mhurhangee/ep-ind-claims huggingface dataset:
A liquid sample collection device comprising: a housing (2a, 2b) including a liquid collection chamber, and a liquid supply conduit extending from an inlet port and in use generally downwardly to the collection chamber, wherein the collection chamber includes an air vent port located such that in use liquid supplied to the collection chamber through the liquid supply conduit displaces air through the air vent port, and wherein the liquid supply conduit follows a meandering path including a first air trap section defined at the junction between portions of the conduit extending with upward and downward components respectively, whereby in use once the air vent port is closed, air is displaced along the liquid supply conduit until it is trapped by the first air trap section thereby preventing further liquid flow through the conduit, and characterised in that the device comprises a second air trap section defined at a second junction between portions of the conduit extending with upward and downward components respectively.
A blow-out panel comprising: an outer frame; an inner frame positioned within the outer frame; and a connecting rod, wherein a blow-out port having a polygonal shape is formed by being surrounded by the outer frame and the inner frame, the connecting rod is provided at a corner of the blow-out port, the connecting rod connects the outer frame and the inner frame, characterized in that the connecting rod has a connecting rod body (241A, 241B) and a connecting portion (242A, 242B), the connecting portion (242A, 242B) is closer to a center of the blow-out panel than the connecting rod body (241A, 241B), the connecting portion (242A, 242B) connects the connecting rod body (241A, 241B) to the inner frame, the connecting portion (242A, 242B) and the connecting rod body (241A, 241B) each have a first surface and a second surface, as viewed from an inner surface side to an outer surface side of the blow-out panel, the first surface (2422A, 2422A) of the connecting portion (242A, 242B) and the first surface (2412A, 2412A) of the connecting rod body (241A, 241B) are disposed downstream of the corresponding second surfaces in a clockwise or counterclockwise direction around the center of the blow-out panel, and the second surface (2421A, 2421B) of the connecting portion (242A, 242B) and the second surface (2411A, 2411B) of the connecting rod body (241A, 241B) are combined to form an inwardly concave shape. an outer frame; an inner frame positioned within the outer frame; and a connecting rod, wherein a blow-out port having a polygonal shape is formed by being surrounded by the outer frame and the inner frame, the connecting rod is provided at a corner of the blow-out port, the connecting rod connects the outer frame and the inner frame, the connecting rod has a connecting rod body (241A, 241B) and a connecting portion (242A, 242B), the connecting portion (242A, 242B) is closer to a center of the blow-out panel than the connecting rod body (241A, 241B), the connecting portion (242A, 242B) connects the connecting rod body (241A, 241B) to the inner frame, the connecting portion (242A, 242B) and the connecting rod body (241A, 241B) each have a first surface and a second surface, as viewed from an inner surface side to an outer surface side of the blow-out panel, the first surface (2422A, 2422A) of the connecting portion (242A, 242B) and the first surface (2412A, 2412A) of the connecting rod body (241A, 241B) are disposed downstream of the corresponding second surfaces in a clockwise or counterclockwise direction around the center of the blow-out panel, and the second surface (2421A, 2421B) of the connecting portion (242A, 242B) and the second surface (2411A, 2411B) of the connecting rod body (241A, 241B) are combined to form an inwardly concave shape.
A system comprising: a network interface component configured to: receive, from a device, a request to authenticate including a credential; send, to the device, packets comprising a first stream of packets with each packet having a predetermined length and a predetermined timing; and receive information including a device identifier of the device that received or retransmitted the sent packets, from an access point that received the retransmitted or received packets, wherein the information includes a second stream of packets matching the first stream of packets; one or more processors configured to: generate the packets including the first stream of packets; and based on the information received from the access point, identify the device as receiving or retransmitting the first stream of packets and pair the received credential to the received device identifier; and a memory storing the paired device identifier and credential. a network interface component configured to: receive, from a device, a request to authenticate including a credential; send, to the device, packets comprising a first stream of packets with each packet having a predetermined length and a predetermined timing; and receive information including a device identifier of the device that received or retransmitted the sent packets, from an access point that received the retransmitted or received packets, wherein the information includes a second stream of packets matching the first stream of packets; receive, from a device, a request to authenticate including a credential; send, to the device, packets comprising a first stream of packets with each packet having a predetermined length and a predetermined timing; and receive information including a device identifier of the device that received or retransmitted the sent packets, from an access point that received the retransmitted or received packets, wherein the information includes a second stream of packets matching the first stream of packets; one or more processors configured to: generate the packets including the first stream of packets; and based on the information received from the access point, identify the device as receiving or retransmitting the first stream of packets and pair the received credential to the received device identifier; and generate the packets including the first stream of packets; and based on the information received from the access point, identify the device as receiving or retransmitting the first stream of packets and pair the received credential to the received device identifier; and a memory storing the paired device identifier and credential.
A suspension device for a rail or road-rail vehicle, comprising: - a chamber, - a piston, called main piston, provided for fastening to a rail axle of said vehicle and free in translation, - a piston, called blocking piston, free in translation in said chamber, - a resiliently deformable damping means placed between said main piston and said blocking piston, and - a blocking means for blocking or not blocking said blocking piston in at least one position in said chamber, so as to modify the stroke available for said main piston; characterized in that the main piston is formed by: - a piston, called follower piston, provided so as to be fixed to said rail axle, and - a piston, called intermediate piston, placed between said follower piston and the blocking piston, so that the damping means is located between said intermediate piston and said blocking piston; said follower and intermediate pistons being separate from one another, and said device also comprising moreover a resiliently deformable means placed between said follower and intermediate pistons. - a chamber, - a piston, called main piston, provided for fastening to a rail axle of said vehicle and free in translation, - a piston, called blocking piston, free in translation in said chamber, - a resiliently deformable damping means placed between said main piston and said blocking piston, and - a blocking means for blocking or not blocking said blocking piston in at least one position in said chamber, so as to modify the stroke available for said main piston; - a piston, called follower piston, provided so as to be fixed to said rail axle, and - a piston, called intermediate piston, placed between said follower piston and the blocking piston, so that the damping means is located between said intermediate piston and said blocking piston;
A navigated medical instrument, comprising: a flexible circuit assembly having: a base layer having an upper side and a lower side, the base layer defining an aperture extending through the base layer from the upper side to the lower side; a plurality of circuit traces each coupled to a pair of circuit pads, the circuit traces formed on the upper side of the base layer; and an insulative layer formed over the circuit traces to isolate the circuit traces from an external environment, wherein the base layer, plurality of circuit traces and insulative layer form a flexible circuit sheet (232A - figures 14-16); and a tracking coil having at least one coil assembly wire; wherein the base layer and the insulative layer include material properties and a thickness configured to facilitate the flexible circuit sheet being flexible such that the flexible circuit sheet is wrapped around the medical instrument; wherein a portion of the tracking coil is disposed within the aperture and the at least one coil assembly wire connects to at least one of the plurality of circuit traces outside the aperture and to the tracking coil within the aperture. a flexible circuit assembly having: a base layer having an upper side and a lower side, the base layer defining an aperture extending through the base layer from the upper side to the lower side; a plurality of circuit traces each coupled to a pair of circuit pads, the circuit traces formed on the upper side of the base layer; and an insulative layer formed over the circuit traces to isolate the circuit traces from an external environment, wherein the base layer, plurality of circuit traces and insulative layer form a flexible circuit sheet (232A - figures 14-16); and a base layer having an upper side and a lower side, the base layer defining an aperture extending through the base layer from the upper side to the lower side; a plurality of circuit traces each coupled to a pair of circuit pads, the circuit traces formed on the upper side of the base layer; and an insulative layer formed over the circuit traces to isolate the circuit traces from an external environment, wherein the base layer, plurality of circuit traces and insulative layer form a flexible circuit sheet (232A - figures 14-16); and a tracking coil having at least one coil assembly wire; wherein the base layer and the insulative layer include material properties and a thickness configured to facilitate the flexible circuit sheet being flexible such that the flexible circuit sheet is wrapped around the medical instrument; wherein a portion of the tracking coil is disposed within the aperture and the at least one coil assembly wire connects to at least one of the plurality of circuit traces outside the aperture and to the tracking coil within the aperture.
Microfluidic cartridge comprising a sampling device having a sealing ring arranged to form a microfluidic chamber when a support containing a biological sample fixed thereon is brought into contact with the sealing ring, and a microfluidic network device configured to supply reagents to the microfluidic chamber, the sampling device further comprising inlet and outlet distribution networks (33a, 33b) in fluid communication with the microfluidic chamber and a slide holder to guide and position said support containing a biological sample on the sampling device, the microfluidic network device comprising a plurality of reagent inlet channels fluidly connectable to reagent sources, at least one reagent outlet channel fluidly connected to the sampling device inlet distribution network, and a plurality of valves operable to selectively connect the inlet channels to the at least one outlet channel, wherein the sampling device and microfluidic network device are formed on a common microfluidic support as a single part. the sampling device further comprising inlet and outlet distribution networks (33a, 33b) in fluid communication with the microfluidic chamber and a slide holder to guide and position said support containing a biological sample on the sampling device, the microfluidic network device comprising a plurality of reagent inlet channels fluidly connectable to reagent sources, at least one reagent outlet channel fluidly connected to the sampling device inlet distribution network, and a plurality of valves operable to selectively connect the inlet channels to the at least one outlet channel, wherein the sampling device and microfluidic network device are formed on a common microfluidic support as a single part.
An oil leakage repairing material, wherein: the oil leakage repairing material includes an elastomer, monofunctional (meth)acrylate free from a hydroxyl group, polyfunctional (meth)acrylate, and a photo-radical initiator, the oil leakage repairing material is an active energy ray-curable composition; oil absorption of the oil leakage repairing material before curing determined by the method described in the subject application is 100% or greater; oil absorption of the oil leakage repairing material after curing determined by the method described in the subject application is 50% or less, and a glass transition temperature of the oil leakage repairing material after curing is 150°C or lower, wherein the glass transition temperature is determined from a peak value of tan δ (loss tangent) obtained by viscoelasticity measurement, and the oil leakage repairing material is a putty having a viscosity of 100 Pa•s or greater but 200,000 Pa•s or less, and the putty does not become stringy as the putty is pulled away, wherein the viscosity is determined by the method disclosed in the description. the oil leakage repairing material includes an elastomer, monofunctional (meth)acrylate free from a hydroxyl group, polyfunctional (meth)acrylate, and a photo-radical initiator, the oil leakage repairing material is an active energy ray-curable composition; oil absorption of the oil leakage repairing material before curing determined by the method described in the subject application is 100% or greater; oil absorption of the oil leakage repairing material after curing determined by the method described in the subject application is 50% or less, and a glass transition temperature of the oil leakage repairing material after curing is 150°C or lower, wherein the glass transition temperature is determined from a peak value of tan δ (loss tangent) obtained by viscoelasticity measurement, and the oil leakage repairing material is a putty having a viscosity of 100 Pa•s or greater but 200,000 Pa•s or less, and the putty does not become stringy as the putty is pulled away, wherein the viscosity is determined by the method disclosed in the description.
A leaf blower to be worn by a user, the leaf blower comprising: a frame including a back plate defining a back plate plane; and a blower system coupled to the frame, wherein the blower system includes a motor having a drive shaft, the drive shaft defining an axis, characterised in that the axis forms an angle with respect to the back plate plane of between 5 degrees and 35 degrees. a frame including a back plate defining a back plate plane; and a blower system coupled to the frame, wherein the blower system includes a motor having a drive shaft, the drive shaft defining an axis, characterised in that the axis forms an angle with respect to the back plate plane of between 5 degrees and 35 degrees.
A nanocrystalline solid dispersion composition having discrete particles, wherein each discrete particle comprises crystals of at least one pharmaceutical active dispersed in the crystalline matrix of at least one crystallization inducer and/or coexisting with crystals of crystallization inducer, optionally along with pharmaceutically acceptable excipients wherein at least 90% of the discrete particles have a particle size in the range of 0.5 to 20 μm as measured using a precalibrated stage micrometer using an optical microscope, wherein said pharmaceutical active is a non-steroidal anti-inflammatory drug (NSAID) or anti-diabetic drug selected from celecoxib, nateglinide, aceclofenac, curcumin and ibuprofen and said crystallization inducer is selected from mannitol, sorbitol, stearic acid and potassium chloride.
A method for providing content by a server (100, 140, 150), the method comprising receiving a request for content; receiving information of a plurality of devices (210, 220, 230, 240) which communicate with the server (100, 140, 150), the information being related to a type of content which is able to be played back in each of the plurality of devices (210, 220, 230, 240); identifying a priority of the plurality of devices based on the information and a type of the requested content; identifying a device of a highest priority from among the plurality of devices (210, 220, 230, 240); and transmitting the content to the device of the highest priority.
A system for infrasonic pressure fluctuation, infrasound, control of a structure defining an interior, comprising: a reversible compressor including a housing defining an interior opening interface open to the interior of the structure and an exterior opening interface open to an exterior of the structure, and including at least one controllable element to generate positive pressure flows and negative pressure flows between the interior opening interface and the exterior opening interface; a first pressure sensor located to sense pressure indicative of the interior of the structure; a second pressure sensor located to sense pressure indicative of the exterior of the structure; at least one controller configured to control the at least one controllable element of the compressor to cancel pressure oscillations within the interior of the structure based on the pressures detected by the first pressure sensor and the second pressure sensor; a first set of at least one band-pass filters each configured to individually band-pass filter at least one order of harmonic signal from the first pressure sensor; and a second set of at least one band-pass filters each configured to individually band-pass filter at least one order of harmonic signal from the second pressure sensor, wherein the at least one controller is configured to control the at least one controllable element of the compressor based on each of the filtered harmonic signals. a reversible compressor including a housing defining an interior opening interface open to the interior of the structure and an exterior opening interface open to an exterior of the structure, and including at least one controllable element to generate positive pressure flows and negative pressure flows between the interior opening interface and the exterior opening interface; a first pressure sensor located to sense pressure indicative of the interior of the structure; a second pressure sensor located to sense pressure indicative of the exterior of the structure; at least one controller configured to control the at least one controllable element of the compressor to cancel pressure oscillations within the interior of the structure based on the pressures detected by the first pressure sensor and the second pressure sensor; a first set of at least one band-pass filters each configured to individually band-pass filter at least one order of harmonic signal from the first pressure sensor; and a second set of at least one band-pass filters each configured to individually band-pass filter at least one order of harmonic signal from the second pressure sensor, wherein the at least one controller is configured to control the at least one controllable element of the compressor based on each of the filtered harmonic signals.
A downhole electromagnetic signal repeater apparatus for communicating information between surface equipment and downhole equipment positioned within a drill string, comprising: a housing having first and second subassemblies (92, 98), the first subassembly being electrically isolated from the second subassembly, a mandrel coaxially disposed within the housing, the mandrel being electrically isolated from the first subassembly and being electrically connected to the second subassembly, a receiver coaxially disposed between the housing and the mandrel and electrically coupled to the first and second subassemblies (92, 98), the receiver operable to receive an electromagnetic input signal from the earth via the first and second subassemblies (92, 98) and to transform the electromagnetic input signal to an electrical signal; an analog electronics package electrically connected to the receiver, the analog electronics package including at least one battery pack and a plurality of electronics devices including at least one filter and at least one amplifier, the analogs electronics package operable to filter and amplify the electrical signal; and a transmitter coaxially disposed between the housing and the mandrel, electrically coupled to the first and second subassemblies (92, 98), electrically connected to the analog electronics package and operable to transform the electrical signal into an electromagnetic output signal that is radiated into the earth via the first and second subassemblies (92, 98). a housing having first and second subassemblies (92, 98), the first subassembly being electrically isolated from the second subassembly, a mandrel coaxially disposed within the housing, the mandrel being electrically isolated from the first subassembly and being electrically connected to the second subassembly, a receiver coaxially disposed between the housing and the mandrel and electrically coupled to the first and second subassemblies (92, 98), the receiver operable to receive an electromagnetic input signal from the earth via the first and second subassemblies (92, 98) and to transform the electromagnetic input signal to an electrical signal; an analog electronics package electrically connected to the receiver, the analog electronics package including at least one battery pack and a plurality of electronics devices including at least one filter and at least one amplifier, the analogs electronics package operable to filter and amplify the electrical signal; and a transmitter coaxially disposed between the housing and the mandrel, electrically coupled to the first and second subassemblies (92, 98), electrically connected to the analog electronics package and operable to transform the electrical signal into an electromagnetic output signal that is radiated into the earth via the first and second subassemblies (92, 98).
Quick-change clamping device for a portable power tool, in particular a power angle grinder, having a output shaft that can be driven in rotation, having at least one clamping unit that, for the purpose of fixing an insert-tool unit to the output shaft without use of tools, has a movably mounted clamping element (20b, 20c, 20d, 20g, 20h, 20n) for applying a clamping force to the insert-tool unit when the clamping element is in a clamping position, characterized in that the clamping unit has a single clamping element (20b, 20c, 20d, 20g, 20h, 20n) which is formed by a positive-engagement element that is movable transversely in relation to a rotation axis of the output shaft and that is provided to engage with positive engagement behind a sub-region of the insert-tool unit for the purpose of securing the insert-tool unit, wherein the clamping element is formed by a toggle lever mounted so as to be rotatable about a rotation axis that is perpendicular to the rotation axis of the output shaft, wherein these rotation axes are mutually spaced apart.