mhurhangee/ep-ind-claims huggingface dataset:
A car seat, comprising: a seat structure comprising a single structural shell or two structural shells forming a seat with an upper surface and a backrest with a front surface, a plurality of discrete upholstery elements removably applicable to said surfaces (14, 15), quick coupling means (21, 22) distributed on said surfaces (14, 15) and on the upholstery elements for removably coupling the upholstery elements to the seat structure; characterized in that the quick coupling means comprise male coupling means, fixed in predetermined and spaced positions on said surfaces (14, 15), and each having a pin with an enlarged head; each upholstery element comprises a spongy body, an insert of rigid or semi-rigid consistency integral with the spongy body and having at least one through opening, and at least one female coupling element which is held in said through opening and has a concave housing configured to snap-fit and hold in an elastically releasable manner the enlarged head of a male coupling element. a seat structure comprising a single structural shell or two structural shells forming a seat with an upper surface and a backrest with a front surface, a plurality of discrete upholstery elements removably applicable to said surfaces (14, 15), quick coupling means (21, 22) distributed on said surfaces (14, 15) and on the upholstery elements for removably coupling the upholstery elements to the seat structure; the quick coupling means comprise male coupling means, fixed in predetermined and spaced positions on said surfaces (14, 15), and each having a pin with an enlarged head; each upholstery element comprises a spongy body, an insert of rigid or semi-rigid consistency integral with the spongy body and having at least one through opening, and at least one female coupling element which is held in said through opening and has a concave housing configured to snap-fit and hold in an elastically releasable manner the enlarged head of a male coupling element.
A gas turbine, comprising: a low-pressure compressor and a low-pressure expansion turbine, which are arranged on a common shaft and together form a lower stage, as well as at least two upper stages, each upper stage comprising a high-pressure compressor (20a, 20b, 20c), a gas heater (30a, 30b, 30c) arranged downstream of the high-pressure compressor, and a high-pressure expansion turbine (40a, 40b, 40c) which is arranged downstream of the gas heater in the flow direction and is located on a common shaft together with the high-pressure compressor, an inlet of each of the high-pressure compressors being in direct fluid communication with an outlet of the low-pressure compressor, and an outlet of each of the high-pressure expansion turbines being in direct fluid communication with an inlet of the low-pressure expansion turbine, at least one bypass line (32a, 32b, 32c) furthermore being connected to the outlet of the low-pressure compressor and the inlet of the low-pressure expansion turbine, an adjustable throttle member (322a, 322b, 322c) moreover being arranged in each bypass line. an inlet of each of the high-pressure compressors being in direct fluid communication with an outlet of the low-pressure compressor, and an outlet of each of the high-pressure expansion turbines being in direct fluid communication with an inlet of the low-pressure expansion turbine, at least one bypass line (32a, 32b, 32c) furthermore being connected to the outlet of the low-pressure compressor and the inlet of the low-pressure expansion turbine, an adjustable throttle member (322a, 322b, 322c) moreover being arranged in each bypass line.
A method for determining path loss, applied to user equipment, UE, the UE being a narrowband internet of things, NB-IoT, device, the method comprising: determining transmission power of a downlink narrowband reference signal, NRS; determining a measurement value of narrowband reference signal received power, NRSRP; and under a circumstance that a preset higher layer filter parameter is not received from a base station, determining the path loss between the base station and the NB-IoT device according to the transmission power of the downlink NRS and the measurement value of the NRSRP, characterized in that, the path loss between the base station and the NB-IoT device is determined by: PLc = nrs − Power + nrs − PowerOffsetNonAnchor − NRSRP, wherein PLc is the path loss, nrs-Power is the transmission power of the downlink NRS transmitted by the base station, nrs-PowerOffsetNonAnchor is a non-anchor power offset of the downlink NRS, and NRSRP is the measurement value of the NRSRP, which is actual received power without higher layer filtering, measured by a physical layer of the UE, of the downlink NRS. determining transmission power of a downlink narrowband reference signal, NRS; determining a measurement value of narrowband reference signal received power, NRSRP; and under a circumstance that a preset higher layer filter parameter is not received from a base station, determining the path loss between the base station and the NB-IoT device according to the transmission power of the downlink NRS and the measurement value of the NRSRP, characterized in that, the path loss between the base station and the NB-IoT device is determined by: PLc = nrs − Power + nrs − PowerOffsetNonAnchor − NRSRP, wherein PLc is the path loss, nrs-Power is the transmission power of the downlink NRS transmitted by the base station, nrs-PowerOffsetNonAnchor is a non-anchor power offset of the downlink NRS, and NRSRP is the measurement value of the NRSRP, which is actual received power without higher layer filtering, measured by a physical layer of the UE, of the downlink NRS.
Method for fastening an accessory to a wall of a plastic fuel tank, this fastening taking place by snap-riveting using a tool, at the same time as said tank is manufactured by moulding, the accessory being, for this purpose, provided with at least one orifice through which the snap-riveting is carried out, the snap-riveting orifice being at least partially surrounded by a concave relief into which a convex relief of the tool presses in order to carry out the snap-riveting.
A body part for a motor vehicle, comprising a lenticular wall made of transparent molded plastic having a given refractive index (n) of greater than 1 and a given thickness (e) and comprises an external face and an internal face opposite the external face, wherein: - the external face of the lenticular wall forms an array of substantially spherical microlenses having a given radius of curvature and arranged at a given pitch (p1, p' 1), and - the internal face of the lenticular wall, supports an array of three-dimensional patterns arranged according to the pitch of the array of microlenses characterized in that said array of three-dimensional patterns is formed of fractions of a whole three-dimensional pattern (FM 11, FM 12, FM 13, FM 14, FM 21), of equal dimensions, two fractions of adjacent three-dimensional patterns being offset in the direction considered by a given phase shift (d, d'), and in which each of these fractions of three-dimensional patterns (FM 11, FM 12, FM 13, FM 14, FM 21), is enlarged by a given magnification coefficient), and are juxtaposed on the internal face beyond the lenticular wall at a pitch corresponding to the pitch (p 1, p' 1) of the microlenses. - the external face of the lenticular wall forms an array of substantially spherical microlenses having a given radius of curvature and arranged at a given pitch (p1, p' 1), and - the internal face of the lenticular wall, supports an array of three-dimensional patterns arranged according to the pitch of the array of microlenses characterized in that said array of three-dimensional patterns is formed of fractions of a whole three-dimensional pattern (FM 11, FM 12, FM 13, FM 14, FM 21), of equal dimensions, two fractions of adjacent three-dimensional patterns being offset in the direction considered by a given phase shift (d, d'), and in which each of these fractions of three-dimensional patterns (FM 11, FM 12, FM 13, FM 14, FM 21), is enlarged by a given magnification coefficient), and are juxtaposed on the internal face beyond the lenticular wall at a pitch corresponding to the pitch (p 1, p' 1) of the microlenses.
A tubular membrane element for electrically driven oxygen separation, said tubular membrane element comprising: an anode layer; a cathode layer; an electrolyte layer located between the anode layer and the cathode layer; two current collector layers (64, 66) located adjacent to and in contact with the anode layer and the cathode layer and situated on the inside and outside of the tubular membrane element to allow an electrical potential to be applied by a power source to induce oxygen ion transport through the electrolyte layer from the cathode layer to the anode layer; end seals (110, 111) located at opposite ends of the tubular membrane element, each of the end seals comprising a plug-like member (112, 114) located within the tubular membrane element and formed by an elastomer to produce a hermetic seal and means (116, 118) for retaining the plug-like member (112, 114) within the tubular membrane element; at least one sealed electrical feed-through (52, 54) penetrating at least one of the end seals (110, 111); a set of electrical conductors (78, 80, 84, 88) passing through the at least one sealed electrical feed-through (52, 54) and in electrical contact with one of the two current collector layers (64, 66) situated on the inside of the tubular membrane element and connected to the other of the two current collector layers (64, 66) situated on the outside of the tubular membrane element; and an outlet tube penetrating the one of the end seals (110, 111) or the other of the end seals (110, 111) to allow oxygen to be discharged from the tubular membrane element. an anode layer; a cathode layer; an electrolyte layer located between the anode layer and the cathode layer; two current collector layers (64, 66) located adjacent to and in contact with the anode layer and the cathode layer and situated on the inside and outside of the tubular membrane element to allow an electrical potential to be applied by a power source to induce oxygen ion transport through the electrolyte layer from the cathode layer to the anode layer; end seals (110, 111) located at opposite ends of the tubular membrane element, each of the end seals comprising a plug-like member (112, 114) located within the tubular membrane element and formed by an elastomer to produce a hermetic seal and means (116, 118) for retaining the plug-like member (112, 114) within the tubular membrane element; at least one sealed electrical feed-through (52, 54) penetrating at least one of the end seals (110, 111); a set of electrical conductors (78, 80, 84, 88) passing through the at least one sealed electrical feed-through (52, 54) and in electrical contact with one of the two current collector layers (64, 66) situated on the inside of the tubular membrane element and connected to the other of the two current collector layers (64, 66) situated on the outside of the tubular membrane element; and an outlet tube penetrating the one of the end seals (110, 111) or the other of the end seals (110, 111) to allow oxygen to be discharged from the tubular membrane element.
An electrode assembly of a secondary battery comprising: a positive electrode plate comprising a positive electrode active material applied to a positive electrode collector; a negative electrode plate comprising a negative electrode active material applied to a negative electrode collector; a separator (13, 14 and 15) disposed between the positive electrode plate and the negative electrode plate; and a ceramic layer to prevent the short-circuit between the positive electrode plate and the negative electrode plate, the ceramic layer being disposed along one or other of the positive electrode plate and the negative electrode plate and extending from a winding end of said one or other of the positive electrode plate and the negative electrode plate, along between about 40% and about 90% of the length of said one or other of the positive electrode plate and the negative electrode plate; wherein the winding end is located at an outer region of the electrode assembly; and wherein the positive electrode plate, the negative electrode plate, the ceramic layer, and the separator (13, 14, 15) are wound together. a positive electrode plate comprising a positive electrode active material applied to a positive electrode collector; a negative electrode plate comprising a negative electrode active material applied to a negative electrode collector; a separator (13, 14 and 15) disposed between the positive electrode plate and the negative electrode plate; and a ceramic layer to prevent the short-circuit between the positive electrode plate and the negative electrode plate, the ceramic layer being disposed along one or other of the positive electrode plate and the negative electrode plate and extending from a winding end of said one or other of the positive electrode plate and the negative electrode plate, along between about 40% and about 90% of the length of said one or other of the positive electrode plate and the negative electrode plate; wherein the winding end is located at an outer region of the electrode assembly; and wherein the positive electrode plate, the negative electrode plate, the ceramic layer, and the separator (13, 14, 15) are wound together.
A method for diagnosing and/or prognosing of colon cancer comprising the steps of: (i) determining an expression profile of a set comprising at least two miRNAs representative for colon cancer in a blood cell sample from a subject, and (ii) comparing said expression profile to a reference, wherein the comparison of said expression profile to said reference allows for the diagnosis and/or prognosis of colon cancer, wherein the set of miRNAs comprises at least one of the sets of miRNAs listed in Figure 2 or Figure 5b. (i) determining an expression profile of a set comprising at least two miRNAs representative for colon cancer in a blood cell sample from a subject, and (ii) comparing said expression profile to a reference, wherein the comparison of said expression profile to said reference allows for the diagnosis and/or prognosis of colon cancer,
An injection needle assembly comprising: a needle tube that has a needle tip capable of puncturing a living body and that is coated with a coating agent on the surface of a tip-end portion on the side of the needle tip; and a needle hub adapted to hold the needle tube in a state where the needle tip of the needle tube is protruded, wherein the needle hub has a through-hole through which the needle tube is inserted, characterized in that the needle hub comprises a base portion and an adjusting portion, a discharge hole extending from the through-hole to the outer surface of the needle hub and adapted to discharge the coating agent infiltrated into the through-hole, and the needle tube is held in the base portion and protrudes from the adjusting portion in which the discharge hole is located. a needle tube that has a needle tip capable of puncturing a living body and that is coated with a coating agent on the surface of a tip-end portion on the side of the needle tip; and a needle hub adapted to hold the needle tube in a state where the needle tip of the needle tube is protruded, wherein the needle hub has a through-hole through which the needle tube is inserted, characterized in that the needle hub comprises a base portion and an adjusting portion, a discharge hole extending from the through-hole to the outer surface of the needle hub and adapted to discharge the coating agent infiltrated into the through-hole, and the needle tube is held in the base portion and protrudes from the adjusting portion in which the discharge hole is located.
Steering system with a steering module for a vehicle with a steering input element and a sensor assembly comprising at least one sensor (5, 6, 7) for detecting the position or setting of the steering input element, and an actuating device taking effect on the steering input element, with a first actuator, wherein the actuating device is configured as redundant and comprises a second actuator, and wherein a control device is provided, with which the steering module is connected by way of signal technology, characterized in that a switchover element is provided, by means of which a switchover can be effected from a passive mode, in which the steering input element of the steering module is arranged downstream of a further steering input element, into an active mode, in which the steering input element serves to steer the vehicle.
An agricultural oil-based suspension formulation comprising an active ingredient suspended in finely divided form in an oil; and at least one surfactant selected from a polyalkylene glycol-fatty acid condensate or a polyalkylene glycolether fatty acid condensate formed from a reaction between a compound having Structure and a compound having Structure: wherein R 1 = H or a C 1 -C 30 alkyl radical; A and B are ethylene or propylene groups in succession or random; n = 0 or >1; and m=0 or >1, and wherein n+m > 34; R 2 = C 8 -C 30 alkyl or alkylene radical (branched or linear); and x = >1. wherein R 1 = H or a C 1 -C 30 alkyl radical; A and B are ethylene or propylene groups in succession or random; n = 0 or >1; and m=0 or >1, and wherein n+m > 34; R 2 = C 8 -C 30 alkyl or alkylene radical (branched or linear); and x = >1.
A beverage comprising: isolated fumaric acid; and isolated phenolics, wherein the isolated phenolics comprise proanthocyanidins (PACs), wherein the concentration of PACs is between 4.2x10 -4 mg/mL and 100 mg/mL, and wherein the concentration of fumaric acid is between 0.001% (weight/weight (w/w)) and 0.2% (w/w). isolated fumaric acid; and isolated phenolics, wherein the isolated phenolics comprise proanthocyanidins (PACs), wherein the concentration of PACs is between 4.2x10 -4 mg/mL and 100 mg/mL, and wherein the concentration of fumaric acid is between 0.001% (weight/weight (w/w)) and 0.2% (w/w).
A fastening unit (10, 10a, 10b, 10c, 10d) for fastening to a workpiece, said fastening unit (10, 10a, 10b, 10c, 10d) comprising a rivet element and a reshaping element coupled to the rivet element and movable relative thereto, wherein the rivet element has a rivet section and the reshaping element has a reshaping section and a support section arranged at a region of the reshaping element remote from the reshaping section for axially supporting the fastening unit (10, 10a, 10b, 10c, 10d) at an abutment, wherein the rivet section and the reshaping section are designed such that, on an axial relative movement between the rivet element and the reshaping element, the rivet section cooperates with the reshaping section and can be reshaped by it in a radial direction, wherein the support section and the reshaping section are arranged at oppositely disposed ends of the reshaping element and are spaced apart from one another, characterized in that an axial extent of the rivet element is smaller than that of the reshaping element. the support section and the reshaping section are arranged at oppositely disposed ends of the reshaping element and are spaced apart from one another, characterized in that an axial extent of the rivet element is smaller than that of the reshaping element.
A method for monitoring a Content Delivery Network, CDN, said CDN effecting requests routing toward delivery nodes, DNs, without using a load balancer and achieving high availability, the method comprising: - iteratively, for each delivery node: sending a monitoring request (42, 44) to the delivery node; if a response (46, 50) indicative of success of the monitoring request (42, 44) is received from the delivery node before the end of a first time interval, setting a status of the delivery node to indicate success; if a response (46, 50) indicative of failure of the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate failure; if no response (46, 50) to the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate indetermination; and - iteratively, at a second time interval: taking a snapshot of the statuses of the delivery nodes and producing a list of DNs with their statuses to be sent to a Request Router. - iteratively, for each delivery node: sending a monitoring request (42, 44) to the delivery node; if a response (46, 50) indicative of success of the monitoring request (42, 44) is received from the delivery node before the end of a first time interval, setting a status of the delivery node to indicate success; if a response (46, 50) indicative of failure of the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate failure; if no response (46, 50) to the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate indetermination; and sending a monitoring request (42, 44) to the delivery node; if a response (46, 50) indicative of success of the monitoring request (42, 44) is received from the delivery node before the end of a first time interval, setting a status of the delivery node to indicate success; if a response (46, 50) indicative of failure of the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate failure; if no response (46, 50) to the monitoring request (42, 44) is received from the delivery node before the end of the first time interval, setting the status of the delivery node to indicate indetermination; and - iteratively, at a second time interval: taking a snapshot of the statuses of the delivery nodes and producing a list of DNs with their statuses to be sent to a Request Router.
A process to produce ethylene copolymer comprising: i) contacting, in the gas phase or slurry phase, ethylene and one or more C 3 to C 20 comonomers, with a catalyst system comprising the reaction product of fluorided silica support, alkylalumoxane activator and at least two metallocene catalyst compounds, where the first metallocene is a bridged monocyclopentadienyl group 4 transition metal compound and the second metallocene is a biscyclopentadienyl group 4 transition metal compound where the fluorided silica support has not been calcined at a temperature of 400°C or more; and ii) obtaining an ethylene polymer having: 1) at least 50 mol% ethylene; 2) a reversed comonomer index, mol%, (RCI,m) of 85 or more; 3) a Comonomer Distribution Ratio-2 (CDR-2,m) of the mole percent comonomer at the z average molecular weight divided by the mole percent comonomer at the weight average molecular weight plus the number average molecular weight divided by 2 ([% comonomer at Mz] / [% comonomer at ((Mw+Mn)/2)]) as determined by GPC of 2.3 or more; and 4) a density of 0.91 g/cc or more. 1) at least 50 mol% ethylene; 2) a reversed comonomer index, mol%, (RCI,m) of 85 or more; 3) a Comonomer Distribution Ratio-2 (CDR-2,m) of the mole percent comonomer at the z average molecular weight divided by the mole percent comonomer at the weight average molecular weight plus the number average molecular weight divided by 2 ([% comonomer at Mz] / [% comonomer at ((Mw+Mn)/2)]) as determined by GPC of 2.3 or more; and 4) a density of 0.91 g/cc or more.