mhurhangee/patent-ind-claim-en huggingface dataset:
A case structure , comprising: an inner case base , having a corner area and a fixing column located at the corner area ; and a torsional spring ; the case structure being characterized in further comprising a buffer outer case , movably overlapped on an outer side of the corner area and suitable for moving relative to the corner area after a force is exerted on the buffer outer case ; and in that the torsional spring is sleeved on the fixing column and located between the buffer outer case and the inner case base , wherein the torsional spring has a first end and a second end that are opposite to each other and the first end and the second end are respectively connected to the buffer outer case , wherein the buffer outer case moves relative to the inner case base when the force exerted on the buffer outer case , the torsional spring correspondingly deforms and stores elastic potential energy, and when the force exerted on the buffer outer case disappears, the torsional spring releases the elastic potential energy to reposition the buffer outer case . an inner case base , having a corner area and a fixing column located at the corner area ; and a torsional spring ; the case structure being characterized in further comprising a buffer outer case , movably overlapped on an outer side of the corner area and suitable for moving relative to the corner area after a force is exerted on the buffer outer case ; and in that the torsional spring is sleeved on the fixing column and located between the buffer outer case and the inner case base , wherein the torsional spring has a first end and a second end that are opposite to each other and the first end and the second end are respectively connected to the buffer outer case , wherein the buffer outer case moves relative to the inner case base when the force exerted on the buffer outer case , the torsional spring correspondingly deforms and stores elastic potential energy, and when the force exerted on the buffer outer case disappears, the torsional spring releases the elastic potential energy to reposition the buffer outer case .
Activator unit for an autoinjector with an essentially cylindrical housing wherein an axially displaceable piston is guided that can be inserted counter to the spring unit and locked in the inserted position by means of detent projections of a retaining element connected to the piston , wherein the activator unit further comprises at its distal end t its distal end a thread or a bayonet lock by which it can be connected to an injector unit to form an autoinjector; wherein the spring unit comprises a first coil spring and at least one further second coil spring having a larger diameter than the first coil spring , and wherein the second coil spring is coaxial to the first coil spring , characterized in that the coil springs are configured to guide one another.
A pan-SHIP1/2 inhibitor for use in a method to treat obesity or to reduce body fat in an obese subject, wherein the pan-SHIP1/2 inhibitor has the structure of: or is a pharmaceutically acceptable salt thereof, wherein X = NR 2 , NRCONR 2 , OR, SR, OCOR, OCONR 2 , or NHCNHNH 2 , preferably X = NH 2 or NH 3 Cl, and wherein R = H, alkyl, cycloalkyl, aryl or benzyl, and wherein the inhibitor reduces body fat in the obese subject.
Method for controlling a domestic appliance , the method comprising the following steps: reading in a movement signal and a distance signal , the movement signal representing a movement of a user of the domestic appliance detected using a first sensor and the distance signal representing a distance between the user and the domestic appliance detected using a second sensor ; determining a control signal for controlling a function of the domestic appliance using the movement signal and the distance signal ; and detecting the movement of the user using the first sensor and a step of providing the movement signal representing the movement, and comprising a step of detecting the distance between the user and the domestic appliance using the second sensor and a step of providing the distance signal representing the distance; characterised by activating the second sensor in response to a movement detected in the step of detecting the movement of the user . reading in a movement signal and a distance signal , the movement signal representing a movement of a user of the domestic appliance detected using a first sensor and the distance signal representing a distance between the user and the domestic appliance detected using a second sensor ; determining a control signal for controlling a function of the domestic appliance using the movement signal and the distance signal ; and detecting the movement of the user using the first sensor and a step of providing the movement signal representing the movement, and comprising a step of detecting the distance between the user and the domestic appliance using the second sensor and a step of providing the distance signal representing the distance; characterised by activating the second sensor in response to a movement detected in the step of detecting the movement of the user .
An integrated circuit structure, comprising: a plurality of conductive lines in an inter-layer dielectric (ILD) layer above a substrate, wherein each of the plurality of conductive lines is recessed relative to an uppermost surface of the ILD layer; a plurality of conductive caps on corresponding ones of the plurality of conductive lines, in recess regions above each of the plurality of conductive lines; a hardmask layer on the plurality of conductive caps and on the uppermost surface of the ILD layer, the hardmask layer comprising a first hardmask component on and aligned with the plurality of conductive caps, and a second hardmask component on an aligned with regions of the uppermost surface of the ILD layer, the first and second hardmask components differing in composition from one another; and a conductive via in an opening in the hardmask layer and on a conductive cap of one of the plurality of conductive lines, wherein a portion of the conductive via is on a portion of the second hardmask component of the hardmask layer; and characterized by : a second ILD layer above the hardmask layer, wherein the conductive via is further in an opening of the second ILD layer; and wherein the opening of the second ILD layer has a width approximately equal to 3⁄4 pitch of the plurality of conductive lines. a plurality of conductive lines in an inter-layer dielectric (ILD) layer above a substrate, wherein each of the plurality of conductive lines is recessed relative to an uppermost surface of the ILD layer; a plurality of conductive caps on corresponding ones of the plurality of conductive lines, in recess regions above each of the plurality of conductive lines; a hardmask layer on the plurality of conductive caps and on the uppermost surface of the ILD layer, the hardmask layer comprising a first hardmask component on and aligned with the plurality of conductive caps, and a second hardmask component on an aligned with regions of the uppermost surface of the ILD layer, the first and second hardmask components differing in composition from one another; and a conductive via in an opening in the hardmask layer and on a conductive cap of one of the plurality of conductive lines, wherein a portion of the conductive via is on a portion of the second hardmask component of the hardmask layer; and characterized by : a second ILD layer above the hardmask layer, wherein the conductive via is further in an opening of the second ILD layer; and wherein the opening of the second ILD layer has a width approximately equal to 3⁄4 pitch of the plurality of conductive lines.
A cosmetic ingredient comprising a plant extract and a hydric organic solvent, wherein the plant extract comprises crenatoside and acteoside, wherein the plant extract contains at least 15 wt % of a mixture of crenatoside and acteoside, based on the total weight of the dry matter of the plant extract, and wherein the hydric organic solvent is 1,3-propanediol.
An upper , the upper comprising: a first knitted portion configured to form an outer surface of the upper ; a second knitted portion configured to form an inner surface of the upper , wherein the second knitted portion is at least partially coextensive with the first knitted portion ; an interstitial space between the first knitted portion and the second knitted portion ; and a knitted connection structure connecting the first knitted portion to the second knitted portion , wherein the knitted connection structure extends at least partially along at least one of a tongue and a collar of the upper , wherein the second knitted portion includes at least one double jersey knit structure that is coextensive with the first knitted portion , the upper being characterized in that at least one of the first knitted portion and the second knitted portion includes a bulking yarn forming a cushioning element configured to provide cushioning to the upper . a first knitted portion configured to form an outer surface of the upper ; a second knitted portion configured to form an inner surface of the upper , wherein the second knitted portion is at least partially coextensive with the first knitted portion ; an interstitial space between the first knitted portion and the second knitted portion ; and a knitted connection structure connecting the first knitted portion to the second knitted portion , wherein the knitted connection structure extends at least partially along at least one of a tongue and a collar of the upper , wherein the second knitted portion includes at least one double jersey knit structure that is coextensive with the first knitted portion , the upper being characterized in that at least one of the first knitted portion and the second knitted portion includes a bulking yarn forming a cushioning element configured to provide cushioning to the upper .
A pressure regulator including: a housing including a flow passage ; a plunger configured to move within the housing, wherein the plunger is hollow and has a plunger passage included in the flow passage; a valve seat in the housing and disposed in the flow passage immediately upstream of an inlet to the plunger passage ; characterized by : a shuttle within the housing configured to move between an upstream-most position at which the shuttle abuts the valve seat to close the flow passage and a downstream position displaced from the valve seat which opens the flow passage; a sealed chamber within the housing and between the plunger and the shuttle, wherein the sealed chamber is configured to be operated at pressures other than at atmospheric pressure; and a port in the housing and open to the sealed chamber, wherein the port is configured to be connected to a source of a pressurized fluid. a housing including a flow passage ; a plunger configured to move within the housing, wherein the plunger is hollow and has a plunger passage included in the flow passage; a valve seat in the housing and disposed in the flow passage immediately upstream of an inlet to the plunger passage ; characterized by : a shuttle within the housing configured to move between an upstream-most position at which the shuttle abuts the valve seat to close the flow passage and a downstream position displaced from the valve seat which opens the flow passage; a sealed chamber within the housing and between the plunger and the shuttle, wherein the sealed chamber is configured to be operated at pressures other than at atmospheric pressure; and a port in the housing and open to the sealed chamber, wherein the port is configured to be connected to a source of a pressurized fluid. a shuttle within the housing configured to move between an upstream-most position at which the shuttle abuts the valve seat to close the flow passage and a downstream position displaced from the valve seat which opens the flow passage; a sealed chamber within the housing and between the plunger and the shuttle, wherein the sealed chamber is configured to be operated at pressures other than at atmospheric pressure; and a port in the housing and open to the sealed chamber, wherein the port is configured to be connected to a source of a pressurized fluid.
Method for monitoring the condition of a force-measuring device , specifically a weighing device, the force-measuring device is structured as a modular system with at least two force-measuring modules , each of which comprises a measurement transducer , with a force receiver and a movable force-transmitting portion through which a force that is acting on the force-measuring device is transmitted to the measurement transducers which generate a measurement signal (S F ) corresponding to the applied force, whereupon the signal is brought into the form of a display indication or passed along for further processing, characterized in that at least one parameter (M) is being determined by a mobility sensor , the at least one parameter (M) characterizes the free mobility of the force-transmitting portion or a change in said free mobility over time, that the parameter (M) is compared to at least one threshold value (T) and that, dependent on the result of the comparison, either a normal condition or a restriction of the free mobility of the force-transmitting portion is detected, and that in the case where a restriction of the free mobility has been detected, an action of the force-measuring device is triggered.
A device for ironing laundry items comprising at least one ironer roll which is drivable in a circumferential manner and an ironer chest assigned to the ironer roll , wherein an outer surface of the ironer roll is provided with a spiral wrapping which has a base layer (36; 40) and at least one non-woven fabric layer (44; 45) which is connected to the base layer (36; 40), characterized in that the base layer of the spiral wrapping has links (37; 41) which are interlinked or suspended together, and the links are interlinked by elongated rod-like connectors which run transversely to the rotational direction of the spiral wrapping or the links are formed from adjacent strands which run in the rotational direction of the ironer roll , wherein the adjacent strands are alternately interwoven around different sides of bars running transversely to the rotational direction .
A format converter for converting a format of an audio content , which represents an audio scene, from a first format to a second format, wherein the format converter is configured provide a representation of the audio content in the second format on the basis of the representation of the audio content in the first format; wherein the format converter is configured to adjust a complexity of the format conversion in dependence on contributions of input audio signals (112, 112 1 , 112 2 , 112 3 , 112a, 112b) of the first format to an overall directional loudness map of the audio scene; wherein the overall directional loudness map represents loudness information associated with different directions. wherein the format converter is configured provide a representation of the audio content in the second format on the basis of the representation of the audio content in the first format; wherein the format converter is configured to adjust a complexity of the format conversion in dependence on contributions of input audio signals (112, 112 1 , 112 2 , 112 3 , 112a, 112b) of the first format to an overall directional loudness map of the audio scene; wherein the overall directional loudness map represents loudness information associated with different directions.
A method, performed by a node of a wireless communication network, for pre-configuring another node of the wireless communication network for synchronized RRC reconfigurations that uses a MAC-level handshake, the method comprising: generating an identifier; wherein the identifier is a handshake identifier; associating the identifier with one High-Speed Shared Control Ch annel, HS-SCCH, order as well as one M edium A ccess C ontrol, MAC, Control Information to establish a one-to-one mapping between the identifier and said HS-SCCH order and, also, a one-to-one mapping between the identifier and said MAC Control Information, generating a R adio R esource C ontrol, RRC, procedure identifier for identifying a RRC procedure to be established; associating the RRC procedure identifier with the handshake identifier to establish a one-to-one mapping between said RRC procedure identifier and said handshake identifier; and communicating the generated identifier and its associated HS-SCCH order as well as its associated MAC Control Information to the other node of the wireless communication network. generating an identifier; wherein the identifier is a handshake identifier; associating the identifier with one High-Speed Shared Control Ch annel, HS-SCCH, order as well as one M edium A ccess C ontrol, MAC, Control Information to establish a one-to-one mapping between the identifier and said HS-SCCH order and, also, a one-to-one mapping between the identifier and said MAC Control Information, generating a R adio R esource C ontrol, RRC, procedure identifier for identifying a RRC procedure to be established; associating the RRC procedure identifier with the handshake identifier to establish a one-to-one mapping between said RRC procedure identifier and said handshake identifier; and communicating the generated identifier and its associated HS-SCCH order as well as its associated MAC Control Information to the other node of the wireless communication network.
Detection method for detecting the yaw rate h and/or the heading H of an object vehicle based on sensor data of a radar sensor mounted on an ego-vehicle , wherein the sensor data are retrieved in the form of a range R to range rate r spectrum from the radar sensor , characterized in that the detection method comprises the following two steps of determining: - Determining two clusters C1, C2 of spectrum cells or recognition points within the range R to range rate r spectrum, wherein the spectrum cells or recognition points of the first cluster C1 have an intensity value above an intensity-threshold and are arranged on a first linear stretch st1 and the spectrum cells or recognition points of the second cluster have an intensity value above the intensity-threshold and are arranged on a second linear stretch st1; - Determining a first slope gradient g1 for the spectrum cells or recognition points in the first cluster C1 and a second slope gradient g2 for the spectrum cells or recognition points in the second cluster C2, wherein the slope gradients are defined as a ratio of a range difference dR to a range rate difference dr among the spectrum cells or recognition points in the respective cluster C1, C2; and performing at least one of following two calculations: - calculating the yaw rate h of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. h = f(g1, g2), in particular according to the following formula: h = ± 1 g 1 × g 2 ; - calculating the heading H of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. H = f(g1, g2), in particular according to the formula: H = ± arctan g 1 g 2 . - Determining two clusters C1, C2 of spectrum cells or recognition points within the range R to range rate r spectrum, wherein the spectrum cells or recognition points of the first cluster C1 have an intensity value above an intensity-threshold and are arranged on a first linear stretch st1 and the spectrum cells or recognition points of the second cluster have an intensity value above the intensity-threshold and are arranged on a second linear stretch st1; - Determining a first slope gradient g1 for the spectrum cells or recognition points in the first cluster C1 and a second slope gradient g2 for the spectrum cells or recognition points in the second cluster C2, wherein the slope gradients are defined as a ratio of a range difference dR to a range rate difference dr among the spectrum cells or recognition points in the respective cluster C1, C2; - calculating the yaw rate h of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. h = f(g1, g2), in particular according to the following formula: h = ± 1 g 1 × g 2 ; - calculating the heading H of the object vehicle based on a function of the first slope gradient g1 and the second slope gradient g2, i.e. H = f(g1, g2), in particular according to the formula: H = ± arctan g 1 g 2 .
A pneumatic conveyance system, comprising: at least one filtration component ; a cage assembly disposed within the at least one filtration component and comprising: an actuator ; a first cage ; and a second cage , wherein the actuator is configured to move the first cage relative to the second cage and cause at least a portion of the first cage to rub against an interior surface of the at least one filtration component and deform the at least one filtration component to remove material from an exterior surface of the at least one filtration component . at least one filtration component ; a cage assembly disposed within the at least one filtration component and comprising: an actuator ; a first cage ; and a second cage , wherein the actuator is configured to move the first cage relative to the second cage and cause at least a portion of the first cage to rub against an interior surface of the at least one filtration component and deform the at least one filtration component to remove material from an exterior surface of the at least one filtration component . an actuator ; a first cage ; and a second cage , wherein the actuator is configured to move the first cage relative to the second cage and cause at least a portion of the first cage to rub against an interior surface of the at least one filtration component and deform the at least one filtration component to remove material from an exterior surface of the at least one filtration component .
A method of decomposition of a REM containing raw phosphate material being apatite or apatite concentrate with sulphuric acid and concentrating rare-earth metals (REM) in phosphogypsum, wherein the method of decomposition of the REM containing raw phosphate material is carried out by adding sulphuric acid and a sodium salt in the amount of 0.25 kg to 5.0 kg in terms of Na 2 O or a potassium salt in the amount of 0.25 kg to 5.0 kg in terms of K 2 O or a mixture thereof in the amount of 0.25 kg to 5 kg in terms of Na 2 O and K 2 O to 1 kg of REM in terms of Ln 2 O 3 present in the raw phosphate material.
A radiation protection element (40; 40a, 40b), comprising: at least one radiation protection material , and a sheath with an internal volume in which the at least one radiation protection material is arranged, characterized in that the internal volume has a gas pressure of less than 1 bar at 23° C or in that the internal volume comprises an inert gas. at least one radiation protection material , and a sheath with an internal volume in which the at least one radiation protection material is arranged, characterized in that the internal volume has a gas pressure of less than 1 bar at 23° C or in that the internal volume comprises an inert gas.