mhurhangee/patent-ind-claim-en huggingface dataset:
A component forming a part of a breathing tube, or forming the breathing tube , comprising: a tubular body having a foamed wall formed from a single extrudate, and wherein the foamed wall is surface modified by increasing the surface energy of the wall surface, wherein the foamed wall is surface modified by chemical means. a tubular body having a foamed wall formed from a single extrudate, and wherein the foamed wall is surface modified by increasing the surface energy of the wall surface, wherein the foamed wall is surface modified by chemical means.
A method of measuring an interaction force comprising: providing a microelectromechanical transducer comprising: a body ; a probe moveable relative to the body ; and a micromachined comb drive including a differential capacitive displacement sensor to provide a sensor output signal representative of an interaction force on the probe ; moving the probe relative to a sample surface , wherein the differential capacitive displacement sensor includes a plurality of sensing capacitors , each sensing capacitor comprising a plurality of comb capacitors and each configured to provide capacitance levels which, together, are representative of a position of the probe , wherein each of the comb capacitors of the sensing capacitors includes a fixed electrode comb coupled to the body and a moveable electrode comb coupled to the probe , and wherein moving the probe comprises oscillating the probe in a direction normal to the sample surface , and wherein, in response to moving the probe in the direction normal to the sample surface , a gap between the moveable electrode combs and the fixed electrode combs decreases for a portion of the plurality of sensing capacitors and increases for a remaining portion of the plurality of sensing capacitors ; and determining an interaction force between the probe and the sample surface using the sensor output signal, as the probe is moved relative to the sample surface and out of contact with the sample surface . providing a microelectromechanical transducer comprising: a body ; a probe moveable relative to the body ; and a micromachined comb drive including a differential capacitive displacement sensor to provide a sensor output signal representative of an interaction force on the probe ; a body ; a probe moveable relative to the body ; and a micromachined comb drive including a differential capacitive displacement sensor to provide a sensor output signal representative of an interaction force on the probe ; moving the probe relative to a sample surface , wherein the differential capacitive displacement sensor includes a plurality of sensing capacitors , each sensing capacitor comprising a plurality of comb capacitors and each configured to provide capacitance levels which, together, are representative of a position of the probe , wherein each of the comb capacitors of the sensing capacitors includes a fixed electrode comb coupled to the body and a moveable electrode comb coupled to the probe , and wherein moving the probe comprises oscillating the probe in a direction normal to the sample surface , and wherein, in response to moving the probe in the direction normal to the sample surface , a gap between the moveable electrode combs and the fixed electrode combs decreases for a portion of the plurality of sensing capacitors and increases for a remaining portion of the plurality of sensing capacitors ; and determining an interaction force between the probe and the sample surface using the sensor output signal, as the probe is moved relative to the sample surface and out of contact with the sample surface .
A method for positioning an interference source, applied to a cell in a time division long term evolution, TD-LTE, system, characterized in that the method comprises: performing (S101), by the cell, according to a system reference subcarrier, a frequency offset compensation on a subcarrier to be transmitted by the cell and used for carrying an interference source detection sequence to obtain a compensated to-be-transmitted subcarrier aligned with the system reference subcarrier, and performing, by the cell, according to the system reference subcarrier, a frequency offset compensation on a subcarrier received by the cell and used for carrying an interference source detection sequence to obtain a compensated received subcarrier aligned with a local subcarrier of the cell ; performing (S102), by the cell, a correlative processing on the interference source detection sequence carried by the subcarrier received by the cell by using a local interference source detection sequence which is generated locally; and in response to determining that a result of the correlative processing performed by the cell is correlative, determining (SI03), by the cell, a cell transmitting the interference source detection sequence as the interference source; wherein the system reference subcarrier is defined by the TD-LTE system, the frequency offset compensation refers to compensation for a frequency offset relative to the system reference subcarrier. performing (S101), by the cell, according to a system reference subcarrier, a frequency offset compensation on a subcarrier to be transmitted by the cell and used for carrying an interference source detection sequence to obtain a compensated to-be-transmitted subcarrier aligned with the system reference subcarrier, and performing, by the cell, according to the system reference subcarrier, a frequency offset compensation on a subcarrier received by the cell and used for carrying an interference source detection sequence to obtain a compensated received subcarrier aligned with a local subcarrier of the cell ; performing (S102), by the cell, a correlative processing on the interference source detection sequence carried by the subcarrier received by the cell by using a local interference source detection sequence which is generated locally; and in response to determining that a result of the correlative processing performed by the cell is correlative, determining (SI03), by the cell, a cell transmitting the interference source detection sequence as the interference source; wherein the system reference subcarrier is defined by the TD-LTE system, the frequency offset compensation refers to compensation for a frequency offset relative to the system reference subcarrier.
A method for a base station to transmit a narrowband, NB, synchronization signal to one or more user equipments, UEs, in a wireless communication system, the method comprising: transmitting an NB primary synchronization signal, PSS, using a first Zadoff-Chu sequence having a predetermined root index; and transmitting an NB secondary synchronization signal, SSS, indicating N NB cell identities assigned for NB Internet of Things, IoT, operation, wherein the NB SSS is generated from a sequence generated by multiplying a base sequence having a length M with a cover sequence in element units, wherein the base sequence is generated based on a second Zadoff-Chu sequence having a length corresponding to a largest prime number less than the length M in a frequency domain and is cyclically extended to have the length M, and wherein the sequence is divided into elements each having a length L, L corresponding to a number of subcarriers assigned to each of a plurality of orthogonal frequency division multiplexing, OFDM, symbols, and is mapped to and transmitted in the plurality of OFDM symbols, wherein a root index of the second Zadoff-Chu sequence is selected from among R root indices, R being an integer less than M, and wherein the cover sequence is indicated based on offset q, the offset q satisfying R ∗ a number of values of q = N. transmitting an NB primary synchronization signal, PSS, using a first Zadoff-Chu sequence having a predetermined root index; and transmitting an NB secondary synchronization signal, SSS, indicating N NB cell identities assigned for NB Internet of Things, IoT, operation, wherein the NB SSS is generated from a sequence generated by multiplying a base sequence having a length M with a cover sequence in element units, wherein the base sequence is generated based on a second Zadoff-Chu sequence having a length corresponding to a largest prime number less than the length M in a frequency domain and is cyclically extended to have the length M, and wherein the sequence is divided into elements each having a length L, L corresponding to a number of subcarriers assigned to each of a plurality of orthogonal frequency division multiplexing, OFDM, symbols, and is mapped to and transmitted in the plurality of OFDM symbols, wherein a root index of the second Zadoff-Chu sequence is selected from among R root indices, R being an integer less than M, and wherein the cover sequence is indicated based on offset q, the offset q satisfying R ∗ a number of values of q = N.
A tractor park brake force sensing system , comprising a linkage between a park brake lever and a park brake , the linkage including a force sensor that is responsive to how much force is applied through the linkage to the park brake ; a force sensing switch on the force sensor that is actuated if the force reaches a pre-specified force that is adequate to hold the tractor in place; and an indicator light on the tractor that is turned on if the force sensing switch is actuated.
Shaped body , in particular for a pressure sensor, with a membrane and with a supporting section supporting the membrane , wherein the supporting section is produced at least in sections from a ceramic material by means of additive manufacturing, wherein the supporting section has sections with different inner circumferential shapes and/or dimensions, wherein a first section of the supporting section represents the outer circumference of the membrane and a second section with an inner circumferential shape and/or dimension differing from the first section and being constant in longitudinal extent forms at least 25% of the longitudinal extent of the supporting section .
A bracket for a telecommunication terminal, wherein the bracket has two jaws , wherein the first jaw comprises a first receptacle for a first edge side of the telecommunication terminal and a second jaw comprises a second receptacle for a second edge side opposite the first edge side of the telecommunication terminal, characterized in that in an initial position of the bracket , the first and the second receptacle each form one side of an at least substantially V-shaped insertion opening for the telecommunication terminal, in that at least one of the jaws is mounted rotatably on a housing of the bracket , in that the receptacle of the rotatably mounted jaw has two sections , wherein the first section is arranged in front of the axis of rotation of the jaw in the direction of insertion (E) of the telecommunication terminal and the second section is arranged behind the axis of rotation of the jaw in the direction of insertion (E) of the telecommunication terminal, wherein the rotatably mounted jaw is rotatable against the restoring force of a first spring element.
A reconfigurable stretch forming apparatus comprising an array of pins adapted to be individually adjustable in height to define a reconfigurable forming surface , a pair of workpiece gripping devices being provided on opposite sides of the array of pins, characterised in that the gripping devices are counter-rotating and that each gripping device has an arcuate support surface comprising an outer surface of a roller for supporting a workpiece and a clamp member for clamping a work piece against said arcuate support surface , drive means being provided for rotating the counter-rotating gripping devices in opposing directions to stretch the work piece over the forming surface , the clamp member of each gripping device comprises an eccentrically mounted cam or roller mounted adjacent the arcuate support surface of the respective gripping device, an outer surface of each clamp member defining a clamping surface acting against the respective arcuate support surface to clamp a workpiece thereagainst, wherein the clamp member is rotatable between a first position, wherein the clamping surface of the clamp member is spaced from the arcuate support surface, and a second position, wherein the clamping surface of the clamp member engages the arcuate support surface and wherein the clamp member of each gripping device is eccentrically rotatable about an axis extending parallel to a rotation axis of the respective gripping device.
A method comprising: (a) irradiating a target with a beam of deuterons to generate a beam of neutrons; and (b) irradiating a radium-226 target with the beam of neutrons to generate radium-225. (a) irradiating a target with a beam of deuterons to generate a beam of neutrons; and (b) irradiating a radium-226 target with the beam of neutrons to generate radium-225.
A method for use in a wireless transmit/receive unit, WTRU, for generating a radio link control, RLC, protocol data unit, PDU, the method comprising: receiving a data request for a logical channel as part of an enhanced dedicated channel, E-DCH, transport format combination, E-TFC, selection procedure in a medium access control, MAC; determining a data field size for the RLC PDU, wherein the data field size is determined such that an RLC PDU size is equivalent to the data requested for the logical channel by a current E-TFC selection, and wherein the RLC PDU size is less than or equal to a configured maximum RLC PDU size when data to be transmitted is larger than the configured maximum RLC PDU size, and wherein the RLC PDU size is less than a configured minimum RLC PDU size when the data to be transmitted is insufficient to generate the RLC PDU of the configured minimum RLC PDU size, and wherein the RLC PDU size of the RLC PDU is greater than or equal to the configured minimum RLC PDU size when the data to be transmitted is sufficient to generate the RLC PDU of the configured minimum RLC PDU size or greater; and generating the RLC PDU based on the determined data field size for transmitting in a current transmission time interval, TTI. receiving a data request for a logical channel as part of an enhanced dedicated channel, E-DCH, transport format combination, E-TFC, selection procedure in a medium access control, MAC; determining a data field size for the RLC PDU, wherein the data field size is determined such that an RLC PDU size is equivalent to the data requested for the logical channel by a current E-TFC selection, and wherein the RLC PDU size is less than or equal to a configured maximum RLC PDU size when data to be transmitted is larger than the configured maximum RLC PDU size, and wherein the RLC PDU size is less than a configured minimum RLC PDU size when the data to be transmitted is insufficient to generate the RLC PDU of the configured minimum RLC PDU size, and wherein the RLC PDU size of the RLC PDU is greater than or equal to the configured minimum RLC PDU size when the data to be transmitted is sufficient to generate the RLC PDU of the configured minimum RLC PDU size or greater; and generating the RLC PDU based on the determined data field size for transmitting in a current transmission time interval, TTI.
A rack cooling system, comprising: a frame including a number of dividers (108-1,108-2) internal to the rack that define a plurality of sections within the rack, wherein the plurality of sections includes: a number of electronics sections including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; wherein the number of dividers are movable to increase a volume of some sections of the plurality of sections and to decrease a volume of other sections of the plurality of sections, and wherein the number of dividers are configured to function as conductive cooling receivers that receive heat from the electronics sections and conduct the received heat away from the dividers. a frame including a number of dividers (108-1,108-2) internal to the rack that define a plurality of sections within the rack, wherein the plurality of sections includes: a number of electronics sections including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; a number of electronics sections including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; wherein the number of dividers are movable to increase a volume of some sections of the plurality of sections and to decrease a volume of other sections of the plurality of sections, and wherein the number of dividers are configured to function as conductive cooling receivers that receive heat from the electronics sections and conduct the received heat away from the dividers.
A board testing method carried out by a testing machine, the method comprising: placing a board of a known type of corrugated material between a support plate and a pressure plate of the machine, loading the board by movement of the pressure plate relative to the support plate so as to apply a compression force across the thickness of the board towards the support plate , taking load and calliper deflection readings with one or more sensor mounted on or within the machine, wherein the calliper is the thickness of the board; and outputting at least one pair of a load and a calliper deflection reading for comparison with a predetermined reading for that given load or given calliper deflection for that board type, wherein either: the given calliper deflection is a distance not exceeding 90% of a predetermined mean first failure point for that type of corrugated material, or the given load is in the order of 50 to 95% of a predetermined loading for achieving a first failure point for that type of corrugated material wherein the first failure point is a deflection point at which a first peak loading occurs, which corresponds with the point at which a first arch of a flute of the board first fails. placing a board of a known type of corrugated material between a support plate and a pressure plate of the machine, loading the board by movement of the pressure plate relative to the support plate so as to apply a compression force across the thickness of the board towards the support plate , taking load and calliper deflection readings with one or more sensor mounted on or within the machine, wherein the calliper is the thickness of the board; and outputting at least one pair of a load and a calliper deflection reading for comparison with a predetermined reading for that given load or given calliper deflection for that board type, wherein either: the given calliper deflection is a distance not exceeding 90% of a predetermined mean first failure point for that type of corrugated material, or the given load is in the order of 50 to 95% of a predetermined loading for achieving a first failure point for that type of corrugated material wherein the first failure point is a deflection point at which a first peak loading occurs, which corresponds with the point at which a first arch of a flute of the board first fails. the given calliper deflection is a distance not exceeding 90% of a predetermined mean first failure point for that type of corrugated material, or the given load is in the order of 50 to 95% of a predetermined loading for achieving a first failure point for that type of corrugated material wherein the first failure point is a deflection point at which a first peak loading occurs, which corresponds with the point at which a first arch of a flute of the board first fails.
A fuel supply pump, comprising: a pressurizing chamber that pressurizes fuel, a relief valve mechanism that includes a seat portion and a relief valve seated on the seat portion , characterized in that a set discharge pressure of the fuel supply pump is set to 30 MPa or more, a seat angle being an angle between conical slopes of the seat portion is formed to be 40° to 50°, and a set valve opening pressure of the relief valve mechanism is set to 2 MPa or larger than the set discharge pressure, wherein the relief valve mechanism is configured to open the relief valve when a pressure difference between a pressure on a discharge side of the pressurizing chamber and a pressure of the pressurizing chamber becomes larger than the set valve opening pressure, and wherein the set discharge pressure is set as a maximum pressure value on the discharge side of the pressurizing chamber in a suction stroke. a pressurizing chamber that pressurizes fuel, a relief valve mechanism that includes a seat portion and a relief valve seated on the seat portion , characterized in that a set discharge pressure of the fuel supply pump is set to 30 MPa or more, a seat angle being an angle between conical slopes of the seat portion is formed to be 40° to 50°, and a set valve opening pressure of the relief valve mechanism is set to 2 MPa or larger than the set discharge pressure, wherein the relief valve mechanism is configured to open the relief valve when a pressure difference between a pressure on a discharge side of the pressurizing chamber and a pressure of the pressurizing chamber becomes larger than the set valve opening pressure, and wherein the set discharge pressure is set as a maximum pressure value on the discharge side of the pressurizing chamber in a suction stroke.
A substantially radiolucent assembly (12; 60) for connecting a patient-worn physiological sensor or electrode to a monitor, comprising: a flexible non-conductive substrate having a proximal end and a distal end; at least one aperture formed in the substrate and sized to receive a sensor or electrode; at least one conductive trace disposed on at least one surface of the non-conductive substrate, wherein the at least one conductive trace is capable of conducting a current between the sensor or electrode and the distal end of the substrate; a means (21; 66) for providing an electrical connection between the distal end of the substrate and a monitor; and at least one radiolucent electrical connector (18, 62a-f) comprising the at least one aperture and at least one linear extension of the at least one conductive trace which extends to the aperture, wherein the electrical connector is for electrical contact with the sensor or electrode; said assembly characterized in that the at least one linear extension of the at least one conductive trace terminates in two concentric partial circles surrounding the aperture and wherein the outer partial circle is connected to the inner partial circle by at least one coaxial trace . a flexible non-conductive substrate having a proximal end and a distal end; at least one aperture formed in the substrate and sized to receive a sensor or electrode; at least one conductive trace disposed on at least one surface of the non-conductive substrate, wherein the at least one conductive trace is capable of conducting a current between the sensor or electrode and the distal end of the substrate; a means (21; 66) for providing an electrical connection between the distal end of the substrate and a monitor; and at least one radiolucent electrical connector (18, 62a-f) comprising the at least one aperture and at least one linear extension of the at least one conductive trace which extends to the aperture, wherein the electrical connector is for electrical contact with the sensor or electrode; said assembly characterized in that the at least one linear extension of the at least one conductive trace terminates in two concentric partial circles surrounding the aperture and wherein the outer partial circle is connected to the inner partial circle by at least one coaxial trace .