mhurhangee/ep-ind-claims huggingface dataset:
A solar thermal absorber element (100, 200, 300) comprising a cover glass (110, 210), a coated roll-bond absorber (120, 220), and a distance (h) between the cover glass and the roll-bond absorber, wherein the element further comprises a highly selective vacuum coated roll-bond absorber (120,220) comprising heat transport tubes, characterized in that a thermoplastic sealing attaches the cover glass and the roll-bond absorber to each other so that it is formed a hermetically sealed space, which is surrounded by the cover glass, the roll-bond absorber, and the thermoplastic sealing, and which is filled up with a low thermal conductive gas.
A computer implemented method for locating an indwelling medical device within a vasculature of a patient, the method comprising: identifying an endovascular ECG waveform complex from an endovascular ECG signal associated with the indwelling medical device; calculating an absolute value of the energy (E RR) of the endovascular ECG waveform complex of the endovascular ECG signal and the skin reference ECG signal over a predetermined segment thereof, using the equation E RR = Sum RR A 2 / # of Samples RR, wherein the square of the amplitudes of the complex at each discretely sampled portion of the complex between two R-peaks of the ECG waveform are summed together, then divided by the number of sampled portions of the complex; and determining a position of the medical device within the vasculature by observation of the absolute value of the energy of the predetermined segment of the endovascular ECG waveform complex. identifying an endovascular ECG waveform complex from an endovascular ECG signal associated with the indwelling medical device; calculating an absolute value of the energy (E RR) of the endovascular ECG waveform complex of the endovascular ECG signal and the skin reference ECG signal over a predetermined segment thereof, using the equation E RR = Sum RR A 2 / # of Samples RR, wherein the square of the amplitudes of the complex at each discretely sampled portion of the complex between two R-peaks of the ECG waveform are summed together, then divided by the number of sampled portions of the complex; and determining a position of the medical device within the vasculature by observation of the absolute value of the energy of the predetermined segment of the endovascular ECG waveform complex.
A high frequency module comprising: two integrated circuits (112, 113) mounted on a tuner board, each comprising an oscillator, one integrated circuit (112, 113) being a satellite tuner integrated circuit for processing a satellite broadcast signal, and the other integrated circuit (112, 113) being a terrestrial tuner integrated circuit for processing a terrestrial broadcast signal; a shield covering the integrated circuits (111, 113) mounted on the tuner board, the shield comprising either a metallic shield case or a conductive paste forming a conductive application film on a mold filling material, wherein the shield has two square or circular openings opposed to the arrangement positions of the two integrated circuits (112, 113) inside the shield, respectively, and each square or circular opening having an area being 25% or more than 25% of the area of the respective integrated circuit (112, 113), the center position of the two openings being the same as that of the respective integrated circuit (112, 113). two integrated circuits (112, 113) mounted on a tuner board, each comprising an oscillator, one integrated circuit (112, 113) being a satellite tuner integrated circuit for processing a satellite broadcast signal, and the other integrated circuit (112, 113) being a terrestrial tuner integrated circuit for processing a terrestrial broadcast signal; a shield covering the integrated circuits (111, 113) mounted on the tuner board, the shield comprising either a metallic shield case or a conductive paste forming a conductive application film on a mold filling material, wherein the shield has two square or circular openings opposed to the arrangement positions of the two integrated circuits (112, 113) inside the shield, respectively, and each square or circular opening having an area being 25% or more than 25% of the area of the respective integrated circuit (112, 113), the center position of the two openings being the same as that of the respective integrated circuit (112, 113).
A method for analysing loss-of-heterozygosity (LoH) in at least one sample comprising genomic DNA, the method comprising the steps of: a. providing the at least one sample comprising genomic DNA; b. carrying out a deterministic restriction-site whole genome amplification (DRS-WGA) of said genomic DNA; c. preparing a massively parallel sequencing library from the product of said DRS-WGA; d. carrying out low-pass whole genome sequencing at a mean coverage depth of < 1 on said massively parallel sequencing library; e. aligning the reads obtained in step d. on a reference genome for said at least one sample; f. extracting the allelic content at a plurality of loci, wherein said plurality of loci comprises polymorphic loci and/or heterozygous loci; g. assigning an LoH score to at least one genomic window of said reference genome for said at least one sample as a function of the number of loci with at least two different alleles in said plurality of loci. a. providing the at least one sample comprising genomic DNA; b. carrying out a deterministic restriction-site whole genome amplification (DRS-WGA) of said genomic DNA; c. preparing a massively parallel sequencing library from the product of said DRS-WGA; d. carrying out low-pass whole genome sequencing at a mean coverage depth of < 1 on said massively parallel sequencing library; e. aligning the reads obtained in step d. on a reference genome for said at least one sample; f. extracting the allelic content at a plurality of loci, wherein said plurality of loci comprises polymorphic loci and/or heterozygous loci; g. assigning an LoH score to at least one genomic window of said reference genome for said at least one sample as a function of the number of loci with at least two different alleles in said plurality of loci.
A method of managing a portable computing device, PCD, display and a PCD docking station display when a PCD is docked with a PCD docking station, the method comprising: connecting a PCD data driver to the PCD docking station display; transmitting a primary display signal to the PCD docking station display; displaying primary information at the PCD docking station display, wherein the primary information comprises application content, video content, album artwork, a contact list, a call history, a caller photo, a caller number, an email content, game content, or a combination thereof; transmitting a secondary display signal to the PCD display; and displaying secondary information at the PCD display, wherein the secondary information comprises one or more application commands, one or more video controls, one or more audio controls, a numeric keypad, an email list, one or more game controls, or a combination thereof. connecting a PCD data driver to the PCD docking station display; transmitting a primary display signal to the PCD docking station display; displaying primary information at the PCD docking station display, wherein the primary information comprises application content, video content, album artwork, a contact list, a call history, a caller photo, a caller number, an email content, game content, or a combination thereof; transmitting a secondary display signal to the PCD display; and displaying secondary information at the PCD display, wherein the secondary information comprises one or more application commands, one or more video controls, one or more audio controls, a numeric keypad, an email list, one or more game controls, or a combination thereof.
Filling valve of a filling device for filling products containing a liquid, comprising at least one valve tappet, which is arranged in a valve seat in an axially movable manner, wherein an axial portion is formed between the valve seat and valve tappet, in which the product flows to a second seal seat, which is formed at an outlet end of the filling valve, in which filling valve a first valve seat, connected to the axial portion, is arranged upstream of the second seal seat in the flow direction, said first seal seat comprising sealing elements (26, 27, 28) which interact with one another, wherein the first seal seat and second seal seat are arranged at the valve tappet in such a way that the first seal seat closes before the second seal seat during a closing movement of the valve tappet, wherein the first seal seat, after the closing, allows for a further axial movement of the valve tappet in the closing direction until the second seal seat is closed, characterised in that at least one of the sealing elements is elastic, and in the actuation direction allows for a deformation in the size of the further axial movement of the valve tappet.
An adhesive-free seal comprising a sealing portion (7, 17) and a retaining portion, both made of a resilient material, the retaining portion being formed on opposing sides thereof with a plurality of longitudinally extending ribs for engaging a side of a recess in which the seal is to be retained characterised in that the sealing portion is L-shaped and is connected to the retaining portion mid-way along a lateral arm of the sealing portion.
A shaped metal container (100; 200; 300; 900a; 900b; 900c), comprising work hardened rolled sheet-metal defining a sidewall, an opening, and a base, wherein the sidewall of the container comprises a container middle section having at least one middle section diameter (Dm), the container middle section being connected at one end to a container bottom section having at least one bottom section diameter (Db) and the container middle section being connected at the other end to a container top section having the opening and having at least one top section diameter (Dt), wherein at least one of the middle section diameter (Dm), the bottom section diameter (Db) and the top section diameter (Dt) is greater than a cylindrical diameter (Dc) of a preform with a cylindrical body used to make the shaped metal container, wherein at least one of the middle section diameter (Dm), the bottom section diameter (Db) and the top section diameter (Dt) is less than the cylindrical diameter (Dc) of the preform with the cylindrical body used to make the shaped metal container and at least one section along the sidewall having grains with an average aspect ratio less than about 4 to 1.
High- or medium-voltage electrical switchgear (A, B, C) of the gas-insulated type comprising a metal tank filled with a dielectric insulating gas, a metal casing arranged inside the tank and fastened at a single point to an insulating part also arranged inside the tank, at least one movable contact (51, 55) guided by the casing between an extreme open position in which it is fully received inside the casing, and a closed position against a stationary contact (58, 56), connection means for connecting the casing to the tank comprising a bar, the connection means being adapted to provide axial clearance longitudinally along the bar between at least a portion of the bar and the casing in order to compensate for thermal expansion that might occur between the tank and the insulating part and to minimize turning of the casing about its fastening point on the insulating part.
A method of registering for a service in a communications network between a user terminal and an application server, said method comprising the steps of: (i) receiving a subscription request for the service at the application server, said subscription request including a subscriber identity associated with the user terminal; (ii) initiating a configuration dialogue between the application server and the user terminal to configure an application on the user terminal, wherein the application server sends an identity number to the users terminal; (iii) storing at the user terminal the identity number and sending from the user terminal to the application server the identity number and a serial number associated with the user terminal; (iv) storing at the application server the serial number with the corresponding identity number sent by the user terminal; (v) sending a request for the service from the user terminal to the application using the configured application, said service request including the identity number and the serial number stored at the user terminal; (vi) comparing by the application server the identity number and serial number sent by the user terminal with the corresponding numbers stored at the application server, and if the number match, then providing the requested service to the user terminal. (i) receiving a subscription request for the service at the application server, said subscription request including a subscriber identity associated with the user terminal; (ii) initiating a configuration dialogue between the application server and the user terminal to configure an application on the user terminal, wherein the application server sends an identity number to the users terminal; (iii) storing at the user terminal the identity number and sending from the user terminal to the application server the identity number and a serial number associated with the user terminal; (iv) storing at the application server the serial number with the corresponding identity number sent by the user terminal; (v) sending a request for the service from the user terminal to the application using the configured application, said service request including the identity number and the serial number stored at the user terminal; (vi) comparing by the application server the identity number and serial number sent by the user terminal with the corresponding numbers stored at the application server, and if the number match, then providing the requested service to the user terminal.
Method of determining a measure of a density of markers in a sample, comprising the steps of: irradiating an illumination region of the sample with light, wherein the markers present in said illumination region of the sample emit fluorescence light in response to the irradiation of the sample with light, detecting an intensity of the fluorescence light from a detection region of the sample, comprising at least a part of said illumination region, irradiating an area within said detection region of the sample with a focused charged particle beam to deposit a dose of charged particles in said area, and determining a measure of the density of markers in said area using a change of the detected intensity of the fluorescence light as a function of the deposited dose of charged particles in said area. irradiating an illumination region of the sample with light, wherein the markers present in said illumination region of the sample emit fluorescence light in response to the irradiation of the sample with light, detecting an intensity of the fluorescence light from a detection region of the sample, comprising at least a part of said illumination region, irradiating an area within said detection region of the sample with a focused charged particle beam to deposit a dose of charged particles in said area, and determining a measure of the density of markers in said area using a change of the detected intensity of the fluorescence light as a function of the deposited dose of charged particles in said area.
A combustion chamber comprising an upstream end wall structure, an inner annular wall structure, an outer annular wall structure spaced radially from the inner annular wall structure, the upstream end wall structure comprising an upstream wall and a plurality of heat shields secured to and spaced axially from the upstream wall, the inner annular wall structure being secured to the upstream wall, the outer annular wall structure being secured to the upstream wall, the upstream wall having a plurality of circumferentially spaced fuel injector apertures, the heat shields being arranged circumferentially around the combustion chamber, each heat shield having a radially outer end, a radially inner end and a fuel injector aperture aligned with a corresponding one of the fuel injector apertures in the upstream end wall, the radially outer end of each heat shield having an outer rail spacing the heat shield from the upstream end wall, the radially inner end of each heat shield having an inner rail spacing the heat shield from the upstream end wall, a remote end of the outer rail of each heat shield having a surface abutting the upstream wall, a remote end of the inner rail of each heat shield having a surface abutting the upstream wall, characterised in that the radially outer end of each heat shield having a first plurality of circumferentially spaced apertures extending there-through and through the associated outer rail to direct coolant over the surface of the outer annular wall structure to form a film of coolant, the first plurality of circumferentially spaced apertures of each heat shield extending through the associated outer rail from respective inlets in the surface abutting the upstream wall to respective outlets in a surface of the heat shield facing away from the upstream wall, the radially inner end of each heat shield having a second plurality of circumferentially spaced apertures extending there-through and through the associated inner rail to direct coolant over the surface of the inner annular wall structure to form a film of coolant, the second plurality of circumferentially spaced apertures of each heat shield extending through the associated inner rail from respective inlets in the surface abutting the upstream wall to respective outlets in the surface of the heat shield facing away from the upstream wall.
A fibre optic sensing device comprising a plurality of optical fibre portions (112, 114, 116, 118), wherein each optical fibre portion (112, 114, 116, 118) is arranged to receive laser light from a common laser and reflect the laser light to a common detector, wherein each optical fibre portion (112, 114, 116, 118) comprises a first reflector spaced from a distal end (112b, 114b, 116b, 118b) of the optical fibre portion (112, 114, 116, 118) and a second reflector at the distal end (112b, 114b, 116b, 118b), wherein each optical fibre portion (112, 114, 116, 118) comprises a sensor provided at the respective distal end (112b, 114b, 116b, 118b) of the optical fibre portion (112, 114, 116, 118), the sensor comprising a third reflector, wherein a distance between the first and second reflectors (130, 132) is different for each of the optical fibre portions (112, 114, 116, 118) and wherein the sensor is configured such that a physical property between the second and third reflectors (132, 142) varies depending on a parameter being sensed.
A splitter apparatus for a gas turbine engine, comprising: a splitter including an annular outer wall which defines a convex-curved leading edge at a forward end thereof; an annular floorplate positioned radially inboard of the outer wall; an annular first bulkhead spanning between the outer wall and the floorplate, wherein the outer wall, the floorplate, and the first bulkhead collectively define an annular splitter plenum positioned adjacent the leading edge of the outer wall, and wherein at least one exhaust passage formed in the outer wall extends past the floorplate and communicates with the exterior of the splitter, the or each exhaust passage configured to pass air flow from the splitter plenum to the exterior of the splitter; and at least one jumper tube assembly passing through the first bulkhead, the or each jumper tube assembly configured to pass air flow from the exterior of the splitter into the splitter plenum; and an annular outer band disposed radially inboard of the floorplate, and an annular, resilient seal disposed between the floorplate and the outer band. a splitter including an annular outer wall which defines a convex-curved leading edge at a forward end thereof; an annular floorplate positioned radially inboard of the outer wall; an annular first bulkhead spanning between the outer wall and the floorplate, wherein the outer wall, the floorplate, and the first bulkhead collectively define an annular splitter plenum positioned adjacent the leading edge of the outer wall, and wherein at least one exhaust passage formed in the outer wall extends past the floorplate and communicates with the exterior of the splitter, the or each exhaust passage configured to pass air flow from the splitter plenum to the exterior of the splitter; and at least one jumper tube assembly passing through the first bulkhead, the or each jumper tube assembly configured to pass air flow from the exterior of the splitter into the splitter plenum; and an annular outer band disposed radially inboard of the floorplate, and an annular, resilient seal disposed between the floorplate and the outer band.
An air conditioning system including: an air conditioner which includes a refrigerant circuit configured to dominantly process an indoor sensible heat load; and a demand control device which is configured to control an evaporation temperature of the refrigerant circuit composing the air conditioner according to a set level of a plurality of demand control levels; characterized in that the air conditioning system further comprises a humidity controller which includes an adsorption member ( 32, 33) configured to dominantly process a latent heat load, wherein the demand control device is further configured to control a total amount of working power of a plurality of air conditioning loads, and during demand control, the demand control device is configured to control the humidity controller on the basis of a set target temperature or an indoor temperature so as to attain a predetermined relative humidity. an air conditioner which includes a refrigerant circuit configured to dominantly process an indoor sensible heat load; and a demand control device which is configured to control an evaporation temperature of the refrigerant circuit composing the air conditioner according to a set level of a plurality of demand control levels; characterized in that the air conditioning system further comprises a humidity controller which includes an adsorption member ( 32, 33) configured to dominantly process a latent heat load, wherein the demand control device is further configured to control a total amount of working power of a plurality of air conditioning loads, and during demand control, the demand control device is configured to control the humidity controller on the basis of a set target temperature or an indoor temperature so as to attain a predetermined relative humidity.
Upper garment manufactured from a fabric of which the stiffness may impede the freedom of movement of the wearer, such as for example the fabric of a nurse uniform, and comprises a front piece, a back piece, two sleeve bases and an inner lining, wherein the front piece and the back piece are connected to each other by seam lines in longitudinal direction and the front piece is connected on each side to a sleeve base by seam lines and the back piece is separate from the sleeve base, wherein the inner lining extends itself in the back piece substantially continuous over the entire width between the sleeve bases and is connected to the sleeve bases by seam lines and is to a greater extent stretchable in comparison with the fabric of which the upper garment is manufactured, and wherein the inner lining stretches itself in the back piece substantially over the entire surface between the sleeve bases and up to the seam lines at the top of the upper garment and in that the inner lining comprises a knitted or woven fabric which is stretchable both in the width and in the height direction of the upper garment, characterised in that the inner lining comprises a first part and a second part, wherein the first part is dimensioned such that it is not visible when the upper garment is worn and wherein the second part is at least partially visible when the upper garment is worn.