mhurhangee/ep-ind-claims huggingface dataset:
A seat elevating device comprising: a support unit having a first end portion coupled to a body of a vehicle and a second end portion extending upward from the first end portion, surrounding a space, and being connected to a first end and a second end of a bar; a driving unit coupled to an inner side surface of the support unit and equipped with a drive shaft on a side surface thereof; and an elevating unit connected to the drive shaft through a gear engagement, provided with a sliding groove (432, 442) into which the bar is inserted, and coupled to the support unit in a manner to slide up and down along with the support unit, wherein the elevating unit is movable by being engaged with a gear connected to the drive shaft via a rack gear extending in a direction parallel to a sliding movement direction thereof. a support unit having a first end portion coupled to a body of a vehicle and a second end portion extending upward from the first end portion, surrounding a space, and being connected to a first end and a second end of a bar; a driving unit coupled to an inner side surface of the support unit and equipped with a drive shaft on a side surface thereof; and an elevating unit connected to the drive shaft through a gear engagement, provided with a sliding groove (432, 442) into which the bar is inserted, and coupled to the support unit in a manner to slide up and down along with the support unit, wherein the elevating unit is movable by being engaged with a gear connected to the drive shaft via a rack gear extending in a direction parallel to a sliding movement direction thereof.
A method of aligning a wind turbine component (5, 6) with a wind turbine rotor hub, comprising the step of providing the component (5, 6) with a support comprising at least one vibration damper, characterised in that the method further comprises adjusting said at least one vibration damper to align the wind turbine component (5, 6) with the wind turbine rotor hub.
A stream processor, comprising: a first in first out memory, FIFO, a calculation unit, and a cache comprising an address memory, wherein the FIFO is configured to receive current stream information, wherein the current stream information carries a target stream number and target data; the FIFO is configured to send the target stream number and the target data to the calculation unit, and to send the target stream number to the cache, when the FIFO receives a read valid signal; the cache is configured to obtain, based on the target stream number, old data that corresponds to the target stream number, and to send the old data that corresponds to the target stream number to the calculation unit; and the calculation unit is configured to perform, based on the target data, calculation on the old data that corresponds to the target stream number to obtain new data, and to send the new data to the cache. a first in first out memory, FIFO, a calculation unit, and a cache comprising an address memory, wherein the FIFO is configured to receive current stream information, wherein the current stream information carries a target stream number and target data; the FIFO is configured to send the target stream number and the target data to the calculation unit, and to send the target stream number to the cache, when the FIFO receives a read valid signal; the cache is configured to obtain, based on the target stream number, old data that corresponds to the target stream number, and to send the old data that corresponds to the target stream number to the calculation unit; and the calculation unit is configured to perform, based on the target data, calculation on the old data that corresponds to the target stream number to obtain new data, and to send the new data to the cache.
A building management system, BMS, the BMS comprising: a computer-based control system configured to manage: (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; wherein the BMS includes or is communicatively coupled with at least one multipurpose controller configured to adjust transmissivity of one or more windows in the building, characterized in that the at least one multipurpose controller is configured to determine a condition of one of the one or more windows by comparing a voltage and current profile to a historic voltage and current profile. a computer-based control system configured to manage: (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; wherein the BMS includes or is communicatively coupled with at least one multipurpose controller configured to adjust transmissivity of one or more windows in the building, characterized in that the at least one multipurpose controller is configured to determine a condition of one of the one or more windows by comparing a voltage and current profile to a historic voltage and current profile.
A method, comprising: at a computing device with a touch-sensitive display: simultaneously displaying on the touch-sensitive display: a currently selected user interface object having a center; and a plurality of resizing handles for the currently selected user interface object; detecting a first contact on a first resizing handle in the plurality of resizing handles; detecting movement of the first contact across the touch-sensitive display; and, in response to detecting movement of the first contact: when a second contact is not detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object by moving the first resizing handle in accordance with the movement of the first contact; and, when a second contact is concurrently detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object about the center of the currently selected user interface object. at a computing device with a touch-sensitive display: simultaneously displaying on the touch-sensitive display: a currently selected user interface object having a center; and a plurality of resizing handles for the currently selected user interface object; detecting a first contact on a first resizing handle in the plurality of resizing handles; simultaneously displaying on the touch-sensitive display: a currently selected user interface object having a center; and a plurality of resizing handles for the currently selected user interface object; detecting a first contact on a first resizing handle in the plurality of resizing handles; detecting movement of the first contact across the touch-sensitive display; and, in response to detecting movement of the first contact: when a second contact is not detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object by moving the first resizing handle in accordance with the movement of the first contact; and, when a second contact is concurrently detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object about the center of the currently selected user interface object. when a second contact is not detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object by moving the first resizing handle in accordance with the movement of the first contact; and, when a second contact is concurrently detected on the touch-sensitive display while detecting movement of the first contact, resizing the currently selected user interface object about the center of the currently selected user interface object.
Aqueous solution containing 20% by weight to 75% by weight of 6-O-α-D-glucopyranosyl-D-sorbitol, 25% by weight to 80% by weight of 1-O-α-D-glucopyranosyl-D-mannitol, wherein the percentages by weight relate to the total amount of the sugars and sugar alcohols of the total solution, characterized in that the solution, at a temperature of 25°C, has a pH of 4.0 to 4.5.
Use of a metal hydroxide or acetate, or of magnesium, aluminium or zinc sulphate as an additive in a gypsum matrix for reducing shrinkage in a calcium sulphate-based wallboard during heat exposure to temperatures greater than 400°C.
An image sensor, in particular a CMOS image sensor, for electronic cameras, having a plurality of light sensitive pixels arranged in rows and columns, wherein the pixels of a respective column can be read out via a respective column line; and having a plurality of data outputs, wherein a plurality of column lines are associated with the respective data output via at least one multiplexer device (33, 39), wherein a switch network is provided which is arranged between the column lines and the data outputs; and wherein a control device is additionally provided for controlling the switch network, characterized in that the column lines are divided into a plurality of column line groups, with the respective column line group comprising a plurality of column lines arranged next to one another, with the number of column lines of the respective column line group corresponding to the number of the column lines associated with the respective data output, and with the switch network being configured to associate the column lines of the respective column line group with different data outputs.
A method for predicting a therapeutic effect of chemotherapy with a combination drug containing tegafur, gimeracil, and oteracil potassium in a gastric cancer patient, the method comprising the steps of: measuring an expression level of EGFR contained in a biological sample obtained from the patient; comparing the expression level of EGFR obtained in step with a corresponding predetermined cut-off point; and predicting that the patient is likely to sufficiently respond to chemotherapy in which a combination drug containing tegafur, gimeracil, and oteracil potassium is used in combination with an EGFR inhibitor, when the comparison in step reveals that the expression level of EGFR is greater than the cut-off point, and predicting that the patient is likely to sufficiently respond to chemotherapy in which a combination drug containing tegafur, gimeracil, and oteracil potassium is used alone, when the comparison in step reveals that the expression level of EGFR is not greater than the cut-off point, wherein the expression level of EGFR protein is measured by the IHC method, and the cut-off point of the expression level of EGFR protein is 1+. measuring an expression level of EGFR contained in a biological sample obtained from the patient; comparing the expression level of EGFR obtained in step with a corresponding predetermined cut-off point; and predicting that the patient is likely to sufficiently respond to chemotherapy in which a combination drug containing tegafur, gimeracil, and oteracil potassium is used in combination with an EGFR inhibitor, when the comparison in step reveals that the expression level of EGFR is greater than the cut-off point, and predicting that the patient is likely to sufficiently respond to chemotherapy in which a combination drug containing tegafur, gimeracil, and oteracil potassium is used alone, when the comparison in step reveals that the expression level of EGFR is not greater than the cut-off point,
Connector for slanted screwing of two workpieces, comprising a base body with a bottom surface, a top surface parallel thereto and a generally cylindrical shell surface connecting the bottom and top surfaces for positive insertion into a generally cylindrical blind hole of at least one of the workpieces (2, 3), and a recess in the top surface, from which recess at least two bores (10, 11) each for receiving a screw (12, 13) emanate divergently at an angle (α), characterized in that the bores (10, 11) penetrate the bottom surface, wherein the shell surface of the connector is not penetrated by the bores (10, 11) and thus free from edges at its end faces.
A pulse sputtering device comprising: a sputtering source arranged to perform pulse discharge and to generate plasma; a gas injection valve arranged to inject and supply an inert gas to the sputtering source; and a controller arranged to control the sputtering source and the gas injection valve, wherein the controller is arranged to control the gas injection valve such that, in use, the gas injection valve injects the inert gas intermittently, wherein the controller is arranged to control the sputtering source and the gas injection valve such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, a part of said first period overlapping with a part of said second period, or such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, said first period being included in said second period, and wherein the controller is arranged to cause power to be supplied to the gas injection valve according to an injection signal, which is a pulsed electric signal, such that, in use, the gas injection valve is driven to inject the inert gas characterized in that the controller is arranged to cause the injection signal to be constructed with a group of multiple pulse signals. a sputtering source arranged to perform pulse discharge and to generate plasma; a gas injection valve arranged to inject and supply an inert gas to the sputtering source; and a controller arranged to control the sputtering source and the gas injection valve, wherein the controller is arranged to control the gas injection valve such that, in use, the gas injection valve injects the inert gas intermittently, wherein the controller is arranged to control the sputtering source and the gas injection valve such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, a part of said first period overlapping with a part of said second period, or such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, said first period being included in said second period, and wherein the controller is arranged to cause power to be supplied to the gas injection valve according to an injection signal, which is a pulsed electric signal, such that, in use, the gas injection valve is driven to inject the inert gas characterized in that the controller is arranged to cause the injection signal to be constructed with a group of multiple pulse signals.
A method of operating a solid oxide fuel cell that comprises a first electrode and a second electrode, electrically isolated from each other and in ionic communication with an electrolyte, the method comprising: providing an oxygen-containing gas to the first electrode; and providing a fuel-containing gas to the second electrode, wherein the fuel-containing gas is hydrogen; wherein the method further comprises contacting the first electrode with liquid ion-conducting species that is water; and heating or maintaining the cell to a temperature at which the cell provides electrical energy to the external circuit, wherein the temperature is no greater than 100°C. providing an oxygen-containing gas to the first electrode; and providing a fuel-containing gas to the second electrode, wherein the fuel-containing gas is hydrogen; wherein the method further comprises contacting the first electrode with liquid ion-conducting species that is water; and heating or maintaining the cell to a temperature at which the cell provides electrical energy to the external circuit, wherein the temperature is no greater than 100°C.
A steering column for a motor vehicle, having a bracket part for securing the steering column to a bodywork of the motor vehicle and having a steering shaft bearing unit, mounted between at least two lateral cheeks of the bracket part, for the rotatable mounting of a steering shaft of the steering column, wherein a bearing part is arranged between the lateral cheeks of the bracket part and the steering shaft bearing unit and a clamping bolt of the steering column passes through the lateral cheeks of the bracket part and the bearing part and the steering shaft bearing unit and the bearing part has at least one bearing part channel and the steering shaft bearing unit has at least one steering shaft bearing unit channel and at least regions of the bearing part channel rest surface to surface against the steering shaft bearing unit channel, characterized in that the clamping bolt passes through the bearing part in the bearing part channel and the steering shaft bearing unit in the steering shaft bearing unit channel.
A light emitting device comprising: a first conductive semiconductor layer; an active layer comprising a well layer and a barrier layer on the first conductive semiconductor layer; and a second conductive semiconductor layer on the active layer, wherein the well layer comprises: a first well layer closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer a first conductive semiconductor layer; an active layer comprising a well layer and a barrier layer on the first conductive semiconductor layer; and a second conductive semiconductor layer on the active layer, wherein the well layer comprises: a first well layer closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer a first well layer closest to the first conductive semiconductor layer and having a first energy bandgap; a third well layer (Q3a) closest to the second conductive semiconductor layer and having a third energy bandgap; and a second well layer interposed between the first and third well layers and having a second energy bandgap, and wherein the first conductive semiconductor layer is a n-type semiconductor layer and the second conductive semiconductor layer is a p-type semiconductor layer, wheiren the third well layer is disposed adjacent to the p-type semiconductor layer, characterized in that the third energy bandgap of the third well layer (Q3a) is greater than the second energy bandgap of the second well layer wherein a thickness of the third well layer (Q3a) is thicker than a thickness of the second well layer
A tool (1,10) comprising: a switch (2, 2A) that is configured to cause an electric component to operate; and a handle that is configured to be held by a hand to manipulate the switch (2, 2A), wherein the switch (2, 2A) includes: a switch manipulation part (20A-20E) configured to be manipulated; and a load sensor that is configured to receive a pressing force through the switch manipulation part (20A-20E), and characterized in that the load sensor includes a pressure-sensitive conductive elastic member (210A- 210D) in which conductive particles are dispersed in a non-conductive elastic material, and the tool (1,10) further comprising: a control unit that is configured to control the electric component; and a control circuit that is configured to supply power to the control unit, wherein the load sensor is configured to cause the control circuit to supply power to the control unit, when a load is applied to the load sensor by the manipulation of the switch manipulation part (20A-20E), and wherein the control unit is configured to control the electric component according to change of the load applied to the load sensor. a switch (2, 2A) that is configured to cause an electric component to operate; and a handle that is configured to be held by a hand to manipulate the switch (2, 2A), wherein the switch (2, 2A) includes: a switch manipulation part (20A-20E) configured to be manipulated; and a load sensor that is configured to receive a pressing force through the switch manipulation part (20A-20E), and a switch manipulation part (20A-20E) configured to be manipulated; and a load sensor that is configured to receive a pressing force through the switch manipulation part (20A-20E), and characterized in that the load sensor includes a pressure-sensitive conductive elastic member (210A- 210D) in which conductive particles are dispersed in a non-conductive elastic material, and the tool (1,10) further comprising: a control unit that is configured to control the electric component; and a control circuit that is configured to supply power to the control unit, a control unit that is configured to control the electric component; and a control circuit that is configured to supply power to the control unit, wherein the load sensor is configured to cause the control circuit to supply power to the control unit, when a load is applied to the load sensor by the manipulation of the switch manipulation part (20A-20E), and wherein the control unit is configured to control the electric component according to change of the load applied to the load sensor.
Casting method for producing a material block or material section cast from liquid metal, in which the temperature distribution prevailing in the interior of the material block or material section is calculated by means of a temperature calculation model based on dynamic temperature regulation (Dynamic Solidification Control), wherein in a calculation step the total enthalpy of the system formed by the material block or material section is determined and is processed as an input variable in the temperature calculation model and one or more output variable(s) of the temperature calculation model is/are used in the regulating process and/or control process of the casting process, characterised in that the total enthalpy is calculated from the sum of the free molar enthalpies (Gibbs energy) of all phases and/or phase fractions currently present in the material block or material section.