mhurhangee/ep-ind-claims huggingface dataset:
A multiple-input multiple-output communication system, comprising: a plurality of antennas configured to receive a plurality of wireless signals; and a symbol detector configured to: convert the received wireless signals to input signals; and implement a lattice-reduction -aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and output at least one symbol. a plurality of antennas configured to receive a plurality of wireless signals; and a symbol detector configured to: convert the received wireless signals to input signals; and implement a lattice-reduction -aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and convert the received wireless signals to input signals; and implement a lattice-reduction -aided K-best algorithm in a complex domain to detect a symbol in the input signals by: conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner expansion to identify K-best candidate symbols for each of the conducting a search of a plurality of layers of candidate symbols; performing a two-stage one-dimensional Schnorr-Euchner expansion to identify K-best candidate symbols for each of the plurality of layers, wherein the two-stage 1D SE expansion includes a first stage expansion on real parts of all child nodes of a layer, and a second stage expansion on imaginary parts of all child nodes obtained from the first stage; implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and implementing a priority queue to store the K-best candidate symbols for each of the plurality of layers; and updating the priority queue based on the two-stage 1D SE expansion; and
A composite comprising: resin particles having a volumetric average particle diameter of 25 μm or less; and inorganic fine particles that coat at least a portion of a surface of the resin particles, wherein an absolute value of an average charging amount of the composite is 40 μC/g or higher. resin particles having a volumetric average particle diameter of 25 μm or less; and inorganic fine particles that coat at least a portion of a surface of the resin particles, wherein an absolute value of an average charging amount of the composite is 40 μC/g or higher.
Fibre-forming centrifuge suitable for rotating about a rotation axis, the centrifuge comprising: - A web 13 forming the upper side of the centrifuge, - an annular wall pierced with a plurality of holes, the annular wall having the rotation axis as its axis of symmetry, - at least one row of one continuous relief or of discontinuous reliefs, situated on the outer surface of the centrifuge, on the annular wall and/or above and close to the annular wall when the centrifuge is in centrifuging position, the row being horizontal or inclined at an angle of more than 0° and less than 90° relative to the horizontal when the centrifuge is in centrifuging position, in the case of a continuous relief, the latter being a groove of semicircular section. - A web 13 forming the upper side of the centrifuge, - an annular wall pierced with a plurality of holes, the annular wall having the rotation axis as its axis of symmetry, - at least one row of one continuous relief or of discontinuous reliefs, situated on the outer surface of the centrifuge, on the annular wall and/or above and close to the annular wall when the centrifuge is in centrifuging position, the row being horizontal or inclined at an angle of more than 0° and less than 90° relative to the horizontal when the centrifuge is in centrifuging position, in the case of a continuous relief, the latter being a groove of semicircular section.
A urea reactor tray comprising at least one base plate; and a number of hollow cup-shaped members (11, 11A), which project vertically from the base plate along respective substantially parallel axes perpendicular to the base plate, and have respective substantially concave inner cavities (17, 37) communicating with respective openings formed in the base plate; the tray comprising a number of first cup-shaped members, which project downwards from a bottom face of the base plate and each of which extends axially between an open top end having the opening, and a closed bottom end; each first cup-shaped member comprising a lateral wall with through circulation holes substantially crosswise to the axis and for preferential throughflow of a gaseous phase and/or liquid phase; and a bottom wall which closes the closed bottom end and has no circulation holes; the tray being characterized in that the lateral wall of each first cup-shaped member has first circulation holes predominantly for throughflow of a gaseous phase, and second circulation holes predominantly for throughflow of a liquid phase, all substantially crosswise to the axis; the first holes being located closer to the open top end than the second holes, and the first holes being smaller than the second holes.
A system for controlling operation of a family of treatment devices comprising a family of treatment devices (26a, 26b) comprising at least first and second different treatment devices which are intended to be individually deployed for use in different tissue regions, the treatment devices each including a plurality of electrodes (66, 316) for transmitting radio frequency energy to tissue, and a controller including a connector to which a selected one of the first or second treatment devices is coupled for use, the controller including means for identifying which of the first and second treatment devices has been connected, the controller further including an operation system to execute on a display screen a first graphical interface guiding use of the first treatment device only when the first treatment device is connected and a second graphical interface different, at least in part, from the first graphical interface and guiding use of the second treatment device only when the second treatment device is connected, the controller including, for at least one of the first and second graphical interface, means for visually prompting a user in a step-wise fashion to perform a process using the connected treatment device of forming a pattern of lesions in a body region comprising a plurality of axially spaced lesion levels, each lesion level comprising a plurality of circumferentially spaced lesions, and further including means for registering the formation of lesions as they are generated in real time, both within and between each circumferentially spaced level, whereby the graphical user interface displays for the user a visual record of the progress of the process from start to finish and guides the user so that individual lesions desired within a given level are all formed, and that a given level of lesions is not skipped, the controller further including for the first graphical interface, means for sensing electrode impedance indicating contact with tissue upon which the first graphical interface is changed to a second graphical form and means for subsequently actuating the electrodes for a first pre-set period (page 25), following which treatment indicia appear on the second graphical form of the first graphical interface to indicate the lesions formed and their spatial orientation.
An alarm correlation analysis method, wherein the method is applied in an alarm correlation analysis apparatus with two or more than two analysis engines running, and the method comprises: receiving an alarm reported by a network element device, wherein the alarm comprises an alarm identifier that can uniquely identify the alarm; and if the alarm identifier of the received alarm is the same as an alarm identifier of any alarm in any alarm analysis rule that is comprised in an alarm analysis rule group corresponding to any one of the analysis engines, performing, by an analysis engine corresponding to the alarm analysis rule group that comprises an alarm indicated by the same alarm identifier, correlation analysis for the received alarm according to an alarm analysis rule in the alarm analysis rule group corresponding to the analysis engine, wherein a same alarm analysis rule group comprises correlated alarm analysis rules, one alarm analysis rule group corresponds to one analysis engine, the alarm analysis rule is used to indicate an interrelationship between different alarms, and multiple correlated alarm analysis rules all comprise at least an alarm with a same alarm identifier. receiving an alarm reported by a network element device, wherein the alarm comprises an alarm identifier that can uniquely identify the alarm; and if the alarm identifier of the received alarm is the same as an alarm identifier of any alarm in any alarm analysis rule that is comprised in an alarm analysis rule group corresponding to any one of the analysis engines, performing, by an analysis engine corresponding to the alarm analysis rule group that comprises an alarm indicated by the same alarm identifier, correlation analysis for the received alarm according to an alarm analysis rule in the alarm analysis rule group corresponding to the analysis engine, wherein a same alarm analysis rule group comprises correlated alarm analysis rules, one alarm analysis rule group corresponds to one analysis engine, the alarm analysis rule is used to indicate an interrelationship between different alarms, and multiple correlated alarm analysis rules all comprise at least an alarm with a same alarm identifier.
Medical circulation detent device, comprising at least one circulation body (32; 92) and a latching element, the at least one circulation body (32; 92) comprising a restricted guide and at least one latching receptacle for the latching element, and the latching element being guidable through the restricted guide from an unlatched position to a latched position at a first side of the at least one latching receptacle into the latter, and at a second side of the at least one latching receptacle from the latched position to an unlatched position again, wherein the circulation detent device (30; 90) comprises an operative element coupled to the latching element via a coupling element, and a thermal actuating element operatively connected to the latching element and transferable due to temperature from a first state to a second state and vice versa in order to move the operative element, the first state and the second state comprising a low-temperature state and a high-temperature state and also a state of lesser extent and a state of greater extent, and wherein in order to transfer the latching element from the unlatched position to the latched position in the at least one latching receptacle and in order to transfer the latching element from the latched position to an unlatched position, the actuating element is respectively transferable from the first state to the second state and to the first state again, and the latching element is thereby movable in the restricted guide.
Intermediate element for a system (1, 1') for fixing a rail for a rail vehicle to a foundation, wherein the intermediate element (12, 12') is provided to be arranged between an end section (7, 8) of a spring element (3, 3') and the rail such that the spring element (4, 4') exerts a retaining force (N, N') on the rail by means of the intermediate element (12, 12'), characterised in that the intermediate element (12, 12') comprises a supporting surface configured on the upper side of a dimensionally stable first section made out of a synthetic material on which the end section (7, 8) of the spring element (3, 3') rests during use, and a contact surface configured on the underside of a dimensionally stable second section made out of a synthetic material, with which it sits on the rail during use, wherein the intermediate element (12, 12') being designed to be elastically resilient in an active direction directed from the supporting surface towards the contact surface, by an elastic element being arranged between the dimensionally stable sections (13, 21).
An analyte detection apparatus comprising: a surface enhanced luminescence structure; a dielectric layer underlying the SEL structure; and an electric field generating base underlying the dielectric layer, the electric field generating base to apply an electric field about the SEL structure to attract charged ions to the SEL structure, characterized in that the electric field generating base comprises a floating gate of a floating gate transistor, the floating gate underlying the surface enhanced luminescence structure. a surface enhanced luminescence structure; a dielectric layer underlying the SEL structure; and an electric field generating base underlying the dielectric layer, the electric field generating base to apply an electric field about the SEL structure to attract charged ions to the SEL structure, characterized in that the electric field generating base comprises a floating gate of a floating gate transistor, the floating gate underlying the surface enhanced luminescence structure.
A steering system comprising:; a steering column supporting an input shaft coupled to a steering wheel a column bracket having a long hole (44a,45a) therethrough and supporting the steering column, a pivot bracket supporting the steering column in such a manner as to allow the steering column to swing in a vertical direction, a distance bracket including two vertical plates (61,62) and a horizontal plate, the two vertical plates (61,62) being fixed to an outer circumferential surface of the steering column and extending along the column bracket, the horizontal plate coupling together the two vertical plates (61,62), and a rod penetrating the long hole (44a,45a) and the vertical plates (61,62); characterized in that the steering system further comprises an elastic member positioned between the horizontal plate and the rod, placed in contact with the horizontal plate and pressing the rod toward the steering column.; a steering column supporting an input shaft coupled to a steering wheel a column bracket having a long hole (44a,45a) therethrough and supporting the steering column, a pivot bracket supporting the steering column in such a manner as to allow the steering column to swing in a vertical direction, a distance bracket including two vertical plates (61,62) and a horizontal plate, the two vertical plates (61,62) being fixed to an outer circumferential surface of the steering column and extending along the column bracket, the horizontal plate coupling together the two vertical plates (61,62), and a rod penetrating the long hole (44a,45a) and the vertical plates (61,62); characterized in that the steering system further comprises an elastic member positioned between the horizontal plate and the rod, placed in contact with the horizontal plate and pressing the rod toward the steering column.
A valve comprising: a valve body having a passageway there through defining an axial direction; a shuttle, mounted within the valve body and able to move from an open position to a closed position at an angle to the axial direction; wherein, in the open position, the shuttle does not close the passageway and in the closed position, the shuttle is arranged to locate a first tablet within the fluid passageway; the first tablet being moveably mounted on the shuttle and biased to move in the axial direction to seal against a sealing surface of the valve body to close the passageway; wherein the shuttle carries a second tablet, the tablets being biased apart in the axial direction to seal against opposed sealing surfaces in the valve body characterised in that one of the tablets (140, 240) includes apertures to allow fluid to pass around or through said tablet, and a resilient member is arranged between the first tablet and the second tablet to bias the first tablet and the second tablet apart. a valve body having a passageway there through defining an axial direction; a shuttle, mounted within the valve body and able to move from an open position to a closed position at an angle to the axial direction; wherein, in the open position, the shuttle does not close the passageway and in the closed position, the shuttle is arranged to locate a first tablet within the fluid passageway; the first tablet being moveably mounted on the shuttle and biased to move in the axial direction to seal against a sealing surface of the valve body to close the passageway; wherein the shuttle carries a second tablet, the tablets being biased apart in the axial direction to seal against opposed sealing surfaces in the valve body characterised in that one of the tablets (140, 240) includes apertures to allow fluid to pass around or through said tablet, and a resilient member is arranged between the first tablet and the second tablet to bias the first tablet and the second tablet apart.
A method (1200-a) for supporting voice or time-sensitive communications over a wireless communications system at a wireless communication device (105, 115), the method (1200-a) comprising: determining, by said wireless communication device (105, 115), a plurality of code channels based on a scaling factor of a flexible bandwidth system, wherein the scaling factor is applied to a chip rate or symbol rate of the code channels of the flexible bandwidth system such that the symbol rate of the code channel is dilated thereby allowing to fit flexible bandwidth waveforms into portions of an allocated spectrum which are not big enough to fit a standard waveform; generating, by the wireless communication device (105, 115), a plurality of voice frames for transmission, said voice frames comprising voice or other time-sensitive communications; determining, by the wireless communication device (105, 115), a termination target based on the scaling factor of the flexible bandwidth system, wherein the termination target defines a number of subframes to be transmitted over the one or more code channels within a period of time corresponding to a voice frame of a normal bandwidth system; and transmitting, by the wireless communication device (105, 115), a subset of the subframes of the plurality of voice frames over the plurality of code channels, wherein the subset is based on the termination target. determining, by said wireless communication device (105, 115), a plurality of code channels based on a scaling factor of a flexible bandwidth system, wherein the scaling factor is applied to a chip rate or symbol rate of the code channels of the flexible bandwidth system such that the symbol rate of the code channel is dilated thereby allowing to fit flexible bandwidth waveforms into portions of an allocated spectrum which are not big enough to fit a standard waveform; generating, by the wireless communication device (105, 115), a plurality of voice frames for transmission, said voice frames comprising voice or other time-sensitive communications; determining, by the wireless communication device (105, 115), a termination target based on the scaling factor of the flexible bandwidth system, wherein the termination target defines a number of subframes to be transmitted over the one or more code channels within a period of time corresponding to a voice frame of a normal bandwidth system; and transmitting, by the wireless communication device (105, 115), a subset of the subframes of the plurality of voice frames over the plurality of code channels, wherein the subset is based on the termination target.
A method of digital printing of a polyester textile, which method comprises pre-treating, at least a part of, a surface of a polyester textile so as to increase hydrophobicity wherein the pre-treating comprises an atmospheric pressure plasma process using one or more of a silicon-containing or fluorine-containing monomer; inkjet printing a water-based disperse dye ink composition having a surface tension as determined using the Ring method of Du Noüy between 35 dynes/cm (35 mN/m) and 50 dynes/cm (50 mN/m) on the treated surface of the polyester textile; and heating the printed polyester textile wherein the heating comprises dry heating, so as to fix the printed image on the treated surface of the polyester textile.
Hair composition comprising: (i) one or more polymers containing a silicone unit bearing alkoxy-(aminomethyl)-silyl functional groups; (ii) one or more nonionic fixing polymers and/or one or more anionic fixing polymers; (iii) less than 5% by weight of water relative to the total weight of the composition. (i) one or more polymers containing a silicone unit bearing alkoxy-(aminomethyl)-silyl functional groups; (ii) one or more nonionic fixing polymers and/or one or more anionic fixing polymers; (iii) less than 5% by weight of water relative to the total weight of the composition.
A Computer implemented method of improving the resolution of a moving object in a digital image sequence, the method comprising the steps of: • constructing a high resolution image background model from the image sequence, • detecting the moving object in each frame using the high resolution image background model, • registering the moving object with a sub-pixel precision, • determining an edge model of the moving object, • producing a high-resolution object description, by adapting the edge model as part of an iterative optimisation of a function based upon the edge model of the moving object. • constructing a high resolution image background model from the image sequence, • detecting the moving object in each frame using the high resolution image background model, • registering the moving object with a sub-pixel precision, • determining an edge model of the moving object, • producing a high-resolution object description, by adapting the edge model as part of an iterative optimisation of a function based upon the edge model of the moving object.
Thioallophanates containing silane groups, of the general formula in which R 1, R 2 and R 3 are identical or different radicals and are each a saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or an optionally substituted aromatic or araliphatic radical having up to 18 carbon atoms, and may optionally contain up to 3 heteroatoms from the series of oxygen, sulfur and nitrogen, X is a linear or branched organic radical having at least 2 carbon atoms, Y is a linear or branched, aliphatic or cycloaliphatic, an araliphatic or aromatic radical having up to 18 carbon atoms, and n is an integer from 1 to 20. R 1, R 2 and R 3 are identical or different radicals and are each a saturated or unsaturated, linear or branched, aliphatic or cycloaliphatic or an optionally substituted aromatic or araliphatic radical having up to 18 carbon atoms, and may optionally contain up to 3 heteroatoms from the series of oxygen, sulfur and nitrogen, X is a linear or branched organic radical having at least 2 carbon atoms, Y is a linear or branched, aliphatic or cycloaliphatic, an araliphatic or aromatic radical having up to 18 carbon atoms, and n is an integer from 1 to 20.