mhurhangee/ep-ind-claims huggingface dataset:
A nanoprobe created from an aminated nanoparticle, the nanoprobe comprising: a nanoparticle, wherein the nanoparticle comprises silica; a targeting agent covalently bonded directly to the nanoparticle; and a radiolabel, wherein the nanoparticle is amine-functionalized prior to conjugation or association with the targeting agent and/or the radiolabel, wherein the nanoparticle has a diameter no greater than 20 nanometers, wherein the nanoparticle is coated with an organic polymer, wherein the targeting agent is an antibody fragment, a targeting peptide or VEGF 121, and wherein the radiolabel is 89 Zr. a nanoparticle, wherein the nanoparticle comprises silica; a targeting agent covalently bonded directly to the nanoparticle; and a radiolabel, wherein the nanoparticle is amine-functionalized prior to conjugation or association with the targeting agent and/or the radiolabel, wherein the nanoparticle has a diameter no greater than 20 nanometers, wherein the nanoparticle is coated with an organic polymer, wherein the targeting agent is an antibody fragment, a targeting peptide or VEGF 121, and wherein the radiolabel is 89 Zr.
An aquarium filter including a casing with two respectively internal and external parts (2b,c), which can be arranged straddling an aquarium wall, a filtration chamber arranged with a seat to accommodate a cartridge positioned so as to intercept a route of the water to be filtered, a pump and a delivery tube extending between said pump and said filtration chamber, wherein said cartridge seat is made in the external part inside said chamber and said pump is housed in the internal part and is connected to a delivery tube characterized in that said delivery tube is defined in said internal part as an integral portion of said casing, and in that said tube opens into said chamber made in said external part and inside which said cartridge is accommodated.
Hydrostatic transmission apparatus for a vehicle having at least a first vehicle mover member and a second vehicle mover member, disposed in succession in the direction of movement of said vehicle, the second member being steerable relative to the vehicle, the apparatus comprising: • a main hydraulic pump having two orifices (50A, 50B), and two main ducts (51, 52), respectively for feed and for discharge; • a first and a second hydraulic motor (10; 20, 420) that are connected to the main pump for driving respective ones of said first and second mover members; • a first synchronization duct suitable for transferring fluid from the first hydraulic motor to the second hydraulic motor; • detection means suitable for detecting that a steering angle (α) of said steerable member has reached or is exceeding a predetermined value; and • re-feed means for re-feeding the first synchronization duct and that, while the second motor is being fed by the first motor via the first synchronization duct, and when the detection means detect that the steering angle of the steerable member has reached or is exceeding said predetermined value, are suitable for injecting fluid into the first synchronization duct; the apparatus being characterized in that, during said injection, the re-feed means are suitable for limiting the pressure in the first synchronization duct to a pressure less than or equal to a re-feed pressure that is significantly less than the high pressure of the pump. • a main hydraulic pump having two orifices (50A, 50B), and two main ducts (51, 52), respectively for feed and for discharge; • a first and a second hydraulic motor (10; 20, 420) that are connected to the main pump for driving respective ones of said first and second mover members; • a first synchronization duct suitable for transferring fluid from the first hydraulic motor to the second hydraulic motor; • detection means suitable for detecting that a steering angle (α) of said steerable member has reached or is exceeding a predetermined value; and • re-feed means for re-feeding the first synchronization duct and that, while the second motor is being fed by the first motor via the first synchronization duct, and when the detection means detect that the steering angle of the steerable member has reached or is exceeding said predetermined value, are suitable for injecting fluid into the first synchronization duct;
A compound characterized by the following Formula I: wherein: Z is a node structure selected from the group consisting of: and each G is an independently selected (poly)glyceryl group; each (Hphob) is an independently selected hydrophobic moiety which is a nonpolar moiety that contains at least one of: (a) a carbon-carbon chain of at least six carbons in which none of the six carbons is a carbonyl carbon or has a hydrophilic moiety bonded directly to it; (b) three or more alkyl siloxy groups; and/or (c) three or more oxypropylene groups in sequence; each L is an ether linking group; each L' is an ester linking group; x = 2, h = 2, y = 0; a = 0; wherein the compound has an average degree of glyceryl polymerization of greater than 3 to 11; wherein the compound has an average number of hydrophobic moieties per primary linking group of 0.35 or greater. Z is a node structure selected from the group consisting of: and each G is an independently selected (poly)glyceryl group; each (Hphob) is an independently selected hydrophobic moiety which is a nonpolar moiety that contains at least one of: (a) a carbon-carbon chain of at least six carbons in which none of the six carbons is a carbonyl carbon or has a hydrophilic moiety bonded directly to it; (b) three or more alkyl siloxy groups; and/or (c) three or more oxypropylene groups in sequence; each L is an ether linking group; each L' is an ester linking group; x = 2, h = 2, y = 0; a = 0; wherein the compound has an average degree of glyceryl polymerization of greater than 3 to 11; wherein the compound has an average number of hydrophobic moieties per primary linking group of 0.35 or greater.
An UV-moisture dual cure polyurethane reactive hotmelt comprising (i) at least one polyurethane which has an isocyanate group and has C-C double bonds on the side chain and (ii) at least one photoinitiator, wherein the isocyanate in the isocyanate component for synthesizing the polyurethane is diisocyanate and the isocyanate component comprises at least one diisocyanate having C-C double bonds on the side chain.
A tracking device (140, 500) comprising: an illumination source configured to illuminate a portion of skin (130, 330) of a user, wherein the illuminated portion of skin moves in response to movement of a body part of the user, and the illuminated portion of skin is smaller than the body part; an optical sensor (150, 520) configured to capture a plurality of images of the illuminated portion of skin and a controller configured to: infer a pose (100, 200, 400) of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. an illumination source configured to illuminate a portion of skin (130, 330) of a user, wherein the illuminated portion of skin moves in response to movement of a body part of the user, and the illuminated portion of skin is smaller than the body part; an optical sensor (150, 520) configured to capture a plurality of images of the illuminated portion of skin and a controller configured to: infer a pose (100, 200, 400) of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. infer a pose (100, 200, 400) of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred.
Method of configuring a terminal comprising a step of initializing said terminal which automatically triggers at least: - a step of detecting the presence of a memory by a basic input/output system of the terminal, - a step of accessing said memory by the basic input/ouput system, and - a step of starting up an operating system of said terminal stored in said memory, characterized in that prior to the step of detecting presence, the method comprises a step of linking of communication of a mobile telecommunication terminal with said terminal, and in that it furthermore comprises the automatic triggering of a step of starting up a driver of a telecommunication network access module, the driver of the access module being stored in said memory and able to drive the access module from said terminal through said communication link between said terminal and the mobile telecommunication terminal, said mobile telecommunication terminal comprising said memory and said access module. - a step of detecting the presence of a memory by a basic input/output system of the terminal, - a step of accessing said memory by the basic input/ouput system, and - a step of starting up an operating system of said terminal stored in said memory,
An applicator (10, 30) for applying microneedles to skin comprising: a resistive portion (14, 34) configured to apply resistance against movement of a microneedle sheet having the plurality of microneedles formed along a main surface of the sheet; and a bending portion (15, 35) configured to bend the microneedle sheet passed through the resistive portion (14, 34) to raise the microneedles from the main surface, characterized in that the diameter of the bending portion (15, 35) is 0.1 to 4 mm, and the height of each microneedle is 10 to 1000 μm. a resistive portion (14, 34) configured to apply resistance against movement of a microneedle sheet having the plurality of microneedles formed along a main surface of the sheet; and a bending portion (15, 35) configured to bend the microneedle sheet passed through the resistive portion (14, 34) to raise the microneedles from the main surface, characterized in that the diameter of the bending portion (15, 35) is 0.1 to 4 mm, and the height of each microneedle is 10 to 1000 μm.
A system for handling packaging items, the system having a handling machine and/or a packaging machine, which has at least one handling device at which gripper heads are arranged, as well as having insertion frames associated with the handling device, which insertion frames are adapted to the size of the packaging items to be handled, for the purpose of feeding the packaging items into bundles, and also having a magazine, wherein the handling device and the associated insertion frame are replaceable together and are movable between an operating position at the machine and a storing position in the magazine, characterised in that the handling device and the associated insertion frame are stackable above one another and are lockable to each other automatically, and in that rails are arranged between the machine and the magazine for the purpose of approximately horizontally conveying the at least one replaceable handling device and an insertion frame associated with it between the operating position and the storing position.
A method of producing a biaryltetrazole compound represented by the formula: wherein R 1 to R 4 are each independently a hydrogen atom, or an alkyl group, an aralkyl group or an aryl group, each of which optionally has substituent(s), R 5 ' is a methyl group, a methyl group substituted by a protected hydroxyl group or a linear or branched chain C1-12 alkoxycarbonyl group, and R 6 is a tetrazolyl-protecting group, or a salt thereof, comprising reacting a 2-phenyltetrazole derivative represented by the formula: wherein each symbol is as defined above, or a salt thereof with a benzene derivative represented by the formula: wherein R 5' is as defined above, and X 1 is a leaving group, in the presence of a metal catalyst, a base and one or more kinds of compounds selected from the group consisting of the following (a) - (d); (a) a monocarboxylic acid metal salt (b) a dicarboxylic acid metal salt (c) a sulfonic acid metal salt, and (d) a phosphate or phosphoric amide metal salt represented by R A x P y wherein R A is R'''O or R''' 2 N (wherein R''' is a hydrogen atom, or a straight chain or branched chain alkyl group having 1 - 20 carbon atoms, an aralkyl group having 7 - 14 carbon atoms or an aryl group having 6 - 18 carbon atoms, each of which optionally contains a nitrogen atom, an oxygen atom or a sulfur atom), M is a metal atom, x and y are each independently an integer of 1 or 2, and x+y is 3. (a) a monocarboxylic acid metal salt (b) a dicarboxylic acid metal salt (c) a sulfonic acid metal salt, and (d) a phosphate or phosphoric amide metal salt represented by R A x P y wherein R A is R'''O or R''' 2 N (wherein R''' is a hydrogen atom, or a straight chain or branched chain alkyl group having 1 - 20 carbon atoms, an aralkyl group having 7 - 14 carbon atoms or an aryl group having 6 - 18 carbon atoms, each of which optionally contains a nitrogen atom, an oxygen atom or a sulfur atom), M is a metal atom, x and y are each independently an integer of 1 or 2, and x+y is 3.
An apparatus comprising: a hardware processor; a platform description module which, when executed by the hardware processor, causes the hardware processor to: (i) read a platform description indicative of hardware components of a target computing device, and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and a binding module which, when, executed by the hardware processor, causes the hardware processor to: bind the platform manifest to the target computing device; burn a platform model identifier into an in-field programmable fuse of the target computing device; include the platform model identifier in the platform manifest; and cryptographically sign the platform manifest in response to inclusion of the platform model identifier in the platform manifest. a hardware processor; a platform description module which, when executed by the hardware processor, causes the hardware processor to: (i) read a platform description indicative of hardware components of a target computing device, and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and (i) read a platform description indicative of hardware components of a target computing device, and (ii) generate a platform manifest based on the platform description, a binding module which, when, executed by the hardware processor, causes the hardware processor to: bind the platform manifest to the target computing device; burn a platform model identifier into an in-field programmable fuse of the target computing device; include the platform model identifier in the platform manifest; and cryptographically sign the platform manifest in response to inclusion of the platform model identifier in the platform manifest. bind the platform manifest to the target computing device; burn a platform model identifier into an in-field programmable fuse of the target computing device; include the platform model identifier in the platform manifest; and cryptographically sign the platform manifest in response to inclusion of the platform model identifier in the platform manifest.
A wafer polishing apparatus comprising: a first polishing roller disposed on a wafer, the first polishing roller extending in a direction in which the wafer extends; and a second polishing roller disposed under the wafer, the second polishing roller extending in the direction in which the wafer extends, a rotation driving module contacting an edge portion of the wafer to transmit a rotation force to the wafer; characterised by a pressure adjustment module for adjusting a pressure at which the first and second polishing rollers compress the wafer; and a position adjustment module located under the pressure adjustment module and adjusting a relative position of the first and second polishing rollers with a center portion of the wafer; wherein the pressure adjustment module physically supports the first and second polishing rollers and is a hydraulic cylinder which generates a differential hydraulic pressure in accordance with a control signal. a first polishing roller disposed on a wafer, the first polishing roller extending in a direction in which the wafer extends; and a second polishing roller disposed under the wafer, the second polishing roller extending in the direction in which the wafer extends, a rotation driving module contacting an edge portion of the wafer to transmit a rotation force to the wafer; characterised by a pressure adjustment module for adjusting a pressure at which the first and second polishing rollers compress the wafer; and a position adjustment module located under the pressure adjustment module and adjusting a relative position of the first and second polishing rollers with a center portion of the wafer; wherein the pressure adjustment module physically supports the first and second polishing rollers and is a hydraulic cylinder which generates a differential hydraulic pressure in accordance with a control signal.
A gas turbine engine comprising: a compressor section; a combustor section; a diffuser case module; and a manifold (114; 132; 134; 144; 152; 164; 170; 178; 194; 202) in communication with a pre-diffuser inlet and said compressor section; characterised in that: the diffuser case module comprises a multiple of struts within an annular flow path from said compressor section to said combustor section; at least one of said multiple of struts defines said pre-diffuser inlet in communication with said annular flow path; and said pre-diffuser inlet is a mid-span pre-diffuser inlet extending from one or both sides of said at least one of said multiple of struts, wherein the mid-span pre-diffuser inlet includes a side-winged mid-span pre-diffuser RAM inlet. a compressor section; a combustor section; a diffuser case module; and a manifold (114; 132; 134; 144; 152; 164; 170; 178; 194; 202) in communication with a pre-diffuser inlet and said compressor section; characterised in that: the diffuser case module comprises a multiple of struts within an annular flow path from said compressor section to said combustor section; at least one of said multiple of struts defines said pre-diffuser inlet in communication with said annular flow path; and said pre-diffuser inlet is a mid-span pre-diffuser inlet extending from one or both sides of said at least one of said multiple of struts, wherein the mid-span pre-diffuser inlet includes a side-winged mid-span pre-diffuser RAM inlet.
A method for initiating elevator service by entering an elevator call on a call input device operating a program including a plurality of floor designation graphical objects (24A-24L) displayed on a graphical user interface, the method comprising the steps of: (a) selecting a current floor graphical object (24A, 24F, 24G, 24K) from a preferred landing graphical object; and (b) selecting a destination floor graphical object (24A, 24F, 24G, 24K) from the preferred landing graphical object; characterised in that each of the floor designation graphical objects (24A, 24F, 24G, 24K) within the preferred landing graphical object is moveable and selecting the destination floor graphical object (24A, 24F, 24G, 24K) comprises: moving the current floor graphical object (24A, 24F, 24G, 24K) to overlay the destination floor graphical object (24A, 24F, 24G, 24K). (a) selecting a current floor graphical object (24A, 24F, 24G, 24K) from a preferred landing graphical object; and (b) selecting a destination floor graphical object (24A, 24F, 24G, 24K) from the preferred landing graphical object; characterised in that each of the floor designation graphical objects (24A, 24F, 24G, 24K) within the preferred landing graphical object is moveable and selecting the destination floor graphical object (24A, 24F, 24G, 24K) comprises: moving the current floor graphical object (24A, 24F, 24G, 24K) to overlay the destination floor graphical object (24A, 24F, 24G, 24K). moving the current floor graphical object (24A, 24F, 24G, 24K) to overlay the destination floor graphical object (24A, 24F, 24G, 24K).
Method of delivering a predetermined volume of a liquid product into a thermoplastic container formed from a heated preform positioned in a mold having an opening opposite an injection head, wherein prior to injecting the liquid product in the preform causing expansion of the container, the method includes a step of filling the preform with an inert component in relation to the liquid product to be injected, the inert component being a liquid, the method being characterized in that - the preform is filled with the inert component prior to the step of heating the preform, - the preform is filled with the inert component at the time the preform is being heated or - the preform is filled with the inert component during the transfer of the heated preform into the mold. - the preform is filled with the inert component prior to the step of heating the preform, - the preform is filled with the inert component at the time the preform is being heated or - the preform is filled with the inert component during the transfer of the heated preform into the mold.
A data transmission/reception method of a base station, comprising: transmitting a configuration information of a plurality of subframes divided at time axis in a radio frame; dividing each of downlink subframes among the subframes into a semi-static region and a dynamic region; and transmitting (806, 810) a control signal in the semi-static region and either receiving uplink data or transmitting downlink data in the dynamic region according to the control signal in the semi-static region. transmitting a configuration information of a plurality of subframes divided at time axis in a radio frame; dividing each of downlink subframes among the subframes into a semi-static region and a dynamic region; and transmitting (806, 810) a control signal in the semi-static region and either receiving uplink data or transmitting downlink data in the dynamic region according to the control signal in the semi-static region.