mhurhangee/ep-ind-claims huggingface dataset:
Device for anchoring in multi-layer soil, comprising a solid rod a first end of which receives attachment means and the opposite free end of which is intended to penetrate into the soil, wherein a positioning plate is mounted on the rod and is intended to rest on the surface of the soil, the rod bearing successively from the positioning plate to the free end at least one helical tension disc then a helical drilling disc, characterized in that the solid rod extends after the helical drilling disc opposite the positioning plate, and in that a drill bit is disposed at the free end of said rod, such that the first part of the rod extends from the positioning plate to the helical drilling disc, this first part being capable of being screwed into at least a first layer of soil, and such that a second part of the rod extends from the helical drilling disc to the drill bit, this second part being capable of being anchored in a second layer of soil.
A gas turbine engine comprising: a high pressure compressor including a last stage having a last stage compressor blade and a last stage vane; a turbine; a first flow path, wherein bleed air flows to the turbine through the first flow path; a second flow path, wherein air from the last stage of the high pressure compressor flows along the second flow path; and a heat exchanger, wherein the bleed air in the first flow path exchanges heat with the air in the second flow path to cool the air in the second flow path to cooled air, and the cooled air in the second path is returned to the high pressure compressor to cool a portion of the high pressure compressor; wherein the portion of the high pressure compressor includes a rear rim and a rear hub, an outermost portion of a compressor rotor includes the rear rim, and the rear hub is substantially conical and located near the rear rim, characterized in that the cooled air in the second flow path is directed to the rear rim of the high pressure compressor to mix with an uncooled rim ventilation flow so as to ventilate and cool the rear rim and the rear hub of the high pressure compressor. a high pressure compressor including a last stage having a last stage compressor blade and a last stage vane; a turbine; a first flow path, wherein bleed air flows to the turbine through the first flow path; a second flow path, wherein air from the last stage of the high pressure compressor flows along the second flow path; and a heat exchanger, wherein the bleed air in the first flow path exchanges heat with the air in the second flow path to cool the air in the second flow path to cooled air, and the cooled air in the second path is returned to the high pressure compressor to cool a portion of the high pressure compressor; wherein the portion of the high pressure compressor includes a rear rim and a rear hub, an outermost portion of a compressor rotor includes the rear rim, and the rear hub is substantially conical and located near the rear rim, characterized in that the cooled air in the second flow path is directed to the rear rim of the high pressure compressor to mix with an uncooled rim ventilation flow so as to ventilate and cool the rear rim and the rear hub of the high pressure compressor.
An apparatus for locating a spray head within a pipe, the apparatus comprising: a. A housing having pipe engagement portions for engagement with a pipe, the housing defining a housing cavity; and b. A body portion in slideable engagement with the housing, wherein the slidable engagement of the body portion with the housing is in a direction substantially perpendicular to an axis of the housing cavity, the body portion defining a cavity therein and having a spray head retention portion for receiving at least a portion of a spray head therein and retaining the spray head in position relative to the body portion, such that the cavity of the body portion can be slidably moved to become in alignment with the housing cavity and thereby the spray head located within the housing cavity. a. A housing having pipe engagement portions for engagement with a pipe, the housing defining a housing cavity; and b. A body portion in slideable engagement with the housing, wherein the slidable engagement of the body portion with the housing is in a direction substantially perpendicular to an axis of the housing cavity, the body portion defining a cavity therein and having a spray head retention portion for receiving at least a portion of a spray head therein and retaining the spray head in position relative to the body portion, such that the cavity of the body portion can be slidably moved to become in alignment with the housing cavity and thereby the spray head located within the housing cavity.
Expanded metal, comprising a sheet of expanded sheet metal having openings in the form of meshes which are formed substantially without any loss of material and which are defined by the mesh width and the mesh length and also the mesh shape, and having webs which surround the meshes and which are defined by the web width (Sb) and the web thickness (Sd), wherein multiple meshes are arranged one behind the other in courses and one next to the other in rows, characterized in that courses of first meshes (11.1) from courses of second meshes (11.2) differ from one another by the mesh width and/or the mesh length, so that the expanded metal sheet is provided with differently shaped openings and different mesh shapes.
A computer-implemented method for encoding an application memory that a program, executed on a computer, has access to, using a shadow memory corresponding to the application memory, the method comprising: - creating and initializing a primary shadow memory, each byte in the application memory being mapped to a corresponding byte in the primary shadow memory, characterised by - for each memory block in the application memory that the program allocates, encoding a corresponding primary shadow memory block, in the primary shadow memory, by: • comparing the length L of the memory block with a predetermined value T and, if L is smaller or equal to T, • for each byte p in the primary shadow memory block corresponding to a byte b in the application memory block, writing in Nb bits of the byte p, a first code value that encodes the length of the memory block and the offset of the byte b within the memory block. - creating and initializing a primary shadow memory, each byte in the application memory being mapped to a corresponding byte in the primary shadow memory, characterised by - for each memory block in the application memory that the program allocates, encoding a corresponding primary shadow memory block, in the primary shadow memory, by: • comparing the length L of the memory block with a predetermined value T and, if L is smaller or equal to T, • for each byte p in the primary shadow memory block corresponding to a byte b in the application memory block, writing in Nb bits of the byte p, a first code value that encodes the length of the memory block and the offset of the byte b within the memory block. • comparing the length L of the memory block with a predetermined value T and, if L is smaller or equal to T, • for each byte p in the primary shadow memory block corresponding to a byte b in the application memory block, writing in Nb bits of the byte p, a first code value that encodes the length of the memory block and the offset of the byte b within the memory block.
A method in a first service based interface, SBI, capable Internet Protocol Multimedia Subsystem, IMS, entity for providing information relating to a first Home Subscriber Service, HSS, instance, the method comprising: receiving a user identification in a message; transmitting a request to a network repository function, NRF, wherein the request comprises the user identification; receiving an indication of a first HSS group identification from the NRF; and transmitting the indication of the first HSS group identification to a second SBI capable IMS entity. receiving a user identification in a message; transmitting a request to a network repository function, NRF, wherein the request comprises the user identification; receiving an indication of a first HSS group identification from the NRF; and transmitting the indication of the first HSS group identification to a second SBI capable IMS entity.
An ion-exchange column assembly for removal of cesium from a stream of liquid waste, comprising: one or more integral, shielded ion-exchange columns, comprising: a shield base having a perimeter; a shield cap having a perimeter and positioned opposite the shield base; a shield wall extending longitudinally between the shield base and the shield cap, extending along the perimeter of each of the shield cap and the shield base, and forming an exterior surface; a shield cavity formed by the shield wall; a pressure vessel concentrically positioned within the shield cavity, comprising: a sorbent bed comprising an ion-exchange resin; and a head space positioned above the sorbent bed; an outlet pipe extending through the shield wall, through the head space, into the sorbent bed and along a vertical length thereof; an inlet pipe extending through the shield wall and into the head space; and an air gap formed by an annular space between an outer surface of the pressure vessel and an inner surface of the shield wall. one or more integral, shielded ion-exchange columns, comprising: a shield base having a perimeter; a shield cap having a perimeter and positioned opposite the shield base; a shield wall extending longitudinally between the shield base and the shield cap, a shield base having a perimeter; a shield cap having a perimeter and positioned opposite the shield base; a shield wall extending longitudinally between the shield base and the shield cap, extending along the perimeter of each of the shield cap and the shield base, and forming an exterior surface; a shield cavity formed by the shield wall; a pressure vessel concentrically positioned within the shield cavity, comprising: a sorbent bed comprising an ion-exchange resin; and a head space positioned above the sorbent bed; an outlet pipe extending through the shield wall, through the head space, into the sorbent bed and along a vertical length thereof; an inlet pipe extending through the shield wall and into the head space; and an air gap formed by an annular space between an outer surface of the pressure vessel and an inner surface of the shield wall. a shield cavity formed by the shield wall; a pressure vessel concentrically positioned within the shield cavity, comprising: a sorbent bed comprising an ion-exchange resin; and a head space positioned above the sorbent bed; an outlet pipe a head space positioned above the sorbent bed; an outlet pipe extending through the shield wall, through the head space, into the sorbent bed and along a vertical length thereof; an inlet pipe sorbent bed and along a vertical length thereof; an inlet pipe extending through the shield wall and into the head space; and an air gap formed by an annular space between an outer surface of the pressure vessel and an inner surface of the shield wall.
Polycrystalline silicon rod comprising an outer layer of polycrystalline silicon having a thickness of 0.01 to 20 mm, wherein said outer layer comprises crystallites having a mean size of more than 20 μm to not more than 80 μm.
Method of calibrating a measurement apparatus with atomic functioning, said apparatus comprising: - a cell filled with a measuring medium; - an optical beam subjecting the measuring medium to optical pumping; - three electromagnetic coils (6, 7, 8) making up three pairs of electromagnetic coils (6,7; 6,8; 7,8) and each generating a magnetic field axial to the cell, the axes of the coils having angles between them; the method being characterised in that it comprises the following steps: - successively injecting at least one current (i x, i y, i z) in each of the coils; - measuring the magnetic field generated by each of the coils; - determining a gain coefficient for each coil, which is a ratio between the magnetic field generated and the current injected; - simultaneous injection of currents in each pair of electromagnetic coils, in accordance with at least two different states of combination of said currents (i x i y; -i x i y; -i x -i y; i x -i y), said states respectively comprising two currents in one of the coils and at least one current in the other coil in the pair of electromagnetic coils; - measuring the magnetic fields generated by said combinations of currents, an ambient magnetic field being ignored, stopped by a shield or compensated for; - determining at least one of the angles (α, θ, γ) between the coils of each of the pairs of electromagnetic coils according to the magnetic fields measured, the gain coefficients and the currents injected. - a cell filled with a measuring medium; - an optical beam subjecting the measuring medium to optical pumping; - three electromagnetic coils (6, 7, 8) making up three pairs of electromagnetic coils (6,7; 6,8; 7,8) and each generating a magnetic field axial to the cell, the axes of the coils having angles between them; - successively injecting at least one current (i x, i y, i z) in each of the coils; - measuring the magnetic field generated by each of the coils; - determining a gain coefficient for each coil, which is a ratio between the magnetic field generated and the current injected; - simultaneous injection of currents in each pair of electromagnetic coils, in accordance with at least two different states of combination of said currents (i x i y; -i x i y; -i x -i y; i x -i y), said states respectively comprising two currents in one of the coils and at least one current in the other coil in the pair of electromagnetic coils; - measuring the magnetic fields generated by said combinations of currents, an ambient magnetic field being ignored, stopped by a shield or compensated for; - determining at least one of the angles (α, θ, γ) between the coils of each of the pairs of electromagnetic coils according to the magnetic fields measured, the gain coefficients and the currents injected.
A method of a control plane network entity in a mobile network scenario where an access of a terminal to a network is movable between at least two base stations and routable in parallel via at least one local gateway (LuGW1, LuGW2) and a centralized gateway, the method comprising detecting movement of said access of said terminal from a first base station to a second base station, determining that a first network route which is a current network route from said terminal via a first local gateway (LuGW1) which is a current local gateway of said at least one local gateway provides less network performance than a second network route from said terminal via a second local gateway (LuGW2) of said at least one local gateway based on a result of said detecting, deciding said second local gateway as a target local gateway for said terminal based on a result of said determining, and transmitting, if said second local gateway is decided as said target local gateway, information to said first local gateway, said information being indicative of a new preference value related to a session between said first local gateway and said terminal which is lower than a current preference value related to said session between said first local gateway and said terminal. detecting movement of said access of said terminal from a first base station to a second base station, determining that a first network route which is a current network route from said terminal via a first local gateway (LuGW1) which is a current local gateway of said at least one local gateway provides less network performance than a second network route from said terminal via a second local gateway (LuGW2) of said at least one local gateway based on a result of said detecting, deciding said second local gateway as a target local gateway for said terminal based on a result of said determining, and transmitting, if said second local gateway is decided as said target local gateway, information to said first local gateway, said information being indicative of a new preference value related to a session between said first local gateway and said terminal which is lower than a current preference value related to said session between said first local gateway and said terminal.
A method for preparing a spatial coded slide image in which a pattern of said spatial coded slide image is aligned along epipolar lines at an output of a projector in a system for 3D measurement of a shape of an object, having the projector and a camera in full-field structured light, comprising: obtaining a set of distortion vectors for projector coordinates of said projector, each said distortion vector representing a distortion from predicted coordinates caused by said projector; retrieving an ideal pattern image, wherein said ideal pattern image is an ideal image of the spatial coded pattern aligned on ideal epipolar lines; creating a real slide image by, for each real pixel coordinates of the real slide image, retrieving a current distortion vector from said set using said real pixel coordinates; removing distortion from said real pixel coordinates using the current distortion vector to obtain ideal pixel coordinates in the ideal pattern image; extracting a pixel value at the ideal pixel coordinates in the ideal pattern image; copying the pixel value at the real pixel coordinates in the real slide image. obtaining a set of distortion vectors for projector coordinates of said projector, each said distortion vector representing a distortion from predicted coordinates caused by said projector; retrieving an ideal pattern image, wherein said ideal pattern image is an ideal image of the spatial coded pattern aligned on ideal epipolar lines; creating a real slide image by, for each real pixel coordinates of the real slide image, retrieving a current distortion vector from said set using said real pixel coordinates; removing distortion from said real pixel coordinates using the current distortion vector to obtain ideal pixel coordinates in the ideal pattern image; extracting a pixel value at the ideal pixel coordinates in the ideal pattern image; copying the pixel value at the real pixel coordinates in the real slide image. retrieving a current distortion vector from said set using said real pixel coordinates; removing distortion from said real pixel coordinates using the current distortion vector to obtain ideal pixel coordinates in the ideal pattern image; extracting a pixel value at the ideal pixel coordinates in the ideal pattern image; copying the pixel value at the real pixel coordinates in the real slide image.
A projectile for use in a barrel with a plurality of stacked projectiles, including: a chamber containing a propellant charge for the projectile, an exit from the chamber for release of propulsion gases into the barrel when the propellant is ignited to fire the projectile, a seal blocking the exit which is opened by ignition of the propellant within the chamber but is resistant to ignition of other propellant in the barrel, characterized in that the seal is deformable between a closed condition and an open condition, wherein the seal is formed by a burst disc which is scored such that it ruptures in a predictable fashion, such that it leaves no significant debris in the barrel of the weapon. a chamber containing a propellant charge for the projectile, an exit from the chamber for release of propulsion gases into the barrel when the propellant is ignited to fire the projectile, a seal blocking the exit which is opened by ignition of the propellant within the chamber but is resistant to ignition of other propellant in the barrel, characterized in that the seal is deformable between a closed condition and an open condition, wherein the seal is formed by a burst disc which is scored such that it ruptures in a predictable fashion, such that it leaves no significant debris in the barrel of the weapon. a seal blocking the exit which is opened by ignition of the propellant within the chamber but is resistant to ignition of other propellant in the barrel,
A system of occupancy location determination for a building, comprising: a) at least one beacon located in a room or area serviced by a building automation system, BAS, the beacon having a transmitter configured to transmit a beacon signal having a beacon identifier, where the beacon signal is a first protocol signal; b1) a receiver suitable for being located in the building automation system, the receiver is configured to receive the beacon identifier and a user identifier in a message from a mobile computing device that is encoded in a second protocol signal; b2) the mobile computing device including a processor and a transmitter, wherein responsive to receiving the beacon signal, the processor in the mobile computing device is configured to cause the transmitter in the mobile computing device to communicate to the receiver the message that includes the mobile computing device identification and the beacon identifier encoded in the second protocol signal, where the beacon identifier is associated with an area within the BAS; c) a controller that is coupled to the receiver and that is suitable to be coupled to a database in the BAS, the controller is configured to identify the location of the beacon and a number of users in the location by accessing the database with the beacon identifier and the user identifier, and d) wherein the controller is configured to adjust at least one parameter associated with the BAS in response to the number of users in the location, where the at least one parameter includes a parameter associated with air conditioning. a) at least one beacon located in a room or area serviced by a building automation system, BAS, the beacon having a transmitter configured to transmit a beacon signal having a beacon identifier, where the beacon signal is a first protocol signal; b1) a receiver suitable for being located in the building automation system, the receiver is configured to receive the beacon identifier and a user identifier in a message from a mobile computing device that is encoded in a second protocol signal; b2) the mobile computing device including a processor and a transmitter, wherein responsive to receiving the beacon signal, the processor in the mobile computing device is configured to cause the transmitter in the mobile computing device to communicate to the receiver the message that includes the mobile computing device identification and the beacon identifier encoded in the second protocol signal, where the beacon identifier is associated with an area within the BAS; c) a controller that is coupled to the receiver and that is suitable to be coupled to a database in the BAS, the controller is configured to identify the location of the beacon and a number of users in the location by accessing the database with the beacon identifier and the user identifier, and d) wherein the controller is configured to adjust at least one parameter associated with the BAS in response to the number of users in the location, where the at least one parameter includes a parameter associated with air conditioning.
A process for preparing 2-chloro-3,3,3-trifluoropropene comprising reacting a at least one chlorine-containing compound selected from the compounds of formulae -: CX 3 -CHCl-CH 2 Cl wherein X each independently is Cl or F; CClY 2 -CCl=CH 2 wherein Y each independently is Cl or F; and and CZ 2 =CCl-CH 2 Cl, wherein Z each independently is Cl or F. with hydrogen fluoride while being heated in a gaseous state in the presence of 50 ppm or more of water relative to the total weight of the chlorine-containing compound; with the proviso that the reaction in the presence of 300 ppm or less of water is excluded. CX 3 -CHCl-CH 2 Cl wherein X each independently is Cl or F; CClY 2 -CCl=CH 2 wherein Y each independently is Cl or F; and and CZ 2 =CCl-CH 2 Cl, wherein Z each independently is Cl or F.