mhurhangee/ep-ind-claims huggingface dataset:
Refrigerated display cabinet comprising: - an isolated body; - a structure to support containers that contain the preserved food, the structure being contained within the insulated body; - an evaporator contained in the insulated body, placed next to the containers and designed to operate by natural convection, where the secondary refrigerant fluid is air; - a motor-compressor and a condensing unit contained in a non-insulated portion of the insulated body and which use primary refrigerating means, such as R290; - an upper transparent structure, typically made of glass, placed above the insulated body and equipped with a locking system to allow accessing the food to be served or closing the refrigerated compartment when it is not used; - a deflector for air placed adjacent to the evaporator and between the evaporator and the containers; - a main containment barrier, preferably transparent and on a perimeter, placed around three sides of the containers; and - a secondary barrier, consisting of the upper transparent structure which is not heated, and is designed to create a gap with the main containment barrier, characterized in that it also comprises at least one heating element designed to heat the gap between the secondary barrier and the main containment barrier in order to prevent fogging of the upper transparent structure. - an isolated body; - a structure to support containers that contain the preserved food, the structure being contained within the insulated body; - an evaporator contained in the insulated body, placed next to the containers and designed to operate by natural convection, where the secondary refrigerant fluid is air; - a motor-compressor and a condensing unit contained in a non-insulated portion of the insulated body and which use primary refrigerating means, such as R290; - an upper transparent structure, typically made of glass, placed above the insulated body and equipped with a locking system to allow accessing the food to be served or closing the refrigerated compartment when it is not used; - a deflector for air placed adjacent to the evaporator and between the evaporator and the containers; - a main containment barrier, preferably transparent and on a perimeter, placed around three sides of the containers; and - a secondary barrier, consisting of the upper transparent structure which is not heated, and is designed to create a gap with the main containment barrier,
Lighting system for lighting scenarios, comprising a first light source, at least one light permeable optical means mounted to rotate about an axis, and a device with sets the optical means in rotation, wherein the lighting system has at least one second light source which emits a light spectrum which differs from the first light source, wherein the at least two light sources are controllable separately from one another, characterized in that the optical means is configured as a hollow-cylindrical structure, and that refractive structures are arranged in the form of recesses and/or protuberances on the outer surface of the hollow-cylindrical structure.
A method for reconstructing data, comprising: acquiring an auto-correlation function R p of a root raised cosine filter coefficient and performing channel estimation and obtaining a fading factor of each antenna by using a pilot; constructing an L-dimension matrix R pp of the auto-correlation function according to the antenna, where L is the number of valid paths found by the single antenna; wherein the R pp is a coefficient matrix formed by all R p S, and the R pp is as follows: R pp = R p τ 0 − τ 0 R p τ 0 − τ 1 ⋯ R p τ 0 − τ L − 1 R p τ 1 − τ 0 R p τ 1 − τ 1 ⋯ R p τ 1 − τ L − 1 ⋮ ⋮ ⋱ ⋮ R p τ L − 1 − τ 0 R p τ L − 1 − τ 1 ⋯ R p τ L − 1 − τ L − 1 processing the L-dimension matrix of the auto-correlation function and a result of superposing the fading factor of each antenna to obtain an estimate value of an actual fading factor of the each antenna; wherein processing the L-dimension matrix of the auto-correlation function and a result of superposing the fading factor of each antenna to obtain an estimate value of an actual fading factor of the each antenna comprises: obtaining the actual fading factor h j by substituting h' l and R pp − 1 in the formula h j = ∑ l = 0 L − 1 h l ′ R pp − 1 j l; wherein the h' l is a fading factor obtained by estimation and the R pp − 1 is an inverse matrix of the R pp; and reconstructing received data according to the estimate value of the actual fading factor h j to obtain reconstructed data used for cancellation. acquiring an auto-correlation function R p of a root raised cosine filter coefficient and performing channel estimation and obtaining a fading factor of each antenna by using a pilot; constructing an L-dimension matrix R pp of the auto-correlation function according to the antenna, where L is the number of valid paths found by the single antenna; wherein the R pp is a coefficient matrix formed by all R p S, and the R pp is as follows: R pp = R p τ 0 − τ 0 R p τ 0 − τ 1 ⋯ R p τ 0 − τ L − 1 R p τ 1 − τ 0 R p τ 1 − τ 1 ⋯ R p τ 1 − τ L − 1 ⋮ ⋮ ⋱ ⋮ R p τ L − 1 − τ 0 R p τ L − 1 − τ 1 ⋯ R p τ L − 1 − τ L − 1 processing the L-dimension matrix of the auto-correlation function and a result of superposing the fading factor of each antenna to obtain an estimate value of an actual fading factor of the each antenna; wherein processing the L-dimension matrix of the auto-correlation function and a result of superposing the fading factor of each antenna to obtain an estimate value of an actual fading factor of the each antenna comprises: obtaining the actual fading factor h j by substituting h' l and R pp − 1 in the formula h j = ∑ l = 0 L − 1 h l ′ R pp − 1 j l; wherein the h' l is a fading factor obtained by estimation and the R pp − 1 is an inverse matrix of the R pp; and reconstructing received data according to the estimate value of the actual fading factor h j to obtain reconstructed data used for cancellation.
A method of manufacturing a cathode active material comprising: preparing one selected from the group consisting of cathode active materials represented by Chemical Formula 1 and Chemical Formula 2: Li x1 Ni 1-y1 M1 y1 O 2-α X α [Chemical Formula 1] Li x1 Ni 1-y2-z2 Co y2 M2 z2 O 2-α X α [Chemical Formula 2], wherein in Chemical Formula 1 and Chemical Formula 2, 0.9≤x1≤1.3, 0≤y1≤0.4, 0≤y2≤0.4, 0≤z2≤0.4, 0≤y2+z2≤0.4, and 0≤α≤2, M1 and M2 are at least one selected from the group consisting of Al, Ni, Mn, Cr, Fe, Mg, Sr, V, Zn, W, Zr, B, Ba, Sc, Cu, Ti, Co, rare-earth elements, and a combination thereof, and X is at least one selected from the group consisting of O, F, S, and P, rinsing the cathode active material using a solution including a compound including a thiol group; and drying the rinsed cathode active material, wherein the compound including a thiol group includes one selected from the group consisting of 2-thiazoline-2-thiol, 5-amino-1,3,4-thiadiazole-2-thiol, 1,3,4-thiadiazole-2,5-dithiol, 2,5-dimethylfuran-3-thiol, (1,2,4)thiadiazole-3,5-dithiol, 1-phenyl-1h-tetrazole-5-thiol, 4-methyl-4h-1,2,4-triazole-3-thiol, 5-methyl-1,3,4-thiadizole-2-thiol dithioglycol, s-triazine-2,4,6-trithiol, 7-methyl-2,6,8-trimercaptopurine, and 4,5-diamino-2,6-dimercaptopyrimidine. preparing one selected from the group consisting of cathode active materials represented by Chemical Formula 1 and Chemical Formula 2: Li x1 Ni 1-y1 M1 y1 O 2-α X α [Chemical Formula 1] Li x1 Ni 1-y2-z2 Co y2 M2 z2 O 2-α X α [Chemical Formula 2], wherein in Chemical Formula 1 and Chemical Formula 2, 0.9≤x1≤1.3, 0≤y1≤0.4, 0≤y2≤0.4, 0≤z2≤0.4, 0≤y2+z2≤0.4, and 0≤α≤2, M1 and M2 are at least one selected from the group consisting of Al, Ni, Mn, Cr, Fe, Mg, Sr, V, Zn, W, Zr, B, Ba, Sc, Cu, Ti, Co, rare-earth elements, and a combination thereof, and X is at least one selected from the group consisting of O, F, S, and P, wherein in Chemical Formula 1 and Chemical Formula 2, 0.9≤x1≤1.3, 0≤y1≤0.4, 0≤y2≤0.4, 0≤z2≤0.4, 0≤y2+z2≤0.4, and 0≤α≤2, M1 and M2 are at least one selected from the group consisting of Al, Ni, Mn, Cr, Fe, Mg, Sr, V, Zn, W, Zr, B, Ba, Sc, Cu, Ti, Co, rare-earth elements, and a combination thereof, and X is at least one selected from the group consisting of O, F, S, and P, rinsing the cathode active material using a solution including a compound including a thiol group; and drying the rinsed cathode active material, wherein the compound including a thiol group includes one selected from the group consisting of 2-thiazoline-2-thiol, 5-amino-1,3,4-thiadiazole-2-thiol, 1,3,4-thiadiazole-2,5-dithiol, 2,5-dimethylfuran-3-thiol, (1,2,4)thiadiazole-3,5-dithiol, 1-phenyl-1h-tetrazole-5-thiol, 4-methyl-4h-1,2,4-triazole-3-thiol, 5-methyl-1,3,4-thiadizole-2-thiol dithioglycol, s-triazine-2,4,6-trithiol, 7-methyl-2,6,8-trimercaptopurine, and 4,5-diamino-2,6-dimercaptopyrimidine.
A method of manufacturing a table for a vehicle, the method comprising the steps of: a) providing two or more portions (2,3) of material; b) machining at least one recess into a face of at least one of the portions of material; and c) assembling the portions of material together to form a table having at least one cavity, characterised in that the two or more portions (2, 3) of material are provided by splitting a single piece of material. a) providing two or more portions (2,3) of material; b) machining at least one recess into a face of at least one of the portions of material; and c) assembling the portions of material together to form a table having at least one cavity,
An X-ray 3D- imaging system, comprising: an imaging apparatus comprising an emitter emitting X-rays through an object and a receiver receiving the X-rays; and a control circuit (54, 56, 58a, 58b, 59) controlling the emitter and processing the X-rays received by the receiver to generate X-ray images of the object; wherein the control circuit controls the imaging apparatus to generate an X-ray positioning image (102, 104, 106) of the object; wherein the control circuit controls a display (50, 76, 77, 101) to display the positioning image, the display of the positioning image being modifiable by a user for identifying a region of interest on the positioning image; wherein the control circuit controls the imaging apparatus to generate an X-ray image of the object by collimating an amount of X-rays emitted through the object based upon the region of interest identified on the positioning image; wherein the region of interest is identified on the positioning image by a modifiable relative position or size of the positioning image and a position marker overlapping the positioning image or wherein a size of the position marker is modifiable with respect to the positioning image; and wherein the control circuit adjusts the amount of X-rays emitted through the object by collimating an amount of X-rays emitted through the object based upon the size of the positioning position marker; characterized in that the positioning image comprises a plurality of X-ray images (104, 106) of the object from different angles and the plurality of X-ray images are linked so that modification of one of the plurality of X-ray images on the display can cause corresponding modification of the rest of the plurality of X-ray images on the display. an imaging apparatus comprising an emitter emitting X-rays through an object and a receiver receiving the X-rays; and a control circuit (54, 56, 58a, 58b, 59) controlling the emitter and processing the X-rays received by the receiver to generate X-ray images of the object;
An elevator operation method, comprising: receiving, using a computer, an indication of an emergency situation for a passenger in an elevator car; based on the indication and using the computer, selecting an emergency type for the emergency situation out of a plurality of possible emergency types; and moving the elevator car to a building floor (120, 122, 124, 126, 128) associated with the selected emergency type. receiving, using a computer, an indication of an emergency situation for a passenger in an elevator car; based on the indication and using the computer, selecting an emergency type for the emergency situation out of a plurality of possible emergency types; and moving the elevator car to a building floor (120, 122, 124, 126, 128) associated with the selected emergency type.
An X-ray source, comprising: an emitter configured to emit an electron beam; and a target configured to generate X-rays when impacted by the electron beam, the target comprising: a thermally-conductive substrate; two or more X-ray generating layers, wherein X-ray generating layers are separated by at least one intervening thermally-conductive layer; and one or more interface layers formed between a respective X-ray generating layer and the thermally-conductive substrate or a respective intervening thermally-conductive layer. an emitter configured to emit an electron beam; and a target configured to generate X-rays when impacted by the electron beam, the target comprising: a thermally-conductive substrate; two or more X-ray generating layers, wherein X-ray generating layers are separated by at least one intervening thermally-conductive layer; and one or more interface layers formed between a respective X-ray generating layer and the thermally-conductive substrate or a respective intervening thermally-conductive layer. a thermally-conductive substrate; two or more X-ray generating layers, wherein X-ray generating layers are separated by at least one intervening thermally-conductive layer; and one or more interface layers formed between a respective X-ray generating layer and the thermally-conductive substrate or a respective intervening thermally-conductive layer.
A bra pad (52, 54) comprising: an inner cup sheet of resilient and formable material comprising at least one graduated thicker summit area and a surrounding thinner area; wherein the graduated thicker summit area is positioned to extend, in use of the bra pad (52, 54), over the usual location of a nipple of a breast of a wearer of the bra or other garment incorporating the bra pad (52, 54) so that the nipples of the wearer remain unnoticeable from the exterior of the bra or other garment; and wherein the bra pad further comprises an outer cup sheet of resilient and formable material adhered to the inner cup sheet of resilient and formable material forming the bra pad (52, 54); characterized in that said inner cup sheet is of a uniform thickness save for the graduated thicker summit area. an inner cup sheet of resilient and formable material comprising at least one graduated thicker summit area and a surrounding thinner area; wherein the graduated thicker summit area is positioned to extend, in use of the bra pad (52, 54), over the usual location of a nipple of a breast of a wearer of the bra or other garment incorporating the bra pad (52, 54) so that the nipples of the wearer remain unnoticeable from the exterior of the bra or other garment; and wherein the bra pad further comprises an outer cup sheet of resilient and formable material adhered to the inner cup sheet of resilient and formable material forming the bra pad (52, 54); characterized in that said inner cup sheet is of a uniform thickness save for the graduated thicker summit area.
A tyre building method; the building method comprising: feeding an elastomer strip in a feed direction towards a building drum having a centreline, by means of a first and a second feed conveyor (1, 2) arranged in succession; cyclically determining, by means of an optical measuring device, the transverse position of both sides (5, 6) of the elastomer strip in a centring direction perpendicular to the feed direction; moving the second feed conveyor transversely in the centring direction on the basis of the measurements of the optical measuring device, to centre the elastomer strip with respect to the building drum; and winding the elastomer strip around the building drum; the building method being characterized by comprising: calculating an average head out of centre (AHOC) on a head portion (Δ2) of the elastomer strip; and moving the second feed conveyor transversely in the centring direction by an amount equal to the average head out of centre (AHOC), before winding the elastomer strip around the building drum. feeding an elastomer strip in a feed direction towards a building drum having a centreline, by means of a first and a second feed conveyor (1, 2) arranged in succession; cyclically determining, by means of an optical measuring device, the transverse position of both sides (5, 6) of the elastomer strip in a centring direction perpendicular to the feed direction; moving the second feed conveyor transversely in the centring direction on the basis of the measurements of the optical measuring device, to centre the elastomer strip with respect to the building drum; and winding the elastomer strip around the building drum; the building method being characterized by comprising: calculating an average head out of centre (AHOC) on a head portion (Δ2) of the elastomer strip; and moving the second feed conveyor transversely in the centring direction by an amount equal to the average head out of centre (AHOC), before winding the elastomer strip around the building drum. calculating an average head out of centre (AHOC) on a head portion (Δ2) of the elastomer strip; and moving the second feed conveyor transversely in the centring direction by an amount equal to the average head out of centre (AHOC), before winding the elastomer strip around the building drum.
A method performed by a Point-of-Interception, Pol, function and a manifesto register in a communication system, the method being characterized by: - providing, by the Pol function, to the manifesto register, a lawful interception, LI, manifesto for a communication service in the communication system, the LI manifesto comprising information that specifies LI of the communication service, a target for LI, an event that triggers LI, data to intercept during LI, and a communication interface between LI nodes, - storing, by the manifesto register, the LI manifesto, - providing, by the manifesto register, the LI manifesto to at least an LI function (108, 133, 134, 136, 137, 138) for use during LI of the communication service. - providing, by the Pol function, to the manifesto register, a lawful interception, LI, manifesto for a communication service in the communication system, the LI manifesto comprising information that specifies LI of the communication service, a target for LI, an event that triggers LI, data to intercept during LI, and a communication interface between LI nodes, - storing, by the manifesto register, the LI manifesto, - providing, by the manifesto register, the LI manifesto to at least an LI function (108, 133, 134, 136, 137, 138) for use during LI of the communication service.
A method for accessing a network, characterized in that the method comprises: receiving, by a user equipment, UE, an assignment of a first dedicated connection signature, DCS, to form a DCS/UE pair in an access area; and contention free accessing, by the UE using the first DCS, a first access area of the network served by a first group of transmission/receive points, TRPs, the first group comprising at least one TRP; wherein the first DCS is used for decoupling the UE from any TRP of the first group of TRPs. receiving, by a user equipment, UE, an assignment of a first dedicated connection signature, DCS, to form a DCS/UE pair in an access area; and contention free accessing, by the UE using the first DCS, a first access area of the network served by a first group of transmission/receive points, TRPs, the first group comprising at least one TRP; wherein the first DCS is used for decoupling the UE from any TRP of the first group of TRPs.
Conveying device for conveying goods, in particular goods in the form of a sheet, comprising conveyor means for conveying the goods and a holding unit for holding or releasing the goods with respect to said conveyor means, the holding unit comprising vacuum holding means and magnetic holding means, said holding unit comprising at least one vacuum conduit that allows communicating the vacuum holding means with the conveyor means, characterized in that the magnetic holding means comprise at least one movable element comprising at least one magnet, the magnetic holding means being deactivated by distancing said movable element from the conveyor means, wherein the movable element is arrangeable in a closed position where said movable element blocks the vacuum conduit, and wherein the vacuum conduit is located close to the conveyor means, such that when the movable element is in the closed position the magnetic holding means are activated, and when said magnetic holding means are deactivated the movable element does not block the vacuum conduit.
Stent with a proximal and a distal end, which is preformed to occupy an overarching structure at the implant site, for introduction by means of a microcatheter and by means of a guide wire arranged at the proximal end, which however can be converted into a shape of reduced volume, wherein the stent in its overarching structure adopts the shape of a longitudinally open flexible tube and has a honeycomb structure or mesh structure of webs or filaments joined to one another, wherein the stent has a functional part and at its proximal end and has a tapering structure, in which the webs or filaments converge in a connecting point, which at the same time is a contact point for the guide wire, characterised in that the functional part and the tapering structure differ at least in a different honeycomb size or mesh size, wherein in the functional part the honeycombs or meshes are relatively close together and wherein in the tapering structure there is a relatively broad honeycomb structure or mesh structure.
A folding case containing two short sides, two long sides, a moving body, a locking pin, a locking wall, a holding recess, a locking pin movement gap, and a locking bolt, characterized in that it contains a locking system that is mounted on a short side where the locking system contains: - at least two springs that protrude in the upward and downward direction from the locking bolt of the locking system, which contain an upper spring set and a lower spring set - a fixation pin housing that is located on the short side and that fixes the springs in position, - fixation pins that are located at the tips of the springs and that fix the springs in position, - a centralizing pin housing that is located on the short side and that provides centralizing of the moving body, - a centralizing pin and a centralizing pin housing gap that provide centralizing of the moving body. - at least two springs that protrude in the upward and downward direction from the locking bolt of the locking system, which contain an upper spring set and a lower spring set - a fixation pin housing that is located on the short side and that fixes the springs in position, - fixation pins that are located at the tips of the springs and that fix the springs in position, - a centralizing pin housing that is located on the short side and that provides centralizing of the moving body, - a centralizing pin and a centralizing pin housing gap that provide centralizing of the moving body.