mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for damping of a piston movement in a compressed air cylinder (10; 20), which arrangement comprises: - a compressed air cylinder (10; 20) with at least one longitudinal spindle (13; 23) intended for transmission of force from the compressed air cylinder (10; 20), which compressed air cylinder comprises a casing (11; 21) within which a piston (12; 22) joined to the longitudinal spindle is placed in such a way that a space (V1, V2) is formed on each side of the piston and that each space (V1, V2) has a compressed air hose (14; 24) or pipe connected to it; - a valve device arranged along each compressed air hose or pipe; - a compressed air device for supplying compressed air to each space (V1, V2) via respective compressed air hoses (14; 24) or pipes, and - a control unit connected to each valve device to control when compressed air is supplied to, and when it is allowed to leave, the spaces (V1, V2) in the compressed air cylinder (10; 20) via the compressed air hoses (14; 24) or pipes, which control unit also comprises means for controlling the valve devices in such a way that by controlling the supply of compressed air to the respective spaces (V1, V2) in the compressed air cylinder (10; 20) it generates a movement of the piston (12; 22) and the spindle (13; 23) thereto connected, wherein the control unit is adapted such that the valve devices are controlled so that compressed air is supplied to the second space (V1, V2) before the movement of the piston (12; 22) has begun, in order thereby to damp the movement of the piston (12; 22), characterised in that the piston (12, 22) is movable between three positions in the compressed air cylinder, the middle position being a position of rest to which the piston is returned by a coil spring placed round the spindle between the piston and the casing on each side of the piston and in that the control unit is adapted such that the valve devices are controlled so that the pressurisation of both spaces (V1, V2) starts at the same time. - a compressed air cylinder (10; 20) with at least one longitudinal spindle (13; 23) intended for transmission of force from the compressed air cylinder (10; 20), which compressed air cylinder comprises a casing (11; 21) within which a piston (12; 22) joined to the longitudinal spindle is placed in such a way that a space (V1, V2) is formed on each side of the piston and that each space (V1, V2) has a compressed air hose (14; 24) or pipe connected to it; - a valve device arranged along each compressed air hose or pipe; - a compressed air device for supplying compressed air to each space (V1, V2) via respective compressed air hoses (14; 24) or pipes, and - a control unit connected to each valve device to control when compressed air is supplied to, and when it is allowed to leave, the spaces (V1, V2) in the compressed air cylinder (10; 20) via the compressed air hoses (14; 24) or pipes,
A method comprising: in a printer control system: receiving print data defining a plurality of print objects, the print objects each having a transparency value; determining a plurality of overlapping transparency interacting objects from the plurality of print objects; determining an overlapping region from the plurality of overlapping transparency interacting objects; creating an overlapping region memory data structure for the overlapping region according to the transparency values for the overlapping transparency interacting objects in the overlapping region; and placing the overlapping region memory data structure into a printer memory data structure; wherein the creating of the overlapping memory region includes reading printer configuration data and using the printer configuration data in creating the overlapping region memory data structure. in a printer control system: receiving print data defining a plurality of print objects, the print objects each having a transparency value; determining a plurality of overlapping transparency interacting objects from the plurality of print objects; determining an overlapping region from the plurality of overlapping transparency interacting objects; creating an overlapping region memory data structure for the overlapping region according to the transparency values for the overlapping transparency interacting objects in the overlapping region; and placing the overlapping region memory data structure into a printer memory data structure; receiving print data defining a plurality of print objects, the print objects each having a transparency value; determining a plurality of overlapping transparency interacting objects from the plurality of print objects; determining an overlapping region from the plurality of overlapping transparency interacting objects; creating an overlapping region memory data structure for the overlapping region according to the transparency values for the overlapping transparency interacting objects in the overlapping region; and placing the overlapping region memory data structure into a printer memory data structure; wherein the creating of the overlapping memory region includes reading printer configuration data and using the printer configuration data in creating the overlapping region memory data structure.
A filter device for a conduit of an air supply line portion of a central tyre inflation system (CTIS), the filter device comprising: a gas-permeable pre-filter element (21; 23); and a gas-permeable, liquid-impermeable filter element (22; 24); wherein the filter device is configured to be fluidly coupled to the conduit such that, in use, a gas can be caused to flow, in sequence, through the pre-filter element (21; 23), through the filter element (22; 24), and through the conduit; and wherein the filter element (22; 24) is configured to be disposed within said conduit. a gas-permeable pre-filter element (21; 23); and a gas-permeable, liquid-impermeable filter element (22; 24); wherein the filter device is configured to be fluidly coupled to the conduit such that, in use, a gas can be caused to flow, in sequence, through the pre-filter element (21; 23), through the filter element (22; 24), and through the conduit; and wherein the filter element (22; 24) is configured to be disposed within said conduit.
A nonaqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode; and a nonaqueous electrolyte, wherein the positive electrode includes lithium iron phosphate, a positive electrode charge potential is 3.7 V or less with respect to a lithium metal potential, and the nonaqueous electrolyte includes a cyclic disulfone compound of a following general formula or 2-ethyl-1,3-dithiethane-1,1,3,3-tetraone, 2-propyl-1,3-dithiethane-1,1,3,3-tetraone, 2-(methylethyl)-1,3-dithiethane-1,1,3,3-tetraone or 2-butyl-1,3-dithiethane-1,1,3,3-tetraone in an amount of 0.1 to 4.0% by mass based on a total mass of the nonaqueous electrolyte: wherein R1 and R2 each represent an alkyl group having 2 to 4 carbon atoms, optionally including a halogen element, characterized in that the negative electrode includes amorphous carbon, which has an average particle size of 2 to 25 μm, or a carbon material, which is coated with amorphous carbon on the particle surface and has an average particle size of 2 to 25 μm. a positive electrode; a negative electrode; and a nonaqueous electrolyte, wherein the positive electrode includes lithium iron phosphate, a positive electrode charge potential is 3.7 V or less with respect to a lithium metal potential, and the nonaqueous electrolyte includes a cyclic disulfone compound of a following general formula or 2-ethyl-1,3-dithiethane-1,1,3,3-tetraone, 2-propyl-1,3-dithiethane-1,1,3,3-tetraone, 2-(methylethyl)-1,3-dithiethane-1,1,3,3-tetraone or 2-butyl-1,3-dithiethane-1,1,3,3-tetraone in an amount of 0.1 to 4.0% by mass based on a total mass of the nonaqueous electrolyte: wherein R1 and R2 each represent an alkyl group having 2 to 4 carbon atoms, optionally including a halogen element,
A composition of Formula I-b or a pharmaceutically acceptable salt thereof, wherein M is an alpha-emitting radionuclide preferably selected from actinium-225 ( 225 Ac 3+), radium-223 ( 233 Ra 2+), bismuth-213 ( 213 Bi 3+), lead-212 ( 212 Pb 2+ and/or 212 Pb 4+), terbium-149 ( 149 Tb 3+), fermium-255 ( 255 Fm 3+), thorium-227 ( 227 Th 4+), thorium-226 ( 226 Th 4+), astatine-211 ( 211 At +), astatine-217 ( 217 At +), and uranium-230; R 2 and R 7 are -C OH; R 9 is NCS or NH 2; R 3, R 4, R 5, R 8, and R 10 are each H; L 1 and L 2 are each -(CH 2) p -, where p is a value of 1; r is 1; and s is 1. M is an alpha-emitting radionuclide preferably selected from actinium-225 ( 225 Ac 3+), radium-223 ( 233 Ra 2+), bismuth-213 ( 213 Bi 3+), lead-212 ( 212 Pb 2+ and/or 212 Pb 4+), terbium-149 ( 149 Tb 3+), fermium-255 ( 255 Fm 3+), thorium-227 ( 227 Th 4+), thorium-226 ( 226 Th 4+), astatine-211 ( 211 At +), astatine-217 ( 217 At +), and uranium-230; R 2 and R 7 are -C OH; R 9 is NCS or NH 2; R 3, R 4, R 5, R 8, and R 10 are each H; L 1 and L 2 are each -(CH 2) p -, where p is a value of 1; r is 1; and s is 1.
A semiconductor radiation detector device comprising: a detector element comprising at least one active detector layer of piezoelectric semiconductor material; a stress inducing element arranged to act in use on the detector element to generate therein a predetermined pattern of stress, and consequently a predetermined electrical field; characterised in that the detector element is a pixellated detector element and has a micropixellated pattern of a predetermined repeat pitch, and the stress inducing element is so configured as to generate a microstress pattern with the same repeat pitch. a detector element comprising at least one active detector layer of piezoelectric semiconductor material; a stress inducing element arranged to act in use on the detector element to generate therein a predetermined pattern of stress, and consequently a predetermined electrical field; characterised in that the detector element is a pixellated detector element and has a micropixellated pattern of a predetermined repeat pitch, and the stress inducing element is so configured as to generate a microstress pattern with the same repeat pitch.
Pedal with a first axis of rotation, a base and a footrest, characterized in that - the base and the footrest are rotatable about the first axis of rotation and displaceable along the first axis of rotation, - the base is displaceable parallel to or substantially parallel to the first axis of rotation, whereby the matter is, for the displacement, of a free movement, characterized in that - the displacement of the base is elastically attenuated and/or damped along the first axis of rotation in both displacement directions. - the base and the footrest are rotatable about the first axis of rotation and displaceable along the first axis of rotation, - the base is displaceable parallel to or substantially parallel to the first axis of rotation, whereby the matter is, for the displacement, of a free movement, characterized in that - the displacement of the base is elastically attenuated and/or damped along the first axis of rotation in both displacement directions.
A force sensor comprising: a substrate (102, 102') including a proximal surface (102a, 102a') having a proximal load contact area (Cp) and a distal surface (102b, 102b') opposite the proximal surface having at least one distal load contact area (Cd) and a sensing area, the distal surface being planar and having at least one groove (110, 110') defined therein separating the at least one distal load contact area from the sensing area, characterized in that: - the at least one distal load contact area of the substrate includes four distal load contact areas disposed at corners of the substrate; - the at least one groove defined in the distal surface of the substrate includes a plurality of grooves, each groove of the plurality of grooves corresponding to and surrounding one of the four distal load contact areas and terminating at side surfaces of the substrate. - the at least one distal load contact area of the substrate includes four distal load contact areas disposed at corners of the substrate; - the at least one groove defined in the distal surface of the substrate includes a plurality of grooves, each groove of the plurality of grooves corresponding to and surrounding one of the four distal load contact areas and terminating at side surfaces of the substrate.
An ink set comprising: an ink composition containing resin particles and a pigment; and a process liquid containing an organic acidic compound including a compound represented by General Formula, and at least one of phosphoric acid and a phosphoric acid compound, C n H 2n+2-m (COOH) m General Formula wherein, in General Formula I, n represents an integer of greater than or equal to 2 and m represents an integer of greater than or equal to 3, and the resin particles are self-dispersing resin particles. an ink composition containing resin particles and a pigment; and a process liquid containing an organic acidic compound including a compound represented by General Formula, and at least one of phosphoric acid and a phosphoric acid compound, C n H 2n+2-m (COOH) m General Formula wherein, in General Formula I, n represents an integer of greater than or equal to 2 and m represents an integer of greater than or equal to 3, and the resin particles are self-dispersing resin particles.
A system for capturing 3D representations from an object, comprising: a light source being configured to project a sequence of one or more light patterns, whereby at least one of the light patterns is a phase-encoded pattern containing a non-repeating pattern of gradients between each pixel and adjacent pixels in different directions, wherein subsets of gradients between pixels and their adjacent pixels form more than one code per pixel that each can be decoded to yield phase values, whereby the light source can project the phase-encoded pattern onto a scene; a light sensor configured to capture at least one image of the scene under the influence of the projected pattern; and a processor configured to decode gradients in the captured image to determine the coordinates in the projected image that created the light received at each captured image pixel. a light source being configured to project a sequence of one or more light patterns, whereby at least one of the light patterns is a phase-encoded pattern containing a non-repeating pattern of gradients between each pixel and adjacent pixels in different directions, wherein subsets of gradients between pixels and their adjacent pixels form more than one code per pixel that each can be decoded to yield phase values, whereby the light source can project the phase-encoded pattern onto a scene; a light sensor configured to capture at least one image of the scene under the influence of the projected pattern; and a processor configured to decode gradients in the captured image to determine the coordinates in the projected image that created the light received at each captured image pixel.
A computer controlled method comprising: monitoring a first playback position on a program time axis of an audio and/or video data stream on a local device for at least one local audience member; periodically receiving a second playback position related to said audio and/or video data stream over a control link, wherein the second playback position corresponds to a remote audience member's advancing playback position which is ahead of the first playback position, wherein the local and remote audience members are part of a shared social space; determining a virtual audience member with a virtual playback position periodically computed using the first playback position and the second playback position; synchronizing said first playback position and said second playback position with said virtual playback position by providing playback vector adjustments such that said first playback position and said second playback position are aligned on a real time axis; and presenting said audio and/or video data stream responsive to the step of synchronizing. monitoring a first playback position on a program time axis of an audio and/or video data stream on a local device for at least one local audience member; periodically receiving a second playback position related to said audio and/or video data stream over a control link, wherein the second playback position corresponds to a remote audience member's advancing playback position which is ahead of the first playback position, wherein the local and remote audience members are part of a shared social space; determining a virtual audience member with a virtual playback position periodically computed using the first playback position and the second playback position; synchronizing said first playback position and said second playback position with said virtual playback position by providing playback vector adjustments such that said first playback position and said second playback position are aligned on a real time axis; and presenting said audio and/or video data stream responsive to the step of synchronizing.
Pre-stressed rolling bearing comprising an inner ring, an outer ring and a row of rolling elements disposed between the rings, at least one of said rings comprising a housing provided with an outer axial portion, with two lateral flanges (5b, 5c) connected to the outer axial portion and with an inner axial portion extending axially from a small-diameter edge of one of said lateral flange towards the rolling elements, two raceways (6, 7) mounted in the housing and in contact with said housing, and at least a pre-stressing element centred radially between the outer and inner axial portions (5a, 5d) of the housing and exerting a force on one of the raceways, said pre-stressing element being made from elastic material, characterized in that it further comprises at least a stiffening flat washer made from rigid material and axially disposed between the pre-stressing element and the associated raceway.
A coupling device for connecting two bars of a frame, in particular a support frame of sanitary appliances to be incorporated in a wall system, the coupling device extending along an axis between two axial ends (13, 14), respectively provided with an insert portion, insertable inside a first bar; and with a fastening portion comprising at least one fixed tooth, the fastening portion being apt in use to hook on a lateral wall of a second bar to be joined perpendicularly to the first bar via the at least one fixed tooth; the coupling device comprising a support body; a leaf spring elastically deformable and supported by the support body; characterised by a control member rotating about the axis and acting on the leaf spring via a cam; wherein the leaf spring has a first and a second axially opposite end portions (51, 52), respectively provided with at least one locking tooth and at least on movable tooth facing said at least one fixed tooth; and wherein rotation of the control member about the axis moves the cam to push against the leaf spring which deforms elastically so as to rotate in opposite directions said end portions (51, 52) and the respective teeth (53, 42); the at least one locking tooth of the first end portion of the leaf spring being pushed beyond the base plate of the support body for blocking the insert portion in use inside the first bar; the at least one movable tooth of the second end portion being brought closer to the at least one fixed tooth for in use hooking the second bar.
Ground-fixing system for a tyre characteristics sensor housing, the housing fixing being designed to withstand the severe stresses associated with numerous vehicles driving over the housing, said ground-fixing system comprising: i) a fixing plate comprising a plurality of recesses of a given profile distributed over the surface of the fixing plate; ii) a plurality of fastening pins suitable for cooperating with the profiles of the recesses of the fixing plate, similarly distributed on a fixing face of said sensor housing with a degree of freedom in rotation so as to allow the pins to be inserted and immobilized by simple rotation in the corresponding recesses; iii) the shapes and dimensions of the recesses and of the pins for fixing being provided so as to allow, on the one hand, in a position of insertion of the pins, engagement of the latter in said recesses and, on the other hand, in a locking position of the pins resulting from a rotation of said pins, fixing of the sensor housing on the fixing plate. i) a fixing plate comprising a plurality of recesses of a given profile distributed over the surface of the fixing plate; ii) a plurality of fastening pins suitable for cooperating with the profiles of the recesses of the fixing plate, similarly distributed on a fixing face of said sensor housing with a degree of freedom in rotation so as to allow the pins to be inserted and immobilized by simple rotation in the corresponding recesses; iii) the shapes and dimensions of the recesses and of the pins for fixing being provided so as to allow, on the one hand, in a position of insertion of the pins, engagement of the latter in said recesses and, on the other hand, in a locking position of the pins resulting from a rotation of said pins, fixing of the sensor housing on the fixing plate.
A forced air warming blanket for providing conditioned gas to a subject, the forced air warming blanket comprising: a first blanket portion which comprises a generally U-shaped inflatable region, at least part of the external surface of the inflatable region being air permeable, the inflatable region further comprising an inlet port for receiving temperature conditioned gas; and an inner blanket portion within the generally U-shaped inflatable region of the first blanket portion; wherein the inner blanket portion comprises an inner inflatable region, at least part of the external surface of which is air permeable, and an inlet port for receiving temperature conditioned gas into the inflatable region; characterised in that the forced air warming blanket comprises one or more tear lines between the first blanket portion and the inner blanket portion, which one or more tear lines can be torn to at least partially detach the inner blanket portion from the first blanket portion and wherein the forced air warming blanket further comprises an outer blanket portion outside the first blanket portion. a first blanket portion which comprises a generally U-shaped inflatable region, at least part of the external surface of the inflatable region being air permeable, the inflatable region further comprising an inlet port for receiving temperature conditioned gas; and an inner blanket portion within the generally U-shaped inflatable region of the first blanket portion; wherein the inner blanket portion comprises an inner inflatable region, at least part of the external surface of which is air permeable, and an inlet port for receiving temperature conditioned gas into the inflatable region; characterised in that the forced air warming blanket comprises one or more tear lines between the first blanket portion and the inner blanket portion, which one or more tear lines can be torn to at least partially detach the inner blanket portion from the first blanket portion and wherein the forced air warming blanket further comprises an outer blanket portion outside the first blanket portion.