mhurhangee/ep-ind-claims huggingface dataset:
A sensor system comprising: a plurality of sensor units (30A to 30F); and a communication device configured to transmit information received from the sensor units (30A to 30F) to a control device, the communication device being connected to the control device and the sensor units (30A to 30F) so as to be able to transmit a signal, wherein each of the sensor units (30A to 30F) transmits detection information obtained by a detection operation of the sensor unit (30A to 30F) to the communication device after a waiting time fixed for each sensor unit (30A to 30F) elapses with a synchronization signal as a starting point, the synchronization signal being transmitted from one of the sensor units (30A to 30F) at a predetermined period, and the waiting time of each sensor unit (30A to 30F) is fixed so as to be different from waiting times of other sensor units (30A to 30F), characterized in that each sensor unit (30A to 30F) transmits the detection information to the communication device after the respective waiting time elapses since the synchronization signal has been transmitted for a number of times that is fixed for the respective sensor unit (30A to 30F). a plurality of sensor units (30A to 30F); and a communication device configured to transmit information received from the sensor units (30A to 30F) to a control device, the communication device being connected to the control device and the sensor units (30A to 30F) so as to be able to transmit a signal, wherein each of the sensor units (30A to 30F) transmits detection information obtained by a detection operation of the sensor unit (30A to 30F) to the communication device after a waiting time fixed for each sensor unit (30A to 30F) elapses with a synchronization signal as a starting point, the synchronization signal being transmitted from one of the sensor units (30A to 30F) at a predetermined period, and the waiting time of each sensor unit (30A to 30F) is fixed so as to be different from waiting times of other sensor units (30A to 30F), characterized in that each sensor unit (30A to 30F) transmits the detection information to the communication device after the respective waiting time elapses since the synchronization signal has been transmitted for a number of times that is fixed for the respective sensor unit (30A to 30F).
Barrier-coated cellulose-based substrate, for use as a barrier sheet in a laminated packaging material for liquid food products, comprising a cellulose-based substrate and applied on a first side of the cellulose-based substrate a barrier pre-coating, applied by means of dispersion or solution coating, and further onto the barrier pre-coating a barrier deposition coating, the barrier deposition coating being applied by means of a vapour deposition method, wherein the barrier-coated cellulose-based substrate further comprises a base layer pre-coating, which is different from the barrier pre-coating and applied by means of dispersion or solution coating onto the cellulose-based substrate and thus positioned directly adjacent and contacting the first side of the cellulose-based substrate layer, and positioned beneath the barrier pre-coating, the barrier-coated cellulose-based substrate thus being suitable for providing gas and water vapour barrier properties in a laminated packaging material and packages made thereof.
A printing apparatus comprising: a housing; a printing mechanism (336, 338); a receiving bay for receiving a supply of image receiving medium; a cutter module removably attached in said housing for cutting said image receiving medium, said cutter module comprising a movable blade and an actuator for actuating said movable blade; and characterised in that said housing comprises an aperture, said cutter module being at least partially received in said aperture, and being removable via said aperture, and wherein said actuator comprises a cutter button which projects outwardly from said aperture when in a rest position. a housing; a printing mechanism (336, 338); a receiving bay for receiving a supply of image receiving medium; a cutter module removably attached in said housing for cutting said image receiving medium, said cutter module comprising a movable blade and an actuator for actuating said movable blade; and characterised in that said housing comprises an aperture, said cutter module being at least partially received in said aperture, and being removable via said aperture, and wherein said actuator comprises a cutter button which projects outwardly from said aperture when in a rest position.
A method for nucleic acid analysis comprising: preparing a plurality of types of target nucleic acid fragments which have each been bound to a capture tag molecule labelled with a first fluorescence substance in common; preparing a plurality of nucleic acid molecules, which have known base sequences representative of individual gene sequences of the target nucleic acid fragments to identify the individual target nucleic acid fragments, and which have been labelled with a second fluorescence substance which differs depending on the types of the nucleic acid fragments; preparing a particle which has been fixed to only one capture molecule for capturing a single target nucleic acid fragment; hybridizing the target nucleic acid fragments, the nucleic acid molecules and the particle to obtain the particle on which the single target nucleic acid fragment, labelled with the single first fluorescence substance, and the single nucleic acid molecules, labelled with the single second fluorescence substance, are attached; fixing the hybridized particle on a bond pad of a plurality of bond pads formed on a support substrate, the plurality of bond pads being arranged at positions spatially separated from each other to fix a single particle thereon; detecting fluorescence spots from the first and second fluorescence substances labelling the hybridized nucleic acid molecules; and calculating the number of fluorescence spots of the first fluorescence substance and of each of the types of the second fluorescence substances. preparing a plurality of types of target nucleic acid fragments which have each been bound to a capture tag molecule labelled with a first fluorescence substance in common; preparing a plurality of nucleic acid molecules, which have known base sequences representative of individual gene sequences of the target nucleic acid fragments to identify the individual target nucleic acid fragments, and which have been labelled with a second fluorescence substance which differs depending on the types of the nucleic acid fragments; preparing a particle which has been fixed to only one capture molecule for capturing a single target nucleic acid fragment; hybridizing the target nucleic acid fragments, the nucleic acid molecules and the particle to obtain the particle on which the single target nucleic acid fragment, labelled with the single first fluorescence substance, and the single nucleic acid molecules, labelled with the single second fluorescence substance, are attached; fixing the hybridized particle on a bond pad of a plurality of bond pads formed on a support substrate, the plurality of bond pads being arranged at positions spatially separated from each other to fix a single particle thereon; detecting fluorescence spots from the first and second fluorescence substances labelling the hybridized nucleic acid molecules; and calculating the number of fluorescence spots of the first fluorescence substance and of each of the types of the second fluorescence substances.
A meter box made of metal and having a radio device comprising: a radiation conductor for converting a radio frequency signal into an electric wave and for radiating the electric wave; a circuit board electrically connected to the radiation conductor and incorporating an electric circuit for supplying the radio frequency signal to the radiation conductor; and a planar grounded conductor electrically connected to the electric circuit on the circuit board and placed such that the grounded conductor is located at an opposite end of the radiation conductor with respect to the circuit board interposed between them, the grounded conductor constituting a ground of the radiation conductor, wherein the grounded conductor, the circuit board and the radiation conductor are placed in this order in a thickness direction of the circuit board, wherein the radiation conductor, the grounded conductor and the circuit board are placed in parallel with each other, wherein the electric circuit includes a transmission circuit for transmitting data via radio communication; and a resin-made casing accommodating the radiation conductor, the circuit board and the grounded conductor; wherein the resin-made casing and a metal surface of the meter box are attached to each other, such that the grounded conductor and the metal surface of the meter box are capacitively coupled, and separated by a surface of the resin-made casing, and the electric circuit is arranged between the radiation conductor and the grounded conductor. a radiation conductor for converting a radio frequency signal into an electric wave and for radiating the electric wave; a circuit board electrically connected to the radiation conductor and incorporating an electric circuit for supplying the radio frequency signal to the radiation conductor; and a planar grounded conductor electrically connected to the electric circuit on the circuit board and placed such that the grounded conductor is located at an opposite end of the radiation conductor with respect to the circuit board interposed between them, the grounded conductor constituting a ground of the radiation conductor, wherein the grounded conductor, the circuit board and the radiation conductor are placed in this order in a thickness direction of the circuit board, wherein the radiation conductor, the grounded conductor and the circuit board are placed in parallel with each other, wherein the electric circuit includes a transmission circuit for transmitting data via radio communication; and a resin-made casing accommodating the radiation conductor, the circuit board and the grounded conductor; wherein the resin-made casing and a metal surface of the meter box are attached to each other, such that the grounded conductor and the metal surface of the meter box are capacitively coupled, and separated by a surface of the resin-made casing, and the electric circuit is arranged between the radiation conductor and the grounded conductor.
A method for controlling alignment of the eye in an ophthalmological imaging device comprising an imaging system with a given optical axis (Δ 1), the method comprising: - formation, on a two-dimensional detection plane, of at least one image of at least one element (115b, 116b) located in a plane of the pupil of the eye, by means of an imaging optical element having a given optical axis (Δ 2), said detection plane being inclined such that a normal (Δ) to the detection plane makes a non-zero angle (Θ) to said optical axis of the imaging optical element; - determination of a lateral position of the pupil of the eye with respect to a point of origin (o) of a reference frame (o, x, y, z) of the imaging system in the eye space, on the basis of the position of said at least one image in said detection plane; - analysis of a state of focus of said at least one image in at least two regions of the detection plane, said regions being arranged in a direction of sharpness variation defined by the intersection of the detection plane with a plane formed by a normal to the detection plane and said optical axis of the imaging optical element; - determination of an axial position of the pupil of the eye with respect to said point of origin (o) of the reference frame of the imaging system, on the basis of said analysis of the state of focus. - formation, on a two-dimensional detection plane, of at least one image of at least one element (115b, 116b) located in a plane of the pupil of the eye, by means of an imaging optical element having a given optical axis (Δ 2), said detection plane being inclined such that a normal (Δ) to the detection plane makes a non-zero angle (Θ) to said optical axis of the imaging optical element; - determination of a lateral position of the pupil of the eye with respect to a point of origin (o) of a reference frame (o, x, y, z) of the imaging system in the eye space, on the basis of the position of said at least one image in said detection plane; - analysis of a state of focus of said at least one image in at least two regions of the detection plane, said regions being arranged in a direction of sharpness variation defined by the intersection of the detection plane with a plane formed by a normal to the detection plane and said optical axis of the imaging optical element; - determination of an axial position of the pupil of the eye with respect to said point of origin (o) of the reference frame of the imaging system, on the basis of said analysis of the state of focus.
An image processing device which is connected to an imaging unit, the imaging unit: being configured to sequentially capture images of a plurality of workpieces conveyed on a conveying device, and having an imaging range such that the sequentially captured images overlap, the image processing device comprising: an interface that receives image data of the sequentially captured images obtained by the imaging unit; measurement unit for acquiring a measurement result by performing measurement processing to a respective sequentially captured image, wherein measurement processing includes obtaining the position of each workpiece as measurement result; a panoramic image processing unit for performing processing related to generating and displaying a panoramic image, the panoramic image processing unit comprises an image generation unit for generating a panoramic image from the sequentially captured images such that the sequentially captured images overlap with one another within an overlapping range in an imaging order, wherein a variable N is used for counting the image data relating to the sequentially captured images, and by superimposing the acquired measurement result; and an output unit for outputting the panoramic image with the superimposed measurement result and information indicating the overlapping range correlated with the panoramic image with the superimposed measurement result represented by a geometric figure, wherein the image generation unit is configured to superimpose a measurement result of the Nth image data as a measurement result of the (N + 1)th image data. being configured to sequentially capture images of a plurality of workpieces conveyed on a conveying device, and having an imaging range such that the sequentially captured images overlap, an interface that receives image data of the sequentially captured images obtained by the imaging unit; measurement unit for acquiring a measurement result by performing measurement processing to a respective sequentially captured image, wherein measurement processing includes obtaining the position of each workpiece as measurement result; a panoramic image processing unit for performing processing related to generating and displaying a panoramic image, the panoramic image processing unit comprises an image generation unit for generating a panoramic image from the sequentially captured images such that the sequentially captured images overlap with one another within an overlapping range in an imaging order, wherein a variable N is used for counting the image data relating to the sequentially captured images, and by superimposing the acquired measurement result; and an output unit for outputting the panoramic image with the superimposed measurement result and information indicating the overlapping range correlated with the panoramic image with the superimposed measurement result represented by a geometric figure, wherein the image generation unit is configured to superimpose a measurement result of the Nth image data as a measurement result of the (N + 1)th image data.
An information processing apparatus for generating a rectangular image into which a 3D scene is rendered for a predetermined viewpoint, the apparatus comprising: obtaining means (101, 104) for obtaining a number of fragments existing on a straight line defined by the viewpoint and a predetermined point within the 3D scene to be rendered for each pixel of the rectangular image; dividing means (101, 104) for dividing a two-dimensional region in a screen coordinate system corresponding to the rectangular image into a plurality of regions; calculating means (101, 104) for performing a predetermined calculation for each of the plurality of regions; and rendering means for rendering a corresponding region of the rectangular image by selecting each of the plurality of regions into which said dividing means divided, wherein said dividing means is configured to recursively divide the two-dimensional region into the plurality of regions by one or more dividing line so that a difference of summations of the number of fragments included in each of the regions after the division becomes less than or equal to a predetermined value and the amount of data for each tile fits into an amount that is storable in a rendering memory. obtaining means (101, 104) for obtaining a number of fragments existing on a straight line defined by the viewpoint and a predetermined point within the 3D scene to be rendered for each pixel of the rectangular image; dividing means (101, 104) for dividing a two-dimensional region in a screen coordinate system corresponding to the rectangular image into a plurality of regions; calculating means (101, 104) for performing a predetermined calculation for each of the plurality of regions; and rendering means for rendering a corresponding region of the rectangular image by selecting each of the plurality of regions into which said dividing means divided, wherein said dividing means is configured to recursively divide the two-dimensional region into the plurality of regions by one or more dividing line so that a difference of summations of the number of fragments included in each of the regions after the division becomes less than or equal to a predetermined value and the amount of data for each tile fits into an amount that is storable in a rendering memory.
Packaging system for medical stoppers consisting of a cap mounted on a plug, the packaging system comprising: - a vessel having an opening, a bottom, and a peripheral wall; - at least one tray, each of which has a plurality of cavities that each receive a medical stopper, the tray being placed in the vessel; and - a porous lid sealed on the upper edge of the peripheral wall (1 0b) of the vessel to close it, the packaging system being characterized in that each medical stopper is arranged on the tray such that the cap, together with an upper face of said tray, defines a closed compartment for individually isolating the plug. - a vessel having an opening, a bottom, and a peripheral wall; - at least one tray, each of which has a plurality of cavities that each receive a medical stopper, the tray being placed in the vessel; and - a porous lid sealed on the upper edge of the peripheral wall (1 0b) of the vessel to close it, the packaging system being characterized in that each medical stopper is arranged on the tray such that the cap, together with an upper face of said tray, defines a closed compartment for individually isolating the plug.
Chiral disulfonimides having the general formula where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11 and R 12 can be identical or different and are each, independently of one another, H, OH, F, Cl, Br, I, CN, NO 2, NO, SO 2, SO 3 H, NH 2, PH 3, COOH, SO 3 X, COOY, where X and Y are each Na or K, a C 1 -C 20 -alkyl, C 2 -C 20 -alkenyl or C 2 -C 20 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C y6)-alkyl, heteroaryl group, which may optionally be substituted, R 13 stands for H, an C 1 -C 6 -alkyl, C 2 -C 6 -alkenyl or C 2 -C 6 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C 6)-alkyl, heteroaryl- or SiR 14 R 15 R 16 -group, where R 14, R 15, R 16 are each C 1 -C 6 -alkyl, C 2 -C 6 -alkenyl or C 2 -C 6 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C 6)-alkyl, heteroaryl, which may optionally be substituted, or organic salts, metal salts or metal complexes thereof. R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11 and R 12 can be identical or different and are each, independently of one another, H, OH, F, Cl, Br, I, CN, NO 2, NO, SO 2, SO 3 H, NH 2, PH 3, COOH, SO 3 X, COOY, where X and Y are each Na or K, a C 1 -C 20 -alkyl, C 2 -C 20 -alkenyl or C 2 -C 20 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C y6)-alkyl, heteroaryl group, which may optionally be substituted, R 13 stands for H, an C 1 -C 6 -alkyl, C 2 -C 6 -alkenyl or C 2 -C 6 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C 6)-alkyl, heteroaryl- or SiR 14 R 15 R 16 -group, where R 14, R 15, R 16 are each C 1 -C 6 -alkyl, C 2 -C 6 -alkenyl or C 2 -C 6 -alkynyl, aryl, aryl-(C 1 -C 6)-alkyl, hetero(C 1 -C 6)-alkyl, heteroaryl, which may optionally be substituted, or organic salts, metal salts or metal complexes thereof.
Frame for a cover of an underground chamber, the face of the frame that is intended to receive the cover emerging from an upper opening of the chamber, termed chamber head, the frame comprising a means (5; 7) for adjusting its position according to an inclination and a height with respect to the chamber head, characterized in that the position-adjusting means comprises at least one tongue emerging from the outer perimeter of the frame and configured to exert a thrust against the inner edge of the chamber head.
A plug connector with a main part, which comprises a contact blade skirt or basket with at least one first and one second contact zone (20, 21), wherein the first and second contact zones (20, 21) are arranged one after the other in the longitudinal direction of the plug connector, the contact zones (20, 21) have a plurality of contact blades, and neighbouring contact blades of one contact zone (20, 21) are separated from each another by a gap, with an intermediate wall being provided between the first and the second contact zones (20, 21), the intermediate wall forming a conductive connection both between the contact blades of the first contact zone and the contact blades of the second contact zone and between the individual contact blades of the first contact zone and the individual contact blades of the second contact zone, characterized in that two long recesses (31a, 31b) are provided in the main part which are arranged diametrically to each another.