mhurhangee/ep-ind-claims huggingface dataset:
An image capturing apparatus comprising: an image sensor having a first pixel group that photoelectrically converts an object image from a first exit pupil region that is part of an overall exit pupil region of a photographing lens, a second pixel group that photoelectrically converts an object image from a second exit pupil region that is different from the first exit pupil region, and a third pixel group for capturing that photoelectrically converts an object image from an exit pupil region that includes the first exit pupil region and the second exit pupil region; a focus detection unit that detects focus information of the photographing lens by performing a defocus calculation with use of a first image signal obtained from the first pixel group and a second image signal obtained from the second pixel group; an image processing unit that converts captured image data that includes image data that has been photoelectrically converted by at least the third pixel group of the image sensor and image data corresponding to positions of the first pixel group and the second pixel group and generated by performing interpolation with use of information from the third pixel group, into an image file for recording and saving; and a data recording unit that records, in association with the image file, signals obtained from the first pixel group and the second pixel group such that the defocus calculation can be performed. an image sensor having a first pixel group that photoelectrically converts an object image from a first exit pupil region that is part of an overall exit pupil region of a photographing lens, a second pixel group that photoelectrically converts an object image from a second exit pupil region that is different from the first exit pupil region, and a third pixel group for capturing that photoelectrically converts an object image from an exit pupil region that includes the first exit pupil region and the second exit pupil region; a focus detection unit that detects focus information of the photographing lens by performing a defocus calculation with use of a first image signal obtained from the first pixel group and a second image signal obtained from the second pixel group; an image processing unit that converts captured image data that includes image data that has been photoelectrically converted by at least the third pixel group of the image sensor and image data corresponding to positions of the first pixel group and the second pixel group and generated by performing interpolation with use of information from the third pixel group, into an image file for recording and saving; and a data recording unit that records, in association with the image file, signals obtained from the first pixel group and the second pixel group such that the defocus calculation can be performed.
A method of controlling a transloading process which takes place in ongoing harvesting operation and which is controlled by a control device between a self-propelled harvester (1, 2) including a plurality of working members and a transport vehicle, during which crop material is transferred to the transport vehicle by a transloading device of the harvester (1, 2), wherein monitoring of the operating situation of the harvester (1, 2) is carried out during the transloading process by the control device and wherein upon detection of a critical operating situation by the control device shutdown of the transloading device is automatically initiated, characterised in that with the start of the transloading process in a first step the process of monitoring the transloading procedure begins during the harvesting operation which takes place in parallel therewith and in the subsequent steps (S2 - S6) the method involves sequentially checking whether a critical operating system has occurred, which causes a need to stop the transloading operation in accordance with a further step.
A vertebral fixing device for fixing a bony structure to a support member (4; 104), the fixing device (1; 101) comprising: a main body (2; 102) comprising first and second members (1J, 2J; 101J, 102J) defining between them a first passage (5; 105) configured for receiving the support member (4; 104), the second member (2J; 102J) being pivotable with respect to the first member (1J; 101J), around a first axis, and a clamping mechanism engaging the main body (2; 102) and being configured to move the first and second members (1J, 2J; 101J, 102J) towards each other by rotation of the clamping mechanism about a rotational axis, to clamp the support member (4; 104) therebetween characterized in that the second member (2J; 102J) includes an oblong opening extending therethrough, such that when the clamping mechanism is inserted through the oblong opening to engage the main body, a surface of the clamping mechanism engages a surface of the second member to translate the second member relative to the first member in a direction transverse to the rotational axis, and the first axis is movable in translation along a first direction so that the second member (2J; 102J) is movable in translation along the first direction, with respect to the first member (1J; 101J). a main body (2; 102) comprising first and second members (1J, 2J; 101J, 102J) defining between them a first passage (5; 105) configured for receiving the support member (4; 104), the second member (2J; 102J) being pivotable with respect to the first member (1J; 101J), around a first axis, and a clamping mechanism engaging the main body (2; 102) and being configured to move the first and second members (1J, 2J; 101J, 102J) towards each other by rotation of the clamping mechanism about a rotational axis, to clamp the support member (4; 104) therebetween characterized in that the second member (2J; 102J) includes an oblong opening extending therethrough, such that when the clamping mechanism is inserted through the oblong opening to engage the main body, a surface of the clamping mechanism engages a surface of the second member to translate the second member relative to the first member in a direction transverse to the rotational axis, and the first axis is movable in translation along a first direction so that the second member (2J; 102J) is movable in translation along the first direction, with respect to the first member (1J; 101J).
A correction amount calculation device for a board work line including a printing inspection machine configured to inspect a printing position of solder printed by a printing machine, a component mounting machine configured to perform a mounting process of mounting a component based on the printing position, and an appearance inspection machine configured to inspect a mounting position of the component mounted by the component mounting machine, the correction amount calculation device comprising: a first acquisition section configured to acquire a first positional deviation amount, which is a positional deviation amount of the printing position detected by the printing inspection machine with respect to a pad position, and a second positional deviation amount, which is a positional deviation amount of the mounting position detected by the appearance inspection machine with respect to the pad position; and a correction amount calculation section configured to, based on the first positional deviation amount and the second positional deviation amount, calculate a correction amount, which is to be used by the component mounting machine in the mounting process of a board product which is based on the printing position and the correction amount, the correction amount regarding a third positional deviation amount, which is a positional deviation amount of the mounting position with respect to the printing position. a first acquisition section configured to acquire a first positional deviation amount, which is a positional deviation amount of the printing position detected by the printing inspection machine with respect to a pad position, and a second positional deviation amount, which is a positional deviation amount of the mounting position detected by the appearance inspection machine with respect to the pad position; and a correction amount calculation section configured to, based on the first positional deviation amount and the second positional deviation amount, calculate a correction amount, which is to be used by the component mounting machine in the mounting process of a board product which is based on the printing position and the correction amount, the correction amount regarding a third positional deviation amount, which is a positional deviation amount of the mounting position with respect to the printing position.
An implantable glucose sensor (1, 1', 1", 1′′′, 1ʺʺ) for electrical measurements in a body and for determining impedance in tissue of a living being, the implantable glucose sensor comprising: - a housing (2, 2'), - two injecting electrodes (4, 4') for injecting current into the tissue, - two sensing electrodes for measuring impedance in the tissue, whereby the two sensing electrodes are arranged separately from the two injecting electrodes (4, 4'), wherein the two sensing electrodes are arranged in between the injecting electrodes (4, 4'), - a coil arranged within the housing (2, 2') for powering the implantable glucose sensor via a power source, - a circuit board arranged within the housing (2, 2'), the circuit board being electrically connected to the two sensing electrodes and the two injecting electrodes (4, 4') and the coil, - a communication unit for transferring and receiving data packages, the communication unit being connected to the circuit board, - the housing comprising a first part and a second part (3b, 3b'), the two sensing electrodes and the two injecting electrodes (4, 4') being arranged on an outer surface of the first part, characterized in that the outer surface of first part is of a convex shape and in that the two sensing electrodes and the two injecting electrodes (4, 4') are embedded in the convex shape so that they are flush with the outer surface of the convex shape and wherein the two injecting electrodes have a longitudinal shape, such as for example an elliptic longitudinal shape or a rectangular longitudinal shape. - a housing (2, 2'), - two injecting electrodes (4, 4') for injecting current into the tissue, - two sensing electrodes for measuring impedance in the tissue, whereby the two sensing electrodes are arranged separately from the two injecting electrodes (4, 4'), wherein the two sensing electrodes are arranged in between the injecting electrodes (4, 4'), - a coil arranged within the housing (2, 2') for powering the implantable glucose sensor via a power source, - a circuit board arranged within the housing (2, 2'), the circuit board being electrically connected to the two sensing electrodes and the two injecting electrodes (4, 4') and the coil, - a communication unit for transferring and receiving data packages, the communication unit being connected to the circuit board, - the housing comprising a first part and a second part (3b, 3b'), the two sensing electrodes and the two injecting electrodes (4, 4') being arranged on an outer surface of the first part, characterized in that the outer surface of first part is of a convex shape and in that the two sensing electrodes and the two injecting electrodes (4, 4') are embedded in the convex shape so that they are flush with the outer surface of the convex shape and wherein the two injecting electrodes have a longitudinal shape, such as for example an elliptic longitudinal shape or a rectangular longitudinal shape.
A cushioning system comprising: an array of tiered void cells, wherein each tiered void cell includes: a base portion; a plunger portion, the plunger portion to collapse into the base portion under compression of the cushioning system; and a living hinge elastically connecting an inner perimeter of the base portion to an outer perimeter of the plunger portion, the living hinge to stretch to effect the collapse of the plunger portion into the base portion under compression of the cushioning system. a base portion; a plunger portion, the plunger portion to collapse into the base portion under compression of the cushioning system; and a living hinge elastically connecting an inner perimeter of the base portion to an outer perimeter of the plunger portion, the living hinge to stretch to effect the collapse of the plunger portion into the base portion under compression of the cushioning system.
Composite wood board having an upper side (1 b), a lower side (1 a) and side edges (5, 6, 7, 8), characterized by at least one indicator applied to the underside (1 a) to visualize a state change in the composite wood board that has taken place under the action of at least one mechanical force, film and a lacquered film which are arranged on the underside (1 a) of the composite wood board and are arranged lying on each other.
A power tool, comprising: a handle including a grip portion, the grip portion defining a longitudinal axis; a motor (102, 253) housed within the handle and including a drive shaft driven by the motor, the drive shaft journalled for rotation within the handle and defining an axis of rotation substantially parallel to the longitudinal axis of the handle; a tool head selectively coupled to the handle; a first projection coupled to the handle and extending radially away from the longitudinal axis in a first direction; and a second projection coupled to the handle and extending radially away from the longitudinal axis in a second direction generally opposite the first direction, wherein the first and second projections are moveable between first and second positions, wherein in the first position, the projections are at a first radial distance from the longitudinal axis and are received within a portion of the tool head to couple the tool head to the handle, wherein in the second position, the projections are at a second radial distance from the longitudinal axis that is less than the first radial distance and the projections are decoupled from the tool head, and further wherein the first and second projections are biased to the first position. a handle including a grip portion, the grip portion defining a longitudinal axis; a motor (102, 253) housed within the handle and including a drive shaft driven by the motor, the drive shaft journalled for rotation within the handle and defining an axis of rotation substantially parallel to the longitudinal axis of the handle; a tool head selectively coupled to the handle; a first projection coupled to the handle and extending radially away from the longitudinal axis in a first direction; and a second projection coupled to the handle and extending radially away from the longitudinal axis in a second direction generally opposite the first direction, wherein the first and second projections are moveable between first and second positions, wherein in the first position, the projections are at a first radial distance from the longitudinal axis and are received within a portion of the tool head to couple the tool head to the handle, wherein in the second position, the projections are at a second radial distance from the longitudinal axis that is less than the first radial distance and the projections are decoupled from the tool head, and further wherein the first and second projections are biased to the first position.
A method of preparing a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer, wherein the arginine type monomer comprises a monomer of Formula: wherein x is an integer between 0 and 14; and the lysine type monomer comprises a monomer of Formula: wherein y is an integer between 0 and 14; the method comprising:- (i) synthesising a precursor linear peptoid, analogue or derivative thereof comprising one or more lysine type monomers protected with a first protecting group, and one or more lysine type monomers protected with a second protecting group, wherein the first protecting group comprises an N-(1-(4,4-dimethyl-2,6-dioxocyclohexylidene)ethyl) (Dde) protecting group and the second protecting group comprises a tert-butyloxycarbonyl (Boc) protecting group; (ii) removing the first protecting group to reveal one or more unprotected lysine type monomers; (iii) converting the one or more unprotected lysine type monomers to one or more arginine type monomers; and (iv) removing the second protecting group to obtain a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer. (i) synthesising a precursor linear peptoid, analogue or derivative thereof comprising one or more lysine type monomers protected with a first protecting group, and one or more lysine type monomers protected with a second protecting group, wherein the first protecting group comprises an N-(1-(4,4-dimethyl-2,6-dioxocyclohexylidene)ethyl) (Dde) protecting group and the second protecting group comprises a tert-butyloxycarbonyl (Boc) protecting group; (ii) removing the first protecting group to reveal one or more unprotected lysine type monomers; (iii) converting the one or more unprotected lysine type monomers to one or more arginine type monomers; and (iv) removing the second protecting group to obtain a peptoid, analogue or derivative thereof, comprising at least one arginine type monomer and at least one lysine type monomer.
Carbon particle granulate, in particular carbon nanoparticle granulate and/or carbon microparticle granulate, comprising a number of granulate particles, characterised in that each granulate particle is formed from a primary carbon-based particle, which comprises separable carbon nanotubes, and at least one surfactant.
Deuterium oxide for the use of the prevention and/or therapy of virus based diseases of the respiratory tract, wherein said virus based disease of the respiratory tract is acute rhinitis and/or acute sinusitis, and wherein deuterium oxide has an antiviral effect.
A method for generating a directional sound signal ( y ( k)) from first and second sound signals ( x 1 ( k), x 2 ( k)), which are generated by a first and a second microphone (M1, M2), which are separated by a distance, wherein the method comprises: - generating first and second differential sound signals ( x f ( k), x b,DEQ ( k)) based on the first and second sound signals ( x 1 ( k), x 2 ( k)), and - generating the directional sound signal ( y ( k)) according to a frequency-dependent directional response pattern based on the first and second differential sound signals ( x f ( k), x b,DEQ ( k)), wherein the generating of the second differential sound signal ( x b,DEQ ( k)) comprises generating a difference signal ( x b ( k)) of the first and the second sound signals ( x 1 ( k), x 2 ( k)) and a frequency-selective processing that depends on a steering angle ( α), which indicates a desired direction of maximum attenuation of the frequency-dependent directional response pattern, wherein the frequency-selective processing adjusts the actual direction of maximum attenuation of the frequency-dependent directional response pattern to correspond to the steering angle ( α) substantially independent of frequency (ω) over the frequency range of the directional sound signal ( y ( k)). - generating first and second differential sound signals ( x f ( k), x b,DEQ ( k)) based on the first and second sound signals ( x 1 ( k), x 2 ( k)), and - generating the directional sound signal ( y ( k)) according to a frequency-dependent directional response pattern based on the first and second differential sound signals ( x f ( k), x b,DEQ ( k)), wherein the generating of the second differential sound signal ( x b,DEQ ( k)) comprises generating a difference signal ( x b ( k)) of the first and the second sound signals ( x 1 ( k), x 2 ( k)) and a frequency-selective processing that depends on a steering angle ( α), which indicates a desired direction of maximum attenuation of the frequency-dependent directional response pattern, wherein the frequency-selective processing adjusts the actual direction of maximum attenuation of the frequency-dependent directional response pattern to correspond to the steering angle ( α) substantially independent of frequency (ω) over the frequency range of the directional sound signal ( y ( k)).
A method for manufacturing a high pressure laminate comprising a step of preparing a core layer and a step of pressing said core layer in a press using an elevated temperature and an elevated pressure, wherein said step of preparing said core layer comprises impregnating a paper with a resin mixture and constructing a stack of resin impregnated papers, characterized in that said resin mixture comprises a lignin-phenol formaldehyde resin prepared with lignin methylolation and phenol methylolation steps, said step of lignin methylolation comprises: i) providing a liquid lignin having free active hydrogen positions; ii) heating said liquid lignin to a temperature in a range of 60 °C and 85 °C; iii) adding formaldehyde to said heated liquid lignin under stirring conditions, wherein the formaldehyde is added in a stoichiometric excess ratio of >1:1 relative to the lignin's free active hydrogen positions; iv) maintaining the temperature of the mixture according to iii) in a range of 60 °C and 85 °C, during a time period of at least 10 minutes thereby obtaining an activated lignin composition, said step of phenol methylolation comprises: v) optionally heating said activated lignin composition of step iv) to a temperature in a range of 50 °C - 90 °C; vi) adding phenol to said activated lignin composition; vii) adjusting the temperature of the mixture of step vi) to be within the range of 60 °C - 90 °C; viii) adding formaldehyde to said mixture of step vii), ix) comprising of heating and maintaining the mixture of step viii) at a temperature in a range 50 - 80°C, during a period of time of at least 10 minutes, thereby obtaining said lignin-phenol formaldehyde resin. i) providing a liquid lignin having free active hydrogen positions; ii) heating said liquid lignin to a temperature in a range of 60 °C and 85 °C; iii) adding formaldehyde to said heated liquid lignin under stirring conditions, wherein the formaldehyde is added in a stoichiometric excess ratio of >1:1 relative to the lignin's free active hydrogen positions; iv) maintaining the temperature of the mixture according to iii) in a range of 60 °C and 85 °C, during a time period of at least 10 minutes thereby obtaining an activated lignin composition, v) optionally heating said activated lignin composition of step iv) to a temperature in a range of 50 °C - 90 °C; vi) adding phenol to said activated lignin composition; vii) adjusting the temperature of the mixture of step vi) to be within the range of 60 °C - 90 °C; viii) adding formaldehyde to said mixture of step vii), ix) comprising of heating and maintaining the mixture of step viii) at a temperature in a range 50 - 80°C, during a period of time of at least 10 minutes, thereby obtaining said lignin-phenol formaldehyde resin.
Tower for a wind power plant, wherein the tower comprises at least one annular segment (7 to 16) made of wood and having a polygonal cross-section, wherein the segment (7 to 16) is made up from wooden panels (36, 37, 38, 39) joined to one another at their vertically oriented edges, characterised in that the wooden panels (36, 37, 38, 39) are joined at their abutting edges via vertically oriented wedges located between the wooden panels (36, 37, 38, 39).