mhurhangee/ep-ind-claims huggingface dataset:
A laser scanning unit comprising: a first light source, a second light source, a third light source, and a fourth light source; a deflector arranged to deflect a first light beam, a second light beam, a third light beam, and a fourth light beam that are incident on the deflector from the first through fourth light sources at an angle with respect to a sub-scanning direction; at least one optical path changing member arranged to change first through fourth optical paths of the first through fourth light beams that are reflected by the deflector; and a 1-1 f-θ lens, a 1-2 f-θ lens, a 1-3 f-θ lens, and a 1-4 f-θ lens arranged to focus the first through fourth light beams, respectively, that have passed through the at least one optical path changing member (191a, 191b, 192, 193, 194a, 194b) on corresponding scanning target surfaces (181, 182, 183, 184), wherein the first through fourth light beams are arranged to pass through the 1-1 through 1-4 f-θ lenses deflected from first through fourth center axis of the corresponding 1-1 through 1-4 f-θ lenses in the same direction with respect to first through fourth center portions of the corresponding 1-1 through 1-4 f-θ lenses in the sub-scanning direction, wherein the sub-scanning direction is perpendicular to an optical axis of the 1-1 through 1-4 f-θ lenses; the laser scanning unit further comprising: a second f-θ lens (161, 162) on each of the first through fourth optical paths between the deflector and the at least one optical path changing member, wherein the second f-θ lens has no refractive power in the sub-scanning direction. a first light source, a second light source, a third light source, and a fourth light source; a deflector arranged to deflect a first light beam, a second light beam, a third light beam, and a fourth light beam that are incident on the deflector from the first through fourth light sources at an angle with respect to a sub-scanning direction; at least one optical path changing member arranged to change first through fourth optical paths of the first through fourth light beams that are reflected by the deflector; and a 1-1 f-θ lens, a 1-2 f-θ lens, a 1-3 f-θ lens, and a 1-4 f-θ lens arranged to focus the first through fourth light beams, respectively, that have passed through the at least one optical path changing member (191a, 191b, 192, 193, 194a, 194b) on corresponding scanning target surfaces (181, 182, 183, 184),
Electrosurgical forceps comprising: - a first arm and a second arm connected by a pivot joint for moving the arms (11,12) toward and away from one another, the two arms (11,12) having a distal end (11a,12a) and a proximal end (11b,12b); - a first electrode and a second electrode arranged at the distal ends (11a, 12a) of the first arm and the second arm, respectively; - a longitudinal body connected to the first arm and in which a channel is arranged, the main body terminating, on the side of the distal end of the first arm, in a suction conduit having an upper opening and an axial opening, - a shutter element arranged on the second arm and configured to at least partially fill up the upper opening of the suction conduit when the two members (11,12) are in a position close to one another. - a first arm and a second arm connected by a pivot joint for moving the arms (11,12) toward and away from one another, the two arms (11,12) having a distal end (11a,12a) and a proximal end (11b,12b); - a first electrode and a second electrode arranged at the distal ends (11a, 12a) of the first arm and the second arm, respectively; - a longitudinal body connected to the first arm and in which a channel is arranged, the main body terminating, on the side of the distal end of the first arm, in a suction conduit having an upper opening and an axial opening, - a shutter element arranged on the second arm and configured to at least partially fill up the upper opening of the suction conduit when the two members (11,12) are in a position close to one another.
Device for automatically releasing and removing binding wires of a bale entwined with binding wires, comprising: - a receiving station provided to receive a bale entwined with binding wires; - a cutting device provided to automatically cut through the binding wires of the bale placed in the receiving station; - a binding wire remover, which is provided to remove the severed binding wires from the bale, wherein the binding wire remover comprises a movable trolley, provided with a first rotatable holder which is rotatable about its axis and has two mutually spaced winding mandrels (6, 7), wherein the trolley is movable to and fro between a standby position and a start position, wherein, in the start position, the first winding mandrel extends in the bale below the binding wires and the second winding mandrel extends above the binding wires, characterized in that the receiving station comprises a clamping mandrel, which is provided on a second rotatable holder rotatable about its axis, and which is provided to avoid slippage of the binding wires and is arranged such that, as binding wires are wound on, they are clamped between the first winding mandrel and the clamping mandrel. - a receiving station provided to receive a bale entwined with binding wires; - a cutting device provided to automatically cut through the binding wires of the bale placed in the receiving station; - a binding wire remover, which is provided to remove the severed binding wires from the bale, wherein the binding wire remover comprises a movable trolley, provided with a first rotatable holder which is rotatable about its axis and has two mutually spaced winding mandrels (6, 7), wherein the trolley is movable to and fro between a standby position and a start position, wherein, in the start position, the first winding mandrel extends in the bale below the binding wires and the second winding mandrel extends above the binding wires,
A method for producing a circular DNA which consists of a circular DNA formed from a single-molecule DNA and which does not comprise a circular DNA formed from a plurality of DNA molecules, the method comprising the following steps: 1) a step of binding an adapter for a first circularization to one end of each DNA molecule of interest, and binding to the other end thereof an adapter for a second circularization comprising an adapter (b) and the adapter, wherein the adapter binds to the DNA molecule via the adapter (b) side, such that the adapter in the adapter is located outside the bond of the DNA molecule to the adapter (b), wherein the adapter comprises a cleavage site generating a cleavage end that is able to non-specifically bind to all of the cleavage ends of the adapter, and the adapter (b) comprises a cleavage site generating a cleavage end that is able to specifically bind only to the cleavage end from the same adapter (b); 2) a first cleavage step of cleaving the DNA molecule obtained in step 1) at the cleavage site of the adapter; 3) a first circularization step of binding both ends of the DNA molecule obtained in step 2) to circularize the DNA molecule; 4) a step of eliminating uncircularized linear single-molecules and a DNA molecule consisting of a plurality of molecules bound to each other in step 3); 5) a second cleavage step of cleaving the circular DNA molecule obtained in step 3) and step 4) at the cleavage site of the adapter (b); and 6) a second circularization step of binding both ends of the DNA molecule obtained in step 5) to circularize the DNA molecule. 1) a step of binding an adapter for a first circularization to one end of each DNA molecule of interest, and binding to the other end thereof an adapter for a second circularization comprising an adapter (b) and the adapter, wherein the adapter binds to the DNA molecule via the adapter (b) side, such that the adapter in the adapter is located outside the bond of the DNA molecule to the adapter (b), wherein the adapter comprises a cleavage site generating a cleavage end that is able to non-specifically bind to all of the cleavage ends of the adapter, and the adapter (b) comprises a cleavage site generating a cleavage end that is able to specifically bind only to the cleavage end from the same adapter (b); 2) a first cleavage step of cleaving the DNA molecule obtained in step 1) at the cleavage site of the adapter; 3) a first circularization step of binding both ends of the DNA molecule obtained in step 2) to circularize the DNA molecule; 4) a step of eliminating uncircularized linear single-molecules and a DNA molecule consisting of a plurality of molecules bound to each other in step 3); 5) a second cleavage step of cleaving the circular DNA molecule obtained in step 3) and step 4) at the cleavage site of the adapter (b); and 6) a second circularization step of binding both ends of the DNA molecule obtained in step 5) to circularize the DNA molecule.
A projector apparatus including a light source and an optical lens unit having an automatic focus function and projecting a light figure formed by using a light emitted from the light source, comprising: a first temperature detecting unit configured to detect a temperature TH2 of the optical lens unit; a second temperature detecting unit; and a projection control unit, characterized by the second temperature detecting unit being configured to detect a temperature TH1 of the light source; and wherein the projection control unit is configured to calculate an afterheat coefficient OS 1, based on each detection result of TH1 and TH2 from the first and second temperature detecting units, using the following equation at a first time point OS 1 = TH 2 − TH 1 / k where k is a predetermined coefficient, and to calculate an afterheat coefficient OS n using the following equation at a time point n subsequent to the first time point OS n = TH 2 − OS n − 1 the projection control unit is configured to move the position of a particular lens within the optical lens, based on the calculated afterheat coefficient OS 1 in the first time point and on the calculated afterheat coefficient OS n in the time point n subsequent to the first time point, to revise an image location set by the automatic focus function. a first temperature detecting unit configured to detect a temperature TH2 of the optical lens unit; a second temperature detecting unit; and a projection control unit, characterized by the second temperature detecting unit being configured to detect a temperature TH1 of the light source; and wherein the projection control unit is configured to calculate an afterheat coefficient OS 1, based on each detection result of TH1 and TH2 from the first and second temperature detecting units, using the following equation at a first time point OS 1 = TH 2 − TH 1 / k where k is a predetermined coefficient, and to calculate an afterheat coefficient OS n using the following equation at a time point n subsequent to the first time point OS n = TH 2 − OS n − 1 the projection control unit is configured to move the position of a particular lens within the optical lens, based on the calculated afterheat coefficient OS 1 in the first time point and on the calculated afterheat coefficient OS n in the time point n subsequent to the first time point, to revise an image location set by the automatic focus function.
A cutting insert comprising: a top surface; a bottom surface; at least three side surfaces extending from the top surface to the bottom surface; a nose corner (35,305) connecting two adjacent side surfaces; and an intersection of the nose corner and the top surface; characterised in that at least a portion of the intersection is defined by a B-spline curve, wherein the B-spline curve has a polynomial degree of from 2 to 6. a top surface; a bottom surface; at least three side surfaces extending from the top surface to the bottom surface; a nose corner (35,305) connecting two adjacent side surfaces; and an intersection of the nose corner and the top surface; characterised in that at least a portion of the intersection is defined by a B-spline curve, wherein the B-spline curve has a polynomial degree of from 2 to 6.
A method of controlling a plurality of elevator cars (A-C) operating in a single hoistway servicing a plurality of floors in a building comprising: periodically transmitting (27, 35, 70, 77) from each one of said cars over a first communication channel, either directly or through a common controller, a communication check code to each other of said cars; transmitting over said first communications channel, in response to receipt of said communication check code, from each of said other cars that receives said communication check code, to said one of said cars which has sent said communication check code, a communication response code; and determining (32, 38; 74, 81), in a car which has sent a communication check code to one of said other cars, that a communication response code has not been received from said one of said other cars within a predetermined time; further characterized by sending a failure mode command (53, 82) over a second communications channel, from a car which has sent a communication check code but has not received a corresponding one of said communication response codes, to at least said one of said other cars; moving said at least one of said other cars to a respective parking position (13, 14, 11 a, 11b) out of the way of travel by at least another one of said cars between substantially all of said floors; and causing (60; 88) said at least another one of said cars to serve said substantially all of said floors. periodically transmitting (27, 35, 70, 77) from each one of said cars over a first communication channel, either directly or through a common controller, a communication check code to each other of said cars; transmitting over said first communications channel, in response to receipt of said communication check code, from each of said other cars that receives said communication check code, to said one of said cars which has sent said communication check code, a communication response code; and determining (32, 38; 74, 81), in a car which has sent a communication check code to one of said other cars, that a communication response code has not been received from said one of said other cars within a predetermined time; further characterized by sending a failure mode command (53, 82) over a second communications channel, from a car which has sent a communication check code but has not received a corresponding one of said communication response codes, to at least said one of said other cars; moving said at least one of said other cars to a respective parking position (13, 14, 11 a, 11b) out of the way of travel by at least another one of said cars between substantially all of said floors; and causing (60; 88) said at least another one of said cars to serve said substantially all of said floors.
A composition, wherein the composition comprises: a marine protein hydrolysate, a rice extract and a solid acid, wherein the rice extract and the solid acid are present in an amount effective to reduce or suppress a malodor associated with malodor compounds present in the marine protein hydrolysate; and wherein the rice extract comprises from 14 to 18% by weight protein, from 16 to 25% by weight fat, and from 9 to 51% by weight carbohydrate, wherein marine protein hydrolysate refers to a protein hydrolysate obtained from an enzymatic digestion of material obtained from marine animals. wherein the rice extract and the solid acid are present in an amount effective to reduce or suppress a malodor associated with malodor compounds present in the marine protein hydrolysate; and wherein the rice extract comprises from 14 to 18% by weight protein, from 16 to 25% by weight fat, and from 9 to 51% by weight carbohydrate, wherein marine protein hydrolysate refers to a protein hydrolysate obtained from an enzymatic digestion of material obtained from marine animals.
A cosmetic use of a composition comprising, in a physiologically acceptable medium, a combination of at least one monosaccharide chosen from mannose, rhamnose and a mixture thereof, and of at least one desquamating agent, for reducing and/or preventing the characteristics of wrinkles and/or fine lines, or for improving the density and/or firmness of the skin, wherein the desquamating agent is chosen from jasmonic acid, gentisic acid, a derivative thereof, and salicylic acid derivatives; the monosaccharide being a monomer; the salicylic acid derivatives being chosen from 5-n-octanoylsalicylic acid (or capryloylsalicylic acid); 5-n-decanoylsalicylic acid; 5-n-dodecanoylsalicylic acid; 5-n-heptyloxysalicylic acid, and the corresponding salts thereof; and the jasmonic acid and derivatives thereof being chosen from: - 3-hydroxy-2-[ -pentenyl]cyclopentaneacetic acid, - methyl 3-hydroxy-2-[ -pentenyl]cyclopentaneacetate, - 2-[ -2-pentenyl]-3-hydroxycyclopentaneethanol, - 3-hydroxy-2-pentylcyclopentaneacetic acid, - methyl 3-hydroxy-2-pentylcyclopentaneacetate, - 2-pentyl-3-hydroxycyclopentaneethanol, and - jasmonic acid. - 3-hydroxy-2-[ -pentenyl]cyclopentaneacetic acid, - methyl 3-hydroxy-2-[ -pentenyl]cyclopentaneacetate, - 2-[ -2-pentenyl]-3-hydroxycyclopentaneethanol, - 3-hydroxy-2-pentylcyclopentaneacetic acid, - methyl 3-hydroxy-2-pentylcyclopentaneacetate, - 2-pentyl-3-hydroxycyclopentaneethanol, and - jasmonic acid.
A method performed by a first entity for reporting wireless device connectivity events, the method comprising: - determining that connectivity events have occurred for a group of wireless devices; and - communicating to a second entity that the connectivity events have occurred for the wireless devices, wherein multiple responses for the wireless devices of the group are accumulated within a Group Reporting Guard Time, and after expiration of the Group Reporting Guard Time a Monitoring Indication is sent with the accumulated responses and indicating whether the Monitoring Indication is an intermediate message or the last message for the group. - determining that connectivity events have occurred for a group of wireless devices; and - communicating to a second entity that the connectivity events have occurred for the wireless devices, wherein multiple responses for the wireless devices of the group are accumulated within a Group Reporting Guard Time, and after expiration of the Group Reporting Guard Time a Monitoring Indication is sent with the accumulated responses and indicating whether the Monitoring Indication is an intermediate message or the last message for the group.
A tray (100, 200, 300) adapted for accommodating at least a portion of an electronic smoking device in a child-safe manner, the tray (100, 200, 300) comprising at least one cavity (101, 201, 301) adapted for accommodating said electronic smoking device or said portion of the electronic smoking device, wherein the tray (100, 200, 300) is configured to be reversibly deformed from an undeformed shape into a deformed shape by simultaneous finger interaction of a user with at least two interaction elements (102, 202, 302, 103, 203, 303) of the tray (100, 200, 300), the at least two interaction elements (102, 202, 302, 103, 203, 303) being spaced apart from each other and having a distance to each other of at least 6 cm, wherein the tray (100, 200, 300) is configured to return to the undeformed shape once the finger interaction is terminated, and wherein the undeformed shape is configured such that the at least one cavity (101, 201, 301) locks said electronic smoking device or said portion of the electronic smoking device to the tray (100, 200, 300) and the deformed shape is configured such that the at least one cavity (101, 201, 301) unlocks said electronic smoking device or said portion of the electronic smoking device from the tray (100, 200, 300) characterized in that the tray comprises a rotatable portion, wherein, in the undeformed shape, the rotatable portion is inaccessible for rotation by a hand of a user, wherein, in the deformed shape, the rotatable portion is accessible for rotation, and wherein the rotatable portion is configured to be rotatable in the deformed shape for accessing said electronic smoking device or said portion of the electronic smoking device.
A device for manufacturing tubular bodies for packaging tubes from a substrate web, with an elongated mandrel extending in an axial direction, around which the substrate web is able to be shaped for producing a tubular shape, and with weld means for welding the substrate web and with at least one weld band (10, 11) able to be driven in a revolving manner along a surface (12, 13), characterized in that in the surface (12, 13) gas outlet openings are provided, through which gas for generating a gas cushion (14, 15) can emerge between the surface and the weld band (10, 11) associated therewith.
A method for identifying a frame type, comprising: receiving a backward type bit corresponding to current frame type information; obtaining a forward type bit corresponding to previous frame type information; generating frame identification information of a current frame by placing the backward type bit at a first position of the frame identification information of a current frame and placing the forward type bit at a second position identification information of a current frame, characterised in that at least one of the forward type bit and the backward type bit indicates whether the frame type corresponds to one of a fixed type and a variable type, the fixed type indicates that a start position of the frame coincides with a start position of the block or an end position of the frame coincides with an end position of the block, and the variable type indicates that the start position of the frame fails to coincide with the start position of the block or the end position of the frame fails to coincide with the end position of the block, if the previous frame type information is a variable type, determining a start position of a block, if the current frame type information is a variable type, determining an end position of the block, and the frame identification information of a current frame is used for identifying boundary line of a start portion and an end portion of the current frame. receiving a backward type bit corresponding to current frame type information; obtaining a forward type bit corresponding to previous frame type information; generating frame identification information of a current frame by placing the backward type bit at a first position of the frame identification information of a current frame and placing the forward type bit at a second position identification information of a current frame, characterised in that at least one of the forward type bit and the backward type bit indicates whether the frame type corresponds to one of a fixed type and a variable type, the fixed type indicates that a start position of the frame coincides with a start position of the block or an end position of the frame coincides with an end position of the block, and the variable type indicates that the start position of the frame fails to coincide with the start position of the block or the end position of the frame fails to coincide with the end position of the block, if the previous frame type information is a variable type, determining a start position of a block, if the current frame type information is a variable type, determining an end position of the block, and the frame identification information of a current frame is used for identifying boundary line of a start portion and an end portion of the current frame.