mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic transducer (100, 200, 200', 300, 400, 500, 600, 700, 800, 900 or 1000) in a wearable sound device, the acoustic transducer (100, 200, 200', 300, 400, 500, 600, 700, 800, 900 or 1000) comprising: a first anchor structure ; and a first flap comprising: a first end anchored by the first anchor structure ; and a second end configured to perform a first up-and-down movement to form a vent temporarily, wherein the first flap partitions a space into a first volume (VL1) to be connected to an ear canal and a second volume (VL2) to be connected to an ambient of the wearable sound device; a second anchor structure ; a second flap comprising: a first end anchored by the second anchor structure ; and a second end opposite to the second end of the first flap and configured to perform a second up-and-down movement to form the vent ; wherein the ear canal and the ambient are connected via the vent temporarily opened; characterised in that the first flap is configured to be driven according to a first signal and the second flap is configured to be driven according to a second signal, the first signal is a common signal plus an incremental voltage, and the second signal is the common signal plus a decremental voltage to make the first flap and the second flap move in opposite directions. a first anchor structure ; and a first flap comprising: a first end anchored by the first anchor structure ; and a second end configured to perform a first up-and-down movement to form a vent temporarily, wherein the first flap partitions a space into a first volume (VL1) to be connected to an ear canal and a second volume (VL2) to be connected to an ambient of the wearable sound device; a first end anchored by the first anchor structure ; and a second end configured to perform a first up-and-down movement to form a vent temporarily, wherein the first flap partitions a space into a first volume (VL1) to be connected to an ear canal and a second volume (VL2) to be connected to an ambient of the wearable sound device; a second anchor structure ; a second flap comprising: a first end anchored by the second anchor structure ; and a second end opposite to the second end of the first flap and configured to perform a second up-and-down movement to form the vent ; a first end anchored by the second anchor structure ; and a second end opposite to the second end of the first flap and configured to perform a second up-and-down movement to form the vent ; wherein the ear canal and the ambient are connected via the vent temporarily opened; characterised in that the first flap is configured to be driven according to a first signal and the second flap is configured to be driven according to a second signal, the first signal is a common signal plus an incremental voltage, and the second signal is the common signal plus a decremental voltage to make the first flap and the second flap move in opposite directions.
A tile for covering surfaces, comprising at least a first layer made of ceramic material having a visible face and a laying face opposite to said visible face , said laying face being suitable for be turned towards a laying surface to be covered , and at least a second layer arranged on said laying face of said first layer and made of a magnetic material, characterized in that said second layer has a thickness of between 0.3 mm and 3 mm and comprises strontium ferrites with a weight concentration varying between 85% and 95% and chlorinated polyethylene with a weight concentration varying between 5% and 15% with respect to the total weight of the second layer itself.
A biocompatible phase invertable composition, suitable for use as a sealant, that goes from a first fluid state to a second non-fluid state, wherein said biocompatible phase invertable composition comprises: (a) a fluid substrate comprising a proteinaceous material, and (b) a heat stabilized glutaraldehyde crosslinking agent; wherein said biocompatible phase invertable composition further comprises a buffer and wherein said biocompatible phase invertable composition remains in a fluid state, following combination of the fluid substrate and the heat stabilized glutaraldehyde crosslinking agent, for a period of time ranging from 10 seconds to 10 minutes when maintained at a temperature ranging from 15 °C to 40 °C. (a) a fluid substrate comprising a proteinaceous material, and (b) a heat stabilized glutaraldehyde crosslinking agent;
An autoinjector comprising: • a body receiving a reservoir (S), said reservoir (S) containing fluid and including a piston (P), such as a pre-filled syringe, • a piston rod that is adapted to co-operate with the piston (P) of said reservoir (S), said piston rod being movable by an injection spring between a primed position and an injection position in which said piston rod has moved the piston (P) of the reservoir (S) so as to inject the fluid into an injection site, • an indicator device for indicating to the user that said autoinjector may be removed from said injection site, said autoinjector including a retarding system so as to delay the end of actuating said indicator device relative to the end of injection, characterized in that said indicator device generates a continuous noise while it is being actuated, said noise being generated until the end of actuating said indicator device, said indicator device and/or said retarding system including a rotary element (19; 19'; 16') with respect to said body , said continuous noise being generated during said rotation, in particular by means of one or more flexible tabs formed either on said rotary element or on said body, and cooperating with corresponding profiles formed on the other of said rotary element and said body. • a body receiving a reservoir (S), said reservoir (S) containing fluid and including a piston (P), such as a pre-filled syringe, • a piston rod that is adapted to co-operate with the piston (P) of said reservoir (S), said piston rod being movable by an injection spring between a primed position and an injection position in which said piston rod has moved the piston (P) of the reservoir (S) so as to inject the fluid into an injection site, • an indicator device for indicating to the user that said autoinjector may be removed from said injection site,
A system for collecting exhaled particles, said system comprising: a) a reservoir having first opening and a second opening ; b) a mouthpiece , c) an inertial impactor having an inlet and an outlet , said impactor being arranged to pass a gas stream (A) comprising particles (P) between said inlet and said outlet , said inlet of said inertial impactor being connected to said first opening of said reservoir , d) a pump having an inlet and an outlet, said pump being arranged to maintain a constant gas stream flow through said impactor , and e) a first valve , wherein said first opening of said reservoir is connected to said mouthpiece via said first valve , said pump is located downstream of said impactor , characterized in that said second opening of said reservoir is connected to said outlet of said pump, and the system is configured to be operated without requiring external air to be added to the reservoir . a) a reservoir having first opening and a second opening ; b) a mouthpiece , c) an inertial impactor having an inlet and an outlet , said impactor being arranged to pass a gas stream (A) comprising particles (P) between said inlet and said outlet , said inlet of said inertial impactor being connected to said first opening of said reservoir , d) a pump having an inlet and an outlet, said pump being arranged to maintain a constant gas stream flow through said impactor , and e) a first valve ,
Vehicle emergency communication system for providing emergency information from a vehicle accident, the system comprising: a sensor module adapted to be arranged in a vehicle for sensing and collecting emergency information from a vehicle accident, the sensor module comprising a radar sensor for detecting at least one physiological parameter of a vehicle passenger; a short range communication module for providing emergency information to a short range communication receiver ; and a long range communication module for providing emergency information to a plurality of long range communication receivers such that the emergency information may be used for emergency response prioritization; wherein the plurality of long range communication receivers includes a backend server for storing and processing emergency information from a vehicle accident, and an emergency responder device adapted to be arranged at an emergency responder; and the sensor module is configured for pre-sensing said at least one physiological parameter before detecting a vehicle accident, wherein the backend server is configured for storing data of said physiological parameter before detecting a vehicle accident, comparing the emergency information from the vehicle accident with the data of said physical parameter stored in the backend server , thereby producing processed data of said physical parameter, and providing said processed data to the emergency responder device . a sensor module adapted to be arranged in a vehicle for sensing and collecting emergency information from a vehicle accident, the sensor module comprising a radar sensor for detecting at least one physiological parameter of a vehicle passenger; a short range communication module for providing emergency information to a short range communication receiver ; and a long range communication module for providing emergency information to a plurality of long range communication receivers such that the emergency information may be used for emergency response prioritization; wherein the plurality of long range communication receivers includes a backend server for storing and processing emergency information from a vehicle accident, and an emergency responder device adapted to be arranged at an emergency responder; and the sensor module is configured for pre-sensing said at least one physiological parameter before detecting a vehicle accident, wherein the backend server is configured for storing data of said physiological parameter before detecting a vehicle accident, comparing the emergency information from the vehicle accident with the data of said physical parameter stored in the backend server , thereby producing processed data of said physical parameter, and providing said processed data to the emergency responder device .
An adhesive composition comprising an acrylic copolymer formed by polymerizing a monomer mixture, the monomer mixture including: a monomer represented by [Formula 1] below; a (meth)acrylic monomer including a carboxy group; a (meth)acrylic monomer including a cross-linkable functional group; and an alkyl(meth)acrylate-based monomer; wherein the acrylic copolymer has a polymerization conversion rate of 99 wt% or higher: [Formula 1] R 1 -CH=CR 2 -(C=O)-O-X-Y in Formula 1, R 1 is hydrogen, a C1-C6 alkyl group, or a C2-C6 alkenyl group; R 2 is hydrogen or a C1-C10 alkyl group; X is a single bond, a C1-C10 alkylene group, a C2-C10 alkenylene group, ether, ester, or a combination thereof; and Y is a vinyl group, an allyl group, or a C3-C10 cycloalkenyl group, wherein the (meth)acrylic monomer including a cross-linkable functional group is a hydroxy group-containing monomer or a nitrogen-containing monomer, wherein the adhesive composition comprises based on 100 parts by weight of the monomer mixture, 0.01-1 part by weight of the monomer represented by [Formula 1]; 0.01-1 part by weight of the (meth)acrylic monomer including a carboxy group; 84.98-99.88 parts by weight of the alkyl(meth)acrylate-based monomer; and 0.1-15 parts by weight of the (meth)acrylic monomer including a cross-linkable functional group. a monomer represented by [Formula 1] below; a (meth)acrylic monomer including a carboxy group; a (meth)acrylic monomer including a cross-linkable functional group; and an alkyl(meth)acrylate-based monomer; wherein the acrylic copolymer has a polymerization conversion rate of 99 wt% or higher: [Formula 1] R 1 -CH=CR 2 -(C=O)-O-X-Y in Formula 1, R 1 is hydrogen, a C1-C6 alkyl group, or a C2-C6 alkenyl group; R 2 is hydrogen or a C1-C10 alkyl group; X is a single bond, a C1-C10 alkylene group, a C2-C10 alkenylene group, ether, ester, or a combination thereof; and Y is a vinyl group, an allyl group, or a C3-C10 cycloalkenyl group, wherein the (meth)acrylic monomer including a cross-linkable functional group is a hydroxy group-containing monomer or a nitrogen-containing monomer, wherein the adhesive composition comprises based on 100 parts by weight of the monomer mixture, 0.01-1 part by weight of the monomer represented by [Formula 1]; 0.01-1 part by weight of the (meth)acrylic monomer including a carboxy group; 84.98-99.88 parts by weight of the alkyl(meth)acrylate-based monomer; and 0.1-15 parts by weight of the (meth)acrylic monomer including a cross-linkable functional group.
A lithium-sulfur battery comprising: a positive electrode comprising a sulfur-carbon composite, a negative electrode disposed opposite to the positive electrode, and a separator provided between the positive electrode and the negative electrode, the separator comprising a separator body and a lithium polysulfide adsorption layer formed on at least one surface of the separator body, wherein the adsorption layer comprises a polymer having a nitroxyl radical functional group and is one or more of poly(2,2,6,6-tetramethyl-1-piperidinyloxyl-4-yl (meth)acrylate, poly(2,2,6,6-tetramethyl-1-piperidinyloxyl-4-yl vinyl ether, poly(TEMPO-substituted norbornene), poly(2,2,5,5-tetramethylpyrrolidine-1-oxyl-3-yl ethylene oxide, poly[2,3-bis(2,2,6,6-tetramethylpiperidine-1-oxyl-4-oxycarbonyl)-5-norbonene] and poly(tetramethylpiperidinoxy)acrylamide. a positive electrode comprising a sulfur-carbon composite, a negative electrode disposed opposite to the positive electrode, and a separator provided between the positive electrode and the negative electrode, the separator comprising a separator body and a lithium polysulfide adsorption layer formed on at least one surface of the separator body, wherein the adsorption layer comprises a polymer having a nitroxyl radical functional group and is one or more of poly(2,2,6,6-tetramethyl-1-piperidinyloxyl-4-yl (meth)acrylate, poly(2,2,6,6-tetramethyl-1-piperidinyloxyl-4-yl vinyl ether, poly(TEMPO-substituted norbornene), poly(2,2,5,5-tetramethylpyrrolidine-1-oxyl-3-yl ethylene oxide, poly[2,3-bis(2,2,6,6-tetramethylpiperidine-1-oxyl-4-oxycarbonyl)-5-norbonene] and poly(tetramethylpiperidinoxy)acrylamide.
An optical fiber for generating or amplifying a laser light with use of an excitation light, comprising: a first optical fiber body including a first core and a first cladding ; a second optical fiber body including a second core and a second cladding and joined at a first end surface thereof to a first end surface of the first optical fiber body; and a first end cap having light permeability and joined to a second end surface of the second optical fiber body, wherein the first core is doped with a laser medium, and a mass content of the laser medium in the second core is lower than a mass content of the laser medium in the first core, or the second core does not contain any laser medium, characterized in that the second core has a diameter larger than a diameter of the first core, and the second core is designed to have a length whereby reflection of the laser light output from the first core is prevented within the second core, whereby the laser light is emitted from the second core before being reflected within the second core. a first optical fiber body including a first core and a first cladding ; a second optical fiber body including a second core and a second cladding and joined at a first end surface thereof to a first end surface of the first optical fiber body; and a first end cap having light permeability and joined to a second end surface of the second optical fiber body, wherein the first core is doped with a laser medium, and a mass content of the laser medium in the second core is lower than a mass content of the laser medium in the first core, or the second core does not contain any laser medium, characterized in that the second core has a diameter larger than a diameter of the first core, and the second core is designed to have a length whereby reflection of the laser light output from the first core is prevented within the second core, whereby the laser light is emitted from the second core before being reflected within the second core.
A method for pretreatment of oily sewage obtained from a petrochemical refining process for removing oil and suspended solids from the oily sewage, comprising the following steps without air flotation: (a) Sedimentation separation: subjecting oily sewage to sedimentation separation to achieve primary separation of oil, sludge, and water to provide an oily sewage effluent; (b) Hydrocyclone-intensified filtration: subjecting the oily sewage effluent obtained by the primary separation in Step (a) to hydrocyclone-intensified filtration to further remove dispersed oil, sludge and sand from the oily sewage to provide an oily sewage effluent; (c) Shape coalescence separation: subjecting the oily sewage effluent obtained by hydrocyclone-intensified filtration in Step (b) to shape coalescence separation to achieve the demulsification, coalescence and separation of emulsified oil to provide treated wastewater; and (d) Biochemical treatment: delivering the treated wastewater obtained in Step (c) directly to an anoxic/aerobic/hydrocyclone (AOH) biochemical system, wherein an air flotation unit is exempted wherein the shape coalescence separation is achieved by a shape coalescer comprising a modular internal part comprising hydrophilic-oleophobic fibers and oleophilic-hydrophobic fibers weaved in an X and/or Ω pattern. (a) Sedimentation separation: subjecting oily sewage to sedimentation separation to achieve primary separation of oil, sludge, and water to provide an oily sewage effluent; (b) Hydrocyclone-intensified filtration: subjecting the oily sewage effluent obtained by the primary separation in Step (a) to hydrocyclone-intensified filtration to further remove dispersed oil, sludge and sand from the oily sewage to provide an oily sewage effluent; (c) Shape coalescence separation: subjecting the oily sewage effluent obtained by hydrocyclone-intensified filtration in Step (b) to shape coalescence separation to achieve the demulsification, coalescence and separation of emulsified oil to provide treated wastewater; and (d) Biochemical treatment: delivering the treated wastewater obtained in Step (c) directly to an anoxic/aerobic/hydrocyclone (AOH) biochemical system, wherein an air flotation unit is exempted
A method for managing packet transfer carried out by a device comprising: receiving incoming packets for local memory within the device that is configured as fabric attached memory and is addressable by other devices through a memory fabric physical layer interface , at least some of the packets comprising different instruction types, the memory fabric physical layer interface having a higher data rate than a data rate of a physical layer interface of the device; determining, by a controller of the device, a packet type of the incoming packets received from the memory fabric physical layer interface via the physical layer interface ; and when the determined incoming packet type from the memory fabric physical layer interface is of a type containing an atomic request, queuing incoming packets determined to contain the atomic request in a first priority buffer , queuing incoming packets determined to contain other types of requests in one or more lower priority buffers to the first priority buffer and prioritizing, by the controller, transfer of the incoming packet with the atomic request over other packet types of incoming packets, to memory access logic that accesses the local memory within the device. receiving incoming packets for local memory within the device that is configured as fabric attached memory and is addressable by other devices through a memory fabric physical layer interface , at least some of the packets comprising different instruction types, the memory fabric physical layer interface having a higher data rate than a data rate of a physical layer interface of the device; determining, by a controller of the device, a packet type of the incoming packets received from the memory fabric physical layer interface via the physical layer interface ; and when the determined incoming packet type from the memory fabric physical layer interface is of a type containing an atomic request, queuing incoming packets determined to contain the atomic request in a first priority buffer , queuing incoming packets determined to contain other types of requests in one or more lower priority buffers to the first priority buffer and prioritizing, by the controller, transfer of the incoming packet with the atomic request over other packet types of incoming packets, to memory access logic that accesses the local memory within the device.
A watering system comprising: one or more water supplying units configured to operate within a region ; a watering robot according to any one of claims 3 - 6, further including: an irrigation controller configured to operate within the region . one or more water supplying units configured to operate within a region ; a watering robot according to any one of claims 3 - 6, further including: an irrigation controller configured to operate within the region .
A vaccine for use in protecting offspring of a sow against an infection with porcine endemic diarrhea virus (PEDV), the vaccine comprising killed whole PEDV antigen and an oil containing adjuvant, wherein the oil is a non metabolizable oil and in that the oil is present in an amount less than 50% v/v, by administration of the vaccine to the sow at a dose of the antigen of at least 3.0E6 TCID 50 killed whole PEDV, defined as the dose of the antigen is such that at least a VN titre is obtained with the antigen that is the same as the VN titre that can be obtained with a vaccine comprising per dose 3.0E6 TCID 50 killed whole PED virus.