mhurhangee/ep-ind-claims huggingface dataset:
A keyboard assembly for an electronic device, the keyboard assembly comprising: a dome-shaped element comprising: a concave surface originating at a center of the dome-shaped element and terminating at a periphery of the dome-shaped element, the concave surface being deflectable between an un-deflected position and a deflected position and configured to affect an operation of the electronic device in the deflected position; a substrate on which the dome-shaped element is operably disposed; and a laminate disposed at a distance from the substrate, the dome-shaped element being interposed between the substrate and the laminate, characterised in that the concave surface comprises an annular array of elastic elements extending from the centre to the periphery, at least one of the elastic elements comprising a first portion with a first slope proximate to the centre and a second portion with a second slope proximate to the periphery. a dome-shaped element comprising: a concave surface originating at a center of the dome-shaped element and terminating at a periphery of the dome-shaped element, the concave surface being deflectable between an un-deflected position and a deflected position and configured to affect an operation of the electronic device in the deflected position; a concave surface originating at a center of the dome-shaped element and terminating at a periphery of the dome-shaped element, the concave surface being deflectable between an un-deflected position and a deflected position and configured to affect an operation of the electronic device in the deflected position; a substrate on which the dome-shaped element is operably disposed; and a laminate disposed at a distance from the substrate, the dome-shaped element being interposed between the substrate and the laminate,
A spherical particle being between 50 - 300 μm in diameter, wherein the particle encapsulates at least one viable, intact biological cell, wherein the particle consists of decellularized omentum and biological cells.
A two-way vehicle with mobile welding device for welding a rail, the vehicle being designed to be mobile on a track as well as on a road, with a tractive vehicle 8 including a machine frame 4 and a welding unit connected to a machine frame and designed to be lowered, wherein the welding unit is connected non-separably to the tractive vehicle via the pivot bearing with floating coupling and the permanent flexible connection, characterized in that the two-way vehicle has a transport trailer which is mobile on a road and can be coupled to the tractive vehicle and that the lowered welding unit can be positioned on the transport trailer coupled to the tractive vehicle for a transport on the road.
Process for the continuous production of sponge bodies out of regenerated cellulose by use of at least partly agglomerated pore-forming agents which comprises first providing a viscose solution, admixing this viscose solution with the pore-forming agent, depositing the viscose solution on a continuously moving belt transporter, wherein the viscose solution on the belt transporter is led through baths to form a porous mass of regenerated cellulose, characterized in that the pore-forming agent undergoes pelletization.
An acoustic filter suitable for reciprocating compressor comprising at least a superior body, at least an inferior body, at least an internal body, at least one inlet pipeline, at least one outlet pipeline, and at least one intermediate pipeline, CHARACTERIZED in that: said acoustic filter comprises at least two horizontal chambers (5, 6), wherein a first horizontal chamber is disposed over a second horizontal chamber; said horizontal chambers (5, 6) are delimited by the internal body; said at least one inlet pipeline protudes from the superior body connecting the exterior of said acoustic filter to the first horizontal chamber; said at least one intermeadiate pipeline is comprised by the internal body, wherein said intermediate pipeline extends to both horizontal chambers (5, 6) from the internal body; said at least one outlet pipeline of the superior body connects the second horizontal chamber to the compressor chamber of the compressor; said at least one intermediate pipeline comprising a superior portion, which extends from the internal body to the first horizontal chamber with a length that is equivalent to 75% to 98% of the height of the first horizontal chamber. said acoustic filter comprises at least two horizontal chambers (5, 6), wherein a first horizontal chamber is disposed over a second horizontal chamber; said horizontal chambers (5, 6) are delimited by the internal body; said at least one inlet pipeline protudes from the superior body connecting the exterior of said acoustic filter to the first horizontal chamber; said at least one intermeadiate pipeline is comprised by the internal body, wherein said intermediate pipeline extends to both horizontal chambers (5, 6) from the internal body; said at least one outlet pipeline of the superior body connects the second horizontal chamber to the compressor chamber of the compressor; said at least one intermediate pipeline comprising a superior portion, which extends from the internal body to the first horizontal chamber with a length that is equivalent to 75% to 98% of the height of the first horizontal chamber.
A method for synchronization message transmission, comprising: selecting from a Flexible Ethernet, FlexE, group, by a transmitting end, at least one Ethernet Physical Layer Link, PHY, for synchronization message transmission (S201, S601, S701); after encapsulating a synchronization message according to a preset encapsulation strategy, inserting, by the transmitting end, the synchronization message into a synchronization message channel in overhead of the selected Ethernet PHY (S202, S602, S702), wherein the synchronization message comprises a Precision Time Protocol, PTP, message; and transmitting, by the transmitting end, the synchronization message through the selected Ethernet PHY. selecting from a Flexible Ethernet, FlexE, group, by a transmitting end, at least one Ethernet Physical Layer Link, PHY, for synchronization message transmission (S201, S601, S701); after encapsulating a synchronization message according to a preset encapsulation strategy, inserting, by the transmitting end, the synchronization message into a synchronization message channel in overhead of the selected Ethernet PHY (S202, S602, S702), wherein the synchronization message comprises a Precision Time Protocol, PTP, message; and transmitting, by the transmitting end, the synchronization message through the selected Ethernet PHY.
An apparatus of a user equipment, UE, the apparatus comprising: an interface; and processing circuitry in communication with the interface and arranged to: decode a configuration to send multiple channel state information, CSI, reports to a base station, wherein the configuration specifies a CSI reporting periodicity on the physical uplink control channel, PUCCH; decode a medium access control, MAC, control element, CE, the MAC CE including a request to activate the multiple CSI reports via the PUCCH, each CSI report of the multiple CSI reports describing channel status for a channel between the base station and the UE; transmit the multiple CSI reports in response to the MAC CE; stop transmitting the multiple CSI reports responsive to receiving a second MAC CE deactivating the multiple CSI reports; and for each of the multiple CSI reports: generate the respective CSI report according to the configuration; and encode the respective CSI report for transmission to the base station on the PUCCH. an interface; and processing circuitry in communication with the interface and arranged to: decode a configuration to send multiple channel state information, CSI, reports to a base station, wherein the configuration specifies a CSI reporting periodicity on the physical uplink control channel, PUCCH; decode a medium access control, MAC, control element, CE, the MAC CE including a request to activate the multiple CSI reports via the PUCCH, each CSI report of the multiple CSI reports describing channel status for a channel between the base station and the UE; transmit the multiple CSI reports in response to the MAC CE; stop transmitting the multiple CSI reports responsive to receiving a second MAC CE deactivating the multiple CSI reports; and decode a configuration to send multiple channel state information, CSI, reports to a base station, wherein the configuration specifies a CSI reporting periodicity on the physical uplink control channel, PUCCH; decode a medium access control, MAC, control element, CE, the MAC CE including a request to activate the multiple CSI reports via the PUCCH, each CSI report of the multiple CSI reports describing channel status for a channel between the base station and the UE; transmit the multiple CSI reports in response to the MAC CE; stop transmitting the multiple CSI reports responsive to receiving a second MAC CE deactivating the multiple CSI reports; for each of the multiple CSI reports: generate the respective CSI report according to the configuration; and encode the respective CSI report for transmission to the base station on the PUCCH. generate the respective CSI report according to the configuration; and encode the respective CSI report for transmission to the base station on the PUCCH.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein: - n 2 is an integer varying from 1 to 7, wherein if n 2 = 4, the 6-membered ring is without substituents, or is di-substituted by hydroxyl groups, or includes a double bond, or is an heterocycle with an oxygen as heteroatom, or is aromatic, - Z represents OH, NH-OH, or NMe-OH - R 7 represents a (C 1 -C 6)alkyl group or a -CH 2 -Ph-R' group with R' in ortho, meta or para position, wherein R' is selected from the group consisting of an hydrogen atom, -COOH, -NH 2, -N=C=S, -SH, or any functional group suitable for conjugation such as an activated ester or a group bearing a maleimide, and - wherein asymmetric carbon atoms are in or configuration. - n 2 is an integer varying from 1 to 7, - Z represents OH, NH-OH, or NMe-OH - R 7 represents a (C 1 -C 6)alkyl group or a -CH 2 -Ph-R' group with R' in ortho, meta or para position, wherein R' is selected from the group consisting of an hydrogen atom, -COOH, -NH 2, -N=C=S, -SH, or any functional group suitable for conjugation such as an activated ester or a group bearing a maleimide, and - wherein asymmetric carbon atoms are in or configuration.
A product for optical use, the product comprising at least three splittable superposed layers, namely: · a transparent and flexible optical layer that has two opposite optical faces (33, 34), one of which is adapted to be applied to an eyeglass lens, and that presents a characteristic thickness, a thickness at any point of the layer comprised between 0.2 and 3 mm and a Young's modulus that is less than 1000 MPa; · a first packaging layer for packaging said optical layer, which first packaging layer is fastened to one of the two optical faces (33, 34) of the optical layer and presents a characteristic thickness, a thickness at any point of the layer greater than 1 mm, and a Young's modulus greater than 800 MPa; and · a second packaging layer for packaging said optical layer, which second packaging layer is fastened to the other optical face (33, 34) of the optical layer and presents a characteristic thickness, a thickness at any point of the layer greater than 1 mm, and a Young's modulus greater than 800 MPa; wherein, each layer (31, 34, 35) presents a stiffness defined by a same linear function of the product of its Young's modulus multiplied by its characteristic thickness, and said first packaging layer presents stiffness that is greater than the stiffness of said optical layer and that is suitable for enabling the product to be machined by means of an eyeglass lens shaper appliance, and wherein the optical layer is manually detachable from each packaging layer (35, 36) to enable it subsequently to be fitted on an eyeglass lens. · a transparent and flexible optical layer that has two opposite optical faces (33, 34), one of which is adapted to be applied to an eyeglass lens, and that presents a characteristic thickness, a thickness at any point of the layer comprised between 0.2 and 3 mm and a Young's modulus that is less than 1000 MPa; · a first packaging layer for packaging said optical layer, which first packaging layer is fastened to one of the two optical faces (33, 34) of the optical layer and presents a characteristic thickness, a thickness at any point of the layer greater than 1 mm, and a Young's modulus greater than 800 MPa; and · a second packaging layer for packaging said optical layer, which second packaging layer is fastened to the other optical face (33, 34) of the optical layer and presents a characteristic thickness, a thickness at any point of the layer greater than 1 mm, and a Young's modulus greater than 800 MPa;
A system for performing pneumatic control of a microflluidic device, comprising: a pneumatic connector, the pneumatic connector comprising a housing having a plurality of channels passing through, each channel further comprising a filter; and a pneumatic controller, the pneumatic controller comprising an interface; wherein the plurality of channels are each in communication with the interface of the pneumatic controller, the pneumatic controller configured to supply variable pressure to each of said plurality of channels through said interface. a pneumatic connector, the pneumatic connector comprising a housing having a plurality of channels passing through, each channel further comprising a filter; and a pneumatic controller, the pneumatic controller comprising an interface; wherein the plurality of channels are each in communication with the interface of the pneumatic controller, the pneumatic controller configured to supply variable pressure to each of said plurality of channels through said interface.
A golf ball comprising a core, a mid layer positioned outside the core, an inner cover positioned outside the mid layer, and an outer cover positioned outside the inner cover, wherein the core has a diameter of equal to or greater than 38.0 mm, when distances (%) from a central point of the core to nine points and JIS-C hardnesses at the nine points, which nine points are obtained by dividing a region from the central point of the core to a surface of the core at intervals of 12.5% of a radius of the core, are plotted in a graph, R 2 of a linear approximation curve obtained by a least-square method is equal to or greater than 0.95, a Shore D hardness Hm of the mid layer is greater than a Shore D hardness Hc1 of the inner cover, wherein either i) the hardness Hm is greater than a Shore D hardness Hc2 of the outer cover, and a thickness T1 of the inner cover is equal to or greater than 0.1 mm but equal to or less than 0.8 mm, or ii) a Shore D hardness Hc2 of the outer cover is greater than the hardness Hc1. i) the hardness Hm is greater than a Shore D hardness Hc2 of the outer cover, and a thickness T1 of the inner cover is equal to or greater than 0.1 mm but equal to or less than 0.8 mm, or ii) a Shore D hardness Hc2 of the outer cover is greater than the hardness Hc1.
A method of scheduling transmissions in a mobile communication system, said method comprising: determining a bandwidth assignment for at least one scheduled mobile terminal i during a scheduling interval comprising two or more time slots; determining a frequency hopping pattern for said scheduled mobile terminal over said scheduling interval based on said bandwidth assignment for said scheduled mobile terminal, wherein determining the frequency hopping pattern for said scheduled mobile terminal over said scheduling interval comprises determining a frequency offset for said mobile terminal for different time slots in said scheduling interval, such that there is a dependency between L i, the assigned bandwidth for said scheduled mobile terminal i measured in number of resource blocks, and the frequency offset K i (j) for a time slot j, such that K i (j) may only take on values in the range 0 to N-L i, where N is the total number of available resource blocks; and transmitting to said scheduled mobile terminal the bandwidth assignment and frequency hopping pattern for the scheduling interval in a scheduling grant. determining a bandwidth assignment for at least one scheduled mobile terminal i during a scheduling interval comprising two or more time slots; determining a frequency hopping pattern for said scheduled mobile terminal over said scheduling interval based on said bandwidth assignment for said scheduled mobile terminal, wherein determining the frequency hopping pattern for said scheduled mobile terminal over said scheduling interval comprises determining a frequency offset for said mobile terminal for different time slots in said scheduling interval, such that there is a dependency between L i, the assigned bandwidth for said scheduled mobile terminal i measured in number of resource blocks, and the frequency offset K i (j) for a time slot j, such that K i (j) may only take on values in the range 0 to N-L i, where N is the total number of available resource blocks; and transmitting to said scheduled mobile terminal the bandwidth assignment and frequency hopping pattern for the scheduling interval in a scheduling grant.
A protein comprising: a) human TGFβRII, or a fragment thereof capable of binding TGFβ; and b) an antibody, or antigen-binding fragment thereof, that binds human protein Programmed Death Ligand 1 (PD-L1) and comprises: (i) a heavy chain variable region including an HVR-H1, HVR-H2, and HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG, and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, HVR-L2, and HVR-L3 having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively. a) human TGFβRII, or a fragment thereof capable of binding TGFβ; and b) an antibody, or antigen-binding fragment thereof, that binds human protein Programmed Death Ligand 1 (PD-L1) and comprises: (i) a heavy chain variable region including an HVR-H1, HVR-H2, and HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG, and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, HVR-L2, and HVR-L3 having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively. (i) a heavy chain variable region including an HVR-H1, HVR-H2, and HVR-H3 having the amino acid sequences of SYIMM, SIYPSGGITFYADTVKG, and IKLGTVTTVDY, respectively, and (ii) a light chain variable region including an HVR-L1, HVR-L2, and HVR-L3 having the amino acid sequences of TGTSSDVGGYNYVS, DVSNRPS, and SSYTSSSTRV, respectively.
A turbine blade damper arrangement, the turbine blade damper arrangement comprising a set of circumferentially adjacent turbine blades, the arrangement including on each turbine blade on a first circumferential side a first, part cylindrical contact surface on the inner side of the turbine platform, and on the opposite circumferential side a second, flat, inclined contact surface on the circumferential side of the turbine platform, the first contact surface being spaced from the second contact surface on an adjacent turbine blade, with the cylindrical axis of the first contact surface substantially perpendicular to the said second contact surface, and with the second contact surface inclined away from the turbine radial direction; an elongate damper being located between each adjacent pair of turbine blade platforms, the damper including a first part cylindrical engagement face engageable with the first contact surface, and a second flat engagement face substantially perpendicular to the axis of the first engagement face, which second engagement face is engageable with the second contact surface on an adjacent turbine blade.
A method for preparing a dopaminergic neuron-like cell cluster, comprising: coating a cell culture dish with an artificial elastin-like extracellular matrix having the amino acid set forth in the following General Formula 1: N − terminus − TGPG VGRGD VGVPG α β WPC − C − terminus wherein α is an integer meeting 2≤ α ≤10, and β is an integer meeting 10≤ β ≤30; culturing neuroblast cells in the coated cell culture dish to form a 3D neuroblast cell cluster; and adding a dopaminergic neuron differentiation-inducing factor to the 3D neuroblast cell cluster to form a 3D dopaminergic neuron-like cell cluster, wherein the dopaminergic neuron differentiation-inducing factor is phorbol 12-myristate 13-acetate. coating a cell culture dish with an artificial elastin-like extracellular matrix having the amino acid set forth in the following General Formula 1: N − terminus − TGPG VGRGD VGVPG α β WPC − C − terminus wherein α is an integer meeting 2≤ α ≤10, and β is an integer meeting 10≤ β ≤30; culturing neuroblast cells in the coated cell culture dish to form a 3D neuroblast cell cluster; and adding a dopaminergic neuron differentiation-inducing factor to the 3D neuroblast cell cluster to form a 3D dopaminergic neuron-like cell cluster, wherein the dopaminergic neuron differentiation-inducing factor is phorbol 12-myristate 13-acetate.
A half thrust bearing for receiving an axial force of a crankshaft of an internal combustion engine, the half thrust bearing having a semi-annular shape, and having a sliding surface for receiving the axial force and a back surface opposite to the sliding surface, wherein the sliding surface comprises a plurality of recesses, each recess having a recess surface, the recess surface being recessed from the sliding surface toward the back surface, wherein the recess surface is convex toward the back surface in a cross-sectional view in a direction along a center line of the half thrust bearing, wherein the recess surface comprises a plurality of grooves extending along the center line direction, the grooves being recessed from the recess surface toward the back surface, thereby smooth surfaces and the grooves are alternately arranged on the recess surface in a horizontal direction of the half thrust bearing.
Method for drying compressed gas by means of a drying device with an inlet for compressed gas to be dried and an outlet for dried compressed gas, which drying device comprises at least two vessels filled with a regenerable desiccant and a controllable valve system, consisting of a first valve block and a second valve block connecting the above inlet, respectively outlet to the aforementioned vessels, the controllable valve system being regulated such that at least one vessel will dry compressed gas, while the other vessel will be regenerated and cooled successively, wherein, by regulating the valve system, the vessels each, in turn, dry compressed gas, whereby the method consists of providing a first and a second cooling cycle to cool the vessel being cooled, wherein the first cooling cycle consists of passing ambient air through the vessel and the second cooling cycle consisting of branching off dried compressed gas at the aforementioned outlet, expand it and pass it through the vessel to be cooled, afterwhich this gas is then blown off, wherein depending on predetermined conditions, the first or second cooling cycle, or both, will be applied, characterized in that the method also consists, for the first cooling cycle, of using a closed cooling circuit provided with a cooler in which, after the ambient air is sucked in, the ambient air is then circulated in the closed cooling circuit and cooled by the cooler.