mhurhangee/ep-ind-claims huggingface dataset:
A tread for a tire having a contact face intended to come into contact with ground during rolling, the tread being provided with a plurality of grooves of a depth D opening to the contact face and a plurality of contact elements being delimited by the plurality of grooves, each of the plurality of contact elements having a top face constituting a part of the contact face and at least two incisions of a depth d opening to the top face and extending radially inward of the contact elements, the at least two incisions consisting of at least one thin incision being delimited via two opposed thin incision faces (511, 512) having a width t1 measured on the top face of the contact element when the tread being brand new and at least one thick incision being delimited via two opposed thick incision faces (521, 522) having a width t2 measured on the top face of the contact element when the tread being brand new, the width t2 being thicker than the width t1, the width t2 of the at least one thick incision being at least equal to 1.0 mm, the tread being characterized in that the at least one thick incision comprises at least one protrusion protruding from one of the thick incision faces (521, 522) toward another thick incision face (522, 521), and in that the at least one thin incision comprises no protrusion protruding from one of the thin incision faces (511, 512) toward another thin incision face (512; 511). the at least two incisions consisting of at least one thin incision being delimited via two opposed thin incision faces (511, 512) having a width t1 measured on the top face of the contact element when the tread being brand new and at least one thick incision being delimited via two opposed thick incision faces (521, 522) having a width t2 measured on the top face of the contact element when the tread being brand new, the width t2 being thicker than the width t1, the width t2 of the at least one thick incision being at least equal to 1.0 mm, the tread being characterized in that the at least one thick incision comprises at least one protrusion protruding from one of the thick incision faces (521, 522) toward another thick incision face (522, 521), and in that the at least one thin incision comprises no protrusion protruding from one of the thin incision faces (511, 512) toward another thin incision face (512; 511).
A method comprising: receiving, by a medical imaging system having at least one processing device, three-dimensional image data of a patient anatomy, the patient anatomy including a plurality of anatomical passageways; filtering the three-dimensional image data to display the plurality of anatomical passageways; receiving, at the processing device, input from an operator input device, the input comprising navigational directions for virtual movement within at least one anatomical passageway of the plurality of anatomical passageways, wherein receiving the input from the operator input device comprises: receiving a first input associated with virtual movement in a first perspective of the three-dimensional image data; and receiving a second input associated with virtual movement in a second perspective of the three-dimensional image data; tracking the virtual movement through at least one anatomical passageway of the plurality of anatomical passageways; and generating a three-dimensional model of the patient anatomy based on the tracked virtual movement by combining the first and second inputs associated with the first and second perspectives, the three-dimensional model including at least one anatomical passageway of the plurality of anatomical passageways. receiving, by a medical imaging system having at least one processing device, three-dimensional image data of a patient anatomy, the patient anatomy including a plurality of anatomical passageways; filtering the three-dimensional image data to display the plurality of anatomical passageways; receiving, at the processing device, input from an operator input device, the input comprising navigational directions for virtual movement within at least one anatomical passageway of the plurality of anatomical passageways, wherein receiving the input from the operator input device comprises: receiving a first input associated with virtual movement in a first perspective of the three-dimensional image data; and receiving a second input associated with virtual movement in a second perspective of the three-dimensional image data; receiving a first input associated with virtual movement in a first perspective of the three-dimensional image data; and receiving a second input associated with virtual movement in a second perspective of the three-dimensional image data; tracking the virtual movement through at least one anatomical passageway of the plurality of anatomical passageways; and generating a three-dimensional model of the patient anatomy based on the tracked virtual movement by combining the first and second inputs associated with the first and second perspectives, the three-dimensional model including at least one anatomical passageway of the plurality of anatomical passageways.
A composition comprising at least three different siRNA molecules and a pharmaceutically acceptable carrier, wherein at least one of said siRNA molecules targets an mRNA molecule encoded by a TGF-β1 gene, at least one of said siRNA molecules targets an mRNA molecule encoded by a Cox-2 gene, and at least one of said siRNA molecules targets an mRNA molecule encoded by a Hoxb13 gene, wherein said different siRNA molecules inhibit expression of said genes in both human and mouse cells, wherein said composition comprises a nanoparticle comprising a histidine-lysine copolymer, and wherein said different siRNA molecules comprise the following oligonucleotides: hmTF-2: sense, 5'-CCCAAGGGCUACCAUGCCAACUUCU-3' (SEQ ID NO: 11) antisense, 5'AGAAGUUGGCAUGGUAGCCCUUGGG-3' (SEQ ID NO: 12); hmCX-1: sense, 5'-GGUCUGGUGCCUGGUCUGAUGAUGU-3' (SEQ ID NO: 9) antisense, 5'-ACAUCAUCAGACCAGGCACCAGACC-3' (SEQ ID NO: 10); and hmHX-1: sense, 5'-GGUGGCUGGAACAGCCAGAUGUGUU-3' (SEQ ID NO: 7) antisense, 5'-AACACAUCUGGCUGUUCCAGCCACC-3' (SEQ ID NO: 8). hmTF-2: sense, 5'-CCCAAGGGCUACCAUGCCAACUUCU-3' (SEQ ID NO: 11) antisense, 5'AGAAGUUGGCAUGGUAGCCCUUGGG-3' (SEQ ID NO: 12); hmCX-1: sense, 5'-GGUCUGGUGCCUGGUCUGAUGAUGU-3' (SEQ ID NO: 9) antisense, 5'-ACAUCAUCAGACCAGGCACCAGACC-3' (SEQ ID NO: 10); and hmHX-1: sense, 5'-GGUGGCUGGAACAGCCAGAUGUGUU-3' (SEQ ID NO: 7) antisense, 5'-AACACAUCUGGCUGUUCCAGCCACC-3' (SEQ ID NO: 8).
A device for reducing the harmonic voltage components for a DC bus subjected to voltage ripples, wherein the device comprises at least one pair of elements with the same name plate data, said elements being batteries (4a, 4b; 104a, 104b) or capacitors (6a, 6b; 106a, 106b) and being connected in a bridge configuration on the DC bus and in series to each other so as to define a common node at one of their ends, characterized in that said common node is connected, by means of a switch, to a reference point which is equipotential with respect to a voltage reference, said switch being configured to isolate said reference point with respect to said elements (4a, 4b; 104a, 104b; 6a, 6b; 106a, 106b) in order to vary the voltage ripple on said elements (4a, 4b; 104a, 104b; 6a, 6b; 106a, 106b) depending on the situation of use.
An infrared-ray lamp tube comprising: an elongate tube-shaped housing having an inner space defined therein, wherein the elongate tube-shaped housing have both side open ends; an infrared-ray emitting array disposed in the inner space, wherein an infrared-ray emitting array includes a plurality of halogen lamp units spacedly arranged in an array in the inner space in a length direction of the housing; two plugs respectively fitted into the both side open ends of the elongate tube-shaped housing; and a filtering liquid filling the inner space of the elongate tube-shaped housing, wherein one of the plugs has a filtering liquid inlet defined therein, and the other of the plugs has a filtering liquid outlet, characterized by further comprising: a bubble-discharge guide in the inner space of the elongate tube-shaped housing in an adjacent position to the filtering liquid outlet, wherein the bubble-discharge guide defines a gap between an inner wall face of the elongate tube-shaped housing and the guide. an elongate tube-shaped housing having an inner space defined therein, wherein the elongate tube-shaped housing have both side open ends; an infrared-ray emitting array disposed in the inner space, wherein an infrared-ray emitting array includes a plurality of halogen lamp units spacedly arranged in an array in the inner space in a length direction of the housing; two plugs respectively fitted into the both side open ends of the elongate tube-shaped housing; and a filtering liquid filling the inner space of the elongate tube-shaped housing, wherein one of the plugs has a filtering liquid inlet defined therein, and the other of the plugs has a filtering liquid outlet, characterized by further comprising: a bubble-discharge guide in the inner space of the elongate tube-shaped housing in an adjacent position to the filtering liquid outlet, wherein the bubble-discharge guide defines a gap between an inner wall face of the elongate tube-shaped housing and the guide.
A neuromorphic computing system configured to be trained using unsupervised learning, the neuromorphic computing system comprising a N x M grid of locally connected cells implementing a Self-Organizing Map -like artificial neural network, wherein each cell having initial weights and being connected to its direct closest neighbors, the neuromorphic computing system comprising a clock system providing periodic active clock edges, the neuromorphic computing system further comprising means configured to simultaneously and synchronously in each cell: - at a first active clock edge: receiving a same multidimensional input data; calculating an Euclidean distance value between the initial cell weights and said multidimensional input data; and setting an initial Manhattan distance value; - iteratively at each of the next N+M-2 active clock edges: comparing the Euclidean distance value calculated at the previous active clock edge to the Euclidean distance values of the direct closest neighbors, to determine the minimum Euclidean distance value; and if the minimum Euclidian distance value is different from the Euclidean distance value of said cell: updating the Euclidean distance value of said cell by the minimum Euclidean distance value, and updating the Manhattan distance value of said cell to a value represented by the number of clock cycles since the iterative process; - at a next (N+M-2)+1 active clock edge: updating the cell weights using an unsupervised learning rule. - at a first active clock edge: receiving a same multidimensional input data; calculating an Euclidean distance value between the initial cell weights and said multidimensional input data; and setting an initial Manhattan distance value; receiving a same multidimensional input data; calculating an Euclidean distance value between the initial cell weights and said multidimensional input data; and setting an initial Manhattan distance value; - iteratively at each of the next N+M-2 active clock edges: comparing the Euclidean distance value calculated at the previous active clock edge to the Euclidean distance values of the direct closest neighbors, to determine the minimum Euclidean distance value; and if the minimum Euclidian distance value is different from the Euclidean distance value of said cell: updating the Euclidean distance value of said cell by the minimum Euclidean distance value, and updating the Manhattan distance value of said cell to a value represented by the number of clock cycles since the iterative process; comparing the Euclidean distance value calculated at the previous active clock edge to the Euclidean distance values of the direct closest neighbors, to determine the minimum Euclidean distance value; and if the minimum Euclidian distance value is different from the Euclidean distance value of said cell: updating the Euclidean distance value of said cell by the minimum Euclidean distance value, and updating the Manhattan distance value of said cell to a value represented by the number of clock cycles since the iterative process; - at a next (N+M-2)+1 active clock edge: updating the cell weights using an unsupervised learning rule.
A process for the preparation of a solid component of catalyst for the (co)polymerization of ethylene, comprising titanium, magnesium, chlorine, an organo-oxygenated protic compound D p, and a neutral electron-donor aprotic compound D, in the following molar ratio ranges: Mg/Ti = 1.0-50; D/Ti = 1.0-15; Cl/Ti = 6.0-100; D p /D = 0.05-3, wherein said titanium is in oxidation state +3, comprising the following steps in succession: (a) formation of a mixture and dissolution, in aprotic electron-donor compound D, of a magnesium chloride and a titanium compound having formula: Ti v (OR 3) a X (v-a) wherein each R 3 represents a hydrocarbyl or acyl radical having from 1 to 15 carbon atoms; each X is selected from chlorine, bromine or iodine; v is 3, and represents the oxidation state of titanium, a is a number ranging from 0 to v, with a molar ratio between magnesium and titanium ranging from 1/1 to 50/1; (b) partial separation of the compound D from said mixture prepared in step (a) until a residue is obtained, solid at room temperature, wherein the D/Ti ratio ranges from 1.5 to 40, (c) formation of a suspension of said solid residue in a liquid hydrocarbon medium, (d) addition to said suspension of an organo-oxygenated protic compound D p, in such a quantity that the molar ratio D p /D ranges from 0.1 to 1.2 and maintaining the mixture until the desired solid component of catalyst is formed, wherein said step (d) is carried out by heating the mixture to a temperature ranging from 40 to 100°C, for a period of time varying from 5 minutes to 5 hours. (a) formation of a mixture and dissolution, in aprotic electron-donor compound D, of a magnesium chloride and a titanium compound having formula: Ti v (OR 3) a X (v-a) wherein each R 3 represents a hydrocarbyl or acyl radical having from 1 to 15 carbon atoms; each X is selected from chlorine, bromine or iodine; v is 3, and represents the oxidation state of titanium, a is a number ranging from 0 to v, with a molar ratio between magnesium and titanium ranging from 1/1 to 50/1; wherein each R 3 represents a hydrocarbyl or acyl radical having from 1 to 15 carbon atoms; each X is selected from chlorine, bromine or iodine; v is 3, and represents the oxidation state of titanium, a is a number ranging from 0 to v, with a molar ratio between magnesium and titanium ranging from 1/1 to 50/1; (b) partial separation of the compound D from said mixture prepared in step (a) until a residue is obtained, solid at room temperature, wherein the D/Ti ratio ranges from 1.5 to 40, (c) formation of a suspension of said solid residue in a liquid hydrocarbon medium, (d) addition to said suspension of an organo-oxygenated protic compound D p, in such a quantity that the molar ratio D p /D ranges from 0.1 to 1.2 and maintaining the mixture until the desired solid component of catalyst is formed, wherein said step (d) is carried out by heating the mixture to a temperature ranging from 40 to 100°C, for a period of time varying from 5 minutes to 5 hours.
Method for manufacturing an actuator comprising a thermal ram comprising a body, which has a rear face, a peripheral face and a front face, and an actuating stem passing through the front face of the body, and also comprising a thermal pellet for heating and/or cooling, a front face of which is thermally coupled to the rear face of the body, and a mounting element having an annular part surrounding at least a rear part of the peripheral face of the body and the peripheral face of the thermal pellet and a rear part at least partially covering the rear face of the thermal pellet, characterized in that it consists: in placing, in a cavity (20, 34) of a mould, the thermal pellet and the thermal ram, said cavity being such that it leaves a recessed space (21, 60) corresponding to said mounting element (15, 59) to be produced; and in injecting, into said space, a plastics filling material so as to form a mounting element (15, 59). in placing, in a cavity (20, 34) of a mould, the thermal pellet and the thermal ram, said cavity being such that it leaves a recessed space (21, 60) corresponding to said mounting element (15, 59) to be produced; and in injecting, into said space, a plastics filling material so as to form a mounting element (15, 59).
A multi-lumen conduit for treating a tissue site with reduced pressure, comprising: a wall comprising a first wall material and a second wall material, the first wall material comprising a substantially non-absorbent material that is vapor impermeable and liquid impermeable, the second wall material comprising an absorbent material that is vapor permeable and liquid impermeable; a primary lumen carried by the wall; and at least one secondary lumen carried by the wall, the second wall material positioned in fluid contact with the at least one secondary lumen, the primary lumen being isolated from fluid communication with the at least one secondary lumen along a length of the multi-lumen conduit (302a, 302b, 302c, 302d, 302e). a wall comprising a first wall material and a second wall material, the first wall material comprising a substantially non-absorbent material that is vapor impermeable and liquid impermeable, the second wall material comprising an absorbent material that is vapor permeable and liquid impermeable; a primary lumen carried by the wall; and at least one secondary lumen carried by the wall, the second wall material positioned in fluid contact with the at least one secondary lumen, the primary lumen being isolated from fluid communication with the at least one secondary lumen along a length of the multi-lumen conduit (302a, 302b, 302c, 302d, 302e).
A method of identifying the responsiveness of a disease to treatment with a HER3 modulator comprising (a) examining the activity of at least one HER3 receptor in a sample from a subject at risk of or having said disease, and (b) identifying a disease as responsive if activity of the at least one HER3 receptor is detected, wherein the detection of HER3 receptor activity comprises a determination of the HER3 receptor phosphorylation level using a phospho-specific antibody. (a) examining the activity of at least one HER3 receptor in a sample from a subject at risk of or having said disease, and (b) identifying a disease as responsive if activity of the at least one HER3 receptor is detected, wherein the detection of HER3 receptor activity comprises a determination of the HER3 receptor phosphorylation level using a phospho-specific antibody.
Apparatus for inductive power transfer, comprising a power transfer coil for contactless power transfer, a magnetic shield for shaping a first electromagnetic field of the power transfer coil and a foreign object detecting device, the foreign object detecting device comprising a means for generating a second electromagnetic field to detect foreign objects in a predetermined space, a plurality of detection coils (211, 212, 213) coupled in respective tank circuits configured to sense the second electromagnetic field, and a switching device configured to selectively close the tank circuits, characterised in that at least one coil of the plurality of detection coils has a cross section and/or a number of windings different from another one of the plurality of detection coils, in that each coil of the plurality of detection coils (211, 212, 213) is configured for having a substantially equal self-inductance and in that the tank circuits have a substantially equal resonance frequency.
Miniaturised horn spark gap having an integrated deion chamber, embodied from a multi-part insulating material housing (1; 2) as a supporting and receiving body for the horn electrodes (9; 10) and the deion chamber, wherein the horn electrodes (9; 10) comprise an asymmetrical shape with one longer and one shorter electrode, the horn electrodes extend approximately parallel in the ignition region and subsequently diverge, furthermore a deion chamber part that can be inserted into the supporting and receiving body is embodied as a deion chamber and said deion chamber part receives a plurality of extinguishing plates and comprises through-going ducts and the horn electrodes (9; 10) are provided with a metal part that is arranged to the rear of said horn electrode at least in the arcing region of an arc that is created, characterised in that the shorter electrode is embodied as a hooked horn electrode that reaches to the deion chamber region and is spaced apart and on the output side of the through-going ducts of the deion chamber this deion chamber is covered at least in part by a metal baffle plate, wherein the baffle plate is simultaneously connected to the insulating material housing in a manner that mechanically strengthens this insulating material housing.
Method for producing a seal for a window or a door with a door/window frame and a sash frame and for mounting the seal on the window or door, having the following steps in succession: step A: thermoplastic extrusion of the seal with a foot region and a seal body, in particular configured as a tube region, which comprises at least one sealing face, from at least one thermoplastic elastomer which is provided, wherein directly upon extrusion of the seal on the at least one thermoplastic elastomer at least one film is applied, at least in the region of the sealing face, to the seal which is forming; step B: removing, in particular pulling off, the film from the sealing face; and step C: mounting the seal on the door/window frame or the sash frame of the window or door. step A: thermoplastic extrusion of the seal with a foot region and a seal body, in particular configured as a tube region, which comprises at least one sealing face, from at least one thermoplastic elastomer which is provided, wherein directly upon extrusion of the seal on the at least one thermoplastic elastomer at least one film is applied, at least in the region of the sealing face, to the seal which is forming; step B: removing, in particular pulling off, the film from the sealing face; and step C: mounting the seal on the door/window frame or the sash frame of the window or door.
A method for performing mobility-measurements in new radio, NR, based 5th generation, 5G, communication-network, the method being executed by a server and comprising: receiving network-information for a plurality of time-instances with respect to a geographical-area from one or more user equipments, UEs, operating in the geographical-area for a pre-defined duration of time; classifying the the received network-information for the plurality of time-instants as at-least one of: an NR spectrum availability and an NR spectrum non-availability; calculating an overall probability of availability of the NR spectrum within the geographical area based on the classified network information; and enabling a UE from amongst a plurality of UEs to schedule NR measurements within the geographical area based on the calculated overall probability. receiving network-information for a plurality of time-instances with respect to a geographical-area from one or more user equipments, UEs, operating in the geographical-area for a pre-defined duration of time; classifying the the received network-information for the plurality of time-instants as at-least one of: an NR spectrum availability and an NR spectrum non-availability; calculating an overall probability of availability of the NR spectrum within the geographical area based on the classified network information; and enabling a UE from amongst a plurality of UEs to schedule NR measurements within the geographical area based on the calculated overall probability.
A pharmaceutical combination comprising the EP4 antagonist of Formula -4-(1-(6-(4-(trifluoromethyl)benzyl)-6-azaspiro[2.5]octane-5-carboxamido)cyclopropyl)-benzoic acid or a pharmaceutically acceptable salt thereof and at least one immune checkpoint inhibitor.