mhurhangee/ep-ind-claims huggingface dataset:
A tidal current meter that measures the velocity of a tidal current, the tidal current meter comprising: an oscillator that is capable of receiving a reflection of an ultrasonic wave transmitted into water; a calculation section (S10, S11, S14) that calculates the velocity in accordance with the Doppler shift frequency of the reflection received by the oscillator; a depression angle setup section that sets a depression angle (θ); and a drive section (27, 33) that drives the oscillator in such a manner as to receive the reflection of the transmitted ultrasonic wave at the depression angle (θ) set by the depression angle setup section, characterized in that the oscillator is capable of transmitting the ultrasonic wave into the water; the depression angle (θ) is the angle formed by the transmission direction of the ultrasonic wave and a horizontal plane; and the drive section drives the oscillator in such a manner as to transmit the ultrasonic wave, wherein the tidal current meter further comprises a depth setup section that sets the depth of water at which the velocity is to be measured; wherein the depression angle setup section sets the depression angle (θ) in accordance with the depth set by the depth setup section; and, if the depth set by the depth setup section is shallower than a predetermined depth, the depression angle setup section sets a depression angle (θ) that is smaller than a depression angle preselected for the predetermined depth. an oscillator that is capable of receiving a reflection of an ultrasonic wave transmitted into water; a calculation section (S10, S11, S14) that calculates the velocity in accordance with the Doppler shift frequency of the reflection received by the oscillator; a depression angle setup section that sets a depression angle (θ); and a drive section (27, 33) that drives the oscillator in such a manner as to receive the reflection of the transmitted ultrasonic wave at the depression angle (θ) set by the depression angle setup section, characterized in that the oscillator is capable of transmitting the ultrasonic wave into the water; the depression angle (θ) is the angle formed by the transmission direction of the ultrasonic wave and a horizontal plane; and the drive section drives the oscillator in such a manner as to transmit the ultrasonic wave, wherein the tidal current meter further comprises a depth setup section that sets the depth of water at which the velocity is to be measured; wherein the depression angle setup section sets the depression angle (θ) in accordance with the depth set by the depth setup section; and, if the depth set by the depth setup section is shallower than a predetermined depth, the depression angle setup section sets a depression angle (θ) that is smaller than a depression angle preselected for the predetermined depth.
A License Assisted Access, LAA, enhanced Node B, eNB, comprising: a transceiver configured to communicate with an LAA user equipment, UE, operating in an unlicensed band; and processing circuitry configured to: configure the transceiver to transmit a request to the UE for information regarding a Wireless Local Area Network, WLAN, over which the UE is able to communicate, the WLAN information comprising information about the unlicensed band including at least one channel and a time window; configure the transceiver to receive, from the UE, a report including the WLAN information; and set network operations involving use of the unlicensed band by the eNB based on the WLAN information; wherein the unlicensed band is an Long Term Evolution, LTE, unlicensed band, characterised in that the processing circuitry is further configured to, based on the WLAN information, determine UE grouping or localization to enable group sensing and scheduling for LTE UEs, the determination being further based on reports from a plurality of UEs indicating a highly correlated set of basic service set identifications, BSSIDs. a transceiver configured to communicate with an LAA user equipment, UE, operating in an unlicensed band; and processing circuitry configured to: configure the transceiver to transmit a request to the UE for information regarding a Wireless Local Area Network, WLAN, over which the UE is able to communicate, the WLAN information comprising information about the unlicensed band including at least one channel and a time window; configure the transceiver to receive, from the UE, a report including the WLAN information; and set network operations involving use of the unlicensed band by the eNB based on the WLAN information; configure the transceiver to transmit a request to the UE for information regarding a Wireless Local Area Network, WLAN, over which the UE is able to communicate, the WLAN information comprising information about the unlicensed band including at least one channel and a time window; configure the transceiver to receive, from the UE, a report including the WLAN information; and set network operations involving use of the unlicensed band by the eNB based on the WLAN information; wherein the unlicensed band is an Long Term Evolution, LTE, unlicensed band, characterised in that the processing circuitry is further configured to, based on the WLAN information, determine UE grouping or localization to enable group sensing and scheduling for LTE UEs, the determination being further based on reports from a plurality of UEs indicating a highly correlated set of basic service set identifications, BSSIDs.
A method of increasing the thickness of relief decorations, comprising: i) providing a decorated object having at least one portion in relief made of a decorative thermoplastic or thermoadhesive material disposed on a decorated surface of said object; ii) heating the portion of decorative thermoplastic or thermoadhesive material applied to the decorated surface until making it sticky; iii) spreading a powdered material on the decorated surface, said powdered material adhering to the portion of decorative thermoplastic or thermoadhesive material; characterized in that step iii) is carried out by dipping the object at least once in a fluid bed made up of said powdered material. i) providing a decorated object having at least one portion in relief made of a decorative thermoplastic or thermoadhesive material disposed on a decorated surface of said object; ii) heating the portion of decorative thermoplastic or thermoadhesive material applied to the decorated surface until making it sticky; iii) spreading a powdered material on the decorated surface, said powdered material adhering to the portion of decorative thermoplastic or thermoadhesive material;
A flat, rectangular composite insulation, comprising: an insulation member having a top surface, a bottom surface, a perimeter, and pores in at least the bottom surface; an adhesive coating disposed on the bottom surface of the insulation member and at least partially within the pores; a protective jacketing material for protection from structural and weather damage and having an inner surface that includes a pre-applied adhesive that is disposed in direct contact with the adhesive coating, wherein the insulation material has a perimeter and wherein the jacketing material extends beyond the perimeter of the insulation member and comprises intact release layers at locations in which the protective jacketing is clear of contact with the bottom surface of the insulation member, the pre-applied adhesive on the protective jacketing being separate from the adhesive coating; and a plurality of V-grooves defined at spaced intervals in the top surface of the insulation member and extending through the insulation member to a point proximal to the protective jacketing, each of said plurality of V-grooves being defined by a pair of opposed faces, with pairs of opposed faces being selectively urgeable to an abutting relationship with one another to define at least one substantially curved portion along the outer surface of the protective jacketing material. an insulation member having a top surface, a bottom surface, a perimeter, and pores in at least the bottom surface; an adhesive coating disposed on the bottom surface of the insulation member and at least partially within the pores; a protective jacketing material for protection from structural and weather damage and having an inner surface that includes a pre-applied adhesive that is disposed in direct contact with the adhesive coating, wherein the insulation material has a perimeter and wherein the jacketing material extends beyond the perimeter of the insulation member and comprises intact release layers at locations in which the protective jacketing is clear of contact with the bottom surface of the insulation member, the pre-applied adhesive on the protective jacketing being separate from the adhesive coating; and a plurality of V-grooves defined at spaced intervals in the top surface of the insulation member and extending through the insulation member to a point proximal to the protective jacketing, each of said plurality of V-grooves being defined by a pair of opposed faces, with pairs of opposed faces being selectively urgeable to an abutting relationship with one another to define at least one substantially curved portion along the outer surface of the protective jacketing material.
A desalination cell comprising: an electrode including a material having at least one compound of the following formula: A x M I y M II z 6, wherein A is Na, Li or K, 0 ≤ x ≤ 2, M I is a first metal, M II is a second metal, 1 ≤ y, and z ≤ 2, and wherein the first metal is Fe, Mn, Co, Ti, Cr or Zn, characterized in that the second metal comprises between 5 to 50 molar percent of the total molar concentration of the first and second metals, and the second metal is Sc so that the material having Sc as the second metal is configured to reduce calcium carbonate formation and carbon dioxide gas formation during operation of the desalination cell. an electrode including a material having at least one compound of the following formula: A x M I y M II z 6, wherein A is Na, Li or K, 0 ≤ x ≤ 2, M I is a first metal, M II is a second metal, 1 ≤ y, and z ≤ 2, and wherein the first metal is Fe, Mn, Co, Ti, Cr or Zn, characterized in that the second metal comprises between 5 to 50 molar percent of the total molar concentration of the first and second metals, and the second metal is Sc so that the material having Sc as the second metal is configured to reduce calcium carbonate formation and carbon dioxide gas formation during operation of the desalination cell.
A rotary electric machine comprising: a stator having stator windings (238; 338); and a rotor rotatably disposed in the stator, said rotor having a rotor core provided with a plurality of magnets and a plurality of magnetic auxiliary salient poles formed between poles of the magnets, wherein a first magnetic air gap (258, 258a, 258b) is provided in an axial direction of the rotor in a position shifted in a circumferential direction from a q axis passing through a center of the magnetic auxiliary salient pole, wherein an amount of shifting the first magnetic air gap (258, 258a, 258b) from the q axis in the circumferential direction differs according to a position of the first magnetic air gap (258, 258a, 258b) in the axial direction so as to reduce torque pulsation due to the stator current, and wherein circumferential positions of the magnets in the rotor core are constant regardless of the axial positions of the magnets characterized in that the first magnetic air gap (258, 258a, 258b) is provided within the magnetic auxiliary salient pole, wherein the first magnetic air gap (258, 258a, 258b) is a concave portion formed at the surface of the rotor core, where a circumferential angle of the concave portion is set equal to or less than one half a circumferential angle of an auxiliary salient pole, and wherein second magnetic air gaps are provided at both sides of the magnets. a stator having stator windings (238; 338); and a rotor rotatably disposed in the stator, said rotor having a rotor core provided with a plurality of magnets and a plurality of magnetic auxiliary salient poles formed between poles of the magnets, wherein a first magnetic air gap (258, 258a, 258b) is provided in an axial direction of the rotor in a position shifted in a circumferential direction from a q axis passing through a center of the magnetic auxiliary salient pole, wherein an amount of shifting the first magnetic air gap (258, 258a, 258b) from the q axis in the circumferential direction differs according to a position of the first magnetic air gap (258, 258a, 258b) in the axial direction so as to reduce torque pulsation due to the stator current, and wherein circumferential positions of the magnets in the rotor core are constant regardless of the axial positions of the magnets characterized in that the first magnetic air gap (258, 258a, 258b) is provided within the magnetic auxiliary salient pole, wherein the first magnetic air gap (258, 258a, 258b) is a concave portion formed at the surface of the rotor core, where a circumferential angle of the concave portion is set equal to or less than one half a circumferential angle of an auxiliary salient pole, and wherein second magnetic air gaps are provided at both sides of the magnets.
An apparatus, comprising: a controller; a memory comprising a receiver configured to receive first data signals from the controller, wherein the first data signals have a first voltage swing and a first slew rate, wherein the receiver is further configured to receive the first data signals at an input/output (I/O) rate, wherein the memory further comprises a transmitter configured to provide second data signals to the controller, wherein the second data signals have a second voltage swing and a second slew rate, wherein the transmitter is further configured to provide the second data signals at the I/O rate, and further comprising: a data bus coupled between the controller and the memory to transfer the first data signals from the controller to the memory and transfer the second data signals from the memory to the controller, wherein the data bus comprises a plurality of channels, each of the plurality of channels comprising a plurality of lanes, each of plurality of lanes comprising a conductor for transmitting symbols as at least one of the first and second data signals, characterized in that: each of the symbols generated by encoding multiple data bits, wherein the first voltage swing is greater than the second voltage swing, and wherein the first slew rate is greater than the second slew rate. a controller; a memory comprising a receiver configured to receive first data signals from the controller, wherein the first data signals have a first voltage swing and a first slew rate, wherein the receiver is further configured to receive the first data signals at an input/output (I/O) rate, wherein the memory further comprises a transmitter configured to provide second data signals to the controller, wherein the second data signals have a second voltage swing and a second slew rate, wherein the transmitter is further configured to provide the second data signals at the I/O rate, and further comprising: a data bus coupled between the controller and the memory to transfer the first data signals from the controller to the memory and transfer the second data signals from the memory to the controller, wherein the data bus comprises a plurality of channels, each of the plurality of channels comprising a plurality of lanes, each of plurality of lanes comprising a conductor for transmitting symbols as at least one of the first and second data signals, characterized in that: each of the symbols generated by encoding multiple data bits, a data bus coupled between the controller and the memory to transfer the first data signals from the controller to the memory and transfer the second data signals from the memory to the controller, wherein the data bus comprises a plurality of channels, each of the plurality of channels comprising a plurality of lanes, each of plurality of lanes comprising a conductor for transmitting symbols as at least one of the first and second data signals, characterized in that: each of the symbols generated by encoding multiple data bits, wherein the first voltage swing is greater than the second voltage swing, and wherein the first slew rate is greater than the second slew rate.
An implantable medical electrical lead comprising a proximal connector terminal, an elongate lead body extending distally therefrom, and a first electrode, the lead body comprising: an approximately straight proximal section extending distally from the connector; and a distal section extending distally from the proximal section, the distal section comprising: a pair of pre-formed arcuate segments (111,112) comprising a proximal arcuate segment and a distal arcuate segment; and a first approximately straight segment extending between the pair of pre-formed arcuate segments (111, 112) and including a first portion extending distally from the proximal arcuate segment of the pair of pre-formed arcuate segments (111, 112) and a second portion extending distally from the first portion and a third portion extending distally from the second portion: characterized in that the second portion has a stiffness that is less than the stiffness of the first portion and less than the stiffness of the third portion wherein the first electrode is located along the third portion. an approximately straight proximal section extending distally from the connector; and a distal section extending distally from the proximal section, the distal section comprising: a pair of pre-formed arcuate segments (111,112) comprising a proximal arcuate segment and a distal arcuate segment; and a first approximately straight segment extending between the pair of pre-formed arcuate segments (111, 112) and including a first portion extending distally from the proximal arcuate segment of the pair of pre-formed arcuate segments (111, 112) and a second portion extending distally from the first portion and a third portion extending distally from the second portion: characterized in that the second portion has a stiffness that is less than the stiffness of the first portion and less than the stiffness of the third portion wherein the first electrode is located along the third portion. a pair of pre-formed arcuate segments (111,112) comprising a proximal arcuate segment and a distal arcuate segment; and a first approximately straight segment extending between the pair of pre-formed arcuate segments (111, 112) and including a first portion extending distally from the proximal arcuate segment of the pair of pre-formed arcuate segments (111, 112) and a second portion extending distally from the first portion and a third portion extending distally from the second portion: characterized in that the second portion has a stiffness that is less than the stiffness of the first portion and less than the stiffness of the third portion wherein the first electrode is located along the third portion.
A method of forming and subjecting test loading upon a representative rotatable disc, the method comprising forming a test component (1,21,31) comprising a base portion (2,22,32) and a disc portion (3,23,33), the disc portion (3,23,33) extending from the base portion (2,22,32), the base portion (1,21,31) having a bore (10,30,35), rotating the test component (1,21,31) to apply a circumferential hoop stress load to the test component (1,21,31), characterised in that the test component (1,21,31) comprises at least one bend structure (13,223,333), the at least one bend structure (13,223,333) being positioned at a side of the base portion (2,22,32) and the rotation of the test component (1,21,31) simultaneously applying a bending moment (4,24,34) to the at least one bend structure (13,223,333) to generate a compressive axial load (6,7) in the base portion (2,22,32) to simulate external heating of the test component (1,21,31).
A portable electronic device, comprising: a first display panel; a second display panel, pivotally connected to the first display panel; the second display panel comprising: a display screen; at least one guide magnet arranged below the display screen; and at least one slide rail arranged below the display screen of the second display panel; and a keyboard, detachably arranged above the display screen of the second display panel and the keyboard comprising: at least one magnetic element, wherein the keyboard can be controlled to move relative to the display screen along a moving direction by means of the magnetic attraction force between the at least one magnetic element and the at least one guide magnet, and the moving direction is perpendicular to a side edge of the second display panel pivotally connected to the first display panel, wherein the at least one slide rail is parallel to the moving direction, and the at least one guide magnet is respectively arranged in the at least one slide rail, wherein the at least one magnetic element is configured to drive the at least one guide magnet to move along the at least one slide rail. a first display panel; a second display panel, pivotally connected to the first display panel; the second display panel comprising: a display screen; at least one guide magnet arranged below the display screen; and at least one slide rail arranged below the display screen of the second display panel; and a display screen; at least one guide magnet arranged below the display screen; and at least one slide rail arranged below the display screen of the second display panel; and a keyboard, detachably arranged above the display screen of the second display panel and the keyboard comprising: at least one magnetic element, wherein the keyboard can be controlled to move relative to the display screen along a moving direction by means of the magnetic attraction force between the at least one magnetic element and the at least one guide magnet, and the moving direction is perpendicular to a side edge of the second display panel pivotally connected to the first display panel, wherein the at least one slide rail is parallel to the moving direction, and the at least one guide magnet is respectively arranged in the at least one slide rail, wherein the at least one magnetic element is configured to drive the at least one guide magnet to move along the at least one slide rail. at least one magnetic element, wherein the keyboard can be controlled to move relative to the display screen along a moving direction by means of the magnetic attraction force between the at least one magnetic element and the at least one guide magnet, and the moving direction is perpendicular to a side edge of the second display panel pivotally connected to the first display panel, wherein the at least one slide rail is parallel to the moving direction, and the at least one guide magnet is respectively arranged in the at least one slide rail, wherein the at least one magnetic element is configured to drive the at least one guide magnet to move along the at least one slide rail.
An in vitro method for detecting the presence of a cancer cell in an individual comprising the steps of: obtaining a first expression profile from a blood phagocytic cell from an individual; obtaining a second expression profile from a blood non-phagocytic cell from the individual; comparing the first and second expression profiles; identifying differential expression of one or more markers specific to the first expression profile as compared to the second expression profile, the one or more markers being specific for the presence of a cancer cell in the individual; and relating the differential expression of the one or more markers specific to the first expression profile to the presence of a cancer cell in the individual.