mhurhangee/ep-ind-claims huggingface dataset:
An imprint lithography substrate transfer method, the method comprising: providing a tray handler device comprising a tray handler; providing a tray defining an aperture and having a top surface, the aperture defining cutouts and tabs (322, 324); providing a substrate chuck having a top surface and a bottom surface; engaging the tray handler with the tray; positioning the tray handler device in a first position with i) the cutouts of the aperture of the tray in superimposition with respective pedestals of a pedestal platform and ii) a distal end of the pedestals extending away from the top surface of the tray; increasing a distance between the top surface of the tray and a top surface of the pedestal platform to transfer a substrate from the pedestals to the tabs defined by the aperture of the tray; rotating the tray handler device from the first position to a second position with the tabs defined by the aperture of the tray in superimposition with respective channels of the substrate chuck; decreasing a distance between the top surface of the tray and the bottom surface of the substrate chuck to transfer the substrate from the tabs defined by the aperture of the tray to the top surface of the substrate chuck while the tabs defined by the aperture of the tray are disposed within the respective channels of the substrate chuck; and disengaging the tray handler from the tray. providing a tray handler device comprising a tray handler; providing a tray defining an aperture and having a top surface, the aperture defining cutouts and tabs (322, 324); providing a substrate chuck having a top surface and a bottom surface; engaging the tray handler with the tray; positioning the tray handler device in a first position with i) the cutouts of the aperture of the tray in superimposition with respective pedestals of a pedestal platform and ii) a distal end of the pedestals extending away from the top surface of the tray; increasing a distance between the top surface of the tray and a top surface of the pedestal platform to transfer a substrate from the pedestals to the tabs defined by the aperture of the tray; rotating the tray handler device from the first position to a second position with the tabs defined by the aperture of the tray in superimposition with respective channels of the substrate chuck; decreasing a distance between the top surface of the tray and the bottom surface of the substrate chuck to transfer the substrate from the tabs defined by the aperture of the tray to the top surface of the substrate chuck while the tabs defined by the aperture of the tray are disposed within the respective channels of the substrate chuck; and disengaging the tray handler from the tray.
A blood purification device comprising: a blood removal line for delivering a blood taken out from a patient to a blood purifier; a blood pump placed on the blood removal line; a pressure sensor placed in the blood removal line on a side upstream of the blood pump for measuring a pressure of the blood delivered in the blood removal line; a transfusion line for supplying a transfusion to the blood removal line on a side upstream of the blood pump; a transfusion vessel connected to the transfusion line; an opening/closing valve for opening or closing the transfusion line; and a control unit for controlling the blood pump and the opening/closing valve, wherein: the transfusion vessel is placed vertically above the patient; and the control unit opens the transfusion line by means of the opening/closing valve when the pressure measured by the pressure sensor becomes smaller than a predetermined value during operation of the blood pump. the transfusion vessel is placed vertically above the patient; and the control unit opens the transfusion line by means of the opening/closing valve when the pressure measured by the pressure sensor becomes smaller than a predetermined value during operation of the blood pump.
A production method for a removable dental splint made of a thermoplastic film or plate, wherein - the dental splint is at least partially adapted to the shape of the upper jaw and/or lower jaw, wherein - on the basis of a three-dimensional data set of at least one part of an upper jaw and/or lower jaw a digital three-dimensional working model is created in a computer-aided manner, - the gingival line is determined automatically and/or manually in the digital working model, an auxiliary line is created at a fixed distance in the direction of the gingiva, parallel to the gingival line, and is used as a cutting line model, - the digital working model is supplemented by an auxiliary structure automatically or by way of manual input means before the physical working model is produced, wherein - the auxiliary structure is formed as an elevation or depression, - the auxiliary structure extends along the digital cutting line model in the working model, - a physical working model is produced in accordance with the supplemented digital working model, - the plastic film or plate is deep-drawn on the physical working model within a deep-drawing device and - the dental splint is created from the deep-drawn plastic film or plate by means of separation along a cutting line, - the dental splint is manually separated from the deep-drawn plastic film or plate using a cutting tool, wherein the tool at least partially removes the auxiliary structure or at least partially reaches into the auxiliary structure during the separation. - the dental splint is at least partially adapted to the shape of the upper jaw and/or lower jaw, wherein - on the basis of a three-dimensional data set of at least one part of an upper jaw and/or lower jaw a digital three-dimensional working model is created in a computer-aided manner, - the gingival line is determined automatically and/or manually in the digital working model, an auxiliary line is created at a fixed distance in the direction of the gingiva, parallel to the gingival line, and is used as a cutting line model, - the digital working model is supplemented by an auxiliary structure automatically or by way of manual input means before the physical working model is produced, wherein - the auxiliary structure is formed as an elevation or depression, - the auxiliary structure extends along the digital cutting line model in the working model, - a physical working model is produced in accordance with the supplemented digital working model, - the plastic film or plate is deep-drawn on the physical working model within a deep-drawing device and - the dental splint is created from the deep-drawn plastic film or plate by means of separation along a cutting line, - the dental splint is manually separated from the deep-drawn plastic film or plate using a cutting tool, wherein the tool at least partially removes the auxiliary structure or at least partially reaches into the auxiliary structure during the separation.
Turbine such as a wind turbine, comprising at least two, preferably three profiled rotor blades which are activated by a hydraulic fluid, in particular by the wind, and which are connected to a substantially vertical central axle by connection arms and linear activation members which are associated with each of the rotor blades and which are subjected to an alternating translation movement during each rotation of the turbine and conversion members which enable this alternating translation movement to be converted into a movement which is centred on the axle of the turbine, in order to enable the mechanical energy of the normal components or lift of the forces brought about by the hydraulic fluid to be recovered in order to be able to convert them into electrical energy, in which turbine the conversion members are constituted by a stationary energy recovery roller which is mounted on the rotation axle (x, x') of the turbine and which cooperates with satellite rollers which are associated with each of the rotor blades, respectively, and which are fixedly joined to the stationary roller and which rotate about this roller, and the linear activation members associated with each of the rotor blades are constituted by a connection rod which is articulated, on the one hand, at one of the ends thereof or first end to the satellite roller associated with this rotor blade, at a point of this roller located on the periphery thereof and, on the other hand, at the other end thereof or second end, to an end of a sliding member which can be moved in translation along the connection arm and whose other end is fixed to the associated rotor blade, characterised in that the distance between the rotation axle (x, x') of the turbine (point 0) and the fixing point of the sliding member on the associated rotor blade is checked and is in particular substantially constant during the rotation of the turbine whilst the distance between the centre of the satellite roller and the rotation axle (x, x') of the turbine (point 0) varies during the rotation of the satellite roller about the stationary roller.
A vehicular headlamp, in which a lamp unit, which is a projector type lamp unit, is disposed inside a lamp outer casing formed by a cover and a housing; the lamp unit includes a light source (7, 7a) for emitting light, a reflector for reflecting, in a forward direction, light emitted from the light source (7, 7a) a projection lens for projecting the light emitted from the light source (7, 7a) to radiate the light in the forward direction, the vehicular headlamp characterized in that a reflective body that has a pair of reflective surfaces facing substantially a lateral direction, is located between the light source (7, 7a) and the projection lens, and is movable in the lateral direction.
An apparatus comprising: an enclosure having a first melting temperature, comprising: an exterior surface: an interior surface opposite the exterior surface; and an angled sidewall extending between the exterior and interior surfaces and defining an aperture; a transparent window positioned within the aperture and defining an angled edge, a laser weld formed between the angled sidewall of the enclosure and the angled edge of the transparent window and encircling the transparent window within the aperture, the laser weld generated by passing a laser beam through the transparent window to an interface between the angled sidewall and the transparent window; and wherein the apparatus is characterized by: the transparent window having a second melting temperature that is greater than the first melting temperature, the angled edge having a surface defect, the surface defect comprising at least one of a crack or a depression; and wherein the laser weld includes a portion of the enclosure filling one or both of the crack or the depression of the transparent window. an enclosure having a first melting temperature, comprising: an exterior surface: an interior surface opposite the exterior surface; and an angled sidewall extending between the exterior and interior surfaces and defining an aperture; an interior surface opposite the exterior surface; and an angled sidewall extending between the exterior and interior surfaces and defining an aperture; a transparent window positioned within the aperture and defining an angled edge, a laser weld formed between the angled sidewall of the enclosure and the angled edge of the transparent window and encircling the transparent window within the aperture, the laser weld generated by passing a laser beam through the transparent window to an interface between the angled sidewall and the transparent window; and wherein the apparatus is characterized by: the transparent window having a second melting temperature that is greater than the first melting temperature, the angled edge having a surface defect, the surface defect comprising at least one of a crack or a depression; and wherein the laser weld includes a portion of the enclosure filling one or both of the crack or the depression of the transparent window. the transparent window having a second melting temperature that is greater than the first melting temperature, the angled edge having a surface defect, the surface defect comprising at least one of a crack or a depression; and wherein the laser weld includes a portion of the enclosure filling one or both of the crack or the depression of the transparent window.
A method for controlling the quality of a stretch-blow-moulded plastic container by optical inspection of the container base, wherein the distribution of material (18, 19, 20) at the base of the plastic container is made visible by illumination, that it is recorded by one or by a plurality of camera(s), especially spatially-resolving electronic camera(s), and that quality features are derived therefrom by image processing algorithms, wherein the distribution of material is made visible through a recognition of a wedge angle between inner and outer surfaces with the aid of directed light, wherein by the wedge angle the directed light is deflected by diffraction and does not arrive at the camera, such that all parts of the base defining a wedge angle are imaged darkly, and wherein a dark outer contour will appear around the injection point at the base, enclosing an unstretched and/or only slightly stretched region, characterized in that the surface area of the unstretched and/or only slightly stretched total region or of a selected unstretched and/or only slightly stretched subregion on the base of the plastic container is determined, and/or the surface area, the position or the size of the wedge angle of the transition region between the unstretched and/or only slightly stretched region and a stretched region on the base of the plastic container is determined, and/or the shape of the transition region between the unstretched and/or only slightly stretched region and a stretched region on the base of the plastic container is determined.
A communication system including a master station device and a plurality of slave station devices connected to one another by a currently used communication line and a backup communication line, a communication route being formed between the master station device and the slave station devices by selectively using these communication lines, for causing each of the slave station devices to stop transmitting a signal to the master station device for a predetermined stop period of time when the slave station device is in a power saving mode, and for causing each of the slave station devices to transmit the signal to the master station device when the slave station device is in a normal mode, the communication system comprising: a power-saving-device identification unit that identifies each of the slave station devices in the power saving mode; and a line switching unit that switches the communication line forming the communication route from the currently used communication line to the backup communication line when a state where the master station device does not receive the signal from any of the slave station devices except for the slave station device identified by the power-saving-device identification unit as being in the power saving mode among the slave station devices continues for a predetermined time. a power-saving-device identification unit that identifies each of the slave station devices in the power saving mode; and a line switching unit that switches the communication line forming the communication route from the currently used communication line to the backup communication line when a state where the master station device does not receive the signal from any of the slave station devices except for the slave station device identified by the power-saving-device identification unit as being in the power saving mode among the slave station devices continues for a predetermined time.
A method for decoding a high dynamic range - HDR - image in JPEG format, the method comprising: receiving base layer data, wherein the base layer data includes a tone-mapped low dynamic range version of the HDR image; receiving an encoder alteration parameter indicative of an alteration of the base layer data after encoding, wherein the encoder alteration parameter is a checksum of the encoded base layer data; receiving residual ratio data in one or more APP11 marker segments of the HDR image, wherein the residual ratio data includes information describing ratios of luminance values of the HDR image and corresponding luminance values of the base layer data; computing a decoder alteration parameter for the base layer data, wherein the decoder alteration parameter is a checksum of the received base layer data; and comparing the encoder alteration parameter to the decoder alteration parameter to determine whether the received base layer data has been altered after encoding. receiving base layer data, wherein the base layer data includes a tone-mapped low dynamic range version of the HDR image; receiving an encoder alteration parameter indicative of an alteration of the base layer data after encoding, wherein the encoder alteration parameter is a checksum of the encoded base layer data; receiving residual ratio data in one or more APP11 marker segments of the HDR image, wherein the residual ratio data includes information describing ratios of luminance values of the HDR image and corresponding luminance values of the base layer data; computing a decoder alteration parameter for the base layer data, wherein the decoder alteration parameter is a checksum of the received base layer data; and comparing the encoder alteration parameter to the decoder alteration parameter to determine whether the received base layer data has been altered after encoding.
A wave-power generator that is provided with an oscillating body (3; 103; 203) that is installed in a floating body (2; 102; 202; 211, 211') via a spring (4; 104; 204; 244) and that linearly reciprocates in response to a fluctuation of a water surface, and a generator (8; 108; 241) that generates power by being driven on the basis of the linear reciprocating motion of the oscillating body (3; 103; 203) the wave-power generator (1; 30; 101; 201; 210) comprising: an additional-mass body (6; 32; 106; 206) for adding an additional mass to a mass of the oscillating body (3; 103; 203) characterized in that the generator further comprises a conversion mechanism (242; 276; 281) that converts the linear reciprocating motion of the oscillating body (3; 103; 203) to rotational motion; and a rotating body (5; 105, 277) that is rotated by a torque extracted via the conversion mechanism (242; 276; 281) and that drives the generator, wherein the additional-mass body (6; 32; 106; 206) is attached to the rotating body (5; 105; 277), and wherein the additional-mass body (6; 32; 106; 206) is attached so as to be rotated together with the rotating body and is moved forward and backward with respect to water.
A motor controller that controls energization of a motor in which a plurality of coils (U1, V1, W1, U2, V2, W2) of motor phases (U, V, W) are arranged in a circular pattern for applying torque to a rotor, the motor controller comprising: a rotation speed detection sensor that detects a rotation speed of the motor; and an energization control unit comprising a coil excitation control unit configured to control energization of the plurality of coils (U1, V1, W1, U2, V2, W2) of the phases (U, V, W) using the detected rotation speed, wherein the energization control unit: sequentially energizes respective coils of the plurality of coils (U1, V1, W1, U2, V2, W2) so that all of the phases (U, V, W) are excited in the order of predetermined phase energization patterns if the detected rotation speed is outside of predetermined range; characterized in that if the detected rotation speed is within the predetermined range, the energization control unit stops energization in a specific energization pattern such that occurrence of resonant vibration of the motor is suppressed. a rotation speed detection sensor that detects a rotation speed of the motor; and an energization control unit comprising a coil excitation control unit configured to control energization of the plurality of coils (U1, V1, W1, U2, V2, W2) of the phases (U, V, W) using the detected rotation speed, wherein the energization control unit: sequentially energizes respective coils of the plurality of coils (U1, V1, W1, U2, V2, W2) so that all of the phases (U, V, W) are excited in the order of predetermined phase energization patterns if the detected rotation speed is outside of predetermined range; characterized in that if the detected rotation speed is within the predetermined range, the energization control unit stops energization in a specific energization pattern such that occurrence of resonant vibration of the motor is suppressed. sequentially energizes respective coils of the plurality of coils (U1, V1, W1, U2, V2, W2) so that all of the phases (U, V, W) are excited in the order of predetermined phase energization patterns if the detected rotation speed is outside of predetermined range; characterized in that if the detected rotation speed is within the predetermined range, the energization control unit stops energization in a specific energization pattern such that occurrence of resonant vibration of the motor is suppressed.