mhurhangee/ep-ind-claims huggingface dataset:
A system for tracking a plurality of mail units during transfer from a source location to a destination, the system comprising: a carrier unit configured to transport the plurality of mail units; a mover configured to load the mail units onto the carrier unit; an RF tag coupled to the carrier unit, wherein the RF tag is configured to identify the carrier unit and characterised in that: said RF tag is configured to store identifying information associated with each of the plurality of mail units; and a processing station in communication with the RF tag, wherein the processing station is configured to identify the location of at least one of the plurality of mail units based at least in part on the location of the carrier unit, and wherein said processing station is further configured to: receive an identifier of the carrier unit; receive an identifier for each of the plurality of mail units; and store data that associates the identifier of the carrier unit with the identifier of each of the plurality of mail units; and wherein the RF tag is configured to store at least one of: the weight of at least one of the plurality of mail units, the total weight of the plurality of mail units, the volume of at least one of the plurality of mail units, the total volume of the plurality of mail units, a mail class, an expiration date, and a destination. a carrier unit configured to transport the plurality of mail units; a mover configured to load the mail units onto the carrier unit; an RF tag coupled to the carrier unit, wherein the RF tag is configured to identify the carrier unit and characterised in that: said RF tag is configured to store identifying information associated with each of the plurality of mail units; and a processing station in communication with the RF tag, wherein the processing station is configured to identify the location of at least one of the plurality of mail units based at least in part on the location of the carrier unit, and wherein said processing station is further configured to: receive an identifier of the carrier unit; receive an identifier for each of the plurality of mail units; and store data that associates the identifier of the carrier unit with the identifier of each of the plurality of mail units; and wherein the RF tag is configured to store at least one of: the weight of at least one of the plurality of mail units, the total weight of the plurality of mail units, the volume of at least one of the plurality of mail units, the total volume of the plurality of mail units, a mail class, an expiration date, and a destination. receive an identifier of the carrier unit; receive an identifier for each of the plurality of mail units; and store data that associates the identifier of the carrier unit with the identifier of each of the plurality of mail units; and wherein the RF tag is configured to store at least one of: the weight of at least one of the plurality of mail units, the total weight of the plurality of mail units, the volume of at least one of the plurality of mail units, the total volume of the plurality of mail units, a mail class, an expiration date, and a destination.
A resin composition comprising: a biologically degradable resin; a heavy calcium carbonate; and acetyl tributyl citrate, wherein a mass ratio of the biologically degradable resin to the heavy calcium carbonate is 10:90 to 70:30,a content of polybutylene adipate terephthalate or polybutylene succinate adipate relative to the biologically degradable resin is 70% or more by mass, and a content of the acetyl tributyl citrate relative to the resin composition is 5.0% or more and 20.0% or less by mass, wherein the biologically degradable resin is composed of polybutylene adipate terephthalate and polylactic acid or polybutylene succinate adipate and polylactic acid, and the upper limit of the content of the heavy calcium carbonate relative to the resin composition is 90% or less by mass and the lower limit of the content of the heavy calcium carbonate relative to the resin composition is 30% or more by mass. a biologically degradable resin; a heavy calcium carbonate; and acetyl tributyl citrate, wherein a mass ratio of the biologically degradable resin to the heavy calcium carbonate is 10:90 to 70:30,a content of polybutylene adipate terephthalate or polybutylene succinate adipate relative to the biologically degradable resin is 70% or more by mass, and a content of the acetyl tributyl citrate relative to the resin composition is 5.0% or more and 20.0% or less by mass, wherein the biologically degradable resin is composed of polybutylene adipate terephthalate and polylactic acid or polybutylene succinate adipate and polylactic acid, and the upper limit of the content of the heavy calcium carbonate relative to the resin composition is 90% or less by mass and the lower limit of the content of the heavy calcium carbonate relative to the resin composition is 30% or more by mass.
A motor (2, 21), comprising a motor coil, wherein the motor coil comprises x sets of windings; x ≥ 1; x is an integer; a number of phases of an x th set of windings is m x; the motor (2, 21) is suitable to be operated by controlling each set of m x -phase windings by motor vector control; in each of the x sets of windings, each phase winding comprises n x coil branches; a first end of each of the n x coil branches of each phase winding is connected with a first end of a coil branch separated from the coil branch by an electrical angle of 360 degrees, to form m x phase endpoints; a second end of each of the n x coil branches of each phase winding is further connected with a second end of a coil branch separated from the coil branch by an electrical angle of P * (360 * k 1 + 360/ m x) degrees, to form n x neutral points; n x ≥ m x ≥2; n x ≥3; P = ± 1; 1 ≤ k 1 ≤ ( n x -1); and m x, n x, and k 1 are all integers. a number of phases of an x th set of windings is m x; the motor (2, 21) is suitable to be operated by controlling each set of m x -phase windings by motor vector control; in each of the x sets of windings, each phase winding comprises n x coil branches; a first end of each of the n x coil branches of each phase winding is connected with a first end of a coil branch separated from the coil branch by an electrical angle of 360 degrees, to form m x phase endpoints; a second end of each of the n x coil branches of each phase winding is further connected with a second end of a coil branch separated from the coil branch by an electrical angle of P * (360 * k 1 + 360/ m x) degrees, to form n x neutral points; n x ≥ m x ≥2; n x ≥3; P = ± 1; 1 ≤ k 1 ≤ ( n x -1); and m x, n x, and k 1 are all integers.
An in vitro method for fusing two or more cells comprising: - contacting a first cell with a second cell to form a third cell; wherein - the first cell is a modified cell comprising a myomerger nucleic acid, a first myomerger polypeptide, and a first myomaker polypeptide; wherein the first cell is a non-muscle cell; - the second cell comprises a second myomaker polypeptide and optionally comprises a second myomerger polypeptide; - the third cell is a multinucleated cell; - the myomerger nucleic acid sequence encodes a polypeptide comprising the first myomerger polypeptide and has at least an 80% identity to one or more of SEQ ID NO: 43, SEQ ID NO: 44, or SEQ ID NO: 45,; and - the first myomerger polypeptide sequence and the second myomerger polypeptide sequence each have at least an 80% identity to one or more of SEQ ID NO: 36, SEQ ID NO: 37, and SEQ ID NO: 38. - contacting a first cell with a second cell to form a third cell; wherein - the first cell is a modified cell comprising a myomerger nucleic acid, a first myomerger polypeptide, and a first myomaker polypeptide; wherein the first cell is a non-muscle cell; - the second cell comprises a second myomaker polypeptide and optionally comprises a second myomerger polypeptide; - the third cell is a multinucleated cell; - the myomerger nucleic acid sequence encodes a polypeptide comprising the first myomerger polypeptide and has at least an 80% identity to one or more of SEQ ID NO: 43, SEQ ID NO: 44, or SEQ ID NO: 45,; and - the first myomerger polypeptide sequence and the second myomerger polypeptide sequence each have at least an 80% identity to one or more of SEQ ID NO: 36, SEQ ID NO: 37, and SEQ ID NO: 38.
A computer-implemented method comprising: receiving operations data from a content management system by a client device, wherein the operations data comprises a log of operations; comparing a remote tree representing a server state of content items stored on the content management system to the log of operations to determine a subset of the log of operations to be applied to bring the remote tree up to date; executing the subset of the log of operations; updating, based on execution of the log of operations, the remote tree; determining that the state associated with the remote tree and a state associated with a sync tree are out of sync based on a difference between the remote tree and the sync tree, wherein the sync tree represents a difference between the state associated with the remote tree and the state associated with a local tree, the local tree representing the state for content items stored on the client device; generating, based on the difference between the state associated with the remote tree and a state associated with a sync tree, a set of operations configured to converge the state associated with the remote tree and the state associated with the local tree; and managing the execution of the set of operations. receiving operations data from a content management system by a client device, wherein the operations data comprises a log of operations; comparing a remote tree representing a server state of content items stored on the content management system to the log of operations to determine a subset of the log of operations to be applied to bring the remote tree up to date; executing the subset of the log of operations; updating, based on execution of the log of operations, the remote tree; determining that the state associated with the remote tree and a state associated with a sync tree are out of sync based on a difference between the remote tree and the sync tree, wherein the sync tree represents a difference between the state associated with the remote tree and the state associated with a local tree, the local tree representing the state for content items stored on the client device; generating, based on the difference between the state associated with the remote tree and a state associated with a sync tree, a set of operations configured to converge the state associated with the remote tree and the state associated with the local tree; and managing the execution of the set of operations.
An automatic elevator call system, comprising: a wireless signal apparatus installed in an elevator landing zone of an elevator system and broadcasting a corresponding wireless signal around, wherein the automatic elevator call system is configured to detect the wireless signal through a personal mobile terminal, and is capable of sending an elevator call request to the wireless signal apparatus automatically, characterised in that the automatic elevator call system further comprises: a counting unit configured to count, after an elevator call request corresponding to an identity of the personal mobile terminal is sent or received, the number of times the elevator call request corresponding to the identity is made within a predetermined time period; and an abnormal elevator call request judgment unit configured to judge, based on a comparison result between the number of times the elevator call request is made and a predetermined threshold, whether the elevator call request corresponding to the identity is a normal elevator call request operation. a wireless signal apparatus installed in an elevator landing zone of an elevator system and broadcasting a corresponding wireless signal around, wherein the automatic elevator call system is configured to detect the wireless signal through a personal mobile terminal, and is capable of sending an elevator call request to the wireless signal apparatus automatically, characterised in that the automatic elevator call system further comprises: a counting unit configured to count, after an elevator call request corresponding to an identity of the personal mobile terminal is sent or received, the number of times the elevator call request corresponding to the identity is made within a predetermined time period; and an abnormal elevator call request judgment unit configured to judge, based on a comparison result between the number of times the elevator call request is made and a predetermined threshold, whether the elevator call request corresponding to the identity is a normal elevator call request operation. a counting unit configured to count, after an elevator call request corresponding to an identity of the personal mobile terminal is sent or received, the number of times the elevator call request corresponding to the identity is made within a predetermined time period; and an abnormal elevator call request judgment unit configured to judge, based on a comparison result between the number of times the elevator call request is made and a predetermined threshold, whether the elevator call request corresponding to the identity is a normal elevator call request operation.
A method performed by a network entity, the method comprising: receiving an indication from a wireless transmit/receive unit, WTRU, that is configured to detect, based on fingerprint information, that the WTRU has entered into a proximity of a home Node-B or home evolved Node-B, HNB, cell whose closed subscriber group, CSG, ID is in a whitelist of the WTRU, wherein the indication indicates that the WTRU has entered into the proximity of the HNB and the indication includes a frequency of the HNB cell and a Radio Access Technology, RAT, of the HNB cell; transmitting a measurement configuration message to the WTRU to perform measurements on the HNB cell. receiving an indication from a wireless transmit/receive unit, WTRU, that is configured to detect, based on fingerprint information, that the WTRU has entered into a proximity of a home Node-B or home evolved Node-B, HNB, cell whose closed subscriber group, CSG, ID is in a whitelist of the WTRU, wherein the indication indicates that the WTRU has entered into the proximity of the HNB and the indication includes a frequency of the HNB cell and a Radio Access Technology, RAT, of the HNB cell; transmitting a measurement configuration message to the WTRU to perform measurements on the HNB cell.
A welding helmet comprising: a head suspension system; and a protective shield forming a see-through window, the protective shield having a lower end arranged next to a wearer's chin region when the helmet is worn, one or more retention structures being provided at the lower end for mating with corresponding counter structures on both a first neck shield and a second neck shield, wherein the first neck has a predetermined permanent shape and the second neck shield has a bib exhibiting flexible properties providing the bib with a self-adapting shape, wherein either the first or second neck shield can be attached to the lower end,wherein the second neck shield has an attachment frame and a bib, wherein the attachment frame is removably attachable to the protective shield, and wherein the attachment frame has a greater bending stiffness than the bib. a head suspension system; and a protective shield forming a see-through window, the protective shield having a lower end arranged next to a wearer's chin region when the helmet is worn, one or more retention structures being provided at the lower end for mating with corresponding counter structures on both a first neck shield and a second neck shield, wherein the first neck has a predetermined permanent shape and the second neck shield has a bib exhibiting flexible properties providing the bib with a self-adapting shape, wherein either the first or second neck shield can be attached to the lower end,wherein the second neck shield has an attachment frame and a bib, wherein the attachment frame is removably attachable to the protective shield, and wherein the attachment frame has a greater bending stiffness than the bib.
A motor-operated valve comprising: a motor composed of a rotor and a stator; a valve member being moved toward and away from a valve seat formed on the valve body; and a planetary gear mechanism comprising: a sun gear; one or more planet gears (94, 95) in engagement with the sun gear; an internally toothed fixed gear in engagement with the planet gears; and an internally toothed turning gear in engagement with the planet gears; wherein each planet gear is composed of a first planet gear and a second planet gear, the sun gear is in engagement with each second planet gear, wherein the rotation of the rotor is transmitted to the sun gear, and the internally toothed turning gear is connected to the valve member, characterized in that the first planet gear is in engagement with the internally toothed fixed gear and the internally toothed turning gear, and the second planet gear is formed integrally with the end portion of the first planet gear; wherein the second planet gear has a smaller module (m) than the first planet gear, wherein the module (m) is defined as m = pitch diameter/number of teeth. a motor composed of a rotor and a stator; a valve member being moved toward and away from a valve seat formed on the valve body; and a planetary gear mechanism comprising: a sun gear; one or more planet gears (94, 95) in engagement with the sun gear; an internally toothed fixed gear in engagement with the planet gears; and an internally toothed turning gear in engagement with the planet gears; wherein each planet gear is composed of a first planet gear and a second planet gear, the sun gear is in engagement with each second planet gear, wherein the rotation of the rotor is transmitted to the sun gear, and the internally toothed turning gear is connected to the valve member, characterized in that the first planet gear is in engagement with the internally toothed fixed gear and the internally toothed turning gear, and the second planet gear is formed integrally with the end portion of the first planet gear; wherein the second planet gear has a smaller module (m) than the first planet gear, wherein the module (m) is defined as m = pitch diameter/number of teeth. a sun gear; one or more planet gears (94, 95) in engagement with the sun gear; an internally toothed fixed gear in engagement with the planet gears; and an internally toothed turning gear in engagement with the planet gears; wherein each planet gear is composed of a first planet gear and a second planet gear, the sun gear is in engagement with each second planet gear, wherein the rotation of the rotor is transmitted to the sun gear, and the internally toothed turning gear is connected to the valve member, characterized in that the first planet gear is in engagement with the internally toothed fixed gear and the internally toothed turning gear, and the second planet gear is formed integrally with the end portion of the first planet gear; wherein the second planet gear has a smaller module (m) than the first planet gear, wherein the module (m) is defined as m = pitch diameter/number of teeth.
An engine assembly for a vehicle, with an internal combustion engine and a thermal engine, wherein the thermal engine has at least one closed-off working chamber (14, 20) which is filled with a gas, with a first cylinder in which a first piston is mounted so as to be displaceable in the longitudinal direction between a starting position and an expansion position, and with a second cylinder in which a second piston is mounted so as to be displaceable in the longitudinal direction between a starting position and an expansion position, with at least one heating device (36, 38) for heating the gas in at least one heating region (40, 42) of the working chamber (14, 20) and at least one cooling device for cooling the gas in at least one cooling region (32, 34) of the working chamber (14, 20), and also with at least one transfer line (18, 24) which fluidically connects the at least one heating region (40, 42) and the at least one cooling region (32, 34), wherein the gas heated in the heating region (40, 42) can urge the first piston from a starting position into an expansion position and then flow through the transfer line (18, 24) into the cooling region (32, 34) and can urge the second piston into the expansion position, and wherein the first piston and the second piston are coupled in such a way that the second piston is moved from the starting position into the expansion position with a delay over the first piston, and that upon a movement of the second piston from the starting position into the expansion position the first piston is moved in the direction of the starting position, wherein the first and/or the second piston (26, 28) is or are magnetic and an electrical coil (52, 54) is provided which surrounds the first and/or the second cylinder (16, 22) between the starting position and expansion position in the peripheral direction, characterised in that the internal combustion engine has an emission control device and the transfer line (18, 24) leads at least in portions through the emission control device, with a heat exchange taking place between the emission control device and the gas flowing in the transfer line (18, 24).
An aqueous radiation curable coating composition comprising at least one radiation curable polymer and at least one organic matting polymer selected from acrylic copolymers having a viscosity in the range of 10 to 10000 mPa.s, as measured on a 0.5% by weight water solution of the matting organic polymer at a pH of from 7 to 8 according to DIN EN ISO 3219.
A method of preparing a delivery system using a 3D printer, the method comprising: (a) depositing a first printing material, a second printing material, or both to form a first outer layer, (b) depositing the first printing material, the second printing material, or both to form one or more inner layers, (c) depositing the first printing material, the second printing material, or both to form a second outer layer on the inner layers, so that a solid or semisolid layer-by-layer construction is thus prepared, and (d) curing the construction, thereby preparing the delivery system, wherein the first printing material contains a polymer having a melting point of 45 °C to 300 °C, wherein the second printing material contains an active material, and the active material is a fragrance, flavor, malodor counteracting agent, or combination thereof; and wherein the inner layer contains a higher concentration of the active material and/or a higher vapor pressure than the outer layers. (a) depositing a first printing material, a second printing material, or both to form a first outer layer, (b) depositing the first printing material, the second printing material, or both to form one or more inner layers, (c) depositing the first printing material, the second printing material, or both to form a second outer layer on the inner layers, so that a solid or semisolid layer-by-layer construction is thus prepared, and (d) curing the construction, thereby preparing the delivery system, wherein the first printing material contains a polymer having a melting point of 45 °C to 300 °C, wherein the second printing material contains an active material, and the active material is a fragrance, flavor, malodor counteracting agent, or combination thereof; and wherein the inner layer contains a higher concentration of the active material and/or a higher vapor pressure than the outer layers.