mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an object by additive manufacturing, the method comprising at least one repetition of the steps; - providing a layer of particulate material on a surface; wherein the particulate material comprises: 15 to 70 wt% of an aluminosilicate oxide based compound having a Si:Al molar ratio in the range of 0.7 to 2.5, the aluminosilicate oxide based compound being an anhydrous pozzolanic aluminosilicate compound, and an inorganic aggregate; - compacting the layer of particulate material provided on the production surface whereby a compacted layer of particulate material having a density of between 1.4 and 1.8 g/cm 3 is formed; - providing a liquid composition on the compacted layer of particulate material, wherein the liquid composition is provided on the compacted layer using a piezoelectric print head, wherein the liquid composition is provided in drops having a drop size in a range of 100 to 200 picoliter, wherein the liquid composition is an aqueous solution comprising 10 to 50 wt% alkali metal silicate having a molar ratio of Si:M in the range of 0.7 to 1.5, wherein M is an alkali metal; and - forming the object by allowing the liquid composition to react with the particulate material. - providing a layer of particulate material on a surface; 15 to 70 wt% of an aluminosilicate oxide based compound having a Si:Al molar ratio in the range of 0.7 to 2.5, the aluminosilicate oxide based compound being an anhydrous pozzolanic aluminosilicate compound, and an inorganic aggregate; - compacting the layer of particulate material provided on the production surface whereby a compacted layer of particulate material having a density of between 1.4 and 1.8 g/cm 3 is formed; - providing a liquid composition on the compacted layer of particulate material, wherein the liquid composition is provided on the compacted layer using a piezoelectric print head, wherein the liquid composition is provided in drops having a drop size in a range of 100 to 200 picoliter, wherein the liquid composition is an aqueous solution comprising 10 to 50 wt% alkali metal silicate having a molar ratio of Si:M in the range of 0.7 to 1.5, wherein M is an alkali metal; and - forming the object by allowing the liquid composition to react with the particulate material.
A rotary switch assembly, in particular of a steering wheel column integrated module of an automotive vehicle, comprising a support member, a control ring held rotationally by said support member, a slider disposed slidably along the axis of rotation of said control ring and cooperating with an activating member to generate electrical signals, wherein an angular displacement of said control ring is converted into an axial displacement of said slider, characterised in that said slider is provided with means (51, 25) for restoring the slider equilibrium position along said axis of rotation, said control ring is provided with a number of substantially equiangularly disposed radial protrusions (42a, 42b), said slider is provided with a radial protrusion (52a, 52b) that: extends in an area of a circumference defined by said radial protrusions (42a, 42b) of said control ring, remains between two adjoining radial protrusions (42a, 42b) of said control ring when said slider is in the equilibrium position, and cooperates with said radial protrusions (42a, 42b) of said control ring, wherein said radial protrusion of said slider or said radial protrusions of said control ring has/have a form of a cam having two angularly external surfaces (81, 82) slanted at the same orientation (α 1, α 2) with respect to said axis of rotation such that an angular displacement of said control ring is converted into an axial displacement of said slider. said slider is provided with means (51, 25) for restoring the slider equilibrium position along said axis of rotation, said control ring is provided with a number of substantially equiangularly disposed radial protrusions (42a, 42b), said slider is provided with a radial protrusion (52a, 52b) that: extends in an area of a circumference defined by said radial protrusions (42a, 42b) of said control ring, remains between two adjoining radial protrusions (42a, 42b) of said control ring when said slider is in the equilibrium position, and cooperates with said radial protrusions (42a, 42b) of said control ring, wherein said radial protrusion of said slider or said radial protrusions of said control ring has/have a form of a cam having two angularly external surfaces (81, 82) slanted at the same orientation (α 1, α 2) with respect to said axis of rotation such that an angular displacement of said control ring is converted into an axial displacement of said slider. extends in an area of a circumference defined by said radial protrusions (42a, 42b) of said control ring, remains between two adjoining radial protrusions (42a, 42b) of said control ring when said slider is in the equilibrium position, and cooperates with said radial protrusions (42a, 42b) of said control ring, wherein said radial protrusion of said slider or said radial protrusions of said control ring has/have a form of a cam having two angularly external surfaces (81, 82) slanted at the same orientation (α 1, α 2) with respect to said axis of rotation such that an angular displacement of said control ring is converted into an axial displacement of said slider.
A control means for a valve arrangement, the control means comprising a valve coupling zone, a first temperature sensor having a first distance with respect to the valve coupling zone, and a second temperature sensor having a second distance with respect to the valve coupling zone, the second distance being different from the first distance, characterized by a third temperature sensor, the third temperature sensor having a third distance with respect to the valve coupling zone, the third distance being different from the first distance and from the second distance, wherein the third temperature sensor is arranged to measure an intermediate temperature.
A vehicle-mounted concrete pump having a vehicle and a concrete distribution boom which can be transported thereon and which is supported on a boom pedestal so as to be able to be rotated about a vertical axis and so as to be able to be pivoted about a horizontal axis, wherein the boom pedestal is retained via connection means on profile carriers, preferably two parallel I-shaped profile carriers, of a structural frame which is secured to the vehicle, characterized in that a screw-mounting bar is arranged as a connection means between the boom pedestal and each profile carrier, wherein the screw-mounting bar has distributed over the length thereof a plurality of assembly recesses and screw channels which open therein for screw connections with respect to the profile carrier.
Method for producing a flexibly shapeable honeycomb core, comprising at least the following method steps: a) providing an over-expandable honeycomb core and supplying it to a processing device in a machine running direction, b) over-expanding the honeycomb core in the machine running direction by stretching the honeycomb core 4 in such a way that some of the webs (13, 14) are oriented further in the machine running direction from the position they assume in the expanded state, c) fixing the narrow sides of the webs (13, 14) of the over-expanded honeycomb core, in at least two planes which are spaced apart from one another in the machine running direction and extend perpendicularly to the machine running direction, by clamping the honeycomb core by means of at least two pairs of jaws (8, 10 and 9, 11) which are provided in one plane and engage on the honeycomb core on its top and bottom sides, d) bending and folding the webs (13, 14) by a relative movement of the spaced-apart planes towards one another in parallel with the machine running direction, e) releasing the fixing of the narrow sides. a) providing an over-expandable honeycomb core and supplying it to a processing device in a machine running direction, b) over-expanding the honeycomb core in the machine running direction by stretching the honeycomb core 4 in such a way that some of the webs (13, 14) are oriented further in the machine running direction from the position they assume in the expanded state, c) fixing the narrow sides of the webs (13, 14) of the over-expanded honeycomb core, in at least two planes which are spaced apart from one another in the machine running direction and extend perpendicularly to the machine running direction, by clamping the honeycomb core by means of at least two pairs of jaws (8, 10 and 9, 11) which are provided in one plane and engage on the honeycomb core on its top and bottom sides, d) bending and folding the webs (13, 14) by a relative movement of the spaced-apart planes towards one another in parallel with the machine running direction, e) releasing the fixing of the narrow sides.
A method of controlling power transmission in a power transmitter, the method comprising: receiving, from a first power receiver, first voltage information including a first minimum voltage, a first maximum voltage, and a first set voltage that is between the first minimum voltage and the first maximum voltage; based on receiving the first voltage information, outputting a first level of power; receiving, from the first power receiver, first measurement information including a voltage measured at an output of a rectifier of the first power receiver; receiving, from a second power receiver, second voltage information including a second minimum voltage, a second maximum voltage, and a second set voltage that is between the second minimum voltage and the second maximum voltage; receiving, from the second power receiver, second measurement information including a voltage measured at an output of a rectifier of the second power receiver; selecting a power receiver from the first power receiver and the second power receiver based on the first measurement information and the second measurement information; and adjusting a level of power from the first level to a second level to reduce a difference between a set voltage of the selected power receiver and a measured voltage of the selected power receiver. receiving, from a first power receiver, first voltage information including a first minimum voltage, a first maximum voltage, and a first set voltage that is between the first minimum voltage and the first maximum voltage; based on receiving the first voltage information, outputting a first level of power; receiving, from the first power receiver, first measurement information including a voltage measured at an output of a rectifier of the first power receiver; receiving, from a second power receiver, second voltage information including a second minimum voltage, a second maximum voltage, and a second set voltage that is between the second minimum voltage and the second maximum voltage; receiving, from the second power receiver, second measurement information including a voltage measured at an output of a rectifier of the second power receiver; selecting a power receiver from the first power receiver and the second power receiver based on the first measurement information and the second measurement information; and adjusting a level of power from the first level to a second level to reduce a difference between a set voltage of the selected power receiver and a measured voltage of the selected power receiver.
A powderous transition metal compound comprising at least 85 % w/w of transition metal and oxygen, wherein the powder consists of particles which have a significant spatial change of transition metal stoichiometry, where the average transition metal compositions in the outer bulk differ by at least 10% from the average transition metal compositions of the inner bulk, the inner bulk being specified as a region around the center of the particle containing about 50% of the total number of transition metal atoms of the particle, and wherein the transition metal comprises manganese, nickel and cobalt.
A liquid pharmaceutical formulation comprising pegylated erythropoietin (PEG-EPO), a buffer which is selected from the group consisting of acetate, arginine, histidine, succinate or a combination thereof, arginine as aggregation inhibitor, sodium chloride as tonicity modifier and sucrose as stabilizer, wherein the pH of the formulation is between 4.9 to 5.3.
A method for transmitting feedback information by a user equipment in a wireless communication system, the method comprising: obtaining information on a predefined filter book; receiving, from a base station, information on a plurality of subbands, wherein the plurality of subbands is configured to be applied respectively with a plurality of filter indexes; estimating a channel for each of the plurality of subbands; obtaining the plurality of filter indexes corresponding respectively to the plurality of subbands, wherein each of the plurality of filter indexes is selected from the predefined filter book for maximizing a signal to leakage-and-noise ratio, SLNR, of a corresponding subband among the plurality of subbands; and transmitting, to the base station, the feedback information including the plurality of filter indexes and a plurality of filter quality information, FQI, values corresponding respectively to the plurality of filter indexes, wherein the SLNR is calculated based on following equation, and wherein a residual carrier frequency offset, CFO, [C i] m, n is calculated based on following equation, where [C i] is a M x N matrix, [C i] m,n is an element of an n-th column in an m-th row in [Ci], ∈ i indicates a residual CFO of an i th UE, and N fft is an N-point FFT, SLNR i,k is an SLNR of the k-th subcarrier of the i-th user equipment, P i,k is a power of the k-th subcarrier of the i-th user equipment, F i,k is a filter of the k-th subcarrier of the i-th user equipment, and [ H i] k is a channel of the k-th subcarrier of the i-th user equipment. obtaining information on a predefined filter book; receiving, from a base station, information on a plurality of subbands, wherein the plurality of subbands is configured to be applied respectively with a plurality of filter indexes; estimating a channel for each of the plurality of subbands; obtaining the plurality of filter indexes corresponding respectively to the plurality of subbands, wherein each of the plurality of filter indexes is selected from the predefined filter book for maximizing a signal to leakage-and-noise ratio, SLNR, of a corresponding subband among the plurality of subbands; and transmitting, to the base station, the feedback information including the plurality of filter indexes and a plurality of filter quality information, FQI, values corresponding respectively to the plurality of filter indexes, wherein the SLNR is calculated based on following equation, and wherein a residual carrier frequency offset, CFO, [C i] m, n is calculated based on following equation, where [C i] is a M x N matrix, [C i] m,n is an element of an n-th column in an m-th row in [Ci], ∈ i indicates a residual CFO of an i th UE, and N fft is an N-point FFT, SLNR i,k is an SLNR of the k-th subcarrier of the i-th user equipment, P i,k is a power of the k-th subcarrier of the i-th user equipment, F i,k is a filter of the k-th subcarrier of the i-th user equipment, and [ H i] k is a channel of the k-th subcarrier of the i-th user equipment.
Scanning reticle for an optical position measurement device, having a substrate with a surface that is operable in transmission and that has different functional regions (G, F, R), wherein the surface has at least one region having a grating formed from gaps and ribs, and wherein the gaps are formed in the substrate, characterized in that the surface has an antireflective coating that is interrupted in the region of the gaps, and in that the antireflective coating comprises a semiconducting layer (Si) having a thickness of a few nanometres.
A centrifugal analysis system, comprising: a driving device; a carrying device, comprising a tray disposed at the driving device, a positioning device disposed at the tray, and a plurality of limitation mechanisms disposed at the tray; a plurality of cassettes, detachably disposed at the tray, corresponding to the limitation mechanisms, wherein the cassettes further comprise a plurality of storage grooves, and an optical sensor device configured to generate a detection beam and detect the cassettes and the positioning device; wherein when the driving device drives the carrying device to rotate, the storage grooves and the positioning device pass through the detection beam in sequence; wherein the optical sensor device generates a position signal when the positioning device passes through the detection beam, and generates a plurality of inspection signals in sequence when the storage grooves pass through the detection beam in sequence. a driving device; a carrying device, comprising a tray disposed at the driving device, a positioning device disposed at the tray, and a plurality of limitation mechanisms disposed at the tray; a plurality of cassettes, detachably disposed at the tray, corresponding to the limitation mechanisms, wherein the cassettes further comprise a plurality of storage grooves, and an optical sensor device configured to generate a detection beam and detect the cassettes and the positioning device; wherein when the driving device drives the carrying device to rotate, the storage grooves and the positioning device pass through the detection beam in sequence; wherein the optical sensor device generates a position signal when the positioning device passes through the detection beam, and generates a plurality of inspection signals in sequence when the storage grooves pass through the detection beam in sequence.
A method performed by a User Equipment, UE, for a wireless communication system, the method comprising: deactivating a Secondary Cell Group, SCG; detecting a beam failure of a Primary SCell, PSCell, in the SCG; initiating a SCG failure information procedure upon detecting the beam failure of the PSCell in the SCG while the SCG is deactivated; skipping a Media Access Control, MAC, reset procedure, wherein the MAC reset procedure includes (i) stopping a Time Alignment Timer, TAT, for the SCG and (ii) considering the TAT for the SCG as expired; transmitting SCG failure information message; determining that a random access procedure is not needed for activation of the SCG, based on the TAT being not expired; and activating the SCG based on the determination. deactivating a Secondary Cell Group, SCG; detecting a beam failure of a Primary SCell, PSCell, in the SCG; initiating a SCG failure information procedure upon detecting the beam failure of the PSCell in the SCG while the SCG is deactivated; skipping a Media Access Control, MAC, reset procedure, wherein the MAC reset procedure includes (i) stopping a Time Alignment Timer, TAT, for the SCG and (ii) considering the TAT for the SCG as expired; transmitting SCG failure information message; determining that a random access procedure is not needed for activation of the SCG, based on the TAT being not expired; and activating the SCG based on the determination.
A method for producing a zirconia sintered body, comprising a firing step of firing a zirconia molded body or a zirconia pre-sintered body, wherein the firing step comprises at least three temperature increase steps including a first temperature increase step, a second temperature increase step, and a third temperature increase step, when a temperature increase rate in the first temperature increase step is defined as HR1, a temperature increase rate in the second temperature increase step is defined as HR2, and a temperature increase rate in the third temperature increase step is defined as HR3, HR1 = 50 to 500°C/min, HR2 = 11 to 300°C/min, HR3 = 10 to 299°C/min, HR1 > HR2, and HR2/HR3 > 1 are satisfied, starting temperatures in the temperature increase steps are room temperature to 500°C in H1, 900 to 1250°C in H2, and 1300 to 1550°C in H3, and reaching temperatures in the temperature increase steps are 900 to 1250°C in H1, 1300 to 1550°C in H2, and 1400 to 1650°C in H3. the firing step comprises at least three temperature increase steps including a first temperature increase step, a second temperature increase step, and a third temperature increase step, when a temperature increase rate in the first temperature increase step is defined as HR1, a temperature increase rate in the second temperature increase step is defined as HR2, and a temperature increase rate in the third temperature increase step is defined as HR3, HR1 = 50 to 500°C/min, HR2 = 11 to 300°C/min, HR3 = 10 to 299°C/min, HR1 > HR2, and HR2/HR3 > 1 are satisfied, starting temperatures in the temperature increase steps are room temperature to 500°C in H1, 900 to 1250°C in H2, and 1300 to 1550°C in H3, and reaching temperatures in the temperature increase steps are 900 to 1250°C in H1, 1300 to 1550°C in H2, and 1400 to 1650°C in H3.
A wound closure device comprising: (a) a first opposing member and a second opposing member engaged about a longitudinal axis, each pivotally moveable around the axis between a closed position and an open position relative to each other, and moveable longitudinally along the axis from a first position to a second position, each of the opposing members having a proximal edge adjacent the longitudinal axis and a distal edge, and an outer face and an inner face; (b) a first ratchet on the first member, and a second ratchet on the second member, which engage each other to maintain the opposing members in the closed position, when the first and second members are in the first position, and which disengage when the first and second members are in the second position; (c) a plurality of needles disposed on the distal edges of the first and second members; (d) a pressure bar (18, 20) attached to the distal end of each of the opposing members, said wound closure device being characterized in that the pressure bar has a non-uniform surface, to improve the grasp on the skin to provide an air-tight seal therewith; in that said wound closure device further comprises (e) an accessory component comprising means for securing a medical device to the wound closure device, wherein the accessory component is configured as a vacuum access port; and in that said wound closure device further comprises (f) at least one of threaded holes, quick-connect ends, pressure fittings and adaptors for connection of the accessory component to the wound closure device. (a) a first opposing member and a second opposing member engaged about a longitudinal axis, each pivotally moveable around the axis between a closed position and an open position relative to each other, and moveable longitudinally along the axis from a first position to a second position, each of the opposing members having a proximal edge adjacent the longitudinal axis and a distal edge, and an outer face and an inner face; (b) a first ratchet on the first member, and a second ratchet on the second member, which engage each other to maintain the opposing members in the closed position, when the first and second members are in the first position, and which disengage when the first and second members are in the second position; (c) a plurality of needles disposed on the distal edges of the first and second members; (d) a pressure bar (18, 20) attached to the distal end of each of the opposing members, said wound closure device being characterized in that the pressure bar has a non-uniform surface, to improve the grasp on the skin to provide an air-tight seal therewith; in that said wound closure device further comprises (e) an accessory component comprising means for securing a medical device to the wound closure device, wherein the accessory component is configured as a vacuum access port; and in that said wound closure device further comprises (f) at least one of threaded holes, quick-connect ends, pressure fittings and adaptors for connection of the accessory component to the wound closure device.