mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator with a door hinge assembly, comprising: a refrigerator door pivotally coupled to a main body of the refrigerator and provided with at least one groove ; and a hinge unit enabling the refrigerator door to pivot, wherein the hinge unit comprises: a hinge pin providing a pivot axis of the refrigerator door ; and a hook member provided at a side of the hinge pin and inserted and hooked in the at least one groove , characterized in that the at least one groove comprises an insertion groove in which the hinge pin and the hook member are inserted during assembly, a hook groove provided with a hook rib hooked on the hook member , and a connection groove communicating the insertion groove with the hook groove , the insertion groove , the connection groove and the hook groove being depressed downward from a top surface of the refrigerator door , and wherein, during assembly, the hinge pin moves from the insertion groove to the hook groove sideward via the connection groove and the hook member is hooked on the hook rib . a refrigerator door pivotally coupled to a main body of the refrigerator and provided with at least one groove ; and a hinge unit enabling the refrigerator door to pivot, wherein the hinge unit comprises: a hinge pin providing a pivot axis of the refrigerator door ; and a hook member provided at a side of the hinge pin and inserted and hooked in the at least one groove , characterized in that the at least one groove comprises an insertion groove in which the hinge pin and the hook member are inserted during assembly, a hook groove provided with a hook rib hooked on the hook member , and a connection groove communicating the insertion groove with the hook groove , the insertion groove , the connection groove and the hook groove being depressed downward from a top surface of the refrigerator door , and wherein, during assembly, the hinge pin moves from the insertion groove to the hook groove sideward via the connection groove and the hook member is hooked on the hook rib . a hinge pin providing a pivot axis of the refrigerator door ; and a hook member provided at a side of the hinge pin and inserted and hooked in the at least one groove , characterized in that the at least one groove comprises an insertion groove in which the hinge pin and the hook member are inserted during assembly, a hook groove provided with a hook rib hooked on the hook member , and a connection groove communicating the insertion groove with the hook groove , the insertion groove , the connection groove and the hook groove being depressed downward from a top surface of the refrigerator door , and wherein, during assembly, the hinge pin moves from the insertion groove to the hook groove sideward via the connection groove and the hook member is hooked on the hook rib .
A liquid crystal film cell comprising a first base film , a liquid crystal layer and a second base film sequentially, the liquid crystal film cell further comprising an expansion control layer (51, 52; 61, 62) disposed on one side of the first base film or one side of the second base film , so that the first base film or the second base film is deformed, as the temperature rises, into the liquid crystal film cell to maintain the cell gap of the liquid crystal fim cell, wherein: if the one side on which the expansion control layer (51, 52; 61, 62) is disposed is opposite to the liquid crystal layer , the expansion control layer (51, 52; 61, 62) has a thermal expansion coefficient based on length at a temperature of 25°C to 120°C smaller than that of the base film on the side of which the expansion control layer (51, 52; 61, 62) is disposed, and if the one side on which the expansion control layer (51, 52; 61, 62) is disposed is facing the liquid crystal layer , the expansion control layer (51, 52; 61, 62) has a thermal expansion coefficient based on length at a temperature of 25°C to 120°C higher than that of the base film on the side of which the expansion control layer (51, 52; 61, 62) is disposed. if the one side on which the expansion control layer (51, 52; 61, 62) is disposed is opposite to the liquid crystal layer , the expansion control layer (51, 52; 61, 62) has a thermal expansion coefficient based on length at a temperature of 25°C to 120°C smaller than that of the base film on the side of which the expansion control layer (51, 52; 61, 62) is disposed, and if the one side on which the expansion control layer (51, 52; 61, 62) is disposed is facing the liquid crystal layer , the expansion control layer (51, 52; 61, 62) has a thermal expansion coefficient based on length at a temperature of 25°C to 120°C higher than that of the base film on the side of which the expansion control layer (51, 52; 61, 62) is disposed.
A method for operating a combustion chamber comprising: • obtaining , via a carbon monoxide sensor , a carbon monoxide reading at an exit of the combustion chamber ; • deriving , via a carbon monoxide controller , an oxygen set point trim based at least in part on the carbon monoxide reading and a carbon monoxide set point ; • determining , via a combustion stability sensor , a stability status of the combustion chamber ; and • adjusting , via a controller , an oxygen set point of the combustion chamber with the oxygen set point trim, wherein adjusting of the oxygen set point of the combustion chamber with the oxygen set point trim is based at least in part on the stability status , and wherein the oxygen set point defines a desired oxygen level at the exit of the combustion chamber . • obtaining , via a carbon monoxide sensor , a carbon monoxide reading at an exit of the combustion chamber ; • deriving , via a carbon monoxide controller , an oxygen set point trim based at least in part on the carbon monoxide reading and a carbon monoxide set point ; • determining , via a combustion stability sensor , a stability status of the combustion chamber ; and • adjusting , via a controller , an oxygen set point of the combustion chamber with the oxygen set point trim,
A tricuspid valve prosthesis, comprising: a stent body , implanted at a tricuspid valve annulus for supporting the prosthetic valve leaflets; and an anchoring structure , disposed above the stent body for anchoring the stent body at the native valve annulus for preventing the stent body from displacing; wherein the anchoring structure is configured to be partially attached to the fossa ovalis of the interatrial septum to form a retention force by being attached to the fossa ovalis so that the anchoring effect on the valve prosthesis is achieved; wherein the anchoring structure comprises a first anchoring member configured to be provided with at least one protruding portion , and the protruding portion is embedded into the fossa ovalis for the anchoring effect. a stent body , implanted at a tricuspid valve annulus for supporting the prosthetic valve leaflets; and an anchoring structure , disposed above the stent body for anchoring the stent body at the native valve annulus for preventing the stent body from displacing; wherein the anchoring structure is configured to be partially attached to the fossa ovalis of the interatrial septum to form a retention force by being attached to the fossa ovalis so that the anchoring effect on the valve prosthesis is achieved; wherein the anchoring structure comprises a first anchoring member configured to be provided with at least one protruding portion , and the protruding portion is embedded into the fossa ovalis for the anchoring effect.
Printing assembly , wherein the printing assembly has at least two printing heads by means of which application locations for printing fluid are specified and wherein a transport path through the printing assembly provided for printing material is specified by at least two guide elements of the printing assembly and wherein a printing section of the transport path provided for printing material begins at a first application location of the printing assembly provided along this transport path and ends at a last application location of the printing assembly provided along this transport path and wherein a transverse direction (A) is a horizontal direction (A), oriented orthogonally to the transport path provided for printing material through the at least one printing assembly , characterized in that at least one of the at least two guide elements that together define said provided transport path in the region of the printing section is in contact with a total of at least two lateral support elements and at least one inner support element at three points that are spaced from one another in the transverse direction (A), the position of said guide element being thereby defined, and in that the at least two lateral support elements are embodied as part of at least one support frame , and in that the at least one support frame has at least one cross-member that is different from the guide elements , and extends at least in the transverse direction (A) and ensures a constant relative positioning of the lateral support elements .
An inhalation-synchronized fluid dispenser device, comprising a body provided with a mouthpiece , a fluid reservoir containing a fluid and a propellant gas being mounted to slide axially in said body , a metering valve including a valve member being assembled on said reservoir for selectively dispensing the fluid, said device further comprising: • a blocking element that is movable and/or deformable between a non-actuation position in which said metering valve cannot be actuated, and an actuation position in which said metering valve can be actuated, said blocking element , in its non-actuation position, co-operating firstly with the body and secondly with the reservoir so as to prevent said reservoir from moving axially in the body , and • an inhalation-controlled trigger system including an inhalation-sensitive member that is deformable and/or movable under the effect of inhaling, said inhalation-sensitive member , when it is deformed and/or moved, moving and/or deforming said blocking element from its non-actuation position towards its actuation position, said device including an actuator that is fastened on said reservoir , said actuator comprising a proximal wall that is fastened, in particular force-fitted, on the end of the reservoir , a body that slides axially past said proximal wall , and a spring that is arranged between said proximal wall and a distal wall of said body , said body sliding axially past said proximal wall between a rest position and a cocked position, in which said spring is compressed, such that on said inhalation-controlled trigger system being actuated, said compressed spring moves said reservoir axially in said body so as to actuate said metering valve . • a blocking element that is movable and/or deformable between a non-actuation position in which said metering valve cannot be actuated, and an actuation position in which said metering valve can be actuated, said blocking element , in its non-actuation position, co-operating firstly with the body and secondly with the reservoir so as to prevent said reservoir from moving axially in the body , and • an inhalation-controlled trigger system including an inhalation-sensitive member that is deformable and/or movable under the effect of inhaling, said inhalation-sensitive member , when it is deformed and/or moved, moving and/or deforming said blocking element from its non-actuation position towards its actuation position,
A method for wireless communication by a wireless communication device, comprising: obtaining a first information block that includes a fixed number, N1, of information bits; performing a first encoding operation on one or more of the information bits that produces a number, LS, of amplitude-shaped bits; arranging the LS amplitude-shaped bits into a second information block that includes a number, LUS, of the information bits from the first information block, the sum of LS and LUS being less than or equal to a fixed amount, N2; selectively adding one or more padding bits to the second information block so that a length of the second information block is equal to N2; adding , to the second information block, one or more signaling bits indicating the number of amplitude-shaped bits in the second information block; performing a second encoding operation on the second information block that produces one or more codewords, each codeword including a respective subset of bits of the second information block and one or more parity bits resulting from the second encoding operation; arranging the subsets of bits of the second information block and the parity bits into a plurality of symbols, each symbol having an amplitude based on the respective bits arranged in the symbol, the first encoding operation producing the amplitude-shaped bits so that the amplitudes of the plurality of symbols have a non-uniform distribution; and transmitting a wireless packet, including the plurality of symbols, to at least one receiving device. obtaining a first information block that includes a fixed number, N1, of information bits; performing a first encoding operation on one or more of the information bits that produces a number, LS, of amplitude-shaped bits; arranging the LS amplitude-shaped bits into a second information block that includes a number, LUS, of the information bits from the first information block, the sum of LS and LUS being less than or equal to a fixed amount, N2; selectively adding one or more padding bits to the second information block so that a length of the second information block is equal to N2; adding , to the second information block, one or more signaling bits indicating the number of amplitude-shaped bits in the second information block; performing a second encoding operation on the second information block that produces one or more codewords, each codeword including a respective subset of bits of the second information block and one or more parity bits resulting from the second encoding operation; arranging the subsets of bits of the second information block and the parity bits into a plurality of symbols, each symbol having an amplitude based on the respective bits arranged in the symbol, the first encoding operation producing the amplitude-shaped bits so that the amplitudes of the plurality of symbols have a non-uniform distribution; and transmitting a wireless packet, including the plurality of symbols, to at least one receiving device.
Neutron detecting device (20, 20'; 42) comprising a scintillation volume (19, 23; 43a) filled with a scintillating material such as a noble gas, one or more neutron conversion foils (10, 10', 10"; 47) comprising a substrate having a first and second side, wherein said one or more neutron conversion foils (10, 10', 10"; 47) are transparent to light originating from the conversion of neutrons such that light originating from the conversion of neutrons can pass through one or several of said neutron conversion foils (10, 10', 10"; 47) and thereafter be collected and detected by a light sensing device , wherein said substrate is covered on said first and second sides with a neutron conversion layer made of a neutron reactive material and being capable of capturing neutrons to thereafter emit light and/or charged particles, wherein the one or more neutron conversion foils (10, 10', 10"; 47) are provided in said neutron detecting device (20, 20'; 42) to be in optical contact with said scintillating material such that charged conversion products arising from said neutron capture in said neutron conversion foil(s) (10, 10', 10"; 47) escape into said scintillation volume (19, 23; 43a) and produce light, to which said neutron conversion foil(s) (10, 10', 10"; 47) is (are) transparent, wherein the neutron detecting device (20, 20'; 42) comprises at least one light-sensing device provided in optical contact with said scintillation volume (19, 23; 43a), characterized in that said at least one light sensing device is a solid state light sensor, especially one of a silicon photomultiplier (SiPM) or pixelated Geiger mode avalanche photodiode.
A method to be performed by a mobile terminal, the method comprising: determining an application behavior policy of one or more application behavior policies for an application to be operated on the mobile terminal or operating on the mobile terminal, the mobile terminal being configured to communicate with an access point and the application behavior policy comprising one or more configuration parameters and one or more validity conditions, wherein the one or more validity conditions define one or more network conditions that indicate an instance in which the application behavior policy is to be applied; determining that a validity condition of the application behavior policy has been met; causing the application to be launched subject to the application behavior policy in an instance in which the application has not already been launched; or causing the application to be reconfigured such that it operates subject to the application behavior policy in an instance in which the application has already been launched; and: enforcing the application behavior policy via one or more application programming interfaces of the mobile terminal. determining an application behavior policy of one or more application behavior policies for an application to be operated on the mobile terminal or operating on the mobile terminal, the mobile terminal being configured to communicate with an access point and the application behavior policy comprising one or more configuration parameters and one or more validity conditions, wherein the one or more validity conditions define one or more network conditions that indicate an instance in which the application behavior policy is to be applied; determining that a validity condition of the application behavior policy has been met; causing the application to be launched subject to the application behavior policy in an instance in which the application has not already been launched; or causing the application to be reconfigured such that it operates subject to the application behavior policy in an instance in which the application has already been launched; and: enforcing the application behavior policy via one or more application programming interfaces of the mobile terminal.
An inlet door state control system (200; 300; 400) for an auxiliary power unit (APU) , comprising: an inlet door configured to allow air into an inlet of the APU ; an actuator configured to open the inlet door ; a first APU threshold switch (310; 402, 406, 410, 414) connected to the actuator , the first APU threshold switch configured to change from an open position to a closed position when a first threshold is exceeded, thereby opening the inlet door ; a first inlet door state switch (404, 408; 412, 416) connected to the first APU threshold switch (310; 402, 406, 410, 414), the first inlet door state switch (404, 408; 412, 416) configured to change from a closed position to an open position when a first inlet door state is reached, thereby ceasing further opening of the inlet door ; a second APU threshold switch (310; 402, 406, 410, 414) and a second inlet door state switch (404, 408; 412, 416), wherein the first APU threshold switch (310; 402, 406, 410, 414) and the first inlet door state switch (404, 408; 412, 416) are connected in series, the second APU threshold switch (310; 402, 406, 410, 414) and the second inlet door state switch (404, 408; 412, 416) are connected in series, characterized in that the first APU threshold switch (310; 402, 406, 410, 414) and the first inlet door state switch (404, 408; 412, 416) are connected in parallel to the second APU threshold switch (310; 402, 406, 410, 414) and the second inlet door state switch (404, 408; 412, 416). an inlet door configured to allow air into an inlet of the APU ; an actuator configured to open the inlet door ; a first APU threshold switch (310; 402, 406, 410, 414) connected to the actuator , the first APU threshold switch configured to change from an open position to a closed position when a first threshold is exceeded, thereby opening the inlet door ; a first inlet door state switch (404, 408; 412, 416) connected to the first APU threshold switch (310; 402, 406, 410, 414), the first inlet door state switch (404, 408; 412, 416) configured to change from a closed position to an open position when a first inlet door state is reached, thereby ceasing further opening of the inlet door ; a second APU threshold switch (310; 402, 406, 410, 414) and a second inlet door state switch (404, 408; 412, 416), wherein the first APU threshold switch (310; 402, 406, 410, 414) and the first inlet door state switch (404, 408; 412, 416) are connected in series, the second APU threshold switch (310; 402, 406, 410, 414) and the second inlet door state switch (404, 408; 412, 416) are connected in series, characterized in that the first APU threshold switch (310; 402, 406, 410, 414) and the first inlet door state switch (404, 408; 412, 416) are connected in parallel to the second APU threshold switch (310; 402, 406, 410, 414) and the second inlet door state switch (404, 408; 412, 416).
A method for calculating a state of charge SOC of a battery on the basis of a charging state of a charging side, the method comprising: acquiring, when a battery to be charged is being charged, an electrical parameter of a specific electrical component on the charging side of the battery to be charged (S1); calculating a current SOC of the battery to be charged by means of a pre-constructed estimation model on the basis of the electrical parameter to obtain a posterior probability distribution of the current SOC of the battery to be charged (S2); and obtaining the SOC of the battery to be charged on the basis of the posterior probability distribution of the current SOC of the battery to be charged (S3), wherein the estimation model is the posterior probability distribution of the battery to be charged with respect to a charging current and the electrical parameter of the specific electrical component on the charging side; characterised in that the electrical parameter of the specific electrical component comprises the charging current, and a resistance between protective grounding and control protection on the charging side. acquiring, when a battery to be charged is being charged, an electrical parameter of a specific electrical component on the charging side of the battery to be charged (S1); calculating a current SOC of the battery to be charged by means of a pre-constructed estimation model on the basis of the electrical parameter to obtain a posterior probability distribution of the current SOC of the battery to be charged (S2); and obtaining the SOC of the battery to be charged on the basis of the posterior probability distribution of the current SOC of the battery to be charged (S3), wherein the estimation model is the posterior probability distribution of the battery to be charged with respect to a charging current and the electrical parameter of the specific electrical component on the charging side; characterised in that the electrical parameter of the specific electrical component comprises the charging current, and a resistance between protective grounding and control protection on the charging side.
A delayed release delivery system comprising at least one treated particle, the treated particle comprising a core particle having a porous surface, and having a liquid absorbed therein, wherein a ratio of the weight of the liquid to the weight of the core particle is at least about 400:1; wherein the liquid contains a fragrance oil, a skin benefit active, a scalp benefit active, a hair benefit active, or a combination thereof; the core particle is formed from an inorganic material selected from the group consisting of: silica, silica silylate, and calcium silicate; and the treated particle further comprises a polymer coated on the surface thereof wherein the polymer comprises a hydrophobic silicone backbone and hydrophilic polyglycerol side chains. silica, silica silylate, and calcium silicate; and the treated particle further comprises a polymer coated on the surface thereof wherein the polymer comprises a hydrophobic silicone backbone and hydrophilic polyglycerol side chains.