mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a user equipment, UE, in a wireless communication network, the method comprising: receiving, by the UE, a configuration of at least one resource region usable for transmission of an enhanced physical downlink control channel, E-PDCCH; and detecting, by the UE, in each of a plurality of subframes, one or more E-PDCCHs for the UE over the configured at least one E-PDCCH resource region; wherein the detecting comprises identifying a plurality of E-PDCCH candidates in the at least one E-PDCCH resource region, and wherein an E-PDCCH candidate comprises one or more enhanced control channel elements, eCCEs, in the at least one E-PDCCH resource region usable for transmitting the E- PDCCH to the UE; and wherein the detecting further comprises identifying a demodulation reference signal associated with each eCCE of at least one of the plurality of E- PDCCH candidates receiving, by the UE, a configuration of at least one resource region usable for transmission of an enhanced physical downlink control channel, E-PDCCH; and detecting, by the UE, in each of a plurality of subframes, one or more E-PDCCHs for the UE over the configured at least one E-PDCCH resource region; wherein the detecting comprises identifying a plurality of E-PDCCH candidates in the at least one E-PDCCH resource region, and wherein an E-PDCCH candidate comprises one or more enhanced control channel elements, eCCEs, in the at least one E-PDCCH resource region usable for transmitting the E- PDCCH to the UE; and wherein the detecting further comprises identifying a demodulation reference signal associated with each eCCE of at least one of the plurality of E- PDCCH candidates
- A device for the treatment of haemorrhoidal disease, comprising: - a cylindrical tubular body intended to be partially introduced into the anus of a patient, the distal end of the body being closed while its proximal end is open to allow access to the inside of the body, a side opening being provided in the side wall of the body so as to form an access window to access the lower rectum, - gripping means extending from the proximal end of the body, to allow manipulation of the body from the outside once the body has been introduced into the patient's anus, - a movable shutter partially closing off the side opening of the body so as to delimit with the latter the access window, the movable shutter being movable in translation along the body, along the longitudinal axis of the latter, so as to vary the length of the access window, and - means for stopping in translation the movable shutter relative to the body, capable of selectively stopping the movable shutter at least at a first depth and a second depth along the body, characterised in that the first depth being the position where the movable shutter is closest to the distal end of the body and where said access window allows access to the arteries at the lower rectum, and the means for stopping in translation are also capable of selectively stopping the movable shutter at a third depth, at a distance from the second depth along the longitudinal axis of the body. - a cylindrical tubular body intended to be partially introduced into the anus of a patient, the distal end of the body being closed while its proximal end is open to allow access to the inside of the body, a side opening being provided in the side wall of the body so as to form an access window to access the lower rectum, - gripping means extending from the proximal end of the body, to allow manipulation of the body from the outside once the body has been introduced into the patient's anus, - a movable shutter partially closing off the side opening of the body so as to delimit with the latter the access window, the movable shutter being movable in translation along the body, along the longitudinal axis of the latter, so as to vary the length of the access window, and - means for stopping in translation the movable shutter relative to the body, capable of selectively stopping the movable shutter at least at a first depth and a second depth along the body,
A fragrance composition comprising a compound selected from the group consisting of oxydicyclohexane, (oxybis(methylene))dicyclohexane, and a mixture thereof, wherein the compound is present in an amount from about 0.005 to about 50 weight percent of the fragrance composition.
A method for portion packaging of flat products, such as potato chips, in which the products are conveyed as product portions along a plurality of product conveying sections, which are disposed adjacent next to each other, to a product transfer device for transferring the product portions into packaging containers (35, 75), wherein, between each product conveying section and two transfer conveyors (41, 42) of the product transfer device, which are disposed adjacent next to each other, the product portions delivered via the product conveying section are distributed to the transfer conveyors (41, 42) by means of a redistributing device (37, 58) in such a manner that during occurrence of a conveying gap between two product portions conveyed on the product conveying section, the redistributing device (37, 58) is switched from a first connection configuration for establishing a conveying connection between the product conveying section and the first transfer conveyor and a second connection configuration for establishing a conveying connection between the product conveying section and the second transfer conveyor, the speed of the product portions on conveying sections of different lengths of the transfer conveyors (41, 42) being influenced by means of a synchronizer (50, 52) in such a manner that at the end of a feed cycle of a packaging unit, which comprises packaging containers (35, 75) disposed in columns and rows of a packaging container matrix of the packaging unit and is moved forward in a clocked manner along a packaging conveying section transversely to the product conveying sections, the product portions are transferred from a transfer position into the packaging containers (35, 75).
A method for printing an object comprising the steps of: (a) printing a first layer of at least one ink, each of said at least one ink including: (i) a liquid carrier having a carrier boiling point temperature; (ii) a dispersant having a dispersant boiling point temperature; and (iii) particles having a particle sintering temperature, (b) while maintaining a temperature of said first layer in a pre-defined range of temperatures via use of an electro-magnetic radiation source above the object, wherein said pre-defined range of temperatures is above a lower-bound () of said carrier boiling point temperature and below an upper-bound () of said dispersant boiling point temperature ( < TL<), thus evaporating said carrier while said dispersant remains in said first layer, and wherein the first layer is flattened with a leveling apparatus after said carrier has evaporated, (c) printing a subsequent layer of said at least one ink on said first layer of at least one ink, (d) building the object by repeating steps (a) to (c), (e) after steps (a)-(d), heating the object in an oven to evaporate organic material, (f) after step (e), heating the object to a further elevated temperature where full sintering occurs. (a) printing a first layer of at least one ink, each of said at least one ink including: (i) a liquid carrier having a carrier boiling point temperature; (ii) a dispersant having a dispersant boiling point temperature; and (iii) particles having a particle sintering temperature, (i) a liquid carrier having a carrier boiling point temperature; (ii) a dispersant having a dispersant boiling point temperature; and (iii) particles having a particle sintering temperature, (b) while maintaining a temperature of said first layer in a pre-defined range of temperatures via use of an electro-magnetic radiation source above the object, wherein said pre-defined range of temperatures is above a lower-bound () of said carrier boiling point temperature and below an upper-bound () of said dispersant boiling point temperature ( < TL<), thus evaporating said carrier while said dispersant remains in said first layer, and wherein the first layer is flattened with a leveling apparatus after said carrier has evaporated, (c) printing a subsequent layer of said at least one ink on said first layer of at least one ink, (d) building the object by repeating steps (a) to (c), (e) after steps (a)-(d), heating the object in an oven to evaporate organic material, (f) after step (e), heating the object to a further elevated temperature where full sintering occurs.
A pharmaceutically acceptable crystalline addition salt, which is one of: trans -4-[{3-[5-({[ -2-hydroxy-2-(8-hydroxy-2-oxo-1,2-dihydroquinolin-5-yl)ethyl]amino}methyl)-1H-1,2,3-benzotriazol-1-yl]propyl}(methyl)amino] cyclohexyl hydroxy(di-2-thienyl)acetate saccharinate, and trans -4-[{3-[6-({[(2 R)-2-hydroxy-2-(8-hydroxy-2-oxo-1,2-dihydroquinolin-5-yl)ethyl]amino}methyl)-2-oxo-1,3-benzothiazol-3(2 H)-yl]propyl}(methyl)-amino]cyclohexyl hydroxy(di-2-thienyl)acetate fumarate, or a pharmaceutically acceptable solvate thereof. trans -4-[{3-[5-({[ -2-hydroxy-2-(8-hydroxy-2-oxo-1,2-dihydroquinolin-5-yl)ethyl]amino}methyl)-1H-1,2,3-benzotriazol-1-yl]propyl}(methyl)amino] cyclohexyl hydroxy(di-2-thienyl)acetate saccharinate, and trans -4-[{3-[6-({[(2 R)-2-hydroxy-2-(8-hydroxy-2-oxo-1,2-dihydroquinolin-5-yl)ethyl]amino}methyl)-2-oxo-1,3-benzothiazol-3(2 H)-yl]propyl}(methyl)-amino]cyclohexyl hydroxy(di-2-thienyl)acetate fumarate,
A random access preamble transmission method, comprising: obtaining, by a terminal device, a scrambling code sequence; scrambling, by the terminal device, a random access preamble by using the scrambling code sequence; and sending, by the terminal device, a scrambled random access preamble to a network device; characterized by wherein an index of the scrambling code sequence is a function of the cell identifier, and scrambling code sequences corresponding to indexes of different scrambling code sequences are orthogonal to each other through synchronization or cyclic shift; and wherein the scrambling code sequence is c ( m)= e j2umπ / k, wherein m = 0, 1, 2,..., or k - 1, u is the index of the scrambling code sequence, u = N ID Ncell mod k or u = N ID Ncell mod k − 1, N ID Ncell is the cell identifier, and k is a length of the scrambling code sequence; and wherein the length of the scrambling code sequence is equal to one of: a quantity of the symbols in one symbol group of the random access preamble; a quantity of the symbols in one repetition period of the random access preamble; a quantity of the symbols in all the repetition periods of the random access preamble; a quantity of symbol groups in one repetition period of the random access preamble; a quantity of symbol groups in all repetition periods of the random access preamble and wherein a scrambling code of a cyclic prefix in each symbol group is the same as a scrambling code of a last symbol in the symbol group in which the cyclic prefix is located. obtaining, by a terminal device, a scrambling code sequence; scrambling, by the terminal device, a random access preamble by using the scrambling code sequence; and sending, by the terminal device, a scrambled random access preamble to a network device; characterized by wherein an index of the scrambling code sequence is a function of the cell identifier, and scrambling code sequences corresponding to indexes of different scrambling code sequences are orthogonal to each other through synchronization or cyclic shift; and wherein the scrambling code sequence is c ( m)= e j2umπ / k, wherein m = 0, 1, 2,..., or k - 1, u is the index of the scrambling code sequence, u = N ID Ncell mod k or u = N ID Ncell mod k − 1, N ID Ncell is the cell identifier, and k is a length of the scrambling code sequence; and wherein the length of the scrambling code sequence is equal to one of: a quantity of the symbols in one symbol group of the random access preamble; a quantity of the symbols in one repetition period of the random access preamble; a quantity of the symbols in all the repetition periods of the random access preamble; a quantity of symbol groups in one repetition period of the random access preamble; a quantity of symbol groups in all repetition periods of the random access preamble and wherein a scrambling code of a cyclic prefix in each symbol group is the same as a scrambling code of a last symbol in the symbol group in which the cyclic prefix is located.
A method comprising: loading a trusted operating system onto a computing device from a removable device for booting the computing device from the removable device, the removable device including a computer-readable memory and a processor, the computer-readable memory comprising the trusted operating system, an update agent, an authentication tool and a trusted antivirus tool; launching the trusted antivirus tool from the removable device, whereby the trusted antivirus tool is run from the removable device; scanning the computing device with the trusted antivirus tool; removing any viruses that are located by the trusted antivirus tool; rebooting the computing device using an operating system that is internal to the computing device; then, using the update agent, searching by the processor for one or more removable device component updates in the computing device or in a remote source via the computing device and a network; if any removable device component updates are located, authenticating the removable device component updates using the authentication tool and writing one or more of the removable device component updates to the removable device (416, 418), whereby the processor prevents removable device component updates that have not passed the authentication process from being written to the removable device. loading a trusted operating system onto a computing device from a removable device for booting the computing device from the removable device, the removable device including a computer-readable memory and a processor, the computer-readable memory comprising the trusted operating system, an update agent, an authentication tool and a trusted antivirus tool; launching the trusted antivirus tool from the removable device, whereby the trusted antivirus tool is run from the removable device; scanning the computing device with the trusted antivirus tool; removing any viruses that are located by the trusted antivirus tool; rebooting the computing device using an operating system that is internal to the computing device; then, using the update agent, searching by the processor for one or more removable device component updates in the computing device or in a remote source via the computing device and a network; if any removable device component updates are located, authenticating the removable device component updates using the authentication tool and writing one or more of the removable device component updates to the removable device (416, 418), whereby the processor prevents removable device component updates that have not passed the authentication process from being written to the removable device.
A method for use in an ultra-wideband, UWB, communication system in which multi-symbol packets are transmitted via a transmission channel, the method comprising the steps of: developing an estimate comprising a first set of coefficients of a channel impulse response, CIR, of said transmission channel; selecting a second set of said coefficients comprising a minimum energy noise region preceding a leading edge of said CIR; calculating a standard deviation of said second set of coefficients; calculating a first path threshold based on said calculated standard deviation and a highest value coefficient in the second set of coefficients; and selecting a first window of coefficients within said first set of coefficients, the window of coefficients surrounding a first one of said first set of coefficients having a value above said first path threshold; and utilizing the first window surrounding the first path to distinguish multi-symbol packets that have travelled along the first path from those that have travelled along other paths. developing an estimate comprising a first set of coefficients of a channel impulse response, CIR, of said transmission channel; selecting a second set of said coefficients comprising a minimum energy noise region preceding a leading edge of said CIR; calculating a standard deviation of said second set of coefficients; calculating a first path threshold based on said calculated standard deviation and a highest value coefficient in the second set of coefficients; and selecting a first window of coefficients within said first set of coefficients, the window of coefficients surrounding a first one of said first set of coefficients having a value above said first path threshold; and
Hot-water heater comprising an outer casing, a storage tank accommodated inside the outer casing having an inlet for cold water and an outlet for hot water, and means for heating water present in the storage tank, wherein the storage tank has a centre axis, wherein the outside of the storage tank has a substantially round or rounded shape in a plane which is at right angles to the centre axis, and wherein the storage tank has a core section which extends coaxially with the centre axis and, in a position of the hot-water heater in which the centre axis of the storage tank is substantially vertical, extends between a bottom and a top of the storage tank, in such a manner that the storage tank forms a circular duct having an essentially constant cross section, wherein the inlet is located near the bottom of the storage tank, and the outlet is located near the top of the storage tank characterized in that, inside the storage tank, a water stream dispenser is arranged at the inlet for cold water which water stream dispenser is adapted to act on a stream of cold water which enters the storage tank via the inlet to bring the cold water to rest while hot water is withdrawn from the heater, wherein the storage tank, in the area of the inlet, is provided with a first guide plate, the edges of which adjoin the wall of the storage tank, which wall is situated near the bottom, which first guide plate is designed to guide cold water which flows into the storage tank via the inlet during the withdrawal of hot water from the heater in the main direction of the circular duct along the wall of the storage tank.
A three-dimensional in vitro alveolar lung model comprising mainly the four cells types as follows: - a) alveolar type II epithelial cells able to secrete surfactant, - b) endothelial cells which form the inner lining of capillaries providing a permeable barrier - c) dendritic-like cells, - d) macrophage-like cells, able to participate to defense mechanisms by ingesting foreign materials by phagocytosis, wherein: said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment. - a) alveolar type II epithelial cells able to secrete surfactant, - b) endothelial cells which form the inner lining of capillaries providing a permeable barrier - c) dendritic-like cells, - d) macrophage-like cells, able to participate to defense mechanisms by ingesting foreign materials by phagocytosis, wherein: said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment. said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment.
An external rearview assembly comprising: a housing pivotally coupled with a vehicle door and operable between an extended position and a retracted position; an electro-optic element operably coupled with the housing, wherein the electro-optic element is heated and configured to darken when the housing is in the extended position and lighten when the housing is in the retracted position; a display module disposed proximate the electro-optic element, wherein the display module is activated when the housing is in the retracted position, and wherein the display module is deactivated when the housing is in the extended position; and an imager operably coupled with the housing and configured to capture image data when the housing is in the retracted position and display the image data on the activated display module. a housing pivotally coupled with a vehicle door and operable between an extended position and a retracted position; an electro-optic element operably coupled with the housing, wherein the electro-optic element is heated and configured to darken when the housing is in the extended position and lighten when the housing is in the retracted position; a display module disposed proximate the electro-optic element, wherein the display module is activated when the housing is in the retracted position, and wherein the display module is deactivated when the housing is in the extended position; and an imager operably coupled with the housing and configured to capture image data when the housing is in the retracted position and display the image data on the activated display module.