mhurhangee/ep-ind-claims huggingface dataset:
Method for localizing assembly errors during the arrangement and/or the assembly of structural elements of microlithographic projection exposure apparatuses, wherein the method comprises the following steps: a) exciting the structural element to be investigated to vibrations with respect to axes of vibration in at least three independent spatial directions and capturing the vibration behaviour of the excited structural element, b) comparing the captured vibration behaviour to a reference behaviour of the correctly mounted structural element and determining whether a deviation that exceeds a determined limit value has occurred, and c1) repeatedly performing steps a) and b), wherein during the repeated performance of steps a) and b), an excitation of the structural element to be investigated to vibrations with respect to axes of vibration in at least three independent spatial directions that differ from the previous axes are performed, and identifying the excited axes of vibration having the minimum and/or maximum deviation from the reference behaviour, and localizing an assembly error on the basis of the identified axes of vibration, and/or c2) mathematically evaluating the captured vibration behaviour obtained in step a) with respect to a plurality of fictitious axes of vibration being different to the axes of vibration in step a), and identifying the fictitious axis of vibration having the minimum and/or maximum deviation from the reference behaviour, and localizing an assembly error on the basis of the identified fictitious axis of vibration. a) exciting the structural element to be investigated to vibrations with respect to axes of vibration in at least three independent spatial directions and capturing the vibration behaviour of the excited structural element, b) comparing the captured vibration behaviour to a reference behaviour of the correctly mounted structural element and determining whether a deviation that exceeds a determined limit value has occurred, and c1) repeatedly performing steps a) and b), wherein during the repeated performance of steps a) and b), an excitation of the structural element to be investigated to vibrations with respect to axes of vibration in at least three independent spatial directions that differ from the previous axes are performed, and identifying the excited axes of vibration having the minimum and/or maximum deviation from the reference behaviour, and localizing an assembly error on the basis of the identified axes of vibration, and/or c2) mathematically evaluating the captured vibration behaviour obtained in step a) with respect to a plurality of fictitious axes of vibration being different to the axes of vibration in step a), and identifying the fictitious axis of vibration having the minimum and/or maximum deviation from the reference behaviour, and localizing an assembly error on the basis of the identified fictitious axis of vibration.
A conduit for circulation of a gaseous fluid, in particular air, including, only over one portion of the conduit proximate to an opening of the conduit, an inner wall made of a solid material devoid of any lateral opening, and covered entirely or partially by an acoustically-absorbing covering, wherein said covering has a thickness comprised between 1 and 3 millimetres, and wherein the conduit is made of low-density polyethylene foam, with a porosity comprised between 0 and 30%. wherein said covering has a thickness comprised between 1 and 3 millimetres, and wherein the conduit is made of low-density polyethylene foam, with a porosity comprised between 0 and 30%.
A method for producing a high temperature bearing component, the method comprising: obtaining a powder mixture containing a superalloy powder admixed with hard wear particles; consolidating the powder mixture utilizing a Spark Plasma Sintering process during which the powder mixture is compressed into a sintered blank having a near net shape, while an electrical current is conducted through the powder mixture to heat the powder mixture to a sintering temperature; and machining the sintered blank to yield a final shape of the high temperature bearing component; characterized in that the SPS process is carried-out utilizing an SPS apparatus having an annular die cavity into which the powder mixture is loaded and an annular piece being conformally received in the annulus bound by the sidewall and the inner cylinder of the die for forming into the sintered blank; further characterized in that, when loaded into the annular die cavity of the SPS apparatus, the hard wear particles are evenly dispersed throughout the powder mixture and the powder mixture has a mean particle size between 5 and 15 microns; and further characterized in that the high temperature bearing component is a race (62 or 64) of a rolling element bearing. obtaining a powder mixture containing a superalloy powder admixed with hard wear particles; consolidating the powder mixture utilizing a Spark Plasma Sintering process during which the powder mixture is compressed into a sintered blank having a near net shape, while an electrical current is conducted through the powder mixture to heat the powder mixture to a sintering temperature; and machining the sintered blank to yield a final shape of the high temperature bearing component; characterized in that the SPS process is carried-out utilizing an SPS apparatus having an annular die cavity into which the powder mixture is loaded and an annular piece being conformally received in the annulus bound by the sidewall and the inner cylinder of the die for forming into the sintered blank; further characterized in that, when loaded into the annular die cavity of the SPS apparatus, the hard wear particles are evenly dispersed throughout the powder mixture and the powder mixture has a mean particle size between 5 and 15 microns; and further characterized in that the high temperature bearing component is a race (62 or 64) of a rolling element bearing.
A method for measuring channel state information in a wireless communication system according to the LTE standard, the method comprising: considering a first subframe to be a reference resource on a Secondary cell, in the following also referred to as SCell, for a channel state information, in the following also referred to as CSI, report, wherein the first subframe is a DL subframe on the SCell; and characterized by: selecting a second subframe as a reference resource if the first subframe is not a downlink, in the following also referred to as DL, subframe on a Primary Cell or not a special subframe whose downlink portion is with a length above a threshold on a Primary Cell, in the following also referred to as PCell. considering a first subframe to be a reference resource on a Secondary cell, in the following also referred to as SCell, for a channel state information, in the following also referred to as CSI, report, wherein the first subframe is a DL subframe on the SCell; and characterized by: selecting a second subframe as a reference resource if the first subframe is not a downlink, in the following also referred to as DL, subframe on a Primary Cell or not a special subframe whose downlink portion is with a length above a threshold on a Primary Cell, in the following also referred to as PCell.
A thrust reverser actuation system for a jet propulsion engine for a vehicle, the thrust reverser actuation system comprising: a plurality of hydraulically-driven thrust reverser actuators for actuating one or more thrust reverser components of the jet propulsion engine; characterised by each actuator comprising: a hydraulic circuit; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, wherein the hydraulic circuit and the pump are configured such that the direction of the pump dictates the direction of the actuation of the actuator. a plurality of hydraulically-driven thrust reverser actuators for actuating one or more thrust reverser components of the jet propulsion engine; characterised by each actuator comprising: a hydraulic circuit; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, a hydraulic circuit; and a bi-directional electrically-driven pump configured to pump hydraulic fluid through the hydraulic circuit, wherein the hydraulic circuit and the pump are configured such that the direction of the pump dictates the direction of the actuation of the actuator.
Use of a material for covering adhesive layers, wherein the material is an essentially sheetlike supporting material which on one side displays a multiplicity of elongate elements which protrude from the supporting material surface and the ends of the protruding elongate elements stretch out a contact sheet used to cover the adhesive layer.
A fluid delivery device, comprising: a disposable portion (20,Y) of a fluid delivery device, comprising: a collapsible reservoir; a base portion comprising: a reservoir cavity for holding the collapsible reservoir; a pumping assembly having a pumping chamber; a variable volume dispensing chamber; an inlet valve, an outlet valve and a fluid path connecting the reservoir to the pumping mechanism to the variable volume dispensing chamber; and an adhesive or pad for adhering to the skin of a patient; an infusion device; and a sensor; and a reusable top portion, comprising: a dispensing assembly;, a bridge for holding the infusion device and the sensor; a battery; and a main PCB; wherein the disposable base portion is mated to the resuable top portion with the reservoir sandwiched between the disposable base portion and resuable top portion in the reservoir cavity. a disposable portion (20,Y) of a fluid delivery device, comprising: a collapsible reservoir; a base portion comprising: a reservoir cavity for holding the collapsible reservoir; a pumping assembly having a pumping chamber; a variable volume dispensing chamber; an inlet valve, an outlet valve and a fluid path connecting the reservoir to the pumping mechanism to the variable volume dispensing chamber; and an adhesive or pad for adhering to the skin of a patient; an infusion device; and a sensor; and a collapsible reservoir; a base portion comprising: a reservoir cavity for holding the collapsible reservoir; a pumping assembly having a pumping chamber; a variable volume dispensing chamber; an inlet valve, an outlet valve and a fluid path connecting the reservoir to the pumping mechanism to the variable volume dispensing chamber; and an adhesive or pad for adhering to the skin of a patient; a reservoir cavity for holding the collapsible reservoir; a pumping assembly having a pumping chamber; a variable volume dispensing chamber; an inlet valve, an outlet valve and a fluid path connecting the reservoir to the pumping mechanism to the variable volume dispensing chamber; and an adhesive or pad for adhering to the skin of a patient; an infusion device; and a sensor; and a reusable top portion, comprising: a dispensing assembly;, a bridge for holding the infusion device and the sensor; a battery; and a main PCB; a dispensing assembly;, a bridge for holding the infusion device and the sensor; a battery; and a main PCB; wherein the disposable base portion is mated to the resuable top portion with the reservoir sandwiched between the disposable base portion and resuable top portion in the reservoir cavity.
A composite vessel assembly comprising: a circumferentially continuous first wall including a plurality of layers (78, 80); and a first end cap including a plurality of steps, wherein each step of the plurality of steps is engaged to a respective layer of the plurality of layers (78, 80); a plurality of inner walls (52, 54, 56) extending circumferentially about respective centerlines aligned side-by-side, wherein the first wall is one of the plurality of inner walls (52, 54, 56); a plurality of inner end caps (58, 60, 62) each associated with a respective one of the plurality of inner walls (52, 54, 56), wherein the first end cap is one of the plurality of inner end caps (58, 60, 62); characterized in that an outer wall extending about the plurality of inner walls (52, 54, 56), the outer wall including a plurality of layers; and an outer end cap disposed over the plurality of inner end caps (58, 60, 62), wherein the outer end cap includes a plurality of steps and each one of the plurality of layers of the outer wall is engaged to a respective step of the plurality of steps. a circumferentially continuous first wall including a plurality of layers (78, 80); and a first end cap including a plurality of steps, wherein each step of the plurality of steps is engaged to a respective layer of the plurality of layers (78, 80); a plurality of inner walls (52, 54, 56) extending circumferentially about respective centerlines aligned side-by-side, wherein the first wall is one of the plurality of inner walls (52, 54, 56); a plurality of inner end caps (58, 60, 62) each associated with a respective one of the plurality of inner walls (52, 54, 56), wherein the first end cap is one of the plurality of inner end caps (58, 60, 62); characterized in that an outer wall extending about the plurality of inner walls (52, 54, 56), the outer wall including a plurality of layers; and an outer end cap disposed over the plurality of inner end caps (58, 60, 62), wherein the outer end cap includes a plurality of steps and each one of the plurality of layers of the outer wall is engaged to a respective step of the plurality of steps.
An in vitro method for evaluating the response of patients affected by Ataxia Talangiectasia to treatment with a glucocordicoid of the same family of dexamethasone, comprising a step of qualitative and/or quantitative identification, in the blood of said patients, of the expression of a non canonical mRNA splicing variant of the ATM gene (Ataxia-Talangiectasia- Mutated gene), wherein the variant containsthe Phosphatidyl Inositol 3 Kinase domain, wherein said mRNA variant is amplified using at least one of the following 5'-3' forward 5'-3' reverse primer pairs: SEQ ID:NO1/SEQ ID:NO2; SEQ ID:NO3/SEQ ID:NO4, SEQ ID:NO6/SEQ ID:NO7, SEQ ID:NO9/SEQ ID:NO10; SEQ ID:NO12/SEQ ID:NO13 and wherein detectable expression values of said mRNA variant indicate positive response to treatment. SEQ ID:NO1/SEQ ID:NO2; SEQ ID:NO3/SEQ ID:NO4, SEQ ID:NO6/SEQ ID:NO7, SEQ ID:NO9/SEQ ID:NO10; SEQ ID:NO12/SEQ ID:NO13
A box for installing and wiring electrical devices and adapted to be embedded in a wall, comprising a box body constituted by a rear wall and by side walls that are joined to each other by means of a rounded wall and form a receptacle that is open toward the front part of said box; said box comprising a plurality of openings arranged along said walls and adapted to allow the insertion of ends of tubes adapted to accommodate conductors to be connected in said box; each of said openings being obstructed by a removable member that is associated with said box body by breakable members; said openings being arranged at an inclined region connecting said side walls and said rear wall; said box being characterized in that said removable member comprises a plate constituted by two half portions: a first half portion that is joined to a second half portion; said half portions being separated by a groove said groove forming an easily breakable region for separating the two half portions (12,13 from each other.
Housing of an air-conditioning or ventilation system having at least one outer wall and an interior, the at least one outer wall having at least one inspection glass for observing the interior, which is closed off by the at least one outer wall, wherein the inspection glass has: 1.1. a circumferential flange (4, 5) for securing the inspection glass in an opening in the wall, 1.2. precisely two panes for observing the interior from outside the interior, specifically an inner pane and an outer pane (2, 3), the inner pane being on the side of the inspection glass that is oriented towards the interior to be observed and the observation taking place from the outside to the inside into the interior to be observed, 1.3. a multiplicity of LEDs, arranged over the majority of the peripheral area of the inspection glass, having a main emission direction oriented directly into the interior, the LEDs being arranged between the inner and outer panes (2, 3), and 1.4. an integral or multipartite light cover, which is arranged behind the LEDs in such a way that the light emitted by the LEDs has no outwardly directed component, wherein 1.5. the light cover is positioned between the inner and outer panes (3, 2) and is in a form such that it comes up to the inner pane so that no light is radiated into the central interspace between the panes (2, 3) and a dazzle effect due to the illumination is avoided. 1.1. a circumferential flange (4, 5) for securing the inspection glass in an opening in the wall, 1.2. precisely two panes for observing the interior from outside the interior, specifically an inner pane and an outer pane (2, 3), the inner pane being on the side of the inspection glass that is oriented towards the interior to be observed and the observation taking place from the outside to the inside into the interior to be observed, 1.3. a multiplicity of LEDs, arranged over the majority of the peripheral area of the inspection glass, having a main emission direction oriented directly into the interior, the LEDs being arranged between the inner and outer panes (2, 3), and 1.4. an integral or multipartite light cover, which is arranged behind the LEDs in such a way that the light emitted by the LEDs has no outwardly directed component, wherein 1.5. the light cover is positioned between the inner and outer panes (3, 2) and is in a form such that it comes up to the inner pane so that no light is radiated into the central interspace between the panes (2, 3) and a dazzle effect due to the illumination is avoided.
A coaxial cable connector for connecting a coaxial cable, wherein the connector comprises a ferrule (402; 500, 510) arranged to receive, upon insertion of the coaxial cable, a centre conductor and a dielectric insulator of the coaxial cable in a cavity of the ferrule, and to guide a braiding and an outer insulating jacket to an outer surface of the ferrule such that at least one metal braid layer of the coaxial cable is configured in electrical contact with the ferrule; a fixing nut comprising an outer body and an inner body, wherein the side of the outer body facing the inner body is slanted such that when pushed against the inner body upon the insertion of the coaxial cable, the inner body is configured to bend inside and compress the outer insulating jacket of the coaxial cable; the ferrule comprising an elongated body, which, upon compression of the inner body of the fixing nut of the connector on the outer insulating jacket of the coaxial cable, is configured in the electrical contact with said at least one metal braid layer of the coaxial cable, wherein at least the body is plated with tin; and a base comprising an opening for insertion of the centre conductor of the coaxial cable through the elongated body, characterized in that the body and the base form a one-piece ferrule and the base is plated with nickel or nickel-tin such that said metal braid layer of the coaxial cable is arranged in electrical contact only with the tin plated body of the ferrule and avoids electrical contact with the nickel or nickel-tin plated base of the ferrule.
Cochlear implant of a cochlear implant system, consisting of electrodes that are mechanically connected to one another and usable, strung together in the form of a spiral, in a cochlea for stimulating receptors of the cochlear nerve, and of a control circuit that can apply electrical pulses to the individual electrodes in targeted fashion and an energy source, wherein, by way of the control circuit, the electrodes are energized in pulse-like fashion by electrical signals that are produced by a processor from the acoustic signals and receptors of the cochlear nerve adjacent to the electrodes are stimulated, characterized in that the electrodes are constituent parts of modules, which each comprise a dedicated decoding and control circuit for decoding module addresses and stimulation signals and for producing electrical pulses for the electrodes, wherein encoded module addresses and stimulation signals produced from acoustic signals are present at the inputs of the decoding and control circuit.
An infrared sensor comprising: an insulating film; a first heat sensitive element and a second heat sensitive element that are disposed on one surface of the insulating film so as to be separated apart from one another; a pair of first conductive wiring films and a pair of second conductive wiring films that are formed on one surface of the insulating film and are respectively connected to the first heat sensitive element and the second heat sensitive element; an infrared reflection film that is disposed on the other surface of the insulating film so as to face the second heat sensitive element; a plurality of terminal electrodes (7A, 7B) that are respectively connected to the pair of first conductive wiring films and the pair of second conductive wiring films, are formed on one end of the other surface of the insulating film, and are capable of being fitted into an external connector; an edge reinforcing plate that is adhered to one end of one surface of the insulating film; and a mounting hole that is formed on the other end of the insulating film, wherein each of the pairs of first and second conductive wiring films has a pair of adhesion electrodes (5A, 5B) formed on the insulating film on one end thereof, wherein the pair of adhesion electrodes corresponding to the pair of first conductive wiring films is arranged around the first heat sensitive element and is formed to have a larger area than that of the pair of adhesion electrodes corresponding to the pair of second conductive wiring films. an insulating film; a first heat sensitive element and a second heat sensitive element that are disposed on one surface of the insulating film so as to be separated apart from one another; a pair of first conductive wiring films and a pair of second conductive wiring films that are formed on one surface of the insulating film and are respectively connected to the first heat sensitive element and the second heat sensitive element; an infrared reflection film that is disposed on the other surface of the insulating film so as to face the second heat sensitive element; a plurality of terminal electrodes (7A, 7B) that are respectively connected to the pair of first conductive wiring films and the pair of second conductive wiring films, are formed on one end of the other surface of the insulating film, and are capable of being fitted into an external connector; an edge reinforcing plate that is adhered to one end of one surface of the insulating film; and a mounting hole that is formed on the other end of the insulating film, wherein each of the pairs of first and second conductive wiring films has a pair of adhesion electrodes (5A, 5B) formed on the insulating film on one end thereof, wherein the pair of adhesion electrodes corresponding to the pair of first conductive wiring films is arranged around the first heat sensitive element and is formed to have a larger area than that of the pair of adhesion electrodes corresponding to the pair of second conductive wiring films.