mhurhangee/ep-ind-claims huggingface dataset:
Rotary flow machine comprising a rotor unit, rotating around a rotational axis, around which in at least one partial axial area a stationary inner housing is provided at a radial distance which can be divided up along the rotational axis into an upper and a lower inner housing half (3, 4) which adjoin each other along a horizontal split plane, said inner housing is surrounded in at least one axial section by an outer housing which can be divided up along the rotational axis in one upper and one lower outer housing half (1, 2), and the lower inner housing half provides support means which support the inner lower housing half on the lower outer housing half, and said support means are detachably mounted to the lower inner housing half at least at two opposite support positions (P1, P2) relative to the rotational axis along the split plane, the lower and upper inner housing half (3, 4) each provides a recess (13a, 13b) at the support positions which complement to a single recess in a closed state of the inner housing and said single recess is in shape of a blind hole, being open in radially outward direction and closed against the rotor unit, and said single recess in the inner housing at each support position (P1, P2) surrounds a mounting section of the support means, characterized in that the support means comprises said mounting section and a carrier section, both being joined in one piece, said mounting section is in direct contact with the lower inner housing half and detachably mounted to said lower inner housing by fixing means, and said carrier section protrudes from the lower inner housing half radially outward and ends in a single recess within the upper and lower outer housing halves (1, 2), in which the carrier section contacts at least one support surface of the lower outer housing half indirectly by provision of adjustment devices (7, 8) on which the carrier section rests slidably at least in radial direction, wherein the lower and upper outer housing half (1, 2) each provides a recess at the support positions which complement to said single recess in a closed state of the outer housing, said single recess is formed as an access hole to enable free access from radially outside of the outer housing and is bordered at least in a circumferential direction of the outer housing by an upper periphery of the upper outer housing half and by a lower periphery of the lower outer housing half, and said carrier section of the support means extends radially outward into the single recess of the outer housing at each support position (P1, P2) such that the carrier section of the support means encloses an upper gap with the upper periphery and a lower gap with the lower periphery, and wherein said adjustment devices (7, 8) and at least one shim are placed into the lower and upper gap (19, 20) for the purpose of centering said carrier section of said support means in circumferential direction of the outer housing.
Flow module (1, 1') for a flow grid of a headbox of a machine for producing a fibrous web for passing a fibrous suspension, comprising flow channels (3, 3') with an inflow side and with an outflow side, wherein at least one connecting element having a connecting surface is provided on the outflow side for direct connection to the corresponding connecting element of at least one further flow module (1, 1'), and in that the flow module (1, 1') is produced in one piece by an additive manufacturing process, characterized in that the flow module (1, 1') comprises at least two flow channels (3, 3').
An electronic device configured for use in a catheter lumen comprising: an elongate electric connector comprising an elongate flexible substrate having a proximal portion (13, 23) and a distal portion (14, 24) spaced from the proximal portion by a length along a longitudinal axis, the elongate flexible substrate having a width along an axis transverse to the longitudinal axis, the elongate flexible substrate defining an elongation ratio of the length to the width, the elongation ratio being at least 100:1, and an integrated device package mechanically and electrically connected to the distal portion of the elongate flexible substrate, characterised in that the electronic device further comprises a bobbin, wherein the proximal portion (13, 23) mechanically couples to the bobbin and wherein the elongate electrical connector is configured to unspool from the bobbin. an elongate electric connector comprising an elongate flexible substrate having a proximal portion (13, 23) and a distal portion (14, 24) spaced from the proximal portion by a length along a longitudinal axis, the elongate flexible substrate having a width along an axis transverse to the longitudinal axis, the elongate flexible substrate defining an elongation ratio of the length to the width, the elongation ratio being at least 100:1, and an integrated device package mechanically and electrically connected to the distal portion of the elongate flexible substrate, characterised in that the electronic device further comprises a bobbin, wherein the proximal portion (13, 23) mechanically couples to the bobbin and wherein the elongate electrical connector is configured to unspool from the bobbin.
A coating composition comprising (a) one or more microbicide, (b) one or more soluble polymer comprising acrylamide as polymerized units, wherein said polymer is non-anionic, and (c) aqueous solvent, wherein the amount of water in the solvent, by weight based on the weight of solvent, is 75% or more, wherein said polymer is dissolved in said solvent; and wherein said soluble polymer additionally comprises at least 10% by weight polymerized units of one or more acrylamide-variant monomers having the structure wherein R 5 and R 6 are hydrogen; and R 7 is an unsubstituted alkyl group. (a) one or more microbicide, (b) one or more soluble polymer comprising acrylamide as polymerized units, wherein said polymer is non-anionic, and (c) aqueous solvent, wherein the amount of water in the solvent, by weight based on the weight of solvent, is 75% or more,
A method for producing a carbon fiber reinforced resin molded article in which a mixture-made body, which comprises a carbon fiber and a thermoplastic resin, has been formed by melting and kneading, and is press-molded, the method including a perforation step, in which pores are formed in the mixture-made body, before press-molding, the pores penetrating through at least a hardened part of a surface of the mixture-made body, wherein the internal of the mixture-made body still has fluidity, wherein the perforating is performed by stabbing the mixture-made body with spike shaped members, characterized in that the spike shaped members are porous bodies; and a gas in the mixture-made body is eliminated via the spike shaped members. wherein the perforating is performed by stabbing the mixture-made body with spike shaped members, characterized in that the spike shaped members are porous bodies; and a gas in the mixture-made body is eliminated via the spike shaped members.
A method comprising: specifying a desired uplink-downlink configuration for time division duplex communication in a subject cell of a cellular communication system, obtaining at least one desired uplink-downlink configuration for time division duplex communication in at least one neighboring cell of the cellular communication system, wherein the at least one neighboring cell and the subject cell belong to the same cell cluster, and defining an uplink-downlink configuration for time division duplex communication for at least the subject cell of the cell cluster out of a set of predefined uplink-downlink configurations with flexible subframe patterns for flexible time division duplex communication on the basis of the specified desired uplink-downlink configuration for the subject cell and the obtained at least one desired uplink-downlink configuration for the at least one neighboring cell, characterized by issuing an indication of the set configuration mode to all cells of the cell cluster, which indicates one of a first configuration mode in which the same uplink-downlink configuration is required for the cell cluster and a second configuration mode in which different uplink-downlink configurations within the same subset of the set of predefined uplink-downlink configurations are allowed for the cell cluster. specifying a desired uplink-downlink configuration for time division duplex communication in a subject cell of a cellular communication system, obtaining at least one desired uplink-downlink configuration for time division duplex communication in at least one neighboring cell of the cellular communication system, wherein the at least one neighboring cell and the subject cell belong to the same cell cluster, and defining an uplink-downlink configuration for time division duplex communication for at least the subject cell of the cell cluster out of a set of predefined uplink-downlink configurations with flexible subframe patterns for flexible time division duplex communication on the basis of the specified desired uplink-downlink configuration for the subject cell and the obtained at least one desired uplink-downlink configuration for the at least one neighboring cell, characterized by issuing an indication of the set configuration mode to all cells of the cell cluster, which indicates one of a first configuration mode in which the same uplink-downlink configuration is required for the cell cluster and a second configuration mode in which different uplink-downlink configurations within the same subset of the set of predefined uplink-downlink configurations are allowed for the cell cluster.
A circuit for generating quadrature local oscillator, LO, signals, the circuit comprising: a frequency synthesizer generating a first LO signal; a polyphase filter coupled to receive the first LO signal and generating a first in-phase LO signal and a first quadrature LO signal; a frequency divider coupled to receive the first LO signal and generating a second in-phase LO signal and a second quadrature LO signal; the circuit characterised that it further comprises: a LO signal selector for selecting either the first or second in-phase LO signals as an output in-phase LO signal and selecting either the first or second quadrature LO signals as an output quadrature LO signal based on a desired output frequency indicated by a frequency select signal that is used to set a frequency of the first LO signal. a frequency synthesizer generating a first LO signal; a polyphase filter coupled to receive the first LO signal and generating a first in-phase LO signal and a first quadrature LO signal; a frequency divider coupled to receive the first LO signal and generating a second in-phase LO signal and a second quadrature LO signal; the circuit characterised that it further comprises: a LO signal selector for selecting either the first or second in-phase LO signals as an output in-phase LO signal and selecting either the first or second quadrature LO signals as an output quadrature LO signal based on a desired output frequency indicated by a frequency select signal that is used to set a frequency of the first LO signal.
Machine for producing wire elements having two legs extending substantially in one plane, the apex of which legs lies outside the plane of the legs, the machine comprising: - a feed apparatus for substantially straight wire blanks having a predetermined length; - a first bending device, which is designed to carry out a first bending process on wire blanks fed from the feed apparatus in order to form planar wire elements having two legs and an apex; - a plurality of second bending devices (24a-f) each comprising a different stamping element (26a-f), wherein the second bending devices (24a-f) are all designed to bend the apices of the planar wire elements out of the leg plane; - a first transport device, which is designed to transfer the wire elements from the first bending device to one of the plurality of second bending devices (24a-f); and - a controller, which is operatively coupled to the feed apparatus, the first bending device, the second bending devices (24a-f) and the first transport device for control thereof and is designed to, on the basis of process parameters, control the first transport device to transfer each of the wire elements to a selected bending device of the second bending devices (24a-f). - a feed apparatus for substantially straight wire blanks having a predetermined length; - a first bending device, which is designed to carry out a first bending process on wire blanks fed from the feed apparatus in order to form planar wire elements having two legs and an apex; - a plurality of second bending devices (24a-f) each comprising a different stamping element (26a-f), wherein the second bending devices (24a-f) are all designed to bend the apices of the planar wire elements out of the leg plane; - a first transport device, which is designed to transfer the wire elements from the first bending device to one of the plurality of second bending devices (24a-f); and - a controller, which is operatively coupled to the feed apparatus, the first bending device, the second bending devices (24a-f) and the first transport device for control thereof and is designed to, on the basis of process parameters, control the first transport device to transfer each of the wire elements to a selected bending device of the second bending devices (24a-f).
Method performed by a video decoder, operable according to a video decoding scheme applying residual decoding comprising use of a context model for deriving contexts to be used for decoding flags, in a bitmask, which flags indicate, respectively, whether an absolute value of a non-zero transform coefficients in a transformed residual block is greater than one, where the context model comprises a plurality of states, each state corresponding to a context and a probability, where a procedure for deriving contexts for a number of flags related to transform coefficients is started in a first state, A, and where, after decoding a flag which corresponds to an absolute value of a transform coefficient that is greater than one, the context model goes to a second state, D, which is used for decoding remaining flags in said bitmask, the method comprising: for a transform-skipped residual block comprising residual values and not transform coefficients: - deriving contexts to be used for decoding flags, in a bitmask, that indicate, respectively, whether an absolute value of a non-zero residual value in the transform-skipped block is greater than one, by use of the context model, starting in the second state D, which is used for decoding at least the first flag. - deriving contexts to be used for decoding flags, in a bitmask, that indicate, respectively, whether an absolute value of a non-zero residual value in the transform-skipped block is greater than one, by use of the context model, starting in the second state D, which is used for decoding at least the first flag.
A polymeric compound, comprising 2-nicotinamide-disulfide side chains, 2-isonicotinamide-disulfide side chains, 6-nicotinamide-disulfide side chains, 6-isonicotinamide-disulfide side chains or 6-pyridoxine-disulfide side chains.
A dental treatment apparatus comprising: a handpiece including a head configured to hold a cutting tool; a drive unit (7, 13) configured to perform forward rotation driving for rotating the cutting tool held at the head in a cutting direction, and reverse rotation driving for rotating the cutting tool held at the head in a non-cutting direction; an operation receiving unit configured to receive an operation of an operator; a controller configured to control the drive unit (7, 13) that is configured to drive the cutting tool, according to the operation received by the operation receiving unit, characterized in that only when a prescribed condition is satisfied, the controller is configured to set the operation received by the operation receiving unit as an operation to drive the cutting tool by the reverse rotation driving, or an operation to drive the cutting tool by twist driving by which the forward rotation driving and the reverse rotation driving are alternately performed. a handpiece including a head configured to hold a cutting tool; a drive unit (7, 13) configured to perform forward rotation driving for rotating the cutting tool held at the head in a cutting direction, and reverse rotation driving for rotating the cutting tool held at the head in a non-cutting direction; forward rotation driving for rotating the cutting tool held at the head in a cutting direction, and reverse rotation driving for rotating the cutting tool held at the head in a non-cutting direction; an operation receiving unit configured to receive an operation of an operator; a controller configured to control the drive unit (7, 13) that is configured to drive the cutting tool, according to the operation received by the operation receiving unit, characterized in that only when a prescribed condition is satisfied, the controller is configured to set the operation received by the operation receiving unit as an operation to drive the cutting tool by the reverse rotation driving, or an operation to drive the cutting tool by twist driving by which the forward rotation driving and the reverse rotation driving are alternately performed. an operation to drive the cutting tool by the reverse rotation driving, or an operation to drive the cutting tool by twist driving by which the forward rotation driving and the reverse rotation driving are alternately performed.
A hand dishwashing liquid detergent composition comprising a surfactant system comprising water and by weight of the composition from 5 to 15% of an anionic surfactant, preferably an alkyl ether sulfate, from 0.8 to 3% of an amine oxide co-surfactant, from 0.001 to 2% of at least one lipase, at least 0.05% by weight of the composition of at least one monovalent, divalent or trivalent cation or a mixture thereof, and from 1 to 3% of a corresponding salt.
A method comprising: determining, by a processor, that a mobile device has been in an inactive state for a first period of time, wherein the mobile device is considered inactive if it does not move faster than a threshold velocity or further than a threshold distance within a local environment for the first period of time; causing, by the processor, a mobile application of the mobile device to enter a first idle state for a second period of time; responsive to the expiration of the second period of time, causing, by the processor, the mobile application of the mobile device to enter a maintenance state for a third period of time, and responsive to the expiration of the third period of time, causing, by the processor, the mobile application of the mobile device to enter a second idle state for a fourth period of time. determining, by a processor, that a mobile device has been in an inactive state for a first period of time, wherein the mobile device is considered inactive if it does not move faster than a threshold velocity or further than a threshold distance within a local environment for the first period of time; causing, by the processor, a mobile application of the mobile device to enter a first idle state for a second period of time; responsive to the expiration of the second period of time, causing, by the processor, the mobile application of the mobile device to enter a maintenance state for a third period of time, and responsive to the expiration of the third period of time, causing, by the processor, the mobile application of the mobile device to enter a second idle state for a fourth period of time.
A first device capable of mobile operation, characterised by said first device being operable to communicate information, wirelessly, directly to a wide area network, WAN, or indirectly, via a wireless connection to a second device capable of mobile operation and connected wirelessly to said WAN, said first device being further operable to selectively power-down or deactivate WAN communications functionality and duplicate functionality on said first device likewise found on said second device in connection with the wireless connection being established between said first and second devices, wherein the first device is arranged to send and receive communication data to and from the WAN via the wireless connection established between said first and second device.
A door closer, in particular a swing door closer, with a free-swing function, comprising a door closer housing, an output shaft connectable to a door, a piston sub-assembly connected to the output shaft and guided in the door closer housing, a closer spring, a piston rod disposed for the connection of the piston sub-assembly to the closer spring, a hydraulic blocking compartment configured for blocking the closer spring, and a first non-return valve between the blocking compartment and a compartment, which decreases during the opening procedure of the door, in particular a reception compartment for the closer spring, wherein the first non-return valve blocks in the direction of the decreasing compartment, a closer spring tensioning piston, which is guided in the door closer housing and rests against the closer spring, wherein the non-return valve is disposed in the closer spring tensioning piston, and the non-return valve is spring-loaded and disposed such that hydraulic fluid in the decreasing compartment is pre-pressurized by means of the opening procedure and thereby is actively pumped through the non-return valve into the blocking compartment, characterized by a further, in particular spring-loaded non-return valve, which is disposed between the decreasing compartment and the reservoir line, wherein the further non-return valve blocks in the direction of the reservoir line, wherein the decreasing compartment is closed during the opening procedure, with the exception of the first non-return valve.
A method of forming a composite part, comprising: placing a composite charge on a tool spanning a mold cavity in the tool; forming the composite charge into the mold cavity; and holding opposite sides (70, 74) of the composite charge against the tool as the composite charge is being formed into the mold cavity, including holding one of the opposite sides of the composite charge against movement on the tool during forming of the composite charge into the mold cavity while allowing the other of the opposite side of the composite charge to slip over the tool. placing a composite charge on a tool spanning a mold cavity in the tool; forming the composite charge into the mold cavity; and holding opposite sides (70, 74) of the composite charge against the tool as the composite charge is being formed into the mold cavity, including holding one of the opposite sides of the composite charge against movement on the tool during forming of the composite charge into the mold cavity while allowing the other of the opposite side of the composite charge to slip over the tool.