mhurhangee/ep-ind-claims huggingface dataset:
Method for a first communication device in listen mode to answer to a poll command sent by a second communication device, said first communication device emulating a plurality of NFC devices and said method comprising steps of: - receiving said poll command by said first communication device; - for each of said plurality of NFC devices (D1, D2, D3,... Dn), deciding if a response should be sent, with at least two of the plurality of NFC devices deciding that a response should be sent; - generating a response (LF1, LF2, LF3,... LFn) for at least two of the plurality of NFC devices, including each NFC device (D1, D2, D3,... Dn) for which it has been decided that a response should be sent, - sending the generated responses (LF1, LF2, LF3, LFn) to said second communication device, each of said generated responses containing information related to the respective of the at least two NFC device (D1, D2, D3,... Dn) for which it has been decided that a response should be sent, wherein the generated response includes an identifier of the corresponding NFC device having a randomly generated portion; - the step of deciding being performed by each of said plurality of NFC devices (D1, D2, D3... Dn), and the steps of generating and sending a response being performed by each of said NFC devices (D1, D2, D3... Dn) for which it has been decided that a response should be sent, - wherein, in response to deciding that a response should be sent for the at least two NFC devices among said plurality of NFC devices (D1, D2, D3,... Dn), at least two different responses (LF1, LF2, LF3,... LFn) are generated and sent to said second communication device in a sequence of at least two time slots (TS0, TS1, TS2, TS3,...), with the at least two responses (LF1, LF2, LF3,... LFn) being sent during different time slots (TS0, TS1, TS2, TS3,...). - receiving said poll command by said first communication device; - for each of said plurality of NFC devices (D1, D2, D3,... Dn), deciding if a response should be sent, with at least two of the plurality of NFC devices deciding that a response should be sent; - generating a response (LF1, LF2, LF3,... LFn) for at least two of the plurality of NFC devices, including each NFC device (D1, D2, D3,... Dn) for which it has been decided that a response should be sent, - sending the generated responses (LF1, LF2, LF3, LFn) to said second communication device, - the step of deciding being performed by each of said plurality of NFC devices (D1, D2, D3... Dn), and the steps of generating and sending a response being performed by each of said NFC devices (D1, D2, D3... Dn) for which it has been decided that a response should be sent, - wherein, in response to deciding that a response should be sent for the at least two NFC devices among said plurality of NFC devices (D1, D2, D3,... Dn), at least two different responses (LF1, LF2, LF3,... LFn) are generated and sent to said second communication device in a sequence of at least two time slots (TS0, TS1, TS2, TS3,...), with the at least two responses (LF1, LF2, LF3,... LFn) being sent during different time slots (TS0, TS1, TS2, TS3,...).
A cutting insert (21, 321), comprising: a body having a top surface, and a mounting hole having an axis extending therethrough; and a surface portion in the mounting hole, wherein the surface portion is substantially circular when viewed in a direction of the axis and the substantially circular surface portion is also non-parallel to the axis and comprises at least two contact sub-regions disposed at a lesser distance from the axis than a region between the at least two contact sub-regions, characterized in that the at least two contact sub-regions comprise protrusions from the surface portion, in that the protrusions are spaced from the top surface, in that the mounting hole is a through hole extending from one side of the insert to another, and in that the surface portion is circular when viewed in a direction of the axis. a body having a top surface, and a mounting hole having an axis extending therethrough; and a surface portion in the mounting hole, wherein the surface portion is substantially circular when viewed in a direction of the axis and the substantially circular surface portion is also non-parallel to the axis and comprises at least two contact sub-regions disposed at a lesser distance from the axis than a region between the at least two contact sub-regions, characterized in that the at least two contact sub-regions comprise protrusions from the surface portion, in that the protrusions are spaced from the top surface, in that the mounting hole is a through hole extending from one side of the insert to another, and in that the surface portion is circular when viewed in a direction of the axis.
A method of determining a thickness of an elongate or extended structure using elastic waves, the method comprising: receiving at least one time-domain signal from a transducer including contributions from at least one guided wave mode; generating a frequency-domain signal in dependence upon the at least one time-domain signal, said frequency-domain signal including one or more characteristic features corresponding to the at least one mode; reducing noise in the frequency-domain signal to provide a de-noised frequency-domain signal; comparing the de-noised frequency-domain signal with at least two reference signals to determine which reference signal best matches the de-noised frequency-domain signal, each reference signal corresponding to a respective thickness and including one or more characteristic features; and determining the thickness of the elongate or extended structure based on the best-matching reference signal. receiving at least one time-domain signal from a transducer including contributions from at least one guided wave mode; generating a frequency-domain signal in dependence upon the at least one time-domain signal, said frequency-domain signal including one or more characteristic features corresponding to the at least one mode; reducing noise in the frequency-domain signal to provide a de-noised frequency-domain signal; comparing the de-noised frequency-domain signal with at least two reference signals to determine which reference signal best matches the de-noised frequency-domain signal, each reference signal corresponding to a respective thickness and including one or more characteristic features; and determining the thickness of the elongate or extended structure based on the best-matching reference signal.
Glass fibers having flat-shaped cross sections, spun from a molten glass prepared by melting a glass composition as a raw material for the glass fibers, wherein the molten glass has a working temperature range, which is the difference between a 1000-poise temperature and a liquid phase temperature, of 50°C or more, and a liquid phase viscosity, which is a viscosity corresponding to the liquid phase temperature, of 3000 poises or more, wherein the glass fibers have a composition wherein a content of SiO 2 is 57.0 to 61.0% by mass, a content of Al 2 O 3 is 19.0 to 21.0% by mass, a content of MgO is 10.0 to 15.0% by mass, a content of CaO is 10.0 to 11.0% by mass and a content of alkali metal oxides, Fe 2 O 3, TiO 2, ZrO 2, MoO 3 and Cr 2 O 3 is less than 1.0% by mass, in relation to a total amount of the glass fibers, and a ratio of the content of MgO to the content of CaO, MgO/CaO falls within a range from 0.8 to 2.0. wherein the molten glass has a working temperature range, which is the difference between a 1000-poise temperature and a liquid phase temperature, of 50°C or more, and a liquid phase viscosity, which is a viscosity corresponding to the liquid phase temperature, of 3000 poises or more, wherein the glass fibers have a composition wherein a content of SiO 2 is 57.0 to 61.0% by mass, a content of Al 2 O 3 is 19.0 to 21.0% by mass, a content of MgO is 10.0 to 15.0% by mass, a content of CaO is 10.0 to 11.0% by mass and a content of alkali metal oxides, Fe 2 O 3, TiO 2, ZrO 2, MoO 3 and Cr 2 O 3 is less than 1.0% by mass, in relation to a total amount of the glass fibers, and a ratio of the content of MgO to the content of CaO, MgO/CaO falls within a range from 0.8 to 2.0.
Method for controlling an operating light illuminating an operating field, comprising the following steps in the order mentioned: a) location-selective determination of the luminance distribution in a measuring field that is larger than a maximum luminous field size of the operating light, b) adaptation of the luminous field size of the operating light to the size of the operating field taking into account the luminance distribution, and c) setting a light intensity of the operating light taking into account the luminance of the surroundings of the operating field within the measuring field, characterised in that in step c) a ratio between the luminance in the operating field and the luminance in the surroundings of the operating field is specified for setting the light intensity. a) location-selective determination of the luminance distribution in a measuring field that is larger than a maximum luminous field size of the operating light, b) adaptation of the luminous field size of the operating light to the size of the operating field taking into account the luminance distribution, and c) setting a light intensity of the operating light taking into account the luminance of the surroundings of the operating field within the measuring field,
A method by a mobility management entity, MME, in a wireless communication system, the method comprising: receiving, from a base station, a first message including an attach request message and a closed subscriber group identifier, CSG ID; requesting subscription information for a terminal from a home subscriber server, HSS, if there is no valid subscription information for the terminal; receiving the subscription information for the terminal from the HSS; determining whether the CSG ID is contained in the subscription information in the MME; and transmitting a second message including an attach accept message to the base station if the CSG ID is contained in the subscription information for the terminal in the MME. receiving, from a base station, a first message including an attach request message and a closed subscriber group identifier, CSG ID; requesting subscription information for a terminal from a home subscriber server, HSS, if there is no valid subscription information for the terminal; receiving the subscription information for the terminal from the HSS; determining whether the CSG ID is contained in the subscription information in the MME; and transmitting a second message including an attach accept message to the base station if the CSG ID is contained in the subscription information for the terminal in the MME.
Magnus rotor, having a carrier which is arranged inside the Magnus rotor, a rotor which rotates about the carrier during operation of the Magnus rotor, a bearing which carries the rotor on the carrier, a guiding roller which is arranged on the lower outer periphery of the rotor and which is in abutment with the rotor in a play-free manner, characterised by a tread surface which is arranged below the guiding roller and a cover (28a-28h) which covers the guiding roller and the tread surface, wherein the cover (28a-28h) in an open state releases the guiding roller and the tread surface in such a manner that a person on the tread surface can carry out work on the guiding roller, wherein the cover (28a-28h) has a movement device which is configured to retain the cover (28a-28h) in the open state at a vertical height above the tread surface.
A surgical instrument comprising: a handle; an elongated shaft assembly extending distally from the handle, the elongated shaft assembly including an articulable portion movable between a non-articulated position and an articulated position; an articulation lock that selectively prevents articulation of the articulable portion of the elongated shaft assembly when the articulation lock is in a first locked configuration and permits articulation of the articulable portion of the elongated shaft assembly when the articulation lock is in a second unlocked configuration; an articulation control that controls articulation of the articulable portion of the elongated shaft assembly, wherein moving the articulation control from a first position to a second position moves the articulation lock from the first locked configuration to the second unlocked configuration to permit articulation of the articulable portion of the elongated shaft assembly, and moving the articulation control from the second position to a third position articulates the articulable portion of the elongated shaft assembly from the non-articulated position to the articulated position. a handle; an elongated shaft assembly extending distally from the handle, the elongated shaft assembly including an articulable portion movable between a non-articulated position and an articulated position; an articulation lock that selectively prevents articulation of the articulable portion of the elongated shaft assembly when the articulation lock is in a first locked configuration and permits articulation of the articulable portion of the elongated shaft assembly when the articulation lock is in a second unlocked configuration; an articulation control that controls articulation of the articulable portion of the elongated shaft assembly, wherein moving the articulation control from a first position to a second position moves the articulation lock from the first locked configuration to the second unlocked configuration to permit articulation of the articulable portion of the elongated shaft assembly, and moving the articulation control from the second position to a third position articulates the articulable portion of the elongated shaft assembly from the non-articulated position to the articulated position.
A recombinant modified vaccinia virus Ankara expressing at least 6 external influenza virus antigens selected from the group consisting of HA, NA, and M2 and at least 3 internal influenza virus antigens selected from the group consisting of PB1, NP, and M1, wherein the genes encoding the antigens are inserted into at least two MVA insertion sites and wherein the MVA virus expresses four different HA proteins selected from the group of a) hemagglutinin 2, hemagglutinin 9, hemagglutinin 5 and hemagglutinin 7 or b) hemagglutinin 1, hemagglutinin 3 and two B-type HA.
Device for a hydraulic rock drilling machine including a distribution valve (7,7',7") suitable for being arranged in connection with the rock drilling machine for controlling hydraulic flows to different parts of the rock drilling machine, wherein the distribution valve includes a valve body (8,8',8"), which is arranged movable to and fro in axial directions inside a valve chamber and wherein the valve chamber is limited in axial direction by two valve end walls (10,11; 10',11'; 10",11"), characterized in - that at least one of the valve end walls is movable in an axial direction against an abutment (12, 12") in such a way that it defines a fixed end position for the valve body, - that a pressing device (13,13',13") is arranged for pressing said at least one of the valve end walls in a direction of the second one of said valve end walls and against said abutment, and - that said pressing device (13,13',13") includes an end wall piston portion arranged on said at least one of the valve end walls and being received in a cylinder portion to be permanently pressurized in operation of the rock drilling machine in order to drive the valve end wall against said abutment during pressurizing. - that at least one of the valve end walls is movable in an axial direction against an abutment (12, 12") in such a way that it defines a fixed end position for the valve body, - that a pressing device (13,13',13") is arranged for pressing said at least one of the valve end walls in a direction of the second one of said valve end walls and against said abutment, and - that said pressing device (13,13',13") includes an end wall piston portion arranged on said at least one of the valve end walls and being received in a cylinder portion to be permanently pressurized in operation of the rock drilling machine in order to drive the valve end wall against said abutment during pressurizing.
A case hardening steel having a component composition consisting of C: 0.10 mass % to 0.35 mass %; Si: 0.01 mass % to 0.50 mass %; Mn: 0.40 mass % to 1.50 mass %; P: 0.02 mass % or less; S: 0.03 mass % or less; Al: 0.04 mass % to 0.10 mass %; Cr: 0.5 mass % to 2.5 mass %; B: 0.0005 mass % to 0.0050 mass %; Nb: 0.003 mass % to 0.080 mass %; Ti: 0.003 mass % or less; N: less than 0.0080 mass %; optionally at least one element selected from Cu: 1.0 mass % or less, Ni: 0.50 mass % or less, V:.0.5 mass % or less, Ca: 0.0005 mass % to 0.0050 mass %, and Mg: 0.0002 mass % to 0.0020 mass %; wherein the balance is Fe and incidental impurities. C: 0.10 mass % to 0.35 mass %; Si: 0.01 mass % to 0.50 mass %; Mn: 0.40 mass % to 1.50 mass %; P: 0.02 mass % or less; S: 0.03 mass % or less; Al: 0.04 mass % to 0.10 mass %; Cr: 0.5 mass % to 2.5 mass %; B: 0.0005 mass % to 0.0050 mass %; Nb: 0.003 mass % to 0.080 mass %; Ti: 0.003 mass % or less; N: less than 0.0080 mass %; optionally at least one element selected from Cu: 1.0 mass % or less, Ni: 0.50 mass % or less, V:.0.5 mass % or less, Ca: 0.0005 mass % to 0.0050 mass %, and Mg: 0.0002 mass % to 0.0020 mass %;
A device comprising an elongated member extending between a first end and a second end, the first end comprising an engagement element for engagement with a grip unit comprising a rotor to cause rotation of said device about a longitudinal axis X upon actuation of the rotor and the second end comprising a tissue piercing tip; said elongated member comprising a segment proximal to the second end extending along said longitudinal axis X, said segment has an external surface having a circumference C and comprises: at least one depression axially extending along at least a portion of said segment; and one or more blades each with a cutting edge extending peripherally beyond said circumference C of said external surface or extending up to said circumference C of said external surface, the one or more blades extend along at least part of said segment; the device being characterized in that said second end has an equilateral triangular cross section.
A method of determining at least one of MPAP, MPCWP and CI, wherein MPAP is mean pulmonary artery pressure, MPCWP is mean pulmonary capillary wedge pressure, CI is cardiac index; the method comprising the steps of: - measuring CVP, MAP, HR and T, wherein MAP is mean arterial pressure, CVP is cardiac venous pressure, HR is heart rate and T is the body core temperature; and - calculating at least one of MPAP, MPCWP and CI by resolving one or more of the relationships: MPAP = a 1 × MAP + CVP − k 1 MPCWP = a 2 × MPAP + CVP − k 2 CI = K T. CVP / HR 2 - wherein a 1 and a 2 have values each separately between 0.10 and 0.25; - wherein k 1 and k 2 have the following values: for MAP less than 58 mmHg: k 1 = 0; for MAP equal to or greater than 58mmHg: k 1 = 10 × INT MAX MAP − 109 CVP − 7 0 / 10); wherein MAX {x, y, z} is the largest of the three terms x, y and z and INT [x] is the integer part of x; k 2 = 10 × INT CVP 7 / 10]; - wherein MAP and CVP are measured in mmHg, T in Celsius, HR in counts per minute, CI is litres per square metre per minute; and - wherein K has a value depending on the values of CVP and HR as selected from the following table: TABLE 1 Values of CVP in mmHg 0-5 5-7 7-10 10-14 14-15 15-16 16-25 >25 Values of HR in counts/min 0-59 40 40 32 36 40 27.5 19.5 20 60-68 100 90 56 36 40 40 24 20 68-84 100 90 80 40 40 40 24 20 84-88 100 90 80 40 40 60 24 20 88-96 100 90 80 100 100 80 24 20 96-99 100 95 90 100 100 80 24 20 >=100 100 100 100 100 100 80 60 50 - measuring CVP, MAP, HR and T, wherein MAP is mean arterial pressure, CVP is cardiac venous pressure, HR is heart rate and T is the body core temperature; and - calculating at least one of MPAP, MPCWP and CI by resolving one or more of the relationships: MPAP = a 1 × MAP + CVP − k 1 MPCWP = a 2 × MPAP + CVP − k 2 CI = K T. CVP / HR 2 - wherein a 1 and a 2 have values each separately between 0.10 and 0.25; - wherein k 1 and k 2 have the following values: for MAP less than 58 mmHg: k 1 = 0; for MAP equal to or greater than 58mmHg: k 1 = 10 × INT MAX MAP − 109 CVP − 7 0 / 10); wherein MAX {x, y, z} is the largest of the three terms x, y and z and INT [x] is the integer part of x; k 2 = 10 × INT CVP 7 / 10]; for MAP less than 58 mmHg: k 1 = 0; for MAP equal to or greater than 58mmHg: k 1 = 10 × INT MAX MAP − 109 CVP − 7 0 / 10); wherein MAX {x, y, z} is the largest of the three terms x, y and z and INT [x] is the integer part of x; k 2 = 10 × INT CVP 7 / 10]; - wherein MAP and CVP are measured in mmHg, T in Celsius, HR in counts per minute, CI is litres per square metre per minute; and - wherein K has a value depending on the values of CVP and HR as selected from the following table: TABLE 1 Values of CVP in mmHg 0-5 5-7 7-10 10-14 14-15 15-16 16-25 >25 Values of HR in counts/min 0-59 40 40 32 36 40 27.5 19.5 20 60-68 100 90 56 36 40 40 24 20 68-84 100 90 80 40 40 40 24 20 84-88 100 90 80 40 40 60 24 20 88-96 100 90 80 100 100 80 24 20 96-99 100 95 90 100 100 80 24 20 >=100 100 100 100 100 100 80 60 50
A process for fabrication of a through insulated interconnection, comprising the steps of: - in a first body of semiconductor material having a thickness, a first and a second surface (7, 5), forming a first trench extending from said first surface of said first body for a portion of said thickness; - filling said first trench with dielectric material; and - thinning said first body starting from said second surface until said first trench, so as to form a thinned body having a third surface and housing an insulated region surrounded by said dielectric material; and - forming a conductive region (8, 25, 28, 30b) extending inside said insulated region between said first surface and said third surface and having conductivity higher than said body, wherein said step of forming a conductive region (8, 25, 28; 30b) comprises, before said step of thinning, doping a surface portion of said first body inside said insulated region and, after said step of thinning, forming a contact region (25, 28) of metal material, wherein forming the contact region (25, 28) comprises forming an opening in said insulated region, starting from said third surface up to the proximity of said first surface, and forming said contact region inside said opening, and the step of forming an opening comprises digging into said thinned body, starting from said third surface until said surface portion is reached. - in a first body of semiconductor material having a thickness, a first and a second surface (7, 5), forming a first trench extending from said first surface of said first body for a portion of said thickness; - filling said first trench with dielectric material; and - thinning said first body starting from said second surface until said first trench, so as to form a thinned body having a third surface and housing an insulated region surrounded by said dielectric material; and - forming a conductive region (8, 25, 28, 30b) extending inside said insulated region between said first surface and said third surface and having conductivity higher than said body,