mhurhangee/ep-ind-claims huggingface dataset:
An elevator apparatus comprising: a car; a suspending means that suspends the car; a driving apparatus that is arranged to raise and lower the car by means of the suspending means; a braking apparatus that is arranged to brake the car; and an abnormal acceleration detecting mechanism that is arranged to operate the braking apparatus to stop the car if an acceleration that exceeds a preset set value arises in the car, wherein the abnormal acceleration detecting mechanism comprises a mass (22, 26, 28) that is arranged to operate in connection with movement of the car, and is arranged to operate the braking apparatus using a force that is generated by the mass (22, 26, 28) if the acceleration that exceeds the set value arises in the car, wherein the mass comprises: a rope that is arranged in a loop inside a hoistway; a tensioning sheave around which the rope is wound, and a speed governor that is arranged to detect an overspeed of the car, the speed governor comprising a speed governor sheave around which the rope is wound, the rope being a speed governor rope, the braking apparatus is arranged to be activated when the inertial force (Fp) from the mass exceeds a force (Fs) that is required to activate the braking apparatus, characterised by a flywheel being provided that rotates coaxially with the tensioning sheave. a car; a suspending means that suspends the car; a driving apparatus that is arranged to raise and lower the car by means of the suspending means; a braking apparatus that is arranged to brake the car; and an abnormal acceleration detecting mechanism that is arranged to operate the braking apparatus to stop the car if an acceleration that exceeds a preset set value arises in the car, wherein the abnormal acceleration detecting mechanism comprises a mass (22, 26, 28) that is arranged to operate in connection with movement of the car, and is arranged to operate the braking apparatus using a force that is generated by the mass (22, 26, 28) if the acceleration that exceeds the set value arises in the car, wherein the mass comprises: a rope that is arranged in a loop inside a hoistway; a tensioning sheave around which the rope is wound, and a speed governor that is arranged to detect an overspeed of the car, the speed governor comprising a speed governor sheave around which the rope is wound, the rope being a speed governor rope, the braking apparatus is arranged to be activated when the inertial force (Fp) from the mass exceeds a force (Fs) that is required to activate the braking apparatus, characterised by a flywheel being provided that rotates coaxially with the tensioning sheave. a rope that is arranged in a loop inside a hoistway; a tensioning sheave around which the rope is wound, and a speed governor that is arranged to detect an overspeed of the car, the speed governor comprising a speed governor sheave around which the rope is wound, the rope being a speed governor rope, the braking apparatus is arranged to be activated when the inertial force (Fp) from the mass exceeds a force (Fs) that is required to activate the braking apparatus, characterised by a flywheel being provided that rotates coaxially with the tensioning sheave.
An opening/closing device comprising: a gate that receives a flow of a fluid, and can fall toward a downstream side of the flow; a fall prevention unit (20a, 20b) that prevents the gate from falling by supporting the gate; a support release unit (22a, 22b) that releases the support for the gate by the fall prevention unit (20a, 20b); a first float that is arranged on the upstream side of the gate, and is smaller in specific gravity than the fluid; wherein the support release unit (22a, 22b) is activated resulting from surfacing of the first float, characterized in that the opening/closing device further comprises: a surfacing prevention unit that prevents the first float from surfacing; a second float that is arranged on the upstream side of the gate, is arranged above the first float, and is smaller in specific gravity than the fluid; and a surfacing-prevention release unit that releases, resulting from surfacing of the second float, the prevention of the surfacing of the first float by the surfacing prevention unit, and wherein the fall prevention unit (20a, 20b) supports a surface on the downstream side of the gate. a gate that receives a flow of a fluid, and can fall toward a downstream side of the flow; a fall prevention unit (20a, 20b) that prevents the gate from falling by supporting the gate; a support release unit (22a, 22b) that releases the support for the gate by the fall prevention unit (20a, 20b); a first float that is arranged on the upstream side of the gate, and is smaller in specific gravity than the fluid; wherein the support release unit (22a, 22b) is activated resulting from surfacing of the first float, characterized in that the opening/closing device further comprises: a surfacing prevention unit that prevents the first float from surfacing; a second float that is arranged on the upstream side of the gate, is arranged above the first float, and is smaller in specific gravity than the fluid; and a surfacing-prevention release unit that releases, resulting from surfacing of the second float, the prevention of the surfacing of the first float by the surfacing prevention unit, a surfacing prevention unit that prevents the first float from surfacing; a second float that is arranged on the upstream side of the gate, is arranged above the first float, and is smaller in specific gravity than the fluid; and a surfacing-prevention release unit that releases, resulting from surfacing of the second float, the prevention of the surfacing of the first float by the surfacing prevention unit, and wherein the fall prevention unit (20a, 20b) supports a surface on the downstream side of the gate.
A nonvolatile memory device comprising: a conductive pillar; a resistance change layer surrounding a side surface of the conductive pillar; a semiconductor layer surrounding a side surface of the resistance change layer; a common source region configured to be in contact with the semiconductor layer and the resistance change layer; a gate insulating layer surrounding a side surface of the semiconductor layer; a plurality of insulating patterns and a plurality of gate electrodes, the plurality of insulating patterns and the plurality of gate electrodes being alternately arranged along a surface of the gate insulating layer, and the plurality of insulating patterns and the plurality of gate electrodes surrounding a side surface of the gate insulating layer; a first bit line electrically connected to the conductive pillar, the first bit line being configured to provide a first voltage (V 1) to the conductive pillar; and a second bit line electrically insulated from the first bit line, the second bit line being electrically connected to the semiconductor layer, and the second bit line being configured to provide a second voltage (V 2) to the semiconductor layer. a conductive pillar; a resistance change layer surrounding a side surface of the conductive pillar; a semiconductor layer surrounding a side surface of the resistance change layer; a common source region configured to be in contact with the semiconductor layer and the resistance change layer; a gate insulating layer surrounding a side surface of the semiconductor layer; a plurality of insulating patterns and a plurality of gate electrodes, the plurality of insulating patterns and the plurality of gate electrodes being alternately arranged along a surface of the gate insulating layer, and the plurality of insulating patterns and the plurality of gate electrodes surrounding a side surface of the gate insulating layer; a first bit line electrically connected to the conductive pillar, the first bit line being configured to provide a first voltage (V 1) to the conductive pillar; and a second bit line electrically insulated from the first bit line, the second bit line being electrically connected to the semiconductor layer, and the second bit line being configured to provide a second voltage (V 2) to the semiconductor layer.
Trehalose or a pharmaceutical formulation comprising same, for use in a method for treating or alleviating oculopharyngeal muscular dystrophy (OPMD) in a human subject in need thereof, said method comprising intravenously administering to said subject a therapeutically effective amount of trehalose or a pharmaceutical formulation comprising the same.
An indexable milling insert having a trigon shape, the milling insert comprising a mounting hole placed centrally in the milling insert, an upper side and a lower side, which sides are parallel with each other and act as an alternating first support surface and second support surface, and that the milling insert is provided with major cutting edges (Hn), with respective three major cutting edges (H1, H3, H5/H2, H4, H6) placed on the edges of the respective second/first support surface (13, 11) near a cutting corner, which cutting edges are oriented perpendicularly to the axis of the mounting hole as well as arranged in such a way that a turning of the milling insert around the centre of the mounting hole into an alternative cutting position alternatively a flipping of the milling insert into an alternative cutting position provides an identical position of the major cutting edges (Hn) in relation to a workpiece, wherein the major cutting edges (Hn) of the milling insert are placed in the milling insert, when the same is tangentially mounted in a cutting body, so that the shortest distance of the major cutting edges to the axis of the hole in top view is smaller than the distance of adjacent third support surfaces to the axis of the hole, whereas third support surfaces (41, 43, 45) are placed along the sides (S1, S3, S5) of the milling insert at a right angle in relation to the imaginary extension of the first support surface, characterized in that the milling insert is provided with additional third support surfaces (42, 44, 46) placed along the sides (S2, S4, S6) of the milling insert at a right angle in relation to the imaginary extension of the second support surface, such that each third support surface is appurtenant and adjacent to a respective one of the major cutting edges.
Container for food to be cooked having at least one preparation space for receiving and treating food to be cooked, characterised in that the preparation space of the container for food to be cooked is defined by at least one wall device, which has at least one inner wall and at least one outer wall, and that at least one hollow space is formed between the inner wall and the outer wall, which contains at least one working medium for latent heat transfer, so that the heat transfer between the walls (15, 25) substantially takes place through vaporisation or condensation heat from the working medium and at least one sensor unit for detecting at least one characteristic value for a pressure in the hollow space is assigned to the hollow space and that the sensor unit is suitable and designed for transmitting the detected value to a control device of a cooking device, so that controlling of the cooking device can take place as a function of the detected pressure and at least one safety valve is assigned to the hollow space.
Method for producing a technical mask, wherein the mask consists at least of a plate-shaped substrate and the plate-shaped substrate is transparent at least to a laser wavelength and at least one aperture of the mask was produced by means of laser-induced deep etching, characterized in that the mask consists of at least one further component besides the plate-shaped substrate material, said at least one further component being provided with at least one device for clamping the plate-shaped substrate material, and in that the plate-shaped substrate material is provided at least partly with expansion structures and/or in particular slotted load relieving apertures are introduced in particular into the marginal region of the plate-shaped substrate.
A method for shear wave estimation from analytic data, the method comprising: transmitting an acoustic radiation force excitation into a patient; measuring, with ultrasound, displacements at locations of tissue within a patient in response to a shear wave resulting from the acoustic radiation force excitation; determining a temporal profile of displacements; characterised in that constructing, by a processor, analytic data, in complex format, from the temporal profile of displacements; estimating a characteristic of the shear wave from the analytic data; and displaying an image that is a function of the characteristic. transmitting an acoustic radiation force excitation into a patient; measuring, with ultrasound, displacements at locations of tissue within a patient in response to a shear wave resulting from the acoustic radiation force excitation; determining a temporal profile of displacements; characterised in that constructing, by a processor, analytic data, in complex format, from the temporal profile of displacements; estimating a characteristic of the shear wave from the analytic data; and displaying an image that is a function of the characteristic.
Vacuum cleaner filter bag made of nonwoven fabric, the nonwoven fabric having a joint which seals the bag at at least one edge of the vacuum cleaner filter bag and in which at least two layers of the nonwoven fabric are joined to each other, the vacuum cleaner filter bag comprising, at least at one place of the edge, a spacing means which is formed by at least one further joint (S2, S3) of the two layers of the nonwoven fabric being configured in the region for the joint which seals the bag and/or at least one reinforcing element being fixed on at least one of the two layers of the nonwoven fabric or between the two layers of nonwoven fabric, characterised in that the three-point bending strength F max of a test piece of the vacuum cleaner filter bag, measured according to the test method DIN 53 121: 2008 adapted according to the specification with a path stretch of 7 mm, is at least 3.5 N.
A printhead array (701; 801) comprising: a molded substrate having a non-rectangular shape; and a number of printheads (722; 811) each comprising a number of dies molded into the molded substrate, the dies comprising a number of rows of nozzles; wherein a longitudinal axis of each printhead (722; 811) extends transversely with respect to longitudinal and lateral axes of the molded substrate such that, when mounted in a printer, each printhead (722; 811) is rotated with respect to a print path direction. a molded substrate having a non-rectangular shape; and a number of printheads (722; 811) each comprising a number of dies molded into the molded substrate, the dies comprising a number of rows of nozzles; wherein a longitudinal axis of each printhead (722; 811) extends transversely with respect to longitudinal and lateral axes of the molded substrate such that, when mounted in a printer, each printhead (722; 811) is rotated with respect to a print path direction.
A linear translation stage comprising: a base; and a platform that moves relative to the base; characterized in that: one of the base and platform comprises a protrusion; and the other one of the base and platform comprises a recess that matches the protrusion; wherein the recess comprises one gib that is flexibly movable via a flexure; wherein a dimension of the recess varies based on a flexing of the gib; when the gib is in a neutral state, the dimension of the recess is smaller than a corresponding dimension of the protrusion; when the gib is in a flexed state, the dimension of the recess is larger than the corresponding dimension of the protrusion; and when the protrusion is inserted into the recess, the gib is in an interfering state, providing a preload force for eliminating a clearance between a surface of the protrusion and a corresponding surface of the recess such that relative motion between the platform and base is restricted to a single axis, wherein the flexing of the gib in the interfering state is between the flexing of the neutral state and the flexing of the flexed state. a base; and a platform that moves relative to the base; characterized in that: one of the base and platform comprises a protrusion; and the other one of the base and platform comprises a recess that matches the protrusion; wherein the recess comprises one gib that is flexibly movable via a flexure; wherein a dimension of the recess varies based on a flexing of the gib; when the gib is in a neutral state, the dimension of the recess is smaller than a corresponding dimension of the protrusion; when the gib is in a flexed state, the dimension of the recess is larger than the corresponding dimension of the protrusion; and when the protrusion is inserted into the recess, the gib is in an interfering state, providing a preload force for eliminating a clearance between a surface of the protrusion and a corresponding surface of the recess such that relative motion between the platform and base is restricted to a single axis, wherein the flexing of the gib in the interfering state is between the flexing of the neutral state and the flexing of the flexed state. one of the base and platform comprises a protrusion; and the other one of the base and platform comprises a recess that matches the protrusion; wherein the recess comprises one gib that is flexibly movable via a flexure; wherein a dimension of the recess varies based on a flexing of the gib; when the gib is in a neutral state, the dimension of the recess is smaller than a corresponding dimension of the protrusion; when the gib is in a flexed state, the dimension of the recess is larger than the corresponding dimension of the protrusion; and when the protrusion is inserted into the recess, the gib is in an interfering state, providing a preload force for eliminating a clearance between a surface of the protrusion and a corresponding surface of the recess such that relative motion between the platform and base is restricted to a single axis, wherein the flexing of the gib in the interfering state is between the flexing of the neutral state and the flexing of the flexed state.
A precoding unit configured to precode a communication between a satellite and at least one terminal (20; 20 1 -20 5) based on a channel state of a channel between the terminal (20; 20 1 -20 5) and the satellite, wherein the precoding unit is configured for: receiving a location related information indicating a location (38; L 1 -L 3) of the terminal; determining a predicted channel state information related to the channel state between the terminal (20; 20 1 -20 5) and the satellite using the location related information; and precoding the communication between the satellite and the at least one terminal (20; 20 1 -20 5) according to the predicted channel state information; characterized in that the precoding unit has access to a memory (36; 36') having stored thereon different predetermined channel state values associated with different locations (38; L 1 -L 3), wherein the precoding unit is configured for deriving the predicted channel state information using at least one predetermined channel state value; and the precoding unit is configured for interpolating or extrapolating the predicted channel state information using the location related information and a combination of at least a first predetermined channel state value (42 1) and a second predetermined channel state value (42 2). receiving a location related information indicating a location (38; L 1 -L 3) of the terminal; determining a predicted channel state information related to the channel state between the terminal (20; 20 1 -20 5) and the satellite using the location related information; and precoding the communication between the satellite and the at least one terminal (20; 20 1 -20 5) according to the predicted channel state information; characterized in that the precoding unit has access to a memory (36; 36') having stored thereon different predetermined channel state values associated with different locations (38; L 1 -L 3), wherein the precoding unit is configured for deriving the predicted channel state information using at least one predetermined channel state value; and the precoding unit is configured for interpolating or extrapolating the predicted channel state information using the location related information and a combination of at least a first predetermined channel state value (42 1) and a second predetermined channel state value (42 2).
An integrated capstan comprising: a capstan (105. 106); and a fiber-engaging material, wherein said fiber-engaging material is formed on the surface of said capstan, characterized in that said fiber-engaging material having a hardness in the range from 40 Shore 00 to 70 Shore 00. a capstan (105. 106); and a fiber-engaging material, wherein said fiber-engaging material is formed on the surface of said capstan, characterized in that said fiber-engaging material having a hardness in the range from 40 Shore 00 to 70 Shore 00.
A computer-implemented method for seismic data processing, comprising: receiving seismic data for a region of interest, wherein the seismic data were acquired in a seismic survey; determining at least one exclusion criterion based on an exclusion distance that provides one or more rules for selecting shot points in the acquired seismic data; determining sparse seismic data using statistical sampling based at least in part on the at least one exclusion criterion and the acquired seismic data; determining simulated seismic data based at least in part on an earth model for the region of interest and shot points corresponding to the sparse seismic data; determining an objective function that represents a mismatch between the sparse seismic data and the simulated seismic data; determining a gradient of the objective function; smoothing the gradient of the objective function; updating the earth model based at least in part on the objective function; the method further characterised in that the smoothing is based at least in part on the spacing of selected points in the sparse seismic data. receiving seismic data for a region of interest, wherein the seismic data were acquired in a seismic survey; determining at least one exclusion criterion based on an exclusion distance that provides one or more rules for selecting shot points in the acquired seismic data; determining sparse seismic data using statistical sampling based at least in part on the at least one exclusion criterion and the acquired seismic data; determining simulated seismic data based at least in part on an earth model for the region of interest and shot points corresponding to the sparse seismic data; determining an objective function that represents a mismatch between the sparse seismic data and the simulated seismic data; determining a gradient of the objective function; smoothing the gradient of the objective function; updating the earth model based at least in part on the objective function; the method further characterised in that the smoothing is based at least in part on the spacing of selected points in the sparse seismic data.