mhurhangee/ep-ind-claims huggingface dataset:
A terminal comprising: a receiving section configured to receive a downlink control information and a downlink shared channel that is scheduled by the downlink control information; and a control section configured to determine an allocation of the downlink shared channel in a time domain based on a first timing indicated by a first time unit and a second timing indicated by a second time unit that are obtained from information notified by the downlink control information, wherein the first time unit is a slot and the second time unit is a symbol. a receiving section configured to receive a downlink control information and a downlink shared channel that is scheduled by the downlink control information; and a control section configured to determine an allocation of the downlink shared channel in a time domain based on a first timing indicated by a first time unit and a second timing indicated by a second time unit that are obtained from information notified by the downlink control information, wherein the first time unit is a slot and the second time unit is a symbol.
A tool for machining, having a main body that determines an axis of rotation about which the tool rotates in operation, at least one seat, formed on the main body, for receiving an exchangeable cutting insert, a fastening screw for fastening the cutting insert to the seat, and a cutting insert fastened to the seat, wherein the seat has a base surface for supporting an underside of the cutting insert and a lateral bearing surface for a side face of the cutting insert to bear against, and a bore for receiving the fastening screw is formed in the base surface, wherein the bore has a threaded bore at a distance from the base surface and, closer toward the base surface, a thread-free bore portion, wherein the fastening screw has a threaded portion for engaging with the threaded bore, a head portion to be supported in a through-hole in the cutting insert, and a thread-free shank portion between the threaded portion and the head portion, which thread-free shank portion has a smaller cross section than the thread-free bore portion, wherein the cutting insert is fastened to the seat in such a way that the head portion of the fastening screw is supported on the through-hole in the cutting insert, the threaded portion of the fastening screw engages with the threaded bore and the fastening screw is elastically deflected in such a way that the thread-free shank portion bears against the thread-free bore portion on a side remote from the lateral bearing surface and is spaced apart from the thread-free bore portion on a side facing the lateral bearing surface, characterized in that the seat is free of a further bearing surface for supporting a further side face of the cutting insert, the thread-free bore portion is wider, in a direction parallel to the lateral bearing surface and perpendicular to a longitudinal axis of the fastening screw, than the diameter of the thread-free shank portion of the fastening screw, and the thread-free shank portion is deflected in the direction away from the lateral bearing surface.
A mixing device comprising a container for receiving mixing material, with an emptying opening being arranged in the bottom thereof, and a closure cover (6', 6") for closing the emptying opening, wherein the closure cover (6', 6") comprises two closure cover portions (6', 6") which can be reciprocated relative to each other between a closed position in which the two closure cover portions (6', 6") are in contact with each other and together form the closure cover (6', 6") and an opened position in which the two closure cover portions (6', 6") are spaced from each other so that an opening is formed between the two closure cover portions (6', 6") for removal of the mixing material from the container, wherein both closure cover portions (6', 6") can be pivoted about a pivot axis to reciprocate them between the closed position and the opened position, characterised in that both closure cover portions (6', 6") are pivotable about the same pivot axis.
A fuel cell device comprising: a ceramic support structure having an exterior surface and a multi-layer interior structure bound thereby, and having a reaction zone configured to be heated to an operating reaction temperature, and the multi-layer interior structure having a first active layer and a second active layer therein in the reaction zone; a first active cell in the first active layer comprising a first anode, a first cathode and a first electrolyte therebetween; a second active cell in the second active layer comprising a second anode, a second cathode and a second electrolyte therebetween; and an interior electrical interconnection (160, 162) between a pair of like electrodes connecting the first and second active cells in parallel within the multi-layer structure, wherein the pair of like electrodes is either the first and second anodes with a shared fuel passage therebetween or the first and second cathodes with a shared oxidizer passage therebetween, and wherein the pair of like electrodes includes a parallel section in which the pair of like electrodes are physically spaced apart within the multi-layer interior structure and separated by the shared fuel or oxidizer passage (14 or 20), characterized in that the pair of like electrodes includes a distorted section at an edge or center region of the shared fuel or oxidizer passage in which the pair of like electrodes are in physical and electrical contact within the multi-layer interior structure, the distorted section providing the interior electrical interconnection (160, 162). a ceramic support structure having an exterior surface and a multi-layer interior structure bound thereby, and having a reaction zone configured to be heated to an operating reaction temperature, and the multi-layer interior structure having a first active layer and a second active layer therein in the reaction zone; a first active cell in the first active layer comprising a first anode, a first cathode and a first electrolyte therebetween; a second active cell in the second active layer comprising a second anode, a second cathode and a second electrolyte therebetween; and an interior electrical interconnection (160, 162) between a pair of like electrodes connecting the first and second active cells in parallel within the multi-layer structure, wherein the pair of like electrodes is either the first and second anodes with a shared fuel passage therebetween or the first and second cathodes with a shared oxidizer passage therebetween, and wherein the pair of like electrodes includes a parallel section in which the pair of like electrodes are physically spaced apart within the multi-layer interior structure and separated by the shared fuel or oxidizer passage (14 or 20), characterized in that the pair of like electrodes includes a distorted section at an edge or center region of the shared fuel or oxidizer passage in which the pair of like electrodes are in physical and electrical contact within the multi-layer interior structure, the distorted section providing the interior electrical interconnection (160, 162).
A method of determining a contribution of a process feature to the performance of a process of patterning substrates, the method comprising: obtaining a first model trained on first process data and first performance data; identifying one or more substrates based on a quality of prediction of the first model when applied to process data associated with the one or more substrates; training a second model on second process data and second performance data associated with the identified one or more substrates; and using the second model to determine the contribution of the process feature of the second process data to the second performance data associated with the one or more substrates. obtaining a first model trained on first process data and first performance data; identifying one or more substrates based on a quality of prediction of the first model when applied to process data associated with the one or more substrates; training a second model on second process data and second performance data associated with the identified one or more substrates; and using the second model to determine the contribution of the process feature of the second process data to the second performance data associated with the one or more substrates.
Device for evaluating visual refraction correction of an individual, said device being of subjective type and comprising a support, said support comprising an optometry measuring scale, wherein that said optometry measuring scale (2G, 2H, 6G, 6H, 6K) comprises: • a plurality of processed optotypes (1, 2, 3, 4, 5, 2H, 6H) associated with a plurality of visual refraction corrections wherein each processed optotype (1, 2, 3, 4, 5, 2H, 6H) results from applying to a source optotype (2E, 6E) a determined image processing (2F, 6F) associated with a defined visual refraction correction, wherein said determined image processing (2F, 6F) comprises applying a deconvolution algorithm to a source optotype image by a complex amplitude function representative of spherical and/or cylindrical phase error for a predefined display distance, wherein said spherical error is function of an optical power and said cylindrical error is function of cylinder and axis values, said deconvolution algorithm being applied for a plurality of optical power values and/or cylinder and axis values, and • an identification system (2G, 6G, 6K) for determining each defined visual refraction correction associated with each processed optotype as a function of said predefined display distance and as a function of said plurality of optical power values and/or cylinder and axis values. • a plurality of processed optotypes (1, 2, 3, 4, 5, 2H, 6H) associated with a plurality of visual refraction corrections wherein each processed optotype (1, 2, 3, 4, 5, 2H, 6H) results from applying to a source optotype (2E, 6E) a determined image processing (2F, 6F) associated with a defined visual refraction correction, wherein said determined image processing (2F, 6F) comprises applying a deconvolution algorithm to a source optotype image by a complex amplitude function representative of spherical and/or cylindrical phase error for a predefined display distance, wherein said spherical error is function of an optical power and said cylindrical error is function of cylinder and axis values, said deconvolution algorithm being applied for a plurality of optical power values and/or cylinder and axis values, and • an identification system (2G, 6G, 6K) for determining each defined visual refraction correction associated with each processed optotype as a function of said predefined display distance and as a function of said plurality of optical power values and/or cylinder and axis values.
A set screw for threadable engagement with a head of a pedicle screw for holding a spinal rod, the set screw having a spinal rod facing side and a set screw driver facing side, comprising: an opening at the set screw driver facing side entirely traversing the set screw from the spinal rod facing side to the set screw driver facing side, the opening including an engagement mechanism for engaging with a set screw driver for threadably tightening the set screw to a pedicle screw; and an annular surface at the rod facing side surrounding the opening. an opening at the set screw driver facing side entirely traversing the set screw from the spinal rod facing side to the set screw driver facing side, the opening including an engagement mechanism for engaging with a set screw driver for threadably tightening the set screw to a pedicle screw; and an annular surface at the rod facing side surrounding the opening.
A device for supplying substrate bands (A', B', C', D') which are coiled on rolls (A, B, C, D) and realized as tube laminate bands into a packaging tube manufacturing process - having a first decoiling device (A 1) comprising brake means for interchangeably receiving a first roll for decoiling the substrate band (A') from the first roll, - having at least a second decoiling device (B 1) comprising brake means for interchangeably receiving a second roll for decoiling the substrate band (B') from the second roll - having a connecting device located downstream of the decoiling devices (A 1, B 1, C 1, D 1) for connecting a substrate band (A', B', C', D') of a roll (A, B, C, D) which is disposed on one of the decoiling devices (A 1, B 1, C 1, D 1) with an endless substrate band, - having a temporary storage whose filling level is variable and which is located downstream of the connecting device for temporarily storing the endless substrate band for the packaging tube manufacturing process, - having controlling means configured for controlling the brake means of the decoiling devices to set the respective decoiling velocity in accordance with the endless substrate band filling level of the temporary storage during an operating state of decoiling, characterized in that endless substrate band brake means for limiting a conveying velocity of the endless substrate band are disposed in the endless substrate conveying direction between the connecting device and the temporary storage, which, in a detaching operating state, in which the endless substrate band is no longer connected to any of the rolls (A, B, C, D) on the decoiling devices (A 1, B 1, C 1, D 1) and in which the free end of said endless substrate band is moving towards the connecting device, can be controlled via the controlling means in such a manner that the input conveying velocity of the endless substrate band in the temporary storage and the substrate band tension of the endless substrate band in the endless substrate conveying direction are adjustable upstream of the temporary storage. - having a first decoiling device (A 1) comprising brake means for interchangeably receiving a first roll for decoiling the substrate band (A') from the first roll, - having at least a second decoiling device (B 1) comprising brake means for interchangeably receiving a second roll for decoiling the substrate band (B') from the second roll - having a connecting device located downstream of the decoiling devices (A 1, B 1, C 1, D 1) for connecting a substrate band (A', B', C', D') of a roll (A, B, C, D) which is disposed on one of the decoiling devices (A 1, B 1, C 1, D 1) with an endless substrate band, - having a temporary storage whose filling level is variable and which is located downstream of the connecting device for temporarily storing the endless substrate band for the packaging tube manufacturing process, - having controlling means configured for controlling the brake means of the decoiling devices to set the respective decoiling velocity in accordance with the endless substrate band filling level of the temporary storage during an operating state of decoiling,
Kart comprising a chassis which extends substantially along a substantially horizontal reference plane, said chassis carrying a peripheral protection assembly formed by a plurality of separate protection elements (111 to 118), including: - at least one front protection element; and - at least one lateral protection element (114, 115) at each side of the kart, characterised in that at least one of the protection elements is fixedly joined to the chassis or to another protection element by a pivot connection (131 to 136) whose rotation axis extends substantially parallel with the reference plane, said pivot connection (131 to 136) enabling at least one of the protection elements (111 to 118) to pivot relative to the chassis and/or at least one other of the protection elements (111 to 118). - at least one front protection element; and - at least one lateral protection element (114, 115) at each side of the kart,
Process for preparing 2-chlorodialkylbenzylamines of the formula I where R1 and R2 are each, independently of one another, a C1-C10-alkyl group, characterized in that 2-chlorobenzaldehyde of the formula II is reacted with a dialkylamine of the formula III where R1 and R2 are as defined above, and hydrogen, where the reaction with hydrogen is carried out in the presence of a heterogeneous hydrogenation catalyst comprising cobalt, nickel, copper or mixtures of these three metals in total amounts of at least 5% by weight based on the total weight of all active metals of the hydrogenation catalyst.
An organic EL module comprising: a light-emitting display including a plurality of first electrode lines formed on a support substrate, an organic light-emitting layer formed on the first electrode lines, and a plurality of second electrode lines formed so as to intersect with the first electrode lines, a driver IC which is provided on the support substrate for applying a drive current between the first and the second electrode lines (12a, 12e), and a circuit board which is installed on the support substrate for connecting the driver IC to an external circuit, wherein a first wiring with one end connected to the driver IC and a second wiring decoupled from the first wiring are formed on the support substrate, and the first wiring is connected to the second wiring through a third wiring formed on the circuit board; characterized in that the second wiring is formed with one end connected to the first electrode lines or the second electrode lines and with the other end connected to the third wiring. a light-emitting display including a plurality of first electrode lines formed on a support substrate, an organic light-emitting layer formed on the first electrode lines, and a plurality of second electrode lines formed so as to intersect with the first electrode lines, a driver IC which is provided on the support substrate for applying a drive current between the first and the second electrode lines (12a, 12e), and a circuit board which is installed on the support substrate for connecting the driver IC to an external circuit, wherein a first wiring with one end connected to the driver IC and a second wiring decoupled from the first wiring are formed on the support substrate, and the first wiring is connected to the second wiring through a third wiring formed on the circuit board; characterized in that the second wiring is formed with one end connected to the first electrode lines or the second electrode lines and with the other end connected to the third wiring.
A thermally-conductive sheet comprising a polymer matrix and non-spherical particles of a thermally-conductive filler that are dispersed in the polymer matrix, wherein at least a part of the thermally-conductive filler particles are oriented in a thickness direction of the sheet, when a portion of the sheet where the thermally-conductive filler particles have the highest degree of orientation in the thickness direction of the sheet is defined as a center of orientation, and an axis passing through the center of orientation and perpendicular to sheet surfaces is defined as a central axis of orientation, the thermally-conductive sheet has a region where the thermally-conductive filler particles are oriented toward one point on the central axis of orientation and where the degree of orientation of the thermally-conductive filler particles in the thickness direction of the sheet decreases from the center of orientation toward a periphery of the sheet.
A method for predicting the risk of recurrence of breast cancer which comprises measuring the levels of all the miRNAs of the group consisting of: a. miR-149-5p (SEQ ID NO: 1); b. miR-10a-5p, (SEQ ID NO: 2); c. miR-20b-5p, (SEQ ID NO: 3); d. miR-30a-3p (SEQ ID NO: 4); and e. miR-342-5p, (SEQ ID NO: 5) in a sample of the tumor, wherein a drop in the level of all the miRNAs in the tumor with respect to a control is indicative of a high risk of recurrence of the tumor. a. miR-149-5p (SEQ ID NO: 1); b. miR-10a-5p, (SEQ ID NO: 2); c. miR-20b-5p, (SEQ ID NO: 3); d. miR-30a-3p (SEQ ID NO: 4); and e. miR-342-5p, (SEQ ID NO: 5)
A thermoplastic resin, comprising: an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer, or an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer; and a matrix resin comprising one or more selected from the group consisting of an aromatic vinyl compound-vinyl cyanide compound-alkyl methacrylate copolymer and an alkyl methacrylate polymer, wherein the transparency (haze), measured according to ASTM D-1003 under a condition of 3 mm thickness, is less than 5, the total content of the alkyl acrylate is 20 to 50 % by weight, and the alkyl acrylate coverage value as calculated by Equation 1 below is 65 or more: X = G − Y / Y × 100, wherein G represents the total gel content (%) of the thermoplastic resin, and Y represents the content (% by weight) of alkyl acrylate in the gel of the thermoplastic resin, wherein the total content of the alkyl acrylate in the thermoplastic resin, total gel content of the thermoplastic resin and the content of alkyl acrylate in the gel are measured as disclosed in the specification. an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer, or an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer; and a matrix resin comprising one or more selected from the group consisting of an aromatic vinyl compound-vinyl cyanide compound-alkyl methacrylate copolymer and an alkyl methacrylate polymer, wherein the transparency (haze), measured according to ASTM D-1003 under a condition of 3 mm thickness, is less than 5, the total content of the alkyl acrylate is 20 to 50 % by weight, and the alkyl acrylate coverage value as calculated by Equation 1 below is 65 or more: X = G − Y / Y × 100, wherein G represents the total gel content (%) of the thermoplastic resin, and Y represents the content (% by weight) of alkyl acrylate in the gel of the thermoplastic resin, wherein the total content of the alkyl acrylate in the thermoplastic resin, total gel content of the thermoplastic resin and the content of alkyl acrylate in the gel are measured as disclosed in the specification.