mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing an aluminum alloy-resin composite, comprising the steps of: S1: anodizing a surface of an aluminum alloy to form an oxide layer on the surface, in which the oxide layer is formed with nanopores having an average pore size of 10nm to 100nm by providing the aluminum alloy as an anode in a H 2 SO 4 solution with a concentration of 10 wt% to 30 wt%; and electrolyzing the aluminum alloy at a temperature of 10°C to 30°C at a voltage of 10V to 100V for 1min to 40min to form the oxide layer with a thickness of 1μm to 10μm on the surface of the aluminum alloy substrate; and; S2: immersing the resulting aluminum alloy in step S1 in an etching solution being corrosive to the oxide layer to form corrosion pores in an outer surface of the oxide layer, in which the corrosion pores have an average pore size of 200nm to 2000nm, wherein the etching solution is an alkaline etching solution with a pH of 10 to 13; and S3: injection molding a resin onto the surface of the resulting aluminum alloy substrate in step S2 in a mold to obtain the aluminum alloy-resin composite. S1: anodizing a surface of an aluminum alloy to form an oxide layer on the surface, in which the oxide layer is formed with nanopores having an average pore size of 10nm to 100nm by providing the aluminum alloy as an anode in a H 2 SO 4 solution with a concentration of 10 wt% to 30 wt%; and electrolyzing the aluminum alloy at a temperature of 10°C to 30°C at a voltage of 10V to 100V for 1min to 40min to form the oxide layer with a thickness of 1μm to 10μm on the surface of the aluminum alloy substrate; and; S2: immersing the resulting aluminum alloy in step S1 in an etching solution being corrosive to the oxide layer to form corrosion pores in an outer surface of the oxide layer, in which the corrosion pores have an average pore size of 200nm to 2000nm, wherein the etching solution is an alkaline etching solution with a pH of 10 to 13; and S3: injection molding a resin onto the surface of the resulting aluminum alloy substrate in step S2 in a mold to obtain the aluminum alloy-resin composite.
A seal for sealing between two surfaces lying generally perpendicular to each other, the seal comprising a first profile which has a base adapted to be fixed sealingly to a first surface and an upstand which projects from the base and which defines respective opposed first and second engagable surfaces (27,28), and a second profile which overlies the upstand of the first profile and which, when viewed in section, comprises inner and outer depending limbs (31,32) which engage slidably respective ones of the opposed first and second engagable surfaces (27,28) of the upstand of the first profile; characterized in that the upstand comprises two spaced upstanding ribs (25,26); and in that both of the inner and outer depending limbs (31,32) of the second profile bear resiliently against the respective engagable surfaces (27,28) of the upstand of the first profile in sliding engagement therewith.
A Programmed Cell Death 1 (PD-1) antagonist and a Death Receptor agonist for use in a method of treating cancer, wherein the DR agonist is an anti-DR5 antibody and the PD-1 antagonist is an anti-PD-1 antibody comprising (i) the CDR1, CDR2 and CDR3 domains in a heavy chain variable region having the sequence set forth in SEQ ID NO: 13, and the CDR1, CDR2 and CDR3 domains in a light chain variable region having the sequence set forth in SEQ ID NO: 15; or (ii) heavy chain variable region CDR1, CDR2 and CDR3 domains having the sequences set forth in SEQ ID NOs: 17, 18 and 19, respectively, and light chain variable region CDR1, CDR2 and CDR3 domains having the sequences set forth in SEQ ID NOs: 20, 21 and 22, respectively; or (iii) heavy and light chain variable regions having the sequences set forth in SEQ ID NOs: 13 and 15, respectively; or (iv) heavy and light chains having the sequences set forth in SEQ ID NOs: 11 and 12, respectively, wherein the anti-DR5 antibody and the anti-PD-1 antibody are for being administered in an amount that inhibits tumor growth in vivo. (i) the CDR1, CDR2 and CDR3 domains in a heavy chain variable region having the sequence set forth in SEQ ID NO: 13, and the CDR1, CDR2 and CDR3 domains in a light chain variable region having the sequence set forth in SEQ ID NO: 15; or (ii) heavy chain variable region CDR1, CDR2 and CDR3 domains having the sequences set forth in SEQ ID NOs: 17, 18 and 19, respectively, and light chain variable region CDR1, CDR2 and CDR3 domains having the sequences set forth in SEQ ID NOs: 20, 21 and 22, respectively; or (iii) heavy and light chain variable regions having the sequences set forth in SEQ ID NOs: 13 and 15, respectively; or (iv) heavy and light chains having the sequences set forth in SEQ ID NOs: 11 and 12, respectively,
A method, comprising: receiving, by a concentrator component, one or more uplink packets from an access point (106, 108, 110) related to a connected mobile device; generating, by the concentrator component, a unique identifier based on a mobile device identifier and an access point identifier, wherein the unique identifier is globally unique to a wireless communications network; replacing, by the concentrator component, the mobile device identifier in uplink packets received via the access point (106, 108, 110) with the unique identifier; transmitting, by the concentrator component, the packets to an upstream network component; receiving, by the concentrator component, downlink packets from the upstream network component including the unique identifier and forwarding the packets to the access point (106, 108, 110) based on the unique identifier; receiving, by the concentrator component, a handover request command related to a source access point (106, 108, 110) and a target access point (106, 108, 110); replacing, by the concentrator component, an access point identifier of the source access point and an access point identifier of the target access point in the handover command with its own identifier; and forwarding, by the concentrator component, the handover command to the upstream network component or to one or more disparate upstream network components when the access points involved in the handover command communicate with disparate MMEs. receiving, by a concentrator component, one or more uplink packets from an access point (106, 108, 110) related to a connected mobile device; generating, by the concentrator component, a unique identifier based on a mobile device identifier and an access point identifier, wherein the unique identifier is globally unique to a wireless communications network; replacing, by the concentrator component, the mobile device identifier in uplink packets received via the access point (106, 108, 110) with the unique identifier; transmitting, by the concentrator component, the packets to an upstream network component; receiving, by the concentrator component, downlink packets from the upstream network component including the unique identifier and forwarding the packets to the access point (106, 108, 110) based on the unique identifier; receiving, by the concentrator component, a handover request command related to a source access point (106, 108, 110) and a target access point (106, 108, 110); replacing, by the concentrator component, an access point identifier of the source access point and an access point identifier of the target access point in the handover command with its own identifier; and forwarding, by the concentrator component, the handover command to the upstream network component or to one or more disparate upstream network components when the access points involved in the handover command communicate with disparate MMEs.
A sliding bearing comprising a back metal layer, a bearing alloy layer layered on the back metal layer, and a resin coating layer having a sliding surface that is provided on a surface of the bearing alloy layer, characterized in that the resin coating layer is formed as a layer having a thickness of 2 to 10 μm and including 20 to 50 vol% of a plate solid lubricant and 5 to 30 vol% of adjustment particles in a resin binder of which a main component is a polyamide imide resin, the adjustment particles having an average particle size of 0.7 to 1.6 μm and a Vickers hardness of 100 to 300, and the plate solid lubricant is disposed in a state where an orientation intensity ratio of a (0, 0, L) plane of the plate solid lubricant to the sliding surface is 75% or more and 85% or less; wherein, as the method for measuring the average particle size of the adjustment particles, the composition image of the resin coating layer is photographed with use of an electron microscope with a 5000-fold magnification, and from the obtained composition image, the average particle size is measured by using an ordinary image analysis method.
A monitor system with (a) a first monitor (12.1), (b) a second monitor (12.2), (c) a third monitor (12.3), (d) at least a fourth monitor (12.4) and (e) a base, (f) wherein the monitors (12.i) are fixed to the base such that they can each be moved by way of a motor in at least two degrees of freedom, characterised in that (g) at least two monitors (12.1, 12.3) are fixed to the base by means of lazy tong drives (14.1), (h) at least three monitors (12.1, 12.2, 12.3) form a first monitor group and are rotatably mounted about a common segment axis of rotation (D23.1) and can each be moved by way of a motor by means of a lazy tong drive (14.1, 14.2, 14.3), (i) wherein all of these lazy tong drives (14.1, 14.2, 14.3) have a common first drive unit (48.1). (a) a first monitor (12.1), (b) a second monitor (12.2), (c) a third monitor (12.3), (d) at least a fourth monitor (12.4) and (e) a base, (f) wherein the monitors (12.i) are fixed to the base such that they can each be moved by way of a motor in at least two degrees of freedom, characterised in that (g) at least two monitors (12.1, 12.3) are fixed to the base by means of lazy tong drives (14.1), (h) at least three monitors (12.1, 12.2, 12.3) form a first monitor group and are rotatably mounted about a common segment axis of rotation (D23.1) and can each be moved by way of a motor by means of a lazy tong drive (14.1, 14.2, 14.3), (i) wherein all of these lazy tong drives (14.1, 14.2, 14.3) have a common first drive unit (48.1).
A system for providing a programmable packet classification framework in a network device in a high performance network, comprising: a network device in a high performance network, wherein the network device includes a plurality of classification primitives comprising a key composition primitive, a key composition rule primitive, one or more lookup tables, and a match action table; wherein the key composition primitive is configured to construct a lookup key based on the key composition rule primitive, and to present the lookup key to a lookup table; wherein a match with the lookup key in the lookup table results in an action match in the match action table; and wherein the action match is associated with information for use in constructing a next lookup key, wherein corresponding to the action match can be a plurality of fields for use in constructing a next key composition rule primitive, the next key composition rule primitive for use in a next loop of processing of a data packet. a network device in a high performance network, wherein the network device includes a plurality of classification primitives comprising a key composition primitive, a key composition rule primitive, one or more lookup tables, and a match action table; wherein the key composition primitive is configured to construct a lookup key based on the key composition rule primitive, and to present the lookup key to a lookup table; wherein a match with the lookup key in the lookup table results in an action match in the match action table; and wherein the action match is associated with information for use in constructing a next lookup key, wherein corresponding to the action match can be a plurality of fields for use in constructing a next key composition rule primitive, the next key composition rule primitive for use in a next loop of processing of a data packet.
Method of providing a mark to a case of a cartridge of ammunition, the mark comprising at least one sub-mark and being suitable for identification or for tracking of the cartridge, characterized in that at least one scratching means in the form of one or more scratching fingers selectively incises a surface of the case, thereby forming the at least one sub-mark, wherein the at least one scratching means is moved by an actuator from an idle position to an active position for incising the surface of the case.
A method for producing a fluid channel for a heat exchanger, comprising a metal sheet, wherein the metal sheet has at least one core region made of an aluminium base alloy, at least one structure (4, 14) arranged in the interior of the fluid channel, wherein the structure (4, 14) lies against a surface of the metal sheet and is soldered to the metal sheet by way of a first solder joint in a soldering operation, and wherein a soldering region (5a, 5b, 7, 12, 13) of the metal sheet and a counterpart (5a, 5b, 7, 12, 13) lie against one another and are soldered to one another in the same soldering operation as a second solder joint with wetting by flux, wherein there is an open path between the two solder joints before the soldering operation, characterised in that the first solder joint is soldered without flux.
A curable composition comprising: a) an acid-modified epoxidized vegetable oil comprising a reaction product of 1) an epoxidized vegetable oil and 2) a mono-functional carboxylic acid that is free of an ethylenically unsaturated group, wherein the acid-modified epoxidized vegetable oil has greater than one epoxide group per molecule; and b) a (meth)acrylic copolymer having pendant carboxylic acid groups, wherein the (meth)acrylic copolymer is free of an epoxide group. a) an acid-modified epoxidized vegetable oil comprising a reaction product of 1) an epoxidized vegetable oil and 2) a mono-functional carboxylic acid that is free of an ethylenically unsaturated group, wherein the acid-modified epoxidized vegetable oil has greater than one epoxide group per molecule; and b) a (meth)acrylic copolymer having pendant carboxylic acid groups, wherein the (meth)acrylic copolymer is free of an epoxide group.
A polymer composition, comprising: 30 to 60 volume% of a melt processible fluoropolymer; and 40 to 70 volume% boron nitride particles; wherein the boron nitride particles are made from particles and particles, the particles are spherical aggregate particles with an average particle diameter of 60 μm or higher to 100 μm, and an aspect ratio of 1 to 2, the particles are particles with an average particle diameter of 8 to less than 50 μm, wherein the average particle diameter refers to the particle diameter at an integrated value of 50 vol.% of the particle diameter distribution obtained by a laser diffraction and scattering method, and the volume ratio of the particles to the total amount of boron nitride is 80 to 99 volume%. 30 to 60 volume% of a melt processible fluoropolymer; and 40 to 70 volume% boron nitride particles; wherein the boron nitride particles are made from particles and particles, the particles are spherical aggregate particles with an average particle diameter of 60 μm or higher to 100 μm, and an aspect ratio of 1 to 2, the particles are particles with an average particle diameter of 8 to less than 50 μm, wherein the average particle diameter refers to the particle diameter at an integrated value of 50 vol.% of the particle diameter distribution obtained by a laser diffraction and scattering method, and the volume ratio of the particles to the total amount of boron nitride is 80 to 99 volume%.
A method of controlling a power factor correction stage comprising a first power cell having a first inductor and a first switch and a first output diode, the power factor correction stage further comprising only one other power cell, being a second power cell comprising a second inductor and a second switch and a second output diode, the method comprising evaluating whether a control parameter directly related to the output power exceeds a threshold value, and operating the second power cell, such that the second power cell becomes active and is not in antiphase with the first power cell, if and only if the control parameter exceeds the threshold value.
A surveillance process comprising: Using a sensor comprising pixel sensors, imaging an area under surveillance to produce a plurality of images of the area under surveillance, the images being produced at a first frame rate; detecting, using one or more of the images, a feature of interest within the area under surveillance; determining a region of interest, the region of interest being either: a region within the area under surveillance in which the feature of interest will be located at a later time-step; or a region within an image of the area under surveillance corresponding to a region within the area under surveillance in which the feature of interest will be located at a later time-step; and at the later time-step, using the determined region of interest, imaging the area under surveillance, using the pixel sensors of the sensor that capture an image with the region of interest, such that images of the region within the area under surveillance in which the feature of interest is located are produced at a second frame rate, whilst images of the area under surveillance not within the region of the area under surveillance in which the feature of interest is located are produced by the pixel sensors that generate image pixels not within a region of interest at a third frame rate, the second rate being higher than the third rate. Using a sensor comprising pixel sensors, imaging an area under surveillance to produce a plurality of images of the area under surveillance, the images being produced at a first frame rate; detecting, using one or more of the images, a feature of interest within the area under surveillance; determining a region of interest, the region of interest being either: a region within the area under surveillance in which the feature of interest will be located at a later time-step; or a region within an image of the area under surveillance corresponding to a region within the area under surveillance in which the feature of interest will be located at a later time-step; and a region within the area under surveillance in which the feature of interest will be located at a later time-step; or a region within an image of the area under surveillance corresponding to a region within the area under surveillance in which the feature of interest will be located at a later time-step; and at the later time-step, using the determined region of interest, imaging the area under surveillance, using the pixel sensors of the sensor that capture an image with the region of interest, such that images of the region within the area under surveillance in which the feature of interest is located are produced at a second frame rate, whilst images of the area under surveillance not within the region of the area under surveillance in which the feature of interest is located are produced by the pixel sensors that generate image pixels not within a region of interest at a third frame rate, the second rate being higher than the third rate.
An aligner fabrication system that forms a plurality of aligners from a plurality of dental molds, design data being associated with the dental molds, each dental mold including a plurality of projections in the form of model teeth, the aligner fabrication system comprising: a plurality of individual build platforms with one dental mold being associated with one individual build platform, having a build surface onto which one dental mold is configured to be built and over which an aligner is to be formed, characterised by each individual build platform having an identification entity configured to be linked to digital descriptive data for identifying and tracking the individual build platform and the corresponding one dental mold, none of the dental molds including identification information on the dental mold.
An integrated switch device (27; 37), comprising: a set of first ports (20A, 20B, 20C), a set of first switches (21A, 21B, 21C), wherein each first switch couples a respective first port (20A, 20B, 20C) to ground, wherein within the integrated switch device (27; 37) the first ports (20A, 20B, 20C) are only coupled to the first switches (21A, 21B, 21C), a set of second ports, a set of third ports, a set of second switches, wherein each second switch couples a respective second port to a respective third port, a set of third switches, wherein each switch of the set of third switches couples a respective third port to ground. a set of first ports (20A, 20B, 20C), a set of first switches (21A, 21B, 21C), wherein each first switch couples a respective first port (20A, 20B, 20C) to ground, wherein within the integrated switch device (27; 37) the first ports (20A, 20B, 20C) are only coupled to the first switches (21A, 21B, 21C), a set of second ports, a set of third ports, a set of second switches, wherein each second switch couples a respective second port to a respective third port, a set of third switches, wherein each switch of the set of third switches couples a respective third port to ground.
A battery pack comprising: a battery module including a plurality of rechargeable batteries; an electronic component (71, 72) that contributes to charging and discharging of the rechargeable batteries; and an installation body including an extending portion, which extends vertically, wherein: the installation body includes a plurality of placing portions, which project from the extending portion in a direction crossing a vertical direction, at least one of the battery module and the electronic component (71, 72) is installed in the extending portion while being placed on one of the placing portions, characterized in that the extending portion and the placing portions are formed integrally, and the installation body is a counterweight made of metal and mountable in an industrial vehicle. a battery module including a plurality of rechargeable batteries; an electronic component (71, 72) that contributes to charging and discharging of the rechargeable batteries; and an installation body including an extending portion, which extends vertically, wherein: the installation body includes a plurality of placing portions, which project from the extending portion in a direction crossing a vertical direction, at least one of the battery module and the electronic component (71, 72) is installed in the extending portion while being placed on one of the placing portions, characterized in that the extending portion and the placing portions are formed integrally, and the installation body is a counterweight made of metal and mountable in an industrial vehicle. the installation body includes a plurality of placing portions, which project from the extending portion in a direction crossing a vertical direction, at least one of the battery module and the electronic component (71, 72) is installed in the extending portion while being placed on one of the placing portions, characterized in that the extending portion and the placing portions are formed integrally, and the installation body is a counterweight made of metal and mountable in an industrial vehicle.
An Ag alloy film having a composition comprising: In: 0.1% by mass to 1.5% by mass; Cu: 1 ppm by mass to 50 ppm by mass; Ca: 0.5 ppm by mass to 20 ppm by mass; and optionally Sb: 0.01% by mass to 1.0% by mass, with the remainder being Ag and inevitable impurities. In: 0.1% by mass to 1.5% by mass; Cu: 1 ppm by mass to 50 ppm by mass; Ca: 0.5 ppm by mass to 20 ppm by mass; and optionally Sb: 0.01% by mass to 1.0% by mass, with the remainder being Ag and inevitable impurities.