mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a main body provided with an inner case and an outer case ; a storage compartment formed inside of the inner case ; a door configured to open or close an open front surface of the storage compartment ; an insulation material provided between the inner case and the outer case to insulate the storage compartment ; a flange provided between the inner case and the outer case to face the door and having an anisotropy of different heat resistance distribution to insulate the storage compartment , together with the insulation material ; and a sealing member provided between the door and the flange to prevent the cool air of the storage compartment from being discharged to the outside, wherein the sealing member is installed in the door to face the flange , and the flange comprises a contact surface configured to be closely contacted with the sealing member according to opening or closing of the door and characterized in that a perforated section is formed in at least one portion of the contact surface . a main body provided with an inner case and an outer case ; a storage compartment formed inside of the inner case ; a door configured to open or close an open front surface of the storage compartment ; an insulation material provided between the inner case and the outer case to insulate the storage compartment ; a flange provided between the inner case and the outer case to face the door and having an anisotropy of different heat resistance distribution to insulate the storage compartment , together with the insulation material ; and a sealing member provided between the door and the flange to prevent the cool air of the storage compartment from being discharged to the outside, wherein the sealing member is installed in the door to face the flange , and the flange comprises a contact surface configured to be closely contacted with the sealing member according to opening or closing of the door and characterized in that a perforated section is formed in at least one portion of the contact surface .
A nacelle for a wind turbine , said nacelle comprising an assembly , said assembly comprising: a shaft housing comprising: a first bearing ; and a second bearing axially spaced apart from the first bearing ; a shaft extending axially within the shaft housing and being at least partly supported by the first bearing and the second bearing for rotation relative to the shaft housing , a radially outer portion of the shaft comprising at least one shaft engagement formation positioned between the first bearing and the second bearing ; a retention mechanism moveable axially between: an engaged position in which the retention mechanism can engage the at least one shaft engagement formation , such that rotation of the shaft is constrained; and a disengaged position in which the retention mechanism cannot engage the at least one shaft engagement formation , thereby allowing rotation of the shaft . a shaft housing comprising: a first bearing ; and a second bearing axially spaced apart from the first bearing ; a first bearing ; and a second bearing axially spaced apart from the first bearing ; a shaft extending axially within the shaft housing and being at least partly supported by the first bearing and the second bearing for rotation relative to the shaft housing , a radially outer portion of the shaft comprising at least one shaft engagement formation positioned between the first bearing and the second bearing ; a retention mechanism moveable axially between: an engaged position in which the retention mechanism can engage the at least one shaft engagement formation , such that rotation of the shaft is constrained; and a disengaged position in which the retention mechanism cannot engage the at least one shaft engagement formation , thereby allowing rotation of the shaft . an engaged position in which the retention mechanism can engage the at least one shaft engagement formation , such that rotation of the shaft is constrained; and a disengaged position in which the retention mechanism cannot engage the at least one shaft engagement formation , thereby allowing rotation of the shaft .
Method for immediate and reaction-free transmission of log messages from at least one first network (NW1) to a second network (NW2), wherein: - the log messages are conveyed in the first network (NW1) from at least one device (C) to a first log server (LS1) (S1), - the log messages are monitored continuously by means of a monitoring device , and the log messages are forwarded to the second network (NW2) individually and at once (S2), - each individual monitored log message is transmitted from the first network (NW1) to the second network (NW2) in a reaction-free manner via a one-way data transmission unit (S3), and - the log messages are provided in the second network (NW2) to a second log server (LS2) (S4), wherein the monitored and conveyed log messages are evaluated in the second network and an integrity check on the log messages is performed. - the log messages are conveyed in the first network (NW1) from at least one device (C) to a first log server (LS1) (S1), - the log messages are monitored continuously by means of a monitoring device , and the log messages are forwarded to the second network (NW2) individually and at once (S2), - each individual monitored log message is transmitted from the first network (NW1) to the second network (NW2) in a reaction-free manner via a one-way data transmission unit (S3), and - the log messages are provided in the second network (NW2) to a second log server (LS2) (S4),
A resource indication method, comprising: receiving (S320), by a terminal device, first indication information sent by a network device, wherein the first indication information is used to indicate a mapping type of a physical shared channel, and the mapping type of the physical shared channel is a first type or a second type; and determining (S330), by the terminal device, time domain positions occupied by demodulation reference signals, DMRSs, in a resource unit based on a position index of the last symbol occupied by the physical shared channel in the resource unit, when the mapping type of the physical shared channel is the first type; determining (S330), by the terminal device, time domain positions occupied by DMRSs in a resource unit based on the a quantity of symbols occupied by the physical shared channel in the resource unit, when the mapping type of the physical shared channel is the second type. receiving (S320), by a terminal device, first indication information sent by a network device, wherein the first indication information is used to indicate a mapping type of a physical shared channel, and the mapping type of the physical shared channel is a first type or a second type; and determining (S330), by the terminal device, time domain positions occupied by demodulation reference signals, DMRSs, in a resource unit based on a position index of the last symbol occupied by the physical shared channel in the resource unit, when the mapping type of the physical shared channel is the first type; determining (S330), by the terminal device, time domain positions occupied by DMRSs in a resource unit based on the a quantity of symbols occupied by the physical shared channel in the resource unit, when the mapping type of the physical shared channel is the second type.
A laser projection device for drape-molding a part on a mold with plies, this device comprising: - a support allowing positioning the mold for the drape-molding, this support comprising a fixed element and a movable element capable of modifying the spatial arrangement of the mold relative to this fixed element , - at least one laser projector arranged to draw contours on the mold , to delimit areas (11-15) for depositing the plies, - calibration patterns (41-43, 51-53) adapted to be attached on the mold and/or on the movable element of the support , the projector comprising a detection system arranged to detect the patterns, - a computer programmed to determine the position of the calibration patterns detected by the detection system, relative to the projector , and to determine the spatial arrangement of the mold according to the position of these patterns, this device being characterized in that it further comprises one or several encoder(s) arranged to measure a displacement of the movable element relative to the fixed element , and in that the computer is programmed to determine the theoretical position of the patterns (41-43, 51-53) according to a displacement of the movable element measured by the encoder(s), so as to determine the spatial arrangement of the mold when said spatial arrangement has been modified by displacing the movable element . - a support allowing positioning the mold for the drape-molding, this support comprising a fixed element and a movable element capable of modifying the spatial arrangement of the mold relative to this fixed element , - at least one laser projector arranged to draw contours on the mold , to delimit areas (11-15) for depositing the plies, - calibration patterns (41-43, 51-53) adapted to be attached on the mold and/or on the movable element of the support , the projector comprising a detection system arranged to detect the patterns, - a computer programmed to determine the position of the calibration patterns detected by the detection system, relative to the projector , and to determine the spatial arrangement of the mold according to the position of these patterns, this device being characterized in that it further comprises one or several encoder(s) arranged to measure a displacement of the movable element relative to the fixed element , and in that the computer is programmed to determine the theoretical position of the patterns (41-43, 51-53) according to a displacement of the movable element measured by the encoder(s), so as to determine the spatial arrangement of the mold when said spatial arrangement has been modified by displacing the movable element .
Horological regulator mechanism including, arranged on a plate , a resonator mechanism with a quality factor Q, and an escapement mechanism which is arranged to be subjected to a torque from drive means included in a movement , said resonator mechanism including an inertial element arranged to oscillate with respect to said plate , said inertial element being subjected to the action of resilient return means directly or indirectly attached to said plate , and said inertial element being arranged to cooperate indirectly with an escape wheel set included in said escapement mechanism , wherein said resonator mechanism is a resonator with a virtual pivot rotating about a main axis (DP), with a flexure bearing including at least two flexible blades , and including an impulse pin integral with said inertial element , and wherein said escapement mechanism includes a pallet-lever pivoting about a secondary axis (DS) and including a pallet-lever fork arranged to cooperate with said impulse pin , and is a detached escapement mechanism, in the operating cycle of which said resonator mechanism has at least one phase of freedom in which said impulse pin is at a distance from said pallet-lever fork , characterised in that said main axis (DP), said secondary axis (DS) and the pivot axis (DE) of said escape wheel set , are arranged centred at a right angle, the vertex of which lies on said secondary axis (DS), and in that the overall angle of resonator lift (β), during which said impulse pin is in contact with said pallet-lever fork , is less than 10°.
An apparatus for recovering energy from a papermaking machine , the papermaking machine comprising a forming wire loop driven around a lead roll , a fabric loop driven around a forming roll , and a headbox configured to inject a stock into a moving sandwich created by the forming wire and fabric loops, the apparatus comprising: a turbine coupled to a generator ; a guide plate shaped to direct water ejected through the forming wire into the turbine, the guide plate terminating in a terminal edge proximate the turbine, characterized by an actuator coupled to the guide plate; and a pivot coupled to the guide plate, the actuator and pivot operable to adjust the guide plate such that an angle between: an alignment terminal surface for defining and/or directing ejected water into the turbine comprising the terminal edge of the guide plate; and a tangent of the turbine at a point at which an extension line of the alignment terminal surface from the terminal edge to the turbine intersects the turbine, is between about 15 and 35 degrees. a turbine coupled to a generator ; a guide plate shaped to direct water ejected through the forming wire into the turbine, the guide plate terminating in a terminal edge proximate the turbine, characterized by an actuator coupled to the guide plate; and a pivot coupled to the guide plate, the actuator and pivot operable to adjust the guide plate such that an angle between: an alignment terminal surface for defining and/or directing ejected water into the turbine comprising the terminal edge of the guide plate; and a tangent of the turbine at a point at which an extension line of the alignment terminal surface from the terminal edge to the turbine intersects the turbine, is between about 15 and 35 degrees.
A bulk crystal of group III nitride having a composition of Ga x Al y In 1-x-y N (0≤x≤1, 0≤x+y≤1) and a thickness greater than 1 millimeter wherein the bulk crystal has at least three portions, (a) a first portion comprising a seed crystal formed by hydride vapor phase epitaxy containing a dopant other than oxygen and having a first major face and a second major face, the first major face having an electron concentration, N 1seed , and the second major face having an electron concentration N 2seed , (b) a second portion formed by ammonothermal growth on the first major face of the seed crystal and comprising a first crystalline region, wherein the first crystalline region has an electron concentration, N 1st-xtal , (c) a third portion formed by ammonothermal growth on the second major face of the seed crystal and comprising a second crystalline region, wherein said second crystalline region has an electron concentration N 2nd-xtal , and (d) wherein the electron concentration of the seed crystal, the first crystalline region, and the second crystalline region satisfy at least one of the following relationships: 0.1 < N 1 st-xtal / N 1 seed < 10 and / or 0.1 < N 2 nd-xtal / N 2 seed < 10 . (a) a first portion comprising a seed crystal formed by hydride vapor phase epitaxy containing a dopant other than oxygen and having a first major face and a second major face, the first major face having an electron concentration, N 1seed , and the second major face having an electron concentration N 2seed , (b) a second portion formed by ammonothermal growth on the first major face of the seed crystal and comprising a first crystalline region, wherein the first crystalline region has an electron concentration, N 1st-xtal , (c) a third portion formed by ammonothermal growth on the second major face of the seed crystal and comprising a second crystalline region, wherein said second crystalline region has an electron concentration N 2nd-xtal , and (d) wherein the electron concentration of the seed crystal, the first crystalline region, and the second crystalline region satisfy at least one of the following relationships: 0.1 < N 1 st-xtal / N 1 seed < 10 and / or 0.1 < N 2 nd-xtal / N 2 seed < 10 .
A secondary battery, comprising: a negative electrode plate that comprises a negative electrode film, wherein the negative electrode film comprises a negative electrode active material; electrolyte that comprises an electrolyte salt, an organic solvent and an additive, wherein the negative electrode active material comprises a silicon-based material; the organic solvent consists of dimethyl carbonate (DMC), ethylene carbonate (EC), and ethyl methyl carbonate (EMC); the additive comprises one or more of the compounds shown in Formula 1 below; where, R 1 is selected from one or more of C2~C4 alkylene or halogenated alkylene, C2~C4 alkenylene or halogenated alkenylene, and C6~C18 arylene; the mass ratio of the compound shown in Formula 1 in the electrolyte is ≤1%; and the mass ratio of the dimethyl carbonate (DMC) in the organic solvent is ≤20%; the mass ratio of EC in the organic solvent is ≤15%; preferably, the mass ratio of EC in the organic solvent is ≤10%; and the mass ratio of EMC in the organic solvent is 65%~95%; preferably, the mass ratio of EMC in the organic solvent is 75%~95%. a negative electrode plate that comprises a negative electrode film, wherein the negative electrode film comprises a negative electrode active material; electrolyte that comprises an electrolyte salt, an organic solvent and an additive, wherein the negative electrode active material comprises a silicon-based material; the organic solvent consists of dimethyl carbonate (DMC), ethylene carbonate (EC), and ethyl methyl carbonate (EMC); the additive comprises one or more of the compounds shown in Formula 1 below; where, R 1 is selected from one or more of C2~C4 alkylene or halogenated alkylene, C2~C4 alkenylene or halogenated alkenylene, and C6~C18 arylene; the mass ratio of the compound shown in Formula 1 in the electrolyte is ≤1%; and the mass ratio of the dimethyl carbonate (DMC) in the organic solvent is ≤20%; the mass ratio of EC in the organic solvent is ≤15%; preferably, the mass ratio of EC in the organic solvent is ≤10%; and the mass ratio of EMC in the organic solvent is 65%~95%; preferably, the mass ratio of EMC in the organic solvent is 75%~95%. the negative electrode active material comprises a silicon-based material; the organic solvent consists of dimethyl carbonate (DMC), ethylene carbonate (EC), and ethyl methyl carbonate (EMC); the additive comprises one or more of the compounds shown in Formula 1 below; where, R 1 is selected from one or more of C2~C4 alkylene or halogenated alkylene, C2~C4 alkenylene or halogenated alkenylene, and C6~C18 arylene; the mass ratio of the compound shown in Formula 1 in the electrolyte is ≤1%; and the mass ratio of the dimethyl carbonate (DMC) in the organic solvent is ≤20%; the mass ratio of EC in the organic solvent is ≤15%; preferably, the mass ratio of EC in the organic solvent is ≤10%; and the mass ratio of EMC in the organic solvent is 65%~95%; preferably, the mass ratio of EMC in the organic solvent is 75%~95%.
Composition comprising platelet enriched plasma (PRP) and stem cell conditioned medium (SC CM) and optionally DMSO and/or a gelling agent, wherein said SC CM is the medium harvested after the culturing of mesenchymal stem cells.
A cooking utensil with double folding comprising: a body part of which one of cooking utensils such as scoops, forks, spoons, spatulas, ladles and cooking spoons is selectively formed from an end; a handle part that has a stick shape so as to perform an action such as stirring, fixing, and the like during cooking; and a rotating part that is rotatable when the body part is connected to one side and a grab part is connected to the other side thereof, characterized in that the body part includes a first rack portion extended from one end thereof, the handle part includes a second rack portion extended from one end thereof, and the rotating part includes at least two or more holes formed in one side and the other side thereof so that one end is connected to the first rack portion and the other end is connected to the second rack portion to be doubly foldable, wherein one surface of the hole is opened so that the body part , the handle part , and the rotating part are completely separated from each other. a body part of which one of cooking utensils such as scoops, forks, spoons, spatulas, ladles and cooking spoons is selectively formed from an end; a handle part that has a stick shape so as to perform an action such as stirring, fixing, and the like during cooking; and a rotating part that is rotatable when the body part is connected to one side and a grab part is connected to the other side thereof, characterized in that the body part includes a first rack portion extended from one end thereof, the handle part includes a second rack portion extended from one end thereof, and the rotating part includes at least two or more holes formed in one side and the other side thereof so that one end is connected to the first rack portion and the other end is connected to the second rack portion to be doubly foldable, wherein one surface of the hole is opened so that the body part , the handle part , and the rotating part are completely separated from each other.
A tire comprising: a bead core arranged at an inside end part in a tire-radial direction; a bead filler which is extended from the bead core to an outer side in the tire-radial direction; an upper ply which has a main body extending from an outer side in the tire-radial direction to an inner side in the tire-radial direction, and a turnup part which is folded over the bead core and the bead filler , and extends to an outer side in the tire-radial direction; a reinforcement ply provided to overlap a tire-radial direction inside portion of the upper ply so as to cover the main body and the turnup part of the upper ply ; characterized in that a down ply which overlaps the turnup part of the upper ply and the reinforcement ply , and extends from an outer side in the tire-radial direction to an inner side in the tire-radial direction so as to encompass the bead core and the bead filler together with the upper ply , wherein an electronic component is positioned in a region which is surrounded by the upper ply , the down ply and the reinforcement ply . a bead core arranged at an inside end part in a tire-radial direction; a bead filler which is extended from the bead core to an outer side in the tire-radial direction; an upper ply which has a main body extending from an outer side in the tire-radial direction to an inner side in the tire-radial direction, and a turnup part which is folded over the bead core and the bead filler , and extends to an outer side in the tire-radial direction; a reinforcement ply provided to overlap a tire-radial direction inside portion of the upper ply so as to cover the main body and the turnup part of the upper ply ; characterized in that a down ply which overlaps the turnup part of the upper ply and the reinforcement ply , and extends from an outer side in the tire-radial direction to an inner side in the tire-radial direction so as to encompass the bead core and the bead filler together with the upper ply , wherein an electronic component is positioned in a region which is surrounded by the upper ply , the down ply and the reinforcement ply .