mhurhangee/ep-ind-claims huggingface dataset:
Fabry-Perot interferometer arrangement with an aperture allowing transmission of radiation, the arrangement comprising an electrically tuneable Fabry-Perot interferometer which has - a substrate, - a first mirror structure on the substrate, - a second, movable mirror structure, whereby the first and second mirror structures comprise first and second mirrors which are substantially parallel, - a Fabry-Perot cavity between the first and second mirrors, - electrodes for electrical control of the distance between the mirrors, wherein the arrangement comprises at least one further mirror structure (121-125, 131-135) at the opposite surface of the substrate for forming a reference Fabry-Perot interferometer within the aperture of the arrangement, characterized in that the further mirror structure has the purpose of compensating measurements made with the electrically tuneable Fabry-Perot interferometer, and the reference interferometer covers a part of the aperture, whereby a middle area of the aperture is without layers of the reference Fabry-Perot interferometer, and the reference Fabry-Perot interferometer extends to a border area of the aperture of the arrangement. - a substrate, - a first mirror structure on the substrate, - a second, movable mirror structure, whereby the first and second mirror structures comprise first and second mirrors which are substantially parallel, - a Fabry-Perot cavity between the first and second mirrors, - electrodes for electrical control of the distance between the mirrors, wherein the arrangement comprises at least one further mirror structure (121-125, 131-135) at the opposite surface of the substrate for forming a reference Fabry-Perot interferometer within the aperture of the arrangement,
A method for controlling an elevator comprising a first step in which the car is on a landing with car doors open for loading and/or unloading the car, a second step in which it is determined whether the car doors are fully closed or the car doors are not fully open after the loading and/or unloading is completed, a third step in which the total actual axial mass hanging from the traction sheave is measured, a fourth step in which a stalling limit total minimum axial mass hanging from the traction sheave is determined by deducting from the total actual axial mass measured in the third step a predetermined stalling weight reduction tolerance, said predetermined stalling weight reduction tolerance being determined as the weight of the car divided by the suspension ratio of the elevator, a fifth step in which reopening of the car doors is checked, whereby if the car doors are reopened, then return to the first step, else, continue to the next step, a sixth step in which start of the elevator is permitted, a seventh step in which the total actual axial mass measured in the third step is compared with the stalling limit total minimum axial mass determined in the fourth step, whereby if the total actual axial mass measured in the third step is equal to or greater than the stalling limit total minimum axial mass determined in the fourth step, then normal run of the elevator car to the next landing is permitted, else, the elevator is stopped. a first step in which the car is on a landing with car doors open for loading and/or unloading the car, a second step in which it is determined whether the car doors are fully closed or the car doors are not fully open after the loading and/or unloading is completed, a third step in which the total actual axial mass hanging from the traction sheave is measured, a fourth step in which a stalling limit total minimum axial mass hanging from the traction sheave is determined by deducting from the total actual axial mass measured in the third step a predetermined stalling weight reduction tolerance, said predetermined stalling weight reduction tolerance being determined as the weight of the car divided by the suspension ratio of the elevator, a fifth step in which reopening of the car doors is checked, whereby if the car doors are reopened, then return to the first step, else, continue to the next step, a sixth step in which start of the elevator is permitted, a seventh step in which the total actual axial mass measured in the third step is compared with the stalling limit total minimum axial mass determined in the fourth step, whereby if the total actual axial mass measured in the third step is equal to or greater than the stalling limit total minimum axial mass determined in the fourth step, then normal run of the elevator car to the next landing is permitted, else, the elevator is stopped.
A process for preparing N,N-substituted 3-aminopropan-1-ols by a) reacting secondary amine with acrolein at a temperature of (-50) to 100°C and a pressure of 0.01 to 300 bar, and b) reacting the reaction mixture obtained in stage a) with hydrogen and ammonia in the presence of a hydrogenation catalyst at a pressure of 1 to 400 bar, wherein the molar ratio of secondary amine to acrolein in stage a) is 1:1 or more, the temperature in stage b) is in the range from 20 to 70°C, and stage b) is performed in the presence of water, where the molar ratio of water to acrolein used is in the range from 0.01:1 to 2:1. a) reacting secondary amine with acrolein at a temperature of (-50) to 100°C and a pressure of 0.01 to 300 bar, and b) reacting the reaction mixture obtained in stage a) with hydrogen and ammonia in the presence of a hydrogenation catalyst at a pressure of 1 to 400 bar,
A vacuum insulation panel comprising a porous core material, a getter suitable for the chemical structure of the core material and a barrier holding the core material and the getter together, characterized in that the open-porous core material is obtained by: - adding inorganic materials into the aqueous solution of a polymer comprising hydrophilic and hydrophobic blocks, of which the aqueous solution has the feature of forming micelle, - coating the polymer over the added inorganic material by forming micelle structures, - removing polymer from the surface of the inorganic material after the coating, further characterized in that the vacuum insulation panel is obtained by vacuuming and closing the vacuum insulation panel in a leak proof manner. - adding inorganic materials into the aqueous solution of a polymer comprising hydrophilic and hydrophobic blocks, of which the aqueous solution has the feature of forming micelle, - coating the polymer over the added inorganic material by forming micelle structures, - removing polymer from the surface of the inorganic material after the coating,
An air-conditioning and hot water supplying composite system comprising: a heat source unit including a compressor and a heat source-side heat exchanger; an indoor unit connected to the heat source unit and including an indoor heat exchanger and an indoor expansion device, the indoor unit being configured to perform a heating operation; a hot water supply unit connected to the heat source unit and including a hot water supply-side heat exchanger and a hot water supply-side expansion device, the hot water supply unit being configured to perform a hot water supplying operation; and a controller configured to control the heat source unit, the controller including a mode switching unit configured to switch a control mode between a hot water supply control mode in which the hot water supplying operation is primarily performed and a hot water supply preheating mode in which the heating operation is primarily performed, characterized in that the controller further includes: a condensing temperature control unit configured to set a target condensing temperature in accordance with the control mode, the condensing temperature control unit setting the target condensing temperature in accordance with a temperature of a heat medium subjected to heat exchange by the hot water supply unit, in the hot water supply control mode. a heat source unit including a compressor and a heat source-side heat exchanger; an indoor unit connected to the heat source unit and including an indoor heat exchanger and an indoor expansion device, the indoor unit being configured to perform a heating operation; a hot water supply unit connected to the heat source unit and including a hot water supply-side heat exchanger and a hot water supply-side expansion device, the hot water supply unit being configured to perform a hot water supplying operation; and a controller configured to control the heat source unit, the controller including a mode switching unit configured to switch a control mode between a hot water supply control mode in which the hot water supplying operation is primarily performed and a hot water supply preheating mode in which the heating operation is primarily performed, characterized in that the controller further includes: a condensing temperature control unit configured to set a target condensing temperature in accordance with the control mode, the condensing temperature control unit setting the target condensing temperature in accordance with a temperature of a heat medium subjected to heat exchange by the hot water supply unit, in the hot water supply control mode. a condensing temperature control unit configured to set a target condensing temperature in accordance with the control mode, the condensing temperature control unit setting the target condensing temperature in accordance with a temperature of a heat medium subjected to heat exchange by the hot water supply unit, in the hot water supply control mode.
A wireless device (104 2) comprising: a processor (118 2); and a memory (120 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the wireless device is configured to receive, from a Radio Access Network, RAN, node (102 2), control channels; to estimate a downlink radio condition based on a signal quality of the received control channels; to map the estimated downlink radio condition to one of a plurality of downlink Radio Coverage Category, RCC, values; to transmit, to the RAN node, a first message including the one downlink RCC value; to receive, from the RAN node, a second message having a number of repeated downlink transmissions based on the one downlink RCC value; to receive, from the RAN node, a paging message including an uplink RCC value and having a number of repeated paging downlink transmissions, wherein the number of repeated paging downlink transmissions is determined based on a second downlink RCC value; and to transmit, to the RAN node, a paging response having a number of repeated uplink transmissions determined based on the uplink RCC value in the paging message. a processor (118 2); and a memory (120 2) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the wireless device is configured to receive, from a Radio Access Network, RAN, node (102 2), control channels; to estimate a downlink radio condition based on a signal quality of the received control channels; to map the estimated downlink radio condition to one of a plurality of downlink Radio Coverage Category, RCC, values; to transmit, to the RAN node, a first message including the one downlink RCC value; to receive, from the RAN node, a second message having a number of repeated downlink transmissions based on the one downlink RCC value; to receive, from the RAN node, a paging message including an uplink RCC value and having a number of repeated paging downlink transmissions, wherein the number of repeated paging downlink transmissions is determined based on a second downlink RCC value; and to transmit, to the RAN node, a paging response having a number of repeated uplink transmissions determined based on the uplink RCC value in the paging message.
An imaging system for a vertebral level comprising: a determination unit, a definition unit, an imaging unit, a processing unit, wherein the determination unit is configured to receive pre-interventional image data and to determine a target vertebral level using the pre-interventional image data, wherein the definition unit is configured to define an anatomical landmark of a spine, wherein the imaging unit is configured to provide a series of X-ray images along the spine based on the landmark, and wherein the processing unit is configured to identify the target vertebral level in at least one of the X-ray images based on the determination using the pre-interventional image data. a determination unit, a definition unit, an imaging unit, a processing unit, wherein the determination unit is configured to receive pre-interventional image data and to determine a target vertebral level using the pre-interventional image data, wherein the definition unit is configured to define an anatomical landmark of a spine, wherein the imaging unit is configured to provide a series of X-ray images along the spine based on the landmark, and wherein the processing unit is configured to identify the target vertebral level in at least one of the X-ray images based on the determination using the pre-interventional image data.
A method for requesting resources for transmitting data on uplink within a mobile communication system utilizing an uplink scheme comprising transmissions on a scheduled shared channel and a contention-based channel, the method comprising the following steps performed by the mobile terminal: transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; receiving, in response to the resource request, a resource allocation message granting resources for transmitting scheduling information to the network entity responsible for resource allocation; characterised by transmitting scheduling information to the network entity responsible for a second resource allocation for user data transmission, the scheduling information being for use by the network entity to make a resource allocation, and receiving, from the network entity, a second resource allocation message, wherein said second resource allocation message indicates resources on the uplink to be used for user data transmission and wherein transmitting scheduling information comprises transmitting, in response to the resource allocation message, the scheduling information via the scheduled shared channel. transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; receiving, in response to the resource request, a resource allocation message granting resources for transmitting scheduling information to the network entity responsible for resource allocation; characterised by transmitting scheduling information to the network entity responsible for a second resource allocation for user data transmission, the scheduling information being for use by the network entity to make a resource allocation, and receiving, from the network entity, a second resource allocation message, wherein said second resource allocation message indicates resources on the uplink to be used for user data transmission and wherein transmitting scheduling information comprises transmitting, in response to the resource allocation message, the scheduling information via the scheduled shared channel.
A liquid crystal lens, comprising: a first substrate and a second substrate, arranged opposite to each other; a liquid crystal layer, located between the first substrate and the second substrate; a plurality of strip-shaped first electrodes, parallel to each other and located on a side of the first substrate facing the liquid crystal layer; a first alignment layer, located on a side of the first electrodes facing the liquid crystal layer; a planar second electrode, located on a side of the second substrate facing the liquid crystal layer; and a second alignment layer, located on a side of the second electrode facing the liquid crystal layer, wherein the substrate has a rectangular shape and wherein an included angle between an extending direction of each of the first electrodes and a shorter edge of the first substrate is greater than zero, characterized in that: a rubbing direction of the first alignment layer and a rubbing direction of the second alignment layer are symmetric with respect to the extending direction of the first electrode. a first substrate and a second substrate, arranged opposite to each other; a liquid crystal layer, located between the first substrate and the second substrate; a plurality of strip-shaped first electrodes, parallel to each other and located on a side of the first substrate facing the liquid crystal layer; a first alignment layer, located on a side of the first electrodes facing the liquid crystal layer; a planar second electrode, located on a side of the second substrate facing the liquid crystal layer; and a second alignment layer, located on a side of the second electrode facing the liquid crystal layer, wherein the substrate has a rectangular shape and wherein an included angle between an extending direction of each of the first electrodes and a shorter edge of the first substrate is greater than zero, characterized in that: a rubbing direction of the first alignment layer and a rubbing direction of the second alignment layer are symmetric with respect to the extending direction of the first electrode.
An electric vehicle relay, comprising: a pair of fixed electrodes; a movable electrode movable to contact or to be separated from the fixed electrode; a driving shaft which performs a vertical motion as an upper end thereof is coupled to the movable electrode; a fixed core fitted into a central part of the driving shaft with a gap; a movable core coupled to a lower end of the driving shaft and sucked by a magnetic force of the fixed core; and a cylinder configured to insertion-support the fixed core and the movable core, wherein locking protrusions (41, 42) are formed on an outer circumferential surface of the movable core, wherein inclined grooves (71, 72) for inserting the locking protrusions (41, 42) are formed on an inner circumferential surface of the cylinder, and wherein the movable electrode is rotated as the locking protrusions (41, 42) are moved along the inclined grooves (71, 72) when the movable core performs an up-down motion, wherein a height of the inclined grooves (71, 72) corresponds to a movement distance of the movable core, and a circular arc formed as the inclined grooves (71, 72) are projected onto a horizontal surface to have an angle of 90°. a pair of fixed electrodes; a movable electrode movable to contact or to be separated from the fixed electrode; a driving shaft which performs a vertical motion as an upper end thereof is coupled to the movable electrode; a fixed core fitted into a central part of the driving shaft with a gap; a movable core coupled to a lower end of the driving shaft and sucked by a magnetic force of the fixed core; and a cylinder configured to insertion-support the fixed core and the movable core, wherein locking protrusions (41, 42) are formed on an outer circumferential surface of the movable core, wherein inclined grooves (71, 72) for inserting the locking protrusions (41, 42) are formed on an inner circumferential surface of the cylinder, and wherein the movable electrode is rotated as the locking protrusions (41, 42) are moved along the inclined grooves (71, 72) when the movable core performs an up-down motion, wherein a height of the inclined grooves (71, 72) corresponds to a movement distance of the movable core, and a circular arc formed as the inclined grooves (71, 72) are projected onto a horizontal surface to have an angle of 90°.
Method of analyzing a presence in a space, comprising the steps of: - projecting at least two light beams (10; 22, 23) in directions that are not parallel into the space and toward a screen (11; 24) in such a manner that at least a portion of a body (A, B), if present in the space, casts a shadow onto the screen, - analyzing the shadow cast onto the screen, including detecting grey level areas in the shadow cast on the screen (11; 24) and detecting widths of grey level areas to deduce if either a body or a plurality of bodies is present in the space. - projecting at least two light beams (10; 22, 23) in directions that are not parallel into the space and toward a screen (11; 24) in such a manner that at least a portion of a body (A, B), if present in the space, casts a shadow onto the screen, - analyzing the shadow cast onto the screen, including detecting grey level areas in the shadow cast on the screen (11; 24) and detecting widths of grey level areas to deduce if either a body or a plurality of bodies is present in the space.
An outsole for an article of footwear, the outsole comprising: a ground-facing surface of the outsole and a second surface of the outsole opposing the ground-facing surface, the outsole configured to be secured to an upper for an article of footwear, a surface element defining at least a portion of the ground-facing surface of the outsole, the surface element compositionally comprising a dispersion having a first polymeric phase and a second phase in the form of particles dispersed within the first polymeric phase, the second phase being formed of a material which is more hydrophilic and has a greater water uptake capacity than the first polymeric phase, the surface element having a water uptake capacity at 24 hours of greater than 40% by weight, as characterized by the Water Uptake Capacity Test with the Footwear Sampling Procedure. a ground-facing surface of the outsole and a second surface of the outsole opposing the ground-facing surface, the outsole configured to be secured to an upper for an article of footwear, a surface element defining at least a portion of the ground-facing surface of the outsole, the surface element compositionally comprising a dispersion having a first polymeric phase and a second phase in the form of particles dispersed within the first polymeric phase, the second phase being formed of a material which is more hydrophilic and has a greater water uptake capacity than the first polymeric phase, the surface element having a water uptake capacity at 24 hours of greater than 40% by weight, as characterized by the Water Uptake Capacity Test with the Footwear Sampling Procedure.
A device for filling a can with sliver, which is produced in a spinning preparation installation, e.g. a draw frame, a carding machine or a combing machine, wherein the device is adapted to accommodate simultaneously an empty and a full can, including a silver coiling head with an integrated revolving coiler plate, wherein the sliver coiling head is supported to be displaceable from a first position above a first can into a second position above a second can, and wherein the device includes a base plate with a back wall, which is configured as a frame, wherein the sliver coiling head is disposed to be displaceable exclusively directly or indirectly at the frame, characterized in that two guides (25, 26) are disposed at the frame, which are spaced apart from each other in vertical direction.