mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: - means (124-1, 124-N) for communicating to a receiving device a channel estimation capability indicating a maximum number of spatial streams, the channel estimation capability being included in a transmit beamforming capability field of a High Throughput, HT, capabilities element being present in a management frame defined in wireless network standard IEEE 802.11, wherein the maximum number of spatial streams indicated by the channel estimation capability further indicates a number of columns of a channel matrix for multiple-input multiple-output, MIMO, communication; and - means (124-1, 124-N) for transmitting signals to the receiving device based on information included in the capabilities element, so as to establish a wireless communication channel, characterised by the channel estimation capability being represented by a partial bit field of a bit field that is located adjacent to a bit field including an information of maximum beamformer capability. - means (124-1, 124-N) for communicating to a receiving device a channel estimation capability indicating a maximum number of spatial streams, the channel estimation capability being included in a transmit beamforming capability field of a High Throughput, HT, capabilities element being present in a management frame defined in wireless network standard IEEE 802.11, wherein the maximum number of spatial streams indicated by the channel estimation capability further indicates a number of columns of a channel matrix for multiple-input multiple-output, MIMO, communication; and - means (124-1, 124-N) for transmitting signals to the receiving device based on information included in the capabilities element, so as to establish a wireless communication channel, characterised by the channel estimation capability being represented by a partial bit field of a bit field that is located adjacent to a bit field including an information of maximum beamformer capability.
A method for purifying daptomycin comprising: a. subjecting the daptomycin to conditions in which a daptomycin micellar solution is formed by altering the pH; and b. separating the daptomycin micelles in the daptomycin micellar solution from low molecular weight contaminants by a size separation technique. a. subjecting the daptomycin to conditions in which a daptomycin micellar solution is formed by altering the pH; and b. separating the daptomycin micelles in the daptomycin micellar solution from low molecular weight contaminants by a size separation technique.
A replaceable module for an aerosol and flavor generating device, wherein the replaceable module comprises an air chamber, wherein the air chamber comprises at least an air inlet for an entrance of an airflow into the air chamber, wherein the air chamber comprises an air outlet for an exit of a first portion of the airflow out of the air chamber, wherein the air outlet is configured to be connected to an aerosol generating article to direct the first portion of the airflow through the aerosol generating article, wherein the air chamber comprises at least an opening arranged at a circumference of the air chamber for an exit of a second portion of the airflow radially out of the air chamber, wherein the air chamber comprises a holding unit (321, 332) for holding a flavor generating article between the air inlet and the opening, characterised in that the air chamber comprises a turbulence-generating unit arranged between the air inlet and the opening to block the airflow at least partially to cause a turbulent airflow in the air chamber close to the opening during puffing. wherein the replaceable module comprises an air chamber, wherein the air chamber comprises at least an air inlet for an entrance of an airflow into the air chamber, wherein the air chamber comprises an air outlet for an exit of a first portion of the airflow out of the air chamber, wherein the air outlet is configured to be connected to an aerosol generating article to direct the first portion of the airflow through the aerosol generating article, wherein the air chamber comprises at least an opening arranged at a circumference of the air chamber for an exit of a second portion of the airflow radially out of the air chamber, wherein the air chamber comprises a holding unit (321, 332) for holding a flavor generating article between the air inlet and the opening, characterised in that the air chamber comprises a turbulence-generating unit arranged between the air inlet and the opening to block the airflow at least partially to cause a turbulent airflow in the air chamber close to the opening during puffing.
A transducer assembly for a flowmeter, the assembly comprising: a monolithic housing; a transducer disposed within the housing and configured to direct acoustic signals past a front wall of the housing and toward an adjacent flow path of the flowmeter; a flange located at the rear end of the housing and configured for securing the housing within the flowmeter; a plurality of attenuating ribs physically coupled to and in axial alignment with the housing between the front of the housing and the flange, the plurality of ribs including a first rib in closest proximity to the transducer of a first geometry and a supplemental rib adjacent the first rib of a second geometry and wherein the first geometry substantially differs from the second geometry in both diameter and width. a monolithic housing; a transducer disposed within the housing and configured to direct acoustic signals past a front wall of the housing and toward an adjacent flow path of the flowmeter; a flange located at the rear end of the housing and configured for securing the housing within the flowmeter; a plurality of attenuating ribs physically coupled to and in axial alignment with the housing between the front of the housing and the flange, the plurality of ribs including a first rib in closest proximity to the transducer of a first geometry and a supplemental rib adjacent the first rib of a second geometry and wherein the first geometry substantially differs from the second geometry in both diameter and width.
A device for obtaining a blood sample, the device comprising: a holder for receiving a sample source, the holder having an actuation portion and a port; a lancet housing secured within the port, the lancet housing having an inlet and an interior; a puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within the interior and a puncturing position wherein at least a portion of the puncturing element extends through the inlet; characterized in that the device further comprises: a container removably connectable to a portion of the lancet housing, the container defining a collection cavity. a holder for receiving a sample source, the holder having an actuation portion and a port; a lancet housing secured within the port, the lancet housing having an inlet and an interior; a puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within the interior and a puncturing position wherein at least a portion of the puncturing element extends through the inlet; characterized in that the device further comprises: a container removably connectable to a portion of the lancet housing, the container defining a collection cavity.
A method of determining what operation a user desires to be performed with relation to collection of global navigation satellite system, GNSS, data, said method comprising: receiving at a handheld wireless device via a wireless communication component an indication of motion of a sensing device located apart from said handheld wireless device; receiving at said handheld wireless device, via said wireless communication component, GNSS data recorded by a GNSS receiver and configured to at least generate raw GNSS observables, at a time said indication of the motion of said sensing device was detected; recognizing the indication of the motion as an intentional gesture of a person carrying the sensing device; and accessing a gesture library and, if the recognized intentional gesture matches a motion profile stored in the gesture library, determining the operation which is correlated with that particular motion profile as the operation which the user desired to be performed with the GNSS data collected by said GNSS receiver at the time said indication of the motion is detected. receiving at a handheld wireless device via a wireless communication component an indication of motion of a sensing device located apart from said handheld wireless device; receiving at said handheld wireless device, via said wireless communication component, GNSS data recorded by a GNSS receiver and configured to at least generate raw GNSS observables, at a time said indication of the motion of said sensing device was detected; recognizing the indication of the motion as an intentional gesture of a person carrying the sensing device; and accessing a gesture library and, if the recognized intentional gesture matches a motion profile stored in the gesture library, determining the operation which is correlated with that particular motion profile as the operation which the user desired to be performed with the GNSS data collected by said GNSS receiver at the time said indication of the motion is detected.
A method of manufacturing a fibre composite component, in particular a fibre composite component for a rotor blade of a wind energy installation, wherein the method comprises the following process steps: - introducing a fibre material for the fibre composite component into a manufacturing mould, - supplying a flowable matrix material for the fibre composite component via a runner of the manufacturing mould having an extent in a longitudinal direction, using a vacuum assisted infusion process, so that the fibre material in the manufacturing mould is impregnated with matrix material from the runner flowing transversely to the longitudinal extent of the runner, wherein a first region (42, 42', 42") of the fibre material is impregnated substantially with matrix material from a first portion (22, 22', 22") of the runner and a second region (42, 42', 42") of the fibre material is impregnated substantially with matrix material from a second portion (22, 22', 22") of the runner, - specifying a first matrix material flow rate for the first portion (22, 22', 22") of the runner as a function of a thickness of the fibre material in the first region (42, 42', 42"), as well as specifying a second matrix material flow rate for the second portion (22, 22', 22") of the runner as a function of a thickness of the fibre material in the second region (42, 42', 42"), wherein the runner is formed by a channel, the channel cross-section (24, 24', 24") of which is changed by means of an insert piece of complementary shape. - introducing a fibre material for the fibre composite component into a manufacturing mould, - supplying a flowable matrix material for the fibre composite component via a runner of the manufacturing mould having an extent in a longitudinal direction, using a vacuum assisted infusion process, so that the fibre material in the manufacturing mould is impregnated with matrix material from the runner flowing transversely to the longitudinal extent of the runner, wherein a first region (42, 42', 42") of the fibre material is impregnated substantially with matrix material from a first portion (22, 22', 22") of the runner and a second region (42, 42', 42") of the fibre material is impregnated substantially with matrix material from a second portion (22, 22', 22") of the runner, - specifying a first matrix material flow rate for the first portion (22, 22', 22") of the runner as a function of a thickness of the fibre material in the first region (42, 42', 42"), as well as specifying a second matrix material flow rate for the second portion (22, 22', 22") of the runner as a function of a thickness of the fibre material in the second region (42, 42', 42"), wherein the runner is formed by a channel, the channel cross-section (24, 24', 24") of which is changed by means of an insert piece of complementary shape.
Slider valve comprising at least one actuating magnet, at least one hand-emergency-assembly, and at least one stroke limiting assembly is accessible from the outside at an armature tube of the actuating magnet, which stroke limiting assembly is adjustable by threading and wherein the stroke limiting-assembly comprises a threaded pin which can be threaded relative to the armature tube, and wherein for cooperation with the threaded pin and in alignment with the threaded pin an actuating member is movably arranged in the armature tube, by means of which actuating member in case of utilization of both as well the hand-emergency-assembly as also the stroke limiting-assembly an armature arranged in the armature tube can be actuated or can be limited in its stroke path, and wherein a removable cap is provided at the armature tube and the threaded pin is co-acting with the actuating member for limiting the stroke of the armature, characterized in that for adjusting the stroke limit relative to the armature tube the threaded pin of the stroke-limiting-assembly can be threaded in the cap provided at the armature tube and can be removed together with the cap from the armature tube for clearing an actuation access of the actuating member of the hand-emergency-assembly while maintaining the prior selected and adjusted stroke limit.
A method for operating an electric power converter, the method comprising: converting by the converter DC power into AC power supplied to a three-phase AC network connected to a three-phase output of the converter; concluding, during the converting, that a single-phase tripping has started in the three-phase AC network connected to the three-phase output of the converter; and during the converting, after the concluding that the single-phase tripping has started in the three-phase AC network, controlling an active current in the three-phase output of the converter on the basis of a negative sequence voltage in the three-phase output of the converter, or on the basis of a quantity indicative of the negative sequence voltage in the three-phase output of the converter, to its maximum level available, or to a predetermined fraction of its maximum level available, such that the negative sequence voltage in the three-phase output of the converter remains at or below a predetermined level and thus avoiding the converter to trip because of overvoltage while optimizing the power transfer capability, wherein the controlling is performed until concluding that the single-phase tripping has ended in the three-phase AC network. converting by the converter DC power into AC power supplied to a three-phase AC network connected to a three-phase output of the converter; concluding, during the converting, that a single-phase tripping has started in the three-phase AC network connected to the three-phase output of the converter; and during the converting, after the concluding that the single-phase tripping has started in the three-phase AC network, controlling an active current in the three-phase output of the converter on the basis of a negative sequence voltage in the three-phase output of the converter, or on the basis of a quantity indicative of the negative sequence voltage in the three-phase output of the converter, to its maximum level available, or to a predetermined fraction of its maximum level available, such that the negative sequence voltage in the three-phase output of the converter remains at or below a predetermined level and thus avoiding the converter to trip because of overvoltage while optimizing the power transfer capability, wherein the controlling is performed until concluding that the single-phase tripping has ended in the three-phase AC network.
A method for transmitting power headroom information by a terminal in a mobile communication system, the method comprising: receiving, by the terminal, information on an allocated uplink transmission resource; determining whether a path loss has changed more than a defined threshold after transmitting last power headroom information, when the terminal has the allocated uplink transmission resource; if the path loss has changed more than the defined threshold when the terminal has the allocated uplink transmission resource, determining a transmission of the power headroom information; and transmitting an uplink packet including the power headroom information using the allocated uplink transmission resource, wherein the power headroom information is obtained based on a difference between a maximum transmission power of the terminal and a transmission power of the terminal, and wherein the transmission power of the terminal is obtained using the path loss and information related to a Modulation Coding Scheme, MCS. receiving, by the terminal, information on an allocated uplink transmission resource; determining whether a path loss has changed more than a defined threshold after transmitting last power headroom information, when the terminal has the allocated uplink transmission resource; if the path loss has changed more than the defined threshold when the terminal has the allocated uplink transmission resource, determining a transmission of the power headroom information; and transmitting an uplink packet including the power headroom information using the allocated uplink transmission resource, wherein the power headroom information is obtained based on a difference between a maximum transmission power of the terminal and a transmission power of the terminal, and wherein the transmission power of the terminal is obtained using the path loss and information related to a Modulation Coding Scheme, MCS.
An internal combustion engine comprising a first set of cylinders comprising: - a first two-stroke compression cylinder housing a first compression piston connected to a first crank shaft; - an intermediate two-stroke compression cylinder housing an intermediate compression piston, wherein said intermediate two-stroke compression cylinder is configured to receive compressed gas from said first two-stroke compression cylinder; and - a first four-stroke combustion cylinder housing a first combustion piston, wherein said first four-stroke combustion cylinder is configured to receive compressed gas from said intermediate two-stroke-compression cylinder; characterized in that the internal combustion engine further comprises a second set of cylinders comprising: - a second two-stroke compression cylinder housing a second compression piston connected to said first crank shaft, wherein said second two-stroke compression cylinder is configured to provide compressed gas to said intermediate two-stroke compression cylinder; and - a second four-stroke combustion cylinder housing a second combustion piston, wherein said second four-stroke combustion cylinder is configured to receive compressed gas from said intermediate two-stroke compression cylinder; wherein each one of said intermediate compression piston and said first and second combustion pistons are connected to a second crank shaft, said second crank shaft being configured to rotate with a speed of at least twice the speed of said first crank shaft. - a first two-stroke compression cylinder housing a first compression piston connected to a first crank shaft; - an intermediate two-stroke compression cylinder housing an intermediate compression piston, wherein said intermediate two-stroke compression cylinder is configured to receive compressed gas from said first two-stroke compression cylinder; and - a first four-stroke combustion cylinder housing a first combustion piston, wherein said first four-stroke combustion cylinder is configured to receive compressed gas from said intermediate two-stroke-compression cylinder; - a second two-stroke compression cylinder housing a second compression piston connected to said first crank shaft, wherein said second two-stroke compression cylinder is configured to provide compressed gas to said intermediate two-stroke compression cylinder; and - a second four-stroke combustion cylinder housing a second combustion piston, wherein said second four-stroke combustion cylinder is configured to receive compressed gas from said intermediate two-stroke compression cylinder;
An absorbent structure comprising: a first area of fibrous absorbent material; and a second area of fibrous absorbent material; the first area having a greater basis weight than the second area, the second area including a plurality of segments separated by vertical interfaces, each of the vertical interfaces having a width less than 1 cm, bridging of fibrous absorbent material extends across the vertical interfaces, characterised in that the first area is free from voids and vertical interfaces such that it is substantially continuous, the first area covers between 34% and 70% of the entire area of the absorbent structure and the second area covers between 30% and 66% of the entire area of the absorbent structure, and the first area is formed in a median area of the absorbent structure. a first area of fibrous absorbent material; and a second area of fibrous absorbent material; the first area having a greater basis weight than the second area, the second area including a plurality of segments separated by vertical interfaces, each of the vertical interfaces having a width less than 1 cm, bridging of fibrous absorbent material extends across the vertical interfaces, characterised in that the first area is free from voids and vertical interfaces such that it is substantially continuous, the first area covers between 34% and 70% of the entire area of the absorbent structure and the second area covers between 30% and 66% of the entire area of the absorbent structure, and the first area is formed in a median area of the absorbent structure.
A variable speed drive comprising: - a ring adapted to rotate about a first rotation axis (C-C); - two coaxial disks, rigidly connected to each other, adapted to rotate about a second rotation axis (B-B) parallel to the first rotation axis; wherein the ring is at least partially housed between the two coaxial disks; - a plurality of driving members, carried by the ring and arranged according to a circular arrangement coaxial to the ring; said driving members being arranged and configured to co-act with mutually opposite surfaces of the two coaxial disks, transmitting a rotation motion from the ring to the two coaxial disks; - a device for adjusting the distance between the first rotation axis and the second rotation axis; characterized in that each driving member comprises two contact and sliding elements (101, 102) for contacting the opposite surfaces of the two coaxial disks, and an intermediate mechanical connection between the two contact and sliding elements (101, 102). - a ring adapted to rotate about a first rotation axis (C-C); - two coaxial disks, rigidly connected to each other, adapted to rotate about a second rotation axis (B-B) parallel to the first rotation axis; wherein the ring is at least partially housed between the two coaxial disks; - a plurality of driving members, carried by the ring and arranged according to a circular arrangement coaxial to the ring; said driving members being arranged and configured to co-act with mutually opposite surfaces of the two coaxial disks, transmitting a rotation motion from the ring to the two coaxial disks; - a device for adjusting the distance between the first rotation axis and the second rotation axis;