mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus comprising: a calculation unit configured to calculate an amount of a coloring material in an area including a plurality of pixels; a determination unit configured to determine an allowable amount of a transparent toner in the area on the basis of the amount of the coloring material, calculated by the calculation unit, and an upper limit of the total amount of the coloring material and the transparent toner in the area; and a control unit configured to control an amount of the transparent toner in the area so as not to exceed the allowable amount of the transparent toner; a unit (901, 902) configured to display a user interface with which either a first mode or a second mode is selected, wherein if the first mode is selected, the calculation unit, the determination unit and the control unit are not caused to operate, and printing and fixing are performed with the coloring material on a print sheet and then, the printing and fixing are performed with the transparent toner on the print sheet, on which the printing and fixing have been performed with the coloring material, and wherein if the second mode is selected, the calculation unit, the determination unit, and the control unit are caused to operate, and printing is performed with the coloring material and the transparent toner on a print sheet and then, fixing is performed, and the determination unit determines a mask pattern corresponding to the allowable amount of the transparent toner in the area and the control unit controls the amount of the transparent toner based on the determined mask pattern, characterized in that if the amount of coloring material in the area is equal to or larger than the upper limit of the total amount of the coloring material and the transparent toner in the area, the control unit is configured to select one pixel in the area having the minimum amount of coloring material among the pixels in the area and to print the transparent toner in the one selected pixel in the area. a calculation unit configured to calculate an amount of a coloring material in an area including a plurality of pixels; a determination unit configured to determine an allowable amount of a transparent toner in the area on the basis of the amount of the coloring material, calculated by the calculation unit, and an upper limit of the total amount of the coloring material and the transparent toner in the area; and a control unit configured to control an amount of the transparent toner in the area so as not to exceed the allowable amount of the transparent toner; a unit (901, 902) configured to display a user interface with which either a first mode or a second mode is selected,
A coating process for coating a substrate comprising the step of applying a photocurable coating composition comprising a) at least one photocurable component, b) at least one filler having an average particle size of D 50 < 0.5 μm, determined by laser dynamic light scattering, c) optionally one or more silanes or siloxanes, d) at least one UV stabilizer, e) at least one photoinitiator, f) at least one component selected from the group consisting of particulate non-swellable fillers f1) having an average diameter particle size of D 50 > 0.5 μm, determined by laser dynamic light scattering, and swellable or soluble polymers f2), and g) optionally one or more solvents, and h) optionally one or more auxiliaries, onto the surface of a substrate to be coated, said coating process comprises the steps of: i) providing a substrate, ii) forming a decor, a pattern or an image onto said substrate, iii) spraying said photocurable coating composition onto the surface of said decor, pattern or image, iv) optionally drying the coated surface, and v) irradiating the coated substrate with UV-light. a) at least one photocurable component, b) at least one filler having an average particle size of D 50 < 0.5 μm, determined by laser dynamic light scattering, c) optionally one or more silanes or siloxanes, d) at least one UV stabilizer, e) at least one photoinitiator, f) at least one component selected from the group consisting of particulate non-swellable fillers f1) having an average diameter particle size of D 50 > 0.5 μm, determined by laser dynamic light scattering, and swellable or soluble polymers f2), and g) optionally one or more solvents, and h) optionally one or more auxiliaries, i) providing a substrate, ii) forming a decor, a pattern or an image onto said substrate, iii) spraying said photocurable coating composition onto the surface of said decor, pattern or image, iv) optionally drying the coated surface, and v) irradiating the coated substrate with UV-light.
A bispecific antigen binding molecule, comprising (a) four Fab fragments capable of specific binding to OX40, (b) at least one moiety capable of specific binding to Fibroblast Activation Protein comprising an antibody light chain variable region and an antibody heavy chain variable region, and (c) a Fc domain composed of a first and a second subunit capable of stable association, wherein the Fc domain is of human IgG1 subclass with the amino acid mutations L234A, L235A and P329G (numbering according to Kabat EU index), and wherein each of the Fab fragments capable of specific binding to OX40 comprises a VH domain comprising CDR-H1 comprising the amino acid sequence of SEQ ID NO:2, CDR-H2 comprising the amino acid sequence of SEQ ID NO:4, CDR-H3 comprising the amino acid sequence of SEQ ID NO:7 and a VL domain comprising CDR-L1 comprising the amino acid sequence of SEQ ID NO: 13, CDR-L2 comprising the amino acid sequence of SEQ ID NO: 16 and CDR-L3 comprising the amino acid sequence of SEQ ID NO:20, and wherein a first Fab fragment capable of specific binding to OX40 is fused at the C-terminus of the CH1 domain to the VH domain of a second Fab fragment capable of specific binding to OX40 and a third Fab fragment capable of specific binding to OX40 is fused at the C-terminus of the CH1 domain to the VH domain of a fourth Fab fragment capable of specific binding to OX40, optionally via a peptide linker and wherein each two of the four Fab fragments capable of specific binding to OX40 are further fused at its C-terminus to the N-terminus of one of the subunits of the Fc domain, optionally via a peptide linker, and wherein the VH domain of the moiety capable of specific binding to FAP is connected via a peptide linker to the C-terminus of the first subunit of the Fc domain and the VL domain is connected via a peptide linker to the C-terminus of the second subunit of the Fc domain or wherein two moieties capable of specific binding to FAP are VH-VL crossover Fab fragments and are each fused at the N-terminus of the VL domain via a peptide linker to the C-terminus of one of the subunits of the Fc domain. (a) four Fab fragments capable of specific binding to OX40, (b) at least one moiety capable of specific binding to Fibroblast Activation Protein comprising an antibody light chain variable region and an antibody heavy chain variable region, and (c) a Fc domain composed of a first and a second subunit capable of stable association, wherein the Fc domain is of human IgG1 subclass with the amino acid mutations L234A, L235A and P329G (numbering according to Kabat EU index), and
A polyester resin composition comprising: a polyester resin; and a polyrotaxane that has a cyclic molecule, a linear molecule threading through a cavity of the cyclic molecule in a skewered manner, and capping groups capping both ends of the linear molecule, wherein the polyester resin is α-hydroxycarboxylic acid polyesters, a polycaprolactone chain is introduced to the cyclic molecule, and the polycaprolactone chain has a carboxyl group as a substituent at its terminal. a polyester resin; and a polyrotaxane that has a cyclic molecule, a linear molecule threading through a cavity of the cyclic molecule in a skewered manner, and capping groups capping both ends of the linear molecule,
An airless tire comprising: a circular first band; a second band that surrounds the first band while being spaced apart from the first band, and has a diameter larger than the diameter of the first band; a plurality of spokes that connect the first band to the second band, are disposed between the first and second bands, and contract or expand by a load transmitted from the outside; and first and second connecting members (62, 70) that connect the spokes disposed side by side and disperse a load applied to the spokes, wherein the spoke includes a first member that protrudes from the first band toward the second band in a curved shape, characterized in that the airless tire further comprises a second member that is formed so as to connect the first member to the second band and is formed in a curved shape opposite to the first member, wherein the distance between two ends of adjacent first members which are connected to the first band is longer than the distance between the other ends of the first members which are connected by the first connecting member, and wherein the distance between two ends of adjacent second members which are connected to the second band is longer than the distance between the other ends of the second members which are connected by the first connecting member. a circular first band; a second band that surrounds the first band while being spaced apart from the first band, and has a diameter larger than the diameter of the first band; a plurality of spokes that connect the first band to the second band, are disposed between the first and second bands, and contract or expand by a load transmitted from the outside; and first and second connecting members (62, 70) that connect the spokes disposed side by side and disperse a load applied to the spokes, wherein the spoke includes a first member that protrudes from the first band toward the second band in a curved shape, characterized in that the airless tire further comprises a second member that is formed so as to connect the first member to the second band and is formed in a curved shape opposite to the first member, wherein the distance between two ends of adjacent first members which are connected to the first band is longer than the distance between the other ends of the first members which are connected by the first connecting member, and wherein the distance between two ends of adjacent second members which are connected to the second band is longer than the distance between the other ends of the second members which are connected by the first connecting member.
A paging policy determination method applied to a RAN network element, the method comprising: receiving a Paging Policy Indication, PPI, value sent by a core network element, determining the paging policy according to the PPI value when the RAN network element receives the downlink packet for the UE in the RRC deactivated state after a Packet Data Unit session is established; characterized in that receiving the PPI value sent by a core network element, comprises: receiving the PPI value sent by a User Plane Function, UPF, entity, wherein the PPI value is determined by the UPF entity according to a Differentiated Services Code Point, DSCP, value of the downlink packet, or the PPI value is determined by a Session Management Function, SMF, entity according to the DSCP value of the downlink packet received from the UPF entity and then sent to the UPF entity; wherein receiving the PPI value sent by the UPF entity, comprises: receive a N3 tunnel header sent by the UPF entity, wherein the PPI value is comprised in the N3 tunnel header. receiving a Paging Policy Indication, PPI, value sent by a core network element, determining the paging policy according to the PPI value when the RAN network element receives the downlink packet for the UE in the RRC deactivated state after a Packet Data Unit session is established; characterized in that receiving the PPI value sent by a core network element, comprises: receiving the PPI value sent by a User Plane Function, UPF, entity, wherein the PPI value is determined by the UPF entity according to a Differentiated Services Code Point, DSCP, value of the downlink packet, or the PPI value is determined by a Session Management Function, SMF, entity according to the DSCP value of the downlink packet received from the UPF entity and then sent to the UPF entity; wherein receiving the PPI value sent by the UPF entity, comprises: receive a N3 tunnel header sent by the UPF entity, wherein the PPI value is comprised in the N3 tunnel header. receiving the PPI value sent by a User Plane Function, UPF, entity, wherein the PPI value is determined by the UPF entity according to a Differentiated Services Code Point, DSCP, value of the downlink packet, or the PPI value is determined by a Session Management Function, SMF, entity according to the DSCP value of the downlink packet received from the UPF entity and then sent to the UPF entity; wherein receiving the PPI value sent by the UPF entity, comprises: receive a N3 tunnel header sent by the UPF entity, wherein the PPI value is comprised in the N3 tunnel header. receive a N3 tunnel header sent by the UPF entity, wherein the PPI value is comprised in the N3 tunnel header.
A process for forming a porous polyparaxylylene article comprising: depositing a polyparaxylylene film on a substrate to form a PPX composite structure; and expanding said PPX composite structure at a temperature of from 80°C to 220°C to form a porous PPX article having a microstructure of nodes interconnected by fibrils, wherein the fibrils comprise polymer chains and the polymer chains are oriented along a fibril axis. depositing a polyparaxylylene film on a substrate to form a PPX composite structure; and expanding said PPX composite structure at a temperature of from 80°C to 220°C to form a porous PPX article having a microstructure of nodes interconnected by fibrils, wherein the fibrils comprise polymer chains and the polymer chains are oriented along a fibril axis.
An antagonist of PILRβ (SEQ ID NO: 4) comprising: i) a nucleic acid inhibitor of PILRβ expression selected from the group consisting of an interfering nucleic acid and an antisense nucleic acid. ii) an antigen-binding domain from an antagonist antibody that specifically binds to PILRβ. iii) an antagonist antibody that specifically binds to PILRβ; or iv) a soluble polypeptide fragment of PILRβ (SEQ ID NO: 4) or an agonist of PILRα (SEQ ID NO: 2) comprising: i) an antigen-binding domain from an agonist antibody that specifically binds to PILRα; ii) an agonist antibody that specifically binds to PILRα; or iii) a ligand that specifically binds to PILRα; for use in treating inflammatory and/or autoimmune diseases. i) a nucleic acid inhibitor of PILRβ expression selected from the group consisting of an interfering nucleic acid and an antisense nucleic acid. ii) an antigen-binding domain from an antagonist antibody that specifically binds to PILRβ. iii) an antagonist antibody that specifically binds to PILRβ; or iv) a soluble polypeptide fragment of PILRβ (SEQ ID NO: 4) or i) an antigen-binding domain from an agonist antibody that specifically binds to PILRα; ii) an agonist antibody that specifically binds to PILRα; or iii) a ligand that specifically binds to PILRα;
A user equipment (UE1 - UE3) comprising: a user interface, a communication part for communication via a communication system, and a client for maintaining information about contacts and providing the user of the user equipment with a contact book application providing access to contact information for persons known by the user, wherein said client is arranged to trigger transmission of information identifying a plugin to a predetermined receiver in response to detection that said plugin is installed in the user equipment, receive via the communication system information identifying plugins installed in user equipments of contacts whose contact information is maintained in the contact book application of the user equipment (UE1 - UE3), compare plugins installed in the user equipment with the received information identifying plugins installed in user equipments of contacts, and display on said user interface information identifying plugins installed in a user equipment (UE1 - UE3) of a contact in response to a selection of said contact performed via said user interface, said displayed information indicating those alternatives available for communicating with or transmitting information or data to the selected contact. a user interface, a communication part for communication via a communication system, and a client for maintaining information about contacts and providing the user of the user equipment with a contact book application providing access to contact information for persons known by the user, wherein said client is arranged to trigger transmission of information identifying a plugin to a predetermined receiver in response to detection that said plugin is installed in the user equipment, receive via the communication system information identifying plugins installed in user equipments of contacts whose contact information is maintained in the contact book application of the user equipment (UE1 - UE3), compare plugins installed in the user equipment with the received information identifying plugins installed in user equipments of contacts, and display on said user interface information identifying plugins installed in a user equipment (UE1 - UE3) of a contact in response to a selection of said contact performed via said user interface, said displayed information indicating those alternatives available for communicating with or transmitting information or data to the selected contact.
An assembly (40, 540) for preparing bone stock, said assembly (40, 540) including: a shell (52, 904) comprising a base (54, 554, 938) having a support surface (56, 556, 936) and an outer surface (110, 557) opposite said support surface (56, 556, 936), and a lid (58, 558, 902) having a void space (60, 560) therebetween; a carriage (62, 562, 914) disposed at least partially within said void space (60, 560) and moveable across said base (54, 554, 938) of said shell (52, 904), said carriage (62, 562, 914) comprising a wall (64, 564, 946), said wall (64, 564, 946) cooperating with said base (54, 554, 938) to define a preparation chamber (66, 566, 964); and a removal element (68, 568, 960) disposed at least partially in said preparation chamber (66, 566, 964), said removal element (68, 568, 960) configured to prepare said bone stock by removing soft tissue from said bone stock; wherein said carriage (62, 562, 914) is configured to receive power from a drive train to actuate movement of said carriage (62, 562, 914) across said support surface (56, 556, 936), and said removal element (68, 568, 960) is also configured to receive power from said drive train; characterized in that at least a portion of said wall (64, 564, 946) is resiliently deformable, wherein said resilient portion of said wall (64, 564, 946) is configured to deform when bone stock is positioned between said removal element (68, 568, 960) and said wall (64, 564, 946). a shell (52, 904) comprising a base (54, 554, 938) having a support surface (56, 556, 936) and an outer surface (110, 557) opposite said support surface (56, 556, 936), and a lid (58, 558, 902) having a void space (60, 560) therebetween; a carriage (62, 562, 914) disposed at least partially within said void space (60, 560) and moveable across said base (54, 554, 938) of said shell (52, 904), said carriage (62, 562, 914) comprising a wall (64, 564, 946), said wall (64, 564, 946) cooperating with said base (54, 554, 938) to define a preparation chamber (66, 566, 964); and a removal element (68, 568, 960) disposed at least partially in said preparation chamber (66, 566, 964), said removal element (68, 568, 960) configured to prepare said bone stock by removing soft tissue from said bone stock; wherein said carriage (62, 562, 914) is configured to receive power from a drive train to actuate movement of said carriage (62, 562, 914) across said support surface (56, 556, 936), and said removal element (68, 568, 960) is also configured to receive power from said drive train; characterized in that at least a portion of said wall (64, 564, 946) is resiliently deformable, wherein said resilient portion of said wall (64, 564, 946) is configured to deform when bone stock is positioned between said removal element (68, 568, 960) and said wall (64, 564, 946).
A closure, comprising a first body comprising a first metal with a first electrode potential; and a second body comprising a second metal with a second electrode potential different than the first electrode potential, said first and second bodies (12, 14) joined together along a connection interface between the first and second bodies to form the closure separating a first space on a first side of the closure from a second space on a second side of the closure, said connection interface extending from the first side of the closure to the second side of the closure and comprising a close-coupled portion between the first side of the closure and the second side of the closure, and a seal portion between the first side of the closure and the second side of the closure; characterised in that said closure further comprises a discrete solid sheet of polymer between the first and second bodies (12, 14) along the close-coupled portion of the connection interface.
A system comprising a vibration member and a control apparatus comprising an instruction unit, a pulse generating circuit (603a, 603b), a switching circuit (602a, 602b), a power supply circuit, and a vibration member driving circuit, wherein the vibration member includes at least an elastic body and an electro-mechanical energy conversion element fixed to the elastic body; the instruction unit, pulse generating circuit, switching unit, and power supply circuit are configured to input an alternating input voltage Vi of a drive frequency fd into the driving circuit; the driving circuit is configured to generate an alternating voltage Vo of the drive frequency fd based on the alternating input voltage Vi and to apply the alternating voltage Vo to the electro-mechanical energy conversion element to cause vibrations in the elastic body, the driving circuit comprises: an inductor and a capacitor serially connected to the electro-mechanical energy conversion element, wherein 0.73 * fm < fs < 1.2 * fm is satisfied, where fs is a series resonance frequency by the inductor and the capacitor, and fm is a resonance frequency of the vibration member; the system being characterized in that the values of the inductance L of the inductor, of the capacitance C of the capacitor, and of the inherent capacitance Cd' of the electro-mechanical energy conversion element are selected so that a peak frequency fe is calculated as: fe = 1 / 2 π L ⋅ C ⋅ Cd ′ C + Cd ′, and the following conditions are satisfied: 1.4 * fm ≤ fe ≤ 2 * fm, and fe < 2 * fd, wherein, if the drive frequency fd were changed, an amplitude of the alternating voltage Vo would have a peak value at the frequency fe. an inductor and a capacitor serially connected to the electro-mechanical energy conversion element, wherein 0.73 * fm < fs < 1.2 * fm is satisfied, where fs is a series resonance frequency by the inductor and the capacitor, and fm is a resonance frequency of the vibration member; the system being characterized in that the values of the inductance L of the inductor, of the capacitance C of the capacitor, and of the inherent capacitance Cd' of the electro-mechanical energy conversion element are selected so that a peak frequency fe is calculated as: fe = 1 / 2 π L ⋅ C ⋅ Cd ′ C + Cd ′, and the following conditions are satisfied: 1.4 * fm ≤ fe ≤ 2 * fm, and fe < 2 * fd, wherein, 1.4 * fm ≤ fe ≤ 2 * fm, and fe < 2 * fd, wherein, if the drive frequency fd were changed, an amplitude of the alternating voltage Vo would have a peak value at the frequency fe.