mhurhangee/patent-ind-claim-en huggingface dataset:
Masking kit of a zone , said zone comprising an internal portion and a peripheral external portion , separated by an intermediate portion , said masking kit comprising a film : - comprising a first face, referred to as lower face , coated with an adhesive substance and covered with a protective sheet at least partially removable, - with a shape and look substantially identical to the shape and the look of said zone , and intended to be applied on said zone by its lower face , said masking kit further comprising means for viewing adapted to locally see through the masking kit and configured to form a mark intended to be positioned on a delimitation between said intermediate portion and one of the two other parties of said zone , said masking kit being characterised in that said means for viewing comprise at least one viewing window comprising - a through-hole passing through the masking and contour kit configured in such a way as to allow to appear at least one portion, referred to as the visible portion , of said delimitation when the masking kit is in position on said zone , - a transparent removable seal glued on a second face of the film, referred to as upper face , opposite said lower face , in such a way as to cover said through-hole . - comprising a first face, referred to as lower face , coated with an adhesive substance and covered with a protective sheet at least partially removable, - with a shape and look substantially identical to the shape and the look of said zone , and intended to be applied on said zone by its lower face , - a through-hole passing through the masking and contour kit configured in such a way as to allow to appear at least one portion, referred to as the visible portion , of said delimitation when the masking kit is in position on said zone , - a transparent removable seal glued on a second face of the film, referred to as upper face , opposite said lower face , in such a way as to cover said through-hole .
A method performed by a user equipment to communicate with a base station, comprising: receiving configuration of a first bandwidth corresponding to an enhanced physical downlink control channel, EPDCCH, bandwidth from the base station; monitoring the first bandwidth; receiving a probe message from the base station within the first bandwidth in a first subframe, the probe message is usable to indicate the user equipment to monitor a second bandwidth, corresponding to a system bandwidth, wherein the probe message comprises a bandwidth indicator indicating a bandwidth for the user equipment to monitor, wherein the probe message is a downlink control information, DCI, a cyclic redundancy check, CRC, of the DCI is scrambled with a cell radio network temporary identifier, C-RNTI, and the bandwidth indicator is a one-bit field that is set to a first value to indicate the first bandwidth monitoring by the user equipment and is set to a second value to indicate the second bandwidth monitoring by the user equipment; communicating control information and data with the base station using the second bandwidth in a second subframe. receiving configuration of a first bandwidth corresponding to an enhanced physical downlink control channel, EPDCCH, bandwidth from the base station; monitoring the first bandwidth; receiving a probe message from the base station within the first bandwidth in a first subframe, the probe message is usable to indicate the user equipment to monitor a second bandwidth, corresponding to a system bandwidth, wherein the probe message comprises a bandwidth indicator indicating a bandwidth for the user equipment to monitor, wherein the probe message is a downlink control information, DCI, a cyclic redundancy check, CRC, of the DCI is scrambled with a cell radio network temporary identifier, C-RNTI, and the bandwidth indicator is a one-bit field that is set to a first value to indicate the first bandwidth monitoring by the user equipment and is set to a second value to indicate the second bandwidth monitoring by the user equipment; communicating control information and data with the base station using the second bandwidth in a second subframe.
A signaling device for increasing visibility of a mobile robot comprising: a. a signaling section configured to at least one of increasing the visibility, salience, and conspicuity of a mobile robot and signaling messages; b. a body section comprising an elongated member configured to support the signaling section ; c. a base section comprising a hinge for attaching the signaling device to a mobile robot by means of a rotational joint , said rotational joint allowing the signaling device to rotate clockwise and/or anticlockwise with respect to an axis perpendicular to the rotational joint's surface between the signaling device and the mobile robot , wherein the hinge comprises a spring configured to guide the rotation of the signaling device and wherein the spring is further configured to return the signaling device to its equilibrium position. a. a signaling section configured to at least one of increasing the visibility, salience, and conspicuity of a mobile robot and signaling messages; b. a body section comprising an elongated member configured to support the signaling section ; c. a base section comprising a hinge for attaching the signaling device to a mobile robot by means of a rotational joint , said rotational joint allowing the signaling device to rotate clockwise and/or anticlockwise with respect to an axis perpendicular to the rotational joint's surface between the signaling device and the mobile robot , wherein the hinge comprises a spring configured to guide the rotation of the signaling device and wherein the spring is further configured to return the signaling device to its equilibrium position. wherein the hinge comprises a spring configured to guide the rotation of the signaling device and wherein the spring is further configured to return the signaling device to its equilibrium position.
A method for preparing polymer comprising: bringing a catalyst, a ligand, a halogenated polymer compound, and a polymeric monomer into contact with one another; and the catalyst reducing agent being an organic reducing agent capable of donating electrons or an inorganic reducing agent capable of donating electrons selected from the group consisting of metal compounds, Fe , Co , Ni , Ru and Mo , characterized in that a catalyst reducing agent is additionally input when a conversion ratio of the polymeric monomer is 10% or more, the catalyst including a compound represented by the following Chemical Formula 1: [Chemical Formula 1] Cu(II)X 2 /L where, in Chemical Formula 1, X represents a halogen element and L represents a ligand. bringing a catalyst, a ligand, a halogenated polymer compound, and a polymeric monomer into contact with one another; and the catalyst reducing agent being an organic reducing agent capable of donating electrons or an inorganic reducing agent capable of donating electrons selected from the group consisting of metal compounds, Fe , Co , Ni , Ru and Mo , characterized in that a catalyst reducing agent is additionally input when a conversion ratio of the polymeric monomer is 10% or more, the catalyst including a compound represented by the following Chemical Formula 1: [Chemical Formula 1] Cu(II)X 2 /L where, in Chemical Formula 1, X represents a halogen element and L represents a ligand.
Device with a vehicle seat which has a seat part and a backrest , the seat part of which vehicle seat is connected to a first seat rail of a longitudinal adjuster of the device, wherein the first seat rail of the longitudinal adjuster is guided displaceably in the longitudinal direction (x) in a structure-mounted second seat rail of the longitudinal adjuster, wherein, for facilitated access to the rear seats, the vehicle seat can be transferred out of the use position into an easy-entry position when a lock of the longitudinal adjuster of the vehicle seat is unlocked by folding the backrest forwards, wherein the device has a memory device which senses a displacement of the first seat rail relative to the second seat rail , characterized in that the device has a multi-functional part which is connected to the memory device and, using at least one additional component of the device, is configured to provide an easy-entry comfort function which, in the case of a longitudinal adjuster with an easy-entry function and a provided lock for locking the folded-forwards backrest , automatically triggers unlocking of the backrest on reaching the memory position, or an easy-entry holding-open function which, in the case of a longitudinal adjuster with an easy-entry function without a lock for locking the folded-forwards backrest , after leaving the memory position holds the lock of the longitudinal adjustment permanently in an open unlocked state, and automatically locks the longitudinal adjustment again on reaching the memory position.
An automotive spread multiple-input multiple-output configured radar system , comprising - a plurality of transceiver antenna units (TRx k ) that are configured to transmit mutually orthogonal radar waves, - for each transceiver antenna unit (TRx k ) of the plurality of transceiver antenna units (TRx k ), a plurality of range gates that is configured to indicate a range detected by the transceiver antenna unit (TRx k ), - wherein at least one specific transceiver antenna unit (TRx 1 ) of the plurality of transceiver antenna units (TRx k ) is configured to transmit, synchronized with the radar waves, a reference signal that is to be received directly by at least one transceiver antenna unit (TRx 2 ) that is separated by an a priori known distance (d) from the specific transceiver antenna unit (TRx 1 ), and wherein the distance (d) is substantially larger than a radar carrier wavelength (λ c ), - an evaluation and control unit that is configured - for reading out the plurality of range gates for the transceiver antenna unit (TRx 2 ) that received the reference signal , - based on the read-out range gate of the plurality of range gates that indicates the received reference signal and based on the a priori known distance (d), for synchronizing the specific transceiver antenna unit (TRx 1 ) and the transceiver antenna unit (TRx 2 ) that received the reference signal . - a plurality of transceiver antenna units (TRx k ) that are configured to transmit mutually orthogonal radar waves, - for each transceiver antenna unit (TRx k ) of the plurality of transceiver antenna units (TRx k ), a plurality of range gates that is configured to indicate a range detected by the transceiver antenna unit (TRx k ), - wherein at least one specific transceiver antenna unit (TRx 1 ) of the plurality of transceiver antenna units (TRx k ) is configured to transmit, synchronized with the radar waves, a reference signal that is to be received directly by at least one transceiver antenna unit (TRx 2 ) that is separated by an a priori known distance (d) from the specific transceiver antenna unit (TRx 1 ), and wherein the distance (d) is substantially larger than a radar carrier wavelength (λ c ), - an evaluation and control unit that is configured - for reading out the plurality of range gates for the transceiver antenna unit (TRx 2 ) that received the reference signal , - based on the read-out range gate of the plurality of range gates that indicates the received reference signal and based on the a priori known distance (d), for synchronizing the specific transceiver antenna unit (TRx 1 ) and the transceiver antenna unit (TRx 2 ) that received the reference signal . - for reading out the plurality of range gates for the transceiver antenna unit (TRx 2 ) that received the reference signal , - based on the read-out range gate of the plurality of range gates that indicates the received reference signal and based on the a priori known distance (d), for synchronizing the specific transceiver antenna unit (TRx 1 ) and the transceiver antenna unit (TRx 2 ) that received the reference signal .
Method for characterising a variation in strain in a thin film formed on a substrate, said method being characterised in that it includes the application of a constant temperature able to cause a structural modification of the thin film causing the thin film to pass from the first state to a second state, the passage from the first state to the second state then giving rise to a variation in strain in the thin film, and the determination of the variation in strain in the film related to the passage from the first state to the second state because of the structural modification, when the constant temperature is applied, by measuring the half-height width β RC of the rocking curve by X-ray diffraction of the substrate using a series of diffraction measurements by X-ray diffraction of the substrate at various instants during the application of said temperature.
A pump assembly for a hydraulic tool, the pump assembly comprising: a reciprocating element configured to move between a retracted position and an extended position; a cam surface in the reciprocating element that engages a cam follower , the cam surface being a ramped radial channel including a hole extending radially outward from an inner circumferential surface of the reciprocating element ; a rotating element that receives a rotational input , each of the rotating element and the rotational input arranged about a longitudinal axis ; and a base that at least partially surrounds the rotating element ; wherein movement of the cam follower along the cam surface moves the reciprocating element from the retracted position to the extended position. a reciprocating element configured to move between a retracted position and an extended position; a cam surface in the reciprocating element that engages a cam follower , the cam surface being a ramped radial channel including a hole extending radially outward from an inner circumferential surface of the reciprocating element ; a rotating element that receives a rotational input , each of the rotating element and the rotational input arranged about a longitudinal axis ; and a base that at least partially surrounds the rotating element ; wherein movement of the cam follower along the cam surface moves the reciprocating element from the retracted position to the extended position.
Method for the additive manufacturing of a part, having the steps of - providing at least one powder (P1, P2) and - producing a plurality of part layers (B1, B2, B3) of the part to be manufactured, wherein in order to produce a part layer (B1, B2, B3) at least one powder portion (A1, A2, A3) of the at least one powder (P1, P2) is applied, wherein -- the powder portion (A1, A2, A3) is electrostatically charged, -- an application unit is electrostatically charged at least in parts, and -- the electrostatically charged powder portion (A1, A2, A3) is picked up by means of application unit electrostatically charged at least in parts and transferred to an application surface (F), - wherein various powder portions (A1, A2, A3) to be applied to produce the part layers (B1, B2, B3) are electrostatically charged with different polarity, characterised in that in order to transfer the powder portion (A1, A2, A3) to the application surface (F), the application unit is mechanically excited by means of an actuator , in particular a piezo actuator, of the application unit . - providing at least one powder (P1, P2) and - producing a plurality of part layers (B1, B2, B3) of the part to be manufactured, wherein in order to produce a part layer (B1, B2, B3) at least one powder portion (A1, A2, A3) of the at least one powder (P1, P2) is applied, wherein -- the powder portion (A1, A2, A3) is electrostatically charged, -- an application unit is electrostatically charged at least in parts, and -- the electrostatically charged powder portion (A1, A2, A3) is picked up by means of application unit electrostatically charged at least in parts and transferred to an application surface (F), -- the powder portion (A1, A2, A3) is electrostatically charged, -- an application unit is electrostatically charged at least in parts, and -- the electrostatically charged powder portion (A1, A2, A3) is picked up by means of application unit electrostatically charged at least in parts and transferred to an application surface (F), - wherein various powder portions (A1, A2, A3) to be applied to produce the part layers (B1, B2, B3) are electrostatically charged with different polarity,
A friction material manufacturing apparatus for sintering friction materials, the friction material manufacturing apparatus comprising: a jig configured to clamp a stack of workpieces, which are preforms of the friction materials, in a stacking direction; a transport mechanism that forms a transport path of the jig ; and a heating apparatus provided in a way of the transport path and configured to heat the stack clamped by the jig with infrared rays from a lateral side with respect to the stacking direction. a jig configured to clamp a stack of workpieces, which are preforms of the friction materials, in a stacking direction; a transport mechanism that forms a transport path of the jig ; and a heating apparatus provided in a way of the transport path and configured to heat the stack clamped by the jig with infrared rays from a lateral side with respect to the stacking direction.
A method of decoding video data, the method comprising: receiving a block of video data; receiving a syntax element, wherein the syntax element is an index to a secondary transform used for the block of video data; determining , for the block of video data, an intra prediction mode from a plurality of intra prediction modes comprising a planar mode, a DC mode and a plurality of angular modes; in the case that the intra prediction mode for the block of video data is planar mode, using a position-dependent prediction combination, PDPC, mode to decode the block of video data irrespective of the value of the syntax element; and in the case that the intra prediction mode for the block of video data is an intra prediction mode other than planar mode, determining whether or not to use a PDPC mode to decode the block of video data based at least on the determined intra prediction mode and the value of the syntax element. receiving a block of video data; receiving a syntax element, wherein the syntax element is an index to a secondary transform used for the block of video data; determining , for the block of video data, an intra prediction mode from a plurality of intra prediction modes comprising a planar mode, a DC mode and a plurality of angular modes; in the case that the intra prediction mode for the block of video data is planar mode, using a position-dependent prediction combination, PDPC, mode to decode the block of video data irrespective of the value of the syntax element; and
A method for removal of solid contaminants from air-containing, contaminated lubrication oil by leading the oil to the inlet of a pump and pumping it further to the inlet of a filter separating the contaminated lubrication oil into a solid phase, which is retained by the filter, and a liquid phase, which passes the filter and leaves as a filtrate through the outlet of the filter, wherein the filtrate in the outlet of the filter is maintained at a back pressure of at least 0.3 bar (0.03 MPa) by use of a hydraulic resistance downstream from the filter.
A method for producing a polyamide, wherein the method solid-phase polymerizes a granular raw material at a polymerization temperature of the granular material that is equal to or lower than the melting points of the raw material and the polyamide, in a reaction vessel equipped with a stirrer and wherein the inner wall of the reaction vessel is set at a temperature lower than the polymerization temperature of the granular raw material so as to fall within a temperature region lower than the temperature of the granular material by 100°C to 10°C in which the polymerization little proceeds, by heating the granular raw material with a stirring heat to the polymerization temperature of the granular raw material higher than the temperature of the inner wall of the reaction vessel, while the temperature of the inner wall of the reaction vessel is being maintained to be lower than the polymerization temperature of the granular raw material and within a temperature region lower than the temperature of the granular material by 100°C to 10°C in which the polymerization little proceeds, wherein the control of the temperature of the inner wall of the vessel in the reaction vessel is carried out by a known method using for example a heater, a steam and a heating medium jacket.
A cooler appliance comprising • a body , • at least one compartment provided in the body , in which the food products to be cooled are placed, • at least one evaporator provided on the rear wall of the body , enabling cooling the compartment , and • at least one shelf provided in the compartment , on which the food products to be cooled are placed, • at least one cooling apparatus • provided on the upper surface of the shelf and extending from the shelf towards the evaporator , • having at least one heat transfer surface in contact with the evaporator , • on which the containers containing the food products to be cooled are placed, and • enabling cooling the containers containing the food products by way of thermal conduction by rapidly conveying the heat thereof towards the evaporator characterized by • the cooling apparatus whose vertical cross-sectional area thickness increases in evaporator direction. • a body , • at least one compartment provided in the body , in which the food products to be cooled are placed, • at least one evaporator provided on the rear wall of the body , enabling cooling the compartment , and • at least one shelf provided in the compartment , on which the food products to be cooled are placed, • at least one cooling apparatus • provided on the upper surface of the shelf and extending from the shelf towards the evaporator , • having at least one heat transfer surface in contact with the evaporator , • on which the containers containing the food products to be cooled are placed, and • enabling cooling the containers containing the food products by way of thermal conduction by rapidly conveying the heat thereof towards the evaporator characterized by • the cooling apparatus whose vertical cross-sectional area thickness increases in evaporator direction.
Concrete pump truck comprising - a truck chassis with a combustion engine , wherein the combustion drive engine is designed to drive the concrete pump truck when driving, - a hydraulically driven concrete pump assembly with a distribution mast , a support and a concrete pump for pumping and distributing fresh concrete, - hydraulic pumps , which are designed to drive the concrete pump assembly , wherein at least one hydraulic pump is designed to drive the concrete pump and at least one further hydraulic pump is designed to drive the distribution mast and the support , characterized in that the combustion drive engine is designed to drive the hydraulic pump which is designed to drive the concrete pump , and that an electric motor is designed to drive only the at least one further hydraulic pump , which is designed to drive the distribution mast and the support . - a truck chassis with a combustion engine , wherein the combustion drive engine is designed to drive the concrete pump truck when driving, - a hydraulically driven concrete pump assembly with a distribution mast , a support and a concrete pump for pumping and distributing fresh concrete, - hydraulic pumps , which are designed to drive the concrete pump assembly , wherein at least one hydraulic pump is designed to drive the concrete pump and at least one further hydraulic pump is designed to drive the distribution mast and the support ,