mhurhangee/ep-ind-claims huggingface dataset:
A pressing machine for plastically deforming a workpiece, comprising: a. a housing and an electric motor for actuating the pressing machine; b. a tool receptacle arranged on the housing for receiving a replaceable tool head; c. a mechanical securing element which is arranged to be movable from an open position in which a tool head can be inserted into the tool receptacle to a closed position in which the tool head is secured in the tool receptacle; d. a mechanical actuating element which is arranged on the tool receptacle movably between a first position and a second position, wherein the actuating element is arranged to interact with the mechanical securing element so that the securing element in its closed position forces the actuating element into the second position; wherein e. the housing of the pressing machine is provided with at least one sensor which, when triggered, causes the pressing machine to be released for a pressing operation, and wherein the actuating element in its second position triggers the sensor; characterized in that f. the tool receptacle is rotatably arranged on the housing of the pressing machine and is coupled to the housing via a pivot joint, wherein the actuating element comprises a ring element which encloses the tool receptacle, and wherein the ring element is arranged to cause the sensor to be triggered when the actuating element is in its second position. a. a housing and an electric motor for actuating the pressing machine; b. a tool receptacle arranged on the housing for receiving a replaceable tool head; c. a mechanical securing element which is arranged to be movable from an open position in which a tool head can be inserted into the tool receptacle to a closed position in which the tool head is secured in the tool receptacle; d. a mechanical actuating element which is arranged on the tool receptacle movably between a first position and a second position, wherein the actuating element is arranged to interact with the mechanical securing element so that the securing element in its closed position forces the actuating element into the second position; wherein e. the housing of the pressing machine is provided with at least one sensor which, when triggered, causes the pressing machine to be released for a pressing operation, and wherein the actuating element in its second position triggers the sensor; characterized in that f. the tool receptacle is rotatably arranged on the housing of the pressing machine and is coupled to the housing via a pivot joint, wherein the actuating element comprises a ring element which encloses the tool receptacle, and wherein the ring element is arranged to cause the sensor to be triggered when the actuating element is in its second position.
A device (210, 300, 400, 500, 600, 710) for mounting a tracker array, the device comprising: an intramedullary canal component (214, 304, 404, 504, 604, 714) configured to be inserted into an IM canal within a bone, the IM canal component comprising an inserted end and an exposed end; a tracker pin (218, 308, 402, 502, 602, 718) configured to penetrate at least a portion of the bone and engage the inserted end of the IM canal component; characterised in that the device comprises a tracker array (216, 306, 716) removably affixed to the tracker pin; wherein the IM canal component is configured to engage at least a portion of the IM canal of the bone to stabilize the tracker array during a surgical procedure. an intramedullary canal component (214, 304, 404, 504, 604, 714) configured to be inserted into an IM canal within a bone, the IM canal component comprising an inserted end and an exposed end; a tracker pin (218, 308, 402, 502, 602, 718) configured to penetrate at least a portion of the bone and engage the inserted end of the IM canal component; characterised in that the device comprises a tracker array (216, 306, 716) removably affixed to the tracker pin; wherein the IM canal component is configured to engage at least a portion of the IM canal of the bone to stabilize the tracker array during a surgical procedure.
A method for manufacturing a hard carbon-based coating, the method comprising: a step A of preparing a film-forming apparatus including a power supply device and a discharge electrode containing a carbon material, and a substrate having a surface on which a coating is to be formed; and a step B of causing the film-forming apparatus to repeatedly generate a discharge between the discharge electrode and the substrate, to form the hard carbon-based coating on the surface, wherein the discharge electrode is vibrated to generate a periodic discharge. a step A of preparing a film-forming apparatus including a power supply device and a discharge electrode containing a carbon material, and a substrate having a surface on which a coating is to be formed; and a step B of causing the film-forming apparatus to repeatedly generate a discharge between the discharge electrode and the substrate, to form the hard carbon-based coating on the surface, wherein the discharge electrode is vibrated to generate a periodic discharge.
A computing device for gesture recognition, comprising: a first enclosure; a display enclosure; a tag on the first enclosure; a sensor (127, 427) on the display enclosure to detect a tag location on the first enclosure and generate sensor data, the sensor data including sensor data about the tag location and sensor data from an object moving in a gesture volume (445, 630); and a controller to determine from the sensor data about the tag location the relative position between the display enclosure and the first enclosure, characterized by further comprising a barcode or a QR code embedded in the tag to uniquely identify the first enclosure, and further characterized in that the controller is configured to decode the barcode or QR code identifying the first enclosure, wherein the sensor (127, 427) is configured to determine the location of a user's hands and wherein the controller is configured to determine a gesture volume (445, 630) from the relative position between the display enclosure and the first enclosure, wherein the sensor (127, 427) is configured to restrict the field of view for gesture input to the gesture volume (445, 630). a first enclosure; a display enclosure; a tag on the first enclosure; a sensor (127, 427) on the display enclosure to detect a tag location on the first enclosure and generate sensor data, the sensor data including sensor data about the tag location and sensor data from an object moving in a gesture volume (445, 630); and a controller to determine from the sensor data about the tag location the relative position between the display enclosure and the first enclosure, characterized by further comprising a barcode or a QR code embedded in the tag to uniquely identify the first enclosure, and further characterized in that the controller is configured to decode the barcode or QR code identifying the first enclosure, wherein the sensor (127, 427) is configured to determine the location of a user's hands and wherein the controller is configured to determine a gesture volume (445, 630) from the relative position between the display enclosure and the first enclosure, wherein the sensor (127, 427) is configured to restrict the field of view for gesture input to the gesture volume (445, 630).
A method for detecting and/or discriminating between variants of an antibody in a sample by a physical parameter, comprising: separating protein components of a sample comprising an antibody of interest by molecular weight or charge in one or more capillaries using capillary electrophoresis; immobilizing the protein components of the sample within the one or more capillaries; contacting the protein components within the one or more capillaries with two or more primary antibodies that specifically bind to the antibody of interest; and detecting the binding of the two or more primary antibodies, characterized by the detection of and/or discrimination between size variants or charge variants of the antibody of interest in the sample. separating protein components of a sample comprising an antibody of interest by molecular weight or charge in one or more capillaries using capillary electrophoresis; immobilizing the protein components of the sample within the one or more capillaries; contacting the protein components within the one or more capillaries with two or more primary antibodies that specifically bind to the antibody of interest; and detecting the binding of the two or more primary antibodies, characterized by the detection of and/or discrimination between size variants or charge variants of the antibody of interest in the sample.
A method for marking an ophthalmic substrate or other ophthalmic article comprising the steps of - providing an ophthalmic substrate of suitable organic or mineral glass having opposed optical surfaces; - depositing a plurality of layers to define coatings on one or both of the opposed optical surface with anti-impact, anti-scratch, anti-reflection and/or anti-smudge properties, at least one of the layers being an electrically conductive layer; - providing a mask defining a configuration complementary to the desired marking for one of the surface of the coated ophthalmic substrate and positioning the mask in the immediate proximity of the ophthalmic substrate surface; and - providing an ion source and directing the ion beam produced by the ion source at the masked surface of the ophthalmic substrate to remove at least a portion of an outermost of said coating layers exposed through the mask thereby producing a desired marking on the substrate surface coating rendered visible by fogging. - providing an ophthalmic substrate of suitable organic or mineral glass having opposed optical surfaces; - depositing a plurality of layers to define coatings on one or both of the opposed optical surface with anti-impact, anti-scratch, anti-reflection and/or anti-smudge properties, at least one of the layers being an electrically conductive layer; - providing a mask defining a configuration complementary to the desired marking for one of the surface of the coated ophthalmic substrate and positioning the mask in the immediate proximity of the ophthalmic substrate surface; and - providing an ion source and directing the ion beam produced by the ion source at the masked surface of the ophthalmic substrate to remove at least a portion of an outermost of said coating layers exposed through the mask thereby producing a desired marking on the substrate surface coating rendered visible by fogging.
A log handling device, comprising: - a rotatable rotor provided with log handling means, and - a feeding means attached to the rotor for conducting an operating medium to the log handling means, the feeding means being arranged to wind around the rotor when the rotor is rotated in a first direction, and the feeding means being arranged to unwind from around the rotor when the rotor is rotated in a second direction, characterized in that the log handling device comprises: - a rotatable second rotor to which the feeding means is attached, and - an operating device for rotating the second rotor synchronously with the rotor, such that the feeding means is arranged to wind around the second rotor when the rotor is rotated in the second direction, and that the feeding means is arranged to unwind from around the second rotor when the rotor is rotated in the first direction. - a rotatable rotor provided with log handling means, and - a feeding means attached to the rotor for conducting an operating medium to the log handling means, the feeding means being arranged to wind around the rotor when the rotor is rotated in a first direction, and the feeding means being arranged to unwind from around the rotor when the rotor is rotated in a second direction, - a rotatable second rotor to which the feeding means is attached, and - an operating device for rotating the second rotor synchronously with the rotor, such that the feeding means is arranged to wind around the second rotor when the rotor is rotated in the second direction, and that the feeding means is arranged to unwind from around the second rotor when the rotor is rotated in the first direction.
A combustor assembly, comprising a burner and a combustor accommodating the burner, the combustor defining an opening facing upwards, wherein the combustor further comprises a front support and a rear support, and the front support and the rear support cooperatively clamp the front side and the rear side of the burner; the front support comprises a first base plate extending up and down, and a first limit plate connecting to an upper end of the first base plate and extending backwards, and the rear support comprises a second base plate extending up and down and a second limit plate connecting to an upper end of the second base plate and extending forwards, wherein the front support further comprises a support plate for supporting the burner, the lower end of the first base plate connects to the support plate, the bottom surface of the support plate defines a leg located at a bottom wall of the combustor, and the support plate defines a first air inlet hole; and the first limit plate defines a first cooling hole, and/or, the second limit plate defines a second cooling hole; wherein the rear support further comprises a third limit plate abutting the rear side of the burner, the lower end of the second base plate connects to the third limit plate, the third limit plate is defined above the support plate, and the third limit plate defines a third cooling hole located at the adjoiner of the third limit plate and the second base plate.
A hybrid propulsion system comprising: a heat engine configured to drive a heat engine shaft; an electric motor configured to drive a motor shaft; a turbine shaft configured for driving a turbine and compressor, the heat engine shaft connecting to the turbine shaft; and a transmission system including at least one gear box, wherein the transmission system is configured to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power, wherein: the motor shaft includes a disconnect mechanism to allow the heat engine to rotate with the electric motor stopped; the heat engine shaft and motor shaft are concentric, wherein the at least one gear box includes a reduction gear box connected to each of the heat engine shaft and the motor shaft, and the disconnect mechanism of the motor shaft is located between the electric motor and the reduction gear box; and the heat engine shaft runs through the motor shaft and through the disconnect mechanism of the motor shaft. a heat engine configured to drive a heat engine shaft; an electric motor configured to drive a motor shaft; a turbine shaft configured for driving a turbine and compressor, the heat engine shaft connecting to the turbine shaft; and a transmission system including at least one gear box, wherein the transmission system is configured to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power, the motor shaft includes a disconnect mechanism to allow the heat engine to rotate with the electric motor stopped; the heat engine shaft and motor shaft are concentric, wherein the at least one gear box includes a reduction gear box connected to each of the heat engine shaft and the motor shaft, and the disconnect mechanism of the motor shaft is located between the electric motor and the reduction gear box; and the heat engine shaft runs through the motor shaft and through the disconnect mechanism of the motor shaft.
A computer-implemented method of suggesting chemical compounds as substitutes for a chemical compound that is present in a food item, comprising: training an artificial intelligence model based on first digital data representing plurality of source chemical compounds and second digital data representing flavors and odors of the plurality of source chemical compounds, wherein the artificial intelligence model is a neural network based model including a graph neural network and a feed forward network; applying the trained artificial intelligence model to the plurality of source chemical compounds to generate a plurality of source compound embeddings for the plurality of source chemical compounds; performing gas chromatography mass spectrometry (GCMS) analysis on the particular food item; and generating, from the GCMS analysis, a list of chemical compounds, wherein each of the chemical compounds in the list of chemical compounds is a chemical compound present in the particular food item; applying the trained artificial intelligence model to a target chemical compound to generate a target compound embedding for the target chemical compound, the target chemical compound is a chemical compound that is present in a particular food item, wherein the target chemical compound is identified from the list of chemical compounds; and determining, from the plurality of source chemical compounds, one or more alternative chemical compounds for which corresponding source compound embeddings are closest to the target compound embedding for the target chemical compound. training an artificial intelligence model based on first digital data representing plurality of source chemical compounds and second digital data representing flavors and odors of the plurality of source chemical compounds, wherein the artificial intelligence model is a neural network based model including a graph neural network and a feed forward network; applying the trained artificial intelligence model to the plurality of source chemical compounds to generate a plurality of source compound embeddings for the plurality of source chemical compounds; performing gas chromatography mass spectrometry (GCMS) analysis on the particular food item; and generating, from the GCMS analysis, a list of chemical compounds, wherein each of the chemical compounds in the list of chemical compounds is a chemical compound present in the particular food item; applying the trained artificial intelligence model to a target chemical compound to generate a target compound embedding for the target chemical compound, the target chemical compound is a chemical compound that is present in a particular food item, wherein the target chemical compound is identified from the list of chemical compounds; and determining, from the plurality of source chemical compounds, one or more alternative chemical compounds for which corresponding source compound embeddings are closest to the target compound embedding for the target chemical compound.
A power machine (100, 200, 300, 400) comprising: a frame (110, 210, 310); a cab mounted on the frame; a lift arm assembly (230, 330) pivotally coupled to the frame rearward of at least a portion of the cab and extending forward of the frame; a first axle assembly (227A, 327A, 427A, 527A) and a second axle assembly (227B, 327B, 427B, 527B) each having an axle tube (227, 527) with an axle (228A, 528A, 228B, positioned therein and each disposed on a first side of the frame; a first track assembly operably coupled to the first axle and a second track assembly operably coupled to the second axle on the first side of the frame; a third axle assembly (228C, 328C, 428C) and a fourth axle assembly (228D, 328D, 428D) each having an axle tube with an axle positioned therein and each disposed on a second side of the frame; a third track assembly operably coupled to the third axle and a fourth track assembly operably coupled to the fourth axle on the second side of the frame, wherein the power machine is characterized by further comprising: a first drive motor operably coupled to each of the first and second axles and configured to rotate the first and second axles to drive the first and second track assemblies; a second drive motor operably coupled to each of the third and fourth axles and configured to rotate the third and fourth axles to drive the third and fourth track assemblies. a first drive motor operably coupled to each of the first and second axles and configured to rotate the first and second axles to drive the first and second track assemblies; a second drive motor operably coupled to each of the third and fourth axles and configured to rotate the third and fourth axles to drive the third and fourth track assemblies.
A metallic sensor housing (10, 110) for an optoelectronic sensor which is composed of a plurality of parts (12, 14, 16, 22, 112, 114, 122), wherein two side walls (12, 16, 112) and a jacket wall (14, 114) designed as a bent stamped part are present as parts and are designed as rolled steel sheets; wherein at least one side wall (12, 112) is connected with material continuity to the jacket wall (14, 114) designed as a bent stamped part while forming an edge at an angle of 90°; wherein the parts connected to one another with material continuity are connected to one another by a laser welding process which is designed as a heat-conductive welding process and which comprises the material of an edge of one of the parts of the housing melted with the aid of a laser beam being driven with the aid of the laser beam in the direction of a second part of the housing.
A preparation method of an Albizia chinensis (Osbeck) Merr bark extract comprising the steps of: a) extracting the medicinal material of Albizia chinensis (Osbeck) Merr bark by a solvent to obtain an extractum; and b) purifying the extractum of step a) by means of chromatography over a polyamide column eluted with a gradient of solvents to obtain an Albizia chinensis extract, characterized in that in step b) the extractum obtained in step a) is dissolved in 10-30% EtOH in H 2 O, in step a) said solvent is selected from an alcohol solvent or a mixture of water and alcohol. a) extracting the medicinal material of Albizia chinensis (Osbeck) Merr bark by a solvent to obtain an extractum; and b) purifying the extractum of step a) by means of chromatography over a polyamide column eluted with a gradient of solvents to obtain an Albizia chinensis extract, characterized in that in step b) the extractum obtained in step a) is dissolved in 10-30% EtOH in H 2 O,
A surface treatment device for treating a surface of a workpiece, including: - a working region in which the surface of the workpiece is treatable; - a flow guiding device by means of which a gas stream is guidable through the working region; - a solvent separating device for separating solvent off from the gas stream that is guided through the working region, wherein the solvent separating device is selectively settable to a separating-off condition or a rest condition, wherein the solvent separating device separates solvent off from the gas stream in the separating-off condition, characterised in that a supply air stream is suppliable to the flow guiding device by means of an air supply device of the surface treatment device, wherein, by means of the solvent separating device, solvent is dischargeable into the supply air stream and/or to a circulating air stream that is guided through the working region. - a working region in which the surface of the workpiece is treatable; - a flow guiding device by means of which a gas stream is guidable through the working region; - a solvent separating device for separating solvent off from the gas stream that is guided through the working region, wherein the solvent separating device is selectively settable to a separating-off condition or a rest condition, wherein the solvent separating device separates solvent off from the gas stream in the separating-off condition,