mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine assembly comprising a first component formed to include a first slot that extends into the first component, a second component formed to include a second slot that extends into the second component, the second component arranged adjacent to the first component to define a gap therebetween, and a seal assembly arranged between the first component and the second component, the seal assembly including a strip seal (14, 16) that extends circumferentially into the first slot formed in the first component and the second slot formed in the second component and a rod seal arranged in the gap defined by the first component and the second component, and the rod seal is interlocked with the strip seal (14, 16) for radial movement therewith; characterized in that the rod seal includes a body arranged to extend axially relative to a central axis of the gas turbine engine assembly and a hook arm arranged to extend away from the body to form an opening between the body and the hook arm to interlock with the strip seal (14, 16).
An exhaust gas treatment system comprising: an ammonia generating catalyst comprising a NO x storage component, a refractory metal oxide support, a platinum component, and a palladium component, wherein the platinum component and the palladium components are present in a platinum to palladium ratio of greater than 1 to 1, and wherein there is less than 1 weight-% of ceria in the ammonia generating catalyst; and an ammonia selective catalytic reduction catalyst downstream of the ammonia generating catalyst. an ammonia generating catalyst comprising a NO x storage component, a refractory metal oxide support, a platinum component, and a palladium component, wherein the platinum component and the palladium components are present in a platinum to palladium ratio of greater than 1 to 1, and wherein there is less than 1 weight-% of ceria in the ammonia generating catalyst; and an ammonia selective catalytic reduction catalyst downstream of the ammonia generating catalyst.
A master device, comprising: a tuner tuning a television signal from a received multiplexed signal; an encoder coupled to the tuner and receiving the tuned television signal and digitally encoding the tuned television signal; a transmitter coupled to the encoder and transmitting the encoded signal to a remote device to be displayed on a viewing device; a receiver receiving a control signal from the remote device corresponding to a user input; and a controller coupled to the receiver and configured to accept the control signal from the receiver and instruct the tuner to change the tuned television signal in response thereto, wherein the encoder is configured, in response to the control signal, initially to encode a lower quality video signal corresponding to the changed television signal in accordance with an initial encoding parameter, such that the transmitter transmits a changed encoded signal to the remote device for display on the viewing device; wherein the master device is configured, after a period during which the lower quality video signal is transmitted, to change the initial encoding parameter so that a higher quality signal is encoded by the encoder and transmitted to the remote device; and wherein the master device is configured to include the encoding parameter in the signal transmitted to the remote device. a tuner tuning a television signal from a received multiplexed signal; an encoder coupled to the tuner and receiving the tuned television signal and digitally encoding the tuned television signal; a transmitter coupled to the encoder and transmitting the encoded signal to a remote device to be displayed on a viewing device; a receiver receiving a control signal from the remote device corresponding to a user input; and a controller coupled to the receiver and configured to accept the control signal from the receiver and instruct the tuner to change the tuned television signal in response thereto, wherein the encoder is configured, in response to the control signal, initially to encode a lower quality video signal corresponding to the changed television signal in accordance with an initial encoding parameter, such that the transmitter transmits a changed encoded signal to the remote device for display on the viewing device; wherein the master device is configured, after a period during which the lower quality video signal is transmitted, to change the initial encoding parameter so that a higher quality signal is encoded by the encoder and transmitted to the remote device; and wherein the master device is configured to include the encoding parameter in the signal transmitted to the remote device.
Multistrand metal cable of 4 × (L+M) construction, which can especially be used for reinforcing tyre belts for industrial vehicles, formed from four elementary strands assembled in a helix with a helix pitch P3, each elementary strand consisting of a two-layer cable of L+M construction comprising an inner layer C1 formed from L wires of diameter D1, assembled in a helix with a pitch P1, and an unsaturated outer layer C2 of M wires, M being greater than or equal to 8 and smaller than or equal to 11, of diameter D2, these being assembled in a helix with a pitch P2 around the inner layer C1, P1 being smaller than P2, the L wires of the inner layer C1 being wound in a helix in the same twist direction as the M wires of the outer layer C2, the M wires of the outer layer C2 being wound in the same direction as said four elementary strands, wherein each of the diameters D1 and D2 is greater than or equal to 0.10 mm but less than or equal to 0.50 mm and L is equal to four.
Driving device for sliding doors, comprising a rack integral with the sliding door, a driving pinion engaged with said rack driven by a motor of the driving device integral with said pinion, that is vertically movable, wherein the pinion or the motor are linked with a spring that presses said pinion against the rack, engaging the pinion with the rack, so that when the rack moves along a direction perpendicular with respect to the representation plane, the pinion can move vertically always in contact with the rack by the spring, which presses it against the rack, said device further including a vertical guide along which the motor or the pinion can slide, said vertical guide being aligned with the spring, which is driven so that the motor and pinion assembly slides upwardly thanks to the guide up to a position in which it engages with the rack.
A method of analyzing an image comprising: acquiring, by a computer, an image of a physical environment, wherein the image comprises a plurality of pixels, each pixel including a two-dimensional pixel location in a plane of the image and a depth value corresponding to a distance between a region of the physical environment and the plane of the image; for each pixel, converting, by the computer, the two dimensional pixel location and the depth value into a corresponding three-dimensional point in the physical environment, wherein each respective three-dimensional point corresponding to a pixel is defined by three coordinate components x, y, z, each of which has a value in physical units of measurement; determining, by the computer, a set of edge points within the plurality of three-dimensional points based, at least in part, on the z coordinate component of one or more of the plurality of points; generating, by the computer, a distance map, wherein the distance map comprises a matrix of cells; identifying, by the computer, for each cell of the distance map, a closest one of the edge points; and assigning, by the computer, to each cell of the distance map, a respective distance value representing a distance between the cell and the closest one edge point to that cell. acquiring, by a computer, an image of a physical environment, wherein the image comprises a plurality of pixels, each pixel including a two-dimensional pixel location in a plane of the image and a depth value corresponding to a distance between a region of the physical environment and the plane of the image; for each pixel, converting, by the computer, the two dimensional pixel location and the depth value into a corresponding three-dimensional point in the physical environment, wherein each respective three-dimensional point corresponding to a pixel is defined by three coordinate components x, y, z, each of which has a value in physical units of measurement; determining, by the computer, a set of edge points within the plurality of three-dimensional points based, at least in part, on the z coordinate component of one or more of the plurality of points; generating, by the computer, a distance map, wherein the distance map comprises a matrix of cells; identifying, by the computer, for each cell of the distance map, a closest one of the edge points; and assigning, by the computer, to each cell of the distance map, a respective distance value representing a distance between the cell and the closest one edge point to that cell.
An instruction projecting device which generates a projection image to be projected on a parcel based on sensing information of the parcel, the device comprising: a processor; and a memory, wherein by cooperating with the memory, the processor is configured to determine whether or not the parcel is picked up based on the sensing information, characterized in that in a case where it is determined that the parcel is picked up, the processor is configured to generate the projection image including detail information of the parcel and to send a projection instruction to cause an image output device to project the projection image including detail information on the parcel. a processor; and a memory, wherein by cooperating with the memory, the processor is configured to determine whether or not the parcel is picked up based on the sensing information, characterized in that in a case where it is determined that the parcel is picked up, the processor is configured to generate the projection image including detail information of the parcel and to send a projection instruction to cause an image output device to project the projection image including detail information on the parcel.
A method of molding a microneedle array comprising: (i) providing a mold apparatus (200, 500, 600, 800, 900) comprising a mold insert (210, 510, 610, 810, 910) having the negative image of at least one microneedle, wherein the mold apparatus has an open position and a closed position; (ii) placing the mold apparatus in the closed position; (iii) applying acoustic energy having a frequency greater than about 5,000 Hz to the mold apparatus; (iv) injecting polymeric material into the closed mold apparatus; (v) opening the mold; and (vi) removing the molded microneedle array from the mold. (i) providing a mold apparatus (200, 500, 600, 800, 900) comprising a mold insert (210, 510, 610, 810, 910) having the negative image of at least one microneedle, wherein the mold apparatus has an open position and a closed position; (ii) placing the mold apparatus in the closed position; (iii) applying acoustic energy having a frequency greater than about 5,000 Hz to the mold apparatus; (iv) injecting polymeric material into the closed mold apparatus; (v) opening the mold; and (vi) removing the molded microneedle array from the mold.
Device for distributing the electrical power supply for a row of modular devices such as circuit breakers, said device being housed in a housing, and comprising a set of power supply bars (12, 13, 14, 15) arranged substantially parallel to one another, said bars comprising a certain number of bars (13, 14, 15) linked electrically respectively to the different electrical phases, and a neutral bar distributing the neutral, said device comprising means for connecting the bars to the different abovementioned electrical devices and also a device for electrically connecting the distribution device to the electrical power supply device for said bars, characterized in that the abovementioned connection means (16, 17, 18, 19) are arranged according to two distribution lines, namely, respectively, a distribution line comprising phase terminals and a distribution line comprising neutral terminals, each distribution pitch comprising a phase terminal and a neutral terminal, the first distribution line comprising an assembly comprising at least one phase terminal, this assembly being arranged repetitively along said distributor, in that the electrical connection device for the distribution device is situated above the distribution lines, in that the distribution device further comprises a signal and/or control processing device extending substantially parallel to said bars (12, 13, 14, 15) and being situated above the distribution lines, at the same level as the abovementioned electrical connection device, the abovementioned connection device being situated on one side of the distribution device, and the signal and/or control processing device being situated in the alignment of the abovementioned electrical connection device, within the heightwise bulk of this connection device.
Method for controlling a DC-AC converter for converting a DC input voltage to an AC output voltage having a predetermined grid period, comprising: measuring, at a first point in time, a voltage sample of a filtered version of the AC output voltage; determining a control signal for a controllable switch of the DC-AC converter based on the measured voltage sample; adjusting, at a second point in time, a conduction state of the controllable switch according to the control signal, wherein the control signal is indicative of a pulse width modulation pattern (503, 505, 507) across the grid period, defining plural control pulses, wherein the plural control pulses are supplied to the controllable switch over plural subsequent switching periods spanning one grid period, wherein the pattern according to which the controllable switch is switched, is updated for the second half of the switching period, wherein a time difference (tc) between the second point in time and the first point in time is less than a switching period for periodically switching the controllable switch. measuring, at a first point in time, a voltage sample of a filtered version of the AC output voltage; determining a control signal for a controllable switch of the DC-AC converter based on the measured voltage sample; adjusting, at a second point in time, a conduction state of the controllable switch according to the control signal, wherein the control signal is indicative of a pulse width modulation pattern (503, 505, 507) across the grid period, defining plural control pulses, wherein the plural control pulses are supplied to the controllable switch over plural subsequent switching periods spanning one grid period, wherein the pattern according to which the controllable switch is switched, is updated for the second half of the switching period, wherein a time difference (tc) between the second point in time and the first point in time is less than a switching period for periodically switching the controllable switch.
Attachment for field cultivation, comprising a frame which can be coupled at least indirectly to an agricultural machine so that the machine supports the attachment at least in part, and at least one chassis module having a connection element connected to the frame and a suspension element which has at least one running wheel, which is rotatable about a wheel axis, and is adjustable relative to the connection element between a transport position, in which at least part of the at least one running wheel is arranged lower than the frame in order to support the frame, and a working position, in which it is displaced at least predominantly upward relative to the transport position, the suspension element being connected to the connection element by an adjustment mechanism in such a way that it can be adjusted from the transport position into the working position by means of a combination of an at least partially translationally upward lifting movement and a rotational pivoting movement about an upwardly extending adjustment axis, characterized in that the suspension element is displaced upward as a whole by this lifting movement, with the pivoting movement also taking place, which is rotational and in which a rotation takes place about the upwardly extending adjustment axis. the suspension element being connected to the connection element by an adjustment mechanism in such a way that it can be adjusted from the transport position into the working position by means of a combination of an at least partially translationally upward lifting movement and a rotational pivoting movement about an upwardly extending adjustment axis, characterized in that the suspension element is displaced upward as a whole by this lifting movement, with the pivoting movement also taking place, which is rotational and in which a rotation takes place about the upwardly extending adjustment axis.
An isolated antibody or an epitope binding fragment thereof specific to the transient receptor potential melastatin 4 (TRPM4) protein, wherein the antibody specifically binds to a peptide sequence which lies between S5 and the P-loop of the TRPM4 protein and inhibits TRPM4 currents and wherein the antibody or epitope binding fragment thereof is raised using a TRPM4 peptide selected from the group comprising a peptide consisting of the amino acid sequence SEQ ID NO: 1, a peptide consisting of the amino acid sequence SEQ ID NO: 2 and a peptide consisting of the amino acid sequence SEQ ID NO: 3.
A medical treatment apparatus for treating a living body tissue by heating the living body tissue to a target temperature, the apparatus comprising: a heat transfer portion (266, 270) configured to come into contact with the living body tissue and transfer heat to the living body tissue; a heating chip including a heating region (313, 307, 513) on one surface, joined to the heat transfer portion (266, 270) on the other surface, and configured to heat the heat transfer portion (266, 270) by inputting energy to the heating region (313, 307, 513); a temperature measurement unit configured to acquire a temperature of the heating region (313, 307, 513); and a control unit configured to control a temperature of the heat transfer portion (266, 270) to the target temperature by controlling the temperature of the heating region (313, 307, 513) to a temperature differing from the target temperature by an offset value which changes in accordance with an amount of energy input to the heating region (313, 307, 513), based on the temperature of the heating region (313, 307, 513) which is acquired by the temperature measurement unit; and wherein the heating region (313, 307, 513) comprises a heating electric resistance pattern (313, 307, 513), and the amount of the energy comprises an amount of an electric energy input to the heating electric resistance pattern (313, 307, 513). a heat transfer portion (266, 270) configured to come into contact with the living body tissue and transfer heat to the living body tissue; a heating chip including a heating region (313, 307, 513) on one surface, joined to the heat transfer portion (266, 270) on the other surface, and configured to heat the heat transfer portion (266, 270) by inputting energy to the heating region (313, 307, 513); a temperature measurement unit configured to acquire a temperature of the heating region (313, 307, 513); and a control unit configured to control a temperature of the heat transfer portion (266, 270) to the target temperature by controlling the temperature of the heating region (313, 307, 513) to a temperature differing from the target temperature by an offset value which changes in accordance with an amount of energy input to the heating region (313, 307, 513), based on the temperature of the heating region (313, 307, 513) which is acquired by the temperature measurement unit; and wherein the heating region (313, 307, 513) comprises a heating electric resistance pattern (313, 307, 513), and the amount of the energy comprises an amount of an electric energy input to the heating electric resistance pattern (313, 307, 513).
A signal processing method, comprising: receiving (101, 201), by a terminal, a control signaling in a format of format 1C, wherein the format 1C is only used for broadcast, and wherein the control signaling is used for instructing the terminal to send adjustment information to a serving base station of the terminal, and the control signaling is scrambled by using a Coordinated multiple point-Radio Network Temporary Identifier, CoMP-RNTI; determining (102, 202), by the terminal, channel state information between a coordinated base station and the terminal, and between the serving base station and the terminal; acquiring (103, 203), by the terminal, information about time difference or information about phase difference of arrival between signals sent by the coordinated base station and the serving base station at the terminal according to the channel state information; sending (104, 204), by the terminal, the adjustment information to the serving base station, according to which the serving base station adjusts sending time, phase, or pre-coding manner of a sent signal, wherein the adjustment information comprises the information about time difference or information about phase difference; and wherein the adjustment information is sent to the serving base station through a predefined channel established according to a format of the adjustment information, and the adjustment information employs Reed-Muller, RM, (20, M) coding or RM (32, M) coding which is the same as that of non-periodic Channel Quality Information, CQI. receiving (101, 201), by a terminal, a control signaling in a format of format 1C, wherein the format 1C is only used for broadcast, and wherein the control signaling is used for instructing the terminal to send adjustment information to a serving base station of the terminal, and the control signaling is scrambled by using a Coordinated multiple point-Radio Network Temporary Identifier, CoMP-RNTI; determining (102, 202), by the terminal, channel state information between a coordinated base station and the terminal, and between the serving base station and the terminal; acquiring (103, 203), by the terminal, information about time difference or information about phase difference of arrival between signals sent by the coordinated base station and the serving base station at the terminal according to the channel state information; sending (104, 204), by the terminal, the adjustment information to the serving base station, according to which the serving base station adjusts sending time, phase, or pre-coding manner of a sent signal, wherein the adjustment information comprises the information about time difference or information about phase difference; and wherein the adjustment information is sent to the serving base station through a predefined channel established according to a format of the adjustment information, and the adjustment information employs Reed-Muller, RM, (20, M) coding or RM (32, M) coding which is the same as that of non-periodic Channel Quality Information, CQI.