mhurhangee/ep-ind-claims huggingface dataset:
Electrically insulating rotational coupling device (10; 110; 210) comprising a first (12; 112; 212) and a second (14; 114; 214) coupling head extending in a substantially straight line along a longitudinal axis (X-X), the first head comprising at least one male part (26; 126; 226) extending substantially axially, and the second head comprising at least one associated axial female part (42; 142; 242) working therewith to transmit the rotational torque, the male and female parts being adapted to form an assembly joint between the first (12; 112; 212) and second (14; 114; 214) heads; an intermediate member (16; 116; 216) comprising electrical insulation means (52, 54, 56, 58) arranged in such a way that the male (26; 126; 226) and female (42; 142; 242) rotational torque transmission parts are electrically insulated from each other, characterised in that the intermediate member (16; 116; 216) comprises an electrically insulating partition (62; 162; 262) which is transverse in relation to the longitudinal axis (X-X) and is arranged according to the entirety of the assembly joint between the first (12; 112; 212) and second (14; 114; 214) heads and in that the intermediate member comprises a central portion extending axially along the longitudinal axis (X-X) and delimited by two transverse end faces (54, 56), in that at least one of the first (12; 112; 212) and second (14; 114; 214) heads is a steel machined part, and in that the intermediate member (16; 116; 216) is a moulded part made of a plastic material with a high dielectric strength.
A method of monitoring deterioration of a rotor tip clearance arrangement comprising steps to: a) at a first time instance, measure rotor speed; b) alter a position of a tip clearance control actuator comprising a cooling flow valve by an increment to reduce the rotor tip clearance; c) iterate steps a) and b) and calculate a change of the rotor speed between pairs of iterations; d) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position; e) at a second time instance, measure rotor speed; f) alter a position of the tip clearance control actuator by an increment to reduce the rotor tip clearance; g) iterate steps e) and f) and calculate a change of the rotor speed between pairs of iterations; h) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position; and i) compare the calibration position at the second time instance to the calibration position at the first time instance to determine deterioration of the rotor tip clearance arrangement. a) at a first time instance, measure rotor speed; b) alter a position of a tip clearance control actuator comprising a cooling flow valve by an increment to reduce the rotor tip clearance; c) iterate steps a) and b) and calculate a change of the rotor speed between pairs of iterations; d) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position; e) at a second time instance, measure rotor speed; f) alter a position of the tip clearance control actuator by an increment to reduce the rotor tip clearance; g) iterate steps e) and f) and calculate a change of the rotor speed between pairs of iterations; h) identify a knee point where the change in the rotor speed changes discontinuously and record the corresponding tip clearance control actuator position as a calibrated position; and i) compare the calibration position at the second time instance to the calibration position at the first time instance to determine deterioration of the rotor tip clearance arrangement.
A purified T cell receptor having affinity for a surface antigen on a target cell, wherein the TCR is a tyrosine-protein kinase HER2/Neu (ERBB2)-specific TCR comprising at least one selected from the group consisting of a TCR alpha chain comprising SEQ ID NOs: 2 or 6 and a TCR beta chain comprising SEQ ID NOs: 4 or 7.
A moldable implant composition, the moldable implant composition includes a plurality of biocompatible granules mixed with a biocompatible polymer and a plasticizer for the polymer, wherein the surface of the granules comprises indentations to increase the porosity within the implanted mass.
A pharmaceutical agent, wherein the agent comprises one or more peptides having cytotoxic T lymphocyte inducibility, wherein the peptide is a nonapeptide or decapeptide and comprises an amino acid sequence selected from the group consisting of SEQ ID NO: 2 and 1, or one or more polynucleotides encoding such a peptide, in combination with a pharmacologically acceptable carrier formulated for use in a purpose selected from the group consisting of: (i) treatment of cancer in a subject whose HLA-A antigen is HLA-A0206, (ii) prophylaxis of cancer in a subject whose HLA-A antigen is HLA-A0206, (iii) preventing postoperative recurrence of cancer in a subject whose HLA-A antigen is HLA-A0206, and (iv) combinations thereof. (i) treatment of cancer in a subject whose HLA-A antigen is HLA-A0206, (ii) prophylaxis of cancer in a subject whose HLA-A antigen is HLA-A0206, (iii) preventing postoperative recurrence of cancer in a subject whose HLA-A antigen is HLA-A0206, and (iv) combinations thereof.
A method of forming a thermal barrier coating on a metal part, said method sequentially comprising the steps of: a) laser cleaning a surface of the metal part by providing a laser beam focused at the surface of the part to remove undesirable oxides and residues from the surface of the part; b) depositing an aluminum containing bondcoat on the part; c) thermally interdiffusing the aluminum containing bondcoat and the part with a vacuum diffusion heat treatment at 1079°C (1975°F) for four hours; d) laser cleaning a surface of the aluminum containing bondcoat to remove oxides and debris from the surface of the bondcoat and form an alpha aluminum oxide layer on the bondcoat; e) preheating the metal part above 982°C (1800°F); and f) depositing a ceramic topcoat on the alpha aluminum oxide layer on the bondcoat. a) laser cleaning a surface of the metal part by providing a laser beam focused at the surface of the part to remove undesirable oxides and residues from the surface of the part; b) depositing an aluminum containing bondcoat on the part; c) thermally interdiffusing the aluminum containing bondcoat and the part with a vacuum diffusion heat treatment at 1079°C (1975°F) for four hours; d) laser cleaning a surface of the aluminum containing bondcoat to remove oxides and debris from the surface of the bondcoat and form an alpha aluminum oxide layer on the bondcoat; e) preheating the metal part above 982°C (1800°F); and f) depositing a ceramic topcoat on the alpha aluminum oxide layer on the bondcoat.
A multiple input multiple output (MIMO) radar system for detecting a moving object, the system comprising: a set of transmitters and a set of receivers forming a virtual array of unique pairwise combinations of the transmitters and the receivers to measure reflections of transmissions; characterized by further comprising a memory configured to store an explicit signal model that accounts for waveform separation residuals by relating measurements of the virtual array to an auto-correlation term including a Kronecker product of object-receiver signatures and transmitter-object signatures, and a cross-correlation term including a Kronecker product of object-receiver signatures and transmitter-object residual signatures; wherein each of the transmitter-object signatures is a function of a relative angle between each transmitter of the set of transmitters and the detected object, wavelength of transmitted signal, and a relative distance between the two consecutive transmitter elements of the set of transmitters; and a processor configured to detect a moving object by executing a spatial MIMO detector configured to detect the moving object using the explicit signal model; and an output interface configured to output parameters associated with the detected object. a set of transmitters and a set of receivers forming a virtual array of unique pairwise combinations of the transmitters and the receivers to measure reflections of transmissions; characterized by further comprising a memory configured to store an explicit signal model that accounts for waveform separation residuals by relating measurements of the virtual array to an auto-correlation term including a Kronecker product of object-receiver signatures and transmitter-object signatures, and a cross-correlation term including a Kronecker product of object-receiver signatures and transmitter-object residual signatures; wherein each of the transmitter-object signatures is a function of a relative angle between each transmitter of the set of transmitters and the detected object, wavelength of transmitted signal, and a relative distance between the two consecutive transmitter elements of the set of transmitters; and a processor configured to detect a moving object by executing a spatial MIMO detector configured to detect the moving object using the explicit signal model; and an output interface configured to output parameters associated with the detected object.
Storage system comprising - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region with a positive curvature and a second region with a negative curvature, - a component which comprises a magnet arrangement (1.3; 1.3") and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein the sensor element (1; 1') is arranged between the magnet arrangement (1.3; 1.3") and the supporting magnet (1.6), wherein the supporting magnet (1.6) is arranged such that a connecting line between its north pole and its south pole is oriented in a second direction (y), wherein this has a component orthogonal to the first direction (x). - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region with a positive curvature and a second region with a negative curvature, - a component which comprises a magnet arrangement (1.3; 1.3") and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein
Power hoe comprising an electric motor actuating tillage implements (14, 43, 44) and at least one battery intended to supply said motor, in that it comprises an electronic card providing the functions of measuring at least one information item showing a level of charge of said battery or batteries, output of electric power to the motor, and control of the power hoe operation in accordance with at least two operation modes selected depending on said at least one information item showing the level of charge of said battery or batteries, said at least two operation modes consisting of: - a normal operation mode, having a set of said power hoe's functions, having a function whereby supplementary power can be provided for tilling for a limited period, for as long as a corresponding control button is continuously pressed by a user, and - a downgraded operation mode, wherein the electrical power supplied to said motor is limited to a level lower than said electrical power supplied in the normal operation mode, when said at least one information item showing the level of charge of said battery or batteries indicates that the level of charge of said battery or batteries goes below a predetermined threshold and making possible only the movement of said power hoe by rotating said tillage implements (14, 43, 44). - a normal operation mode, having a set of said power hoe's functions, having a function whereby supplementary power can be provided for tilling for a limited period, for as long as a corresponding control button is continuously pressed by a user, and - a downgraded operation mode, wherein the electrical power supplied to said motor is limited to a level lower than said electrical power supplied in the normal operation mode, when said at least one information item showing the level of charge of said battery or batteries indicates that the level of charge of said battery or batteries goes below a predetermined threshold and making possible only the movement of said power hoe by rotating said tillage implements (14, 43, 44).
An apparatus for forming a cigarette pack comprising a first cigarette wrapping unit, a second cigarette wrapping unit and a third combining unit, the first cigarette wrapping unit comprising a first wrapping station, the second cigarette wrapping unit comprising a second wrapping station, the first wrapping station being operable to wrap a first bundle of cigarettes in wrapping material to form a first wrapped bundle of cigarettes, the second wrapping station being operable to wrap a second bundle of cigarettes in wrapping material to form a second wrapped bundle of cigarettes, characterized in that the first cigarette wrapping unit is operable to assemble a first inner frame A around the first wrapped bundle of cigarettes to form a first assembled bundle of cigarettes, the second cigarette wrapping unit is operable to assemble a second inner frame B around the second wrapped bundle of cigarettes to form a second assembled bundle of cigarettes, and the third combining unit is operable to combine the first and second assembled bundles of cigarettes (12, 14) to form an inner assembly comprising assembled inner frames A and B (22, 23), and to assemble an outer frame C around the inner assembly to form a cigarette pack.
A valve comprising a housing having an inlet and an outlet, a valve element being positioned between said inlet and said outlet, said valve element being moveable in said housing, said valve element having a pilot valve opening, a first pressure chamber, a pressure in said first pressure chamber acting on said valve element in a first direction, a second pressure chamber, a pressure in said second pressure chamber acting on said valve element in a second direction opposite to said first direction, a pilot valve element cooperating with said pilot valve opening to form a pilot valve, said pilot valve element being actuated by drive means, wherein a flow resistance between said inlet and said first pressure chamber is smaller than a flow resistance between said inlet and said second pressure chamber, said pilot valve opening into a third pressure chamber, said third pressure chamber being connected to said outlet via a throttled flow path, and said valve being characterized in that said third pressure chamber is formed between said valve element and a part of said housing and in that said throttled flow path is arranged between said valve element and said part of the housing.
A landing gear arrangement (200, 400, 500), comprising: a lever configured to be coupled between an axle and a strut piston of a shock strut; a load damper (250, 450) configured to be externally coupled between the shock strut and the lever, wherein the load damper (250, 450) is configured to increase a length of the landing gear arrangement in response to an extension force of the load damper (250, 450) increasing above a ground force reacted through the landing gear arrangement (200, 400, 500) and characterized by further comprising a first link configured to be rotatably coupled to a second link, wherein the first link is configured to be coupled to the load damper and the second link is configured to be coupled to the lever. a lever configured to be coupled between an axle and a strut piston of a shock strut; a load damper (250, 450) configured to be externally coupled between the shock strut and the lever, wherein the load damper (250, 450) is configured to increase a length of the landing gear arrangement in response to an extension force of the load damper (250, 450) increasing above a ground force reacted through the landing gear arrangement (200, 400, 500) and characterized by further comprising a first link configured to be rotatably coupled to a second link, wherein the first link is configured to be coupled to the load damper and the second link is configured to be coupled to the lever.
A chain link with a sector-shaped body for a circular chain for receiving and guiding energy lines between two connection points which are moveable relative to each other in a circular motion about an axis of rotation (d), wherein the circular chain has a circular arc-shaped body having a circle center point axis (k), which body is composed of a plurality of sector-shaped chain links adjoining each other in the peripheral direction (u), wherein in their adjoining connecting regions (41, 42) the chain links are connected together pivotably about a respective first pivot axis which is radial with respect to the circle center point axis (k), characterised in that the chain link is adapted to form a pivotal connection in the form of a hinge joint connection with a respective joint partner and has at least one connecting region which is in the form of a first connecting region and which is so adapted that in addition to the pivotal movement about the first pivot axis the hinge joint connection permits at least one further relative movement of the joint partners.
A method comprising: receiving an image of a real-world environment; using a trained machine learning classifier, classifying the image to produce classifications associated with acoustic presets (P1-PM) for an acoustic environment simulation, the acoustic presets (P1-PM) each comprising a set of acoustic parameters (AP1-APN), the acoustic parameters (AP1-APN) having respective values for a given acoustic preset (P1-PM) with the values varying across the acoustic presets (P1-PM), and the acoustic parameters (AP1-APN) including at least acoustic reverberation parameters, wherein the classifications include room types; and selecting an acoustic preset among the acoustic presets (P1-PM) based on the classifications; wherein the classifying includes classifying the image to produce the classifications such that the classifications have respective confidence levels (C1-CM); wherein the selecting includes selecting the acoustic preset (P1-PM) such that the acoustic preset is associated with a classification among the classifications that has a highest one of the respective confidence levels (C1-CM). receiving an image of a real-world environment; using a trained machine learning classifier, classifying the image to produce classifications associated with acoustic presets (P1-PM) for an acoustic environment simulation, the acoustic presets (P1-PM) each comprising a set of acoustic parameters (AP1-APN), the acoustic parameters (AP1-APN) having respective values for a given acoustic preset (P1-PM) with the values varying across the acoustic presets (P1-PM), and the acoustic parameters (AP1-APN) including at least acoustic reverberation parameters, wherein the classifications include room types; and selecting an acoustic preset among the acoustic presets (P1-PM) based on the classifications; wherein the classifying includes classifying the image to produce the classifications such that the classifications have respective confidence levels (C1-CM); wherein the selecting includes selecting the acoustic preset (P1-PM) such that the acoustic preset is associated with a classification among the classifications that has a highest one of the respective confidence levels (C1-CM).
A process for the polymerization of olefins comprising the steps of a. Polymerizing olefins in a reaction mixture comprising monomers, diluent, processing aids to prepare a product stream comprising polyolefins, monomers and diluent; b. Removing the polyolefins from the product stream to obtain a purge stream; c. Removing gaseous components from the purge stream to obtain a liquid fraction; d. Treating the liquid fraction with at least one ionic liquid to obtain a fraction containing unsaturated hydrocarbons; e. Recycling the fraction containing unsaturated hydrocarbons to the reaction mixture, optionally after purification of said fraction containing unsaturated hydrocarbons. a. Polymerizing olefins in a reaction mixture comprising monomers, diluent, processing aids to prepare a product stream comprising polyolefins, monomers and diluent; b. Removing the polyolefins from the product stream to obtain a purge stream; c. Removing gaseous components from the purge stream to obtain a liquid fraction; d. Treating the liquid fraction with at least one ionic liquid to obtain a fraction containing unsaturated hydrocarbons; e. Recycling the fraction containing unsaturated hydrocarbons to the reaction mixture, optionally after purification of said fraction containing unsaturated hydrocarbons.
A flow activated sensor assembly for downhole use in a well, the assembly for coupling to an oilfield tubular for conveying a fluid flow through a channel thereof, the assembly comprising: a flow translation device for fluid communication with the channel to allow responsive movement upon exposure to the fluid flow; characterized by a detector coupled to said device for data communication therewith, said detector configured for triggering activation of an actuator coupled to the assembly based on the data communication; and a backup detection mechanism for the triggering upon compromised reliability of the data communication, wherein the backup detection mechanism detects flow of another fluid directed in an annular region. a flow translation device for fluid communication with the channel to allow responsive movement upon exposure to the fluid flow; characterized by a detector coupled to said device for data communication therewith, said detector configured for triggering activation of an actuator coupled to the assembly based on the data communication; and a backup detection mechanism for the triggering upon compromised reliability of the data communication, wherein the backup detection mechanism detects flow of another fluid directed in an annular region.