mhurhangee/ep-ind-claims huggingface dataset:
A method for recycling discarded eyewear comprising one or more metal(s) and cellulose acetate, said method comprising: a) reducing the temperature of the discarded eyewear to a temperature below the glass transition temperature of the cellulose acetate, b) crushing the discarded eyewear at a temperature below the glass transition temperature of the cellulose acetate to release the cellulose acetate from the metal(s) and obtain a mixture of crushed cellulose acetate and metal(s), and c) subjecting the mixture to a density-based separation to separate the crushed cellulose acetate from the metal(s). a) reducing the temperature of the discarded eyewear to a temperature below the glass transition temperature of the cellulose acetate, b) crushing the discarded eyewear at a temperature below the glass transition temperature of the cellulose acetate to release the cellulose acetate from the metal(s) and obtain a mixture of crushed cellulose acetate and metal(s), and c) subjecting the mixture to a density-based separation to separate the crushed cellulose acetate from the metal(s).
Method for gas-assisted laser cutting, comprising: supplying a laser beam and a cutting gas through a laser nozzle comprising: an inlet, an outlet, and a channel extending between the inlet and outlet for the laser beam and cutting gas, which channel has a central axis, wherein the channel has a first portion with an inwardly facing surface, characterised in that before the start of said laser cutting, the outlet has no opening or has an opening diameter which is smaller than the diameter of the laser beam, and wherein the laser beam is allowed to cut away an edge portion of the outlet so that the outlet has a diameter corresponding to said diameter of the laser beam. an inlet, an outlet, and a channel extending between the inlet and outlet for the laser beam and cutting gas, which channel has a central axis, wherein the channel has a first portion with an inwardly facing surface, characterised in that before the start of said laser cutting, the outlet has no opening or has an opening diameter which is smaller than the diameter of the laser beam, and wherein the laser beam is allowed to cut away an edge portion of the outlet so that the outlet has a diameter corresponding to said diameter of the laser beam.
A wire-winding machine, comprising: - a station for winding the wire into a reel comprising a spindle rotatable around an axis of rotation to draw the wire and a spool removably anchored on said spindle and enclosed between a starting stroke flange and an end stroke flange for winding said wire into a reel; - a counteracting tool adapted to operate against the last wound coil to keep the coils mutually juxtaposed; wherein said counteracting tool is controlled by electrical moving means adapted to move it linearly and axially in the winding direction of the coils with a predetermined pitch for each revolution of said spindle; characterized by comprising computation means adapted to calculate the real diameter of the wire being wound and its natural pitch as function of the ratio between the movement of said tool along the axis of said spindle and the number of revolutions of said spindle for the subsequent calculation of said pitch. - a station for winding the wire into a reel comprising a spindle rotatable around an axis of rotation to draw the wire and a spool removably anchored on said spindle and enclosed between a starting stroke flange and an end stroke flange for winding said wire into a reel; - a counteracting tool adapted to operate against the last wound coil to keep the coils mutually juxtaposed;
A process coupling for coupling a process variable transmitter to a process fluid of an industrial process comprising: an elongate housing having a flange configured to couple the process fluid and an opposed transmitter coupling configured to couple to the process variable transmitter; a capillary in the elongate housing which conveys a process pressure at the flange to the transmitter coupling; characterized by a tube extending between a process end and a pressure sensor end carried by the elongate housing which extends in a direction between the flange and the process variable transmitter coupling; and a phase change material carried in the tube configured to reduce heat transfer from the industrial process to the process variable transmitter; wherein the phase change material circulates between the flange and the process variable transmitter coupling. an elongate housing having a flange configured to couple the process fluid and an opposed transmitter coupling configured to couple to the process variable transmitter; a capillary in the elongate housing which conveys a process pressure at the flange to the transmitter coupling; characterized by a tube extending between a process end and a pressure sensor end carried by the elongate housing which extends in a direction between the flange and the process variable transmitter coupling; and a phase change material carried in the tube configured to reduce heat transfer from the industrial process to the process variable transmitter; wherein the phase change material circulates between the flange and the process variable transmitter coupling.
A processor-implemented method for product testing a first product and a second product; wherein the first product comprises one of a web page, a web site, a computer application, a mobile device application or a processor application, and the second product comprises a new version of the first product; the second product having at least one feature that is different from the first product, the method comprising: accessing an electronic file, the electronic file containing data generated based on a testing of the first product, the data indicating an action performed to interact with an interface feature of the first product in response to a product testing instruction; characterized by: performing testing of the second product, by a testing device having a processing unit, based on the data in the electronic file, wherein the testing device is configured to re-execute the action based on the data in the electronic file to interact with an interface feature of the second product. wherein the first product comprises one of a web page, a web site, a computer application, a mobile device application or a processor application, and the second product comprises a new version of the first product; the second product having at least one feature that is different from the first product, the method comprising: accessing an electronic file, the electronic file containing data generated based on a testing of the first product, the data indicating an action performed to interact with an interface feature of the first product in response to a product testing instruction; characterized by: performing testing of the second product, by a testing device having a processing unit, based on the data in the electronic file, wherein the testing device is configured to re-execute the action based on the data in the electronic file to interact with an interface feature of the second product. accessing an electronic file, the electronic file containing data generated based on a testing of the first product, the data indicating an action performed to interact with an interface feature of the first product in response to a product testing instruction; characterized by: performing testing of the second product, by a testing device having a processing unit, based on the data in the electronic file, wherein the testing device is configured to re-execute the action based on the data in the electronic file to interact with an interface feature of the second product.
Electromagnetically operated valve for controlling fluids, comprising - an internal pole, and - a magnet armature, - wherein the internal pole has a first end face which is directed towards the magnet armature, and the magnet armature has a second end face which is directed towards the internal pole, - wherein a first contact line and a second contact line are present between the first and second end face (20, 30) when the internal pole and the magnet armature make contact, and - wherein a damping volume is present between the first and the second contact line (8, 9) when the internal pole and the magnet armature make contact, characterized in that one of the end faces (20, 30) comprises a multiple cone, and the other of the end faces (20, 30) comprises a spherical surface. - an internal pole, and - a magnet armature, - wherein the internal pole has a first end face which is directed towards the magnet armature, and the magnet armature has a second end face which is directed towards the internal pole, - wherein a first contact line and a second contact line are present between the first and second end face (20, 30) when the internal pole and the magnet armature make contact, and - wherein a damping volume is present between the first and the second contact line (8, 9) when the internal pole and the magnet armature make contact,
An automatic analyzer comprising: a storage mechanism configured to store a plurality of approximate expressions representing changes in absorbance with time, each of the approximate expressions being associated with a corresponding test item or specimen; a parameter optimizing mechanism configured to optimize at least one parameter of one of the approximate expressions whenever an actual absorbance value of a sample is measured at predetermined intervals; a substance-to-be-measured concentration calculating mechanism configured to calculate concentration of a substance to be measured based on the parameter optimized by the parameter optimizing mechanism; a determining mechanism configured to determine whether a difference between the concentration of the substance to be measured calculated by the substance-to-be-measured concentration calculating mechanism and previously stored concentration of the substance to be measured falls within a predetermined range by digitizing the variation with time in the parameter optimized by the parameter optimizing mechanism and comparing the obtained value with a predetermined threshold value; if the variation in the parameter is equal to, or less than, the predetermined threshold value, it is then determined that a sufficient amount of absorbance data required for calculating the concentration of the substance to be measured has been stored; and an output mechanism configured to output the concentration of the substance to be measured when the determining mechanism determines that the predetermined range is reached. a storage mechanism configured to store a plurality of approximate expressions representing changes in absorbance with time, each of the approximate expressions being associated with a corresponding test item or specimen; a parameter optimizing mechanism configured to optimize at least one parameter of one of the approximate expressions whenever an actual absorbance value of a sample is measured at predetermined intervals; a substance-to-be-measured concentration calculating mechanism configured to calculate concentration of a substance to be measured based on the parameter optimized by the parameter optimizing mechanism; a determining mechanism configured to determine whether a difference between the concentration of the substance to be measured calculated by the substance-to-be-measured concentration calculating mechanism and previously stored concentration of the substance to be measured falls within a predetermined range by digitizing the variation with time in the parameter optimized by the parameter optimizing mechanism and comparing the obtained value with a predetermined threshold value; if the variation in the parameter is equal to, or less than, the predetermined threshold value, it is then determined that a sufficient amount of absorbance data required for calculating the concentration of the substance to be measured has been stored; and an output mechanism configured to output the concentration of the substance to be measured when the determining mechanism determines that the predetermined range is reached.
A washing machine comprising: a cabinet; a tub provided inside the cabinet; a drain pump provided to discharge washing water accommodated in the tub to the outside of the cabinet; a drain hose configured to guide the washing water pumped by the drain pump to the outside of the cabinet; and a holder (100, 101, 102, 103, 104, 105, 106) coupled to an outer surface of the cabinet to fix the drain hose to the cabinet, wherein the holder (100, 101, 102, 103, 104, 105, 106) includes an accommodating portion (110, 111, 112) provided to accommodate the drain hose; the holder further comprises a damping portion located between the accommodating portion (110, 111, 112) and the cabinet, configured to cause the drain hose to be spaced apart from the cabinet, wherein the damping portion includes a first damping portion comprising an open damping hole coming in contact with the cabinet and a second damping portion characterized in that the second damping portion comprises an open damping hole provided between the first damping portion and the accommodating portion (110, 111, 112), so that vibration transmitted from the drain hose to the cabinet are absorbed, so that, when the washing water is drained, vibration of the drain hose due to the drain pump is prevented from being transmitted to the cabinet, wherein the holder (100, 101, 102, 103, 104, 105, 106) is injection-molded from material that is elastically deformable. a cabinet; a tub provided inside the cabinet; a drain pump provided to discharge washing water accommodated in the tub to the outside of the cabinet; a drain hose configured to guide the washing water pumped by the drain pump to the outside of the cabinet; and a holder (100, 101, 102, 103, 104, 105, 106) coupled to an outer surface of the cabinet to fix the drain hose to the cabinet, wherein the holder (100, 101, 102, 103, 104, 105, 106) includes an accommodating portion (110, 111, 112) provided to accommodate the drain hose; the holder further comprises a damping portion located between the accommodating portion (110, 111, 112) and the cabinet, configured to cause the drain hose to be spaced apart from the cabinet, wherein the damping portion includes a first damping portion comprising an open damping hole coming in contact with the cabinet and a second damping portion characterized in that the second damping portion comprises an open damping hole provided between the first damping portion and the accommodating portion (110, 111, 112), so that vibration transmitted from the drain hose to the cabinet are absorbed, so that, when the washing water is drained, vibration of the drain hose due to the drain pump is prevented from being transmitted to the cabinet, wherein the holder (100, 101, 102, 103, 104, 105, 106) is injection-molded from material that is elastically deformable.
A projection display apparatus, comprising: a light source optical system including: a light source section configured to emit light; a light conversion section that converts the light emitted from the light source section to light having a second wavelength band different from a first wavelength band of the light emitted from the light source section, and a cooling section that cools the light conversion section; and an external casing that houses the light source optical system, the external casing having an air inlet and an air outlet, the air inlet formed on a first surface of the external casing and the air outlet formed on a second surface of the external casing, the first surface disposed opposite the second surface to form an airflow path having a linear shape from the air inlet to the air outlet, the light source section and the light conversion section being disposed on the airflow path, the light conversion section being disposed nearer to the air inlet than the light source section, and the cooling section being disposed at a position shifted from the airflow path. a light source section configured to emit light; a light conversion section that converts the light emitted from the light source section to light having a second wavelength band different from a first wavelength band of the light emitted from the light source section, and a cooling section that cools the light conversion section; and an external casing that houses the light source optical system, the external casing having an air inlet and an air outlet, the air inlet formed on a first surface of the external casing and the air outlet formed on a second surface of the external casing, the first surface disposed opposite the second surface to form an airflow path having a linear shape from the air inlet to the air outlet, the light source section and the light conversion section being disposed on the airflow path, the light conversion section being disposed nearer to the air inlet than the light source section, and the cooling section being disposed at a position shifted from the airflow path.
A container-holding tray (1, 101) for holding a plurality of bottomed cylindrical medical containers side by side, comprising: a bottom surface part (2,102); and container holding convex parts (4,104) formed on the bottom surface part (2,102) and configured to hold the medical containers, wherein each of the container holding convex parts (4, 104) has a tapered shape that is thick on the lower end side and is thin on the upper end side, the plurality of the container holding convex parts (4, 104) are configured to be a lattice arrangement or a zigzag arrangement on the bottom surface part (2,102), and simultaneously three or four of the container holding convex parts (4,104) neighboring to each other are integrated so as to surround an inner space thereof, thereby a container housing part corresponding to one of the medical containers is formed, and the medical containers are configured to be brought into contact with any point from the upper end to the lower end of the three or four of the container holding convex parts (4, 104) constituting the container housing part so as to be held, and the medical containers comprise a barrel part having a large diameter, located on the bottom side, a neck part having a small diameter located on the opening part side, and a shoulder part connecting the barrel part and the neck part, and having a diameter narrowed from the barrel part toward the neck part, characterized in that the container-holding tray is configured such that the plurality of bottomed cylindrical medical containers are held side by side in a state that an opening thereof is faced downward, and the container housing part is configured such that the upper end side thereof is formed larger than the barrel part of the medical container and simultaneously the lower end side thereof is formed smaller than the barrel part of the medical container, and the barrel part of the medical container is configured to be brought into contact with any point from the upper end to the lower end of the three or four of the container holding convex parts (4, 104) so as to be held, and the length from the point to the lower end of the container housing part is formed so as to be longer than the total length of the shoulder part and the neck part of the medical container, and the opening end of the medical container is configured to be kept in a state of non-contact with the bottom surface part (2,102). a bottom surface part (2,102); and container holding convex parts (4,104) formed on the bottom surface part (2,102) and configured to hold the medical containers,
A computer-implemented method comprising: receiving a set of measurements from a sensor of a vehicle, the set of measurements comprising a plurality of data points that represent a plurality of objects in a three-dimensional, 3D, space surrounding the vehicle, wherein each data point of the plurality of data points is a set of 3D spatial coordinates; dividing the 3D space into a plurality of pillars, wherein each pillar of the plurality of pillars comprises a slice of the 3D space and extends from a respective portion of a two-dimensional, 2D, plane of the 3D space; assigning each data point of the plurality of data points to a pillar in the plurality of pillars; generating a pseudo-image based on the plurality of pillars, wherein the pseudo-image is a 2D image that has more channels than a standard RGB image with 3 channels and includes, for each pillar of the plurality of pillars, a corresponding feature representation of data points assigned to the pillar, wherein each location on the pseudo-image corresponds to a respective pillar of the plurality of pillars and represents features of the data points in the respective pillar; detecting the plurality of objects in the 3D space surrounding the sensor based on an analysis of the pseudo image, wherein detecting comprises processing the pseudo-image using 2D convolutions and detecting the plurality of objects using an object detection neural network; and operating the vehicle based upon the detecting of the plurality of objects in the 3D space surrounding the vehicle. receiving a set of measurements from a sensor of a vehicle, the set of measurements comprising a plurality of data points that represent a plurality of objects in a three-dimensional, 3D, space surrounding the vehicle, wherein each data point of the plurality of data points is a set of 3D spatial coordinates; dividing the 3D space into a plurality of pillars, wherein each pillar of the plurality of pillars comprises a slice of the 3D space and extends from a respective portion of a two-dimensional, 2D, plane of the 3D space; assigning each data point of the plurality of data points to a pillar in the plurality of pillars; generating a pseudo-image based on the plurality of pillars, wherein the pseudo-image is a 2D image that has more channels than a standard RGB image with 3 channels and includes, for each pillar of the plurality of pillars, a corresponding feature representation of data points assigned to the pillar, wherein each location on the pseudo-image corresponds to a respective pillar of the plurality of pillars and represents features of the data points in the respective pillar; detecting the plurality of objects in the 3D space surrounding the sensor based on an analysis of the pseudo image, wherein detecting comprises processing the pseudo-image using 2D convolutions and detecting the plurality of objects using an object detection neural network; and operating the vehicle based upon the detecting of the plurality of objects in the 3D space surrounding the vehicle.
The use of a device to be applied around the fastening of a wrist object, such as a watch or a bracelet, to which it is intended so that the said device, by closing on itself around the fastening of the said wrist object, contextually has a function of safety fastening against the inadvertent loss of the said wrist object and detecting of at least one measurement related to the physical activity performed by the user, the said device being in the form of a strap configured to be roll-up on itself, said strap comprising quick attachment means for fixing themselves in a releasable manner to the winding position on itself around the fastening of the said wrist object and further comprising: - Means configured to detect at least one measurement related to the user; - The device being communicable with an external electronic device, preferably a mobile telephone device, through which the said at least one detected measurement can be displayed. - Means configured to detect at least one measurement related to the user; - The device being communicable with an external electronic device, preferably a mobile telephone device, through which the said at least one detected measurement can be displayed.