mhurhangee/ep-ind-claims huggingface dataset:
A surveying system having a total station and a target instrument, wherein said target instrument has a retro-reflector (20, 25) defining an object to be measured, and an illuminating lamp for emitting an illumination light toward said total station, wherein said total station has a distance measuring light projecting unit for projecting a distance measuring light, a light receiving unit for receiving a reflected distance measuring light and producing a light receiving signal, a distance measuring unit (35, 36, 37) for performing a distance measurement of the object to be measured based on said light receiving signal, an optical axis deflector provided on a distance measuring optical axis and capable of deflecting said distance measuring optical axis two-dimensionally, a projecting direction detecting module for detecting a deflection angle of said distance measuring optical axis and performing an angle measurement, an image pickup unit having an image pickup optical axis in parallel with said distance measuring optical axis in a condition not deflected by said optical axis deflector, and an arithmetic control module for controlling a deflecting action of said optical axis deflector and a distance measuring action of said distance measuring unit, characterized in that said object to be measured has a reference point at a known position with respect to the illuminating lamp, a reference reflection part disposed around said reference point, an auxiliary reflection part extending in an up-and-down direction from said reference reflection part, and has the retro-reflector, in the form of a reflection sheet, wound around the circumferences of the reference reflection part and the auxiliary reflection part; and in that said arithmetic control module is configured to detect said illumination light from an image acquired by said image pickup unit, to acquire a direction of said illuminating lamp based on a detection result of said illumination light, to calculate a direction of the object to be measured (20, 25) from a known positional relationship between the illuminating lamp and the object to be measured (20, 25), to make said optical axis deflector to perform a two-dimensional search scan according to a scanning pattern with said distance measuring light around the calculated direction, to perform a distance measurement and an angle measurement along a scanning path of the scanning pattern, and to acquire a three-dimensional position of said reference point, the two-dimensional search scan including an initial search scan and a narrower local search scan, the total station being configured to detect said target instrument using said initial search scan based on the reflected distance measuring light from said auxiliary reflection part and/or said reference reflection part, and further to detect said reference point using said local search scan based on the reflected distance measuring light from said reference reflection part.
A power generation system comprising a plurality of functional units, the number of the plurality of functional units being equal to n, and n being an integer greater than 1, wherein each of the plurality of functional units comprises: a compressor, a regenerator, a combustion unit and a turbine; the compressor being in operative communication with the regenerator to provide to the regenerator compressed gas from the compressor; the regenerator being in operative communication with the combustion unit to provide to the combustion unit heated gas from the regenerator; the combustion unit being in operative communication with the turbine to provide to the turbine exhaust gas from the combustion unit; wherein, for each of the functional units other than the nth functional unit, the turbine is in operative communication with the combustion unit of a successive functional unit to provide to the combustion unit of the successive functional unit expanded gas from the turbine; and wherein, for the nth functional unit, the turbine is in operative communication with the regenerator of each preceding functional unit to provide to the regenerator of each preceding functional unit expanded gas from the turbine. a compressor, a regenerator, a combustion unit and a turbine; the compressor being in operative communication with the regenerator to provide to the regenerator compressed gas from the compressor; the regenerator being in operative communication with the combustion unit to provide to the combustion unit heated gas from the regenerator; the combustion unit being in operative communication with the turbine to provide to the turbine exhaust gas from the combustion unit; wherein, for each of the functional units other than the nth functional unit, the turbine is in operative communication with the combustion unit of a successive functional unit to provide to the combustion unit of the successive functional unit expanded gas from the turbine; and wherein, for the nth functional unit, the turbine is in operative communication with the regenerator of each preceding functional unit to provide to the regenerator of each preceding functional unit expanded gas from the turbine.
A composite particle comprising: a discrete, hollow, ceramic spheroid, and a layer of amorphous fluoropolymer disposed on the discrete, hollow, ceramic spheroid, wherein the hollow, ceramic spheroid is glass, crystalline ceramic, glass-ceramic, or a combination thereof; and wherein the amorphous fluoropolymer is an amorphous homopolymer or copolymer of a perfluoroalkyl vinyl ether; a perfluoroalkoxy vinyl ether; at least one fluoroolefin independently represented by formula C 2 =CF-Rf, wherein Rf is fluorine or a perfluoroalkyl having from 1 to 8 carbon atoms and R is hydrogen, fluorine, or chlorine; or a combination thereof. a discrete, hollow, ceramic spheroid, and a layer of amorphous fluoropolymer disposed on the discrete, hollow, ceramic spheroid,
Polypropylene composition having - a melting temperature Tm of 135 °C to 140°C (DSC according to ISO 11357 / part 3), - an MFR 2 of 0.05 to 0.50 g/10min (2.16kg, 230°C, ISO1133), - a XS according to ISO16152 of 0.3 to 1.0 wt.-%, and - a molecular weight distribution Mw/Mn of at least 2.8 and less than 6.0, wherein Mn is the number average molecular weight and Mw is the weight average molecular weight both being determined by Gel Permeation Chromatography according to ISO 16014-4:2003, and ASTM D 6474-99, whereby the polypropylene composition comprises units derived from 1-hexene in an amount of 1.80 wt.-% to 5.0 wt.-%. - a melting temperature Tm of 135 °C to 140°C (DSC according to ISO 11357 / part 3), - an MFR 2 of 0.05 to 0.50 g/10min (2.16kg, 230°C, ISO1133), - a XS according to ISO16152 of 0.3 to 1.0 wt.-%, and - a molecular weight distribution Mw/Mn of at least 2.8 and less than 6.0, wherein Mn is the number average molecular weight and Mw is the weight average molecular weight both being determined by Gel Permeation Chromatography according to ISO 16014-4:2003, and ASTM D 6474-99, whereby the polypropylene composition comprises units derived from 1-hexene in an amount of 1.80 wt.-% to 5.0 wt.-%.
Method for operating a gas burner, wherein during burner-on phases a gas/air mixture having a defined mixing ratio of gas and air is provided to a burner chamber of the gas burner for combusting the gas/air mixture within the burner chamber, wherein the gas/air mixture is provided by mixing an air flow sucked in by a fan with a gas flow, wherein the defined mixing ratio of the gas/air mixture is controlled by comparing an actual value of a signal provided by an electrical or electronic sensor coupled to a gas duct with a nominal value for the signal provided by the electrical or electronic sensor and by generating a control variable for a gas valve assigned to the gas duct on basis of the control deviation between the actual value and the nominal value, wherein the actual value provided by the electrical or electronic sensor corresponds to a pressure ratio between the gas pressure in the gas duct and the air pressure at a reference point, characterized in that when during burner-on phases the fan is operated with constant fan speed and when further while the fan is operated with constant fan speed a defined change of the control variable for a gas valve is detected which is required to keep the actual value of the signal provided by the electrical or electronic sensor at the nominal value for the same, it is detected that a siphon assigned to burner chamber of the gas burner is blown empty.
A laminate comprising: a layer A including a composition containing a resin having a peak at which a tan δ as measured by conducting a complex shear viscosity test under a condition at a frequency of 1 Hz in accordance with JIS K 7244-10 is maximum, in the range of from -40 to 30°C, wherein in the case where plural peaks are present, the peak means a highest peak; and a plurality of layers B, wherein the layer A is laminated between at least two of the layers B, a film thickness of the layer A is 20 μm or more, the resin is a thermoplastic elastomer, wherein the thermoplastic elastomer is a block copolymer having a hard segment and a soft segment, or a hydrogenated product of the copolymer, the layers B are layers containing at least one thermoplastic resin selected from the group consisting of a polyvinyl acetal resin and an ionomer resin, at least one of the layers B is a layer containing an ionomer resin, a content of a plasticizer in the layers B is 30 parts by mass or less based on 100 parts by mass of the thermoplastic resin, and a ratio of the sum total of the thickness of the layer A to a sum total of the thickness of the layers B is 1/1 or less. the layer A is laminated between at least two of the layers B, a film thickness of the layer A is 20 μm or more, the resin is a thermoplastic elastomer, wherein the thermoplastic elastomer is a block copolymer having a hard segment and a soft segment, or a hydrogenated product of the copolymer, the layers B are layers containing at least one thermoplastic resin selected from the group consisting of a polyvinyl acetal resin and an ionomer resin, at least one of the layers B is a layer containing an ionomer resin, a content of a plasticizer in the layers B is 30 parts by mass or less based on 100 parts by mass of the thermoplastic resin, and a ratio of the sum total of the thickness of the layer A to a sum total of the thickness of the layers B is 1/1 or less.
An image processing device comprising: a digital signal processing unit comprising a candidate detection unit configured to detect a plurality of candidate images of subjects which can become a main subject in a plurality of image frames, the image frames being sequential in time and each candidate image comprising a portion of an image frame; a control unit comprising a subject distance change determination unit (3, 30b) and a main subject determination unit, the subject distance change determination unit being configured, for each of the plurality of candidate images, to calculate a distance from an imaging position to a subject present in the candidate image in each of the plurality of image frames, to calculate a distance change of the candidate image over time, and to determine whether a subject of the candidate image has a tendency toward approach or recession with respect to the imaging position on the basis of the calculated distance change; and the main subject determination unit being configured to identify, as the main subject, a subject of a one of the plurality of candidate images having a determined tendency toward approach or recession, the main subject for controlling the operation of the image processing device. a digital signal processing unit comprising a candidate detection unit configured to detect a plurality of candidate images of subjects which can become a main subject in a plurality of image frames, the image frames being sequential in time and each candidate image comprising a portion of an image frame; a control unit comprising a subject distance change determination unit (3, 30b) and a main subject determination unit, the subject distance change determination unit being configured, for each of the plurality of candidate images, to calculate a distance from an imaging position to a subject present in the candidate image in each of the plurality of image frames, to calculate a distance change of the candidate image over time, and to determine whether a subject of the candidate image has a tendency toward approach or recession with respect to the imaging position on the basis of the calculated distance change; and the main subject determination unit being configured to identify, as the main subject, a subject of a one of the plurality of candidate images having a determined tendency toward approach or recession, the main subject for controlling the operation of the image processing device.
A method of forming a footwear component comprising a microlattice structure, the method comprising: passing ultraviolet light into resin within a chamber along light paths to create a footwear component with portions of at least two different densities (14,16); disassembling the footwear component in a partially cured state from the chamber; and post curing the footwear component into a final shape outside of the chamber; combining the microlattice structure with a second material; wherein combining the microlattice structure with a second material comprises forming a transition between the microlattice structure and the second material; and overlapping the transition between the microlattice structure and the second material with a top layer and a bottom layer, wherein the resin is poured into the chamber and the ultraviolet light is then passed into the resin, wherein the ultraviolet light is passed through a mask, and wherein the light paths are defined by the mask. passing ultraviolet light into resin within a chamber along light paths to create a footwear component with portions of at least two different densities (14,16); disassembling the footwear component in a partially cured state from the chamber; and post curing the footwear component into a final shape outside of the chamber; combining the microlattice structure with a second material; wherein combining the microlattice structure with a second material comprises forming a transition between the microlattice structure and the second material; and overlapping the transition between the microlattice structure and the second material with a top layer and a bottom layer, wherein the resin is poured into the chamber and the ultraviolet light is then passed into the resin, wherein the ultraviolet light is passed through a mask, and wherein the light paths are defined by the mask.
A controller of a surgical robot, the controller controlling the surgical robot having an operation part (51a, 51b), an action part (20, 70) actuated according to an operation of the operation part (5 1a, 51b) by a user, and a drive part (26a, 26b) supplying a driving force to the action part (20, 70), the controller comprising: a reaction force setter setting a magnitude of an operation reaction force that is a force in a direction opposite to an operation direction of the operation part (51a, 51b) operated by the user; and a reaction force controller controlling a reaction force applicator (54a, 54b) applying the operation reaction force to the operation part (51a, 51b) to apply the operation reaction force having the magnitude set by the reaction force setter to the operation part (51a, 51b), wherein when the action part (20, 70) performs the action according to the operation, the reaction force setter sets the operation reaction force based on change information about a change in the driving force supplied to the action part (20, 70) by the drive part (26a, 26b) and a conversion coefficient set in advance, characterized in that the surgical robot further includes an external force detector detecting an external force applied to a specified portion of the surgical robot, and that the reaction force setter sets a magnitude of the operation reaction force based on the change information, the conversion coefficient, and a detection signal from the external force detector. a reaction force setter setting a magnitude of an operation reaction force that is a force in a direction opposite to an operation direction of the operation part (51a, 51b) operated by the user; and a reaction force controller controlling a reaction force applicator (54a, 54b) applying the operation reaction force to the operation part (51a, 51b) to apply the operation reaction force having the magnitude set by the reaction force setter to the operation part (51a, 51b), wherein when the action part (20, 70) performs the action according to the operation, the reaction force setter sets the operation reaction force based on change information about a change in the driving force supplied to the action part (20, 70) by the drive part (26a, 26b) and a conversion coefficient set in advance, characterized in that the surgical robot further includes an external force detector detecting an external force applied to a specified portion of the surgical robot, and that the reaction force setter sets a magnitude of the operation reaction force based on the change information, the conversion coefficient, and a detection signal from the external force detector.
A stent comprising: a plurality of annular rows, wherein each row of the plurality of annular rows forms a zigzag pattern of alternating peaks and valleys; and a plurality of connectors, wherein each connector of the plurality of connectors couples an annular row of the plurality of annular rows to an adjacent row of the plurality of annular rows; wherein the stent is configured to transition from a compressed configuration to an expanded configuration; and wherein the stent, when compressed, is configured to be delivered through a channel that has a diameter of 3.2 mm or less; characterized in that, the stent further comprises one or more eyelets disposed on a proximal end of the stent; and a loop-shaped suture disposed through only one of the one or more eyelets and not extending around a circumference of the stent, wherein the loop-shaped suture is configured to facilitate removal of the stent from a patient. a plurality of annular rows, wherein each row of the plurality of annular rows forms a zigzag pattern of alternating peaks and valleys; and a plurality of connectors, wherein each connector of the plurality of connectors couples an annular row of the plurality of annular rows to an adjacent row of the plurality of annular rows; wherein the stent is configured to transition from a compressed configuration to an expanded configuration; and wherein the stent, when compressed, is configured to be delivered through a channel that has a diameter of 3.2 mm or less; characterized in that, the stent further comprises one or more eyelets disposed on a proximal end of the stent; and a loop-shaped suture disposed through only one of the one or more eyelets and not extending around a circumference of the stent, wherein the loop-shaped suture is configured to facilitate removal of the stent from a patient.
A data handling device, comprising: a data requestor endpoint configured for originating first packet requests for communication on a first packetized memory link to a hybrid memory cube device in a first memory domain associated with the data handling device, wherein the first packetized memory link is a first hybrid memory cube link; a data handling endpoint configured for: interpreting second packet requests received by the data handling endpoint on a second packetized memory link from at least one additional data handling device, wherein the second packetized memory link is a second hybrid memory cube link; and conveying data bidirectionally directly across the second packetized memory link to and from the at least one additional data handling device in response to the second packet requests; and one or more data handling elements operably coupled to one or more of the data requester endpoint and the data handling endpoint, each of the one or more data handling elements comprising one or more processors; wherein the first packetized memory link and the second packetized memory link are separate but include a same type of link protocol and a same type of physical interface. a data requestor endpoint configured for originating first packet requests for communication on a first packetized memory link to a hybrid memory cube device in a first memory domain associated with the data handling device, wherein the first packetized memory link is a first hybrid memory cube link; a data handling endpoint configured for: interpreting second packet requests received by the data handling endpoint on a second packetized memory link from at least one additional data handling device, wherein the second packetized memory link is a second hybrid memory cube link; and conveying data bidirectionally directly across the second packetized memory link to and from the at least one additional data handling device in response to the second packet requests; and interpreting second packet requests received by the data handling endpoint on a second packetized memory link from at least one additional data handling device, wherein the second packetized memory link is a second hybrid memory cube link; and conveying data bidirectionally directly across the second packetized memory link to and from the at least one additional data handling device in response to the second packet requests; and one or more data handling elements operably coupled to one or more of the data requester endpoint and the data handling endpoint, each of the one or more data handling elements comprising one or more processors; wherein the first packetized memory link and the second packetized memory link are separate but include a same type of link protocol and a same type of physical interface.
Luminaire having - a device with an apparatus support for lighting means and for components (10, 11) for operating the lighting means, - a cover, forming a hollow body with front wall, rear wall as well as side walls, wherein the device built in by the rear wall extends at least partially into the interior of the hollow body, wherein the apparatus support forms a part of the rear wall of the cover and has receiving means for receiving lighting technology elements, characterized in that the cover is closed with link elements on the face side and that closing elements are attached in the end areas of the apparatus supports, with the closing elements interacting with a link element, respectively, in order to keep the cover on the apparatus support. - a device with an apparatus support for lighting means and for components (10, 11) for operating the lighting means, - a cover, forming a hollow body with front wall, rear wall as well as side walls, wherein the device built in by the rear wall extends at least partially into the interior of the hollow body, wherein the apparatus support forms a part of the rear wall of the cover and has receiving means for receiving lighting technology elements,