mhurhangee/ep-ind-claims huggingface dataset:
Method for printing on at least a section of a surface of an object, - wherein an inkjet head (4, 4a, 4b) carries out a relative movement between the inkjet head (4, 4a, 4b) and the object along a first path, thereby printing a first track, (a) and along a second path, thereby printing a second track (b), - wherein a first track edge (a') of the first track (a) and a second track edge (b') of the second track (b) meet at a point and form an angle (a) of between approximately 1° and approximately 179° at the point, characterized in that - the second path and the first path intersect in multiple regions (5, 6) of overlap, - at least in a part of a region of overlap, the inkjet head (4, 4a, 4b) only prints on the first path or on the second path or at least in a part of a region of overlap, the inkjet head (4, 4a, 4b) prints on the first path and in the complementary part, the inkjet head prints on the second path, and - the section is composed of regions (5, 6) of overlap. - wherein an inkjet head (4, 4a, 4b) carries out a relative movement between the inkjet head (4, 4a, 4b) and the object along a first path, thereby printing a first track, (a) and along a second path, thereby printing a second track (b), - wherein a first track edge (a') of the first track (a) and a second track edge (b') of the second track (b) meet at a point and form an angle (a) of between approximately 1° and approximately 179° at the point, - the second path and the first path intersect in multiple regions (5, 6) of overlap, - at least in a part of a region of overlap, the inkjet head (4, 4a, 4b) only prints on the first path or on the second path or at least in a part of a region of overlap, the inkjet head (4, 4a, 4b) prints on the first path and in the complementary part, the inkjet head prints on the second path, and - the section is composed of regions (5, 6) of overlap.
System for a working machine, wherein the system is adapted for springing the movement of a load during transport, wherein the system comprises at least one hydraulic cylinder (108, 109) for operating the load, an accumulator, and the system comprises a pump adapted to supply the hydraulic cylinder (108, 109) with pressurized hydraulic fluid via one of a first control valve and a second control valve, which pump is controllable via an electrical signal, wherein the system comprises - said first control valve arranged on a conduit connecting to the piston side of the hydraulic cylinder (108, 109), which first control valve is adapted to control a flow communication between the pump and the piston side of the hydraulic cylinder, the first control valve further being adapted to connect a tank to the piston side, moreover, the first control valve is adapted to be closed such that the first control valve prevents fluid communication between the piston side of the hydraulic cylinder and each one of the pump and the tank, - said second control valve arranged on a conduit connecting to the piston rod side of the hydraulic cylinder (108, 109), - a first pressure sensor for detecting a load pressure of the hydraulic cylinder (108, 109), - a second pressure sensor for detecting a charge pressure of the accumulator, characterized in that the system comprises a valve adapted to control a flow communication between the piston side of the hydraulic cylinder (108, 109) and the accumulator even when the first control valve is closed, and a control unit adapted to receive signals with information about the pressures detected by the pressure sensors (229, 275) and to generate control signals corresponding to the detected pressures for controlling the springing function by means of the accumulator, and for controlling the first control valve in order to achieve a pressure equalization between the accumulator and the piston side of the hydraulic cylinder (108, 109) before the springing function is activated. - said first control valve arranged on a conduit connecting to the piston side of the hydraulic cylinder (108, 109), which first control valve is adapted to control a flow communication between the pump and the piston side of the hydraulic cylinder, the first control valve further being adapted to connect a tank to the piston side, moreover, the first control valve is adapted to be closed such that the first control valve prevents fluid communication between the piston side of the hydraulic cylinder and each one of the pump and the tank, - said second control valve arranged on a conduit connecting to the piston rod side of the hydraulic cylinder (108, 109), - a first pressure sensor for detecting a load pressure of the hydraulic cylinder (108, 109), - a second pressure sensor for detecting a charge pressure of the accumulator,
Resin composition containing a polyhexamethylene guanidine (PHMG) which is covalently modified at the primary amine groups and/or a polyhexamethylene biguanide (PHMB) which is covalently modified at the primary amine groups, wherein the resin composition is an impregnating resin composition and further comprises a melamine-formaldehyde resin, a nonionic and/or cationic wetting agent, a nonionic release agent and a curing agent.
Surgical tool holder for fixing a surgical tool (30,40) comprising: - a handle body comprising a proximal portion and a distal portion delimited by a recess, - a striking mass located at the end of the proximal portion of said handle body, - a fixing means of a surgical tool located at the distal portion of the handle body, characterized in that said striking mass, preferably in the form of a comma or a circumflex accent, comprises (i) an upper portion and a lower portion, said upper portion comprising a striking area for axial femoral insertion having a slightly curved shape and extending along a first longitudinal axis (B-B'); and (ii) a striking area for insertion in the axis of the handle of the rasp holder of substantially flat shape extending along a second longitudinal axis (A-A'), the angle α formed by the intersection of the first and second longitudinal axes (B-B'; A-A') being between 20 ° and 50 °, preferably between 25 ° and 45 °, and still more preferably about 35 °. - a handle body comprising a proximal portion and a distal portion delimited by a recess, - a striking mass located at the end of the proximal portion of said handle body, - a fixing means of a surgical tool located at the distal portion of the handle body,
A grain milling process for producing a milled coarse fraction from cleaned and tempered wheat kernels, comprising: milling the wheat kernels into a fine fraction comprised primarily of endosperm and a coarse fraction comprised primarily of bran and germ; separating the fine fraction from the coarse fraction; and characterized in that it further comprises: separately milling the coarse fraction in a gap mill to form a milled coarse fraction, wherein the milled coarse fraction contains substantially all the bran and germ in the coarse fraction before it is milled, and wherein the milled coarse fraction has a particle size distribution such that at least 98% passes through a 212 μm wire sieve. milling the wheat kernels into a fine fraction comprised primarily of endosperm and a coarse fraction comprised primarily of bran and germ; separating the fine fraction from the coarse fraction; and characterized in that it further comprises: separately milling the coarse fraction in a gap mill to form a milled coarse fraction, wherein the milled coarse fraction contains substantially all the bran and germ in the coarse fraction before it is milled, and wherein the milled coarse fraction has a particle size distribution such that at least 98% passes through a 212 μm wire sieve. separately milling the coarse fraction in a gap mill to form a milled coarse fraction, wherein the milled coarse fraction contains substantially all the bran and germ in the coarse fraction before it is milled, and wherein the milled coarse fraction has a particle size distribution such that at least 98% passes through a 212 μm wire sieve.
A non-contact charging device, comprising: a power receiving device (1B, 2B) including a power receiving coil configured to receive power from a power transmitting coil in a non-contact manner through at least magnetic coupling; a battery configured to be charged with the power; state-of-charge detection means configured to detect a state of charge of the battery; position detection means configured to detect a position of the power transmitting coli characterized by charge-time calculation means configured to calculate a first charge time of the battery in accordance with the state of charge detected by the state-of-charge detection means and a first position of the power transmitting coil detected by the position detection means; consumption calculation means configured to calculate a consumption of the battery to be consumed when a vehicle including the power receiving device is moved to a different location and the power receiving coil is moved to a second position, wherein the charge-time calculation means is further configured to calculate a third charge time for charging the battery corresponding to the consumption calculated by the consumption calculation means. a power receiving device (1B, 2B) including a power receiving coil configured to receive power from a power transmitting coil in a non-contact manner through at least magnetic coupling; a battery configured to be charged with the power; state-of-charge detection means configured to detect a state of charge of the battery; position detection means configured to detect a position of the power transmitting coli characterized by charge-time calculation means configured to calculate a first charge time of the battery in accordance with the state of charge detected by the state-of-charge detection means and a first position of the power transmitting coil detected by the position detection means; consumption calculation means configured to calculate a consumption of the battery to be consumed when a vehicle including the power receiving device is moved to a different location and the power receiving coil is moved to a second position, wherein the charge-time calculation means is further configured to calculate a third charge time for charging the battery corresponding to the consumption calculated by the consumption calculation means.
Mould for compression moulding doses of plastics, said mould comprising: - a first and a second half mould (1 and 2) that are movable axially in respect to one another to adopt an open position to insert at least one dose of plastics between said half moulds, a non-end closed position in which at least one dose of plastics is pressed in a cavity bounded at least partially by said first and second half mould (1 and 2), and an end closed position in which said cavity, in the absence of a dose of plastics, has a volume that is less than in said non-end closed position; - a tubular element arranged around said second half mould and slidable axially with respect thereto, wherein, when said first and second half mould (1 and 2) are in said non-end closed position, said tubular element partially bounds said cavity and is arranged in contact with an axial abutment arranged on said first half mould; characterised in that when said first and second half mould (1 and 2) are in said end closed position, said tubular element is arranged on one side in contact with said axial abutment and on the other side in contact with an axial end stop arranged on said second half mould characterised in that, when said first and second half mould (1 and 2) are in said end closed position, said cavity is bounded by a first surface of said first half mould and by a second surface of said second half mould, said first and second surface being transverse to the axis of said first and second half mould (1 and 2), facing one another and spaced apart from one another at a minimum distance that is not nil. - a first and a second half mould (1 and 2) that are movable axially in respect to one another to adopt an open position to insert at least one dose of plastics between said half moulds, a non-end closed position in which at least one dose of plastics is pressed in a cavity bounded at least partially by said first and second half mould (1 and 2), and an end closed position in which said cavity, in the absence of a dose of plastics, has a volume that is less than in said non-end closed position; - a tubular element arranged around said second half mould and slidable axially with respect thereto, wherein, when said first and second half mould (1 and 2) are in said non-end closed position, said tubular element partially bounds said cavity and is arranged in contact with an axial abutment arranged on said first half mould;
Compound selected from non-peptide prokineticin receptors antagonists of chemical structure or for use in the treatment of immune-mediated diseases of the central nervous system, peripheral nervous system and neuromuscular junction.
Method for producing a double-flanged seam between an inner component having a free edge section and an outer component having a fold edge arranged on an edge section, comprising at least the following steps: producing an adhesive structural element with an extension adjusted to a fold gap to be added later on, the extension in the cold condition being shorter than the extension of the fold gap, wherein the adhesive structural element has an expandable structural adhesive, and applying the adhesive structural element in the cold condition onto one of the components (2, 3) on its side facing the other component (2, 3), crimping over the fold edge toward the inner component, wherein the adhesive structural element is bent over with an excess length around the free edge of the inner component at the latest when crimping over the fold edge, and wherein, following crimping over of the fold edge toward the inner component, the adhesive structural element is arranged with the free edges (17, 18) thereof within the fold gap such that in each case an expansion space (22, 23) is formed, heating up at least the area of the double-flanged seam, thus melting the structural adhesive causing it also to leak from the fold gap in a manner expanding in all directions and forming a sealing bead (26, 27). producing an adhesive structural element with an extension adjusted to a fold gap to be added later on, the extension in the cold condition being shorter than the extension of the fold gap, wherein the adhesive structural element has an expandable structural adhesive, and applying the adhesive structural element in the cold condition onto one of the components (2, 3) on its side facing the other component (2, 3), crimping over the fold edge toward the inner component, wherein the adhesive structural element is bent over with an excess length around the free edge of the inner component at the latest when crimping over the fold edge, and wherein, following crimping over of the fold edge toward the inner component, the adhesive structural element is arranged with the free edges (17, 18) thereof within the fold gap such that in each case an expansion space (22, 23) is formed,
A cloth comprising a composite yarn, the cloth being characterized in that the composite yarn contains a crimped yarn and a stretch fiber wherein the crimped yarn contains a false-twist crimped yarn A having torque in the S-direction and a false-twist crimped yarn B having torque in the Z-direction; wherein the crimped yarn has a single fiber fineness within a range of 0.1 to 1.0 dtex; characterized in that the stretch fiber is a polytrimethylene terephthalate fiber, or the stretch fiber is a conjugate fiber made of two components joined in a side-by-side manner or an eccentric sheath-core manner, wherein the two components include polytrimethylene terephthalate and polytrimethylene terephthalate, or polytrimethylene terephthalate and polyethylene terephthalate. the stretch fiber is a polytrimethylene terephthalate fiber, or the stretch fiber is a conjugate fiber made of two components joined in a side-by-side manner or an eccentric sheath-core manner, wherein the two components include polytrimethylene terephthalate and polytrimethylene terephthalate, or polytrimethylene terephthalate and polyethylene terephthalate.
A retractor comprising a plurality of blades comprising a first blade and a second blade, the first blade having a distal end portion having an NIR/red light emitter thereon, the distal end portion having an outside surface and an inner surface, wherein the plurality of blades form a working channel, wherein the inner surface faces into the working channel and wherein the outside surface faces away from the working channel, wherein the NIR/red light emitter comprises an array of NIR/red LEDs attached to the outside surface of the first blade, and wherein the array covers a surface area of at least 20 cm 2.
A system (100, 800) for heating water comprising: a hot water storage tank (102, 802, 902), a heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) disposed inside the hot water storage tank (102, 802, 902); and means (134, 334, 434, 534, 634) for drawing water onto the heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) to be heated from beneath the heater, the means (134, 334, 434, 534, 634) comprising a cover (126, 326, 426, 526, 626, 726, 826, 926) arranged to shroud at least part of the heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) and a tube (130, 330, 730, 830), characterized in that the tube (130,330,730,830) extends into the cover to feed drawn water into the cover, and wherein the cover comprises one or more openings (140, 540, 640, 740, 840) arranged in a region that is spaced from the region of the cover where drawn water is fed into the cover, such that drawn water fed into the cover must pass at least part of the heater before it can discharge through the one or more openings. a hot water storage tank (102, 802, 902), a heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) disposed inside the hot water storage tank (102, 802, 902); and means (134, 334, 434, 534, 634) for drawing water onto the heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) to be heated from beneath the heater, the means (134, 334, 434, 534, 634) comprising a cover (126, 326, 426, 526, 626, 726, 826, 926) arranged to shroud at least part of the heater (116, 316, 416, 516, 616, 716, 724, 812, 816, 916) and a tube (130, 330, 730, 830), characterized in that the tube (130,330,730,830) extends into the cover to feed drawn water into the cover, and wherein the cover comprises one or more openings (140, 540, 640, 740, 840) arranged in a region that is spaced from the region of the cover where drawn water is fed into the cover, such that drawn water fed into the cover must pass at least part of the heater before it can discharge through the one or more openings.
A method of manufacturing a therapeutic device (300, 600), the method comprising: providing a member that defines first pores having a first average size that (i) allows passage of a therapeutic agent through the first pores and (ii) prevents passage of immune cells through the first pores; spinning the member about an axis of the member; applying a fibrous material to the member while the member spins to form a coating that surrounds the member, the coating defining second pores having a second average size that is larger than the first average size, and the second pores being sized to promote vascularization along the coating, wherein the member and the coating together form a container of the therapeutic device, the container defining an interior region for accommodating a plurality of cells capable of producing the therapeutic agent; and applying a plurality of particles comprising a substance to an inner surface of the member, wherein the substance is capable of reacting to generate oxygen within the interior region for the plurality of cells, and wherein the plurality of particles are part of a coating applied to the inner surface. providing a member that defines first pores having a first average size that (i) allows passage of a therapeutic agent through the first pores and (ii) prevents passage of immune cells through the first pores; spinning the member about an axis of the member; applying a fibrous material to the member while the member spins to form a coating that surrounds the member, the coating defining second pores having a second average size that is larger than the first average size, and the second pores being sized to promote vascularization along the coating, wherein the member and the coating together form a container of the therapeutic device, the container defining an interior region for accommodating a plurality of cells capable of producing the therapeutic agent; and applying a plurality of particles comprising a substance to an inner surface of the member, wherein the substance is capable of reacting to generate oxygen within the interior region for the plurality of cells, and wherein the plurality of particles are part of a coating applied to the inner surface.
Electrolysis cell E <100> comprising at least one anode chamber K A <101>, at least one cathode chamber K K <102> and at least one interposed middle chamber K M <103>, wherein K A. <101> comprises an anodic electrode E A <104> and an outlet A KA <106>, wherein K K <102> comprises a cathodic electrode E K <105>, an inlet Z KK <107> and an outlet A KK <109>, wherein K M <103> comprises an inlet Z KM <108>, is divided from K A <101> by a diffusion barrier D <110> and is divided from K K <102> by an alkali metal cation-conducting solid-state electrolyte F K <111>, wherein K M <103> and K A <101> are connected to one another by a connection V AM <112> through which liquid can be routed from K M <103> into K A <101>, characterized in that the middle chamber K M <103> comprises a cathodic electrode E M <120>. wherein K K <102> comprises a cathodic electrode E K <105>, an inlet Z KK <107> and an outlet A KK <109>, wherein K M <103> comprises an inlet Z KM <108>, is divided from K A <101> by a diffusion barrier D <110> and is divided from K K <102> by an alkali metal cation-conducting solid-state electrolyte F K <111>, wherein K M <103> and K A <101> are connected to one another by a connection V AM <112> through which liquid can be routed from K M <103> into K A <101>, characterized in that the middle chamber K M <103> comprises a cathodic electrode E M <120>.