mhurhangee/ep-ind-claims huggingface dataset:
A plasma or serum separator for isolating plasma or serum from whole blood, the plasma or serum separator being formed as a strip and comprising: a blood separation member, configured for separating blood applied to a first portion of the blood separation member such that the plasma or serum of the blood is located in a second portion of the blood separation member; a holding member covering and holding the blood separation member; a blood introducing portion formed in a portion of the holding member covering the first portion of the blood separation member; a plasma or serum sampling aperture formed in a portion of the holding member covering the second portion of the blood separation member, wherein the separator is configured for plasma or serum to be extracted from the blood separation member through the plasma or serum sampling aperture by applying pressure to the holding member in order to squeeze out the plasma or serum characterised in that it further comprises at least one plasma or serum collecting cavity formed within the strip and arranged at the second portion of the blood separation member in fluid communication with the plasma or serum sampling aperture for collecting plasma or serum leaving the blood separation member through the plasma or serum sampling aperture. a blood separation member, configured for separating blood applied to a first portion of the blood separation member such that the plasma or serum of the blood is located in a second portion of the blood separation member; a holding member covering and holding the blood separation member; a blood introducing portion formed in a portion of the holding member covering the first portion of the blood separation member; a plasma or serum sampling aperture formed in a portion of the holding member covering the second portion of the blood separation member, wherein the separator is configured for plasma or serum to be extracted from the blood separation member through the plasma or serum sampling aperture by applying pressure to the holding member in order to squeeze out the plasma or serum characterised in that it further comprises at least one plasma or serum collecting cavity formed within the strip and arranged at the second portion of the blood separation member in fluid communication with the plasma or serum sampling aperture for collecting plasma or serum leaving the blood separation member through the plasma or serum sampling aperture.
An adhesive composition used in a medical instrument comprising: a main agent that includes one or more kinds of epoxy resin selected from the group consisting of bisphenol A-type epoxy resins, bisphenol F-type epoxy resins, and phenol novolac type epoxy resins; a curing agent comprising meta xylylene diamine and/or a derivative thereof; acrylic rubber; and a filler which contains alumina. a main agent that includes one or more kinds of epoxy resin selected from the group consisting of bisphenol A-type epoxy resins, bisphenol F-type epoxy resins, and phenol novolac type epoxy resins; a curing agent comprising meta xylylene diamine and/or a derivative thereof; acrylic rubber; and a filler which contains alumina.
A composite element comprising: a first skin plate and a second skin plate, which are both prefabricated composite elements comprising basic composite structure; inner surfaces (17a, 23a) and outer surfaces of the skin plates, and wherein the inner surfaces are fastened permanently to the composite element structure; at least the first skin plate comprises several protrusions on the outer surface of the first skin plate for providing it with local stiffeners; several additional first composite structures (22, 36) attached to the first skin plate only at the locations of each of the mentioned protrusions; and wherein the additional first composite structures (22, 36) form inner stiffeners at the protrusions and are covered by the basic composite structure of the first skin plate on the outer surface side of the composite element; wherein the first skin plate and the second skin plate are formed by laminating technique; and the basic composite structure of the first skin plate and the first additional composite structure attached on an inner surface of the first skin plate are being bulged together at the protrusions; characterized in that at least one of the mentioned additional first composite structures are laminated on the inner surfaces of the first skin plate and are laminated only at positions of protrusions which are to be formed for the first skin plate; and wherein the laminated first additional composite structures comprises only longitudinal reinforcing fibres. a first skin plate and a second skin plate, which are both prefabricated composite elements comprising basic composite structure; inner surfaces (17a, 23a) and outer surfaces of the skin plates, and wherein the inner surfaces are fastened permanently to the composite element structure; at least the first skin plate comprises several protrusions on the outer surface of the first skin plate for providing it with local stiffeners; several additional first composite structures (22, 36) attached to the first skin plate only at the locations of each of the mentioned protrusions; and wherein the additional first composite structures (22, 36) form inner stiffeners at the protrusions and are covered by the basic composite structure of the first skin plate on the outer surface side of the composite element; wherein the first skin plate and the second skin plate are formed by laminating technique; and the basic composite structure of the first skin plate and the first additional composite structure attached on an inner surface of the first skin plate are being bulged together at the protrusions; characterized in that at least one of the mentioned additional first composite structures are laminated on the inner surfaces of the first skin plate and are laminated only at positions of protrusions which are to be formed for the first skin plate; and wherein the laminated first additional composite structures comprises only longitudinal reinforcing fibres.
A device for controlling fluid motion in a micro/nanofluidic channels structure, comprising: - a structured volume of material, bearing a predetermined configuration of micro/nanofluidic channels for holding and transferring amounts of fluids, adapted to define at least one fluid inlet and at least one fluid outlet, and - a substrate made of material with piezoelectric properties, coupled to said configuration of micro/nanofluidic channels, bearing means for active control of the motion of an amount of fluid including transducer means (T 1 -T 6) which comprise at least one pair of interdigitated electrodes applied on said substrate, which are arranged to selectively generate a surface acoustic wave adapted to propagate on the substrate and interact with said amount of fluid; characterised in that the channels are hydrophobic and in that said transducer means (T 1 -T 6) are arranged in proximity to at least a fluid outlet of said configuration of channels in such a manner to generate a surface acoustic wave whose propagation wavelength is smaller than the characteristic dimension of the fluid channel propagating from the fluid outlet to a fluid inlet of the configuration, and leading to a pressure gradient along the channel which produces a not force on the fluid directed in the opposite direction with respect to the wave propagation direction, whereby the motion of said amount of fluid is induced towards the direction opposite to the surface acoustic wave propagation direction. - a structured volume of material, bearing a predetermined configuration of micro/nanofluidic channels for holding and transferring amounts of fluids, adapted to define at least one fluid inlet and at least one fluid outlet, and - a substrate made of material with piezoelectric properties, coupled to said configuration of micro/nanofluidic channels, bearing means for active control of the motion of an amount of fluid including transducer means (T 1 -T 6) which comprise at least one pair of interdigitated electrodes applied on said substrate, which are arranged to selectively generate a surface acoustic wave adapted to propagate on the substrate and interact with said amount of fluid;
A system, comprising: a stereoscopic recording device configured to capture a plurality of stages of an aircraft build process; one or more processors; memory; and one or more programs stored in the memory, the one or more programs comprising instructions for: building a stereographic library including repositories of 3D video organized by tail number, the repositories of 3D video corresponding to the plurality of stages of the aircraft build process; generating an enhanced walkthrough video of the aircraft build process, the enhanced walkthrough video including one or more of the following: a parallax grid overlay integrated into the video, and a thermal scan overlay integrated into the video; and analyzing the enhanced walkthrough video using post-processing analytics to identify anomalies and irregularities that occurred during the aircraft build process. a stereoscopic recording device configured to capture a plurality of stages of an aircraft build process; one or more processors; memory; and one or more programs stored in the memory, the one or more programs comprising instructions for: building a stereographic library including repositories of 3D video organized by tail number, the repositories of 3D video corresponding to the plurality of stages of the aircraft build process; generating an enhanced walkthrough video of the aircraft build process, the enhanced walkthrough video including one or more of the following: a parallax grid overlay integrated into the video, and a thermal scan overlay integrated into the video; and analyzing the enhanced walkthrough video using post-processing analytics to identify anomalies and irregularities that occurred during the aircraft build process. building a stereographic library including repositories of 3D video organized by tail number, the repositories of 3D video corresponding to the plurality of stages of the aircraft build process; generating an enhanced walkthrough video of the aircraft build process, the enhanced walkthrough video including one or more of the following: a parallax grid overlay integrated into the video, and a thermal scan overlay integrated into the video; and a parallax grid overlay integrated into the video, and a thermal scan overlay integrated into the video; and analyzing the enhanced walkthrough video using post-processing analytics to identify anomalies and irregularities that occurred during the aircraft build process.
A method comprising: identifying, by a device in a network, a domain name system, DNS, response that contains an address of an endpoint that is a destination of an encrypted session of a client in the network, the DNS response sent by a DNS service to the client; identifying, by the device, the encrypted session associated with the DNS response by correlating information in the DNS response with the encrypted session; in response to identifying the DNS response, capturing, by the device, DNS response data from the DNS response and session data for the identified encrypted session; making, by the device, a determination that the identified encrypted session is malicious by using the captured DNS response data and the captured session data as input to a machine learning-based classifier or rule-based classifier, wherein the machine learning-based classifier or rule-based classifier is configured to determine whether the identified encrypted session itself is malware related; and performing, by the device, a mediation action in response to the determination that the identified encrypted session is malicious. identifying, by a device in a network, a domain name system, DNS, response that contains an address of an endpoint that is a destination of an encrypted session of a client in the network, the DNS response sent by a DNS service to the client; identifying, by the device, the encrypted session associated with the DNS response by correlating information in the DNS response with the encrypted session; in response to identifying the DNS response, capturing, by the device, DNS response data from the DNS response and session data for the identified encrypted session; making, by the device, a determination that the identified encrypted session is malicious by using the captured DNS response data and the captured session data as input to a machine learning-based classifier or rule-based classifier, wherein the machine learning-based classifier or rule-based classifier is configured to determine whether the identified encrypted session itself is malware related; and performing, by the device, a mediation action in response to the determination that the identified encrypted session is malicious.
A method of controlling a control signal to a hydraulic device of a motorized vehicle comprising an engine, the hydraulic device being driven by a hydraulic pump powered by the engine, the method characterised by comprising the steps of: - determining a current maximum torque that the engine currently can deliver, - determining a current torque demand, and - continuously controlling the control signal to the hydraulic device in response to the difference between the maximum torque and the torque demand, and - continuously controlling the control signal in response to the current engine speed, being the highest of the engine speed indicated by the engine controller signal and the engine speed indicated by the hydraulic controller signal starting from the present demanded flow in the hydraulic device, thus by comparison with a safety margin preventing the engine from stalling. - determining a current maximum torque that the engine currently can deliver, - determining a current torque demand, and - continuously controlling the control signal to the hydraulic device in response to the difference between the maximum torque and the torque demand, and - continuously controlling the control signal in response to the current engine speed, being the highest of the engine speed indicated by the engine controller signal and the engine speed indicated by the hydraulic controller signal starting from the present demanded flow in the hydraulic device, thus by comparison with a safety margin preventing the engine from stalling.
A self-propelled harvester having a mounting device for a front attachment and at least one crawler track assembly which is provided with a damping system and which is formed by crawler tracks which are arranged at an axle of the harvester and at both sides on the axle, characterised in that the height level of the harvester is variable by a variation in the spring travel of the hydropneumatically operated damping system of the crawler track assembly.
A wrapping apparatus employing stretching plastic film for items to be wrapped, comprising entry line and exit line, which define a horizontal feeding line, having an enter path to and an exit path from a wrapping station provided with a drive ring apt to bring in rotation a reel of said stretching film around said horizontal feeding line, and a holding gripper apt to temporarily hold an initial edge of said film in a starting step of the rotation of said reel, characterized in that it furthermore comprises a temporary retaining device of said film comprising a stationary hollow elongated suction member arranged with a longitudinal axis thereof parallel to said exit path and having an inner longitudinal side located so as to end up just opposite an item to be wrapped during the permanence in the wrapping station, and an outer longitudinal side provided with at least an air suction intake.
A bearing for a hinge in a hinged raked aircraft wing tip, the bearing comprising: an outer member having an interior area defined by a concave inner surface; an inner member assembly having a first inner segment and a second inner segment, the first inner segment having a first base and a first bearing section extending axially from the first base, the second inner segment having a second base and a second bearing section extending axially from the second base, and the first bearing section and the second bearing section together forming a convex outer surface that is complementary in shape to the concave inner surface; a preload feature positioned between and engaging at least a portion of the first bearing section and the second bearing section; a lubricous liner positioned between the concave inner surface and the convex outer surface; at least a portion of the first bearing section and the second bearing section are positioned in the interior area so that the preload feature is compressed at least one of radially and axially inward and is biased at least one of radially and axially outward to limit axial movement between the outer member and the inner member assembly to a predetermined magnitude; and the preload feature is adapted to flex at least one of radially and axially outward as a result of wear to the liner to maintain the axial movement to the predetermined magnitude. an outer member having an interior area defined by a concave inner surface; an inner member assembly having a first inner segment and a second inner segment, the first inner segment having a first base and a first bearing section extending axially from the first base, the second inner segment having a second base and a second bearing section extending axially from the second base, and the first bearing section and the second bearing section together forming a convex outer surface that is complementary in shape to the concave inner surface; an inner member assembly having a first inner segment and a second inner segment, the first inner segment having a first base and a first bearing section extending axially from the first base, the second inner segment having a second base and a second bearing section extending axially from the second base, and the first bearing section and the second bearing section together forming a convex outer surface that is complementary in shape to the concave inner surface; a preload feature positioned between and engaging at least a portion of the first bearing section and the second bearing section; a lubricous liner positioned between the concave inner surface and the convex outer surface; at least a portion of the first bearing section and the second bearing section are positioned in the interior area so that the preload feature is compressed at least one of radially and axially inward and is biased at least one of radially and axially outward to limit axial movement between the outer member and the inner member assembly to a predetermined magnitude; and the preload feature is adapted to flex at least one of radially and axially outward as a result of wear to the liner to maintain the axial movement to the predetermined magnitude.
A hardware data compressor comprising: a first hardware engine configured to scan an input block of characters and to use a plurality of lists of nodes of hash chains to produce back pointers to matching strings in the input block to compress the input block; each node of a hash chain points to a character in the input block previously scanned and has an associated probability that a back pointer to a matching string that begins with the pointed-to character will be produced by the first hardware engine; and a second hardware engine configured to, for each list of nodes of a hash chain of the plurality of lists, sort the list according to the probabilities of the nodes of a hash chain in the list so that higher probability nodes of a hash chain appear earlier in the list for use by the first hardware engine to search for matching strings during the scan of the input block of characters. a first hardware engine configured to scan an input block of characters and to use a plurality of lists of nodes of hash chains to produce back pointers to matching strings in the input block to compress the input block; each node of a hash chain points to a character in the input block previously scanned and has an associated probability that a back pointer to a matching string that begins with the pointed-to character will be produced by the first hardware engine; and a second hardware engine configured to, for each list of nodes of a hash chain of the plurality of lists, sort the list according to the probabilities of the nodes of a hash chain in the list so that higher probability nodes of a hash chain appear earlier in the list for use by the first hardware engine to search for matching strings during the scan of the input block of characters.
A method for communicating control information in wireless communications carried by a base station, the method comprising: defining (602, 802), by the base station, resources associated with a search space for control information transmitted in the wireless communications; encoding (612, 806), by the base station, low latency control information associated with a low latency communication technology for transmission in a control channel region in the search space, wherein the control channel region is associated with a legacy communication technology, wherein the low latency communication technology uses one of multiple possible transmission time interval, TTI, having a duration that is less than a subframe of the legacy communication technology, and wherein encoding (612, 806) the low latency control information comprises selecting (610, 812), based on the duration of the TTI, a size of the low latency control information, as number of resource element groups, REGs, or control channel elements, CCEs, based on a mapping of numbers of CCEs or REGs to multiple sizes defined for the duration of the TTI, wherein the mapping is received in a configuration from a user equipment, UE, or other network entity; and transmitting (616, 810), by the base station, the low latency control information in the control channel region that is associated with the legacy communication technology. defining (602, 802), by the base station, resources associated with a search space for control information transmitted in the wireless communications; encoding (612, 806), by the base station, low latency control information associated with a low latency communication technology for transmission in a control channel region in the search space, wherein the control channel region is associated with a legacy communication technology, wherein the low latency communication technology uses one of multiple possible transmission time interval, TTI, having a duration that is less than a subframe of the legacy communication technology, and wherein encoding (612, 806) the low latency control information comprises selecting (610, 812), based on the duration of the TTI, a size of the low latency control information, as number of resource element groups, REGs, or control channel elements, CCEs, based on a mapping of numbers of CCEs or REGs to multiple sizes defined for the duration of the TTI, wherein the mapping is received in a configuration from a user equipment, UE, or other network entity; and transmitting (616, 810), by the base station, the low latency control information in the control channel region that is associated with the legacy communication technology.