mhurhangee/ep-ind-claims huggingface dataset:
An antenna system with a panel antenna array, wherein transmit-only antennas and receive-only antennas form the panel antenna array with P columns of antennas having Q antennas in each of the P columns, wherein P is a positive integer greater than 1 and Q is an even number, the panel antenna array comprising: M transmit-only antenna pairs, wherein the two transmit-only antennas of each of the M transmit-only antenna pairs are symmetrically distributed on both sides of a symmetry axis, and M is a positive integer greater than 1; N receive-only antenna pairs, wherein two receive-only antennas of each receive-only antenna pair in the N receive-only antenna pairs are symmetrically distributed on both sides of the symmetry axis, and N is a positive integer greater than 1; M dividing devices, wherein the M dividing devices are one-to-one corresponding to the M transmit-only antenna pairs, and each dividing device is configured to: divide one transmit signal into two transmit signals and separately send the two transmit signals to two transmit-only antennas of a corresponding transmit-only antenna pair; and N combining devices, wherein the N combining devices are one-to-one corresponding to the N receive-only antenna pairs; each combining device is configured to combine two receive signals received by two receive-only antennas of a corresponding receive-only antenna pair into one receive signal; and wherein the dividing devices are in-phase dividing devices, and the combining devices are out-of-phase combining devices; or the dividing devices are out-of-phase dividing devices, and the combining devices are in-phase combining devices. M transmit-only antenna pairs, wherein the two transmit-only antennas of each of the M transmit-only antenna pairs are symmetrically distributed on both sides of a symmetry axis, and M is a positive integer greater than 1; N receive-only antenna pairs, wherein two receive-only antennas of each receive-only antenna pair in the N receive-only antenna pairs are symmetrically distributed on both sides of the symmetry axis, and N is a positive integer greater than 1; M dividing devices, wherein the M dividing devices are one-to-one corresponding to the M transmit-only antenna pairs, and each dividing device is configured to: divide one transmit signal into two transmit signals and separately send the two transmit signals to two transmit-only antennas of a corresponding transmit-only antenna pair; and N combining devices, wherein the N combining devices are one-to-one corresponding to the N receive-only antenna pairs; each combining device is configured to combine two receive signals received by two receive-only antennas of a corresponding receive-only antenna pair into one receive signal; and wherein the dividing devices are in-phase dividing devices, and the combining devices are out-of-phase combining devices; or the dividing devices are out-of-phase dividing devices, and the combining devices are in-phase combining devices.
A method of pre-constructing or pre-configuring a stent delivery device prior to insertion into a patient, the method comprising: receiving an assembled stent delivery device including a balloon catheter and a stent crimped over at least a portion of the balloon catheter, the balloon catheter consisting of a single lumen, the single lumen configured to accept a first guide wire; removing the stent from the balloon catheter; adding a second guide wire between an inner surface of the stent and an outer surface of the balloon catheter after having removed the stent; and re-crimping the stent over the balloon catheter after having added the second guide wire such that the second guide wire is in direct physical contact between the inner surface of the stent and the outer surface of the balloon catheter. receiving an assembled stent delivery device including a balloon catheter and a stent crimped over at least a portion of the balloon catheter, the balloon catheter consisting of a single lumen, the single lumen configured to accept a first guide wire; removing the stent from the balloon catheter; adding a second guide wire between an inner surface of the stent and an outer surface of the balloon catheter after having removed the stent; and re-crimping the stent over the balloon catheter after having added the second guide wire such that the second guide wire is in direct physical contact between the inner surface of the stent and the outer surface of the balloon catheter.
An acrylic rubber composition comprising an acrylic rubber and a compound represented by General Formula: where R 1 to R 4 each independently represent a C 1 to C 30 organic group which may have a substituent, and R 5 to R 10 each independently represent a hydrogen atom or a C 1 to C 30 organic group which may have a substituent.
A system for controlling and managing hydroponic or similar cultivations positioned inside at least one modular shelf (20, 23), wherein the at least one modular shelf (20, 23) comprises a plurality of modular spaces (A, B, C) each adapted to contain at least one tray for containing vegetable crops and a light source adapted to illuminate said tray for containing the vegetable crops, each modular space (A, B, C) being provided with support elements for the tray, vertically separated by predetermined distances, wherein the tray can be moved inside each modular shelf, wherein said at least one modular shelf (20, 23) further comprises a modular space adapted to house the tray inside which space a control and management station operates, comprising sensors able to determine the biological parameters of the vegetable crops, and actuators able to correct said biological parameters for bringing them back to predetermined growth values, wherein the system comprises a plurality of modular shelves (20, 23) arranged adjacent to one another and which each define a growth environment for vegetable crops, each environment being separated from the outside and from other environments of the same type, by insulating walls, the system being characterised in that at least two of said modular shelves (20, 23) are placed in mutual communication by at least one passage, which can be opened or closed on command, through which the crops are transitable on the tray, wherein said at least one passage is arranged at the modular space inside which said control and management station operates. wherein said at least one modular shelf (20, 23) further comprises a modular space adapted to house the tray inside which space a control and management station operates, comprising sensors able to determine the biological parameters of the vegetable crops, and actuators able to correct said biological parameters for bringing them back to predetermined growth values, wherein the system comprises a plurality of modular shelves (20, 23) arranged adjacent to one another and which each define a growth environment for vegetable crops, each environment being separated from the outside and from other environments of the same type, by insulating walls, the system being characterised in that at least two of said modular shelves (20, 23) are placed in mutual communication by at least one passage, which can be opened or closed on command, through which the crops are transitable on the tray, wherein said at least one passage is arranged at the modular space inside which said control and management station operates.
Radar method for determining the angular position, the location and the vectorial speed of a target, wherein a first transceiver unit and at least one second transceiver unit spatially separate from the first transceiver unit, which are not synchronized, a start of measurement of the first transceiver unit and of the second transceiver unit are triggered wirelessly or by wire, but with a time deviation Δt n, wherein measurements of the transceiver units (1, 2) are processed coherently, wherein a determination of elliptic/hyperbolic parameters are carried out, in particular in several or all pixels, and a transformation of the elliptic/hyperbolic velocity into a vectorial, preferably Cartesian, velocity is carried out, wherein the elliptic/hyperbolic parameters are determined on the basis of a double-path distance d rt,n (t i) from the radar transceiver unit (1,2) to the target and back to the transceiver unit (1,2) by the following formulas: the elliptic parameter a E = 0.5 d rt, 2 + d rt, 1 2 and the hyperbolic parameter a H = 0.5 d rt, 2 − d rt, 1 2, wherein the double-path distance d rt,1 (t i) refers to the first transceiver unit (1,2) and d rt,2 (t i) refers to the second transceiver unit (1,2), wherein t i is a slow time.
A work implement for an implement compartment of a material collection equipment, the work implement comprising: a pair of wheels adapted to propel the work implement about an axis (Y-Y'); an axle located within the implement compartment and having a pair of ends (319, 321) coupled to the pair of wheels; and at least one pair of blades coupled to the axle, wherein each blade from the at least one pair of blades is angularly offset from one another and includes: a first blade extending in a direction away from the axle; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade; the second blade is disposed in a side-by-side relation with respect to the first blade, wherein the second blade is disposed adjacent to the first blade; characterized in that: each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge, wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle. a pair of wheels adapted to propel the work implement about an axis (Y-Y'); an axle located within the implement compartment and having a pair of ends (319, 321) coupled to the pair of wheels; and at least one pair of blades coupled to the axle, wherein each blade from the at least one pair of blades is angularly offset from one another and includes: a first blade extending in a direction away from the axle; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade; a first blade extending in a direction away from the axle; and a second blade extending in a direction away from the axle and being at an angular offset with respect to the first blade; the second blade is disposed in a side-by-side relation with respect to the first blade, wherein the second blade is disposed adjacent to the first blade; characterized in that: each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge, wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle. each blade from at least one of the first blade and the second blade from the at least one pair of blades includes a leading edge and a trailing edge, wherein the leading edge of at least one of the first blade is disposed proximal to an end of the axle and the leading edge of the at least one of the second blades 314 is disposed proximal to an opposite end of the axle.
A toothbrush, comprising: a processor configured to record an audio signal from an external audio source, characterized in that the processor is configured to automatically record the audio signal upon detection of sound outputted from the external audio source.
A method for manufacturing a molded foam product, comprising: a step of injecting, during injection molding, a molten resin containing a supercritical fluid or a chemical foaming agent into a cavity formed in a mold (30, 330) that includes a movable portion; and a step of increasing the volume of the cavity before the molten resin injected into the cavity completely solidifies while said movable portion is moved, wherein the mold is configured alternately by a plurality of first linear portions in the cavity and a plurality of second linear portions (37, 38) in the cavity, gap sizes in the plurality of first linear portions are larger than gap sizes in the plurality of second linear portions (37, 38), and the plurality of first linear portions and the plurality of second linear portions are running along a direction from a resin injection port (35, 135) towards an end of the cavity, characterized in that the first linear portions and the second linear portions (37, 38) satisfy the relation Ha > Hb, where Ha represents the gap size in the cavity in each first linear portion, Hb represents the gap size in the cavity in each second linear portion (37, 38), and Ha and Hb are each 0.2 mm or greater and 3.0 mm or smaller. a step of injecting, during injection molding, a molten resin containing a supercritical fluid or a chemical foaming agent into a cavity formed in a mold (30, 330) that includes a movable portion; and a step of increasing the volume of the cavity before the molten resin injected into the cavity completely solidifies while said movable portion is moved, wherein the mold is configured alternately by a plurality of first linear portions in the cavity and a plurality of second linear portions (37, 38) in the cavity, gap sizes in the plurality of first linear portions are larger than gap sizes in the plurality of second linear portions (37, 38), and the plurality of first linear portions and the plurality of second linear portions are running along a direction from a resin injection port (35, 135) towards an end of the cavity, characterized in that the first linear portions and the second linear portions (37, 38) satisfy the relation Ha > Hb, where Ha represents the gap size in the cavity in each first linear portion, Hb represents the gap size in the cavity in each second linear portion (37, 38), and Ha and Hb are each 0.2 mm or greater and 3.0 mm or smaller.
A toilet with automatic urine collecting and testing function comprising a toilet body and a urine testing device, wherein the toilet body comprises a toilet bowl; characterized in that the inner wall of the toilet bowl is provided with a section with a urine collecting groove (12a, 12b) thereon; the length of the urine collecting groove (12a, 12b) is one half to one fifth of the perimeter of the inner wall of the toilet bowl; one lower end of the urine collecting groove (12a, 12b) is provided with a urine collecting opening; the opening is provided with a valve device therein, a downward extending urine collecting tube is disposed under the urine collecting opening, the urine collecting tube is connected with urine collecting cup of urine testing device.
A mixer assembly for a gas turbine engine comprising: a mixer element; at least one scoop attached to an outer circumference of the mixer element, such that a duct is formed between an inner surface of said scoop and said outer circumference of the mixer element; and characterized by at least one sliding bracket (36, 38) attaching the mixer element and the at least one scoop, wherein the at least one sliding bracket (36, 38) is fixedly mounted to one of the scoop and the mixer element and moveable in relation to the other of the scoop and the mixer element. a mixer element; at least one scoop attached to an outer circumference of the mixer element, such that a duct is formed between an inner surface of said scoop and said outer circumference of the mixer element; and characterized by at least one sliding bracket (36, 38) attaching the mixer element and the at least one scoop, wherein the at least one sliding bracket (36, 38) is fixedly mounted to one of the scoop and the mixer element and moveable in relation to the other of the scoop and the mixer element.
A coupling element intended for installation between two blind slats attaching one to one another and forming therewith a roller blind, the slats running vertically along a channel of a guide, said coupling element being formed by a coupling body with an upper circular sector with an opening and a lower circular sector with an opening, said coupling body defining an S-shaped configuration and by a cover protruding from the lower circular sector, the coupling element being characterised in that it has at least one protrusion in the upper circular sector, placed between the bend of said upper circular sector and the opening of the lower circular sector, to prevent opening the cover while rolling up the blind about a roll up shaft.
Gas turbine plant, in particular in a power station for electricity generation, with - at least one turbo group comprising at least one turbine (4; 36, 37), at least one compressor (5; 38, 39) coupled for drive purposes thereto, and at least one combustion chamber (6; 40, 41) arranged in a gas path (9; 42, 43) which connects the compressor (5; 38, 39) to the turbine (4; 36, 37), - at least one exhaust gas recirculation device which, in operation of the gas turbine plant, conducts combustion exhaust gas of the turbine (4; 37) from an exhaust gas path connected to the turbine (4; 37) to a fresh gas path that is connected to the compressor (5; 39) via a recirculation path, - a control device which controls the volume flow and/or temperature of the recirculated combustion exhaust gas such that a fresh gas-exhaust gas mixture entering the compressor (5; 39) has a predetermined reference temperature, wherein a recirculation valve is arranged in the recirculation path, via which valve the volume flow of the recirculated combustion exhaust gas can be controlled and which is coupled to the control device, characterised in that a recirculation cooler, the cooling power of which can be controlled by and which is coupled to the control device, is arranged in the recirculation path downstream of the recirculation valve for cooling the recirculated combustion exhaust gas. - at least one turbo group comprising at least one turbine (4; 36, 37), at least one compressor (5; 38, 39) coupled for drive purposes thereto, and at least one combustion chamber (6; 40, 41) arranged in a gas path (9; 42, 43) which connects the compressor (5; 38, 39) to the turbine (4; 36, 37), - at least one exhaust gas recirculation device which, in operation of the gas turbine plant, conducts combustion exhaust gas of the turbine (4; 37) from an exhaust gas path connected to the turbine (4; 37) to a fresh gas path that is connected to the compressor (5; 39) via a recirculation path, - a control device which controls the volume flow and/or temperature of the recirculated combustion exhaust gas such that a fresh gas-exhaust gas mixture entering the compressor (5; 39) has a predetermined reference temperature, wherein a recirculation valve is arranged in the recirculation path, via which valve the volume flow of the recirculated combustion exhaust gas can be controlled and which is coupled to the control device,
A method for pre-filling a hemodialysis apparatus, wherein the hemodialysis apparatus comprises: a pre-filling liquid source supplying pre-filling liquid, a dialysate side with a dialysate chamber of a dialyzer comprising a membrane, a dialysate pump pumping the pre-filling liquid to the dialysate chamber, a waste pump pumping the pre-filling liquid away from the dialysate chamber, a blood side with an arterial line, a blood pump, a blood chamber of the dialyzer, a venous line, and a pressure sensor (38, 38', 62, 62', 72) on the dialysate side or the blood side, the method comprising the following steps: pre-filling the arterial and venous lines (42, 44) with pre-filling liquid from the pre-filling liquid source by operating the dialysate pump, and during pre-filling: continuous determination of the blood-side fluid pressure by the pressure sensor (38, 38', 62, 62', 72), wherein the pre-filling process is stopped when the fluid pressure detected by the pressure sensor (38, 38', 62, 62', 72) exceeds or falls below a defined limit pressure. a pre-filling liquid source supplying pre-filling liquid, a dialysate side with a dialysate chamber of a dialyzer comprising a membrane, a dialysate pump pumping the pre-filling liquid to the dialysate chamber, a waste pump pumping the pre-filling liquid away from the dialysate chamber, a blood side with an arterial line, a blood pump, a blood chamber of the dialyzer, a venous line, and a pressure sensor (38, 38', 62, 62', 72) on the dialysate side or the blood side, pre-filling the arterial and venous lines (42, 44) with pre-filling liquid from the pre-filling liquid source by operating the dialysate pump, and during pre-filling: continuous determination of the blood-side fluid pressure by the pressure sensor (38, 38', 62, 62', 72), wherein the pre-filling process is stopped when the fluid pressure detected by the pressure sensor (38, 38', 62, 62', 72) exceeds or falls below a defined limit pressure.
Tool system comprising a cutting plate and comprising a tool holder which has a plate seat for receiving the cutting plate having a trough, and, at a distance from this plate seat, has a surface which is inclined at an obtuse angle (y) with respect to the surface of the tool holder that is adjacent to the insert seat, comprising a clamping element which has an opening with a stop, in which opening a clamping screw having a guide portion is received, a surface, and a projection, the lug of the clamping element having an annular surface and the trough of the cutting plate having an annular surface, the annular surface of the clamping element and the annular surface of the cutting plate abutting one another in an interlocking manner when the cutting plate is clamped, and, during the process of fastening the clamping element to the tool holder, i.e. while producing a torque, during rotation of the clamping screw the surface of the clamping element slides on the surface of the tool holder, as a result of which the clamping element moves relative to the tool holder and pulls the cutting plate into the plate seat and clamps it therein, characterized in that the tool system has a functional dimension F x between the center of the trough and the stop of the opening, the value of this functional dimension F x being selected such that at the maximum permissible torque M of the clamping screw, the annular surface of the lug forms a completely planar interlocking connection to the annular surface of the trough and, when the cutting plate is clamped, the guide portion of the clamping screw abuts the stop of the wall of the opening in a force-fitting manner.
Aircraft incorporating a bleed air system adapted for extracting compressed air from the aircraft main engines to be used as a source of pressurized air for the aircraft, wherein the bleed air system comprises a bleed air duct running from the main engines and passing through the aircraft pylon and wings; wherein the bleed air system comprises: a first pre-cooler installed at one of the main engines nacelle and coupled with the bleed air duct, and adapted for cooling down the bleed air extracted from the main engine; and a second pre-cooler installed at the pylon and coupled with the bleed air duct and downstream the first pre-cooler; characterised in that the aircraft further comprises a wing anti-ice protection system coupled with the bleed air duct upstream the second pre-cooler, so that the pressurized air for wing anti-ice protection system can be supplied by the first pre-cooler. a first pre-cooler installed at one of the main engines nacelle and coupled with the bleed air duct, and adapted for cooling down the bleed air extracted from the main engine; and a second pre-cooler installed at the pylon and coupled with the bleed air duct and downstream the first pre-cooler; characterised in that the aircraft further comprises a wing anti-ice protection system coupled with the bleed air duct upstream the second pre-cooler, so that the pressurized air for wing anti-ice protection system can be supplied by the first pre-cooler.