mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising a deformable object which is at least partially filled with a light-absorbing material, one or more light sources (204; 304; 403) embedded in the deformable object configured to illuminate the inside of the deformable object, an imaging unit located inside the deformable object and configured to capture respective images of light emitted by the light sources (204; 304; 403) and absorbed by the light-absorbing material with a full 360° angle of view, and circuity configured to reconstruct the shape of the deformable object based on the captured images of the light emitted by the light sources (204; 304; 403). a deformable object which is at least partially filled with a light-absorbing material, one or more light sources (204; 304; 403) embedded in the deformable object configured to illuminate the inside of the deformable object, an imaging unit located inside the deformable object and configured to capture respective images of light emitted by the light sources (204; 304; 403) and absorbed by the light-absorbing material with a full 360° angle of view, and circuity configured to reconstruct the shape of the deformable object based on the captured images of the light emitted by the light sources (204; 304; 403).
Endoscope for minimally invasive surgery, especially for use within a surgical robot system, which comprises a main support device, which basically extends over the entire length of the endoscope from the outside to the interior of the body, and which comprises at its distal end at least one lighting unit (15, 16) and two imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c), wherein each of the imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c) is basically arranged in such a way that it can be rotated to the outside on the same level as the main support device, a trocar, by means of which the endoscope can enter the body, and an additional support device, which is provided at the trocar and/or the main support device, wherein the additional support device comprises at its distal end an additional imaging device (8, 9, 10, 11), which can be rotated from the additional support device to the outside and wherein the additional imaging device (7, 8, 9, 10) comprises an additional lighting unit (10, 11) and at least an additional image sensor (8, 9), which comprises a monitoring area, which encompasses the two monitoring areas of the imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c) of the main support device, characterized in that the additional support device is located between the trocar and the main support device, especially resting directly at the main support device, wherein in particular the main support device and the additional support device have a cylindrical design. a main support device, which basically extends over the entire length of the endoscope from the outside to the interior of the body, and which comprises at its distal end at least one lighting unit (15, 16) and two imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c), wherein each of the imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c) is basically arranged in such a way that it can be rotated to the outside on the same level as the main support device, a trocar, by means of which the endoscope can enter the body, and an additional support device, which is provided at the trocar and/or the main support device, wherein the additional support device comprises at its distal end an additional imaging device (8, 9, 10, 11), which can be rotated from the additional support device to the outside and wherein the additional imaging device (7, 8, 9, 10) comprises an additional lighting unit (10, 11) and at least an additional image sensor (8, 9), which comprises a monitoring area, which encompasses the two monitoring areas of the imaging devices (12a, 13a, 14a, 12b, 13b, 14b; 12c) of the main support device,
A device for fracturing calcifications in heart valves comprising expandable impactor arms assembled on and deployed by a delivery system, characterized by an expandable stabilizer, wherein said delivery system is operable to move said impactor arms, while in an expanded position, with respect to said stabilizer with sufficient energy so as to fracture a calcification located in tissue which is sandwiched between said stabilizer and said impactor arms; and said stabilizer comprises stabilizer arms which are expandable outwards.
A surgical implant for support of spinal vertebrae (12, 14) said surgical implant comprising: a) a screw element having a threaded shank for screwing into a pedicle of a first vertebra and a connection portion comprising an attachment shaft that is integral and contiguous with said threaded shank;. b) a fixation component that is moveably secured to said screw element, said fixation component having a first end for receiving said screw element and a fixation surface having a shape or surface adapted to engage or attach to at least one of an external facet or laminar surface of a second vertebra, said first end of said fixation component having a fixation component wall that defines a fixation oomponent receiving opening; c) a compression element comprising a bore for receiving said oonnection portion; characterized In that said fixation component comprises a threaded area associated with said first end defining a nut receiving area for receiving a nut, said nut receiving area cooperating with said fixation component receiving opening to define a compression element receiving area for receiving said compression element, said nut engaging said compression element to compress against said attachment shaft of said screw element when said nut is screwed onto said threaded area of said first end, thereby fixing said fixation component to said screw element. a) a screw element having a threaded shank for screwing into a pedicle of a first vertebra and a connection portion comprising an attachment shaft that is integral and contiguous with said threaded shank;. b) a fixation component that is moveably secured to said screw element, said fixation component having a first end for receiving said screw element and a fixation surface having a shape or surface adapted to engage or attach to at least one of an external facet or laminar surface of a second vertebra, said first end of said fixation component having a fixation component wall that defines a fixation oomponent receiving opening; c) a compression element comprising a bore for receiving said oonnection portion;
Dye of formula wherein X is hydrogen or halogen and K is an aromatic or heteroaromatic coupling component and wherein the dye: is excluded. X is hydrogen or halogen and K is an aromatic or heteroaromatic coupling component and wherein the dye: is excluded.
A batch-type apparatus (100, 200, 300) for manufacturing a negative-electrode carbon material for a lithium-ion secondary battery by heat-treating carbon particles while causing the carbon particles to flow within a heat-treatment furnace, the apparatus (100, 200, 300) for manufacturing a negative-electrode carbon material for a lithium-ion secondary battery comprising: a heat-treatment furnace (11, 211) provided with a carbon-particle supply opening for supplying the carbon particles to an interior, a negative-electrode carbon material recovery opening for taking out the negative-electrode carbon material from the interior, a heater for heating the interior of the heat-treatment furnace to a predetermined temperature provided along the outer periphery of the heat-treatment furnace, and stirring blades driven by a motor and being configured to cause a flowing condition of carbon particles supplied to the furnace by means of an inert gas supplied to the interior of the furnace(11, 211); and a cooling tank connected in an airtight manner via an on-off valve to the negative-electrode carbon material recovery opening of the heat-treatment furnace, which allows the interior of the tank to be cooled under a non-oxidizing atmosphere, and provided with a cooling jacket for cooling the interior of the cooling tank by a refrigerant and stirring blades driven by a motor. a heat-treatment furnace (11, 211) provided with a carbon-particle supply opening for supplying the carbon particles to an interior, a negative-electrode carbon material recovery opening for taking out the negative-electrode carbon material from the interior, a heater for heating the interior of the heat-treatment furnace to a predetermined temperature provided along the outer periphery of the heat-treatment furnace, and stirring blades driven by a motor and being configured to cause a flowing condition of carbon particles supplied to the furnace by means of an inert gas supplied to the interior of the furnace(11, 211); and a cooling tank connected in an airtight manner via an on-off valve to the negative-electrode carbon material recovery opening of the heat-treatment furnace, which allows the interior of the tank to be cooled under a non-oxidizing atmosphere, and provided with a cooling jacket for cooling the interior of the cooling tank by a refrigerant and stirring blades driven by a motor.
A composition comprising a combination of a component and a component in respective proportions to provide a synergistic biocidal effect, whereby component is a pyrion compound selected from sodium pyrithione (I-a) and 1-hydroxy-2-pyridinone (I-b), and component are polyethyleneimines with an average molecular weight between 1300 and 750000.
A method of producing expanded nuts, the method comprising the steps of: (a) immersing a plurality of raw or blanched nut kernels in an aqueous liquid thereby hydrating at least a portion of the plurality of nut kernels, wherein the aqueous liquid is water or comprises an aqueous solution or dispersion of a humectant for controlling hydration of the nut kernels; (b) roasting the hydrated kernels at a temperature of at least 100 °C so as to be at least partially cooked, thereby forming a hardened outer surface on the hydrated kernel to enhance expansion during the gun puffing step; (c) coating at least some of the nut kernels with a starch or cellulose layer to reduce transmission of steam through nut surfaces and enhance popping of the nut kernel during the gun puffing step; (d) gun puffing the hydrated kernels thereby causing at least one of expansion of the hydrated nut kernels, or blistering of at least an outer surface of the hydrated nut kernels; and (e) producing, by steps (a) to (d), expanded and texturized nuts with a bulk density of from 30 to 50% lower than the raw or blanched nuts prior to step (a), and/or expanded and texturized nuts having a bulk density from 450 to 600 Kg/m 3. (a) immersing a plurality of raw or blanched nut kernels in an aqueous liquid thereby hydrating at least a portion of the plurality of nut kernels, wherein the aqueous liquid is water or comprises an aqueous solution or dispersion of a humectant for controlling hydration of the nut kernels; (b) roasting the hydrated kernels at a temperature of at least 100 °C so as to be at least partially cooked, thereby forming a hardened outer surface on the hydrated kernel to enhance expansion during the gun puffing step; (c) coating at least some of the nut kernels with a starch or cellulose layer to reduce transmission of steam through nut surfaces and enhance popping of the nut kernel during the gun puffing step; (d) gun puffing the hydrated kernels thereby causing at least one of expansion of the hydrated nut kernels, or blistering of at least an outer surface of the hydrated nut kernels; and (e) producing, by steps (a) to (d), expanded and texturized nuts with a bulk density of from 30 to 50% lower than the raw or blanched nuts prior to step (a), and/or expanded and texturized nuts having a bulk density from 450 to 600 Kg/m 3.
A console for a vehicle interior comprising: - a base comprising an opening; - a door configured to cover the opening of the base and to (a) move from an open position to a closed position and (b) move from the closed position to the open position; and - a mechanism configured to move the door from the open position to the closed position; wherein the door is configured to prevent rotation of the door relative to the base in response to an external force exerted on a side of the door, wherein the base comprises a set of opposed walls; wherein the door is configured to center itself between the walls of the base, wherein the door comprises a spring, a first arm and a second arm, wherein the spring forces the first arm and the second arm against the base to prevent rotation of the door relative to the base and center the door between the walls of the base, wherein the mechanism is configured to resist movement of the door from the closed position to the open position, wherein the mechanism comprises at least one gear (121A, 121B) and the base comprises at least one rack (221A, 221B) molded in an exterior side of the base, wherein the at least one gear (121A, 121B) is configured to rotate along the at least one rack (221A, 221B) to move the door relative to the base, and wherein the door is configured to slide relative to the base in a direction generally perpendicular to a direction of movement between the open position and the closed position to prevent rotation of the door relative to the base in response to an external force exerted on a side of the door. - a base comprising an opening; - a door configured to cover the opening of the base and to (a) move from an open position to a closed position and (b) move from the closed position to the open position; and - a mechanism configured to move the door from the open position to the closed position;
A cell transformed with a recombinant nucleic acid molecule comprising a nucleic acid molecule, which comprises a nucleic acid sequence encoding a protein, which protein comprises a sequence having at least 80% sequence identity to SEQ ID NO: 4, 6, 10, 12, 14, 17 or 19, wherein the protein has beta-alanine aminotransferase (BAAT) activity, and wherein the cell further comprises an exogenous or an endogenous nucleic acid molecule encoding a 3-HP dehydrogenase and wherein the cell produces 3-hydroxypropionic acid (3-HP).
Method for producing carpets with fringes in which a carpet is woven on a weaving machine from warp yarns and weft yarns, said carpet having fringes on two opposite edges in the warp direction, said fringes in the warp direction consisting of non-bound lengths of warp yarns of said carpet, wherein a fabric is woven on said weaving machine comprising: - a weaving zone comprising the part of said carpet to be provided with fringes in which a first length of the warp yarns is bound by means of weft yarns; - an edge zone adjoining this weaving zone in which a second length of at least one part of the warp yarns is not bound in order to form the fringes; characterised in that the fabric is further comprises: - a holding zone adjoining the edge zone located on the opposite side of the weaving zone relative to the edge zone comprising a holding fabric in which a third length of the warp yarns is bound by means of additional weft yarns. - a weaving zone comprising the part of said carpet to be provided with fringes in which a first length of the warp yarns is bound by means of weft yarns; - an edge zone adjoining this weaving zone in which a second length of at least one part of the warp yarns is not bound in order to form the fringes; characterised in that the fabric is further comprises: - a holding zone adjoining the edge zone located on the opposite side of the weaving zone relative to the edge zone comprising a holding fabric in which a third length of the warp yarns is bound by means of additional weft yarns.
A surgical apparatus, comprising: an elongated body comprising a distal end and a proximal end, the elongated body defining a longitudinal axis; a fluid conduit (126, 134) extending through the longitudinal axis of the elongated body; a fluid inlet (110, 118) disposed adjacent to the distal end; a cutting element disposed adjacent to the distal end; and a fluid outlet disposed adjacent to the proximal end; wherein the fluid inlet (110, 118) and the fluid outlet are in fluid communication via the fluid conduit (126, 134); characterised in that the fluid conduit (126, 134) comprises a gaseous fluid sorbent material. an elongated body comprising a distal end and a proximal end, the elongated body defining a longitudinal axis; a fluid conduit (126, 134) extending through the longitudinal axis of the elongated body; a fluid inlet (110, 118) disposed adjacent to the distal end; a cutting element disposed adjacent to the distal end; and a fluid outlet disposed adjacent to the proximal end; wherein the fluid inlet (110, 118) and the fluid outlet are in fluid communication via the fluid conduit (126, 134); characterised in that the fluid conduit (126, 134) comprises a gaseous fluid sorbent material.
An industrial robot comprising: a manipulator; a controller, configured to control an operation of the manipulator; and a detection device attached to the manipulator and configured to detect a gesture input, wherein the controller is further configured to execute a process corresponding to the detected gesture input, characterized by the detection device is further used for measuring a distance between the manipulator and a person, the controller is further configured to decrease an operation speed of the manipulator compared with a case of the distance being a first distance when the measured distance is a second distance which is shorter than the first distance, the controller is further configured to stop the operation of the manipulator when the distance between the manipulator and the person is smaller than a predetermined distance; and the controller is further configured to lengthen the predetermined distance at which the operation speed is zero when the person moves away from the manipulator. a manipulator; a controller, configured to control an operation of the manipulator; and a detection device attached to the manipulator and configured to detect a gesture input, wherein the controller is further configured to execute a process corresponding to the detected gesture input, characterized by the detection device is further used for measuring a distance between the manipulator and a person, the controller is further configured to decrease an operation speed of the manipulator compared with a case of the distance being a first distance when the measured distance is a second distance which is shorter than the first distance, the controller is further configured to stop the operation of the manipulator when the distance between the manipulator and the person is smaller than a predetermined distance; and the controller is further configured to lengthen the predetermined distance at which the operation speed is zero when the person moves away from the manipulator.
A method of creating a three dimensional object from reactive components that form a thermoset product using extruded thermoset printing, comprising: providing a first reactive component and a second reactive component that are effective to form a thermoset product having a predetermined layer resolution during the method, wherein the first reactive component comprises a polyol and/or amine prepolymer, a fast reactant, and a slow reactant, wherein the first reactive component comprises 1% to 10% fast reactant and 1% to 75% slow reactant, and wherein the second reactive component comprises an isocyanate prepolymer that comprises a monomeric isocyanate; introducing the first reactive component and the second reactive component into a mixing chamber where mixing occurs to form a mixture, wherein the first reactive component and the second reactive component have a residence time in the mixing chamber effective to form a partially reacted thermoset product in the mixing chamber and result in the predetermined layer resolution upon exiting the mixing chamber, and wherein the first reactive component and the second reactive component have a residence time in the mixing chamber insufficient to completely react; extruding the partially reacted thermoset product out of the mixing chamber through an extrusion nozzle and onto a substrate; and moving the extrusion nozzle and/or the substrate to form a 3D object having a predetermined shape resolution. providing a first reactive component and a second reactive component that are effective to form a thermoset product having a predetermined layer resolution during the method, wherein the first reactive component comprises a polyol and/or amine prepolymer, a fast reactant, and a slow reactant, wherein the first reactive component comprises 1% to 10% fast reactant and 1% to 75% slow reactant, and wherein the second reactive component comprises an isocyanate prepolymer that comprises a monomeric isocyanate; introducing the first reactive component and the second reactive component into a mixing chamber where mixing occurs to form a mixture, wherein the first reactive component and the second reactive component have a residence time in the mixing chamber effective to form a partially reacted thermoset product in the mixing chamber and result in the predetermined layer resolution upon exiting the mixing chamber, and wherein the first reactive component and the second reactive component have a residence time in the mixing chamber insufficient to completely react; extruding the partially reacted thermoset product out of the mixing chamber through an extrusion nozzle and onto a substrate; and moving the extrusion nozzle and/or the substrate to form a 3D object having a predetermined shape resolution.