mhurhangee/ep-ind-claims huggingface dataset:
Assembly for building into a wall, especially a prefabricated wall, comprising: a mounting box comprising at least one tubular part with a front end and an open back end, the front end being closed with a removable cover, at least one insert part mounted in the mounting box and supporting at least one functional module, at least one cable connected to the at least one functional module, a closing part that is attached against the open back end of the at least one tubular part, such that the mounting box encloses the at least one functional module, whereby the at least one functional module is connected with the at least one cable via the open back end of the at least one tubular part when the closing part is removed from the open back end, and is attached in the mounting box such that it is usable for an end user via the front end, when the removable cover is removed, and comprising one or more conduits receiving the at least one cable or for a pull wire, characterized in that the at least one tubular part and the closing part are tightly enclosing the one or more conduits. a mounting box comprising at least one tubular part with a front end and an open back end, the front end being closed with a removable cover, at least one insert part mounted in the mounting box and supporting at least one functional module, at least one cable connected to the at least one functional module, a closing part that is attached against the open back end of the at least one tubular part, such that the mounting box encloses the at least one functional module, whereby the at least one functional module is connected with the at least one cable via the open back end of the at least one tubular part when the closing part is removed from the open back end, and is attached in the mounting box such that it is usable for an end user via the front end, when the removable cover is removed, and comprising one or more conduits receiving the at least one cable or for a pull wire, characterized in that the at least one tubular part and the closing part are tightly enclosing the one or more conduits.
A first wireless communication device (104, 350, 902, 902'), comprising: a memory (360, 376, 1006, 1306); and at least one processor (356, 356, 359, 368, 1004, 1304) coupled to the memory and configured to: select a recommendation for a time-frequency resource to transmit a phase tracking reference signal, PT-RS, based on a condition of a communication system; transmit at least one of information or a reference signal to a second wireless communication device to assist the second wireless communication device in determining the resource; and receive a transmission from the second wireless communication device indicating a resource for a PT-RS transmission. a memory (360, 376, 1006, 1306); and at least one processor (356, 356, 359, 368, 1004, 1304) coupled to the memory and configured to: select a recommendation for a time-frequency resource to transmit a phase tracking reference signal, PT-RS, based on a condition of a communication system; transmit at least one of information or a reference signal to a second wireless communication device to assist the second wireless communication device in determining the resource; and receive a transmission from the second wireless communication device indicating a resource for a PT-RS transmission. select a recommendation for a time-frequency resource to transmit a phase tracking reference signal, PT-RS, based on a condition of a communication system; transmit at least one of information or a reference signal to a second wireless communication device to assist the second wireless communication device in determining the resource; and receive a transmission from the second wireless communication device indicating a resource for a PT-RS transmission.
A method for distinguishing an astrocytic human brain tumor from a non-astrocytic human brain tumor, comprising the steps of: staining with SR101 tumor tissue from a subject suspected of having a brain tumor; and visualizing said tissue stained with SR101 with a fluorescence imaging device to confirm an astrocytic or non-astrocytic tumor type, wherein said tumor tissue from a subject is stained ex vivo. staining with SR101 tumor tissue from a subject suspected of having a brain tumor; and visualizing said tissue stained with SR101 with a fluorescence imaging device to confirm an astrocytic or non-astrocytic tumor type, wherein said tumor tissue from a subject is stained ex vivo.
Method for generating and visualizing a profile of an ion beam, the method comprising following steps: - Specifying an incidence direction of a particle beam on images created from an image data set of an object which is to be irradiated, - Specifying a target region that is to be irradiated by said particle beam on the images created from an image data set of an object which is to be irradiated, - Creating an ion beam profile (45, 59, 59', 59") from points that lie on an outline of said target region and that are located on a downstream side of said target region and from points that are located in front of said target region and project onto the contour of said target region with respect to said incidence direction, - Displaying a graphical representation of said ion beam profile (45, 59, 59', 59"), wherein the step of creating an ion beam profile (45, 59, 59', 59") comprises: moving a virtual plane orthogonal to said incidence direction through said target region, thereby collecting contours of intersection of said virtual plane with said target region and creating said ion beam profile using said contours. - Specifying an incidence direction of a particle beam on images created from an image data set of an object which is to be irradiated, - Specifying a target region that is to be irradiated by said particle beam on the images created from an image data set of an object which is to be irradiated, - Creating an ion beam profile (45, 59, 59', 59") from points that lie on an outline of said target region and that are located on a downstream side of said target region and from points that are located in front of said target region and project onto the contour of said target region with respect to said incidence direction, - Displaying a graphical representation of said ion beam profile (45, 59, 59', 59"), moving a virtual plane orthogonal to said incidence direction through said target region, thereby collecting contours of intersection of said virtual plane with said target region and creating said ion beam profile using said contours.
Endoscope with an endoscope cable, which has an endoscope plug, and with a sealing component for the endoscope plug, wherein a plug attachment end to be sealed is arranged at the end of the endoscope plug, wherein the sealing component has the following: a body with a blind-hole-like endoscope plug insertion opening into which the plug attachment end of the endoscope plug is sealingly insertable, and a fastening portion for fastening on the endoscope cable, characterized in that the fastening portion is either - a through-opening in the body, through which through-opening the endoscope cable can be guided, or - a projection on the body, on which projection the endoscope cable can be plugged. a body with a blind-hole-like endoscope plug insertion opening into which the plug attachment end of the endoscope plug is sealingly insertable, and a fastening portion for fastening on the endoscope cable, characterized in that the fastening portion is either - a through-opening in the body, through which through-opening the endoscope cable can be guided, or - a projection on the body, on which projection the endoscope cable can be plugged. - a through-opening in the body, through which through-opening the endoscope cable can be guided, or - a projection on the body, on which projection the endoscope cable can be plugged.
A recording apparatus comprising: a transport belt for transporting a medium; a pressing roller configured to press the medium against the transport belt; and a support unit capable of supporting the transport belt, wherein the transport belt and the support unit make contact with each other when the pressing roller is pressed against the medium, characterised in that the transport belt and the support unit are distanced from each other when the pressing roller is distanced from the medium. a transport belt for transporting a medium; a pressing roller configured to press the medium against the transport belt; and a support unit capable of supporting the transport belt, wherein the transport belt and the support unit make contact with each other when the pressing roller is pressed against the medium, characterised in that the transport belt and the support unit are distanced from each other when the pressing roller is distanced from the medium.
A method for enhancing performance for a wireless communication environment using beamformed transmission to communicate to the user devices, comprising: generating a first pilot; transmitting the first pilot to a plurality of user devices, wherein the first pilot is a common pilot and is transmitted on every antenna of a sector; receiving at least one channel quality indicator from each of the plurality of user devices, wherein each channel quality indicator is based at least in part upon the first pilot; scheduling each of the plurality of user devices based at least in part upon the at least one channel quality indicator using at least one of spatial division multiplexing, multiple input multiple output and opportunistic beamforming scheduling techniques. generating a first pilot; transmitting the first pilot to a plurality of user devices, wherein the first pilot is a common pilot and is transmitted on every antenna of a sector; receiving at least one channel quality indicator from each of the plurality of user devices, wherein each channel quality indicator is based at least in part upon the first pilot; scheduling each of the plurality of user devices based at least in part upon the at least one channel quality indicator using at least one of spatial division multiplexing, multiple input multiple output and opportunistic beamforming scheduling techniques.
A method of authentication of a first electronic entity by a second electronic entity, characterised by the following steps implemented by the first electronic entity: - reception of a challenge originating from the second electronic entity; - generation of a number as a function of a current value of a counter and of a first secret key (K-ENC); - generation of a session key as a function of a cryptographic key (K-ENC), of the challenge and of said number; - generation of a cryptogram as a function of the challenge and of a second secret key (S-MAC); - transmission to the second electronic entity of a response including the cryptogram without transmission of said number, wherein the step of generation of the cryptogram uses said number. - reception of a challenge originating from the second electronic entity; - generation of a number as a function of a current value of a counter and of a first secret key (K-ENC); - generation of a session key as a function of a cryptographic key (K-ENC), of the challenge and of said number; - generation of a cryptogram as a function of the challenge and of a second secret key (S-MAC); - transmission to the second electronic entity of a response including the cryptogram without transmission of said number,
A medical viewing system for generating an angulated view of an object of interest including an intravascular device comprising - an X-ray image acquisition device with a source of radiation and an X-ray image detection module; - a data processing unit and - an output device; wherein the data processing unit is adapted for retrieving a three-dimensional image data set of the object of interest, generating a first two-dimensional projection of the three-dimensional image data set corresponding to a first viewing direction and for registering and overlaying live X-ray images obtained from the same first viewing direction and including the intravascular device onto the first two-dimensional projection constituting a first view; wherein the data processing unit is adapted for generating a second two-dimensional projection of the three-dimensional image data set correpsonding to a second viewing direction constituting a angulated view; wherein a first viewing direction vector and a second viewing direction vector enclose an offset angle α; wherein the output device is adapted for outputting a combination of the first view and the angulated view with the same scale in a side by side manner. - an X-ray image acquisition device with a source of radiation and an X-ray image detection module; - a data processing unit and - an output device;
A method for preparing genomic DNA (gDNA) samples for the detection of a single nucleotide polymorphism, the method comprising: providing a sample of buccal epithelial cells from a subject, the buccal epithelial cells adhered to a substrate; agitating, for no more than about 45 seconds, the substrate with the adhered epithelial cells in a first lysis solution capable of lysing buccal cells adhered to the substrate; removing the substrate from the first lysis solution upon completion of the agitating the substrate in the first lysis solution; extracting gDNA from the first lysis solution after removing the substrate from the first lysis solution to prepare a first gDNA sample; agitating the substrate, after removing the substrate from the first lysis solution, in a second lysis solution capable of lysing buccal cells adhered to the substrate; removing the substrate from the second lysis solution; and extracting second gDNA from the second lysis solution after removing the substrate from the second lysis solution to prepare a second gDNA sample. providing a sample of buccal epithelial cells from a subject, the buccal epithelial cells adhered to a substrate; agitating, for no more than about 45 seconds, the substrate with the adhered epithelial cells in a first lysis solution capable of lysing buccal cells adhered to the substrate; removing the substrate from the first lysis solution upon completion of the agitating the substrate in the first lysis solution; extracting gDNA from the first lysis solution after removing the substrate from the first lysis solution to prepare a first gDNA sample; agitating the substrate, after removing the substrate from the first lysis solution, in a second lysis solution capable of lysing buccal cells adhered to the substrate; removing the substrate from the second lysis solution; and extracting second gDNA from the second lysis solution after removing the substrate from the second lysis solution to prepare a second gDNA sample.
A traction fluid comprising at least one of: or a mixture thereof in an amount between 0.1 wt % and 50 wt % of a final formulation of the traction fluid; and further comprising a traction fluid base stock in an amount between 30 wt % and 99.78 wt % of the final formulation selected from a group comprising HAD (hydrogenated alpha dimethyl styrene), isoHAD and blends thereof.
A pigment composition comprising an inorganic particulate material, a multivalent metal salt and a non ionic dispersant, wherein the inorganic particulate material is selected from one or more of: alkaline earth metal carbonate or alkaline earth metal sulphate, dolomite, gypsum, a hydrous kandite clay, an anhydrous (calcined) kandite clay, talc or mica and wherein the non ionic dispersant is a polymer.
Commercial vehicle axle comprising a disc brake, which commercial vehicle axle comprises a wheel carrier for arranging the disc brake on the commercial vehicle axle, and the disc brake comprising a brake caliper, which has a first bolt guide arranged in the direction of a brake disc and a second bolt guide arranged in the direction of the brake disc, the brake caliper being arranged on the wheel carrier via the first bolt guide and via the second bolt guide, characterized in that the wheel carrier has a first guide bolt (8, 8b) for receiving the first bolt guide, and in that the wheel carrier has a second guide bolt (8a, 8c) for receiving the second bolt guide.
Comminuting device configured to carry out a comminution process with a comminuting rotor that is supported on a machine frame and comprises a plurality of comminuting tools on its circumference, wherein the comminuting rotor is disposed in a comminution chamber receiving comminution material and is configured to comminute the material present in the comminution chamber, further comprising a coolant system configured to introduce into the comminution chamber a liquid coolant containing at least 80% water, and comprising a control device for controlling the coolant system for setting a coolant introduction rate into the comminution chamber, wherein the control device is configured and designed to adjust an introduction rate of the liquid, water-based coolant into the comminution process to an operating parameter of the device, which is dependent on the throughput of the comminution material, in such a way that more than 60% of the cooling capacity introduced into the comminution material is provided by the latent heat of the liquid, water-based coolant, characterized in that the comminuting device comprises at least a moisture sensor for sensing a degree of moisture of the comminuted material, wherein the control device is designed to control to a predetermined desired degree of moisture or a predetermined desired moisture range of the comminuted material with a control variable (v(t)) that determines the introduction rate of the coolant.
A compound having the structure selected from the group consisting of: and pharmaceutically acceptable salts thereof; or a compound having the structure selected from the group consisting of: and pharmaceutically acceptable salts thereof.
A method performed in a transmitting node for transmitting at least one burst of energy to one or more receiving nodes (10,13) in a wireless communication network, wherein the transmitting node comprises a number of transmit antennas being more than one and wherein the at least one burst of energy carries a payload for one or more receiving nodes (10,13), the method comprising - determining a shift, for one or more transmit antennas, in one or more signal characteristics of a burst of energy of the at least one burst of energy, which shift indicates one or more additional information bits, in addition to the payload; - mapping the one or more additional information bits to a code matrix by means of a diversity code, the code matrix comprises a number of rows that is equal to the number of transmit antennas of the transmitting node and a number of columns, and - applying, respectively for each transmit antenna out of the number of transmit antennas, the determined shift in one or more signal characteristics of the burst of energy, for carrying the one or more additional information bits, according to an entry of a column in the matrix, wherein each entry in the column is a complex number with one or more signal characteristics; and - transmitting (305,802), over the one or more transmit antennas, entries in one column of the code matrix with every burst of energy of the at least one burst of energy with the shift in the one or more signal characteristics, and carrying the payload to one or more receiving nodes (10,13) in the wireless communication network. - determining a shift, for one or more transmit antennas, in one or more signal characteristics of a burst of energy of the at least one burst of energy, which shift indicates one or more additional information bits, in addition to the payload; - mapping the one or more additional information bits to a code matrix by means of a diversity code, the code matrix comprises a number of rows that is equal to the number of transmit antennas of the transmitting node and a number of columns, and - applying, respectively for each transmit antenna out of the number of transmit antennas, the determined shift in one or more signal characteristics of the burst of energy, for carrying the one or more additional information bits, according to an entry of a column in the matrix, wherein each entry in the column is a complex number with one or more signal characteristics; and - transmitting (305,802), over the one or more transmit antennas, entries in one column of the code matrix with every burst of energy of the at least one burst of energy with the shift in the one or more signal characteristics, and carrying the payload to one or more receiving nodes (10,13) in the wireless communication network.
A refrigeration apparatus, comprising: a refrigerant circuit constituted by a compressor (1,2), a condenser (13,22), a decompressor (16,28), and an evaporator (3,19) connected in this order in a loop, wherein, as a refrigerant in the refrigerant circuit, a refrigerant composite material that contains a first refrigerant of an ultralow temperature range refrigerant having a boiling point of not less than -89.0°C and not more than -78.1°C, carbon dioxide, and a second refrigerant that is soluble in the carbon dioxide at a temperature lower than a boiling point of the carbon dioxide is used, refrigeration performance of not more than -80°C is achieved by causing the first refrigerant to evaporate in the evaporator (3,19), and as the second refrigerant dissolves the carbon dioxide, the carbon dioxide is retained in a liquid phase or in a gas phase or the solidified carbon dioxide is melted in a suction pipe through which the refrigerant that returns from the evaporator (3,19) to the compressor (1,2) passes. a refrigerant circuit constituted by a compressor (1,2), a condenser (13,22), a decompressor (16,28), and an evaporator (3,19) connected in this order in a loop, wherein, as a refrigerant in the refrigerant circuit, a refrigerant composite material that contains a first refrigerant of an ultralow temperature range refrigerant having a boiling point of not less than -89.0°C and not more than -78.1°C, carbon dioxide, and a second refrigerant that is soluble in the carbon dioxide at a temperature lower than a boiling point of the carbon dioxide is used, refrigeration performance of not more than -80°C is achieved by causing the first refrigerant to evaporate in the evaporator (3,19), and as the second refrigerant dissolves the carbon dioxide, the carbon dioxide is retained in a liquid phase or in a gas phase or the solidified carbon dioxide is melted in a suction pipe through which the refrigerant that returns from the evaporator (3,19) to the compressor (1,2) passes.