mhurhangee/ep-ind-claims huggingface dataset:
An elongated, inflatable tourniquet cuff for encircling a limb of a patient, the cuff having a length and a width and a top surface, the cuff comprising: a port for inflating the inflatable tourniquet cuff; a first end having a fastener extending therefrom; a second end opposite the first end and including a slot through which fits the fastener and first end of the inflatable tourniquet cuff so that a first inflatable portion of the cuff is extendable through the slot to overlap a second inflatable portion of the cuff such that the cuff, including the overlapping first and second inflatable portions, encircles a limb in a first direction passing through the slot, with the fastener located between the first and second ends, wherein the fastener is configured to engage the top surface of the cuff in the same encircling direction. a port for inflating the inflatable tourniquet cuff; a first end having a fastener extending therefrom; a second end opposite the first end and including a slot through which fits the fastener and first end of the inflatable tourniquet cuff so that a first inflatable portion of the cuff is extendable through the slot to overlap a second inflatable portion of the cuff such that the cuff, including the overlapping first and second inflatable portions, encircles a limb in a first direction passing through the slot, with the fastener located between the first and second ends, wherein the fastener is configured to engage the top surface of the cuff in the same encircling direction.
A method of perforating a web, the method comprising: rotating a cylinder comprising a length, a longitudinal cylinder axis, an outer surface positioned radially outward from and substantially surrounding the longitudinal cylinder axis and at least one shaped anvil; operatively engaging a support with the cylinder, wherein the support is moveable with respect to the cylinder; positioning a blade disposed on the support so as to cooperate in contacting relationship with the anvil, wherein the blade is substantially parallel to the longitudinal cylinder axis, and wherein at least one of the blade and the anvil comprise a plurality of teeth, and wherein adjacent teeth are separated by a recessed portion; feeding a web between the cylinder and the support while the blade cooperates in contacting relationship with shaped anvil to perforate the web, characterized in that the anvil comprises one or more anvil segments positioned end-to-end along the length of the cylinder, each anvil segments being removable and replaceable independently from one another and adjustable on the outer surface to change how the anvil contacts the blade. rotating a cylinder comprising a length, a longitudinal cylinder axis, an outer surface positioned radially outward from and substantially surrounding the longitudinal cylinder axis and at least one shaped anvil; operatively engaging a support with the cylinder, wherein the support is moveable with respect to the cylinder; positioning a blade disposed on the support so as to cooperate in contacting relationship with the anvil, wherein the blade is substantially parallel to the longitudinal cylinder axis, and wherein at least one of the blade and the anvil comprise a plurality of teeth, and wherein adjacent teeth are separated by a recessed portion; feeding a web between the cylinder and the support while the blade cooperates in contacting relationship with shaped anvil to perforate the web, characterized in that the anvil comprises one or more anvil segments positioned end-to-end along the length of the cylinder, each anvil segments being removable and replaceable independently from one another and adjustable on the outer surface to change how the anvil contacts the blade.
A method performed by a first wireless communication node, comprising: receiving a configuration message indicating a configuration of at least one measurement resource from a second wireless communication node; determining at least one overlapping resource between the at least one measurement resource and a first plurality of resources; and determining at least one muting resource among the first plurality of resources based on a selected muting pattern within a selected muting pattern table, wherein the at least one muting resource comprises the at least one overlapping resource, wherein the selected muting pattern table is selected from a plurality of muting pattern tables based on a muting pattern table index, and the selected muting pattern table comprises a plurality of muting patterns, and the selected muting pattern is selected from the plurality of muting patterns based on a muting pattern index. receiving a configuration message indicating a configuration of at least one measurement resource from a second wireless communication node; determining at least one overlapping resource between the at least one measurement resource and a first plurality of resources; and determining at least one muting resource among the first plurality of resources based on a selected muting pattern within a selected muting pattern table, wherein the at least one muting resource comprises the at least one overlapping resource, wherein the selected muting pattern table is selected from a plurality of muting pattern tables based on a muting pattern table index, and the selected muting pattern table comprises a plurality of muting patterns, and the selected muting pattern is selected from the plurality of muting patterns based on a muting pattern index.
A system (10, 10A, 10B, 10C, 10D) for delivering respiratory gas to passengers on-board an aircraft, comprising: (i) a source of respiratory gas, (ii) at least a face mask for passenger, (iii) a delivery valve interposed between the source of respiratory gas and the face mask associated to the delivery valve, and (iv) a pressure sensor configured to detect passenger respiration and send a respiration signal upon detection of the passenger respiration, (v) a controller configured to control the delivery valve opening for supplying the face mask with a dose of respiratory gas based on the passenger respiration detection, and (vi) an anti-blocking device (38, 40, 42, P, CF) configured to supply the face mask with anti-blocking gas (14, 16), so that blockage is removed, characterized in that the anti-blocking device comprising an orifice configured to allow trickle flow of anti-blocking gas (14, 16). (i) a source of respiratory gas, (ii) at least a face mask for passenger, (iii) a delivery valve interposed between the source of respiratory gas and the face mask associated to the delivery valve, and (iv) a pressure sensor configured to detect passenger respiration and send a respiration signal upon detection of the passenger respiration, (v) a controller configured to control the delivery valve opening for supplying the face mask with a dose of respiratory gas based on the passenger respiration detection, and (vi) an anti-blocking device (38, 40, 42, P, CF) configured to supply the face mask with anti-blocking gas (14, 16), so that blockage is removed,
Antenna module for a motor vehicle, wherein the antenna module comprises at least one AM-FM antenna and a DAB antenna, wherein the antenna module has an antenna unit comprising the combined AM-FM antenna and the DAB antenna, wherein the antenna unit has at least one first circuit board having a first height in a first direction (z) and a first width in a second direction (x) that is perpendicular to the first direction (z), wherein helical antenna turns (7a, 6a) of the AM-FM antenna and/or DAB antenna, at least part of which is in the form of a planar helical antenna, are arranged on the at least one first circuit board, wherein the helical antenna turns (7a, 6a), at least for the most part, run in the second direction (x), wherein the antenna module has at least one first LTE 5G telephone antenna arranged on a second circuit board having a second height in the first direction (z) and a second width in a third direction (y) that is different from the first and second directions (x), in particular wherein the third direction (y) is at an angle with respect to the first and second directions (z, x) that is between 80° and 100°, and that is preferably 90°, characterized in that the at least one first LTE 5G telephone antenna has a first antenna arm, which is associated with a first frequency range, in particular for frequencies greater than 1 GHz, and a second antenna arm, which is associated with a second frequency range, in particular for frequencies less than 1 GHz, wherein the first and the second antenna arm (34, 35) are capacitively coupled to one another and are galvanically isolated from one another. the antenna module has an antenna unit comprising the combined AM-FM antenna and the DAB antenna, wherein the antenna unit has at least one first circuit board having a first height in a first direction (z) and a first width in a second direction (x) that is perpendicular to the first direction (z), wherein helical antenna turns (7a, 6a) of the AM-FM antenna and/or DAB antenna, at least part of which is in the form of a planar helical antenna, are arranged on the at least one first circuit board, wherein the helical antenna turns (7a, 6a), at least for the most part, run in the second direction (x), wherein the antenna module has at least one first LTE 5G telephone antenna arranged on a second circuit board having a second height in the first direction (z) and a second width in a third direction (y) that is different from the first and second directions (x), in particular wherein the third direction (y) is at an angle with respect to the first and second directions (z, x) that is between 80° and 100°, and that is preferably 90°, characterized in that the at least one first LTE 5G telephone antenna has a first antenna arm, which is associated with a first frequency range, in particular for frequencies greater than 1 GHz, and a second antenna arm, which is associated with a second frequency range, in particular for frequencies less than 1 GHz, wherein the first and the second antenna arm (34, 35) are capacitively coupled to one another and are galvanically isolated from one another.
A method comprising: receiving, at a user equipment, beam cluster information from a beam forming access point, the beam cluster information defining a plurality of beam clusters of an arrangement of downlink beams in a sweeping subframe, the beam cluster information defining downlink beam identification information for each of a plurality of downlink beams in a respective beam cluster, wherein downlink beams being part of a respective beam cluster have a spatial diversity smaller compared to downlink beams not part of a respective beam cluster such that the beam cluster information indicates beam neighbours for which the user equipment can use a same receive filter; determining, at the user equipment, a receive filter associated with at least one downlink beam of a beam cluster, which is received from the beam forming access point in a first symbol of the sweeping subframe; and using, at the user equipment, the receive filter to receive another downlink beam of the beam cluster, to which the at least one downlink beam belongs, which is received from the beam forming access point in a second symbol of the sweeping subframe, by assistance of the beam cluster information. receiving, at a user equipment, beam cluster information from a beam forming access point, the beam cluster information defining a plurality of beam clusters of an arrangement of downlink beams in a sweeping subframe, the beam cluster information defining downlink beam identification information for each of a plurality of downlink beams in a respective beam cluster, wherein downlink beams being part of a respective beam cluster have a spatial diversity smaller compared to downlink beams not part of a respective beam cluster such that the beam cluster information indicates beam neighbours for which the user equipment can use a same receive filter; determining, at the user equipment, a receive filter associated with at least one downlink beam of a beam cluster, which is received from the beam forming access point in a first symbol of the sweeping subframe; and using, at the user equipment, the receive filter to receive another downlink beam of the beam cluster, to which the at least one downlink beam belongs, which is received from the beam forming access point in a second symbol of the sweeping subframe, by assistance of the beam cluster information.
A vehicle sensor mounting structure comprising: a vehicle; and a LiDAR device (10, 11) mounted on a peripheral edge portion of a roof of the vehicle, the LiDAR device having a detection range (Ra, Rc) expanding diagonally downward as viewed from the roof, the LiDAR device being configured to detect an object (50, 60) within a detection range (Ra, Rc), and characterized in the detection range (Ra, Rc) including a part of an outer peripheral face (1b, 1c) of a vehicle body of the vehicle, and the LiDAR device being a long-range LiDAR device defined by having a lower limit of detection distance that is not less than 10 cm and not more than 1 m. a vehicle; and a LiDAR device (10, 11) mounted on a peripheral edge portion of a roof of the vehicle, the LiDAR device having a detection range (Ra, Rc) expanding diagonally downward as viewed from the roof, the LiDAR device being configured to detect an object (50, 60) within a detection range (Ra, Rc), and characterized in the detection range (Ra, Rc) including a part of an outer peripheral face (1b, 1c) of a vehicle body of the vehicle, and the LiDAR device being a long-range LiDAR device defined by having a lower limit of detection distance that is not less than 10 cm and not more than 1 m.
A machine for making liquid and semi-liquid products, comprising: - a container for processing said liquid and semi-liquid products; - a mixer operating inside said processing container; - a thermodynamic system comprising a heat exchanger, operatively associated with the processing container for exchanging heat with the liquid or semi-liquid product inside the container; - a motor unit operating on the mixer for driving it in rotation inside the container; - an inverter, connected to said motor unit for controlling the operation of said motor unit; - a control and operating unit, connected to the inverter for sending command signals and receiving control signals, - a communication fieldbus, interposed between the inverter and the control and operating unit for allowing the transmission of said command and control signals between the inverter and the control and operating unit, said machine being characterized in that the control and operating unit is programmed to run a first algorithm of the finite state machine type configured to command and control the inverter, comprising the following states: - transmission of a command to the inverter; - standby for confirmation that the inverter received the command; - transmission of a read request for an inverter operating parameter; - standby for receiving the inverter parameter. - a container for processing said liquid and semi-liquid products; - a mixer operating inside said processing container; - a thermodynamic system comprising a heat exchanger, operatively associated with the processing container for exchanging heat with the liquid or semi-liquid product inside the container; - a motor unit operating on the mixer for driving it in rotation inside the container; - an inverter, connected to said motor unit for controlling the operation of said motor unit; - a control and operating unit, connected to the inverter for sending command signals and receiving control signals, - a communication fieldbus, interposed between the inverter and the control and operating unit for allowing the transmission of said command and control signals between the inverter and the control and operating unit, said machine being characterized in that the control and operating unit is programmed to run a first algorithm of the finite state machine type configured to command and control the inverter, comprising the following states: - transmission of a command to the inverter; - standby for confirmation that the inverter received the command; - transmission of a read request for an inverter operating parameter; - standby for receiving the inverter parameter. - transmission of a command to the inverter; - standby for confirmation that the inverter received the command; - transmission of a read request for an inverter operating parameter; - standby for receiving the inverter parameter.
A pump system configured for negative pressure wound therapy, the pump system comprising: a pump assembly comprising: an actuator; and a diaphragm; and a controller configured to control operation of the pump system, the controller further configured to: apply a drive signal to the pump assembly, the drive signal alternating between a positive amplitude and a negative amplitude and the drive signal having an offset; and sample a pressure within a fluid flow path configured to connect the pump assembly to a wound dressing configured to be placed over a wound during one or more time intervals, characterised in that each of the one or more time intervals occurs when the drive signal is approximately at an amplitude equal to one or more sampling amplitudes. a pump assembly comprising: an actuator; and a diaphragm; and an actuator; and a diaphragm; and a controller configured to control operation of the pump system, the controller further configured to: apply a drive signal to the pump assembly, the drive signal alternating between a positive amplitude and a negative amplitude and the drive signal having an offset; and sample a pressure within a fluid flow path configured to connect the pump assembly to a wound dressing configured to be placed over a wound during one or more time intervals, characterised in that each of the one or more time intervals occurs when the drive signal is approximately at an amplitude equal to one or more sampling amplitudes. apply a drive signal to the pump assembly, the drive signal alternating between a positive amplitude and a negative amplitude and the drive signal having an offset; and sample a pressure within a fluid flow path configured to connect the pump assembly to a wound dressing configured to be placed over a wound during one or more time intervals, characterised in that each of the one or more time intervals occurs when the drive signal is approximately at an amplitude equal to one or more sampling amplitudes.
Measuring arrangement for detecting the wall thickness of a pipe, comprising a testing head having an ultrasound probe and having a main body which receives the ultrasound probe and which, on its underside, defines a main body support surface, characterized in that the testing head has two wing elements (23, 24) which, on their undersides, define in each case one wing element support surface and which are held on the main body so as to be pivotable about pivot axes (A 1, A 2), extending substantially parallel to one another and in a longitudinal direction, such that the wing element support surfaces can be moved towards one another and away from one another, characterized in that the wing elements (23, 24) are connected to one another via synchronization means, in particular in the form of synchronization toothings which mesh into one another, such that their pivoting movements about the associated pivot axes (A 1, A 2) are realized synchronously.
A method of assembling a Coriolis flow meter, comprising: providing a flow meter structure having a base and two legs (517, 518), where the two legs are attached to the base and are in a spaced apart relationship, the two legs each having a cylindrical opening (502, 512) through the leg, where the two cylindrical openings are aligned in a co-axial relationship; providing a flow tube having an outer diameter, where the outer diameter is configured to fit into the two cylindrical openings (502, 512) in the two legs while leaving a predefined gap, the flow tube 501 being formed of a fluoropolymer substance; placing the flow tube into the two cylindrical openings where a section of the flow tube extends between the two legs, and where the flow tube creates two predefined gaps between the outer diameter of the flow tube and the inner diameter of the two openings; inserting an adhesive in the two predefined gaps, where the adhesive is inserted into each predefined gap through a respective adhesive opening (504, 514) extending from a surface of each respective leg (517, 518) and intersecting a respective cylindrical opening (502, 512) in each leg (517, 518); holding the section of the flow tube extending between the two legs while the inserted adhesive cures. providing a flow meter structure having a base and two legs (517, 518), where the two legs are attached to the base and are in a spaced apart relationship, the two legs each having a cylindrical opening (502, 512) through the leg, where the two cylindrical openings are aligned in a co-axial relationship; providing a flow tube having an outer diameter, where the outer diameter is configured to fit into the two cylindrical openings (502, 512) in the two legs while leaving a predefined gap, the flow tube 501 being formed of a fluoropolymer substance; placing the flow tube into the two cylindrical openings where a section of the flow tube extends between the two legs, and where the flow tube creates two predefined gaps between the outer diameter of the flow tube and the inner diameter of the two openings; inserting an adhesive in the two predefined gaps, where the adhesive is inserted into each predefined gap through a respective adhesive opening (504, 514) extending from a surface of each respective leg (517, 518) and intersecting a respective cylindrical opening (502, 512) in each leg (517, 518); holding the section of the flow tube extending between the two legs while the inserted adhesive cures.