mhurhangee/ep-ind-claims huggingface dataset:
Method of creating an interlayer on a glass testing substrate intended for sticking chips characterised in, that a surface of the glass substrate is provided by at least one layer of a glass paste, afterwards the surface of the glass paste is dusted by smooth powder of thermal resistant material by applying device, and afterwards last layer is spread on the glass paste and before the glass paste becomes dry, the glass testing substrate 1 is dried and burnt in the thermal range of 450°C to 650°C and in the time range of 5 to 20 min, and afterwards the surface of the glass testing substrate is washed by water or blown off by air.
A rail vehicle, comprising: a rail vehicle frame; a pocket coupled to a frame portion of the rail vehicle frame, the frame portion comprising a transverse slot; a first beam disposed in a cavity defined by the pocket, the first beam having a rectangular cross-section; a second beam disposed proximal to the first beam; an end plate that couples the first beam and the second beam; an actuator that extends the first and second beams (114, 116) such that the end plate is displaced transversely with respect to the rail vehicle frame; and a workhead carrier comprising a protrusion, the workhead carrier (92', 92") operable to translate along the first and second beams (114, 116) and couple the second beam to the frame portion via the protrusion disposed in the transverse slot. a rail vehicle frame; a pocket coupled to a frame portion of the rail vehicle frame, the frame portion comprising a transverse slot; a first beam disposed in a cavity defined by the pocket, the first beam having a rectangular cross-section; a second beam disposed proximal to the first beam; an end plate that couples the first beam and the second beam; an actuator that extends the first and second beams (114, 116) such that the end plate is displaced transversely with respect to the rail vehicle frame; and a workhead carrier comprising a protrusion, the workhead carrier (92', 92") operable to translate along the first and second beams (114, 116) and couple the second beam to the frame portion via the protrusion disposed in the transverse slot.
A construction based on a three hinge frame principle and constituted of a first and a second construction element placed on a basis, said construction comprises a first and a second force transmission plane which cross each other, each construction element comprises at least a first, a second and a third hinge point of which the first and second hinge point form multi-directional hinges, the first hinge point being fixed on the basis, the first and second construction element being connected to each other by their second hinge points, each construction element comprises a fourth hinge point, the third and fourth hinge point also forming multi-directional hinges, the fourth hinge point of the first construction element and the third hinge point of the second construction element being fixed on the basis, the first and second hinge point of said two construction elements defining the first force transmission plane, the second hinge points and the third, respectively the fourth, hinge point of the second and first construction element defining the second force transmission plane.
A method for reporting Channel State Information, CSI, in a wireless access system which supports carrier aggregation, the method comprising: receiving, at a User Equipment, UE, information related to CSI reporting modes for two or more downlink component carriers, DL CCs, from a Base Station BS; and transmitting (S930, S940), at the UE, CSI reports for the two or more DL CCs to the BS, transmitting, if a collision between a first CSI report with a first CSI reporting type of a first DL CC and a second CSI report with a second CSI reporting type of a second DL CC occurred in a same subframe, by the UE, only one CSI report to the BS according to priority of the first and the second CSI reporting types, wherein each of the first and the second CSI reporting types supports M number of CSI contents, wherein the M number of CSI contents includes at least a Rank Indicator, RI, WideBand Channel Quality Indicator, WB-CQI, SubBand CQI, SB-CQI, a first Precoding Matrix Indicator, PMI, or a second PMI, and wherein transmission periods and offsets of the first and the second CSI reporting types are determined according to the CSI reporting mode. receiving, at a User Equipment, UE, information related to CSI reporting modes for two or more downlink component carriers, DL CCs, from a Base Station BS; and transmitting (S930, S940), at the UE, CSI reports for the two or more DL CCs to the BS, transmitting, if a collision between a first CSI report with a first CSI reporting type of a first DL CC and a second CSI report with a second CSI reporting type of a second DL CC occurred in a same subframe, by the UE, only one CSI report to the BS according to priority of the first and the second CSI reporting types, wherein each of the first and the second CSI reporting types supports M number of CSI contents,
An electrically conductive composition comprising 3 to 50% by mass of carbon nanotubes, 30 to 80% by mass of an electrically conductive polymer having a structure in which a single carbon-to-carbon bond and a double carbon-to-carbon bond are alternately connected in a main chain of the polymer, and 1 to 50% by mass of an onium salt compound represented by any one of Formulae to; wherein R 21 to R 23, R 25 to R 26, and R 31 to R 33 each independently represent a linear, branched, or cyclic alkyl group, aralkyl group, aryl group, or aromatic heterocyclic group; R 27 to R 30 each independently represent a hydrogen atom, or a linear, branched, or cyclic alkyl group, aralkyl group, aryl group, aromatic heterocyclic group, alkoxy group, or aryloxy group; R 24 represents a linear, branched, or cyclic alkylene group or arylene group; R 21 to R 33 may be further substituted; X - is an anion of arylsulfonic acid, an anion of perfluoroalkyl sulfonic acid, an anion of perhalogenated Lewis acid, an anion of perfluoroalkyl sulfonimide, ClO 4 -, BrO 4 -, IO 4 -, or an anion of alkyl or aryl borate; and any two groups of R 21 to R 23 in Formula, R 21 and R 23 in Formula, R 25 and R 26 in Formula, any two groups of R 27 to R 30 in Formula, or any two groups of R 31 to R 33 in Formula may be bonded with each other to form an aliphatic ring, an aromatic ring, or a heterocyclic ring; the amounts of - being based on the total solid content of the electrically conductive composition. wherein R 21 to R 23, R 25 to R 26, and R 31 to R 33 each independently represent a linear, branched, or cyclic alkyl group, aralkyl group, aryl group, or aromatic heterocyclic group; R 27 to R 30 each independently represent a hydrogen atom, or a linear, branched, or cyclic alkyl group, aralkyl group, aryl group, aromatic heterocyclic group, alkoxy group, or aryloxy group; R 24 represents a linear, branched, or cyclic alkylene group or arylene group; R 21 to R 33 may be further substituted; X - is an anion of arylsulfonic acid, an anion of perfluoroalkyl sulfonic acid, an anion of perhalogenated Lewis acid, an anion of perfluoroalkyl sulfonimide, ClO 4 -, BrO 4 -, IO 4 -, or an anion of alkyl or aryl borate; and any two groups of R 21 to R 23 in Formula, R 21 and R 23 in Formula, R 25 and R 26 in Formula, any two groups of R 27 to R 30 in Formula, or any two groups of R 31 to R 33 in Formula may be bonded with each other to form an aliphatic ring, an aromatic ring, or a heterocyclic ring; the amounts of - being based on the total solid content of the electrically conductive composition.
METHOD FOR SANIFYING/STERILIZING CORK STOPPERS, from the cheapest ones, provided with an agglomerated body and washers, to the finest ones made of high quality natural cork, used in bottle capping, said method being characterised in that it provides for applying a film, having a morphologically reticulated structure being smaller in size than the cork cells, on the surface of the cork cells of the stopper and on the outer surface thereof, such as to allow the passage of oxygen. said method being characterised in that
A vacuum pump comprising: a housing (2, 3) in which an inlet port or an outlet port are formed; a rotating shaft that is enclosed in the housing (2, 3) and supported rotatably; a rotor blade (8, 9) that is provided on the rotating shaft; a stator blade that is disposed concentrically with the rotor blade (8, 9) and axially opposes the rotor blade (8, 9) with a gap therebetween; and a connected thread groove spacer (20, 21, 22) fixed to the housing (2, 3), the connected thread groove spacer (20, 21, 22) has a structure that connects a Siegbahn portion and a thread groove portion, wherein the thread groove portion, which is an exhaust element, is structured such that a Siegbahn structure is attached onto the thread groove portion, and such that respective portions are connected to each other at this attachment section so that a flow channel of the Siegbahn portion and a flow channel of the thread groove portion are connected to each other so as to substantially form a right angle when viewed in axial cross section of the vacuum pump, wherein the Siegbahn portion (201,211,221) has a disc shape and in which a spiral groove with a spiral ridge portion and a spiral root portion is engraved, and wherein the thread groove portion (202, 212, 222) has a cylindrical shape and in which a thread groove with a thread ridge portion and a thread root portion is formed, the thread groove portion being connected to the Siegbahn portion. a housing (2, 3) in which an inlet port or an outlet port are formed; a rotating shaft that is enclosed in the housing (2, 3) and supported rotatably; a rotor blade (8, 9) that is provided on the rotating shaft; a stator blade that is disposed concentrically with the rotor blade (8, 9) and axially opposes the rotor blade (8, 9) with a gap therebetween; and a connected thread groove spacer (20, 21, 22) fixed to the housing (2, 3), the connected thread groove spacer (20, 21, 22) has a structure that connects a Siegbahn portion and a thread groove portion, wherein the thread groove portion, which is an exhaust element, is structured such that a Siegbahn structure is attached onto the thread groove portion, and such that respective portions are connected to each other at this attachment section so that a flow channel of the Siegbahn portion and a flow channel of the thread groove portion are connected to each other so as to substantially form a right angle when viewed in axial cross section of the vacuum pump, wherein the Siegbahn portion (201,211,221) has a disc shape and in which a spiral groove with a spiral ridge portion and a spiral root portion is engraved, and wherein the thread groove portion (202, 212, 222) has a cylindrical shape and in which a thread groove with a thread ridge portion and a thread root portion is formed, the thread groove portion being connected to the Siegbahn portion.
Household appliances maintenance elevating table, having a first frame and a work platform that is continuously height-adjustable in relation to the first frame by means of a scissor lift device as a first height adjustor, characterised by at least two sets, each of at least three legs (18; 180; 182) of the same length, which can be mounted on the first frame, wherein the legs (18; 180; 182) of different sets have different lengths, so that the legs act as a second height adjustor and a working height of the work platform can in addition be adjusted.
A method, executed in a root sequence determiner for a base station (1, 1a-b) controlling a first cell, the first cell being associated with at least one root sequence used for cell differentiation on a random access channel, the method comprising the steps of: obtaining information on root sequences of neighbouring cells (3b, 4a), the neighbouring cells neighbouring the first cell; characterised by further comprising the steps of when a root sequence conflict is found between the first cell and a neighbouring cell, here denoted a conflict cell, determining if the conflict cell is of a higher priority than the first cell, the priorities of the first cell and the conflict cell being based on properties of the respective cells; and when the conflict cell is of a higher priority than the first cell, finding a new root sequence for the first cell, avoiding the root sequences of the neighbouring cells. obtaining information on root sequences of neighbouring cells (3b, 4a), the neighbouring cells neighbouring the first cell; characterised by further comprising the steps of when a root sequence conflict is found between the first cell and a neighbouring cell, here denoted a conflict cell, determining if the conflict cell is of a higher priority than the first cell, the priorities of the first cell and the conflict cell being based on properties of the respective cells; and when the conflict cell is of a higher priority than the first cell, finding a new root sequence for the first cell, avoiding the root sequences of the neighbouring cells.
A method for obtaining a linear detonating shaped cutting charge, said charge comprising a cylindrical metal sheath with chevron-shaped cross section enclosing an explosive energetic material; said method comprising the successive steps below: - obtaining a hollow preformed metal container, extending from a first open distal end to a second open distal end, so defining a longitudinal axis; said hollow preformed metal container being of cylindrical form with a groove in the form of an inverted V along said longitudinal axis, having a cross section which exhibits a symmetry relative to the median axis of said groove, and comprising two inner walls (1a, 1b) delimiting said groove and two outer walls (10a, 10b) on either side of an apex; - obtaining said container with its internal volume filled with a compression-deformable explosive energetic charge and its distal ends blocked; and - deforming by compression a portion of each of said outer walls (10a,10b) of said filled container blocked at its two distal ends, over the entire length of said container, said portion locating opposite said inner walls (1a,1b) delimiting said groove in the form of an inverted V, to reduce the filled internal volume of said container, with the aim of canceling the voids in said filled internal volume without deforming said said groove in the form of an inverted V; said container, of which a portion of each of said outer walls (10a, 10b) has thus been made concave, forming said sheath. - obtaining a hollow preformed metal container, extending from a first open distal end to a second open distal end, so defining a longitudinal axis; said hollow preformed metal container being of cylindrical form with a groove in the form of an inverted V along said longitudinal axis, having a cross section which exhibits a symmetry relative to the median axis of said groove, and comprising two inner walls (1a, 1b) delimiting said groove and two outer walls (10a, 10b) on either side of an apex; - obtaining said container with its internal volume filled with a compression-deformable explosive energetic charge and its distal ends blocked; and - deforming by compression a portion of each of said outer walls (10a,10b) of said filled container blocked at its two distal ends, over the entire length of said container, said portion locating opposite said inner walls (1a,1b) delimiting said groove in the form of an inverted V, to reduce the filled internal volume of said container, with the aim of canceling the voids in said filled internal volume without deforming said said groove in the form of an inverted V;
Heating apparatus comprising solar energy collector means (1,11), the solar energy collector means (1,11) being for transferring the collected solar energy to outside air passing through the solar energy collector means (1,11), means to use the heat of the air coming from the solar energy collector means (1,11) for heating, a heat pump, a heat exchanger connected to the heat pump and also comprising heat storage means, wherein the heat pump is connected to the heat storage means, the solar energy collector means (1,11) comprise at least one first collector panel and at least one second collector panel, wherein each collector panel (1,11) defines an at least partly enclosed space and is provided with one or more solar energy absorbing sides, air-inlet openings connecting the outside with the at least partly enclosed space and the air-outlet duct (2,12) connected to the at least partly closed space, characterized in that the air coming from the at least one first collector panel is for being led to the heating means and the air coming from the at least one second collector panel is for being led to the heat exchanger connected to the heat pump the heat pump being for transferring the heat extracted from the air to the heat storage means, wherein a further heat exchanger is positioned in the air-outlet duct connected to the first collector panel, control means are provided to connect and disconnect the further heat exchanger to the heat storage means and wherein the control means and further heat exchanger are arranged to add heat to or to take heat from the air coming from the first collector panel.
Artificial aquatic habitat comprising: - a base formed by at least one base element, said at least one base element comprising at least one joining portion, - a plurality of cluster blocks, each cluster block comprising a foot from which extend a plurality of rods, the rods extending from the foot inside a widening, geometrically conical envelope, each cluster block further comprising a joining portion suitable for cooperating with a joining portion of the base to join together a cluster block and a base element, - an anchoring element suitable for linking the base to an external structure, characterized in that the base further comprises a hollow shell, and in that each of the at least one base element comprises a shell element having a spherical portion geometry. - a base formed by at least one base element, said at least one base element comprising at least one joining portion, - a plurality of cluster blocks, each cluster block comprising a foot from which extend a plurality of rods, the rods extending from the foot inside a widening, geometrically conical envelope, each cluster block further comprising a joining portion suitable for cooperating with a joining portion of the base to join together a cluster block and a base element, - an anchoring element suitable for linking the base to an external structure,
Apparatus ( 401, 801) for providing a switch mechanism, comprising: a housing ( 402, 802) containing within: a pressure sensitive device ( 403, 803) comprising a resistive pressure sensor responsive to an applied force, said pressure sensitive device being mounted to said housing; a first actuator ( 405, 804) moveably connected to said housing to enable said first actuator to move along an axis towards and away from said pressure sensitive device, so as to transmit said applied force to said pressure sensitive device; and a first resilient member ( 406, 805) having a first end connected to said first actuator and a second end connected to said pressure sensitive device. a pressure sensitive device ( 403, 803) comprising a resistive pressure sensor responsive to an applied force, said pressure sensitive device being mounted to said housing; a first actuator ( 405, 804) moveably connected to said housing to enable said first actuator to move along an axis towards and away from said pressure sensitive device, so as to transmit said applied force to said pressure sensitive device; and a first resilient member ( 406, 805) having a first end connected to said first actuator and a second end connected to said pressure sensitive device.
Method for determining optimal source impedance at an input of a device under test in a measurement bench, it comprises the following steps: - calibration of a source pull type bench as a measurement bench, - adjustment of a load impedance and continuous polarisation of the DUT, - generation of an electric power signal by the source and injected in the DUT, - acquisition of input impedances of the DUT and corresponding transducer gain performances, characterised in that it comprises the following steps: - a theoretically-defined source impedance is adjusted over an input impedance of the DUT measured, - a transducer power gain performance acquisition is determined based on the source impedance theoretically defined, the input impedance measured in the plane of the DUT, as well as the net power injected at the DUT input and the output power of the DUT, - a deviation is determined in the performances based on simulated mismatchings between the theoretically-defined source impedance and the input impedances of the DUT, and - in the event that the deviation is greater than a reference value, at least one new source impedance is defined until iteratively obtaining a deviation less than the reference value, and the transducer gain performances of the DUT based on this source impedance are thus determined. - calibration of a source pull type bench as a measurement bench, - adjustment of a load impedance and continuous polarisation of the DUT, - generation of an electric power signal by the source and injected in the DUT, - acquisition of input impedances of the DUT and corresponding transducer gain performances, - a theoretically-defined source impedance is adjusted over an input impedance of the DUT measured, - a transducer power gain performance acquisition is determined based on the source impedance theoretically defined, the input impedance measured in the plane of the DUT, as well as the net power injected at the DUT input and the output power of the DUT, - a deviation is determined in the performances based on simulated mismatchings between the theoretically-defined source impedance and the input impedances of the DUT, and - in the event that the deviation is greater than a reference value, at least one new source impedance is defined until iteratively obtaining a deviation less than the reference value, and the transducer gain performances of the DUT based on this source impedance are thus determined.