mhurhangee/ep-ind-claims huggingface dataset:
A work machine comprising: an operation mechanism which is a front operation mechanism comprising an attachment, an arm, a boom, and hydraulic cylinders that drive the attachment, the arm and the boom, respectively; a load detection element which is configured to detect a load applied to the operation mechanism; an information output device which is configured to output at least one of an image, a sound, and a vibration to an operator; and a control element which is configured to perform one or more controls, according to a magnitude of a load on the operation mechanism detected by the load detection element, among control of a level of at least one of color intensity, brightness, and transparency of at least a part of an image output by the information output device, control of at least one of an intensity and a level of frequency of a sound output by the information output device, and control of at least one of an intensity and a level of frequency of a vibration output by the information output device, wherein said load detection element further comprises a force sensor that is configured to detect a translational force generated by the hydraulic cylinders, and a force sensor that is configured to detect a rotational force of each of the boom, the arm and the attachment. an operation mechanism which is a front operation mechanism comprising an attachment, an arm, a boom, and hydraulic cylinders that drive the attachment, the arm and the boom, respectively; a load detection element which is configured to detect a load applied to the operation mechanism; an information output device which is configured to output at least one of an image, a sound, and a vibration to an operator; and a control element which is configured to perform one or more controls, according to a magnitude of a load on the operation mechanism detected by the load detection element, among control of a level of at least one of color intensity, brightness, and transparency of at least a part of an image output by the information output device, control of at least one of an intensity and a level of frequency of a sound output by the information output device, and control of at least one of an intensity and a level of frequency of a vibration output by the information output device, wherein said load detection element further comprises a force sensor that is configured to detect a translational force generated by the hydraulic cylinders, and a force sensor that is configured to detect a rotational force of each of the boom, the arm and the attachment.
A display device, which comprises a flexible substrate, the flexible substrate comprising an active area and a non-active area surrounding the active area; the non-active area of the flexible substrate is disposed with a plurality of wires on array, WOA, arranged in a fan manner and electrically connected to the active area to provide driving signals to the active area; characterized in that the WOA is disposed on both front and back sides of the flexible substrate, wherein the WOA disposed on the back side of the flexible substrate comprises one end passing through a first hole disposed on the flexible substrate and extending to the front side to connect and receive driving signals and the other end passing through a second hole disposed on the flexible substrate and extending to the front side to electrically connected to the active area, and wherein the WOA connects scan lines and source lines of the active area to driver chips (3, 4), wherein the outline of the plurality of WOA narrows from the active area toward the driver chips (3, 4); and each direct neighbour of a wire of the WOA is disposed on the opposite side of the flexible substrate. the non-active area of the flexible substrate is disposed with a plurality of wires on array, WOA, arranged in a fan manner and electrically connected to the active area to provide driving signals to the active area; characterized in that the WOA is disposed on both front and back sides of the flexible substrate, wherein the WOA disposed on the back side of the flexible substrate comprises one end passing through a first hole disposed on the flexible substrate and extending to the front side to connect and receive driving signals and the other end passing through a second hole disposed on the flexible substrate and extending to the front side to electrically connected to the active area, and wherein the WOA connects scan lines and source lines of the active area to driver chips (3, 4), wherein the outline of the plurality of WOA narrows from the active area toward the driver chips (3, 4); and each direct neighbour of a wire of the WOA is disposed on the opposite side of the flexible substrate.
A hydrogen generator (70, 84) comprising: a fuel unit (60, 86) containing a fuel that releases hydrogen gas when heated; and a heater assembly (78, 88, 200) comprising a support member (82, 90, 92, 202), at least one heater (80, 204), and an actuator (100, 214), the at least one heater is coupled to the support member by the actuator; wherein: the actuator is adapted to move so that the actuator and the heater assembly are in a retracted state when the actuator is at or below a first prescribed temperature and in an extended state when the actuator is at or above a higher second prescribed temperature; and a heating surface of the heater assembly is disposed closer to the support member when the heater assembly is in the retracted state than when the heater assembly is in the extended state; and when in the extended state, the heating surface of the heater assembly is in thermal contact with the fuel unit. a fuel unit (60, 86) containing a fuel that releases hydrogen gas when heated; and a heater assembly (78, 88, 200) comprising a support member (82, 90, 92, 202), at least one heater (80, 204), and an actuator (100, 214), the at least one heater is coupled to the support member by the actuator; wherein: the actuator is adapted to move so that the actuator and the heater assembly are in a retracted state when the actuator is at or below a first prescribed temperature and in an extended state when the actuator is at or above a higher second prescribed temperature; and a heating surface of the heater assembly is disposed closer to the support member when the heater assembly is in the retracted state than when the heater assembly is in the extended state; and the actuator is adapted to move so that the actuator and the heater assembly are in a retracted state when the actuator is at or below a first prescribed temperature and in an extended state when the actuator is at or above a higher second prescribed temperature; and a heating surface of the heater assembly is disposed closer to the support member when the heater assembly is in the retracted state than when the heater assembly is in the extended state; and when in the extended state, the heating surface of the heater assembly is in thermal contact with the fuel unit.
Method for the in-flight control of a propelled craft provided with a steerable actuator, with attitude control on a trajectory and subjected to external disturbances, which consists, at least when pitching, in: - firstly defining a control law including a first order correction term, a transfer term comprising parameters characteristic of the craft and of the external disturbances (A 6, K 1), an attitude gain (K p) and an attitude speed gain (K v); - firstly defining correlating relationships between the attitude speed gain and the parameters of the correction term as a function of the attitude gain, of the parameters of the transfer term of the craft and of two terms representing rapidity (ω n) and damping (ζ) setpoints, and - for at least one flight phase of the craft, determining values of the parameters of the transfer term and selecting the attitude gain and the rapidity and damping terms, deducing therefrom the parameters of the correction term and the speed gain, and applying the control law with these parameter values to the actuator. - firstly defining a control law including a first order correction term, a transfer term comprising parameters characteristic of the craft and of the external disturbances (A 6, K 1), an attitude gain (K p) and an attitude speed gain (K v); - firstly defining correlating relationships between the attitude speed gain and the parameters of the correction term as a function of the attitude gain, of the parameters of the transfer term of the craft and of two terms representing rapidity (ω n) and damping (ζ) setpoints, and - for at least one flight phase of the craft, determining values of the parameters of the transfer term and selecting the attitude gain and the rapidity and damping terms, deducing therefrom the parameters of the correction term and the speed gain, and applying the control law with these parameter values to the actuator.
A dispensing device having a peripheral jacket, which forms a tubular dispensing space with a cover side and a discharge side, with at least one chamber, which can be filled with at least one liquid or pourable metered substance for dispensing, characterized in that a guide channel, which consists of guide walls and is closed on all sides with respect to the dispensing space, runs in the axial direction in the dispensing space, extending as far as the lowest point in the tubular dispensing space, wherein a piston-like ram, which is longer than the guide channel, is mounted in the guide channel that is open on both sides in the axial direction, and furthermore all the walls (2, 10, 13) on the discharge side end in a common plane and a tear-resistant film is welded or glued onto these walls, so that it can be pushed off at least partially by means of the ram beginning at a point on the jacketed wall, for emptying the at least one chamber.
A RNAi agent for use in RNA silencing of a target mRNA in a therapeutic method of RNA silencing in a subject; wherein the RNAi agent comprises one, two, three, four or five substituted terminal nucleotides which are within 5 or fewer nucleotides from the 3' end of the RNAi agent and which do not form a Watson-Crick base pair with corresponding nucleotides in the target mRNA; wherein at least one substituted terminal nucleotide is a G nucleotide which forms a G:U wobble base pair with a U nucleotide in the corresponding target mRNA; and wherein the therapeutic method comprises administering to the subject a pharmaceutical composition comprising the RNAi agent or a precursor thereof under conditions such that the target mRNA is silenced. wherein the RNAi agent comprises one, two, three, four or five substituted terminal nucleotides which are within 5 or fewer nucleotides from the 3' end of the RNAi agent and which do not form a Watson-Crick base pair with corresponding nucleotides in the target mRNA; wherein at least one substituted terminal nucleotide is a G nucleotide which forms a G:U wobble base pair with a U nucleotide in the corresponding target mRNA; and wherein the therapeutic method comprises administering to the subject a pharmaceutical composition comprising the RNAi agent or a precursor thereof under conditions such that the target mRNA is silenced.
An image decoding method for decoding a current block, the image decoding method comprising the step of: deriving one or more first merging block candidates having motion vectors that have been used in motion compensation of one or more neighbouring blocks wherein a merging block candidate is a combination of a prediction direction, a motion vector and a reference picture index that identifies a reference picture corresponding to the motion vector; wherein the method comprises the steps of performing an iterative procedure of deriving (S143, S144) one or more second merging block candidates of bi-directional prediction having zero motion vectors, wherein the reference picture index value of both prediction directions is incremented by 1 for each subsequent second merging block candidate derived in a subsequent iteration, starting from a value of 0, wherein the iterations are repeated as long as the total number of derived first and second merging block candidates is smaller than a maximum number of merging block candidates (S131: YES), a maximum number of available reference picture index values has not yet been reached (S142: YES), and the last derived second merging block candidate is not identical to any already derived first and second merging block candidates; and decoding a coded index indicating one merging block candidate of the derived first and second merging block candidates, wherein the one merging block candidate is used to decode the current block. deriving one or more first merging block candidates having motion vectors that have been used in motion compensation of one or more neighbouring blocks wherein a merging block candidate is a combination of a prediction direction, a motion vector and a reference picture index that identifies a reference picture corresponding to the motion vector; wherein the method comprises the steps of performing an iterative procedure of deriving (S143, S144) one or more second merging block candidates of bi-directional prediction having zero motion vectors, wherein the reference picture index value of both prediction directions is incremented by 1 for each subsequent second merging block candidate derived in a subsequent iteration, starting from a value of 0, wherein the iterations are repeated as long as the total number of derived first and second merging block candidates is smaller than a maximum number of merging block candidates (S131: YES), a maximum number of available reference picture index values has not yet been reached (S142: YES), and the last derived second merging block candidate is not identical to any already derived first and second merging block candidates; and decoding a coded index indicating one merging block candidate of the derived first and second merging block candidates, wherein the one merging block candidate is used to decode the current block.
A method for isolating a specific genomic region while maintaining the interaction of the specific genomic region and molecules interacting therewith, the method comprising the following steps 1 to 3: step 1: bringing genomic DNA into contact with an exogenous molecule capable of binding to a specific endogenous DNA sequence in the genomic DNA, step 2: fragmenting the genomic DNA in a state where the interaction of the genomic DNA and molecules interacting therewith is maintained, and step 3: allowing a genomic DNA fragment bound to the exogenous molecule to form a complex with a molecule capable of specifically binding to the exogenous molecule, and then harvesting the complex, wherein the fragmenting genomic DNA is performed by digestion of genomic DNA with a restriction enzyme(s), partial degradation (partial cleavage) of genomic DNA with a deoxyribonuclease(s) (endonuclease(s)), or physical cleavage of genomic DNA by ultrasonication, and wherein the exogenous molecule is an exogenous DNA-binding protein or an exogenous protein-nucleic acid complex, and wherein the exogenous molecule is a fusion molecule containing one or more kinds of tag sequences. step 1: bringing genomic DNA into contact with an exogenous molecule capable of binding to a specific endogenous DNA sequence in the genomic DNA, step 2: fragmenting the genomic DNA in a state where the interaction of the genomic DNA and molecules interacting therewith is maintained, and step 3: allowing a genomic DNA fragment bound to the exogenous molecule to form a complex with a molecule capable of specifically binding to the exogenous molecule, and then harvesting the complex, wherein the fragmenting genomic DNA is performed by digestion of genomic DNA with a restriction enzyme(s), partial degradation (partial cleavage) of genomic DNA with a deoxyribonuclease(s) (endonuclease(s)), or physical cleavage of genomic DNA by ultrasonication, and wherein the exogenous molecule is an exogenous DNA-binding protein or an exogenous protein-nucleic acid complex, and wherein the exogenous molecule is a fusion molecule containing one or more kinds of tag sequences.
A control device of a vehicle engine in a vehicle having a clutch that interrupts or transmits a driving force output from an engine by a driver's operation, and that is disposed in a power transmitting path between the engine and a transmission, the control device controlling the driving force output from the engine based on operation amount of an accelerator pedal, characterized in that the control device comprises: a start-up difficulty determining means that determines that the vehicle is difficult to start when a specified number of times or more of driver's operations of the clutch relating to interruption or transmission are executed in a predefined specified time; and an output control means that, when it is determined by the start-up difficulty determining means that the vehicle is difficult to start, reduces the driving force output from the engine depending on the operation amount of the accelerator pedal compared to the case when it is not determined by the start-up difficulty determining means that the vehicle is difficult to start. a start-up difficulty determining means that determines that the vehicle is difficult to start when a specified number of times or more of driver's operations of the clutch relating to interruption or transmission are executed in a predefined specified time; and an output control means that, when it is determined by the start-up difficulty determining means that the vehicle is difficult to start, reduces the driving force output from the engine depending on the operation amount of the accelerator pedal compared to the case when it is not determined by the start-up difficulty determining means that the vehicle is difficult to start.
Bearing system for a slide comprising a U-shaped profile with two wings and a web wherein between the two wings of the U-shaped profile the system comprises: - an inner support profile that configures a central housing and two lateral housings on the sides of the central housing with two recesses between two of the walls perpendicular to the web and the wings of the U-shaped profile; - a sliding profile comprising two housings facing the lateral housings; characterized in that - the central housing comprises an element to choose between a central cover covering it and a rail located in a longitudinal slot of said central housing, - such that when the central housing comprises the central cover, each lateral housing comprises a plurality of bearings and in the housings of the sliding profile two rails are located; and - such that when the central housing comprises the rail, the system comprises an intermediate piece fixed to the housings of the sliding profile comprising in turn a plurality of bearings located in correspondence with the central housing of the inner support profile. - an inner support profile that configures a central housing and two lateral housings on the sides of the central housing with two recesses between two of the walls perpendicular to the web and the wings of the U-shaped profile; - a sliding profile comprising two housings facing the lateral housings; characterized in that - the central housing comprises an element to choose between a central cover covering it and a rail located in a longitudinal slot of said central housing, - such that when the central housing comprises the central cover, each lateral housing comprises a plurality of bearings and in the housings of the sliding profile two rails are located; and - such that when the central housing comprises the rail, the system comprises an intermediate piece fixed to the housings of the sliding profile comprising in turn a plurality of bearings located in correspondence with the central housing of the inner support profile.
A power interface comprising: a housing having an inner wall, the inner wall defining a stopping groove; and a connection body, disposed in the housing and comprising a first encapsulation portion, a second encapsulation portion embedded in the first encapsulation portion, and a plurality of pins spaced apart, wherein an outer periphery of the pins is wrapped by the first encapsulation portion and the second encapsulation portion, and the first encapsulation portion is connected to the housing, the first encapsulation portion has an engaging flange arranged at a rear end of the pins, the engaging flange extends along a circumferential direction of the connection body, the stopping groove extends along a circumferential direction of the connection body, and the engaging flange is engaged in the stopping groove; the first encapsulation portion defines a body-embedding notch and an extension-embedding notch, and the second encapsulation portion comprises a body-embedding portion and an extension-embedding portion connected to the body-embedding portion, the body-embedding portion is embedded in the body-embedding notch, and the extension-embedding portion is adapted to the extension-embedding notch and a front-end surface of the extension-embedding portion is configured as the front-end surface of the connection body. a housing having an inner wall, the inner wall defining a stopping groove; and a connection body, disposed in the housing and comprising a first encapsulation portion, a second encapsulation portion embedded in the first encapsulation portion, and a plurality of pins spaced apart, wherein an outer periphery of the pins is wrapped by the first encapsulation portion and the second encapsulation portion, and the first encapsulation portion is connected to the housing, the first encapsulation portion has an engaging flange arranged at a rear end of the pins, the engaging flange extends along a circumferential direction of the connection body, the stopping groove extends along a circumferential direction of the connection body, and the engaging flange is engaged in the stopping groove; the first encapsulation portion defines a body-embedding notch and an extension-embedding notch, and the second encapsulation portion comprises a body-embedding portion and an extension-embedding portion connected to the body-embedding portion, the body-embedding portion is embedded in the body-embedding notch, and the extension-embedding portion is adapted to the extension-embedding notch and a front-end surface of the extension-embedding portion is configured as the front-end surface of the connection body.