mhurhangee/ep-ind-claims huggingface dataset:
Method for recording individual three-dimensional optical images to form an overall image of a tooth situation comprising an upper jaw and a lower jaw, wherein a first virtual 3D model of a first subsection of the upper jaw and a second virtual 3D model of a second subsection of the lower jaw are generated from the individual images, wherein a geometric positional relationship between the first virtual 3D model and the second virtual 3D model is determined, wherein the positional relationship is determined using a contact pattern (31, 32), wherein the contact pattern comprises a plurality of contact areas (31, 32) between the upper jaw and the lower jaw, wherein the contact pattern (30, 31, 32) is measured with the aid of an occlusion paper by placing the occlusion paper between the upper jaw and the lower jaw and then bringing the upper jaw and the lower jaw into a closed bite position, wherein subsequently, after the occlusion paper has been removed again, the individual images are measured such that the contact areas of the contact pattern on the upper jaw and the lower jaw are recorded, wherein the generated first virtual 3D model and the generated second virtual 3D model are analyzed by means of a computer to determine the position of the contact areas on the upper jaw and the lower jaw, wherein, taking into account the determined geometric positional relationship, the first virtual 3D model and/or the second virtual 3D model are deformed to minimize a deviation between first virtual contact areas on the first virtual 3D model and second virtual contact areas on the second virtual 3D model, wherein, using the determined geometric positional relationship, the first virtual 3D model and/or the second virtual 3D model are deformed such that the first virtual contact areas on the first virtual 3D model correspond with the second virtual contact areas on the second virtual 3D model.
A circuit comprising: a circuit input to receive a reference voltage (Vref); a circuit output for providing an output voltage (Vout) to a load; a modulator circuit having an output configured to provide a modulated signal using the reference voltage (Vref) received at the circuit input; a comparator having a first input to receive a signal from the circuit output (Vout), a second input to receive the modulated signal produced by the modulator circuit, and an output to provide a pulse waveform; a switching circuit comprising a first switching transistor and a second switching transistor, which are switchable in response to the pulse waveform from the comparator; and a level shifter circuit connected to the output of the modulator circuit, characterized by the level shifter circuit operable to shift a level in the modulated signal by a voltage offset in synchrony with the pulse waveform from the comparator, wherein the level shifter circuit is further operable to shift a level of the modulated signal based on the pulse waveform from the comparator. a circuit input to receive a reference voltage (Vref); a circuit output for providing an output voltage (Vout) to a load; a modulator circuit having an output configured to provide a modulated signal using the reference voltage (Vref) received at the circuit input; a comparator having a first input to receive a signal from the circuit output (Vout), a second input to receive the modulated signal produced by the modulator circuit, and an output to provide a pulse waveform; a switching circuit comprising a first switching transistor and a second switching transistor, which are switchable in response to the pulse waveform from the comparator; and a level shifter circuit connected to the output of the modulator circuit, characterized by the level shifter circuit operable to shift a level in the modulated signal by a voltage offset in synchrony with the pulse waveform from the comparator, wherein the level shifter circuit is further operable to shift a level of the modulated signal based on the pulse waveform from the comparator.
Lifting device for a receptacle for items to be washed in a dishwasher, in particular a household dishwasher, wherein the lifting device is designed to lift the receptacle for items to be washed from a starting position (P A) into an end position (P E) or to lower the same from the end position (P E) into the starting position (P A), wherein the lifting device comprises a stop facility, which is designed to automatically stop the receptacle for items to be washed in an intermediate position (Pz) between the starting position (P A) and the end position (P E), wherein the lifting device comprises a manually actuatable actuation facility for blocking and unblocking the stop facility, wherein the receptacle for items to be washed can only be shifted from the starting position (P A) into the end position (P E) or vice versa if the actuation facility is actuated manually in order to unblock the stop facility, and wherein the stop facility automatically stops the receptacle for items to be washed in the intermediate position (Pz), if the actuation facility is unactuated, characterised in that the actuation facility is provided on the lifting device and that the actuation facility comprises a handle attached rotatably to the lifting device.
Self-aligning tool guide, with: a holder for securing a portable power tool, a lifting mechanism on which the holder is mounted, and which has a propulsion system for raising the holder parallel to a lifting axis and a control station for operation of the propulsion system by a user, a chassis which has two wheels on a wheel axis, a drive coupled to the wheels, and a steering system for operation of the chassis by an operator, and an arrangement of electric batteries (32, 55) for supplying the propulsion system and the drive with power, characterized in that the chassis is self-balancing, and in that the self-aligning tool guide has an emergency power device which has a charging state sensor for determining a charging state of the arrangement of electric batteries (32, 55), and a deactivation unit which deactivates the control station in response to the charging state falling below an emergency charge. a holder for securing a portable power tool, a lifting mechanism on which the holder is mounted, and which has a propulsion system for raising the holder parallel to a lifting axis and a control station for operation of the propulsion system by a user, a chassis which has two wheels on a wheel axis, a drive coupled to the wheels, and a steering system for operation of the chassis by an operator, and an arrangement of electric batteries (32, 55) for supplying the propulsion system and the drive with power, characterized in that the chassis is self-balancing, and in that the self-aligning tool guide has an emergency power device which has a charging state sensor for determining a charging state of the arrangement of electric batteries (32, 55), and a deactivation unit which deactivates the control station in response to the charging state falling below an emergency charge.
A radiation detector, comprising: a photovoltaic layer with a first side and a second opposing side, wherein the photovoltaic layer is configured to absorb first radiation at the first side and produce electrical charge; a porous silicon quantum dot layer disposed at the second side of the photovoltaic layer and configured to receive second radiation and convert the received second radiation into an electrical signal indicative of an energy level of the received second radiation; an acquisition and communication layer disposed adjacent to the porous silicon quantum dot layer and configured to receive the electrical signal and transmit the electrical signal to a device remote from the radiation detector; and an energy storage layer disposed adjacent to the acquisition and communication layer and configured to store the electrical charge and supply the stored electrical charge as operating power to the acquisition and communication layer. a photovoltaic layer with a first side and a second opposing side, wherein the photovoltaic layer is configured to absorb first radiation at the first side and produce electrical charge; a porous silicon quantum dot layer disposed at the second side of the photovoltaic layer and configured to receive second radiation and convert the received second radiation into an electrical signal indicative of an energy level of the received second radiation; an acquisition and communication layer disposed adjacent to the porous silicon quantum dot layer and configured to receive the electrical signal and transmit the electrical signal to a device remote from the radiation detector; and an energy storage layer disposed adjacent to the acquisition and communication layer and configured to store the electrical charge and supply the stored electrical charge as operating power to the acquisition and communication layer.
A surface-modified nanodiamond comprising: a nanodiamond; and a group being bound to a particulate surface of the nanodiamond and represented by formula: -NHCOR wherein R represents a straight-chain or branched-chain alkyl group having 1 to 22 carbon atoms or a 3- to 22-membered cycloalkyl group; and the left end, in the formula, of the group serves to form bonding to the nanodiamond. a nanodiamond; and a group being bound to a particulate surface of the nanodiamond and represented by formula: -NHCOR wherein R represents a straight-chain or branched-chain alkyl group having 1 to 22 carbon atoms or a 3- to 22-membered cycloalkyl group; and the left end, in the formula, of the group serves to form bonding to the nanodiamond.
A method for mounting a network attached storage NAS device, comprising: broadcasting, by a digital media player DMP, in a network a discovery message for searching a network attached storage NAS device; parsing a configuration response message and obtaining configuration information of the NAS device by the DMP, wherein the configuration response message is returned by the NAS device in response to the discovery message, wherein the configuration information carries a serial number used to identify and mount the NAS device, a URL address for mounting, and a URL address for configuring; and mounting, by the DMP, the NAS device according to the serial number and the URL address for mounting, and after the mounting is completed, configuring the NAS device according to the URL address for configuring. broadcasting, by a digital media player DMP, in a network a discovery message for searching a network attached storage NAS device; parsing a configuration response message and obtaining configuration information of the NAS device by the DMP, wherein the configuration response message is returned by the NAS device in response to the discovery message, wherein the configuration information carries a serial number used to identify and mount the NAS device, a URL address for mounting, and a URL address for configuring; and mounting, by the DMP, the NAS device according to the serial number and the URL address for mounting, and after the mounting is completed, configuring the NAS device according to the URL address for configuring.
An expander-generator, comprising: a hermetically-sealed housing having a rotatable shaft disposed therein, the rotatable shaft having a free end and extending from a first end of the hermetically-sealed housing to a second end of the hermetically-sealed housing; a high pressure expander section disposed within the hermetically-sealed housing and rotatably disposed on the shaft and configured to receive and expand a working fluid and discharge the working fluid via a high pressure discharge defined within the hermetically-sealed housing, thus imparting rotational motion to the shaft; a low pressure expander section disposed within the hermetically-sealed housing and rotatably disposed on the shaft and axially-offset from the high pressure expander section and in fluid communication with the high pressure expander section via the high pressure discharge, wherein the low pressure expander section is configured to receive and further expand the working fluid derived from the high pressure discharge to impart additional rotational motion to the shaft; and a generator coupled to the free end of the rotatable shaft, wherein the working fluid is expanded to rotate the shaft and thereby generate rotational shaft power to be used by the generator to generate electricity. a hermetically-sealed housing having a rotatable shaft disposed therein, the rotatable shaft having a free end and extending from a first end of the hermetically-sealed housing to a second end of the hermetically-sealed housing; a high pressure expander section disposed within the hermetically-sealed housing and rotatably disposed on the shaft and configured to receive and expand a working fluid and discharge the working fluid via a high pressure discharge defined within the hermetically-sealed housing, thus imparting rotational motion to the shaft; a low pressure expander section disposed within the hermetically-sealed housing and rotatably disposed on the shaft and axially-offset from the high pressure expander section and in fluid communication with the high pressure expander section via the high pressure discharge, wherein the low pressure expander section is configured to receive and further expand the working fluid derived from the high pressure discharge to impart additional rotational motion to the shaft; and a generator coupled to the free end of the rotatable shaft, wherein the working fluid is expanded to rotate the shaft and thereby generate rotational shaft power to be used by the generator to generate electricity.
A method for producing 1-(2-hydroxyethyl)-2,5,5,8a-tetramethyldecahydronaphthalene-2-ol represented by the formula, wherein the method comprises: (a) carrying out a microbial conversion using a microorganism and a compound(s) represented by the following formula and/or as a substrate, in order to give a culture product; (b) mixing the resulting culture product, which contains the microorganisms of the microbial conversion, with a solvent having an SP value within the range of 8.5 to 8.9 [(cal/cm 3) 1/2], in order to give a mixture fluid; (c) separating the mixture fluid into a solvent phase and an aqueous phase; and (d) subsequently removing the aqueous phase from the mixed fluid. (a) carrying out a microbial conversion using a microorganism and a compound(s) represented by the following formula and/or as a substrate, in order to give a culture product; (b) mixing the resulting culture product, which contains the microorganisms of the microbial conversion, with a solvent having an SP value within the range of 8.5 to 8.9 [(cal/cm 3) 1/2], in order to give a mixture fluid; (c) separating the mixture fluid into a solvent phase and an aqueous phase; and (d) subsequently removing the aqueous phase from the mixed fluid.
A method for producing a fried noodle lump which is prevented from being inverted in a cup-shaped container, whose barrel has a tapered structure which becomes wider toward an opening of the container, by external shock in a state where the fried noodle lump is held at the midpoint of the cup-shaped container such that a lateral side of the noodle lump is in contact with an internal lateral side of the cup-shaped container, wherein the fried noodle lump has a similar tapered structure to the cup-shaped container or a tapered structure with a taper angle larger than that of the cup-shaped container, and has a flat portion on an upper side thereof, dried ingredients are added to a top of the fried noodle lump and the opening of the container is covered with a lid, wherein the inverting includes a state where the upper side and underside of the fried noodle lump are reversed within the cup-shaped container and a case where the fried noodle lump is generally inclined at an angle of approximately 20° or larger with respect to a horizontal plane within the cup-shaped container, the method comprising the step of: securing the shape retention of a bottom end portion of the fried noodle lump by storing a group of noodle strings after gelatinization in a retainer which is a porous fluid permeable metal mold, placing a porous lid on an upper portion of the retainer, immersing a lower portion of the retainer in the fry oil at 10% to 80% of the height of the retainer, keeping the state where the lower portion of the retainer is immersed in the fry oil for a predetermined time, so as to fry the lower end portion of the group of noodle strings such that frying time is of 10 to 60 seconds and frying temperature is of 140 to 180°C; and immersing the whole retainer in a fry oil, after the step of securing the shape retention of the bottom end portion of the fried noodle lump, wherein immersing a lower portion of the retainer in the fry oil and immersing the whole retainer in a fry oil is a frying step of drying the noodle lump under oil heat by passing through an oil of 120 C to 170 C for 1 minute to 3 minutes. securing the shape retention of a bottom end portion of the fried noodle lump by storing a group of noodle strings after gelatinization in a retainer which is a porous fluid permeable metal mold, placing a porous lid on an upper portion of the retainer, immersing a lower portion of the retainer in the fry oil at 10% to 80% of the height of the retainer, keeping the state where the lower portion of the retainer is immersed in the fry oil for a predetermined time, so as to fry the lower end portion of the group of noodle strings such that frying time is of 10 to 60 seconds and frying temperature is of 140 to 180°C; and immersing the whole retainer in a fry oil, after the step of securing the shape retention of the bottom end portion of the fried noodle lump, wherein immersing a lower portion of the retainer in the fry oil and immersing the whole retainer in a fry oil is a frying step of drying the noodle lump under oil heat by passing through an oil of 120 C to 170 C for 1 minute to 3 minutes.
A conductive ball mounting method, comprising the steps of: arranging a mask in which an opening portion is provided, on a substrate including a connection pad; arranging a conductive ball on the connection pad through the opening portion of the mask by supplying the conductive ball onto the mask; separating the substrate and the mask, in the step, an extra conductive ball left on the mask drops through the opening portion of the mask, thereby a surplus ball is mounted on the substrate; and removing the surplus ball on the substrate by making the surplus ball adhere onto an adhering head. arranging a mask in which an opening portion is provided, on a substrate including a connection pad; arranging a conductive ball on the connection pad through the opening portion of the mask by supplying the conductive ball onto the mask; separating the substrate and the mask, in the step, an extra conductive ball left on the mask drops through the opening portion of the mask, thereby a surplus ball is mounted on the substrate; and removing the surplus ball on the substrate by making the surplus ball adhere onto an adhering head.
A pipette tip comprising: a) a proximal end possibly equipped with a sterility filter; b) an elongated body adapted to retain a particle-containing conductive medium; and c) a distal end having a flow opening being closed at its extremity by a membrane having a single orifice thereon adapted to dispense a particle-containing conductive medium and particles comprised therein, said orifice having a diameter comprised between 1μm and 1000 μm characterized in that the membrane diameter/orifice diameter ratio is of at least 6.32, preferably at least 10. a) a proximal end possibly equipped with a sterility filter; b) an elongated body adapted to retain a particle-containing conductive medium; and c) a distal end having a flow opening being closed at its extremity by a membrane having a single orifice thereon adapted to dispense a particle-containing conductive medium and particles comprised therein, said orifice having a diameter comprised between 1μm and 1000 μm
Tube-holding device for vehicles comprising - a hollow device body, enclosing a containment compartment for objects, said device body extending in a prevailing longitudinal direction (X-X) from a front end to a rear end, - a closing cover, joined to the front end, which may be opened so as to allow access to the containment compartment, through a relative access threshold, - a rear closure cap joined to the rear end, - wherein the closing cover is hinged at an upper wall of the device body, opposite a roof or an associated vehicle luggage rack, by means of at least one upper hinge having a horizontal axis (Y-Y), perpendicular to said prevailing longitudinal direction (X-X) and parallel to said upper wall, - wherein the access threshold is at least partially inclined with respect to a vertical plane, perpendicular to said prevailing longitudinal direction (X-X), and passing through said horizontal axis (Y-Y) of the upper hinge, - wherein the closing cover comprises a closing edge counter-shaped with respect to said access threshold, characterized in that the device body is provided with a bottom partition, placed opposite the upper hinge which divides the containment compartment from a locking compartment of the closing cover housing locking means of the closing cover. - a hollow device body, enclosing a containment compartment for objects, said device body extending in a prevailing longitudinal direction (X-X) from a front end to a rear end, - a closing cover, joined to the front end, which may be opened so as to allow access to the containment compartment, through a relative access threshold, - a rear closure cap joined to the rear end, - wherein the closing cover is hinged at an upper wall of the device body, opposite a roof or an associated vehicle luggage rack, by means of at least one upper hinge having a horizontal axis (Y-Y), perpendicular to said prevailing longitudinal direction (X-X) and parallel to said upper wall, - wherein the access threshold is at least partially inclined with respect to a vertical plane, perpendicular to said prevailing longitudinal direction (X-X), and passing through said horizontal axis (Y-Y) of the upper hinge, - wherein the closing cover comprises a closing edge counter-shaped with respect to said access threshold,
Valve arrangement for aggressive fluids, in particular for urea, comprising a directional control valve device which has a first and a second shift position (A, B), and an actuator device for actuating the directional control valve device, wherein the directional control valve device comprises at least one reservoir connection (T S, T R) for connection to a reservoir, at least one pump connection (P S, P D), for connection to a pump, as well as a working connection, wherein the directional control valve device, after displacement into the first shift position is held via the actuator device by means of a fluidic self-holding device which is connected to the actuator device, characterized in that the directional control valve device is biased into the second shift position, wherein the self-holding device is, in the first shift position, connected via a throttle with a reservoir return connection, and wherein the self-holding device, in the first shift position, is connected to the working connection.
Method for the sleeping phase-specific operation of a means of transport, comprising the following steps: - using sensors to ascertain a sleeping phase of a first occupant of the means of transport and, based on the sleeping phase, - adapting guidance of the means of transport in terms of longitudinal and/or transverse guidance. - using sensors to ascertain a sleeping phase of a first occupant of the means of transport and, based on the sleeping phase, - adapting guidance of the means of transport in terms of longitudinal and/or transverse guidance.