapted to make it self-threading or self-tapping, and a second portion, distal to the head, which has smooth outer surface, constant cross-section and diameter between the outer diameter (D1') and the inner diameter (D1 ") of the first portion. a first portion, proximal to the head, which has an outer thread adapted to make it self-threading or self-tapping, and a second portion, distal to the head, which has smooth outer surface, constant cross-section and diameter between the outer diameter (D1') and the inner diameter (D1 ") of the first portion.
A method for estimating a greenhouse gas emission from a ruminant in a loose housing environment, and in a predetermined time period from T0 to Tdesired, characterized in that the method comprises: - determining a model emission rate function EM(t) for the ruminant - determining the moments of eating feed by the ruminant, at least during the predetermined time period, as a series of points in time {T1, T2, T3,..., Tn} - constructing the estimated real emission rate function ER(t) on the basis of the model emission rate function and the moments of eating feed, and - integrating ER(t) from T0 to Tdesired. - determining a model emission rate function EM(t) for the ruminant - determining the moments of eating feed by the ruminant, at least during the predetermined time period, as a series of points in time {T1, T2, T3,..., Tn} - constructing the estimated real emission rate function ER(t) on the basis of the model emission rate function and the moments of eating feed, and - integrating ER(t) from T0 to Tdesired.
A gas turbine engine comprising: a vane outer support comprising an orifice plate, wherein the orifice plate comprises a plurality of sets of multiple orifices; and a blade outer air seal defining a plurality of plenums; wherein each set of multiple orifices of the plurality of sets of multiple orifices is forward relative to and substantially axially aligned with a respective plenum of the plurality of plenums, wherein the orifice plate extends substantially radially, characterised in that a radial dimension of the orifice plate is comparatively less than a diameter of a single orifice having a cross-sectional area that equals a cumulative cross-sectional area of a set of multiple orifices of the plurality of sets of multiple orifices. a vane outer support comprising an orifice plate, wherein the orifice plate comprises a plurality of sets of multiple orifices; and a blade outer air seal defining a plurality of plenums; wherein each set of multiple orifices of the plurality of sets of multiple orifices is forward relative to and substantially axially aligned with a respective plenum of the plurality of plenums, wherein the orifice plate extends substantially radially, characterised in that a radial dimension of the orifice plate is comparatively less than a diameter of a single orifice having a cross-sectional area that equals a cumulative cross-sectional area of a set of multiple orifices of the plurality of sets of multiple orifices.
A control device for controlling a stepping motor, comprising: a driver supplying to the stepping motor drive signals for driving said stepping motor; a dynamic model creator calculating a rotation speed of said stepping motor based on a prediction by a dynamic model of a mechanical system including said stepping motor, the dynamic model being created from a history of usage of the control device or the stepping motor; an arithmetic operator computing a boosted voltage of said drive signals based on the rotation speed of said stepping motor that is calculated by said dynamic model creator (219; and a booster boosting said drive signals based on the boosted voltage computed by said arithmetic operator. a driver supplying to the stepping motor drive signals for driving said stepping motor; a dynamic model creator calculating a rotation speed of said stepping motor based on a prediction by a dynamic model of a mechanical system including said stepping motor, the dynamic model being created from a history of usage of the control device or the stepping motor; an arithmetic operator computing a boosted voltage of said drive signals based on the rotation speed of said stepping motor that is calculated by said dynamic model creator (219; and a booster boosting said drive signals based on the boosted voltage computed by said arithmetic operator.
A method for diagnosing a pancreatitis or pancreatic ductal adenocarcinoma (PDAC) in a patient comprising measuring an expression profile of a miRNA in a pancreatic sample obtained from the patient, wherein a decrease in the expression profile in the sample from the patient as compared to a reference expression profile of a normal sample is indicative of a pancreatitis or pancreatic ductal adenocarcinoma (PDAC); wherein the miRNA is hsa-miR-130b.
A method of manufacturing an absorbent article in which an absorbent body is provided between a liquid permeable topsheet and a backsheet, an absorbent body concave portion, which is a concave groove or a slit, being formed at a skin-contacting side including a body fluid expelling area along a longitudinal direction of the absorbent body without using compression, and an embossed portion being formed in the absorbent body concave portion along the absorbent body concave portion by embossing from a top surface side of the liquid permeable topsheet, the method comprising: a first step of forming the absorbent body provided with the absorbent body concave portion, without using compression, by fiber stacking or stacking an upper layer absorbent body having an opening at a location corresponding to the absorbent body concave portion on a lower layer absorbent body formed as thick as the bottom part of the absorbent body concave portion; a second step of forming core embosses at least on both sides of the absorbent body concave portion by compressing the absorbent body only from the skin-contacting side of the absorbent body so that side walls of the absorbent body concave portion are inclined outward by being pulled by the core embosses and the opening of the absorbent body concave portion is enlarged; and a third step of stacking the liquid permeable topsheet on a top surface side of the absorbent body and forming the embossed portion. a first step of forming the absorbent body provided with the absorbent body concave portion, without using compression, by fiber stacking or stacking an upper layer absorbent body having an opening at a location corresponding to the absorbent body concave portion on a lower layer absorbent body formed as thick as the bottom part of the absorbent body concave portion; a second step of forming core embosses at least on both sides of the absorbent body concave portion by compressing the absorbent body only from the skin-contacting side of the absorbent body so that side walls of the absorbent body concave portion are inclined outward by being pulled by the core embosses and the opening of the absorbent body concave portion is enlarged; and a third step of stacking the liquid permeable topsheet on a top surface side of the absorbent body and forming the embossed portion.
Cylinder-piston system for use in an injection syringe, comprising a. a cylinder, wherein at least an inner section of the inner surface of the cylinder is formed from a first polymer material, b. a piston, comprising at least one sealing section on the outer surface of the piston, which is formed from a second polymer material, wherein c. the cylinder and the piston are positioned or positionable in such a way that during a sliding movement of the piston with respect to the cylinder the inner section of the cylinder and the sealing section of the piston slide on each other, wherein one of said polymer materials, particularly the first polymer material, comprises Polyethyleneterephthalate as a polar polymer material, particularly is selected from Polyethyleneterephthalate, and the other polymer material, particularly the second polymer material, comprises a thermoplastic elastomer as a nonpolar polymer material, particularly is selected from a thermoplastic elastomer, characterized in that the first polymer material comprises a super-amorphous structure with a degree of crystallisation of less than 3 %. a. a cylinder, wherein at least an inner section of the inner surface of the cylinder is formed from a first polymer material, b. a piston, comprising at least one sealing section on the outer surface of the piston, which is formed from a second polymer material, wherein c. the cylinder and the piston are positioned or positionable in such a way that during a sliding movement of the piston with respect to the cylinder the inner section of the cylinder and the sealing section of the piston slide on each other,
Network, comprising: a power over data link, PoD; a data switch coupled to a data bus and configured to transmit and/or receive data from and/or to the data bus via the PoD link; and a service device coupled to the data switch via the PoD link and configured to transmit and/or receive data from and/or to the data switch via the PoD link, characterized in that the service device comprises: a power splitter configured to split the data signal of the power over data link (PoD) from the power supply; a plurality of service functions (8a; 8b;...;8i) coupled to the power splitter and configured to receive power from the power splitter; and a voltage comparator coupled to the power splitter, configured to detect a voltage level of the power supply and configured to selectively activate and/or deactivate one or more of the plurality of service functions (8a; 8b;...;8i) based on the detected voltage level. a power over data link, PoD; a data switch coupled to a data bus and configured to transmit and/or receive data from and/or to the data bus via the PoD link; and a service device coupled to the data switch via the PoD link and configured to transmit and/or receive data from and/or to the data switch via the PoD link, characterized in that the service device comprises: a power splitter configured to split the data signal of the power over data link (PoD) from the power supply; a plurality of service functions (8a; 8b;...;8i) coupled to the power splitter and configured to receive power from the power splitter; and a voltage comparator coupled to the power splitter, configured to detect a voltage level of the power supply and configured to selectively activate and/or deactivate one or more of the plurality of service functions (8a; 8b;...;8i) based on the detected voltage level. a power splitter configured to split the data signal of the power over data link (PoD) from the power supply; a plurality of service functions (8a; 8b;...;8i) coupled to the power splitter and configured to receive power from the power splitter; and a voltage comparator coupled to the power splitter, configured to detect a voltage level of the power supply and configured to selectively activate and/or deactivate one or more of the plurality of service functions (8a; 8b;...;8i) based on the detected voltage level.