mhurhangee/ep-ind-claims huggingface dataset:
A vibration damping system for a torque transmission device, including a rotating disc, this damping system including a flyweight having a primary end and a secondary end, this flyweight being mounted so as to movable with respect to the disc, the damping system also includes a brake having a friction surface intended to be in frictional contact with a rubbing surface integral with the disc, the brake being mounted so as to be movable with respect to the disc between the primary end and the secondary end, the brake having a primary stop surface facing the primary end, and a secondary stop surface facing the secondary end, the brake being mounted so as to be movable in two opposite directions, namely: - a primary direction under the action of the primary end coming in contact with the primary stop surface; - a secondary direction under the action of the secondary end coming in contact with the secondary stop surface, the damping system being characterized in that the brake includes an internal cylindrical surface and an external cylindrical surface connecting the friction surface and a lower surface opposite the friction surface and facing the disc, the external cylindrical surface being arranged facing an internal wall of an edge projecting form the disc, and the internal cylindrical surface being arranged facing a support face of a boss projecting from the disc. - a primary direction under the action of the primary end coming in contact with the primary stop surface; - a secondary direction under the action of the secondary end coming in contact with the secondary stop surface,
A terminal in communication with a base station, the terminal comprising: a control section configured to control formation of a beam for use in transmitting an uplink signal; characterized by further comprising a transmission section configured to transmit information about a characteristic of a terminal transmitter/receiver related to frequency representing the degree of difference between the frequency characteristics of the transmitter and the receiver, wherein, the control section is further configured to determine, from information received from the base station based on the information about the characteristic of the terminal transmitter/receiver related to frequency, whether the beam is to be formed based on downlink channel information or the beam is to be formed based on uplink channel information corresponding to an uplink Sounding Reference Signal, SRS. a control section configured to control formation of a beam for use in transmitting an uplink signal; characterized by further comprising a transmission section configured to transmit information about a characteristic of a terminal transmitter/receiver related to frequency representing the degree of difference between the frequency characteristics of the transmitter and the receiver, wherein, the control section is further configured to determine, from information received from the base station based on the information about the characteristic of the terminal transmitter/receiver related to frequency, whether the beam is to be formed based on downlink channel information or the beam is to be formed based on uplink channel information corresponding to an uplink Sounding Reference Signal, SRS.
A sampling mechanism for inserting a tubular perforating body into a plug body of a sampled container accommodating a sample and performing sample sampling by passing a probe through the perforating body with the plug body penetrated, the sampling mechanism comprising the perforating body, wherein the perforating body has: a first perforating body inserted into the plug body and penetrating the plug body with a tip closed; and a second perforating body formed in a tubular shape, disposed outside the first perforating body, inside of which the first perforating body is slidably mounted with extremely slight gap, and approaching the plug body together with the first perforating body by causing the first perforating body to protrude downward, reaching the plug body after the first perforating body reaches the plug body, and penetrating the plug body by being inserted into the plug body, and the probe is passed through the second perforating body remaining after retraction of the first perforating body. a first perforating body inserted into the plug body and penetrating the plug body with a tip closed; and a second perforating body formed in a tubular shape, disposed outside the first perforating body, inside of which the first perforating body is slidably mounted with extremely slight gap, and approaching the plug body together with the first perforating body by causing the first perforating body to protrude downward, reaching the plug body after the first perforating body reaches the plug body, and penetrating the plug body by being inserted into the plug body, and the probe is passed through the second perforating body remaining after retraction of the first perforating body.
Method for producing output image data for a virtual output image ( I 0 (s,t)) from input image data of individual input images (I 1 (s,t), I 2 (s,t), I K (s,t), I N (s,t)) provided by an array of image capturing devices (C 1, C 2, C K, C N) for capturing a number of individual images from different viewpoints, the method comprising adding and inverse filtering of corresponding pixel values of the individual input images based on multiple depth layers in a scene, a virtual camera position (u 0,v 0) being provided by an input virtual camera position signal (C 0) representing the virtual camera position (u 0, v 0), and the adding and inverse filtering is performed in dependence of the virtual camera position (u 0, v 0) to produce the image data for the virtual output image ( I 0 (s,t)) as seen from the virtual camera position (u 0,v 0), characterized in that the array of image capturing devices is an array of cameras (C 1, C 2, C K, C N) around a display screen, and the virtual camera position is a point at the display screen, wherein the virtual camera position is determined by measuring the position of eyes of a person (B, C) displayed on the display screen.
Scoring or cutting balloon catheter carrying at least on a portion of its surface polymer-free: at least one drug or polymer-free drug preparation, wherein the drug or drug preparation is stable against oxidative decomposition and is selected of taxanes, thalidomide, statins, corticoids and lipophilic derivatives of corticoids, or at least one Limus drug or Limus drug preparation, and at least one lipophilic antioxidant at a ratio of 3-100% by weight of the at least one lipophilic antioxidant in relation to 100% by weight of the drug, wherein the at least one lipophilic antioxidant is selected of nordihydroguaiaretic acid, resveratrol and propyl gallate and wherein a combination of Limus drugs or Limus drug preparations with propyl gallate as the lipophilic antioxidant is excluded. at least one drug or polymer-free drug preparation, wherein the drug or drug preparation is stable against oxidative decomposition and is selected of taxanes, thalidomide, statins, corticoids and lipophilic derivatives of corticoids, or at least one Limus drug or Limus drug preparation, and at least one lipophilic antioxidant at a ratio of 3-100% by weight of the at least one lipophilic antioxidant in relation to 100% by weight of the drug, wherein the at least one lipophilic antioxidant is selected of nordihydroguaiaretic acid, resveratrol and propyl gallate and wherein a combination of Limus drugs or Limus drug preparations with propyl gallate as the lipophilic antioxidant is excluded.
A device for calibrated cone beam computed tomography (CBCT) scanning comprising a gantry, said gantry defining a generally cylindrical opening configured for receiving the patient for examination, said gantry also having a wall configured for housing components of the device; an X-ray source configured to emit X-rays that penetrate the patient; a detector positioned opposite said X-ray source, such that said detector receives the X-rays emitted from the X-ray source, wherein the detector defines a nominal X-ray field of view for the device such that any item in the field of view is imaged by the device; and calibration phantoms at least one of which is attached to or contained within said wall of said gantry, said calibration phantoms positioned such that the calibration phantoms are imaged by the device.
A method for manufacturing watermarked paper, comprising: - a step of forming a first fibrous panel which comprises at least one watermark element; - a step of forming a second, thin fibrous panel; - a step of removal, by way of suction, of at least one portion of said second, thin fibrous panel in order to produce a localized reduction in thickness at a first face of said second, thin fibrous panel, so as to provide at least one accommodation seat intended to accommodate a security element, said step being performed before the second, thin fibrous panel is coupled to a ribbon -like element; - a step of coupling between said first fibrous panel and the face of said second, thin fibrous panel which lies opposite said first face. - a step of forming a first fibrous panel which comprises at least one watermark element; - a step of forming a second, thin fibrous panel; - a step of removal, by way of suction, of at least one portion of said second, thin fibrous panel in order to produce a localized reduction in thickness at a first face of said second, thin fibrous panel, so as to provide at least one accommodation seat intended to accommodate a security element, said step being performed before the second, thin fibrous panel is coupled to a ribbon -like element; - a step of coupling between said first fibrous panel and the face of said second, thin fibrous panel which lies opposite said first face.
A recombinant DNA molecule comprising a sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO: 10.
An endless multilayer pipeline which includes at least: - an inner fluid-tight ply which is formed of a first thermoplastic polymer material; - an inner fibre-reinforced thermoplastic polymer ply which includes a wrapped fibre-reinforcement and which surrounds the inner fluid-tight ply; - a first intermediate ply which is formed of a second thermoplastic polymer material; - an outer fibre-reinforced thermoplastic polymer ply which includes a wrapped fibre reinforcement, wherein at least one of the inner fibre-reinforced thermoplastic polymer ply and the outer fibre-reinforced thermoplastic polymer ply includes at least one fibre-containing layer (14a-b, 14d-e; 12a-b, 12d-e) and one reinforcement-free layer (14c, 14f; 12c, 12f), wherein the wrapped fibre reinforcement includes at least one fibre tape, and the first intermediate ply is provided with at least one channel oriented axially. - an inner fluid-tight ply which is formed of a first thermoplastic polymer material; - an inner fibre-reinforced thermoplastic polymer ply which includes a wrapped fibre-reinforcement and which surrounds the inner fluid-tight ply; - a first intermediate ply which is formed of a second thermoplastic polymer material; - an outer fibre-reinforced thermoplastic polymer ply which includes a wrapped fibre reinforcement, wherein at least one of the inner fibre-reinforced thermoplastic polymer ply and the outer fibre-reinforced thermoplastic polymer ply includes at least one fibre-containing layer (14a-b, 14d-e; 12a-b, 12d-e) and one reinforcement-free layer (14c, 14f; 12c, 12f), wherein the wrapped fibre reinforcement includes at least one fibre tape, and the first intermediate ply is provided with at least one channel oriented axially.
A power module comprising: a first high-side switching element and a second low-side switching element that are connected in a half-bridge configuration; an integrated circuit (HVIC) including a high-side circuit that is adapted to drive the first switching element and a low-side circuit that is adapted to drive the second switching element; a high-side programmable circuit that is able to implement a desired first logic function or parameter to be used by the high-side circuit; and a low-side programmable circuit that is able to implement a desired second logic function or parameter to be used by the low-side circuit, wherein the integrated circuit (HVIC) includes a write port that is adapted to receive data of one system for a program control signal to be written to the high-side programmable circuit and the low-side programmable circuit, characterized in that the integrated circuit (HVIC) includes internal wiring that connects the high-side programmable circuit and the low-side programmable circuit in a daisy chain configuration, and a level shifter that is provided on the internal wiring connected to the high-side programmable circuit and that connects a low-side signal system and a high-side signal system. a first high-side switching element and a second low-side switching element that are connected in a half-bridge configuration; an integrated circuit (HVIC) including a high-side circuit that is adapted to drive the first switching element and a low-side circuit that is adapted to drive the second switching element; a high-side programmable circuit that is able to implement a desired first logic function or parameter to be used by the high-side circuit; and a low-side programmable circuit that is able to implement a desired second logic function or parameter to be used by the low-side circuit, wherein the integrated circuit (HVIC) includes a write port that is adapted to receive data of one system for a program control signal to be written to the high-side programmable circuit and the low-side programmable circuit, characterized in that the integrated circuit (HVIC) includes internal wiring that connects the high-side programmable circuit and the low-side programmable circuit in a daisy chain configuration, and a level shifter that is provided on the internal wiring connected to the high-side programmable circuit and that connects a low-side signal system and a high-side signal system.
A method of recovering an organic acid which inactivates superabsorbent polymers included in a used absorbent article, the method comprising: an inactivation step of inactivating the superabsorbent polymers by immersing the superabsorbent polymers in an inactivation aqueous solution which has a predetermined pH and includes an organic acid; a removal step of removing the inactivated superabsorbent polymers from the inactivation aqueous solution which has been subjected to the inactivation step; a pH adjustment step of adjusting the inactivation aqueous solution which has been subjected to the removal step to have a predetermined pH; a concentration elevation step of elevating a concentration of the organic acid included in the inactivation aqueous solution by repeating the inactivation step which uses the inactivation aqueous solution that has been subjected to the pH adjustment step, the removal step, and the pH adjustment step; and an organic acid recovery step of recovering the organic acid from the inactivation aqueous solution which has been subjected to the concentration elevation step. an inactivation step of inactivating the superabsorbent polymers by immersing the superabsorbent polymers in an inactivation aqueous solution which has a predetermined pH and includes an organic acid; a removal step of removing the inactivated superabsorbent polymers from the inactivation aqueous solution which has been subjected to the inactivation step; a pH adjustment step of adjusting the inactivation aqueous solution which has been subjected to the removal step to have a predetermined pH; a concentration elevation step of elevating a concentration of the organic acid included in the inactivation aqueous solution by repeating the inactivation step which uses the inactivation aqueous solution that has been subjected to the pH adjustment step, the removal step, and the pH adjustment step; and an organic acid recovery step of recovering the organic acid from the inactivation aqueous solution which has been subjected to the concentration elevation step.
An anti-fibroblast growth factor receptor-1 (FGFR1) agonistic antibody which binds to peptide #26 KLHAVPAAKTVKFKCP (SEQ ID NO: 28) or peptide #28 FKPDHRIGGYKVRY (SEQ ID NO: 29).
A method of onboard determination of vehicle wheel alignment, the method comprising: - a first step of measuring lateral acceleration, using an accelerometer mounted on the vehicle wheel, to obtain a lateral acceleration signal; - a second step of obtaining a first lateral acceleration value a y Acc from a first portion of the lateral acceleration signal, whereby the first portion of the signal is measured during a longitudinal acceleration a 0 of the vehicle; - a third step of obtaining a second lateral acceleration value a y cs from a second portion of the lateral acceleration signal, whereby the second portion is measured when the longitudinal acceleration has ceased and the vehicle is travelling at constant speed; - a fourth step of measuring the longitudinal acceleration a 0 associated with the first portion of the lateral acceleration signal; - a fifth step of determining a toe angle α of the vehicle wheel according to the following relationship: α = arcsin a Y Acc − a Y CS − a 0 cos arcsin a Y CS g ⋅ 180 π where g is the gravitational acceleration constant. - a first step of measuring lateral acceleration, using an accelerometer mounted on the vehicle wheel, to obtain a lateral acceleration signal; - a second step of obtaining a first lateral acceleration value a y Acc from a first portion of the lateral acceleration signal, whereby the first portion of the signal is measured during a longitudinal acceleration a 0 of the vehicle; - a third step of obtaining a second lateral acceleration value a y cs from a second portion of the lateral acceleration signal, whereby the second portion is measured when the longitudinal acceleration has ceased and the vehicle is travelling at constant speed; - a fourth step of measuring the longitudinal acceleration a 0 associated with the first portion of the lateral acceleration signal; - a fifth step of determining a toe angle α of the vehicle wheel according to the following relationship: α = arcsin a Y Acc − a Y CS − a 0 cos arcsin a Y CS g ⋅ 180 π where g is the gravitational acceleration constant.
Method for operating an exhaust air system for a kitchen, in which a) kitchen exhaust air laden with vapours is extracted from a kitchen space and, on its flow path (18, 26, 32), flows through a suction region of an extraction device (22; 84), which suction region is downwardly open towards the kitchen space, and through a discharge channel, wherein the downwardly open suction region in the form of a storage compartment for the sucked-up kitchen exhaust air is accessible from below and from the lateral direction without barriers and obstacles; b) a cleaning agent is applied to the kitchen exhaust air on its flow path (18, 26, 32); c) the cleaning agent is applied to the kitchen exhaust air before the kitchen exhaust air reaches the discharge channel; d) a cleaning agent is used which can wet and clean surfaces which lie on the outside and delimit the flow path (18, 26, 32); e) the cleaning agent is introduced into the suction region; characterized in that f) the cleaning agent is sprayed into the kitchen exhaust air via spray nozzles, and mist nozzles are used as the spray nozzles; and g) cleaning agent is applied to the kitchen exhaust air in such a manner that said cleaning agent is completely captured and entrained by the kitchen exhaust air flow. a) kitchen exhaust air laden with vapours is extracted from a kitchen space and, on its flow path (18, 26, 32), flows through a suction region of an extraction device (22; 84), which suction region is downwardly open towards the kitchen space, and through a discharge channel, wherein the downwardly open suction region in the form of a storage compartment for the sucked-up kitchen exhaust air is accessible from below and from the lateral direction without barriers and obstacles; b) a cleaning agent is applied to the kitchen exhaust air on its flow path (18, 26, 32); c) the cleaning agent is applied to the kitchen exhaust air before the kitchen exhaust air reaches the discharge channel; d) a cleaning agent is used which can wet and clean surfaces which lie on the outside and delimit the flow path (18, 26, 32); e) the cleaning agent is introduced into the suction region; characterized in that f) the cleaning agent is sprayed into the kitchen exhaust air via spray nozzles, and mist nozzles are used as the spray nozzles; and g) cleaning agent is applied to the kitchen exhaust air in such a manner that said cleaning agent is completely captured and entrained by the kitchen exhaust air flow.
Valve for the injection of fuel, comprising - a valve carrier with a valve seat and with an inflow bore, - a valve control element, and - a throughflow limiting element which is arranged on the valve control element, - wherein the inflow bore has a step with an encircling annular edge, and - wherein the throughflow limiting element is arranged on the valve control element such that, when the valve is open, a throughflow area between the annular edge and the throughflow limiting element is reduced from a first throughflow area to a second throughflow area, characterized in that the throughflow limiting element has a region which narrows in the flow direction and which, together with the annular edge, defines a size of the throughflow area in a manner dependent on a position of the valve control element, wherein the narrowing region is a stepped region with a step and with narrowing first and second subregions (16, 17). - a valve carrier with a valve seat and with an inflow bore, - a valve control element, and - a throughflow limiting element which is arranged on the valve control element, - wherein the inflow bore has a step with an encircling annular edge, and - wherein the throughflow limiting element is arranged on the valve control element such that, when the valve is open, a throughflow area between the annular edge and the throughflow limiting element is reduced from a first throughflow area to a second throughflow area,
A solvent composition comprising 1-chloro-2,3,3-trifluoro-1-propene and 1-chloro-3,3-difluoro-1-propyne, wherein a proportion of a content of 1-chloro-3,3-difluoro-1-propyne to a total of a content of the 1-chloro-2,3,3-trifluoro-1-propene and a content of the 1-chloro-3,3-difluoro-1-propyne is 0.0001 to 0.1 mass%.