mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for providing a video call in a user terminal, the apparatus comprising: a plurality of camera units a wireless transceiver; a display unit; and a controller configured to: connect a video call between the user terminal and another user terminal; and send to the another user terminal a plurality of image data obtained from the plurality of camera units through the wireless transceiver; wherein the controller is further configured to: receive a plurality of images from the another user terminal through the wireless transceiver; display the received plurality of images on the display unit; and mutually change positions of each of the received plurality of images if a changing gesture is inputted. a plurality of camera units a wireless transceiver; a display unit; and a controller configured to: connect a video call between the user terminal and another user terminal; and send to the another user terminal a plurality of image data obtained from the plurality of camera units through the wireless transceiver; connect a video call between the user terminal and another user terminal; and send to the another user terminal a plurality of image data obtained from the plurality of camera units through the wireless transceiver; wherein the controller is further configured to: receive a plurality of images from the another user terminal through the wireless transceiver; display the received plurality of images on the display unit; and mutually change positions of each of the received plurality of images if a changing gesture is inputted. receive a plurality of images from the another user terminal through the wireless transceiver; display the received plurality of images on the display unit; and mutually change positions of each of the received plurality of images if a changing gesture is inputted.
A method for manufacturing an insulation member for a vacuum insulated structure, comprising steps of: providing a bag with a single layer porous fabric, wherein the bag is free from metallic and plastic films; filling the bag with insulation materials; sealing the insulation materials within the bag; vibrating the insulation materials and the bag to define a pillow; compressing the pillow within a mold to define a compressed insulation panel; positioning the compressed insulation panel in an insulation cavity defined between a first panel and a second panel; and evacuating the insulation cavity and the compressed insulation panel to define said vacuum insulated structure. providing a bag with a single layer porous fabric, wherein the bag is free from metallic and plastic films; filling the bag with insulation materials; sealing the insulation materials within the bag; vibrating the insulation materials and the bag to define a pillow; compressing the pillow within a mold to define a compressed insulation panel; positioning the compressed insulation panel in an insulation cavity defined between a first panel and a second panel; and evacuating the insulation cavity and the compressed insulation panel to define said vacuum insulated structure.
A computer-implemented method, comprising: receiving first imaging data from one or more sensors (126, 128) associated with a work machine, the first imaging data comprising data related to at least one ground engaging tool of the work machine, the first imaging data identifying the at least one GET at a first resolution; identifying a region of interest within the first imaging data, the region of interest including the data related to the at least one GET; controlling a light detection and ranging (LiDAR) sensor to capture second imaging data corresponding to the identified region of interest, the second imaging data identifying the at least one GET at a second resolution higher than the first resolution; generating a three-dimensional point cloud of the at least one GET based on the second imaging data; and determining a wear level or loss for the at least one GET based on the three-dimensional point cloud. receiving first imaging data from one or more sensors (126, 128) associated with a work machine, the first imaging data comprising data related to at least one ground engaging tool of the work machine, the first imaging data identifying the at least one GET at a first resolution; identifying a region of interest within the first imaging data, the region of interest including the data related to the at least one GET; controlling a light detection and ranging (LiDAR) sensor to capture second imaging data corresponding to the identified region of interest, the second imaging data identifying the at least one GET at a second resolution higher than the first resolution; generating a three-dimensional point cloud of the at least one GET based on the second imaging data; and determining a wear level or loss for the at least one GET based on the three-dimensional point cloud.
Ink for ink jet recording on a non-ink-absorbent or low ink-absorbent recording medium, the ink containing: a coloring material; and alkylpolyols, wherein the alkylpolyols include two or more first alkylpolyol compounds having a logP value of greater than or equal to -0.7 and less than or equal to 0.01, and a normal boiling point of greater than or equal to 180°C and lower than or equal to 250°C, the content of the first alkylpolyols is greater than or equal to 5% by mass and less than or equal to 30% by mass, and the ink for ink jet recording does not substantially contain alkylpolyols having a normal boiling point of 280°C or higher. a coloring material; and alkylpolyols, wherein the alkylpolyols include two or more first alkylpolyol compounds having a logP value of greater than or equal to -0.7 and less than or equal to 0.01, and a normal boiling point of greater than or equal to 180°C and lower than or equal to 250°C, the content of the first alkylpolyols is greater than or equal to 5% by mass and less than or equal to 30% by mass, and the ink for ink jet recording does not substantially contain alkylpolyols having a normal boiling point of 280°C or higher.
A method for producing zinc oxide for alimentary use in pigs, other monogastric animals, horses or ruminants, wherein zinc oxide is ground in a solid aggregate state to an average particle diameter of a maximum of 50 μm, and wherein the zinc oxide is ground with an eccentric vibration mill, or another vibration mill with an imbalance drive.
A pipeline inspection device, comprising: a rotatable drum housing a cable, the cable extendable into a pipe; a camera positioned on an end of the cable; a hub housing electrical components of the pipeline inspection device; and a stand including a mounting assembly having a first portion rotatably supporting the drum and a second portion supporting the hub within an interior of the drum, the second portion including a core, the hub being removably coupled to the mounting assembly via the core, wherein the hub is removably coupled to the mounting assembly by a first engagement member on the hub and a second engagement member on the core; and wherein the second engagement member is formed by a side wall of the core, and wherein the first engagement member includes a latch having a hook that selectively grips the side wall, and wherein the hook is received within a space between two arms extending radially outward from the side wall of the core. a rotatable drum housing a cable, the cable extendable into a pipe; a camera positioned on an end of the cable; a hub housing electrical components of the pipeline inspection device; and a stand including a mounting assembly having a first portion rotatably supporting the drum and a second portion supporting the hub within an interior of the drum, the second portion including a core, the hub being removably coupled to the mounting assembly via the core, wherein the hub is removably coupled to the mounting assembly by a first engagement member on the hub and a second engagement member on the core; and wherein the second engagement member is formed by a side wall of the core, and wherein the first engagement member includes a latch having a hook that selectively grips the side wall, and wherein the hook is received within a space between two arms extending radially outward from the side wall of the core.
Method for operation of a drawing line and respectively drawing unit for the drawing of cables of polymer filaments with the aid of a plurality of driven drawing rollers, each drawing roller (2.1, 2.2) being individually controlled to a predefined movement value, characterized in that the actual moment of each motor (3.1, 3.2) is detected and compared to a predetermined setpoint value and a control of the respective motor (3.1, 3.2) is performed in accordance therewith.
A spin filter comprising a) a hollow body; b) a bottom end; and c) an open top end opposite the bottom end, wherein the hollow body of the spin filter is made from a porous filtering material, preferably a polyethylene porous filtering material, and comprises walls through which a sample can be filtered, wherein the bottom end is optionally made from said porous filtering material. a) a hollow body; b) a bottom end; and c) an open top end opposite the bottom end,
A hand held power tool comprising: a housing, the housing comprising a back handle portion at a back end thereof; and a front handle portion at a front end thereof, wherein a motor is arranged in the back handle portion and coupled to an outgoing axle extending through the front handle portion, wherein the front handle portion comprises an inner tubular structure and an outer tubular gripping sleeve, characterized in that the outer tubular gripping sleeve is circumferentially supported by at least two vibration absorbing resilient elements (81, 82) arranged around said inner tubular structure, such that a circumferential gap is formed between said inner tubular structure and said gripping sleeve, wherein the at least two vibration absorbing resilient elements are vibration absorbing resilient rings, which rings have an arc shaped profile. a housing, the housing comprising a back handle portion at a back end thereof; and a front handle portion at a front end thereof, wherein a motor is arranged in the back handle portion and coupled to an outgoing axle extending through the front handle portion, wherein the front handle portion comprises an inner tubular structure and an outer tubular gripping sleeve, characterized in that the outer tubular gripping sleeve is circumferentially supported by at least two vibration absorbing resilient elements (81, 82) arranged around said inner tubular structure, such that a circumferential gap is formed between said inner tubular structure and said gripping sleeve, wherein the at least two vibration absorbing resilient elements are vibration absorbing resilient rings, which rings have an arc shaped profile.
An apparatus for the treatment of containers with a first movable transport device for transporting containers along a pre-set transport path on which transport device are arranged a plurality of clamp-like gripping elements, wherein these gripping elements are capable of being switched between a closed state, in which the container is gripped by the gripping element, and an opened state, in which a grip of the container is at least loosened by the gripping element, wherein the transport device has, in addition to the gripping elements, a plurality of holding devices which are capable of being brought into engagement with an aperture portion of the container or which support the container on the base portion thereof, wherein both one gripping element and one holding device are associated with at least one container during the transport thereof by the apparatus at least for a time for the transport thereof, wherein the holding devices are rotatable in each case about a pre-set axis of rotation, in such a way that containers arranged on the holding devices are rotatable about their longitudinal axis or an axis parallel to this longitudinal axis, characterized in that the holding devices can be moved in a longitudinal direction of the containers relative to the containers.
Method for detecting a parallel arc in a photovoltaic device, comprising N (N=1 or N>1) photovoltaic modules (100 1, 100 2, 100 3, 101 1, 101 2, 101 3), connected to a charge device having a capacitive behaviour for the modules, this method comprising: a) detecting, across the main terminals (A, B) of said device, the evolution of the voltage over time, b) identifying a negative voltage variation between a first zone (R 1), during which the voltage has a substantially stable slope and a second zone (R 2), during which the voltage has a substantially stable slope for a duration of at least 5 μs, which immediately follows said voltage variation, and c) determining whether the voltage variation is comprised between a maximum value Vmax, greater than or equal to 100 V, and a minimum value Vmin, less than or equal to 30 V, with a fall time of this variation comprised between a minimum duration Tmin greater than or equal to 0.01 μs and a maximum duration Tmax less than or equal to 10 μs. a) detecting, across the main terminals (A, B) of said device, the evolution of the voltage over time, b) identifying a negative voltage variation between a first zone (R 1), during which the voltage has a substantially stable slope and a second zone (R 2), during which the voltage has a substantially stable slope for a duration of at least 5 μs, which immediately follows said voltage variation, and c) determining whether the voltage variation is comprised between a maximum value Vmax, greater than or equal to 100 V, and a minimum value Vmin, less than or equal to 30 V, with a fall time of this variation comprised between a minimum duration Tmin greater than or equal to 0.01 μs and a maximum duration Tmax less than or equal to 10 μs.
A method for modifying a polymer comprising: providing a mixing apparatus having a high shear environment and devolatilization capabilities, wherein the mixing apparatus is a high viscosity devolatilizer reactor; introducing into the apparatus a composition containing at least one polymer that can be modified by a thermally-induced reaction that removes at least one protective group to expose a functional group; exposing the composition within the apparatus to the high shear environment under vacuum and at a temperature of 100°C to 180°C; and whereby a thermally-induced reaction occurs within the apparatus and volatile by-products are drawn out of the reacting mixture. providing a mixing apparatus having a high shear environment and devolatilization capabilities, wherein the mixing apparatus is a high viscosity devolatilizer reactor; introducing into the apparatus a composition containing at least one polymer that can be modified by a thermally-induced reaction that removes at least one protective group to expose a functional group; exposing the composition within the apparatus to the high shear environment under vacuum and at a temperature of 100°C to 180°C; and whereby a thermally-induced reaction occurs within the apparatus and volatile by-products are drawn out of the reacting mixture.
Reset mechanism for a locking cylinder, in particular for the implementation of a locking function for locks for doors in escape and emergency routes such as an anti-panic function, to reset at least one cylinder shaft and one closing lever which rotates with this, after a rotation back into a predefined position, comprising at least one eccentric unit that is non-rotatable with the cylinder shaft and a spring accumulator unit which acts radially with respect to the cylinder shaft for the automatic resetting of the closing lever characterised in that the eccentric unit comprises for dead centre reduction a coupling part having a rotationally asymmetrical outer contour, that is coupled with the cylinder shaft and comprises at least one discshaped coupling body having a shell surface which forms a control cam for a bolt head of the spring accumulator unit, which abuts onto the shell surface of the coupling body with a rolling off unit.
A piezoelectric element comprising: a piezoelectric layer; electrode layers (24, 26) formed on both sides of the piezoelectric layer; a protective layer (28, 30) laminated on a surface of each electrode layer opposite to a surface on a piezoelectric layer side, and a conductive foil laminated on a surface of each protective layer opposite to the electrode layer, wherein each protective layer has a hole (29, 31) that penetrates from a surface to the electrode layer, characterised in that each conductive foil includes an opening portion at a position that overlaps with the hole of the protective layer in a surface direction, the piezoelectric element further includes a filling member consisting of a conductive material, which is formed on at least a part of a surface of the conductive foil from insides of the hole of the protective layer and the opening portion of the conductive foil and is electrically connected to the electrode layer and the conductive foil, and a covering member that covers at least a part of the filling member and the conductive foil, wherein the covering member has a through-hole at a position that does not overlap with the filling member in the surface direction, and the piezoelectric element further includes a conductive member, which is inserted into the through-hole of the covering member and electrically connected to the conductive foil. a piezoelectric layer; electrode layers (24, 26) formed on both sides of the piezoelectric layer; a protective layer (28, 30) laminated on a surface of each electrode layer opposite to a surface on a piezoelectric layer side, and a conductive foil laminated on a surface of each protective layer opposite to the electrode layer, wherein each protective layer has a hole (29, 31) that penetrates from a surface to the electrode layer, characterised in that each conductive foil includes an opening portion at a position that overlaps with the hole of the protective layer in a surface direction, the piezoelectric element further includes a filling member consisting of a conductive material, which is formed on at least a part of a surface of the conductive foil from insides of the hole of the protective layer and the opening portion of the conductive foil and is electrically connected to the electrode layer and the conductive foil, and a covering member that covers at least a part of the filling member and the conductive foil, wherein the covering member has a through-hole at a position that does not overlap with the filling member in the surface direction, and the piezoelectric element further includes a conductive member, which is inserted into the through-hole of the covering member and electrically connected to the conductive foil.
A method of identifying a sample compound, the method comprising the steps of: i. providing models of an ensemble of possible structures for each of two or more known compounds; ii. calculating a theoretical collision cross-section for each modelled structure; iii. averaging the calculated theoretical collision cross-sections for each known compound to provide a theoretical collision cross-section value for each known compound; iv. measuring a collision cross-section value for the sample compound using an ion mobility technique; and v. comparing the measured collision cross-section value with the theoretical collision cross-section values to identify which of the two or more known compounds the sample compound most closely resembles. i. providing models of an ensemble of possible structures for each of two or more known compounds; ii. calculating a theoretical collision cross-section for each modelled structure; iii. averaging the calculated theoretical collision cross-sections for each known compound to provide a theoretical collision cross-section value for each known compound; iv. measuring a collision cross-section value for the sample compound using an ion mobility technique; and v. comparing the measured collision cross-section value with the theoretical collision cross-section values to identify which of the two or more known compounds the sample compound most closely resembles.
Component (10, 20; 26; 34) for a thermal machine, in particular a gas turbine, said component (10, 20; 26; 34) having a corner and/or edge (22; 40a, b) subjected to a thermally high load, wherein for cooling the corner and/or edge (22; 40a, b), at least one cooling channel (25, 25a-d; 27; 37; 38, 39) is arranged in the component (10, 20; 26; 34) recessed from the surface in the immediate vicinity of the corner and/or edge (22; 40a, b), wherein the cooling channel (25, 25a-d; 27; 37; 38, 39) has an outlet on the side of the surface to be cooled and an inlet on the opposite side, wherein the corner or edge (22; 40a, b) extends along a predefined line, wherein the at least one cooling channel (25, 25a-d; 27; 37; 38, 39) runs for a predefined distance substantially parallel to the corner or edge (22; 40a, b), characterised in that the at least one cooling channel (25, 25a-d; 27; 37; 38, 39) comprises a cooling pipe inserted in a trough.
A method for producing polyolefin material fibres to be added to a mix used to form a cementitious based article, said fibres being adapted to prevent explosion of said article in the case of fire, i.e. if subjected to heat generated by a fire, the fibres being adapted to enable escape, from the article, of vapour formed in this latter during the fire, each fibre being obtained by extrusion, the fibre being subjected to deformation such as to longitudinally create therealong longitudinal channels (13, 14, 15, 16: 19, 20), characterised in that each fibre presents, at the extruder exit, a base and a longitudinal rib rising from said base and having a widened free end positioned at the end of a part which supports it and joins it to said base, the deformation of the fiber forming a geometrical pattern such as to obtain at least one escape channel for the vapour generated in the cementitious based article by a fire and enabling the aforestated vapour to move or to escape to the outside of the article.