mhurhangee/ep-ind-claims huggingface dataset:
An antenna for an RFID (Radio Frequency Identification) tag comprising: two antenna parts (11a, 11b) being arranged at opposite end areas of the antenna; at least one intermediate part forming a bridge between said antenna parts, one of said at least one intermediate part comprising power feeding areas (13a; 13b) to be connected to an integrated circuit, wherein the feeding areas are separated by an IC gap; and a by-pass gap arranged in a bypass connection arranged at a distance from said power feeding areas (13a; 13b), said by-pass gap being arranged to provide a low impedance by-pass path at a microwave frequency, characterized by the gap of the by-pass gap has a meandering extension. two antenna parts (11a, 11b) being arranged at opposite end areas of the antenna; at least one intermediate part forming a bridge between said antenna parts, one of said at least one intermediate part comprising power feeding areas (13a; 13b) to be connected to an integrated circuit, wherein the feeding areas are separated by an IC gap; and a by-pass gap arranged in a bypass connection arranged at a distance from said power feeding areas (13a; 13b), said by-pass gap being arranged to provide a low impedance by-pass path at a microwave frequency, characterized by the gap of the by-pass gap has a meandering extension.
A heater assembly for being located at a substantially vertical wall for heating air in a room at least partially defined by the wall, the heater assembly comprising: at least one heating element to provide heat; at least one heat transfer element mounted on said at least one heating element, the heat transfer element having a first side and a second side, the first side and second sides operably, on locating the heater assembly at the substantially vertical wall, respectively defining an inner side of the heat transfer element arranged to be located proximal to the wall and an outer side of the heat transfer element arranged to be located distal to the wall; the at least one heat transfer element being adapted for transferring heat from said at least one heating element to a column of the air operably moving substantially upwardly past said at least one heat transfer element, the column comprising a first portion extending from the first side to define an inner portion and a second portion extending from the second side to define an outer portion; and characterised in that the second side is longer than the first side for allowing the at least one heat transfer element to transfer substantially more heat to the outer portion of the column of the air than to the inner portion thereof, to cause the outer portion to rise faster than the inner portion, for at least partially entraining the inner portion with the outer portion, such that operably at least a part of the inner portion forms a laminar boundary layer flowing along the wall. at least one heating element to provide heat; at least one heat transfer element mounted on said at least one heating element, the heat transfer element having a first side and a second side, the first side and second sides operably, on locating the heater assembly at the substantially vertical wall, respectively defining an inner side of the heat transfer element arranged to be located proximal to the wall and an outer side of the heat transfer element arranged to be located distal to the wall; the at least one heat transfer element being adapted for transferring heat from said at least one heating element to a column of the air operably moving substantially upwardly past said at least one heat transfer element, the column comprising a first portion extending from the first side to define an inner portion and a second portion extending from the second side to define an outer portion; and characterised in that the second side is longer than the first side for allowing the at least one heat transfer element to transfer substantially more heat to the outer portion of the column of the air than to the inner portion thereof, to cause the outer portion to rise faster than the inner portion, for at least partially entraining the inner portion with the outer portion, such that operably at least a part of the inner portion forms a laminar boundary layer flowing along the wall.
A product comprising a recombinant human follicle stimulating hormone for use in the treatment of infertility in a patient having serum AMH level of < 15 pmol/L, wherein the product is to be administered at a dose of, or equivalent to, 11-13 μg recombinant human FSH per day, 12 to 16 days after administration of a GnRH agonist.
A photoelectric conversion element comprising: a support; a photoelectric conversion layer; an undercoat layer; and a surface layer, where the photoelectric conversion layer, the undercoat layer, and the surface layer are disposed on or above the support in this order, wherein the surface layer is a ceramic film, and wherein the undercoat layer includes a siloxane resin. a support; a photoelectric conversion layer; an undercoat layer; and a surface layer, where the photoelectric conversion layer, the undercoat layer, and the surface layer are disposed on or above the support in this order, wherein the surface layer is a ceramic film, and wherein the undercoat layer includes a siloxane resin.
An underwater vehicle comprising: port and starboard thrusters (310b, 310a) spaced apart in a port-starboard direction, each thruster (310b, 310a) being oriented to generate a thrust force in a fore-aft direction perpendicular to the port-starboard direction; a vertical thruster which is oriented to generate a thrust force substantially perpendicular to the fore-aft and port-starboard directions; port, starboard and vertical ducts (323, 322, 334) which contain the port, starboard and vertical thrusters (310b, 310a, 311) respectively, each duct (323, 322, 334) providing a channel for water to flow through its respective thruster (310b, 310a, 311); and a moving mass which can be moved in the fore-aft direction to control a pitch of the underwater vehicle, wherein the underwater vehicle is an autonomous underwater vehicle or a remotely operated vehicle controlled via a tether, the body of the underwater vehicle comprises a cylindrical pressure vessel, said pressure vessel contains said moving mass, and the underwater vehicle has a centre of buoyancy and a centre of gravity, wherein the vertical thruster is positioned so that the thrust force generated by the vertical thruster is offset from the centre of buoyancy and the centre of gravity, wherein operation of the vertical thruster is configured to control the pitch of the underwater vehicle.
A camera module comprising: a lighting unit configured to output an output light signal to be emitted to an object; a lens unit configured to concentrate an input light signal reflected from the object, the lens unit including an infrared filter and at least one lens disposed on the IR filter; a tilting unit configured to control a tilt of the IR filter so as to shift an optical path of the input light signal; an image sensor unit configured to generate an electric signal from the input light signal concentrated by the lens unit and shifted by the tilting unit; an image control unit configured to extract depth information of the object using a phase difference between the output light signal and the input light signal being received by the image sensor unit and tilt information of the IR filter; and a detection unit configured to detect the tilt information of the IR filter and provide the tilt information of the IR filter to the image control unit. a lighting unit configured to output an output light signal to be emitted to an object; a lens unit configured to concentrate an input light signal reflected from the object, the lens unit including an infrared filter and at least one lens disposed on the IR filter; a tilting unit configured to control a tilt of the IR filter so as to shift an optical path of the input light signal; an image sensor unit configured to generate an electric signal from the input light signal concentrated by the lens unit and shifted by the tilting unit; an image control unit configured to extract depth information of the object using a phase difference between the output light signal and the input light signal being received by the image sensor unit and tilt information of the IR filter; and a detection unit configured to detect the tilt information of the IR filter and provide the tilt information of the IR filter to the image control unit.
A system comprising: a prime mover including an output shaft structured to output torque; an accessory drive system (110, 210, 310, 410, 510) including a selectably engageable accessory drive member structured to be selectably coupled with and selectably driven by torque from the output shaft, and an electronically controllable electromagnetic clutch including a friction plate and an armature, the armature and the friction plate being disposed within the selectably engageable accessory drive member, the electromagnetic clutch being structured to selectably couple and decouple the selectably engageable accessory drive member with the output shaft via electromagnetically induced axial motion of the friction plate between a first axial position wherein the friction plate is spaced apart from an opposing surface of the selectably engageable accessory drive member and a second axial position wherein the friction plate contacts the opposing surface of the selectably engageable accessory drive member, and a controller in operative communication with the prime mover system and structured to selectably control the electromagnetic clutch effective to move the friction plate between the first position and the second position; characterized in that the friction plate is sealed internally within the accessory drive system. a prime mover including an output shaft structured to output torque; an accessory drive system (110, 210, 310, 410, 510) including a selectably engageable accessory drive member structured to be selectably coupled with and selectably driven by torque from the output shaft, and an electronically controllable electromagnetic clutch including a friction plate and an armature, the armature and the friction plate being disposed within the selectably engageable accessory drive member, the electromagnetic clutch being structured to selectably couple and decouple the selectably engageable accessory drive member with the output shaft via electromagnetically induced axial motion of the friction plate between a first axial position wherein the friction plate is spaced apart from an opposing surface of the selectably engageable accessory drive member and a second axial position wherein the friction plate contacts the opposing surface of the selectably engageable accessory drive member, and a controller in operative communication with the prime mover system and structured to selectably control the electromagnetic clutch effective to move the friction plate between the first position and the second position; characterized in that the friction plate is sealed internally within the accessory drive system.
A circuit, comprising: a first clock control device for a first clock domain, the first clock control device receiving signals comprising a first fast clock signal, a test signal, and a slow clock signal, the first clock control device comprising first circuitry configured to select clock pulses of the first fast clock signal as scan capture clock pulses for the first clock domain based on a first clock pulse of the slow clock signal and the test signal; and a second clock control device for a second clock domain, the second clock control device receiving signals comprising a second fast clock signal, the test signal, and the slow clock signal, the second clock control device comprising second circuitry configured to select clock pulses of the second fast clock signal as scan capture clock pulses for the second clock domain based on a second clock pulse of the slow clock signal and the test signal, wherein the first clock pulse and the second clock pulse are different clock pulses of the slow clock signal. a first clock control device for a first clock domain, the first clock control device receiving signals comprising a first fast clock signal, a test signal, and a slow clock signal, the first clock control device comprising first circuitry configured to select clock pulses of the first fast clock signal as scan capture clock pulses for the first clock domain based on a first clock pulse of the slow clock signal and the test signal; and a second clock control device for a second clock domain, the second clock control device receiving signals comprising a second fast clock signal, the test signal, and the slow clock signal, the second clock control device comprising second circuitry configured to select clock pulses of the second fast clock signal as scan capture clock pulses for the second clock domain based on a second clock pulse of the slow clock signal and the test signal, wherein the first clock pulse and the second clock pulse are different clock pulses of the slow clock signal.
Device for buffering container closures in a beverage filling plant, wherein the device has a horizontally oriented buffer surface for buffering container closures, a horizontally oriented transport surface, and an intake and a horizontally oriented outlet, between which the buffer surface rotatable about an axis of rotation is disposed, wherein the intake leads directly onto the buffer surface, the buffer surface adjoins the transport surface for transport of the container closures from the intake to the outlet, the buffer surface is encircled by the transport surface, the transport surface is rotatable about the axis of rotation and independently of the rotatable buffer surface, wherein the intake is arranged such that the container closures are fed substantially in the center of the buffer surface and then migrate outwards from there due to the rotation of the buffer surface in order to pass via the transport surface to the outlet, characterized in that due to the horizontal orientation of the buffer surface, the transport surface and the outlet it is achieved that buffering takes place without an additional height difference having to be overcome thereafter. the intake leads directly onto the buffer surface, the buffer surface adjoins the transport surface for transport of the container closures from the intake to the outlet, the buffer surface is encircled by the transport surface, the transport surface is rotatable about the axis of rotation and independently of the rotatable buffer surface, wherein the intake is arranged such that the container closures are fed substantially in the center of the buffer surface and then migrate outwards from there due to the rotation of the buffer surface in order to pass via the transport surface to the outlet, characterized in that due to the horizontal orientation of the buffer surface, the transport surface and the outlet it is achieved that buffering takes place without an additional height difference having to be overcome thereafter.
Method of differentiating and counting the cellular components present in a sample of a biological fluid, characterised in that it comprises: - a primary step of cytological analysis, carried out on its own, conventionally carried out by flow cytometry to obtain a set of primary results enabling all the cellular components of the sample to be differentiated and counted in different populations; - identifying at least one anomaly linked to an identified cellular peculiarity based on the primary results; - simultaneously carrying out the primary step, which is reiterated so as to obtain the set of primary results once more, and a complementary step of cytological analysis of a particular type of cellular components, based on an identified cellular peculiarity, to obtain complementary results enabling at least one cell population or subpopulation of the sample to be differentiated and counted in order to identify said cellular peculiarity, which complementary step of cytological analysis comprises using secondary measuring means enabling at least one cell population or subpopulation present in the sample of biological fluid to be differentiated and counted; and in that the primary step and the complementary step of cytological analysis simultaneously measure different physical characteristics of the same cellular components in the same flow. - a primary step of cytological analysis, carried out on its own, conventionally carried out by flow cytometry to obtain a set of primary results enabling all the cellular components of the sample to be differentiated and counted in different populations; - identifying at least one anomaly linked to an identified cellular peculiarity based on the primary results; - simultaneously carrying out the primary step, which is reiterated so as to obtain the set of primary results once more, and a complementary step of cytological analysis of a particular type of cellular components, based on an identified cellular peculiarity, to obtain complementary results enabling at least one cell population or subpopulation of the sample to be differentiated and counted in order to identify said cellular peculiarity, which complementary step of cytological analysis comprises using secondary measuring means enabling at least one cell population or subpopulation present in the sample of biological fluid to be differentiated and counted; and
A honeycomb structural body obtained by assembling one or plural pillar-shaped porous ceramic members, each being made by arranging a plurality of through-holes (21, 31, 41) for the formation of cells side by side in a longitudinal direction through partitions and plugging either one end of these through-holes, wherein the porous ceramic member is made by combining a group of large volume through-holes (21a, 31a, 41a) and a group of small volume through-holes (21b, 31b, 41b), wherein the large volume through-holes (21a, 31a, 41a) are made of through-holes having a hole size larger than that of the small volume through-holes (21b, 31b, 41b). wherein the large volume through-holes (21a, 31a, 41a) are plugged at one end and the small volume through-holes (21b, 31b, 41b) are plugged at an opposite end with respect to the one end, whereby a sum of opening areas of the large volume through-holes (21a, 31a, 41a) in a section perpendicular to the longitudinal direction is relatively larger in relation to a sum of opening areas of the small volume through-holes (21b, 31b, 41b), characterized in that the ceramic member is made of silicon-ceramic composite material consisting of ceramic and silicon, and a surface roughness of the partition in the porous ceramic member is 1.0-30.0 μm.
A mass spectrometer comprising: an RF ion guide or ion trap (2, 4, 5, 6); a device arranged and adapted to supply a reagent gas within said RF ion guide or ion trap; a photo-ionisation device; and a control system; characterised in that said photo-ionisation device comprises an electromagnetic radiation source arranged and adapted to emit photons, wherein said photons are caused to interact, in use, with said reagent gas within said RF ion guide or ion trap (2, 4, 5, 6) in order to photo-ionise and/or photo-excite said reagent gas; and in that: said control system is arranged and adapted: (i) to cause first ions to fragment or dissociate within said RF ion guide or ion trap (2, 4, 5, 6) to form second ions and neutral molecules; and (ii) to cause said photo-ionisation device to photo-ionise and/or photo-excite said reagent gas to form reagent ions, excited species or radical species, wherein said reagent ions, excited species or radical species interact with at least some of said neutral molecules located within said RF ion guide or ion trap to form analyte ions. an RF ion guide or ion trap (2, 4, 5, 6); a device arranged and adapted to supply a reagent gas within said RF ion guide or ion trap; a photo-ionisation device; and a control system; said control system is arranged and adapted: (i) to cause first ions to fragment or dissociate within said RF ion guide or ion trap (2, 4, 5, 6) to form second ions and neutral molecules; and (ii) to cause said photo-ionisation device to photo-ionise and/or photo-excite said reagent gas to form reagent ions, excited species or radical species, wherein said reagent ions, excited species or radical species interact with at least some of said neutral molecules located within said RF ion guide or ion trap to form analyte ions. (i) to cause first ions to fragment or dissociate within said RF ion guide or ion trap (2, 4, 5, 6) to form second ions and neutral molecules; and (ii) to cause said photo-ionisation device to photo-ionise and/or photo-excite said reagent gas to form reagent ions, excited species or radical species, wherein said reagent ions, excited species or radical species interact with at least some of said neutral molecules located within said RF ion guide or ion trap to form analyte ions.
A nutrient composition for a hydroponic system, the nutrient composition comprising: a nitrogen source; a phosphorus source; a potassium source; a calcium source; and a sulfur source, a magnesium source, wherein the nutrient composition further comprises micronutrients consisting of a boron source, a copper source, an iron source, a manganese source, a molybdenum source, and a zinc source, wherein the nutrient composition has a nitrogen to phosphorus to potassium ratio of 2.5:1:4.5 to 3.5:1:3.5 and has: a nitrogen concentration of 150 ppm; a phosphorus concentration of 53.71 ppm; a potassium concentration of 205.38 ppm; a calcium concentration of 107.53 ppm; a sulfur concentration of 54.19 ppm; a magnesium concentration of 41.08 ppm; a boron concentration of 0.3 ppm; a copper concentration of 0.17 ppm; an iron concentration of 1.91 ppm; a manganese concentration of 0.73 ppm; a molybdenum concentration of 0.05 ppm; and a zinc concentration of 0.21 ppm. a nitrogen source; a phosphorus source; a potassium source; a calcium source; and a sulfur source, a magnesium source, wherein the nutrient composition further comprises micronutrients consisting of a boron source, a copper source, an iron source, a manganese source, a molybdenum source, and a zinc source, wherein the nutrient composition has a nitrogen to phosphorus to potassium ratio of 2.5:1:4.5 to 3.5:1:3.5 and has: a nitrogen concentration of 150 ppm; a phosphorus concentration of 53.71 ppm; a potassium concentration of 205.38 ppm; a calcium concentration of 107.53 ppm; a sulfur concentration of 54.19 ppm; a magnesium concentration of 41.08 ppm; a boron concentration of 0.3 ppm; a copper concentration of 0.17 ppm; an iron concentration of 1.91 ppm; a manganese concentration of 0.73 ppm; a molybdenum concentration of 0.05 ppm; and a zinc concentration of 0.21 ppm. a nitrogen concentration of 150 ppm; a phosphorus concentration of 53.71 ppm; a potassium concentration of 205.38 ppm; a calcium concentration of 107.53 ppm; a sulfur concentration of 54.19 ppm; a magnesium concentration of 41.08 ppm; a boron concentration of 0.3 ppm; a copper concentration of 0.17 ppm; an iron concentration of 1.91 ppm; a manganese concentration of 0.73 ppm; a molybdenum concentration of 0.05 ppm; and a zinc concentration of 0.21 ppm.