mhurhangee/patent-ind-claim-en huggingface dataset:
A communication apparatus comprising: a receiver which, in operation, receives each of a plurality of codewords mapped to one or a plurality of layers, wherein at least one of the plurality of codewords is mapped to the plurality of layers; the receiver, which in operation receives demodulation reference signals mapped to each of the plurality of layers, wherein, each of the demodulation reference signals is generated at a communication partner apparatus by using a first cyclic shift value and a first orthogonal sequence; a transmitter which, in operation, transmits ACK/NACK information indicating error detection results of the received codewords, wherein, when the transmitted ACK/NACK information denotes a retransmission request of one codeword that is mapped to the plurality of layers, the receiver receives the one codeword mapped to a plurality of layers as a retransmission and receives demodulation reference signals mapped to the plurality of layers of the retransmission, wherein, the same orthogonal sequence is used, from among the first orthogonal sequences used in the previous transmission of the demodulation reference signal, for the demodulation reference signals mapped to the plurality of layers of the retransmission, regardless of whether a signal orthogonal sequence was commonly used or different orthogonal sequences were used for the plurality of layers to which the one codeword was mapped in the previous transmission. a receiver which, in operation, receives each of a plurality of codewords mapped to one or a plurality of layers, wherein at least one of the plurality of codewords is mapped to the plurality of layers; the receiver, which in operation receives demodulation reference signals mapped to each of the plurality of layers, wherein, each of the demodulation reference signals is generated at a communication partner apparatus by using a first cyclic shift value and a first orthogonal sequence; a transmitter which, in operation, transmits ACK/NACK information indicating error detection results of the received codewords, wherein, when the transmitted ACK/NACK information denotes a retransmission request of one codeword that is mapped to the plurality of layers, the receiver receives the one codeword mapped to a plurality of layers as a retransmission and receives demodulation reference signals mapped to the plurality of layers of the retransmission, wherein, the same orthogonal sequence is used, from among the first orthogonal sequences used in the previous transmission of the demodulation reference signal, for the demodulation reference signals mapped to the plurality of layers of the retransmission, regardless of whether a signal orthogonal sequence was commonly used or different orthogonal sequences were used for the plurality of layers to which the one codeword was mapped in the previous transmission.
Autonomous mobile green area maintenance robot , comprising: - a first motor-driven treatment tool , - a second motor-driven treatment tool differing from the first treatment tool, and - an open protective housing with a lateral rim , - wherein the first treatment tool defines a first treatment zone and is arranged within the protective housing such that the first treatment zone is located in a safety zone of the protective housing, wherein the safety zone has a safety distance to the lateral rim, - wherein the second treatment tool defines a second treatment zone , wherein the second treatment zone is located at least partially beyond the safety zone, and - wherein the autonomous mobile green area maintenance robot has an autonomous operation mode, characterized in that - in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is smaller than a maximum kinetic energy (Ekin1) of the first motor-driven treatment tool, wherein in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is in a limit range from 5 to 25 Joules. - a first motor-driven treatment tool , - a second motor-driven treatment tool differing from the first treatment tool, and - an open protective housing with a lateral rim , - wherein the first treatment tool defines a first treatment zone and is arranged within the protective housing such that the first treatment zone is located in a safety zone of the protective housing, wherein the safety zone has a safety distance to the lateral rim, - wherein the second treatment tool defines a second treatment zone , wherein the second treatment zone is located at least partially beyond the safety zone, and - wherein the autonomous mobile green area maintenance robot has an autonomous operation mode, characterized in that - in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is smaller than a maximum kinetic energy (Ekin1) of the first motor-driven treatment tool, wherein in the autonomous operation mode, a maximum kinetic energy (Ekin2) of the second motor-driven treatment tool is in a limit range from 5 to 25 Joules.
Converter furnace equipment comprising: a first electrode configured to be disposed so that a front end thereof is immersed in a slag generated above a molten iron alloy bath in a converter furnace; a second electrode configured to be disposed in contact with the molten iron alloy bath or the slag ; a power supply device configured to supply a direct current to the first electrode and the second electrode via the slag ; a current detection unit configured to detect a direct current and provided in a middle of a wire connecting the power supply device to the first electrode or the second electrode , and a control device configured to control the direct current according to the magnitude of the direct current detected by the current detection unit so that the direct current does not exceed a preset maximum output current, and wherein the first electrode is a hollow top blowing oxygen feeding lance configured to blow oxygen, and the second electrode is provided in a furnace belly of the converter furnace, and the control device is configured to perform a control so as to cut off supply of the direct current when a resistance value between the first electrode and the second electrode is equal to or less than a preset resistance value after start of blowing. a first electrode configured to be disposed so that a front end thereof is immersed in a slag generated above a molten iron alloy bath in a converter furnace; a second electrode configured to be disposed in contact with the molten iron alloy bath or the slag ; a power supply device configured to supply a direct current to the first electrode and the second electrode via the slag ; a current detection unit configured to detect a direct current and provided in a middle of a wire connecting the power supply device to the first electrode or the second electrode , and a control device configured to control the direct current according to the magnitude of the direct current detected by the current detection unit so that the direct current does not exceed a preset maximum output current, and wherein the first electrode is a hollow top blowing oxygen feeding lance configured to blow oxygen, and the second electrode is provided in a furnace belly of the converter furnace, and the control device is configured to perform a control so as to cut off supply of the direct current when a resistance value between the first electrode and the second electrode is equal to or less than a preset resistance value after start of blowing.
Packaging machine for packaging paper rolls, comprising an operating group (PG) configured to obtain the formation of the packages, with a station (E) for the entrance of the rolls (R) to be packaged and the packaging sheets used for packaging and a station (U) for the exit of the packaged rolls; an elevator arranged below said entry station (E) ; a metal structure on which said operating group (PG) is mounted and in which a plane is arranged on which a folder and a counter- folder are formed at said entrance station (E) to fold the packaging sheets below the rolls of each package, wherein a conveyor is arranged for handling the packages being formed above said plane along a corresponding movement direction (RM) , and in which welding means are arranged for welding the sheets after their folding, wherein on the counter-folder is mounted a welding bar able to perform the welding of the packaging sheet below the rolls forming each package, wherein said welding bar is supported by a body interlocked with a mechanism which controls its exit through an opening made on the counter-folder and respectively its return below the counter-folder characterised in that said welding bar leaves an open space allowing air (A) to pass through said opening when the welding bar is below the counter-folder, and in that said conveyor consists of a plurality of independent carriages each of which is formed by a plate moved along an annular path which always has a section above the said plane and on which is applied a row of teeth projecting from the same plate , the carriages being controlled such that, during the formation of the packages, three carriages which follow one another along said direction (RM) form two adjacent compartments (RV) in which the rolls (R) and the respective packing sheets are received, with a compartment (RV) upstream and another compartment (RV) downstream in relation to the direction (RM) , with a rear carriage , an intermediate carriage and a front carriage , in which the intermediate carriage forms the front side of the compartment (RV) located upstream and at the same time forms the back side of the compartment (RV) located downstream.
A compound of formula (IIB) or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -CH 2 - or -CH(CH 3 )-; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen or methyl; V represents C-R 22 or N; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy, hydroxy(C 1-6 )alkyl or C 1-6 alkoxy; or R 21 represents (C 3-7 )heterocycloalkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy. E represents -CH 2 - or -CH(CH 3 )-; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen or methyl; V represents C-R 22 or N; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy, hydroxy(C 1-6 )alkyl or C 1-6 alkoxy; or R 21 represents (C 3-7 )heterocycloalkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy.
A composition comprising a cross-linking compound and a cross-linking reaction additive selected from an organic acid and/or an acetate compound, wherein the cross-linking compound has a structure according to formula (IV): wherein A is an arene moiety having a molecular weight of less than 10,000 g/mol, R 1 is selected from a group consisting of hydroxide (-OH), amine (-NH 2 ), halide, ether, ester, or amide, and x is 2.0 to 6.0, wherein the cross-linking reaction additive is capable of reacting with the cross-linking compound to form a reactive intermediate in the form of an oligomer, which reactive intermediate oligomer is capable of cross-linking an organic polymer.
A transmitter for transmitting payload data using Orthogonal Frequency Division Multiplexed (OFDM) symbols, the transmitter comprising a frame builder configured to receive the payload data to be transmitted and to receive signalling data for use in detecting and recovering the payload data at a receiver, and to form the payload data into data-units for transmission, a modulator configured to modulate a plurality of sub-carriers of one or more OFDM symbols with the signalling data and the payload data in accordance with a modulation scheme to provide for each of the plurality of sub-carriers a modulation symbol, a transforming circuit comprising a constellation rotator configured to receive the modulation symbols from the modulator and to rotate the phase of the modulation symbols in accordance with a predetermined rotation angle, an I/Q interleaver, which is configured to receive real and imaginary components of the rotated modulation symbols for each of the one or more sub-carriers of the one or more OFDM symbols and to interleave the real component of the modulation symbols differently to the imaginary component, and an I/Q re-combiner configured to recombine signal samples representing one or both of the real or imaginary components into the modulation symbols for transmission, wherein the frequency interleaved real component of the modulation symbols is recombined with the imaginary component to form modulation cells for mapping onto the resource elements of the one or more OFDM symbols to carry the signalling data and payload data, a prefixing circuit for prefixing a guard interval to the one or more OFDM symbols, a transmission circuit for transmitting the one or more OFDM symbols, and an error correction encoder configured to error correction encode data units, and a controller which is configured to control the error correction encoder, the modulator and the transmission circuit to transmit the data units of the payload data in accordance with a repeat request-type protocol, wherein an amount by which adjacent signal samples representing one or both of the real or imaginary components are separated from one another after the I/Q interleaver is determined as a function of physical resources of a wireless access interface which are allocated for transmitting, the wireless access interface providing a plurality of physical resource blocks, each providing frequency resources for one of the OFDM symbols, the wireless access interface being divided in time into a plurality of subframes each of the subframes providing physical resource elements within each physical resource block for transmitting the sub-carriers of the OFDM symbols, the I/Q interleaver is configured to interleave the real and imaginary components in time and frequency in the physical resources provided by at least two subframes and at least two physical resource blocks to provide a greatest possible separation of the real and imaginary components of the rotated modulation symbols, and the rotation angle applied by the constellation rotator is different for different re-transmissions.
A substrate support comprising: a supporting unit including a plate member on which an inspection target (C) is placed and a transparent member ; and a light irradiation mechanism configured to irradiate light to increase a temperature of the inspection target (C), wherein the plate member is made of a transparent material, characterized in that each of the plate member and the transparent member is made of a low thermal expansion material having a linear expansion coefficient of 1.0×10 -6 /K or less, the plate member has a thermally sprayed film on a surface thereof, and the thermally sprayed film is heated by the light irradiated from the light irradiation mechanism . a supporting unit including a plate member on which an inspection target (C) is placed and a transparent member ; and a light irradiation mechanism configured to irradiate light to increase a temperature of the inspection target (C), wherein the plate member is made of a transparent material, characterized in that each of the plate member and the transparent member is made of a low thermal expansion material having a linear expansion coefficient of 1.0×10 -6 /K or less, the plate member has a thermally sprayed film on a surface thereof, and the thermally sprayed film is heated by the light irradiated from the light irradiation mechanism .
A method for removing a portion of sulfur contained in a hydrocarbon, comprising contacting said sulfur containing hydrocarbon in gaseous form to a catalytic composition comprising copper oxide in an amount ranging from 10 weight percent (wt%) to 50 wt%, zinc oxide in an amount ranging from 5 wt% to less than 20 wt%, aluminum oxide in an amount ranging from 20 wt% to 70 wt%, and further comprising CeO 2 in the form of particles ranging in diameter from 5 nm to 10 nm, in an amount ranging from 0.1 wt% to 10 wt% of said catalytic composition, wherein said catalytic composition has an X-ray amorphous oxide phase, and a formula Cu x Zn 1-x Al 2 O 4 wherein x ranges from 0.1 to 0.6, highly dispersed crystalline ZnO and CuO, in the presence of an oxygen containing gas to remove a portion of sulfur therefrom.
A photoelectric conversion element comprising: an n-type semiconductor substrate ; a p-type amorphous semiconductor film on the side of a first surface and side surface of the semiconductor substrate ; an n-type amorphous semiconductor film on the first surface side of the semiconductor substrate ; a p-electrode on the p-type amorphous semiconductor film ; and an n-electrode on the n-type amorphous semiconductor film , wherein the p-electrode is located on the p-type amorphous semiconductor film , which is placed on the first surface side and side surface of the semiconductor substrate , and characterized in that on the side surface of the semiconductor substrate , the p-type amorphous semiconductor film extends to be longer than the p-electrode . an n-type semiconductor substrate ; a p-type amorphous semiconductor film on the side of a first surface and side surface of the semiconductor substrate ; an n-type amorphous semiconductor film on the first surface side of the semiconductor substrate ; a p-electrode on the p-type amorphous semiconductor film ; and an n-electrode on the n-type amorphous semiconductor film , wherein the p-electrode is located on the p-type amorphous semiconductor film , which is placed on the first surface side and side surface of the semiconductor substrate , and characterized in that on the side surface of the semiconductor substrate , the p-type amorphous semiconductor film extends to be longer than the p-electrode .
Delivery vehicle for delivery, in particular autonomously, of consignments to different locations along a delivery route, with a loading compartment comprising a shelf system for shelves holding consignments , wherein the shelf system is designed for receiving shelves in a plurality of storage positions (L) for provision of the shelves and in at least one removal position (E) for removal of consignments from the shelves and wherein the shelf system has at least one adjustment device for adjusting, in particular displacing, the shelves of the shelf system respectively between a plurality of storage positions (L) and the at least one removal position (E), wherein the at least one adjustment device is designed to adjust shelves respectively in stages one after the other in different directions in order to respectively adjust the shelf with the next consignment to be transferred into the removal position (E), characterised in that the shelf system has a grid with an empty space without shelf in the manner of a sliding puzzle and in that a shelf of the shelf system adjoining the empty space is provided so as to be displaceable to the empty space in the longitudinal direction or in the transverse direction in relation to the grid.
A jig set for mounting an energy storage system (ESS) pack, which is used to mount an ESS pack to a wall or a structure corresponding to the wall, the jig set comprising: a mounting unit having a partially protruding portion capable of being coupled to one surface of an ESS pack case ; and a handle unit comprising a handlebar to be grasped by an operator, and a locking bar , which is integrally connected to the handlebar and is attachable to and detachable from the protruding portion of the mounting unit , characterised in that , the mounting unit comprises a fastening portion , a latch portion , and a head portion , which are defined along a length direction of the mounting unit , the fastening portion being fixed and coupled to an inside of the ESS pack case , the latch portion and the head portion being exposed outside the ESS pack case , and the latch portion having a diameter less than a diameter of the head portion , and the locking bar has a shape of a plate having a thickness less than a length of the latch portion and comprises a latch catching portion at one side forming the thickness of the plate, the latch catching portion comprising an opening , which is larger than the diameter of the latch portion and smaller than the diameter of the head portion , and a catching space extending inward from the opening . a mounting unit having a partially protruding portion capable of being coupled to one surface of an ESS pack case ; and a handle unit comprising a handlebar to be grasped by an operator, and a locking bar , which is integrally connected to the handlebar and is attachable to and detachable from the protruding portion of the mounting unit , characterised in that , the mounting unit comprises a fastening portion , a latch portion , and a head portion , which are defined along a length direction of the mounting unit , the fastening portion being fixed and coupled to an inside of the ESS pack case , the latch portion and the head portion being exposed outside the ESS pack case , and the latch portion having a diameter less than a diameter of the head portion , and the locking bar has a shape of a plate having a thickness less than a length of the latch portion and comprises a latch catching portion at one side forming the thickness of the plate, the latch catching portion comprising an opening , which is larger than the diameter of the latch portion and smaller than the diameter of the head portion , and a catching space extending inward from the opening .
An underground mining vehicle comprising an electric motor for driving the vehicle , a rechargeable battery for supplying electric energy to the electric motor , a charging system comprising a charging circuit and a charging connection connected to the charging system for supplying electric energy to the charging system from an electric power source external to the vehicle for recharging the rechargeable battery , and a battery cooling system comprising at least one cooling circuit with cooling agent for cooling the battery , characterized in that the underground mining vehicle further comprises a measuring element for measuring cooling agent temperature (TM1, TM2, TM3) in the at least one cooling circuit , a control unit configured to control an operation of the charging system for controlling the recharging of the battery , the control unit being configured to comprise a number of different, selectable recharging modes (FRM, SLRM, SERM), wherein each selectable recharging mode has its own special recharging parameters that affect at least one of a recharging voltage, a recharging current, a recharging power and a duration of the recharging, and to control the recharging of the battery according to the selected recharging mode (FRM, SLRM, SERM) and to perform an automatic change from one selectable recharging mode (FRM, SLRM, SERM) to another selectable recharging mode (FRM, SLRM, SERM) in response to the cooling agent temperature (TM1, TM2, TM3) in the at least one cooling circuit exceeding an overheating limit (OL), and a transmitter controlled by the control unit at least for sending a status notification about an automatic change from one selectable recharging mode (FRM, SLRM, SERM) to another selectable recharging mode (FRM, SLRM, SERM) to an operator remote terminal device of an operator of the underground mining vehicle .