mhurhangee/ep-ind-claims huggingface dataset:
A kneading machine, comprising: - a first kneading tool and a second kneading tool, which turn about respective axes of rotation (I1, 12); and - a system for driving said kneading tools (I1, I2) configured to drive said first and second tools according to a given phase difference for execution of a kneading action; said machine being characterized in that it comprises: - a first driving unit prearranged for driving said first tool; - a second driving unit prearranged for driving said second tool; - a first sensor for detecting a datum indicating the angular position or the velocity of rotation of said first tool; - a second sensor for detecting a datum indicating the angular position or the velocity of rotation of said second tool; and - a control unit configured to control said first and second driving units (6, 8) on the basis of the signals coming from said first and second sensors (102, 104) so as to operate said first and second tools (2, 4) according to a reference phase difference (θ R), wherein said control unit is configured to receive a signal indicating a reference phase difference and to control said first and second motors on the basis of said signal, characterized in that said machine comprises a sensor designed to detect a parameter indicating the kneading action exerted by said first and second tools (2, 4), and wherein said control unit is configured to modify the velocity of rotation of said first tool and/or said second tool as a function of a signal coming from said sensor so as to pass from a first reference phase difference to a second reference phase difference. - a first kneading tool and a second kneading tool, which turn about respective axes of rotation (I1, 12); and - a system for driving said kneading tools (I1, I2) configured to drive said first and second tools according to a given phase difference for execution of a kneading action; - a first driving unit prearranged for driving said first tool; - a second driving unit prearranged for driving said second tool; - a first sensor for detecting a datum indicating the angular position or the velocity of rotation of said first tool; - a second sensor for detecting a datum indicating the angular position or the velocity of rotation of said second tool; and - a control unit configured to control said first and second driving units (6, 8) on the basis of the signals coming from said first and second sensors (102, 104) so as to operate said first and second tools (2, 4) according to a reference phase difference (θ R), wherein said control unit is configured to receive a signal indicating a reference phase difference and to control said first and second motors on the basis of said signal, characterized in that said machine comprises a sensor designed to detect a parameter indicating the kneading action exerted by said first and second tools (2, 4), and wherein said control unit is configured to modify the velocity of rotation of said first tool and/or said second tool as a function of a signal coming from said sensor so as to pass from a first reference phase difference to a second reference phase difference.
A semiconductor device, comprising: - a semiconductor element provided within a housing (1, 5, 9) having an electrode; - a bonding wire connecting the electrode with the semiconductor element; - a sealing resin member covering the electrode, the semiconductor element and the bonding wire; and - a sheet member fixed in the housing (1, 5, 9) and arranged out of contact with the bonding wire, and further being buried in the sealing resin member, being partly curved to extend along an arch form of the bonding wire, and having an opening portion, wherein the opening portion of the sheet member is arranged above a bonded point of the electrode with the bonding wire or above a bonded point of the semiconductor element with the bonding wire. - a semiconductor element provided within a housing (1, 5, 9) having an electrode; - a bonding wire connecting the electrode with the semiconductor element; - a sealing resin member covering the electrode, the semiconductor element and the bonding wire; and - a sheet member fixed in the housing (1, 5, 9) and arranged out of contact with the bonding wire, and further being buried in the sealing resin member, being partly curved to extend along an arch form of the bonding wire, and having an opening portion, wherein the opening portion of the sheet member is arranged above a bonded point of the electrode with the bonding wire or above a bonded point of the semiconductor element with the bonding wire.
A female coupling element of a two-part plug-in coupling, which has the following features: a. a planar head section from which, perpendicularly in an installation direction of the female coupling element, b. a female hollow-cylinder-like connection structure extends having a radially inwardly projecting locking web on a radial inner side, so that a male bolt element, in particular a ball bolt, is insertable into the female hollow-cylinder-like connection structure against the installation direction and is lockable there, wherein c. the female coupling element has an integral locking structure with a circumferential or a plurality of uniformly arranged outwardly projecting springy latching webs on an outer radial side of the female hollow cylinder-like connection structure, which form an installation gap with the head section for receiving the component, so that the female coupling element is latchable in the opening of the component with a relative movement between the female coupling part and component in installation direction, while d. the circumferential or the plurality of latching webs include an inner hollow space so that the latching webs are deformable radially inwardly, characterized in that e. a plurality of radial webs (48, 48', 48") is provided on a bottom side of the head section which extend parallel to a longitudinal axis of the coupling element. a. a planar head section from which, perpendicularly in an installation direction of the female coupling element, b. a female hollow-cylinder-like connection structure extends having a radially inwardly projecting locking web on a radial inner side, so that a male bolt element, in particular a ball bolt, is insertable into the female hollow-cylinder-like connection structure against the installation direction and is lockable there, wherein c. the female coupling element has an integral locking structure with a circumferential or a plurality of uniformly arranged outwardly projecting springy latching webs on an outer radial side of the female hollow cylinder-like connection structure, which form an installation gap with the head section for receiving the component, so that the female coupling element is latchable in the opening of the component with a relative movement between the female coupling part and component in installation direction, while d. the circumferential or the plurality of latching webs include an inner hollow space so that the latching webs are deformable radially inwardly, characterized in that e. a plurality of radial webs (48, 48', 48") is provided on a bottom side of the head section which extend parallel to a longitudinal axis of the coupling element.
A wireless device configured for authenticating a message, comprising: means for obtaining the message; means for generating a keystream; and means for computing a message authentication code using the keystream and a universal hash function, wherein the universal hash function is computed using carryless multiplication, and wherein computing the universal hash function comprises: reversing a 32-bit word of the message; computing a first 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a first 32-bit word of the keystream; computing a second 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a second 32-bit word of the keystream; performing an exclusive-OR operation between a lowest 32-bit word of the first 64-bit word and a highest 32-bit word of the second 64-bit word to obtain a first 32-bit variable; and performing an exclusive-OR operation between a second 32-bit variable and the first 32-bit variable. means for obtaining the message; means for generating a keystream; and means for computing a message authentication code using the keystream and a universal hash function, wherein the universal hash function is computed using carryless multiplication, and wherein computing the universal hash function comprises: reversing a 32-bit word of the message; computing a first 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a first 32-bit word of the keystream; computing a second 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a second 32-bit word of the keystream; performing an exclusive-OR operation between a lowest 32-bit word of the first 64-bit word and a highest 32-bit word of the second 64-bit word to obtain a first 32-bit variable; and performing an exclusive-OR operation between a second 32-bit variable and the first 32-bit variable. reversing a 32-bit word of the message; computing a first 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a first 32-bit word of the keystream; computing a second 64-bit word using carryless multiplication between the reversed 32-bit word of the message and a second 32-bit word of the keystream; performing an exclusive-OR operation between a lowest 32-bit word of the first 64-bit word and a highest 32-bit word of the second 64-bit word to obtain a first 32-bit variable; and performing an exclusive-OR operation between a second 32-bit variable and the first 32-bit variable.
A non-ferrous metal melt pump comprising: a vortex chamber body closed except for a unique substantially central inlet traversing an upper surface of the vortex chamber configured to enable a non-ferrous metal melt flow vertically into the vortex chamber, an outlet to discharge the non-ferrous metal melt from the vortex chamber, the shape of the vortex chamber being such that the non ferrous metal may be made by a driving force, to flow in a spiral shape between the inlet and the outlet; and a movable magnetic field generator that is disposed outside the vortex chamber and below a bottom plate of the vortex chamber, and is configured to apply the driving force to the non-ferrous metal melt by rotating magnetic lines of force, which pass the non-ferrous metal melt in an up-and-down direction, along a horizontal plane, wherein the inlet and the bottom plate face each other in an up-and-down direction, the outlet is opened in a substantially horizontal direction, the movable magnetic field generator includes a magnet base formed as a rotating plate that is supported so as to rotate around an axis extending in an up-and-down direction, and a plurality of permanent magnets generating the magnetic lines, that is circumferentially disposed on the surface of the magnet base facing the bottom plate of the vortex chamber in an up-and-down direction so that different polarities are arranged alternately. a vortex chamber body closed except for a unique substantially central inlet traversing an upper surface of the vortex chamber configured to enable a non-ferrous metal melt flow vertically into the vortex chamber, an outlet to discharge the non-ferrous metal melt from the vortex chamber, the shape of the vortex chamber being such that the non ferrous metal may be made by a driving force, to flow in a spiral shape between the inlet and the outlet; and a movable magnetic field generator that is disposed outside the vortex chamber and below a bottom plate of the vortex chamber, and is configured to apply the driving force to the non-ferrous metal melt by rotating magnetic lines of force, which pass the non-ferrous metal melt in an up-and-down direction, along a horizontal plane,
A method of suspending elemental sulfur in water, said method comprising the steps of: A. providing water comprising elemental sulfur and hydrogen sulfide; and, B. adding from 1 to 100 parts by weight of a sulfur suspension additive to the water based on one million parts by weight of the water to suspend the elemental sulfur in the water, wherein the sulfur suspension additive is: either an alkyldiphenyloxide disulfonate or salt thereof; or, a combination of an alkyldiphenyloxide disulfonate or salt thereof with a secondary alcohol ethoxylate, a non-ionic ethylene oxide and/or propylene oxide copolymer or both of a secondary alcohol ethoxylate and a non-ionic ethylene oxide and/or propylene oxide copolymer. A. providing water comprising elemental sulfur and hydrogen sulfide; and, B. adding from 1 to 100 parts by weight of a sulfur suspension additive to the water based on one million parts by weight of the water to suspend the elemental sulfur in the water, either an alkyldiphenyloxide disulfonate or salt thereof; or, a combination of an alkyldiphenyloxide disulfonate or salt thereof with a secondary alcohol ethoxylate, a non-ionic ethylene oxide and/or propylene oxide copolymer or both of a secondary alcohol ethoxylate and a non-ionic ethylene oxide and/or propylene oxide copolymer.
A method for spatial filtering of at least one autocorrelated useful signal with known autocorrelation characteristics from a received signal of a group antenna, the method comprising the steps of: - receiving the received signal of the group antenna, the group antenna comprising a plurality of antenna channels; - calculating weights of an adaptive spatial filter for the individual antenna channels of the plurality of antenna channels; and - filtering the received signal by the adaptive spatial filter to extract the at least one autocorrelated useful signal from the received signal, characterized in that - calculating the weights of the adaptive spatial filter w comprises an optimization of a sum of squared magnitudes of autocorrelations of an output signal of the adaptive spatial filter for a plurality of time delays under the secondary condition of a constant filter response of the adaptive spatial filter with respect to a control vector a(θ) describing the at least one autocorrelated useful signal according to the following equation: min w ∑ τ w H R x τ w 2 mit w H a θ = 1 - the time-delayed cross-covariance matrices for freely selectable time delays τ are given by R x τ = E x t + τ x H t where x (t) is the received signal of the group antenna and E is the expected value. - receiving the received signal of the group antenna, the group antenna comprising a plurality of antenna channels; - calculating weights of an adaptive spatial filter for the individual antenna channels of the plurality of antenna channels; and - filtering the received signal by the adaptive spatial filter to extract the at least one autocorrelated useful signal from the received signal, characterized in that - calculating the weights of the adaptive spatial filter w comprises an optimization of a sum of squared magnitudes of autocorrelations of an output signal of the adaptive spatial filter for a plurality of time delays under the secondary condition of a constant filter response of the adaptive spatial filter with respect to a control vector a(θ) describing the at least one autocorrelated useful signal according to the following equation: min w ∑ τ w H R x τ w 2 mit w H a θ = 1 - the time-delayed cross-covariance matrices for freely selectable time delays τ are given by R x τ = E x t + τ x H t where x (t) is the received signal of the group antenna and E is the expected value.
A transducer comprising: first and second piezoelectric layers (19, 20) made of corresponding different first and second piezoelectric materials; and three or more electrodes (18, 21, 22), implemented in two or more conductive electrode layers, wherein the first piezoelectric layer is sandwiched between a first pair of electrodes (18, 22) of the three or more electrodes and wherein the second piezoelectric layer is sandwiched between a second pair of electrodes (18, 21) of the three or more electrodes (18, 21, 22), wherein the first and second pairs of electrodes contain no more than one electrode of the three or more electrodes (18, 21, 22) that is common to both the first pair and the second pair, further comprising a structural layer sandwiched between a substrate and the first piezoelectric layer or the second piezoelectric layer or the first electrode, or the second electrode, or the third electrode; characterised in that the first and second piezoelectric layers (19, 20) are substantially coplanar and first and third electrodes are formed from a first electrode layer and second and fourth electrodes (21, 22) are formed from a second electrode layer that is formed on the structural layer, wherein the first and second piezoelectric layers (19, 20) are sandwiched between the first and second electrode layers, wherein the first piezoelectric layer and the first and second electrodes (18, 22) form an annulus and the second piezoelectric layer and third and fourth electrodes (18, 21) form a shape inside the annulus. further comprising a structural layer sandwiched between a substrate and the first piezoelectric layer or the second piezoelectric layer or the first electrode, or the second electrode, or the third electrode; characterised in that the first and second piezoelectric layers (19, 20) are substantially coplanar and first and third electrodes are formed from a first electrode layer and second and fourth electrodes (21, 22) are formed from a second electrode layer that is formed on the structural layer, wherein the first and second piezoelectric layers (19, 20) are sandwiched between the first and second electrode layers, wherein the first piezoelectric layer and the first and second electrodes (18, 22) form an annulus and the second piezoelectric layer and third and fourth electrodes (18, 21) form a shape inside the annulus.
A sales display unit (12A, 112) adapted to present one or several products, in particular cosmetics, and to advertise the product(s) at a point of sale, the display unit (12A, 112) comprising at least one module (36, 38) for presenting at least one set of products, the display unit (12A, 112) comprising a frame, at least one processing unit (72, 172) comprising a processor and a memory, the module (36, 38) comprising: - optionally a reserve containing a stock of said set of products, - a receptacle mounted on the frame and comprising a detection member, and - a product support, characterized in that the product support comprises an identification member representative of the product support, the product support being movable between an uninstalled position, in which the product support is away from the receptacle, and an installed position, in which the product support is received in the receptacle, the detection member 68 being adapted to cooperate with the identification member when the product support is in the installed position, in order to identify the product support, and to send to the processing unit (72, 172) information representative of the identified product support being in the installed position, the memory comprising information which, when executed by the processor, causes the processing unit (72, 172) to send information contained in the memory to a server via a network, and/or to a screen (76, 76A) of the display unit (12A, 112), the information sent relating to at least the set of products associated with the identified product support. - optionally a reserve containing a stock of said set of products, - a receptacle mounted on the frame and comprising a detection member, and - a product support, characterized in that the product support comprises an identification member representative of the product support, the product support being movable between an uninstalled position, in which the product support is away from the receptacle, and an installed position, in which the product support is received in the receptacle, the detection member 68 being adapted to cooperate with the identification member when the product support is in the installed position, in order to identify the product support, and to send to the processing unit (72, 172) information representative of the identified product support being in the installed position, the memory comprising information which, when executed by the processor, causes the processing unit (72, 172) to send information contained in the memory to a server via a network, and/or to a screen (76, 76A) of the display unit (12A, 112), the information sent relating to at least the set of products associated with the identified product support.
Process for the gasification of biomass, comprising the following successive stages: a/ drying a biomass; b/ grinding the biomass in order to obtain a dry powder, c/ wet granulation of the biomass powder in order to obtain biomass granules in the form of a semolina; d/ drying of the semolina granules; e/ injection of the dry semolina into a gasification reactor. a/ drying a biomass; b/ grinding the biomass in order to obtain a dry powder, c/ wet granulation of the biomass powder in order to obtain biomass granules in the form of a semolina; d/ drying of the semolina granules; e/ injection of the dry semolina into a gasification reactor.
A method for receiving data at a terminal, the method comprising: receiving, from a base station, information on a transmission mode among multiple transmission modes on higher layer signaling, the transmission mode being transmission mode 9 or transmission mode 10; receiving, from the base station, information for a multimedia broadcast multicast service single frequency network, MBSFN, sub-frame on higher layer signaling; receiving, from the base station, downlink control information, DCI, related to data; and receiving, from the base station, the data based on the DCI and at least one reference signal, the at least one reference signal being identified based on the transmission mode and the information on MBSFN sub-frame. receiving, from a base station, information on a transmission mode among multiple transmission modes on higher layer signaling, the transmission mode being transmission mode 9 or transmission mode 10; receiving, from the base station, information for a multimedia broadcast multicast service single frequency network, MBSFN, sub-frame on higher layer signaling; receiving, from the base station, downlink control information, DCI, related to data; and receiving, from the base station, the data based on the DCI and at least one reference signal, the at least one reference signal being identified based on the transmission mode and the information on MBSFN sub-frame.