mhurhangee/patent-ind-claim-en huggingface dataset:
A diene Ladder branched ethylene-based polymer comprising a reaction product of polymerizing ethylene monomer, at least one diene comonomer, and optionally at least one C 3 to C 14 comonomer under defined polymerization reaction conditions, the ethylene-based polymer having: an M w /M w0 greater than 1.20, where M w is the weight-average molecular weight of the ethylene-based polymer as determined from a gel permeation chromatography curve of the ethylene-based polymer acquired by refractive index chromatography, and M w0 is the initial weight-average molecular weight of a comparative ethylene-based polymer by gel permeation chromatography, the comparative ethylene-based polymer being a reaction product of polymerizing ethylene monomer and all C 3 to C 14 comonomers present in the ethylene-based polymer, if any, without the at least one diene comonomer, under the defined polymerization reaction conditions, wherein M w and M w0 are determined as described in the description; and a high molecular weight tail quantified by an MWD area metric, A TAIL , and A TAIL is less than or equal to 0.04 as determined by gel permeation chromatography using a triple detector; wherein A TAIL is determined and defined as set out in the description. an M w /M w0 greater than 1.20, where M w is the weight-average molecular weight of the ethylene-based polymer as determined from a gel permeation chromatography curve of the ethylene-based polymer acquired by refractive index chromatography, and M w0 is the initial weight-average molecular weight of a comparative ethylene-based polymer by gel permeation chromatography, the comparative ethylene-based polymer being a reaction product of polymerizing ethylene monomer and all C 3 to C 14 comonomers present in the ethylene-based polymer, if any, without the at least one diene comonomer, under the defined polymerization reaction conditions, wherein M w and M w0 are determined as described in the description; and a high molecular weight tail quantified by an MWD area metric, A TAIL , and A TAIL is less than or equal to 0.04 as determined by gel permeation chromatography using a triple detector; wherein A TAIL is determined and defined as set out in the description.
A resin powder for solid freeform fabrication, comprising: resin particles having a significantly pillar-like form, including resin particles having a concave portion on a circumferential side surface, wherein the resin powder has a repose angle measured according to the description of 55 degrees or less. resin particles having a significantly pillar-like form, including resin particles having a concave portion on a circumferential side surface, wherein the resin powder has a repose angle measured according to the description of 55 degrees or less.
A tanning agent-free leather making method, comprising a step of subjecting a raw hide to controllable dehydration with molecular sieve-polar organic solvent composite dehydration media; wherein the molecular sieve and the polar organic solvent are added in an order as follows: adding the molecular sieve and the polar organic solvent together to dehydrate the raw hide; or adding the polar organic solvent first to dehydrate the raw hide and then adding the molecular sieve to reach a combined dehydration action.
An assembly for feeding/picking up containers (A, B) for washing machines comprising an external feeding station provided with a delivery area, an internal washing station, and an external output station, which assembly comprises at least one support which can move by the action of respective actuators between at least one first configuration of alignment with a respective external station and at least one second configuration of alignment with said internal washing station, and which is provided with a plurality of grip clamps , each clamp being constituted by a pair of mutually opposite jaws the internal faces of which are substantially concave and contoured, there being interposed between said jaws an elastic element for forcing in mutual abutment the internal faces of said jaws , corresponding to the closing of the grip clamp ; said pair of mutually opposite jaws comprising a driving jaw , which is functionally associated with a respective movement unit, and a respective driven jaw , respective complementary sets of teeth for the mutual transmission of motion being defined on the facing and proximate surfaces of said driving jaw and of said driven jaw ; the elastic element of each clamp elastically forcing closed the respective clamp autonomously and independently of the others characterised in that said driving jaws are being pivoted by a common translatable bar, the translation of said bar configured to generate the rotation with respect to their pivoting point of all the driving jaws with respect to the driven jaws , with consequent simultaneous opening of all the clamps . said pair of mutually opposite jaws comprising a driving jaw , which is functionally associated with a respective movement unit, and a respective driven jaw , respective complementary sets of teeth for the mutual transmission of motion being defined on the facing and proximate surfaces of said driving jaw and of said driven jaw ; the elastic element of each clamp elastically forcing closed the respective clamp autonomously and independently of the others characterised in that said driving jaws are being pivoted by a common translatable bar, the translation of said bar configured to generate the rotation with respect to their pivoting point of all the driving jaws with respect to the driven jaws , with consequent simultaneous opening of all the clamps .
A system for temporarily connecting an underwater station and a surface facility, the system comprising: - an underwater station comprising at least one tank (11; 12; 13) configured to contain service fluids; - a surface facility (); - an elongated conducting member having one end connected to the said tank (11; 12; 13); and a free end selectively and temporarily connectable to the surface facility ; - a marker buoy ; - a cable connected to the free end of the elongated conducting member and to the marker buoy ; and - an anchoring device connecting to the bed of the body of water the end portion of the elongated conducting member which is connected to said tank (11; 12; 13). - an underwater station comprising at least one tank (11; 12; 13) configured to contain service fluids; - a surface facility (); - an elongated conducting member having one end connected to the said tank (11; 12; 13); and a free end selectively and temporarily connectable to the surface facility ; - a marker buoy ; - a cable connected to the free end of the elongated conducting member and to the marker buoy ; and - an anchoring device connecting to the bed of the body of water the end portion of the elongated conducting member which is connected to said tank (11; 12; 13).
A computer-implemented method for configuring a graphical user interface, the method comprising: displaying, by a display device , a graphical user interface including an object in a three-dimensional space; receiving first data, the first data comprising a link between a flag (102-106) and a component (112-116) of the object, the flag indicative of an engineering requirement associated with the component of the object ; responsive to receiving the first data, displaying the flag in the 3D space approximate to the component (112-116) of the object ; receiving second data, the second data including a message from the graphical user interface indicative of altering a perspective of the object that conceals the component (112-116) from displaying; and responsive to receiving the second data, providing instructions to remove the flag (102-106) from the graphical user interface. displaying, by a display device , a graphical user interface including an object in a three-dimensional space; receiving first data, the first data comprising a link between a flag (102-106) and a component (112-116) of the object, the flag indicative of an engineering requirement associated with the component of the object ; responsive to receiving the first data, displaying the flag in the 3D space approximate to the component (112-116) of the object ; receiving second data, the second data including a message from the graphical user interface indicative of altering a perspective of the object that conceals the component (112-116) from displaying; and responsive to receiving the second data, providing instructions to remove the flag (102-106) from the graphical user interface.
A method for signalling a request from a driver for a driving function of a motor vehicle to be taken over by an autonomous driving function of the motor vehicle or a request from the autonomous driving function for a driving function of a motor vehicle to be taken over by the driver, wherein the request to take over the driving function is signalled by means of an optical display , the display state of which changes, until the driving function is actually taken over, in such a manner that a measure of the remaining time and/or remaining route until the driving function is taken over as desired can be derived from the current display state, wherein the optical display comprises a luminous area which can be controlled proportionally and is proportionally presented in a first display state on the basis of the remaining time and/or remaining route, characterized in that the luminous area is arranged in a roof region, on a rear wall of a driver's cab, on a side panel or in an outer region of the motor vehicle. wherein the request to take over the driving function is signalled by means of an optical display , the display state of which changes, until the driving function is actually taken over, in such a manner that a measure of the remaining time and/or remaining route until the driving function is taken over as desired can be derived from the current display state, wherein the optical display comprises a luminous area which can be controlled proportionally and is proportionally presented in a first display state on the basis of the remaining time and/or remaining route, characterized
A polarizing lens comprising a polarizing film and a urethane-based lens or a thiourethane-based lens, wherein the polarizing film comprises: a transparent film substrate ; a first polyvinyl alcohol-based resin layer attached on one side of the transparent film substrate by an adhesive layer comprising a non-aqueous adhesive, an aqueous adhesive, or a mixture thereof; and a second polyvinyl alcohol-based resin layer attached on the other side of the transparent film substrate by an adhesive layer comprising a non-aqueous adhesive, an aqueous adhesive, or a mixture thereof, wherein at least one of the first and the second polyvinyl alcohol-based resin layers is a polarizing resin layer. a transparent film substrate ; a first polyvinyl alcohol-based resin layer attached on one side of the transparent film substrate by an adhesive layer comprising a non-aqueous adhesive, an aqueous adhesive, or a mixture thereof; and a second polyvinyl alcohol-based resin layer attached on the other side of the transparent film substrate by an adhesive layer comprising a non-aqueous adhesive, an aqueous adhesive, or a mixture thereof, wherein at least one of the first and the second polyvinyl alcohol-based resin layers is a polarizing resin layer.
A container comprising: a paperboard shell layer about a longitudinal axis (L) and extending from a shell bottom edge to a shell top edge , wherein said shell layer comprises: a body portion extending from said shell bottom edge to a lower line of limitation ; a predetermined removable portion extending from said lower line of limitation to an upper line of limitation ; and a cap portion extending from said upper line of limitation to said shell top edge; and a paperboard core layer extending at least partially about said longitudinal axis and interior to said shell layer, wherein said core layer is joined to said body portion and extends from below said lower line of limitation to above said upper line of limitation; characterised in that said body portion comprises a lobe immediately below said lower line of limitation and has a peripheral exterior length orthogonally about said longitudinal axis immediately below said lobe; wherein said lobe has an lobe exterior length orthogonal to or about said longitudinal axis and said lobe exterior length is more than 5% of said peripheral exterior length; wherein said lobe has a lobe exterior height parallel to said longitudinal axis and said lobe has a lobe exterior length to lobe exterior height ratio greater than 1; and wherein said lobe is configured to function as a wedge to provide for mechanical engagement of the cap portion to the body portion when the container is reclosed. a body portion extending from said shell bottom edge to a lower line of limitation ; a predetermined removable portion extending from said lower line of limitation to an upper line of limitation ; and a cap portion extending from said upper line of limitation to said shell top edge; and a paperboard core layer extending at least partially about said longitudinal axis and interior to said shell layer, wherein said core layer is joined to said body portion and extends from below said lower line of limitation to above said upper line of limitation; characterised in that said body portion comprises a lobe immediately below said lower line of limitation and has a peripheral exterior length orthogonally about said longitudinal axis immediately below said lobe; wherein said lobe has an lobe exterior length orthogonal to or about said longitudinal axis and said lobe exterior length is more than 5% of said peripheral exterior length; wherein said lobe has a lobe exterior height parallel to said longitudinal axis and said lobe has a lobe exterior length to lobe exterior height ratio greater than 1; and wherein said lobe is configured to function as a wedge to provide for mechanical engagement of the cap portion to the body portion when the container is reclosed.
A method of calibrating an imaging system , the imaging system comprising at least three cameras (30; 30a,30b,30c) having a common field of view , wherein each of the at least three cameras (30; 30a,30b,30c) has a camera centre , and wherein the camera centres are positioned along a line, the method comprising: imaging a calibration object with the at least three cameras (30; 30a,30b,30c) to generate a set of calibration object images , wherein the calibration object is located nearby the at least three cameras (30; 30a,30b,30c) and in the common field of view , generating a set of first parameters by processing the set of calibration object images , wherein the set of first parameters comprises a set of intrinsic parameters for the at least three cameras (30; 30a,30b,30c), and imaging a scene comprising a set of distant scene position points with the at least three cameras (30; 30a,30b,30c) to generate a set of position point images , wherein the method is characterized by: receiving a set of position data describing positions of the scene position points , generating a set of second parameters by processing the set of position point images in dependence on the set of intrinsic parameters and the set of position data, wherein the set of second parameters comprises positions estimates for the at least three cameras (30; 30a,30b,30c), and generating a set of calibration parameters in dependence on the set of first parameters, the set of second parameters, and an axiom that each camera centre is positioned along a line being a straight axis , wherein the set of calibration parameters comprises jointly optimized final extrinsic parameters. imaging a calibration object with the at least three cameras (30; 30a,30b,30c) to generate a set of calibration object images , wherein the calibration object is located nearby the at least three cameras (30; 30a,30b,30c) and in the common field of view , generating a set of first parameters by processing the set of calibration object images , wherein the set of first parameters comprises a set of intrinsic parameters for the at least three cameras (30; 30a,30b,30c), and imaging a scene comprising a set of distant scene position points with the at least three cameras (30; 30a,30b,30c) to generate a set of position point images , wherein the method is characterized by: receiving a set of position data describing positions of the scene position points , generating a set of second parameters by processing the set of position point images in dependence on the set of intrinsic parameters and the set of position data, wherein the set of second parameters comprises positions estimates for the at least three cameras (30; 30a,30b,30c), and generating a set of calibration parameters in dependence on the set of first parameters, the set of second parameters, and an axiom that each camera centre is positioned along a line being a straight axis , wherein the set of calibration parameters comprises jointly optimized final extrinsic parameters.
An embolic protection device, said device comprising: an inner sheath having a lumen with a distal opening; an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end , a closed downstream end , a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber; and an outer delivery sheath having a lumen there through configured to restrain the embolic filter in its radially collapsed delivery configuration when the embolic filter is there within, wherein the embolic filter deploys into its radially expanded configuration when the embolic filter is advanced out of the outer delivery sheath; wherein the embolic filter has at least a first port comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through and a second port which is attached to the inner sheath to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter, wherein at least one of the first port and the second port is formed in the closed downstream end of the embolic filter , or wherein both the first port and the second port are formed in the closed downstream end of the embolic filter . an inner sheath having a lumen with a distal opening; an embolic filter comprising a porous mesh material and having a cylindrical outer wall which defines an interior including a collection chamber for capturing emboli, the filter having an open upstream end , a closed downstream end , a radially collapsed delivery configuration, and a radially expanded configuration, wherein the outer wall is configured to contact a blood vessel wall to direct blood flow through the upstream end and emboli into the collection chamber; and an outer delivery sheath having a lumen there through configured to restrain the embolic filter in its radially collapsed delivery configuration when the embolic filter is there within, wherein the embolic filter deploys into its radially expanded configuration when the embolic filter is advanced out of the outer delivery sheath; wherein the embolic filter has at least a first port comprising an expandable opening configured to conform to an outer wall of a first catheter passing there through and a second port which is attached to the inner sheath to allow a second catheter to be advanced through the lumen of the inner sheath to enter the interior of the embolic filter, wherein at least one of the first port and the second port is formed in the closed downstream end of the embolic filter , or wherein both the first port and the second port are formed in the closed downstream end of the embolic filter .
An operation system for bone tissue , comprising a master control unit and an implantation device , wherein the implantation device consists of a first implantation part and a second implantation part , the first implantation part and second implantation part are in communication with the master control unit , the first implantation part comprises a hollowed structure, a fitting structure is arranged in the hollowed structure, at least a portion of an outer side wall of a bottom of the second implantation part is provided with a corresponding fitting structure to be fixedly connected to the fitting structure, such that a first vertebral segment and a second vertebral segment are separated by a space , characterized in that the operation system for bone tissue further comprises an implantation mechanical arm , the master control unit being in communication with the implantation mechanical arm; wherein the implantation mechanical arm is provided with a clamping structure to adapt to the first implantation part and the second implantation part; and the master control unit is configured to control the implantation mechanical arm to clamp the first implantation part to penetrate the first vertebral segment and to be fixedly connected to same, so as to form a spacing distance between the first vertebral segment and the second vertebral segment , and further the master control unit is configured to control the implantation mechanical arm to clamp the second implantation part to penetrate the first implantation part and to be fixedly connected to same and the second vertebral segment, wherein the operation system for bone tissue further comprises an auxiliary image device in communication with the master control unit, wherein the master control unit is configured to store spacing distance range reference data; the auxiliary image device is configured to acquire real-time location information of the first vertebral segment and the second vertebral segment and to feed same back to the master control unit; and the master control unit is configured to determine whether the spacing distance conforms to the spacing distance range reference data according to the real-time location information; and to control the spacing distance to conform to the spacing distance range reference data.
A folding propeller for a boat, e.g. for a sailboat or a multihull yacht, where said folding propeller comprises a hub for directly or indirectly fastening at a driveshaft connected to a motor, where said folding propeller further comprises at least three individual blades , where each of said blades comprises a blade root arranged to pivot around a separate pivot pin , at said hub in order to be either in a first and operative position, where the blade is pointing mainly in a radial direction, or in a second and inoperative position, where the blade is pointing mainly in an axial direction, where said pivot pin comprises a first and second end , where said hub comprises a cut out for each of said blade roots , and further comprises a set of holes for installing said pivot pins , where each of the holes in said set of holes for installing the pivot pins are interconnected with an adjacent hole for installation of a separate pivot pin , where two adjacent holes at one end are arranged in a common aperture , called a lockbox seat , where said lockbox seat serves as installation opening for two adjacent pivot pins , characterised in, that the two adjacent installed pivot pins at the respective ends comprise means for engagement with a common lockbox which locks two adjacent pivot pins from being separated and forms a closed structure that holds the propeller blades at the blade roots of the propeller.