mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication for a user equipment, UE, comprising: receiving information associated with a narrowband time-division duplex, TDD frame structure of a group of narrowband TDD frame structures for narrowband communications, the narrowband TDD frame structure including a set of contiguous uplink subframes; and determining an orthogonal sequence length associated with a reference signal, RS based on at least one of a number of uplink subframes or a number of slots in the set of contiguous uplink subframes; and transmitting the RS using the determined orthogonal sequence length. receiving information associated with a narrowband time-division duplex, TDD frame structure of a group of narrowband TDD frame structures for narrowband communications, the narrowband TDD frame structure including a set of contiguous uplink subframes; and determining an orthogonal sequence length associated with a reference signal, RS based on at least one of a number of uplink subframes or a number of slots in the set of contiguous uplink subframes; and transmitting the RS using the determined orthogonal sequence length.
A network-capable infrastructure device, including a first communication unit configured to communicate with at least one other infrastructure device, and a second communication unit configured to communicate with a commissioning device, and wherein the network-capable infrastructure device is configured to receive a key information by the second communication unit, and to communicate with the at least one other infrastructure device via the first communication unit using the received key information, wherein the first communication unit is configured to communicate by a wireless communication interface, which is configured to operate based on at least one communication standard suitable for a home automation network such as Bluetooth, Bluetooth LE, Bluetooth Smart, ZigBee, xAP, DSI, DALI; characterized in that the second communication unit is configured to communicate by acoustic communication.
A data synchronization method, comprising: sending, by a client, a data characteristic verification message carrying data characteristics of a data item in a client database, to a server, wherein the data characteristics uniquely identify data contents of the data item; comparing, by the server, the data characteristics carried in the data characteristic verification message with data characteristics which was received from the client and stored in a server database; determining, by the server, the data item is to be synchronized based on a result of the comparing, and sending the client a data characteristic verification response carrying information indicating the determined data item to be synchronized; and determining, by the client, the data item to be synchronized according to the information in the data characteristic verification response, and synchronizing the determined data item to be synchronized with the server. sending, by a client, a data characteristic verification message carrying data characteristics of a data item in a client database, to a server, wherein the data characteristics uniquely identify data contents of the data item; comparing, by the server, the data characteristics carried in the data characteristic verification message with data characteristics which was received from the client and stored in a server database; determining, by the server, the data item is to be synchronized based on a result of the comparing, and sending the client a data characteristic verification response carrying information indicating the determined data item to be synchronized; and determining, by the client, the data item to be synchronized according to the information in the data characteristic verification response, and synchronizing the determined data item to be synchronized with the server.
A methacrylic resin composition comprising a methacrylic resin and a methacrylic resin, and satisfying the following requirements to: each of the methacrylic resin and the methacrylic resin has a structural unit derived from a methacrylic acid ester, and a content of the structural unit derived from the methacrylic acid ester contained in the methacrylic resin composition is 98.0% by mass or more with respect to a total content of 100% by mass of all structural units contained in the methacrylic resin composition; W1 is 10 to 25, in which W1 is a ratio (%) of a peak area from a starting point to a molecular weight of 30,000 to a peak area from the starting point to an end point in a differential molecular weight distribution curve of the methacrylic resin composition; W2 is 3 to 15, in which W2 is a ratio (%) of a peak area from a molecular weight of 300,000 to the end point to a peak area from the starting point to the end point in the differential molecular weight distribution curve of the methacrylic resin composition; and a ratio (Mw/Mn) of a mass average molecular weight of the methacrylic resin composition to a number average molecular weight of the methacrylic resin composition is 2.0 to 3.2, wherein W1 and W2 as well as the ratio (Mw/Mn) are measured by the methods as specified in the description. each of the methacrylic resin and the methacrylic resin has a structural unit derived from a methacrylic acid ester, and a content of the structural unit derived from the methacrylic acid ester contained in the methacrylic resin composition is 98.0% by mass or more with respect to a total content of 100% by mass of all structural units contained in the methacrylic resin composition; W1 is 10 to 25, in which W1 is a ratio (%) of a peak area from a starting point to a molecular weight of 30,000 to a peak area from the starting point to an end point in a differential molecular weight distribution curve of the methacrylic resin composition; W2 is 3 to 15, in which W2 is a ratio (%) of a peak area from a molecular weight of 300,000 to the end point to a peak area from the starting point to the end point in the differential molecular weight distribution curve of the methacrylic resin composition; and a ratio (Mw/Mn) of a mass average molecular weight of the methacrylic resin composition to a number average molecular weight of the methacrylic resin composition is 2.0 to 3.2,
A medical occluder made of self-expanding shape memory material configured to be inserted into a patient's left atrial appendage cavity, said occluder comprising a lobe and a disc, the disc being connected to the lobe, the lobe is configured to move between a first size-restricted configuration and at least one second enlarged configuration, the restricted configuration is 1-40% smaller in diameter than the enlarged configuration, the lobe comprises at least one restriction element running inside the lobe to control the diameter of the lobe, characterised in that the at least one restriction element is one pair of surgical thread (4,5) running inside the lobe in the transverse direction and crossing each other in the middle of the lobe, each thread (4,5) is fixed at opposite parts of the lobe.
A multilayer film comprising: a central barrier layer comprising at least first and second layers of a polyvinylidene chloride (PVDC) polymer, wherein the central barrier layer additionally comprises in between the first and second PVDC layers, one or more polyamide layers which may be blended with polyvinvyl acetate, bonded to the PVDC layers with a bonding layer; an outer layer adjacent to an outer side of the first polyvinylidene chloride layer and comprising a heat resistant polymer having a melting point in the range of 190 °C to 265 °C; and a sealant layer adjacent to an outer side of the second polyvinylidene chloride layer comprising one or more polyolefins selected from the group consisting of elastomers, plastomers, polyethylene, polyolefin, polypropylene homopolymer, copolymer, or terpolymer; or a blend of low density polyethylene (LDPE), medium density polyethylene (MDPE), linear low density polyethylene (LLDPE), metallocene LLDPE (mLLDPE), very low density polyethylene (VLDPE), metallocene polyethylene (mPE), high density polyethylene (HDPE), single site metallocene catalyst -based LLDPE, ultra low density PE (ULDPE), ethylene-vinyl acetate, ethylene methacrylate, ethylene acrylic acid, ethylene methacrylic acid, ethylene methyl acrylate copolymer (EMAC), salts of ethylene acrylic acid or methacrylic acid, acid co-polymers and ionomers. a central barrier layer comprising at least first and second layers of a polyvinylidene chloride (PVDC) polymer, wherein the central barrier layer additionally comprises in between the first and second PVDC layers, one or more polyamide layers which may be blended with polyvinvyl acetate, bonded to the PVDC layers with a bonding layer; an outer layer adjacent to an outer side of the first polyvinylidene chloride layer and comprising a heat resistant polymer having a melting point in the range of 190 °C to 265 °C; and a sealant layer adjacent to an outer side of the second polyvinylidene chloride layer comprising one or more polyolefins selected from the group consisting of elastomers, plastomers, polyethylene, polyolefin, polypropylene homopolymer, copolymer, or terpolymer; or a blend of low density polyethylene (LDPE), medium density polyethylene (MDPE), linear low density polyethylene (LLDPE), metallocene LLDPE (mLLDPE), very low density polyethylene (VLDPE), metallocene polyethylene (mPE), high density polyethylene (HDPE), single site metallocene catalyst -based LLDPE, ultra low density PE (ULDPE), ethylene-vinyl acetate, ethylene methacrylate, ethylene acrylic acid, ethylene methacrylic acid, ethylene methyl acrylate copolymer (EMAC), salts of ethylene acrylic acid or methacrylic acid, acid co-polymers and ionomers.
A computer-based method of designing a PFK modulator, wherein the modulator is a compound of the formula I where A and C are selected from among the groups: -PO 4, -SO 4 or -CH 2 -SO 2 O -; and in case of the inhibitor C is -H; B is one of the bridges -O- or -S-; D is selected from among the groups -PO 4, -SO 4, -OH or -CH 2 -SO 2 O -; E is -H, # is a C atom with sp 3 hybridization; R1 and R2 are either -CXH-OH or -CX=O or -H where X is a hydrogen atom or bonds with other R groups or bonds with other R groups through the -CH 2 - group; and the -CH 2 - groups are between D and # and between C and #, wherein the modulator design includes: a) exploring the PFK atomic coordinates which constitute the binding site of the PKF effector presented in Tables 1a or 1b to obtain information about the three- dimensional structure of the protein surface; b) designing a PFK modulator using the effector binding site information given in Tables 1a or 1b. where A and C are selected from among the groups: -PO 4, -SO 4 or -CH 2 -SO 2 O -; and in case of the inhibitor C is -H; B is one of the bridges -O- or -S-; D is selected from among the groups -PO 4, -SO 4, -OH or -CH 2 -SO 2 O -; E is -H, # is a C atom with sp 3 hybridization; R1 and R2 are either -CXH-OH or -CX=O or -H where X is a hydrogen atom or bonds with other R groups or bonds with other R groups through the -CH 2 - group; and the -CH 2 - groups are between D and # and between C and #, wherein the modulator design includes: a) exploring the PFK atomic coordinates which constitute the binding site of the PKF effector presented in Tables 1a or 1b to obtain information about the three- dimensional structure of the protein surface; b) designing a PFK modulator using the effector binding site information given in Tables 1a or 1b. a) exploring the PFK atomic coordinates which constitute the binding site of the PKF effector presented in Tables 1a or 1b to obtain information about the three- dimensional structure of the protein surface; b) designing a PFK modulator using the effector binding site information given in Tables 1a or 1b.
A method, comprising: receiving a first set of intraoral images of a first intraoral site, wherein the first intraoral site comprises a preparation; determining an identity of the preparation; algorithmically performing the following by a processing device: locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and generating a virtual 3D model comprising the preparation based at least in part on the locked first set of intraoral images and in part on one or more additional intraoral images that also depict the preparation, wherein, to generate the virtual 3D model, the intraoral images on which the virtual 3D model is based are registered, wherein the portion of the locked first set of intraoral images is used for the preparation in the virtual 3D model, and wherein data from the one or more additional intraoral images is not used for the preparation in the virtual 3D model. receiving a first set of intraoral images of a first intraoral site, wherein the first intraoral site comprises a preparation; determining an identity of the preparation; algorithmically performing the following by a processing device: locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and locking the first set of intraoral images and selecting, based at least in part on the identity of the preparation, a portion of the first set of intraoral images depicting the preparation; and generating a virtual 3D model comprising the preparation based at least in part on the locked first set of intraoral images and in part on one or more additional intraoral images that also depict the preparation, wherein, to generate the virtual 3D model, the intraoral images on which the virtual 3D model is based are registered, wherein the portion of the locked first set of intraoral images is used for the preparation in the virtual 3D model, and wherein data from the one or more additional intraoral images is not used for the preparation in the virtual 3D model.
A method for operating a transmitting device, the method comprising: determining, by the transmitting device, a spreading pattern associated with the transmitting device, wherein the spreading pattern comprises one of a sparse code multiple access, SCMA, sparse code and a low density signature, LDS, sparse signature; placing, by the transmitting device, a pilot signal associated with the transmitting device into resources of a first transmission symbol for data transmission in accordance with the spreading pattern, wherein the first transmission symbol comprises an orthogonal frequency division multiplexing, OFDM, symbol; and transmitting, by the transmitting device, the first transmission symbol to a receiving device. determining, by the transmitting device, a spreading pattern associated with the transmitting device, wherein the spreading pattern comprises one of a sparse code multiple access, SCMA, sparse code and a low density signature, LDS, sparse signature; placing, by the transmitting device, a pilot signal associated with the transmitting device into resources of a first transmission symbol for data transmission in accordance with the spreading pattern, wherein the first transmission symbol comprises an orthogonal frequency division multiplexing, OFDM, symbol; and transmitting, by the transmitting device, the first transmission symbol to a receiving device.
A conveyor belt module, comprising: a top deck extending longitudinally in the direction of belt travel from a first end to a second end, laterally from a first edge to a second edge and in thickness from a top surface to an opposite bottom surface, and including a seat below the top surface for receiving a magnetic element, wherein the seat is provided by a lateral opening extending laterally inwards from the first edge into the top deck, wherein the lateral opening has a top wall and side walls having recesses; a magnetic element inserted in the seat; and a retainer that engages the seat to retain the magnetic element in the seat, wherein the retainer is provided by a self-retaining cap having a main body and barbed, flexible legs which are configured to be inserted into the lateral opening to cap the lateral opening and retain the magnetic element in the top deck, whereby the barbed, flexible legs include tabs having angled outer walls that are received in the recesses in the side walls of the lateral opening in the top deck. a top deck extending longitudinally in the direction of belt travel from a first end to a second end, laterally from a first edge to a second edge and in thickness from a top surface to an opposite bottom surface, and including a seat below the top surface for receiving a magnetic element, wherein the seat is provided by a lateral opening extending laterally inwards from the first edge into the top deck, wherein the lateral opening has a top wall and side walls having recesses; a magnetic element inserted in the seat; and a retainer that engages the seat to retain the magnetic element in the seat, wherein the retainer is provided by a self-retaining cap having a main body and barbed, flexible legs which are configured to be inserted into the lateral opening to cap the lateral opening and retain the magnetic element in the top deck, whereby the barbed, flexible legs include tabs having angled outer walls that are received in the recesses in the side walls of the lateral opening in the top deck.
A sensor management module comprising a connector to connect to a sensor in a sensor device, the sensor management module comprising: a sensor ID reader configured to acquire sensor identification information for identifying the sensor from the sensor; and a sensor manager configured to store module identification information for identifying the sensor management module, characterized in that if the sensor ID reader has acquired the sensor identification information, the sensor manager is configured to store the sensor identification information acquired by the sensor ID reader and the module identification information in association with each other, and if the sensor ID reader has not acquired the sensor identification information, the sensor manager is configured to output a failure notification indicating that the sensor identification information has not been acquired, configured to newly generate a unique new identification information for identifying the sensor as the sensor identification information based on a sensor replacement command input into the sensor management module in accordance with the failure notification, and configured to store the new identification information and the module identification information in association with each other. a sensor ID reader configured to acquire sensor identification information for identifying the sensor from the sensor; and a sensor manager configured to store module identification information for identifying the sensor management module, characterized in that if the sensor ID reader has acquired the sensor identification information, the sensor manager is configured to store the sensor identification information acquired by the sensor ID reader and the module identification information in association with each other, and if the sensor ID reader has not acquired the sensor identification information, the sensor manager is configured to output a failure notification indicating that the sensor identification information has not been acquired, configured to newly generate a unique new identification information for identifying the sensor as the sensor identification information based on a sensor replacement command input into the sensor management module in accordance with the failure notification, and configured to store the new identification information and the module identification information in association with each other.
A soluble Treponema pallidum antigen 47 (TpN47 antigen) comprising amino acid residues 63 to 174 (domain B) of Swiss Prot P29723 with the proviso that said antigen lacks amino acid residues 224 to 351 (domain C) of Swiss Prot P29723, wherein the TpN47 antigen is fused with a chaperone.
A method for modifying clay-activity and enhancing slump retention of a hydratable cementitious composition containing a clay-containing fine aggregate, comprising: combining with a clay-containing fine aggregate, in which the clay decreases dosage efficiency of a polycarboxylate dispersant in hydratable cementitious compositions, (a) a polycarboxylate cement dispersant, (b) a quaternary or poly-quaternary ammonium compound or a salt thereof which mitigates the effect of the clay on the polycarboxylate cement dispersant dosage efficiency when combined into a hydratable cementitious composition, and (c) at least one poly-hydroxyl or hydroxyl carboxylic acid or salt thereof selected from the group consisting of gluconic acid or salt thereof, citric acid or salt thereof, sorbitol, and glycerol. combining with a clay-containing fine aggregate, in which the clay decreases dosage efficiency of a polycarboxylate dispersant in hydratable cementitious compositions, (a) a polycarboxylate cement dispersant, (b) a quaternary or poly-quaternary ammonium compound or a salt thereof which mitigates the effect of the clay on the polycarboxylate cement dispersant dosage efficiency when combined into a hydratable cementitious composition, and (c) at least one poly-hydroxyl or hydroxyl carboxylic acid or salt thereof selected from the group consisting of gluconic acid or salt thereof, citric acid or salt thereof, sorbitol, and glycerol. (a) a polycarboxylate cement dispersant, (b) a quaternary or poly-quaternary ammonium compound or a salt thereof which mitigates the effect of the clay on the polycarboxylate cement dispersant dosage efficiency when combined into a hydratable cementitious composition, and (c) at least one poly-hydroxyl or hydroxyl carboxylic acid or salt thereof selected from the group consisting of gluconic acid or salt thereof, citric acid or salt thereof, sorbitol, and glycerol.
A radiation imaging system comprising: a radiation detector which detects received radiation and generates image data; an imaging controller which is communicable with the radiation detector; and a notifying unit which notifies whether a type of imaging to be performed is the still image shooting or the moving image shooting in a mode in which the type is instinctively recognizable by at least one of sense of sight using at least one of a color and a screen design. a radiation detector which detects received radiation and generates image data; an imaging controller which is communicable with the radiation detector; and a notifying unit which notifies whether a type of imaging to be performed is the still image shooting or the moving image shooting in a mode in which the type is instinctively recognizable by at least one of sense of sight using at least one of a color and a screen design.
A method for fabricating a three-dimensional object, comprising: (a) jetting (12, 20), by a laser-enhanced jetting-based 3D printer, a first reactive composition on a substrate to form a first layer of the 3D object; (b) after formation of the first layer of the 3D object, mixing a second reactive composition with the first reactive composition of the first layer by jetting the second reactive composition towards the first reactive composition with said laser-enhanced jetting-based 3D printer; (c) allowing the first and second reactive compositions to crosslink to form a compound; and (d) repeating steps (a) - (c) until the 3D object is formed. (a) jetting (12, 20), by a laser-enhanced jetting-based 3D printer, a first reactive composition on a substrate to form a first layer of the 3D object; (b) after formation of the first layer of the 3D object, mixing a second reactive composition with the first reactive composition of the first layer by jetting the second reactive composition towards the first reactive composition with said laser-enhanced jetting-based 3D printer; (c) allowing the first and second reactive compositions to crosslink to form a compound; and (d) repeating steps (a) - (c) until the 3D object is formed.