mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: receiving information indicative of a receiver observing interference power exceeding a threshold in a portion of a symbol period; generating a transmission symbol including at least two copies of a signal component; and transmitting at least one copy of the signal component of the transmission symbol in the symbol period, the at least one copy of the signal component being non-overlapping with the portion of the symbol period in which the receiver observes interference power exceeding the threshold. receiving information indicative of a receiver observing interference power exceeding a threshold in a portion of a symbol period; generating a transmission symbol including at least two copies of a signal component; and transmitting at least one copy of the signal component of the transmission symbol in the symbol period, the at least one copy of the signal component being non-overlapping with the portion of the symbol period in which the receiver observes interference power exceeding the threshold.
A relay station apparatus that relays a radio signal between a first base station and a mobile station, wherein the relay station apparatus comprises: first communication means being able to receive, from the first base station: i) in a first frame, a first radio signal, the first radio signal having encoded therein transferred information to be transmitted to the mobile station through the relay station apparatus; and ii) in a second frame, a second radio signal having encoded therein first multicast information to be received by a plurality of nodes (12, 13), at a timing synchronized with a neighbor base station; downlink data processing means (112, 115) being able to decode the transferred information from the first radio signal received by the first communication means, and generate a third radio signal into which the transferred information is re-encoded; and second communication means being able to transmit the third radio signal to the mobile station, characterized in that the downlink data processing means (112, 115) is adapted such that (i) when the transferred information includes unicast information addressed to the mobile station, the downlink data processing means (112, 115) decodes the unicast information from the first radio signal, and (ii) when the transferred information encoded into the first radio signal includes second multicast information containing the same content as the first multicast information, the downlink data processing means (112, 115) is able to omit decoding the second multicast information from the first radio signal. first communication means being able to receive, from the first base station: i) in a first frame, a first radio signal, the first radio signal having encoded therein transferred information to be transmitted to the mobile station through the relay station apparatus; and ii) in a second frame, a second radio signal having encoded therein first multicast information to be received by a plurality of nodes (12, 13), at a timing synchronized with a neighbor base station; downlink data processing means (112, 115) being able to decode the transferred information from the first radio signal received by the first communication means, and generate a third radio signal into which the transferred information is re-encoded; and second communication means being able to transmit the third radio signal to the mobile station,
A device comprising: a substrate, a first electrode formed on the substrate, a functional thin film formed above the first electrode, and a second electrode disposed above the functional thin film, wherein the plane containing the functional thin film defines the horizontal plane, the device being characterized by further comprising, in a region that in plan view surrounds the region where the functional thin film is formed, a film containing a compound in which a group containing fluorine and a π-conjugated system are bound together by a cycloalkene structure or a cycloalkane structure. a substrate, a first electrode formed on the substrate, a functional thin film formed above the first electrode, and a second electrode disposed above the functional thin film, wherein the plane containing the functional thin film defines the horizontal plane, the device being characterized by further comprising, in a region that in plan view surrounds the region where the functional thin film is formed, a film containing a compound in which a group containing fluorine and a π-conjugated system are bound together by a cycloalkene structure or a cycloalkane structure.
A method for irradiation planning for the irradiation of a moving target volume (34, 55) located in a body, with a particle irradiation system using rescanning, comprising the steps of: defining the target volume in a reference motion state; dividing the target volume into a plurality of target points that can be individually targeted with a particle beam; defining a number of rescanning passes in which each of the target points of the target volume are targeted; calculating a nominal dose to be deposited in each of the target points of the target volume; calculating a mean motion (36, 50) of the target points of the target volume to be expected based on a motion model; taking into account the mean motion of the target points of the target volume to be expected in the irradiation planning in such a manner that the deviation of the expected dose deposition from the nominal dose for each target point is determined and the nominal dose for each target point is corrected on the basis of the deviation, and a corrected nominal dose is generated; generating control parameters for the irradiation system, wherein the control parameters include a particle count to be applied per target point and rescanning pass; wherein a patient model, a mathematical function and/or a respiratory study is taken into account for determining the motion model; and wherein the corrected nominal dose in different states of motion is distributed to the rescanning passes. defining the target volume in a reference motion state; dividing the target volume into a plurality of target points that can be individually targeted with a particle beam; defining a number of rescanning passes in which each of the target points of the target volume are targeted; calculating a nominal dose to be deposited in each of the target points of the target volume; calculating a mean motion (36, 50) of the target points of the target volume to be expected based on a motion model; taking into account the mean motion of the target points of the target volume to be expected in the irradiation planning in such a manner that the deviation of the expected dose deposition from the nominal dose for each target point is determined and the nominal dose for each target point is corrected on the basis of the deviation, and a corrected nominal dose is generated; generating control parameters for the irradiation system, wherein the control parameters include a particle count to be applied per target point and rescanning pass; wherein a patient model, a mathematical function and/or a respiratory study is taken into account for determining the motion model; and wherein the corrected nominal dose in different states of motion is distributed to the rescanning passes.
Amyloid-β oligomer that is comparatively globular in contrast to fibrillar forms, and is soluble in physiological saline solution, having an apparent molecular weight in SDS gel electrophoresis of about 38 kDa and/or 48 kDa, wherein the oligomer comprises two or more non-covalently aggregated amyloid-β protein monomers and is obtainable by a method which comprises: (a) allowing detergent to act on monomeric amyloid-β protein in order to form an Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 15 kDa and/or 20 kDa; and (b) decreasing the detergent effect and further incubating the Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 15 kDa and/or 20 kDa in order to form the Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 38 kDa and/or 48 kDa, wherein the detergent is a compound of the formula R-X in which the radical R is optionally branched alkyl having 6 to 20 carbon atoms or optionally branched alkenyl having 6 to 20 carbon atoms, and the radical X is an acidic group or salt thereof. (a) allowing detergent to act on monomeric amyloid-β protein in order to form an Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 15 kDa and/or 20 kDa; and (b) decreasing the detergent effect and further incubating the Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 15 kDa and/or 20 kDa in order to form the Aβ oligomer having an apparent molecular weight in SDS gel electrophoresis of about 38 kDa and/or 48 kDa,
A virtual reality head-mounted apparatus, comprising: a main body, the main body being provided with a convex lens; and a partial-reflection partial-transmission lens for reflecting infrared light provided in the main body, the partial-reflection partial-transmission lens being located on a side of the convex lens closer to a user, wherein the partial-reflection partial-transmission lens comprises an upper lens structure and a lower lens structure disposed obliquely, and a joint of the upper lens structure and the lower lens structure faces the user; a first camera and a second camera, wherein the first camera is located at a top of the main body and a lens of the first camera is disposed obliquely downward corresponding to the upper lens structure, and the second camera is located at a bottom of the main body and a lens of the second camera is disposed obliquely upward corresponding to the lower lens structure, and wherein a lens surface of the upper lens structure facing the user is inclined upward to reflect an infrared image of an eye of the user to the first camera, and a lens surface of the lower lens structure facing the user is inclined downward to reflect an infrared image of the eye of the user to the second camera. a main body, the main body being provided with a convex lens; and a partial-reflection partial-transmission lens for reflecting infrared light provided in the main body, the partial-reflection partial-transmission lens being located on a side of the convex lens closer to a user, wherein the partial-reflection partial-transmission lens comprises an upper lens structure and a lower lens structure disposed obliquely, and a joint of the upper lens structure and the lower lens structure faces the user; a first camera and a second camera, wherein the first camera is located at a top of the main body and a lens of the first camera is disposed obliquely downward corresponding to the upper lens structure, and the second camera is located at a bottom of the main body and a lens of the second camera is disposed obliquely upward corresponding to the lower lens structure, and wherein a lens surface of the upper lens structure facing the user is inclined upward to reflect an infrared image of an eye of the user to the first camera, and a lens surface of the lower lens structure facing the user is inclined downward to reflect an infrared image of the eye of the user to the second camera.
A method for a wireless device comprising: receiving at least one message comprising configuration parameters of a plurality of cells, wherein: the plurality of cells are grouped into a plurality of timing advance groups, TAGs; and the plurality of cells comprise: a primary cell with a primary physical uplink control channel, PUCCH, and a PUCCH secondary cell with a secondary PUCCH, wherein the PUCCH secondary cell is in a first TAG in the plurality of TAGs; receiving a command initiating transmission of a preamble on the first TAG; receiving a response comprising a timing advance command, TAC, in subframe m; starting transmission of uplink signals on the first TAG on or before subframe m+4; and starting transmission of valid channel state information, CSI, on the PUCCH secondary cell on or after subframe m+6. receiving at least one message comprising configuration parameters of a plurality of cells, wherein: the plurality of cells are grouped into a plurality of timing advance groups, TAGs; and the plurality of cells comprise: a primary cell with a primary physical uplink control channel, PUCCH, and a PUCCH secondary cell with a secondary PUCCH, wherein the PUCCH secondary cell is in a first TAG in the plurality of TAGs; the plurality of cells are grouped into a plurality of timing advance groups, TAGs; and the plurality of cells comprise: a primary cell with a primary physical uplink control channel, PUCCH, and a PUCCH secondary cell with a secondary PUCCH, wherein the PUCCH secondary cell is in a first TAG in the plurality of TAGs; receiving a command initiating transmission of a preamble on the first TAG; receiving a response comprising a timing advance command, TAC, in subframe m; starting transmission of uplink signals on the first TAG on or before subframe m+4; and starting transmission of valid channel state information, CSI, on the PUCCH secondary cell on or after subframe m+6.
A method for making a structural joint between two components (2, 3) of metal material, in particular in the assembly of a motor-vehicle body or a sub-assembly thereof, wherein said method comprises the step of carrying out an electrical resistance welding spot between said components, the method being characterized in that it also comprises the step of applying a cladding of metal material above said electrical resistance welding spot, by means of additive manufacturing technology.
Method for connecting pane-like bodies to a frame by means of a manipulator, characterized in that a plurality of individual frame parts (8, 9, 10, 11) are picked up by the manipulator and are joined at the pane edge to form the frame, wherein the pane-like body is held by the manipulator by means of a joining tool and its controllable gripping device.
Apparatus for segmenting an object, configured to: obtain a two-dimensional disparity map (X, Y) of disparities of the object in first and second directions; carry out a projection on the disparity map along a first direction so as to generate a two-dimensional histogram of the distribution of the disparity values along the first direction, the histogram showing the frequency of appearance of the disparity values along one axis and the position along the second direction along the other axis; and divide the object based on concave-convex attributes of an outline of the object as represented in the histogram (D, X), by determining the first point in the histogram, for each column along the second direction, along the first direction of the histogram scanning from the low to the high disparity value end, whose value, representing the frequency of appearance of a disparity value, is non-zero, to obtain a set of points along the second direction; applying a concave point detecting algorithm to the set of points to determine concave-convex measurement values for the set of points and comparing those values to a predetermined threshold to obtain a set of concave points, wherein the concave points are determined by finding those points farther than the near points; and segmenting the object corresponding to the disparity map based on the set of concave points. obtain a two-dimensional disparity map (X, Y) of disparities of the object in first and second directions; carry out a projection on the disparity map along a first direction so as to generate a two-dimensional histogram of the distribution of the disparity values along the first direction, the histogram showing the frequency of appearance of the disparity values along one axis and the position along the second direction along the other axis;
A display device comprising: a first substrate; a plurality of light-emitting elements (ED1, ED2, ED3) on the first substrate; an encapsulation film covering the plurality of light-emitting elements (ED1, ED2, ED3); a second substrate facing the first substrate; a first outermost film on the second substrate, facing the encapsulation film; a filler material between the encapsulation film and the first outermost film, and in direct contact with the first outermost film; and characterized in that: the first outermost film comprises AOxNy, wherein A is a metal or non-metal element and X>Y (Y>0), and a first surface tension of the first outermost film is greater than a second surface tension of the filler material. a first substrate; a plurality of light-emitting elements (ED1, ED2, ED3) on the first substrate; an encapsulation film covering the plurality of light-emitting elements (ED1, ED2, ED3); a second substrate facing the first substrate; a first outermost film on the second substrate, facing the encapsulation film; a filler material between the encapsulation film and the first outermost film, and in direct contact with the first outermost film; and characterized in that: the first outermost film comprises AOxNy, wherein A is a metal or non-metal element and X>Y (Y>0), and a first surface tension of the first outermost film is greater than a second surface tension of the filler material. the first outermost film comprises AOxNy, wherein A is a metal or non-metal element and X>Y (Y>0), and a first surface tension of the first outermost film is greater than a second surface tension of the filler material.
An antenna module comprising: a printed circuit board; a first antenna array disposed on one surface of the printed circuit board; a second antenna array disposed on another surface of the printed circuit board and at least partially overlapping with the first antenna array when viewed from above the printed circuit board, wherein each of the first antenna array and the second antenna array includes a plurality of dipole antennas; and a radio frequency integrated circuit, RFIC, electrically connected to the first antenna array and the second antenna array, wherein the RFIC is configured to: feed the first antenna array and the second antenna array such that a phase difference between the first antenna array and the second antenna array has a specified value, and transmit and/or receive a second signal in a direction of a beam via the first antenna array and the second antenna array, wherein the direction of the beam is dependent on the specified value; and wherein the direction of the beam includes: a first direction parallel to the one surface; and a second direction perpendicular to the one surface. a printed circuit board; a first antenna array disposed on one surface of the printed circuit board; a second antenna array disposed on another surface of the printed circuit board and at least partially overlapping with the first antenna array when viewed from above the printed circuit board, wherein each of the first antenna array and the second antenna array includes a plurality of dipole antennas; and a radio frequency integrated circuit, RFIC, electrically connected to the first antenna array and the second antenna array, wherein the RFIC is configured to: feed the first antenna array and the second antenna array such that a phase difference between the first antenna array and the second antenna array has a specified value, and transmit and/or receive a second signal in a direction of a beam via the first antenna array and the second antenna array, wherein the direction of the beam is dependent on the specified value; and wherein the direction of the beam includes: a first direction parallel to the one surface; and a second direction perpendicular to the one surface. feed the first antenna array and the second antenna array such that a phase difference between the first antenna array and the second antenna array has a specified value, and transmit and/or receive a second signal in a direction of a beam via the first antenna array and the second antenna array, wherein the direction of the beam is dependent on the specified value; and wherein the direction of the beam includes: a first direction parallel to the one surface; and a second direction perpendicular to the one surface. a first direction parallel to the one surface; and a second direction perpendicular to the one surface.
An electrical connector, comprising: a housing provided with a locking portion; a locking lever pivotally mounted on the housing, the locking lever pivoting between a first position and a second position, and the locking lever having a first arm and a second arm connected to opposite sides of the housing and a beam portion extending in a lateral direction between the first arm and the second arm, with a channel being provided in the beam portion; and a connector position assurance member, the connector position assurance member having a locking edge, the connector position assurance member being inserted into the channel from an open end of the channel, and the connector position assurance member having a pre-installed position and a locked position in the channel, wherein when the locking lever pivots to the second position and the connector position assurance member enters into the locked position, the locking edge abuts against the locking portion in the channel, thereby locking a rotational motion of the locking lever; characterised by the channel extending along the lateral direction. a housing provided with a locking portion; a locking lever pivotally mounted on the housing, the locking lever pivoting between a first position and a second position, and the locking lever having a first arm and a second arm connected to opposite sides of the housing and a beam portion extending in a lateral direction between the first arm and the second arm, with a channel being provided in the beam portion; and a connector position assurance member, the connector position assurance member having a locking edge, the connector position assurance member being inserted into the channel from an open end of the channel, and the connector position assurance member having a pre-installed position and a locked position in the channel, wherein when the locking lever pivots to the second position and the connector position assurance member enters into the locked position, the locking edge abuts against the locking portion in the channel, thereby locking a rotational motion of the locking lever; characterised by the channel extending along the lateral direction.
Frost-proof outlet fitting having a valve body which forms a valve seat, an outlet housing and an intermediate spindle which is accommodated in an intermediate pipe that connects the outlet housing to the valve body, characterized in that the intermediate spindle is formed from plastics material.