mhurhangee/ep-ind-claims huggingface dataset:
A metering pump, comprising, inside a head: - an impeller provided with vanes, - means for the transmission and kinematic reduction of the rotary motion of the impeller, - means for converting the rotary motion into reciprocating rectilinear motion, - means for pumping a liquid to be metered, which are moved mechanically by said means for converting rotary motion into reciprocating rectilinear motion, a rigid container for a liquid to be metered being fixed to said head, said pumping means being provided with an intake duct that is extended so as to draw from said rigid container, said intake duct comprising a first segment that is integral with the pumping means and is extended between said pumping means and the inlet of said rigid container, and a second segment that extends from the end of said first segment to the bottom of said rigid container, said second segment being constituted by a flexible tube, characterized in that said rigid container is fixed to said head with reversible bayonet coupling means, and said first segment, including said end from which said flexible tube extends, remains in said head. - an impeller provided with vanes, - means for the transmission and kinematic reduction of the rotary motion of the impeller, - means for converting the rotary motion into reciprocating rectilinear motion, - means for pumping a liquid to be metered, which are moved mechanically by said means for converting rotary motion into reciprocating rectilinear motion, a rigid container for a liquid to be metered being fixed to said head, said pumping means being provided with an intake duct that is extended so as to draw from said rigid container, said intake duct comprising a first segment that is integral with the pumping means and is extended between said pumping means and the inlet of said rigid container, and a second segment that extends from the end of said first segment to the bottom of said rigid container, said second segment being constituted by a flexible tube, characterized in that said rigid container is fixed to said head with reversible bayonet coupling means, and said first segment, including said end from which said flexible tube extends, remains in said head. a rigid container for a liquid to be metered being fixed to said head, said pumping means being provided with an intake duct that is extended so as to draw from said rigid container, said intake duct comprising a first segment that is integral with the pumping means and is extended between said pumping means and the inlet of said rigid container, and a second segment that extends from the end of said first segment to the bottom of said rigid container, said second segment being constituted by a flexible tube, characterized in that said rigid container is fixed to said head with reversible bayonet coupling means, and said first segment, including said end from which said flexible tube extends, remains in said head.
An article of footwear, comprising: a sole structure including a bottom surface; a first group of traction elements disposed on a lateral side of the bottom surface, the first group of traction elements including a plurality of traction elements (360, 366, 370) disposed along a lateral edge of the sole structure; a second group of traction elements disposed on a medial side of the bottom surface; the second group of traction elements induding a first medial rotational cleat group and a second medial rotational cleat group; the first medial rotational cleat group comprising a plurality of traction elements (302, 308, 314) extending away from the bottom surface, wherein the plurality of traction elements (302, 308, 314) are arranged in a first circular pattern; the second medial rotational cleat group comprising a plurality of traction elements (332, 338, 344) extending away from the bottom surface, wherein the plurality of traction elements (332, 338, 344) are arranged in a second circular pattern; wherein the first medial rotational cleat group is disposed adjacent a front peripheral edge of the sole structure; wherein the second medial rotational cleat group is disposed rearward of the first medial rotational cleat group; wherein the first circular pattern is associated with a first center point and a first radius; wherein the second circular pattern is associated with a second center point different than the first center point and a second radius; and characterized in that the first radius is larger than the second radius. a sole structure including a bottom surface; a first group of traction elements disposed on a lateral side of the bottom surface, the first group of traction elements including a plurality of traction elements (360, 366, 370) disposed along a lateral edge of the sole structure; a second group of traction elements disposed on a medial side of the bottom surface; the second group of traction elements induding a first medial rotational cleat group and a second medial rotational cleat group; the first medial rotational cleat group comprising a plurality of traction elements (302, 308, 314) extending away from the bottom surface, wherein the plurality of traction elements (302, 308, 314) are arranged in a first circular pattern; the second medial rotational cleat group comprising a plurality of traction elements (332, 338, 344) extending away from the bottom surface, wherein the plurality of traction elements (332, 338, 344) are arranged in a second circular pattern; wherein the first medial rotational cleat group is disposed adjacent a front peripheral edge of the sole structure; wherein the second medial rotational cleat group is disposed rearward of the first medial rotational cleat group; wherein the first circular pattern is associated with a first center point and a first radius; wherein the second circular pattern is associated with a second center point different than the first center point and a second radius; and characterized in that the first radius is larger than the second radius.
A resin-made bottle comprising a plurality of depressions each having a surface area of 1-100 mm 2 provided in a predetermined pattern in at least a partial region thereof, wherein a surface of each depression is embossed and wherein the respective depressions are arranged in a hexagonal lattice pattern, characterized in that each depression has a rhombus shape.
A neutralizing anti-ALK-1 monoclonal antibody, or an antigen-binding portion thereof, wherein said antibody or antigen-binding portion cross-competes for binding to ALK-1 with an antibody comprising: a. a heavy chain variable domain of SEQ ID NO: 6 and a light chain variable domain of SEQ ID NO: 8; or b. the heavy chain variable domain amino acid sequence encoded by the nucleotide sequence of the insert found in the clone deposited under ATCC accession number PTA-6864 and the light chain variable domain amino acid sequence encoded by the nucleotide sequence of the insert found in the clone deposited under ATCC accession number PTA-6865. a. a heavy chain variable domain of SEQ ID NO: 6 and a light chain variable domain of SEQ ID NO: 8; or b. the heavy chain variable domain amino acid sequence encoded by the nucleotide sequence of the insert found in the clone deposited under ATCC accession number PTA-6864 and the light chain variable domain amino acid sequence encoded by the nucleotide sequence of the insert found in the clone deposited under ATCC accession number PTA-6865.
A method in a mobile device for providing an improved heading of the mobile device, the mobile device comprising an inertial measurement unit comprising an accelerometer and a gyroscope, and a Global Navigation Satellite System receiver, the method comprising: receiving an accelerometer measurement, a, of the mobile device from the accelerometer; receiving a gyroscope measurement, ω, of the mobile device from the gyroscope; receiving a GNSS heading, H GNSS, of the mobile device from the GNSS receiver; computing a gravity vector, g, based on the accelerometer measurement, a; computing a virtual gyroscope heading rate, Ḣ Gyro, based on the gyroscope measurement, ω, and the gravity vector, g, wherein computing the virtual gyroscope heading rate, Ḣ Gyro, comprises computing the virtual gyroscope heading rate, Ḣ Gyro, from a projection of the gyroscope measurement, ω, to the gravity vector, g; combining the GNSS heading, H GNSS, and the virtual gyroscope heading rate, Ḣ Gyro, to form the improved heading of the mobile device; and, computing a bias to correct calibration of the gyroscope using the improved heading. receiving an accelerometer measurement, a, of the mobile device from the accelerometer; receiving a gyroscope measurement, ω, of the mobile device from the gyroscope; receiving a GNSS heading, H GNSS, of the mobile device from the GNSS receiver; computing a gravity vector, g, based on the accelerometer measurement, a; computing a virtual gyroscope heading rate, Ḣ Gyro, based on the gyroscope measurement, ω, and the gravity vector, g, wherein computing the virtual gyroscope heading rate, Ḣ Gyro, comprises computing the virtual gyroscope heading rate, Ḣ Gyro, from a projection of the gyroscope measurement, ω, to the gravity vector, g; combining the GNSS heading, H GNSS, and the virtual gyroscope heading rate, Ḣ Gyro, to form the improved heading of the mobile device; and, computing a bias to correct calibration of the gyroscope using the improved heading.
A method of a User Equipment, in the following also referred to as UE, the method comprising: initiating a random access, in the following also referred to as RA, procedure; receiving a RA response during the RA procedure, wherein the RA response indicates a first uplink, in the following also referred to as UL, grant for the UE to perform a Msg3 transmission by a specific hybrid automatic repeat request, in the following also referred to as HARQ, process; receiving a second UL grant for the UE to perform a specific transmission, wherein the specific transmission is to be performed during the RA procedure; and if the specific transmission is not performed by the specific HARQ process used for the Msg3 transmission then performing the specific transmission, and if the specific transmission is to be performed by the specific HARQ process used for the Msg3 transmission, wherein the Msg3 transmission and the specific transmission are not overlapped in a time domain, then determining whether to perform the specific transmission based on one or more of: whether the second UL grant is provided by a radio resource control, in the following also referred to as RRC, message or is provided by a Physical Downlink Control Channel, in the following also referred to as PDCCH, a triggering event of the RA procedure, a logical channel priority of data to be transmitted, and whether a logical channel for data to be carried by the specific transmission is for a Ultra-Reliable and Low Latency Communication, in the following also referred to as URLLC, service. initiating a random access, in the following also referred to as RA, procedure; receiving a RA response during the RA procedure, wherein the RA response indicates a first uplink, in the following also referred to as UL, grant for the UE to perform a Msg3 transmission by a specific hybrid automatic repeat request, in the following also referred to as HARQ, process; receiving a second UL grant for the UE to perform a specific transmission, wherein the specific transmission is to be performed during the RA procedure; and if the specific transmission is not performed by the specific HARQ process used for the Msg3 transmission then performing the specific transmission, and if the specific transmission is to be performed by the specific HARQ process used for the Msg3 transmission, wherein the Msg3 transmission and the specific transmission are not overlapped in a time domain, then determining whether to perform the specific transmission based on one or more of: whether the second UL grant is provided by a radio resource control, in the following also referred to as RRC, message or is provided by a Physical Downlink Control Channel, in the following also referred to as PDCCH, a triggering event of the RA procedure, a logical channel priority of data to be transmitted, and whether a logical channel for data to be carried by the specific transmission is for a Ultra-Reliable and Low Latency Communication, in the following also referred to as URLLC, service.
Non-viral vector for the use in the treatment of hemophilia, comprising a nucleic acid expression cassette for the expression of coagulation factor FVIII or FIX in a patient suffering from hemophilia, wherein the expression cassette comprises: (a) a promoter directing gene expression in human cells; (b) a coding sequence containing a nucleic acid sequence coding for coagulation factor FVIII or FIX; (c) a scaffold/matrix attachment region of the gene coding for human Interferon-beta (IFN-beta), wherein the scaffold/matrix attachment region has a nucleic acid sequence according to SEQ ID NO. 11 or SEQ ID NO. 12 or a nucleic acid sequence having at least 95 % identity with SEQ ID NO. 11 or SEQ ID NO. 12; and (d) a transcriptional termination signal. (a) a promoter directing gene expression in human cells; (b) a coding sequence containing a nucleic acid sequence coding for coagulation factor FVIII or FIX; (c) a scaffold/matrix attachment region of the gene coding for human Interferon-beta (IFN-beta), wherein the scaffold/matrix attachment region has a nucleic acid sequence according to SEQ ID NO. 11 or SEQ ID NO. 12 or a nucleic acid sequence having at least 95 % identity with SEQ ID NO. 11 or SEQ ID NO. 12; and (d) a transcriptional termination signal.
A computer readable storage medium storing instructions that, when executed on a computer device, make the computer device execute the following method: • acquiring a number of columns, NC, from a null data packet announcement, NDPA, message, wherein the NC is a parameter of IEEE8o2.nac; • determining a number of active first spatial streams by detecting spatial streams where data transmission exists; • comparing the number of first spatial streams and the number of columns, NC, ∘ if the number of active first spatial streams is smaller than the number of columns, NC, taking the number of active spatial streams as a number of second spatial streams; ∘ if the number of columns, NC, is smaller than the number of first spatial streams, taking the number of columns as the number of second spatial streams; • feeding back the number of second spatial streams and spatial stream measurement information about the second spatial streams to a beamformer. • acquiring a number of columns, NC, from a null data packet announcement, NDPA, message, wherein the NC is a parameter of IEEE8o2.nac; • determining a number of active first spatial streams by detecting spatial streams where data transmission exists; • comparing the number of first spatial streams and the number of columns, NC, ∘ if the number of active first spatial streams is smaller than the number of columns, NC, taking the number of active spatial streams as a number of second spatial streams; ∘ if the number of columns, NC, is smaller than the number of first spatial streams, taking the number of columns as the number of second spatial streams; ∘ if the number of active first spatial streams is smaller than the number of columns, NC, taking the number of active spatial streams as a number of second spatial streams; ∘ if the number of columns, NC, is smaller than the number of first spatial streams, taking the number of columns as the number of second spatial streams; • feeding back the number of second spatial streams and spatial stream measurement information about the second spatial streams to a beamformer.
A microscope, in particular confocal microscope, with one or more lasers for generating pulsed illumination light for a sample and a detection device for detection signals from the sample for imaging, wherein the detection device has a plurality of spectral detection channels (Ch.1, Ch.2) which can be set for the detection of predeterminable different wavelength ranges (1, 2), and wherein the spectral detection channels (Ch.1, Ch.2) are each assigned a plurality of temporal detection windows (Ch.1.1, Ch.1.2, Ch.1.3, Ch.2.1, Ch.2.2, Ch.2.3), characterized in that the plurality of temporal detection windows (Ch.1.1, Ch.1.2, Ch.1.3, Ch.2.1, Ch.2.2, Ch.2.3) respectively assigned to the spectral detection channels (Ch.1, Ch.2) are adjustable during a measurement so that the user receives immediate visual feedback on the imaging and can optimize the settings of the detection windows (Ch.1.1, Ch.1.2, Ch.1.3, Ch.2.1, Ch.2.2, Ch.2.3) still during the measurement.
An enterprise network, comprising: managed devices including one or more physical layer information data acquisition technologies, wherein the one or more physical layer information data acquisition technologies are configured to automatically obtain physical layer information related to cabling attached to the managed devices; and at least one local agent configured to be communicatively coupled to at least one management application hosted on one or more server computers (124, 208) in a third party network distinct from the enterprise network, wherein the at least one local agent is configured to implement a southbound interface gateway between the managed devices and the at least one management application, wherein the southbound interface gateway is configured to forward messages between the managed devices and the at least one management application including the obtained physical layer information related to cabling attached to the managed devices, wherein the southbound interface gateway is configured to appear and function as a locally deployed management application from the perspective of the managed devices,wherein the southbound interface gateway is configured to implement discovery protocols used by the managed devices for discovering the at least one management application, wherein the southbound interface gateway is configured to forward messages, received from the at least one management application, requesting information from the managed devices or configuring a managed device. managed devices including one or more physical layer information data acquisition technologies, wherein the one or more physical layer information data acquisition technologies are configured to automatically obtain physical layer information related to cabling attached to the managed devices; and at least one local agent configured to be communicatively coupled to at least one management application hosted on one or more server computers (124, 208) in a third party network distinct from the enterprise network, wherein the at least one local agent is configured to implement a southbound interface gateway between the managed devices and the at least one management application, wherein the southbound interface gateway is configured to forward messages between the managed devices and the at least one management application including the obtained physical layer information related to cabling attached to the managed devices, wherein the southbound interface gateway is configured to appear and function as a locally deployed management application from the perspective of the managed devices,wherein the southbound interface gateway is configured to implement discovery protocols used by the managed devices for discovering the at least one management application, wherein the southbound interface gateway is configured to forward messages, received from the at least one management application, requesting information from the managed devices or configuring a managed device.
A fluid delivery device comprising: a housing including a fluid reservoir for containing medicament, the fluid reservoir being sealed proximate one end with a sliding seal piston; a delivery path configured to fluidly couple the fluid reservoir and a patient wearing the fluid delivery device; a basal actuator slidingly coupled to an inside surface of the housing and configured to directly or indirectly move the sliding seal piston in the fluid reservoir at a controlled basal rate; and a bolus actuator coupled to a proximal end of the basal actuator and configured to move the basal actuator relative to the fluid reservoir and directly or indirectly move the sliding seal piston in the fluid reservoir a discrete bolus amount at a time; wherein the basal actuator is contained within the bolus actuator; and characterised in that the basal actuator includes a reservoir containing a hydraulic fluid under pressure from a stored energy source, the reservoir of the basal actuator including an aperture configured to release the hydraulic fluid at a rate determined by the force of the stored energy source, the viscosity of the hydraulic fluid and the geometry of the aperture, wherein the hydraulic fluid that is released by the reservoir of the basal actuator presses on the sliding seal piston. a housing including a fluid reservoir for containing medicament, the fluid reservoir being sealed proximate one end with a sliding seal piston; a delivery path configured to fluidly couple the fluid reservoir and a patient wearing the fluid delivery device; a basal actuator slidingly coupled to an inside surface of the housing and configured to directly or indirectly move the sliding seal piston in the fluid reservoir at a controlled basal rate; and a bolus actuator coupled to a proximal end of the basal actuator and configured to move the basal actuator relative to the fluid reservoir and directly or indirectly move the sliding seal piston in the fluid reservoir a discrete bolus amount at a time; wherein the basal actuator is contained within the bolus actuator; and characterised in that the basal actuator includes a reservoir containing a hydraulic fluid under pressure from a stored energy source, the reservoir of the basal actuator including an aperture configured to release the hydraulic fluid at a rate determined by the force of the stored energy source, the viscosity of the hydraulic fluid and the geometry of the aperture, wherein the hydraulic fluid that is released by the reservoir of the basal actuator presses on the sliding seal piston.
A mountable track comprising a carriage, moveable along the track, and for supporting and providing electrical power to a medical device mounting apparatus, and comprising an electrical power cable providing an electrical connection between an electrical power source and the carriage, wherein a partial housing for the carriage provided such that the carriage is physically prevented from coming away from the track due to its physical size, characterized in that the carriage has wheels to move freely along the track along the inside surface of partially enclosed channels provided by the track and wherein the cable passes from the energy source, along the inside surface of one such channel, thus utilising the same channel as the wheels, and loops back before connecting to the carriage.
A method of preparing a Panax spp. plant root extract containing 90% or more of Rg3, Rk1, and Rg5 with respect to a weight of ginsenoside Rb1, Rc, Rb2, Rd, Rg3, Rk1, and Rg5, wherein the method comprises irradiating microwaves to a Panax spp. plant root or an extract thereof, wherein the irradiating of the microwaves is performed under pressure at a temperature in a range of 150°C to 190°C for 30 minutes to 90 minutes, wherein the irradiating of the microwaves is performed under a pressure in a range of 2 atm to 100 atm and the Panax spp. plant extract has a ratio of (Rg5 + Rk1)/ that is at least 2.