mhurhangee/patent-ind-claim-en huggingface dataset:
A ventricular assist device for improving blood flow in a mammal, wherein said ventricular assist device comprises: (a) a conduit , wherein said conduit comprises a proximal region , a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said first and second compartments of the cardiovascular system of said mammal, and (b) a pump having a pump inflow and a pump outflow, wherein said pump is adapted to be positioned within said conduit with said pump inflow near the distal region of the conduit and located in the first compartment of the cardiovascular system and said pump outflow near the proximal region of the conduit within a second compartment of the cardiovascular system, said pump passing from said first compartment into said second compartment. (a) a conduit , wherein said conduit comprises a proximal region , a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said first and second compartments of the cardiovascular system of said mammal, and (b) a pump having a pump inflow and a pump outflow, wherein said pump is adapted to be positioned within said conduit with said pump inflow near the distal region of the conduit and located in the first compartment of the cardiovascular system and said pump outflow near the proximal region of the conduit within a second compartment of the cardiovascular system, said pump passing from said first compartment into said second compartment.
A processor comprising a plurality of block-based physical processor cores for Explicit Data Graph Execution (EDGE) instructions set architecture executing a program comprising a plurality of instruction blocks, each block-based physical processor core comprising: a branch predictor configured to select an instruction block of the plurality of instruction blocks to be speculatively executed by a logical processor; and a programmable composition topology register for assigning physical processor cores of the plurality of block-based physical processor cores to the logical processor, the programmable composition topology register dynamically programmable during execution of the program, wherein the composition topology register comprises a composition field and a mode field for specifying a meaning of the composition field, the composition field providing a bit-map of the physical processor cores of the logical processor when the mode field is programmed with a first value, and the composition field providing the number of the physical processor cores of the logical processor when the mode field is programmed with a second value, wherein the number of physical processor cores is used to automatically assign physical processor cores based on a topology of the processor by using a fixed mapping of physical processor cores to logical processors for a given size of the logical processor, such that groups of physical processor cores are assigned which are within a predefined row, column, or quad of their physical positions within the topology of the processor. a branch predictor configured to select an instruction block of the plurality of instruction blocks to be speculatively executed by a logical processor; and a programmable composition topology register for assigning physical processor cores of the plurality of block-based physical processor cores to the logical processor, the programmable composition topology register dynamically programmable during execution of the program, wherein the composition topology register comprises a composition field and a mode field for specifying a meaning of the composition field, the composition field providing a bit-map of the physical processor cores of the logical processor when the mode field is programmed with a first value, and the composition field providing the number of the physical processor cores of the logical processor when the mode field is programmed with a second value, wherein the number of physical processor cores is used to automatically assign physical processor cores based on a topology of the processor by using a fixed mapping of physical processor cores to logical processors for a given size of the logical processor, such that groups of physical processor cores are assigned which are within a predefined row, column, or quad of their physical positions within the topology of the processor.
A gasification reactor comprising (a) a gasifier with a tubular gastight wall arranged within a pressure vessel , wherein (b) the gasification reactor comprises one or more pressure responsive devices , characterized in that the one or more pressure responsive devices comprises (c) a sleeve with a cooled section extending outwardly from an opening in the gastight wall; and wherein (d) a ram is slideable within the sleeve between a first position closing off the sleeve, and a second position wherein the sleeve is at least partly open to form a passage from one side of the gastight gasifier wall to the other side. (a) a gasifier with a tubular gastight wall arranged within a pressure vessel , wherein (b) the gasification reactor comprises one or more pressure responsive devices , characterized in that the one or more pressure responsive devices comprises (c) a sleeve with a cooled section extending outwardly from an opening in the gastight wall; and wherein (d) a ram is slideable within the sleeve between a first position closing off the sleeve, and a second position wherein the sleeve is at least partly open to form a passage from one side of the gastight gasifier wall to the other side.
A catheter assembly kit comprising: an elongate tube and a hub member configured to be coupled to the elongate tube by a user; a cutting tool configured to sever the elongate tube; a flare tool configured to flare an end of the elongate tube; characterised in that a body member is coupled to the flare tool and the cutting tool; wherein rotation of the body member about the elongate tube is configured to simultaneously flare and sever the elongate tube. an elongate tube and a hub member configured to be coupled to the elongate tube by a user; a cutting tool configured to sever the elongate tube; a flare tool configured to flare an end of the elongate tube; characterised in that a body member is coupled to the flare tool and the cutting tool; wherein rotation of the body member about the elongate tube is configured to simultaneously flare and sever the elongate tube.
A vehicle engine comprising a camshaft, an output device, and a force transfer arrangement for transferring a force from the rotating camshaft to the output device , the force transfer arrangement comprising: a first transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the first transfer element is rotationally attached adjacent to the camshaft and is rotatable about a rotation axis , wherein the first transfer element includes a contact portion being in contact with the camshaft, and a transfer portion , wherein when the contact portion is pushed away from a rotation axis of the camshaft, the transfer portion is arranged to move in a substantially opposite direction to thereby transfer force to the output device, wherein the first transfer portion is arranged to push on a linkage arm when the first transfer element rotates, to thereby transfer force from one side of the camshaft to the output device; a second transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the second force transfer element is arranged to be linearly displaced when the camshaft rotates, to transfer force to the output element; wherein the first transfer element and the second transfer element are arranged to be pushed by lobes arranged on opposite sides of the camshaft; wherein the forces on the camshaft caused by the first transfer element and the second transfer element when transferring forces to the output element, are in substantially opposite directions. a first transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the first transfer element is rotationally attached adjacent to the camshaft and is rotatable about a rotation axis , wherein the first transfer element includes a contact portion being in contact with the camshaft, and a transfer portion , wherein when the contact portion is pushed away from a rotation axis of the camshaft, the transfer portion is arranged to move in a substantially opposite direction to thereby transfer force to the output device, wherein the first transfer portion is arranged to push on a linkage arm when the first transfer element rotates, to thereby transfer force from one side of the camshaft to the output device; a second transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the second force transfer element is arranged to be linearly displaced when the camshaft rotates, to transfer force to the output element; wherein the first transfer element and the second transfer element are arranged to be pushed by lobes arranged on opposite sides of the camshaft; wherein the forces on the camshaft caused by the first transfer element and the second transfer element when transferring forces to the output element, are in substantially opposite directions.
A closure comprising a screw cap with a guarantee band , which has at least one cylindrical cap skirt with an internal thread and a circumferential guarantee band at the lower, open end of the cap skirt , which is connected to the lower rim of the cap skirt along easily tearable weakening lines , wherein the guarantee band , after tearing along the weakening lines, remains non-detachably connected to the cap skirt via holding bands , wherein the closure is designed for use on an opening connection piece of a carton package, wherein the closure has a closure base with a circumferential flange which can be connected in a sealed manner to the surface of a carton package, and a cylindrical pouring spout which adjoins the flange and has an upper outer opening and a lower inner opening, wherein the closure is further equipped with the screw cap with the internal thread which can be screwed onto an external thread of the pouring spout wherein the closure is provided with a cutting ring arranged in the pouring spout and having at least one axially inwardly projecting cutting edge at its lower rim, wherein the closure is provided with an axial lifting and entraining device on the cutting ring and the screw cap, which comprises an entraining element attached to the inside of the screw cap and an axial lifting device which, when the screw cap is rotated in the opening direction, moves the cutting ring axially in the direction of the lower opening and in the circumferential direction and thereby introduces an at least partially circular circumferential cut into the container surface, characterised in that the holding bands are formed by two weakening lines which are each interrupted at least once in the circumferential direction, partially overlap in the circumferential direction and extend at least in the overlap region at an axial distance from one another, wherein the separating webs of both weakening lines are bridged by the respective other weakening line at an axial distance.
A non-locating bearing arrangement for supporting one side of a trunnion ring of a converter , the arrangement comprising a toroidal roller bearing mounted in a split housing having a top half and a bottom half, whereby an inner ring of the bearing is fixedly mounted to a trunnion of the trunnion ring and an outer ring of the bearing is mounted to a bore of the housing , the bearing arrangement further comprising: • a first spacer ring mounted in axial abutment between a first side part of the housing and an opposing end face of the outer bearing ring ; • a second spacer ring mounted in axial abutment between a second side part of the housing and an opposing end face of the outer bearing ring ; and • a locating element comprising a main body part and a protrusion , whereby the main body part is accommodated within a recess within the housing and has a plane of symmetry that coincides with a centre plane through the housing and whereby the protrusion is adapted to fit in a lubrication hole provided in the outer ring at an axially central location thereof; characterized in that: - the first spacer ring has an axial width (s1) greater than an axial width (s2) of the second spacer ring , and - the protrusion has a plane of symmetry that is parallel to and axially offset from the housing centre plane by an amount equal to (s1 - s2)/2. • a first spacer ring mounted in axial abutment between a first side part of the housing and an opposing end face of the outer bearing ring ; • a second spacer ring mounted in axial abutment between a second side part of the housing and an opposing end face of the outer bearing ring ; and • a locating element comprising a main body part and a protrusion , whereby the main body part is accommodated within a recess within the housing and has a plane of symmetry that coincides with a centre plane through the housing and whereby the protrusion is adapted to fit in a lubrication hole provided in the outer ring at an axially central location thereof; - the first spacer ring has an axial width (s1) greater than an axial width (s2) of the second spacer ring , and - the protrusion has a plane of symmetry that is parallel to and axially offset from the housing centre plane by an amount equal to (s1 - s2)/2.
A napped artificial leather, comprising: a non-woven fabric containing polyester fibers having an average fineness of 0.07 to 0.9 dtex; and an elastic polymer applied in the non-woven fabric, wherein the polyester fibers contain 0.5 to 10 mass% of carbon black, wherein the napped artificial leather has a napped surface on which the polyester fibers on at least one side thereof are napped, and the napped surface has a lightness L* value, based on the L*a*b* color system, of ≤ 20, wherein the napped artificial leather has a peel strength of 3 kg/cm or more, and a grade of color difference, determined using a Grey scale for assessing staining in an evaluation of color migration to a multifiber adjacent fabric during pressurization under heating in a wet state under a load of 4 kPa at 200°C for 60 seconds, of 4 or more, and wherein the peel strength is measured as set out in paragraph of the description and the evaluation of color migration in a wet state is performed as set out in paragraph of the description. a non-woven fabric containing polyester fibers having an average fineness of 0.07 to 0.9 dtex; and an elastic polymer applied in the non-woven fabric, wherein the polyester fibers contain 0.5 to 10 mass% of carbon black, wherein the napped artificial leather has a napped surface on which the polyester fibers on at least one side thereof are napped, and the napped surface has a lightness L* value, based on the L*a*b* color system, of ≤ 20, wherein the napped artificial leather has a peel strength of 3 kg/cm or more, and a grade of color difference, determined using a Grey scale for assessing staining in an evaluation of color migration to a multifiber adjacent fabric during pressurization under heating in a wet state under a load of 4 kPa at 200°C for 60 seconds, of 4 or more, and wherein the peel strength is measured as set out in paragraph of the description and the evaluation of color migration in a wet state is performed as set out in paragraph of the description.
Method for determining at least one spatial coordinate of a measurement point of a local structure of an object , providing a mobile coordinate measuring machine , the method comprising at least - placing the mobile coordinate measuring machine on a surface of the object to be measured, so that the coordinate measuring machine stands on the surface autonomously, - approaching the measurement point with a sensing head , and - determining at least one spatial coordinate of the at least one measurement point, characterized by - autonomously positioning the mobile coordinate measuring machine relative to the local structure by moving articulated legs of the mobile coordinate measuring machine , each leg comprising a set of leg members that are movable with respect to another; and - establishing a defined spatial relation between the coordinate measuring machine and the local structure by continuously determining a position and orientation of the coordinate measuring machine relative to the object using at least one laser tracker having a camera, wherein - the coordinate measuring machine comprises a retro-reflector and active or passive lighting means that are arranged in a known configuration, - a distance to the retro-reflector is measured by the laser tracker to derive the position of the coordinate measuring machine , and - the lighting means are detected by the camera of the laser tracker to derive the orientation of the coordinate measuring machine . - placing the mobile coordinate measuring machine on a surface of the object to be measured, so that the coordinate measuring machine stands on the surface autonomously, - approaching the measurement point with a sensing head , and - determining at least one spatial coordinate of the at least one measurement point, characterized by - autonomously positioning the mobile coordinate measuring machine relative to the local structure by moving articulated legs of the mobile coordinate measuring machine , each leg comprising a set of leg members that are movable with respect to another; and - establishing a defined spatial relation between the coordinate measuring machine and the local structure by continuously determining a position and orientation of the coordinate measuring machine relative to the object using at least one laser tracker having a camera, wherein - the coordinate measuring machine comprises a retro-reflector and active or passive lighting means that are arranged in a known configuration, - a distance to the retro-reflector is measured by the laser tracker to derive the position of the coordinate measuring machine , and - the lighting means are detected by the camera of the laser tracker to derive the orientation of the coordinate measuring machine .
A walk behind working machine including: a driving motor , at least one wheel , and a clutch assembly interposed between said driving motor and said wheel, wherein said clutch assembly is movable between a coupled configuration in which said clutch assembly is coupled with an output of said driving motor for transmitting power from said driving motor to said at least one wheel and an uncoupled configuration in which said clutch assembly is uncoupled from said output of said driving motor, characterized in further including a control assembly operable to simultaneously activate said driving motor and move said clutch assembly from said uncoupled configuration to said coupled configuration, wherein said control assembly includes a mechanical or electrical actuator operable to move an actuating member to move in a first direction to act on a switch to activate said driving motor and to simultaneously bring the clutch assembly in the coupled condition. a driving motor , at least one wheel , and a clutch assembly interposed between said driving motor and said wheel, wherein said clutch assembly is movable between a coupled configuration in which said clutch assembly is coupled with an output of said driving motor for transmitting power from said driving motor to said at least one wheel and an uncoupled configuration in which said clutch assembly is uncoupled from said output of said driving motor, characterized in further including a control assembly operable to simultaneously activate said driving motor and move said clutch assembly from said uncoupled configuration to said coupled configuration, wherein said control assembly includes a mechanical or electrical actuator operable to move an actuating member to move in a first direction to act on a switch to activate said driving motor and to simultaneously bring the clutch assembly in the coupled condition.
A friction disk comprising: a friction disk core having a first surface with multiple channels extending radially across the first surface; a first wear liner having at least two wear liner segments each configured to be coupled to the first surface of the friction disk core to form an annular liner and each including a wear surface , a non-wear surface , and a rib extending from the non-wear surface and configured to be received by one of the multiple channels ; the friction disk core further having a second surface and including multiple channels extending radially across the second surface ; and a second wear liner configured to be coupled to the second surface of the friction disk core , wherein the second wear liner includes at least two wear liner segments that form an annular liner when coupled to the friction disk core , each including a wear surface , a non-wear surface , and a rib extending from the non-wear surface and configured to be received by one of the multiple channels , the friction disk further comprising at least two fasteners each configured to extend through the friction disk core and respective segments of the first wear liner and the second wear liner , characterized by : openings , in each of the wear liners , which are pass-through holes or pass-through apertures extending completely through the respective wear liner from the wear surface to the non-wear surface through the ribs , the openings configured to receive the fasteners , the openings including a counterbore defined in the wear surface . a friction disk core having a first surface with multiple channels extending radially across the first surface; a first wear liner having at least two wear liner segments each configured to be coupled to the first surface of the friction disk core to form an annular liner and each including a wear surface , a non-wear surface , and a rib extending from the non-wear surface and configured to be received by one of the multiple channels ; the friction disk core further having a second surface and including multiple channels extending radially across the second surface ; and a second wear liner configured to be coupled to the second surface of the friction disk core , wherein the second wear liner includes at least two wear liner segments that form an annular liner when coupled to the friction disk core , each including a wear surface , a non-wear surface , and a rib extending from the non-wear surface and configured to be received by one of the multiple channels , the friction disk further comprising at least two fasteners each configured to extend through the friction disk core and respective segments of the first wear liner and the second wear liner , characterized by : openings , in each of the wear liners , which are pass-through holes or pass-through apertures extending completely through the respective wear liner from the wear surface to the non-wear surface through the ribs , the openings configured to receive the fasteners , the openings including a counterbore defined in the wear surface .