mhurhangee/patent-ind-claim-en huggingface dataset:
User equipment for receiving a downlink control channel, comprising: a receiving unit , configured to receive a candidate time-frequency resource group in which a first reference signal, RS, time-frequency resource is located, wherein the downlink control channel comprises a first downlink control channel and a second downlink control channel, and the first RS time-frequency resource corresponds to a first RS, the first downlink control channel comprises the first RS and first downlink control information, DCI; and the user equipment further comprises: a processing unit , configured to: determine the first RS time-frequency resource based on the candidate time-frequency resource group; determine a first DCI time-frequency resource corresponding to the first DCI based on the first RS time-frequency resource; detect the first RS on the first RS time-frequency resource, and demodulate the first DCI on the first DCI time-frequency resource by using the first RS; and determine a second time-frequency resource corresponding to the second downlink control channel based on the first DCI. a receiving unit , configured to receive a candidate time-frequency resource group in which a first reference signal, RS, time-frequency resource is located, wherein the downlink control channel comprises a first downlink control channel and a second downlink control channel, and the first RS time-frequency resource corresponds to a first RS, the first downlink control channel comprises the first RS and first downlink control information, DCI; and the user equipment further comprises: a processing unit , configured to: determine the first RS time-frequency resource based on the candidate time-frequency resource group; determine a first DCI time-frequency resource corresponding to the first DCI based on the first RS time-frequency resource; detect the first RS on the first RS time-frequency resource, and demodulate the first DCI on the first DCI time-frequency resource by using the first RS; and determine a second time-frequency resource corresponding to the second downlink control channel based on the first DCI. determine the first RS time-frequency resource based on the candidate time-frequency resource group; determine a first DCI time-frequency resource corresponding to the first DCI based on the first RS time-frequency resource; detect the first RS on the first RS time-frequency resource, and demodulate the first DCI on the first DCI time-frequency resource by using the first RS; and determine a second time-frequency resource corresponding to the second downlink control channel based on the first DCI.
Device for monitoring the unloading of a dump truck (KF), in particular of a dump truck (KF) loaded with bulk material (SG) as a load, which dump truck comprises a dump structure to be filled with a load, in particular a dump body (KM) of a dump semitrailer, and a sensor apparatus (SE) connected to the dump structure, characterized in that the sensor apparatus is suitable for determining a center of gravity of the dump structure when the dump structure is tipped in order to detect the unloading of the load.
An information transmission method, comprising: generating, by a network device, downlink control information DCI; determining, by the network device, a corresponding processing manner based on a format of the DCI , wherein each possible format of the DCI corresponds to a processing manner; performing, by the network device, processing in the processing manner in an encoding process of the DCI wherein the processing comprises scrambling a cyclic redundancy check, CRC, code of the DCI by using a radio network temporary identifier, RNTI; and sending, by the network device, the processed DCI over a physical downlink control channel PDCCH, characterized in that the processing manner comprises: performing bit reordering and/or resetting that corresponds to the format of the DCI on all or a part of the RNTI to produce a processed RNTI and scrambling the CRC code of the DCI by using the processed RNTI. generating, by a network device, downlink control information DCI; determining, by the network device, a corresponding processing manner based on a format of the DCI , wherein each possible format of the DCI corresponds to a processing manner; performing, by the network device, processing in the processing manner in an encoding process of the DCI wherein the processing comprises scrambling a cyclic redundancy check, CRC, code of the DCI by using a radio network temporary identifier, RNTI; and sending, by the network device, the processed DCI over a physical downlink control channel PDCCH, characterized in that the processing manner comprises: performing bit reordering and/or resetting that corresponds to the format of the DCI on all or a part of the RNTI to produce a processed RNTI and scrambling the CRC code of the DCI by using the processed RNTI.
Use of a tool guiding device in the assembly and adjustment step of furniture or furnishing items that provide at least one shoulder and a bottom , wherein front bodies and rear bodies each containing at least one joining group between said shoulder and said bottom , are positioned beneath the bottom , wherein said device comprises a parallelepiped body in which at least two housings (A, B, C and D) are formed for guiding a rod with a tip of a tool , a channel (21, 22, 23 and 24) extends in each of said at least two housings (A, B, C and D), hollowed in the upper part of the body , which protrudes from a rear surface of the body in correspondence with respective openings (26, 27, 28 and 29) positionable towards said front bodies and rear bodies containing said at least one joining group, at least one transmission rod being provided between said front body and said at least one joining group of said rear body .
A clothes care apparatus comprising: a main body including a clothes care room ; and a steam generating device provided to supply steam into the clothes care room, wherein the steam generating device includes: a steam container ; a wash liquid injecting part provided to inject a wash liquid for removing scale in the steam container; a heating part provided inside the steam container to heat the wash liquid; and a wash liquid discharging part provided to discharge the wash liquid having cleaned the scale using heat received from the heating part, wherein the wash liquid discharging part includes a second pump provided to discharge the wash liquid having cleaned the scale to an outside of the steam container. a main body including a clothes care room ; and a steam generating device provided to supply steam into the clothes care room, wherein the steam generating device includes: a steam container ; a wash liquid injecting part provided to inject a wash liquid for removing scale in the steam container; a heating part provided inside the steam container to heat the wash liquid; and a wash liquid discharging part provided to discharge the wash liquid having cleaned the scale using heat received from the heating part, wherein the wash liquid discharging part includes a second pump provided to discharge the wash liquid having cleaned the scale to an outside of the steam container. a steam container ; a wash liquid injecting part provided to inject a wash liquid for removing scale in the steam container; a heating part provided inside the steam container to heat the wash liquid; and a wash liquid discharging part provided to discharge the wash liquid having cleaned the scale using heat received from the heating part, wherein the wash liquid discharging part includes a second pump provided to discharge the wash liquid having cleaned the scale to an outside of the steam container.
A method of decoding a wireless signal, the method comprising: computing superposition codes based on a set of orthogonal binary codes, the set comprising a plurality of subsets, each superposition code corresponding to one of the subsets and comprising a combination of the binary codes in the corresponding subset; wherein computing the superposition code corresponding to a subset comprises: generating phased codes by applying a distinct phase to each binary code in the subset; and summing the phased codes; selecting a first subset of the plurality of subsets based on a correlation between a wireless signal and a first superposition code, the first superposition code corresponding to the first subset; selecting a first binary code from the first subset based on a correlation between the wireless signal and the first binary code; and decoding the wireless signal by operation of a data processor based on the first binary code. computing superposition codes based on a set of orthogonal binary codes, the set comprising a plurality of subsets, each superposition code corresponding to one of the subsets and comprising a combination of the binary codes in the corresponding subset; wherein computing the superposition code corresponding to a subset comprises: generating phased codes by applying a distinct phase to each binary code in the subset; and summing the phased codes; generating phased codes by applying a distinct phase to each binary code in the subset; and summing the phased codes; selecting a first subset of the plurality of subsets based on a correlation between a wireless signal and a first superposition code, the first superposition code corresponding to the first subset; selecting a first binary code from the first subset based on a correlation between the wireless signal and the first binary code; and decoding the wireless signal by operation of a data processor based on the first binary code.
A test system for power conversion devices, comprising: a first AC input/output section , configured to connect a power supply grid and an AC terminal of a first power conversion device; a second AC input/output section , configured to connect the power supply grid and an AC terminal of a second power conversion device, wherein a DC terminal of the first power conversion device is connected to a DC terminal of the second power conversion device, wherein the first power conversion device and the second power conversion device are bidirectional AC/DC conversion devices under test; a control unit , configured to control the first power conversion device and the second power conversion device to work simultaneously in different working modes, wherein the working modes comprise a first working mode and a second working mode; the first power conversion device works in the first working mode, and the second power conversion device works in the second working mode; or the first power conversion device works in the second working mode, and the second power conversion device works in the first working mode, wherein the first working mode is an AC input and DC output mode, and the second working mode is a DC input and AC output mode and an evaluation unit , configured to obtain the test data of the first power conversion device and the second power conversion device when they work in both working modes, and evaluate the first power conversion device and the second power conversion device according to the test data. a first AC input/output section , configured to connect a power supply grid and an AC terminal of a first power conversion device; a second AC input/output section , configured to connect the power supply grid and an AC terminal of a second power conversion device, wherein a DC terminal of the first power conversion device is connected to a DC terminal of the second power conversion device, wherein the first power conversion device and the second power conversion device are bidirectional AC/DC conversion devices under test; a control unit , configured to control the first power conversion device and the second power conversion device to work simultaneously in different working modes, wherein the working modes comprise a first working mode and a second working mode; the first power conversion device works in the first working mode, and the second power conversion device works in the second working mode; or the first power conversion device works in the second working mode, and the second power conversion device works in the first working mode, wherein the first working mode is an AC input and DC output mode, and the second working mode is a DC input and AC output mode and an evaluation unit , configured to obtain the test data of the first power conversion device and the second power conversion device when they work in both working modes, and evaluate the first power conversion device and the second power conversion device according to the test data.
A method of preparing a gas-adsorbing porous aromatic hyper-cross-linked polymer (HCP), comprising a synthesis step in which a monomer of formula (I): wherein A is selected from a C atom, a Si atom, a Ge atom, a Sn atom, an adamantane group, an ethane group and an ethene group, and wherein each of B, C, D and E is a 6-membered ring structure selected from the monovalent radicals of the compounds benzene, naphtalene, anthracene, phenanthrene, pyrene, optionally having one or more substituents selected from nitro, amino, hydroxyl, sulfonyl, halogen, phenyl, alkyl, haloalkyl, hydroxyalkyl, aminoalkyl, aryl, alkenyl and alkynyl groups, is reacted with a Friedel-Crafts catalyst in an aprotic organic solvent and with formaldehyde dimethyl acetal (FDA) as the cross-linking agent, wherein the concentration of the monomer of formula (I) in the aprotic organic solvent is comprised within the range from 0.1 to 0.6 M and wherein the monomer of formula (I):FDA molar ratio is comprised within the range from 1:3 to 1:40, said method of preparing comprising a further step subsequent to said synthesis step, wherein the porous organic polymer obtained upon said synthesis step is subjected to a heat treatment at a temperature comprised within the range of from 350 to 380°C. wherein A is selected from a C atom, a Si atom, a Ge atom, a Sn atom, an adamantane group, an ethane group and an ethene group, and wherein each of B, C, D and E is a 6-membered ring structure selected from the monovalent radicals of the compounds benzene, naphtalene, anthracene, phenanthrene, pyrene, optionally having one or more substituents selected from nitro, amino, hydroxyl, sulfonyl, halogen, phenyl, alkyl, haloalkyl, hydroxyalkyl, aminoalkyl, aryl, alkenyl and alkynyl groups, is reacted with a Friedel-Crafts catalyst in an aprotic organic solvent and with formaldehyde dimethyl acetal (FDA) as the cross-linking agent, wherein the concentration of the monomer of formula (I) in the aprotic organic solvent is comprised within the range from 0.1 to 0.6 M and wherein the monomer of formula (I):FDA molar ratio is comprised within the range from 1:3 to 1:40, said method of preparing comprising a further step subsequent to said synthesis step, wherein the porous organic polymer obtained upon said synthesis step is subjected to a heat treatment at a temperature comprised within the range of from 350 to 380°C.
A communication method, comprising: receiving, by a first device, first configuration information on a second frequency domain resource, wherein the first configuration information is used to indicate a first resource for the first device to send a first uplink reference signal on a first frequency domain resource and a second resource for the first device to send a second uplink reference signal on the second frequency domain resource; the first frequency domain resource is not used for transmitting uplink data and/or uplink control information; and the first uplink reference signal is used for uplink channel sounding, and the second uplink reference signal is used for uplink channel sounding; determining, by the first device based on the first configuration information, that a beam for sending the first uplink reference signal on a first antenna port is also a beam for sending the second uplink reference signal on a second antenna port, determining, based on the first configuration information, that a quasi co-location relationship is present between the first antenna port for the first uplink reference signal and the second antenna port for the second uplink reference signal; and sending, by the first device, the first uplink reference signal on the first antenna port. receiving, by a first device, first configuration information on a second frequency domain resource, wherein the first configuration information is used to indicate a first resource for the first device to send a first uplink reference signal on a first frequency domain resource and a second resource for the first device to send a second uplink reference signal on the second frequency domain resource; the first frequency domain resource is not used for transmitting uplink data and/or uplink control information; and the first uplink reference signal is used for uplink channel sounding, and the second uplink reference signal is used for uplink channel sounding; determining, by the first device based on the first configuration information, that a beam for sending the first uplink reference signal on a first antenna port is also a beam for sending the second uplink reference signal on a second antenna port, determining, based on the first configuration information, that a quasi co-location relationship is present between the first antenna port for the first uplink reference signal and the second antenna port for the second uplink reference signal; and sending, by the first device, the first uplink reference signal on the first antenna port.
An isolated monoclonal antibody that binds mesothelin, wherein the complementarity determining regions (CDRs) of the VH domain of the antibody comprise amino acid residues 31-36, 51-68 and 100-112 of SEQ ID NO: 13 and the CDRs of the VL domain of the antibody comprise amino acid residues 24-34, 50-56 and 89-101 of SEQ ID NO: 15.
A composition comprising a population of isolated peptides, the population comprising three or more different peptides, wherein each peptide in the population comprises the sequence or a fragment comprising at least 15 contiguous amino acids of SEQ ID NO: 3, wherein X5 is an amino acid selected from the group consisting of V and A, X7 is an amino acid selected from the group consisting of G, I and H, X11 is an amino acid selected from the group consisting of E, N, and Q, X18 is an amino acid selected from the group consisting of D and N, X21 is an amino acid selected from the group consisting of R, D, and N, X25 is an amino acid selected from the group consisting of Q, D, and E, X28 is an amino acid selected from the group consisting of E and N, X31 is an amino acid selected from the group consisting of L and V, X45 is an amino acid selected from the group consisting of K and Q, X48 is an amino acid selected from the group consisting of F and V, X51 is an amino acid selected from the group consisting of D and N, X54 is an amino acid selected from the group consisting of E and Q, X57 is an amino acid selected from the group consisting of S and Q, X60 is an amino acid selected from the group consisting of F and W, X63 is an amino acid selected from the group consisting of I and V, and X66 is an amino acid selected from the group consisting of Q and D; wherein the fragment comprises an epitope of SEQ ID NO: 3 and specifically binds to at least one antibody against antigens from an Anaplasma species.
A compound selected from the following group: ([Re(CO) 2 (Br) 4 ] 2- ), X=CH 3 ([Re II (CO) 2 Br 2 (N-methylimidazole) 2 ]), ([Re II (CO) 2 Br 2 (benzimidazole) 2 ]), X=CH 3 ([Re II (CO) 2 Br 2 (4-methyl pyridine) 2 ]), X=H ([Re II (CO) 2 Br 2 (pyridine) 2 ]), X=CH 2 -NH 2 ([Re I (CO) 2 Br 2 (4-picoline amine) 2 ] - ), wherein py is pyrimidine and "N≡C-Co" is cyanocobalamin; for use in the prophylaxis and/or treatment of diseases and/or medical condition selected from the group consisting of cardiovascular diseases, ischemia-reperfusion injury, inflammatory diseases, traumatic injury, transplant rejection, platelet aggregation and/or monocyte activation; neuron degeneration of the nervous system, radiation damage, cancer, penile erectile dysfunction, adult respiratory distress syndrome, and disorders of the circadian rhythm or for the ex-vivo administration to a tissue before grafting into a mammal in need thereof.
A carbon composite comprising: a plurality of carbon grains comprising amorphous carbon, natural graphite, carbon fiber, or a combination thereof, wherein at least some of the carbon grains in the plurality of carbon grains includes a plurality of pores; and 10-90 vol.% of a binder disposed between the plurality of carbon grains to bond the plurality of carbon grains, wherein the binder is a disintegrable binder selected from a group consisting of: an ester polymer; an amide polymer; an ether polymer; a polyurethane, a metal and an alloy. a plurality of carbon grains comprising amorphous carbon, natural graphite, carbon fiber, or a combination thereof, wherein at least some of the carbon grains in the plurality of carbon grains includes a plurality of pores; and 10-90 vol.% of a binder disposed between the plurality of carbon grains to bond the plurality of carbon grains, wherein the binder is a disintegrable binder selected from a group consisting of: an ester polymer; an amide polymer; an ether polymer; a polyurethane, a metal and an alloy.
A multichannel syringe functioning as a positive displacer for use with a metering device for metering liquids in a laboratory and having a first holding apparatus for a barrel holding apparatus of a syringe barrel and an axially movable second holding apparatus for a plunger holding apparatus of a syringe plunger, comprising: • a one-part plunger unit made of plastic that has a drive rod with the plunger holding apparatus at the top end, a crossmember , perpendicular to the drive rod, at the bottom end of the drive rod , and a plurality of syringe plungers parallel to the drive rod and projecting downward from the crossmember , • a one-part barrel unit made of plastic comprising a carrier and at least one row of syringe barrels projecting downward from the carrier and arranged parallel next to each other which each have bottom syringe openings , top syringe openings , and a cylindrical travel region in the interior for a syringe plunger of the plunger unit , • wherein each syringe plunger engages in a syringe barrel through a top syringe opening and is sealingly guided in the travel region , and • the barrel holding apparatus is arranged above the syringe barrel and is connected to the carrier . • a one-part plunger unit made of plastic that has a drive rod with the plunger holding apparatus at the top end, a crossmember , perpendicular to the drive rod, at the bottom end of the drive rod , and a plurality of syringe plungers parallel to the drive rod and projecting downward from the crossmember , • a one-part barrel unit made of plastic comprising a carrier and at least one row of syringe barrels projecting downward from the carrier and arranged parallel next to each other which each have bottom syringe openings , top syringe openings , and a cylindrical travel region in the interior for a syringe plunger of the plunger unit , • wherein each syringe plunger engages in a syringe barrel through a top syringe opening and is sealingly guided in the travel region , and • the barrel holding apparatus is arranged above the syringe barrel and is connected to the carrier .