mhurhangee/ep-ind-claims huggingface dataset:
An article comprising a substrate comprising two main faces defining two main surfaces separated by edges, said substrate bearing: - a functional coating deposited by magnetron sputtering on at least one portion of one main surface and - a temporary protective layer deposited on at least one portion of the functional coating, characterized in that: - the temporary protective layer has a thickness of at least 1 micrometer, - the temporary protective layer is not soluble in water, - the temporary protective layer is obtained from a composition comprising (meth)acrylate compounds, - the substrate bearing the functional coating has not undergone a heat treatment at a temperature above 400°C. - a functional coating deposited by magnetron sputtering on at least one portion of one main surface and - a temporary protective layer deposited on at least one portion of the functional coating, - the temporary protective layer has a thickness of at least 1 micrometer, - the temporary protective layer is not soluble in water, - the temporary protective layer is obtained from a composition comprising (meth)acrylate compounds, - the substrate bearing the functional coating has not undergone a heat treatment at a temperature above 400°C.
A nucleic acid regulatory element for enhancing endothelial cell-specific gene expression comprising the sequence of SEQ ID NO:22, wherein said regulatory element has a maximal length of 1000 nucleotides.
A system for storing objects, such as surgical instruments, in predetermined storage containers, comprising a conveyor for transporting objects placed on the conveyor to a camera for recognizing the objects by reading an identification code provided on each object and a transport device for transporting each object from the conveyor to the storage container for which it intended, characterized in that it comprises a transfer device for transferring each recognized object, from the conveyor to a transport box for transporting the object into the container for which it is intended, and a support means for said transport box which is capable to be moved according to a step-wise movement, each step of the transport device corresponding to a one step ahead movement of the conveyor, during which the object has been recognized by the recognition camera.
A method comprising: receiving a request to restore a directory from a specific snapshot; determining, by a computing device, one or more valid data ranges for each of a plurality of files of the received directory by traversing data range records for each file in reverse time order from the snapshot identified in the received restore request to a baseline snapshot; determining, by the computing device, a data block name (A;B;C;D;E;F) mapped to each of the valid data ranges in data map records of a key-value store that are keyed by local snapshot identifiers corresponding to the identified and down to the baseline snapshot, wherein the files are within the directory and the snapshot identified in the received restore request; tracking, by the computing device, a unique instance of each of the data block names comprising adding a first one of the data block names to a tracking list of data block names when the first one of the data block names is determined to be a first occurrence during a restore that is responsive to the restore request, wherein a second one of the data block names corresponds to one of the valid data ranges comprising at least a portion that is shared by two or more of the files; and communicating, by the computing device, retrieved data blocks assigned to the tracked unique instances of each of the data block names to a restore target identified in the received restore request in order to facilitate restoration of the files. determining, by a computing device, one or more valid data ranges for each of a plurality of files of the received directory by traversing data range records for each file in reverse time order from the snapshot identified in the received restore request to a baseline snapshot; determining, by the computing device, a data block name (A;B;C;D;E;F) mapped to each of the valid data ranges in data map records of a key-value store that are keyed by local snapshot identifiers corresponding to the identified and down to the baseline snapshot, wherein the files are within the directory and the snapshot identified in the received restore request; tracking, by the computing device, a unique instance of each of the data block names comprising adding a first one of the data block names to a tracking list of data block names when the first one of the data block names is determined to be a first occurrence during a restore that is responsive to the restore request, wherein a second one of the data block names corresponds to one of the valid data ranges comprising at least a portion that is shared by two or more of the files; and communicating, by the computing device, retrieved data blocks assigned to the tracked unique instances of each of the data block names to a restore target identified in the received restore request in order to facilitate restoration of the files.
A method for sending control information comprising: repeatedly sending the control information within a scheduling period for the control information M times, wherein the scheduling period is a length of N radio frames, N and M are positive integers greater than 1, and N is greater than or equal to M; wherein repeatedly sending the control information M times within the scheduling period the length of which is N radio frames comprises: determining a system frame number of a radio frame where pre-defined resources for sending the control information are located, wherein there are M pre-defined resources for sending the control information in the scheduling period; and sending the control information on the radio frame corresponding to the determined system frame number; a system frame number h of, in the N radio frames, the control information being transmitted in the N radio frames for the kth time is determined according to one of the following formulas: h = ⌈ k × N M ⌉ % ⁢ N h = ⌈ k × N M ⌉ + T % ⁢ N where k is a positive integer less than or equal to M, h is a positive integer less than or equal to N, % indicates a modulo operation, ┌┐ indicates a round-up operation, and T is at least one of the followings: a pre-defined value, a cell identifier and a signalling indication value. repeatedly sending the control information within a scheduling period for the control information M times, wherein the scheduling period is a length of N radio frames, N and M are positive integers greater than 1, and N is greater than or equal to M; wherein repeatedly sending the control information M times within the scheduling period the length of which is N radio frames comprises: determining a system frame number of a radio frame where pre-defined resources for sending the control information are located, wherein there are M pre-defined resources for sending the control information in the scheduling period; and sending the control information on the radio frame corresponding to the determined system frame number; a system frame number h of, in the N radio frames, the control information being transmitted in the N radio frames for the kth time is determined according to one of the following formulas: h = ⌈ k × N M ⌉ % ⁢ N h = ⌈ k × N M ⌉ + T % ⁢ N where k is a positive integer less than or equal to M, h is a positive integer less than or equal to N, % indicates a modulo operation, ┌┐ indicates a round-up operation, and T is at least one of the followings: a pre-defined value, a cell identifier and a signalling indication value.
Oxidizing composition for dyeing or bleaching keratin fibres comprising, in a cosmetically acceptable medium: - one or more fatty alcohols; - one or more oxyalkylenated fatty alcohols; - one or more oxidizing agents; - at least 10 wt%, relative to the total weight of the composition, of one or more oils other than fatty alcohols; the fatty alcohols/oxyalkylenated fatty alcohol weight ratio being less than or equal to 5, the pH of this composition being between 1.5 and 4.5; and - one or more optionally oxyalkylenated C 8 -C 30 fatty acid amides. - one or more fatty alcohols; - one or more oxyalkylenated fatty alcohols; - one or more oxidizing agents; - at least 10 wt%, relative to the total weight of the composition, of one or more oils other than fatty alcohols; the fatty alcohols/oxyalkylenated fatty alcohol weight ratio being less than or equal to 5, the pH of this composition being between 1.5 and 4.5; and - one or more optionally oxyalkylenated C 8 -C 30 fatty acid amides.
Method for controlling a drill rig which includes a carrier vehicle with at least one feed-beam, whereon a drill machine is movable to-and-fro, wherein rig parameters are set by a control unit and wherein each one of a plurality of operating modes (M1-M6) includes specified operating settings for different operating parameters of the rig, wherein each operating mode (M1-M6) is selectable such that operation of the rig is related to a particular type of rock, in which drilling is to be performed, and - each operating mode (M1-M6) includes operating settings that are adapted to the prevailing type of rock, characterised in that bit size is selected, and wherein one or more of the following varies as a function of bit size: flushing flow, rotation speed, feed pressure, percussion pressure, ratio feed force - rotation torque relation, starting point for initiating anti-jam function, - activation of one operating mode (M1-M6) also sets the parameter values for, activates or de-activates different drilling control functions, being one or more from the group: boost, hole flushing, damping control function, boosted rotation, anti-jam function, pressure control of feed, flow control of feed. - each operating mode (M1-M6) includes operating settings that are adapted to the prevailing type of rock, characterised in that bit size is selected, and wherein one or more of the following varies as a function of bit size: flushing flow, rotation speed, feed pressure, percussion pressure, ratio feed force - rotation torque relation, starting point for initiating anti-jam function, - activation of one operating mode (M1-M6) also sets the parameter values for, activates or de-activates different drilling control functions, being one or more from the group: boost, hole flushing, damping control function, boosted rotation, anti-jam function, pressure control of feed, flow control of feed.
Balance spring - collet assembly for a timepiece movement, comprising a collet and a balance spring attached at its inner end to the collet, the collet being adapted for mounting on a shaft, the external periphery of the collet defining abutments (10a, 10b, 10c) against which the inner turn of the balance spring may come to rest during a shock before the elastic limit of the inner turn is exceeded, characterised in that said abutments (10a, 10b, 10c) are situated at respective distances (Ra, Rb, Rc) from the centre of the shaft that increase in the direction of the balance spring from the inside to the outside starting at the point of junction between the balance spring and the collet and in that the balance spring - collet assembly is made from a material that is not capable of plastic deformation, said material being diamond-based.
Method for manufacturing a heat exchanger of the brazed plate and fin type, comprising the following steps: a) stacking, with spacings between them, a set of plates parallel to one another and to a longitudinal direction (z) so as to define, between said plates, a plurality of passages suitable for the flow in the longitudinal direction (z) of a first fluid to be brought into a heat-exchange relationship with at least a second fluid, said plates being delimited by a pair of longitudinal edges extending in the longitudinal direction (z) and a pair of lateral edges extending in a lateral direction (x) perpendicular to the longitudinal direction (z), b) forming at least one of the plates stacked in step a) by superposing, in a stacking direction (y) perpendicular to the longitudinal (z) and lateral (x) directions, at least a first flat product and a second flat product on top of one another, at least one of the first and second flat products (21, 22) comprising at least one groove that extends parallel to the plates and leads towards the outside of the stack through at least one opening in a lateral or longitudinal edge (4a, 4b), the method being characterized by the following steps: c) arranging at least one removable shim in the groove, d) brazing the set of plates, including the first flat product, to the second flat product, e) taking the removable shim out of the groove via the opening, f) introducing at least one temperature probe into the groove. a) stacking, with spacings between them, a set of plates parallel to one another and to a longitudinal direction (z) so as to define, between said plates, a plurality of passages suitable for the flow in the longitudinal direction (z) of a first fluid to be brought into a heat-exchange relationship with at least a second fluid, said plates being delimited by a pair of longitudinal edges extending in the longitudinal direction (z) and a pair of lateral edges extending in a lateral direction (x) perpendicular to the longitudinal direction (z), b) forming at least one of the plates stacked in step a) by superposing, in a stacking direction (y) perpendicular to the longitudinal (z) and lateral (x) directions, at least a first flat product and a second flat product on top of one another, at least one of the first and second flat products (21, 22) comprising at least one groove that extends parallel to the plates and leads towards the outside of the stack through at least one opening in a lateral or longitudinal edge (4a, 4b), the method being characterized by the following steps: c) arranging at least one removable shim in the groove, d) brazing the set of plates, including the first flat product, to the second flat product, e) taking the removable shim out of the groove via the opening, f) introducing at least one temperature probe into the groove. c) arranging at least one removable shim in the groove, d) brazing the set of plates, including the first flat product, to the second flat product, e) taking the removable shim out of the groove via the opening, f) introducing at least one temperature probe into the groove.
Mounting device with a control wheel, comprising a wall section with a bearing pin, a frame arranged at the wall section and a control wheel which is rotatably mounted by way of the bearing pin and which projects, in a section, beyond an opening in the frame, characterised in that - the wall section comprises a mount arranged at a spacing from the bearing pin, which faces away from the frame, - the mount counteracts displacement, in at least one direction, of the control wheel parallel to the axis of rotation of the control wheel and - a spring device urging the control wheel towards a contact region of the frame is arranged at the frame. - the wall section comprises a mount arranged at a spacing from the bearing pin, which faces away from the frame, - the mount counteracts displacement, in at least one direction, of the control wheel parallel to the axis of rotation of the control wheel and - a spring device urging the control wheel towards a contact region of the frame is arranged at the frame.
An anti-CD28 single immunoglobulin variable domain antibody for use in treating systemic lupus erythematosus in a patient, which comprises a variable domain, wherein the variable domain comprises the amino acid sequence of SEQ ID NO: 12 (1h-239-891(D70C)) or differs from SEQ ID NO: 12 by up to 5 amino acids, wherein the anti-CD28 domain antibody is administered subcutaneously at a dose of 12.5 mg every week or every two weeks, wherein the variable domain of the anti-CD28 single immunoglobulin variable domain antibody comprises: a CDR1 region having the amino acid sequence of SEQ ID NO: 1; a CDR2 region having the amino acid sequence of SEQ ID NO: 2; and a CDR3 region having the amino acid sequence of SEQ ID NO: 3.
A mobile terminal comprising: a first frame; a second frame slidable with respect to the first frame in a first direction and in a second direction opposite to the first direction; a slide rail formed on the first frame and extending in the first direction; a slidably-moving portion fixed to the second frame and movable along the slide rail in the first direction and in the second direction; a sensing terminal located on the slide rail; a ground terminal located on a face of the slidably-moving portion facing the slide rail and configured to contact the sensing terminal at predetermined first position of the slidably-moving portion with respect to the slide rail corresponding to a predetermined first sliding position of the second frame with respect to the first frame; a power supply unit; an input resistor having one end connected to the power supply unit; a sensing resistor having one end connected to the sensing terminal and the other end connected to the other end of the input resistor; a detecting unit configured to measure the voltage (Vout) at said other end of the input resistor; and a controller configured to determine the sliding position of the second frame with respect to the first frame when the ground terminal is in contact with the sensing terminal based on the voltage measured by the detecting unit. a first frame; a second frame slidable with respect to the first frame in a first direction and in a second direction opposite to the first direction; a slide rail formed on the first frame and extending in the first direction; a slidably-moving portion fixed to the second frame and movable along the slide rail in the first direction and in the second direction; a sensing terminal located on the slide rail; a ground terminal located on a face of the slidably-moving portion facing the slide rail and configured to contact the sensing terminal at predetermined first position of the slidably-moving portion with respect to the slide rail corresponding to a predetermined first sliding position of the second frame with respect to the first frame; a power supply unit; an input resistor having one end connected to the power supply unit; a sensing resistor having one end connected to the sensing terminal and the other end connected to the other end of the input resistor; a detecting unit configured to measure the voltage (Vout) at said other end of the input resistor; and a controller configured to determine the sliding position of the second frame with respect to the first frame when the ground terminal is in contact with the sensing terminal based on the voltage measured by the detecting unit.
A top cover assembly, for a battery cell, comprising: a separator plate, wherein the separator plate is provided with sampling channel(s) for accommodating a sampling member; and a top cover plate, wherein the top cover plate is configured to seal an electrode assembly of the battery cell into a battery housing, wherein the top cover plate is provided below the separator plate, and the separator plate is fixed to the top cover plate; wherein a bottom of the separator plate is provided with a protrusion portion, a top of the top cover plate is provided with a blind hole, and the protrusion portion is accommodated in the blind hole so as to fix the separator plate to the top cover plate; or a top of the top cover plate is provided with a projection portion, the separator plate is provided with a through hole, and the projection part penetrates the through hole and rivets the separator plate so as to fix the separator to the top cover plate. a separator plate, wherein the separator plate is provided with sampling channel(s) for accommodating a sampling member; and a top cover plate, wherein the top cover plate is configured to seal an electrode assembly of the battery cell into a battery housing, wherein the top cover plate is provided below the separator plate, and the separator plate is fixed to the top cover plate; wherein a bottom of the separator plate is provided with a protrusion portion, a top of the top cover plate is provided with a blind hole, and the protrusion portion is accommodated in the blind hole so as to fix the separator plate to the top cover plate; or a top of the top cover plate is provided with a projection portion, the separator plate is provided with a through hole, and the projection part penetrates the through hole and rivets the separator plate so as to fix the separator to the top cover plate.
Device (1, 1') for precipitation of fluid and/or particulate impurities from a fluid stream (F, F') comprising at least one first guiding element (3, 3') and at least a second guiding element (11, 11'), wherein it is possible to impose at least one first change in direction to the fluid stream (F, F') by means of the first guiding element (3, 3') and wherein it is possible to impose at least one second change in direction to the fluid stream (F, F') by means of the second guiding element (11, 11'), characterized in that the fluid stream (F, F') flows essentially flows in a laminar fashion along the first guiding element (3, 3') and the second guiding element (11, 11') and the device comprises at least one support frame (9, 9') wherein the first guiding element (3, 3') and/or the second guiding element (11, 11') is/are indirectly supported by the support frame (9, 9') such that the first guiding element (3, 3') and/or the second guide element are movably supported relative to the support frame (9, 9') against at least one restoring force established by at least one resetting device.
A biochip holder kit, comprising: a biochip holder configured to have a concavity for accommodating a biochip, the concavity having a bottom surface at its lower end, and configured to have a support portion formed at a lower end position of a side surface defining the concavity to support substantially horizontally a biochip accommodated in the concavity in a way that the surface of the biochip facing the bottom surface of the concavity is positioned upward away from the bottom surface of the concavity, wherein the biochip holder includes a channel formed on the side surface of the concavity to be connected to the outside of the biochip holder and to circulate a liquid; and a retainer for securing the biochip accommodated in the concavity within the concavity, wherein the retainer is formed in a frame shape, has an upper edge and a lower edge, and is configured to be fitted into the concavity so that the retainer abuts the periphery of the biochip from above and the biochip is sandwiched between the retainer and the support portion; and wherein the biochip holder is formed with a material containing cyclo-olefin copolymers. a biochip holder configured to have a concavity for accommodating a biochip, the concavity having a bottom surface at its lower end, and configured to have a support portion formed at a lower end position of a side surface defining the concavity to support substantially horizontally a biochip accommodated in the concavity in a way that the surface of the biochip facing the bottom surface of the concavity is positioned upward away from the bottom surface of the concavity, wherein the biochip holder includes a channel formed on the side surface of the concavity to be connected to the outside of the biochip holder and to circulate a liquid; and a retainer for securing the biochip accommodated in the concavity within the concavity, wherein the retainer is formed in a frame shape, has an upper edge and a lower edge, and is configured to be fitted into the concavity so that the retainer abuts the periphery of the biochip from above and the biochip is sandwiched between the retainer and the support portion; and wherein the biochip holder is formed with a material containing cyclo-olefin copolymers.