mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter-based imaging system, comprising: a catheter having a telescoping proximal end, a distal end having a distal sheath and an imaging distal lumen (4; 5) having an imaging window, a working lumen (44; 45) having an exit port (46; 47) located proximal to the imaging window, and an ultrasonic imaging core , the ultrasonic imaging core being arranged for rotation and linear translation, a patient interface module including a catheter interface , means for linear translation and rotation of the ultrasound imaging core, a motion control module in electrical communication with the imaging engine and in electrical communication with the means for linear translation and rotation, and an ultrasonic energy generator and receiver coupled to the ultrasonic imaging core; and an imaging engine coupled to the ultrasonic energy receiver intended to generate an image, wherein the means for linear translation and rotation include a rotational motor arranged to impart controlled rotation to the ultrasonic imaging core and a linear piezomotor (2402; 2460) comprising a motor housing and a rod , the linear piezomotor arranged to impart controlled, cyclical, linear bidirectional translation to the ultrasonic imaging core, and wherein the patient interface module includes a translation stage , the translational stage and piezomotor housing being fixedly attached and the linear piezomotor is configured to linearly translate the translational stage by the piezomotor housing and fixedly attached translation stage moving along the rod . a catheter having a telescoping proximal end, a distal end having a distal sheath and an imaging distal lumen (4; 5) having an imaging window, a working lumen (44; 45) having an exit port (46; 47) located proximal to the imaging window, and an ultrasonic imaging core , the ultrasonic imaging core being arranged for rotation and linear translation, a patient interface module including a catheter interface , means for linear translation and rotation of the ultrasound imaging core, a motion control module in electrical communication with the imaging engine and in electrical communication with the means for linear translation and rotation, and an ultrasonic energy generator and receiver coupled to the ultrasonic imaging core; and an imaging engine coupled to the ultrasonic energy receiver intended to generate an image, wherein the means for linear translation and rotation include a rotational motor arranged to impart controlled rotation to the ultrasonic imaging core and a linear piezomotor (2402; 2460) comprising a motor housing and a rod , the linear piezomotor arranged to impart controlled, cyclical, linear bidirectional translation to the ultrasonic imaging core, and wherein the patient interface module includes a translation stage , the translational stage and piezomotor housing being fixedly attached and the linear piezomotor is configured to linearly translate the translational stage by the piezomotor housing and fixedly attached translation stage moving along the rod .
A method to produce ceramic-bonded diamond composite particles, the method comprising: forming a diamond feedstock including a plurality of diamond grains and silicon particles; subjecting the diamond feedstock to at least one pre-consolidation process to form a granule; forming a densified compact in a consolidation process using the granule, the densified compact including ceramic-bonded diamond composite material, and mechanically processing the densified compact in a post-consolidation process in which a plurality of ceramic-bonded diamond composite particles are formed, wherein the ceramic-bonded diamond composite particles include a plurality of diamond grains and silicon carbide reaction bonded to the diamond grains, and wherein a composition of the ceramic-bonded diamond composite particle includes 60-90 wt.%, preferably 70-90 wt.%, more preferably 79-81 wt.%, more preferably 80 wt.% diamond, 10-40 wt.% silicon carbide, ≤2 wt.% silicon, wherein the ceramic-bonded diamond composite particles have a mesh size of between 400 micron (40/50) and 35 micron (400/500) and a toughness index of between 40 and 100 as measured at room temperature using a standard friability test that involves ball milling a quantity of product under controlled conditions and sieving the residue to measure particlesize reduction, where 100 is the highest toughness. forming a diamond feedstock including a plurality of diamond grains and silicon particles; subjecting the diamond feedstock to at least one pre-consolidation process to form a granule; forming a densified compact in a consolidation process using the granule, the densified compact including ceramic-bonded diamond composite material, and mechanically processing the densified compact in a post-consolidation process in which a plurality of ceramic-bonded diamond composite particles are formed, wherein the ceramic-bonded diamond composite particles include a plurality of diamond grains and silicon carbide reaction bonded to the diamond grains, and wherein a composition of the ceramic-bonded diamond composite particle includes 60-90 wt.%, preferably 70-90 wt.%, more preferably 79-81 wt.%, more preferably 80 wt.% diamond, 10-40 wt.% silicon carbide, ≤2 wt.% silicon, wherein the ceramic-bonded diamond composite particles have a mesh size of between 400 micron (40/50) and 35 micron (400/500) and a toughness index of between 40 and 100 as measured at room temperature using a standard friability test that involves ball milling a quantity of product under controlled conditions and sieving the residue to measure particlesize reduction, where 100 is the highest toughness.
A method of forming a medical device comprising a conductive graphene film, the method comprising: forming a graphene film over a substrate ; depositing, by gas phase deposition, a polymer material covering a surface of the graphene film ; removing the substrate from the graphene film , wherein the polymer material forms a support for the graphene film . forming a graphene film over a substrate ; depositing, by gas phase deposition, a polymer material covering a surface of the graphene film ; removing the substrate from the graphene film , wherein the polymer material forms a support for the graphene film .
A method for increasing the cold-starting capability and the load application and performance capacity of aircraft with simultaneous oxygen depletion of the system exhaust, an infeed air being compressed in a compressor of an inertization system and being fed into a gas separator of the inertization system , out of which an oxygen-enriched gas and a nitrogen-enriched gas are discharged, wherein a cathode off-gas is further discharged from a fuel cell and is condensed by a condenser , wherein water is separated out of the condensed cathode off-gas by a water separator , wherein the oxygen-enriched gas is fed through a cathode inlet of a fuel cell into the fuel cell , and wherein a partial pressure of oxygen and water vapor in the oxygen-enriched gas and the amount of the provided gas are iteratively adjusted to the relevant values corresponding to the required power capacity of the fuel cell .
A device for generating electric energy, the device comprising: a panel for receiving incident light and being at least partially transmissive for visible light, the panel having first and second surfaces and having a peripheral region comprising at least one edge and/or corner , the panel being arranged such that a portion of light incident on the panel is redirected within the panel towards the peripheral region of the panel; characterized in that it further comprises a flexible photovoltaic element comprising first and second portions separated by a bend , the bend being located adjacent the edge or corner of the panel whereby the first and second portions of the flexible photovoltaic element are disposed with different orientations within the device. a panel for receiving incident light and being at least partially transmissive for visible light, the panel having first and second surfaces and having a peripheral region comprising at least one edge and/or corner , the panel being arranged such that a portion of light incident on the panel is redirected within the panel towards the peripheral region of the panel; characterized in that it further comprises a flexible photovoltaic element comprising first and second portions separated by a bend , the bend being located adjacent the edge or corner of the panel whereby the first and second portions of the flexible photovoltaic element are disposed with different orientations within the device.
A crematorium furnace , comprising a primary combustion chamber provided with a door for introducing a coffin , a secondary combustion chamber connected to said primary chamber , at least one primary burner associated with said primary chamber , at least one secondary burner associated with said secondary chamber , a cremation hearth , and a stack , characterized in that it comprises first injection means , adapted to introduce, in use, a gaseous oxidizing agent comprising oxygen directly inside said coffin , and ignition means , adapted to trigger a combustion process inside said coffin .
A vessel for supporting a comestible item in an oven cavity , the oven cavity having irradiation arrays that emit visible or infrared irradiation at desired narrow wavelength bands, the vessel comprising: a vessel location feature to locate the vessel in a position in the oven cavity relative to the irradiation arrays to facilitate irradiation of the comestible for cooking by the irradiation arrays , wherein the vessel is comprised of a material that is optically transmissive at the visible or infrared narrow wavelength bands of irradiation emitted by the irradiation arrays characterized in that the vessel is provided with a turn-on key to activate the oven cavity for cooking. a vessel location feature to locate the vessel in a position in the oven cavity relative to the irradiation arrays to facilitate irradiation of the comestible for cooking by the irradiation arrays , wherein the vessel is comprised of a material that is optically transmissive at the visible or infrared narrow wavelength bands of irradiation emitted by the irradiation arrays characterized in that the vessel is provided with a turn-on key to activate the oven cavity for cooking.
A porous composite film comprising a porous substrate and a porous layer laminated on at least one surface of the porous substrate, wherein the porous layer contains a fluorine-containing resin and a ceramic, and satisfies the following requirements (i), (ii), (iii) and (iv): (i) the porous layer contains a polymer containing a vinyliden fluoride unit as the fluorine-containing resin; (ii) a value of D 1 50 of a cross-sectional void area distribution of the porous layer is 0.06 μm 2 or more and 0.38 μm 2 or less, and a value of D 1 90 of the cross-sectional void area distribution of the porous layer is 0.20 μm 2 or more and 1.15 μm 2 or less; (iii) a value of D 2 50 of a surface pore area distribution of the porous layer is 0.0060 μm 2 or more and 0.0072 μm 2 or less, and a value of D 2 90 of the surface pore area distribution of the porous layer is 0.0195 μm 2 or more and 0.0220 μm 2 or less; and (iv) porosity of the porous layer is 50% or more and 70% or less, and wherein D 1 50, D 1 90, D 2 50, D 2 90 and the porosity are determined as defined in the description. (i) the porous layer contains a polymer containing a vinyliden fluoride unit as the fluorine-containing resin; (ii) a value of D 1 50 of a cross-sectional void area distribution of the porous layer is 0.06 μm 2 or more and 0.38 μm 2 or less, and a value of D 1 90 of the cross-sectional void area distribution of the porous layer is 0.20 μm 2 or more and 1.15 μm 2 or less; (iii) a value of D 2 50 of a surface pore area distribution of the porous layer is 0.0060 μm 2 or more and 0.0072 μm 2 or less, and a value of D 2 90 of the surface pore area distribution of the porous layer is 0.0195 μm 2 or more and 0.0220 μm 2 or less; and (iv) porosity of the porous layer is 50% or more and 70% or less, and wherein
Final-die device for shaping extruded rubber compounds to form an overall rubber element , comprising a first flow channel , wherein - the final-die device has two, three, four, five, six or more vertically displaceable components in the first flow channel , wherein a plurality of the displaceable components have in a cross section along the direction of extrusion a U shape suitable for vertical guidance of the vertically displaceable components , wherein a plurality or each of the displaceable components has/have in a cross section along the direction of extrusion a U shape suitable for vertical guidance of the vertically displaceable components , wherein the vertically displaceable components have in the U shape two straight legs in the same direction of extent and the two straight legs are connected to one another on the underside by a connecting piece, characterized in that the two straight legs are arranged such that the two straight legs of the vertically displaceable components in the U shape lie one behind the other in the direction of extrusion . - the final-die device has two, three, four, five, six or more vertically displaceable components in the first flow channel , wherein a plurality of the displaceable components have in a cross section along the direction of extrusion a U shape suitable for vertical guidance of the vertically displaceable components ,
A tower section arrangement for a guyed tower of a wind turbine , the tower section arrangement comprising: a tower section including a wall having an outer surface with a circumference , at least two brackets attached to the outer surface of the wall at different locations (A, B, C) on its circumference , and at least two stay cables , wherein each stay cable is connected at its first end to one of the brackets and is configured for connection at its second end to a cable foundation , wherein an angle (α) between each stay cable and a tangent to the outer circumference at the respective bracket has, in a top view of the erected wind turbine , a value of 90° when the respective stay cable is guyed, and wherein the tower section arrangement comprises attachment means welded to the outer surface of the wall , and the at least two brackets are bolted to the attachment means , or the tower section wall includes wall through holes , and the at least two brackets are bolted to the outer surface of the wall by means of bolts inserted through the wall through holes . a tower section including a wall having an outer surface with a circumference , at least two brackets attached to the outer surface of the wall at different locations (A, B, C) on its circumference , and at least two stay cables , wherein each stay cable is connected at its first end to one of the brackets and is configured for connection at its second end to a cable foundation , wherein an angle (α) between each stay cable and a tangent to the outer circumference at the respective bracket has, in a top view of the erected wind turbine , a value of 90° when the respective stay cable is guyed, and wherein the tower section arrangement comprises attachment means welded to the outer surface of the wall , and the at least two brackets are bolted to the attachment means , or the tower section wall includes wall through holes , and the at least two brackets are bolted to the outer surface of the wall by means of bolts inserted through the wall through holes .
A method, comprising: at an electronic device with a display and a touch-sensitive surface: displaying a first page of a user interface and a first set of paging affordances, wherein the first set of paging affordances comprises a first paging affordance that includes a focus selector, and wherein the first paging affordance corresponds to the first page of the user interface; receiving a user touch at a first location on the touch-sensitive surface, wherein the first location is associated with the first set of paging affordances; in response to receiving the user touch at the first location, replacing display of the first set of paging affordances with display of a second set of paging affordances, wherein the second set of paging affordances comprises a second paging affordance that corresponds to a second page of the user interface; while continuing to receive the user touch, detecting movement of the user touch from the first location to a second location on the touch-sensitive surface without a break in contact of the user touch on the touch-sensitive surface, wherein the second location is associated with the second paging affordance; in response to detecting the user touch at the second location and while continuing to receive the user touch, displaying the second page of the user interface; while displaying the second page of the user interface, detecting a lift-off of the user touch from the touch-sensitive surface at the second location; and in response to detecting the lift-off of the user touch at the second location, maintaining display of the second page of the user interface. displaying a first page of a user interface and a first set of paging affordances, wherein the first set of paging affordances comprises a first paging affordance that includes a focus selector, and wherein the first paging affordance corresponds to the first page of the user interface; receiving a user touch at a first location on the touch-sensitive surface, wherein the first location is associated with the first set of paging affordances; in response to receiving the user touch at the first location, replacing display of the first set of paging affordances with display of a second set of paging affordances, wherein the second set of paging affordances comprises a second paging affordance that corresponds to a second page of the user interface; while continuing to receive the user touch, detecting movement of the user touch from the first location to a second location on the touch-sensitive surface without a break in contact of the user touch on the touch-sensitive surface, wherein the second location is associated with the second paging affordance; in response to detecting the user touch at the second location and while continuing to receive the user touch, displaying the second page of the user interface; while displaying the second page of the user interface, detecting a lift-off of the user touch from the touch-sensitive surface at the second location; and in response to detecting the lift-off of the user touch at the second location, maintaining display of the second page of the user interface.
An aluminium cradle (BA), intended to equip a vehicle and including a crossmember (TB) extending along a transverse direction and comprising two ends which are opposite with respect to one another and at each of which there are fixedly secured i) an extruded front anchoring part (PAV) along said transverse direction and including two vertical walls (PV) provided with holes defining an anchoring point (PA1), along a longitudinal direction perpendicular to said transverse direction, for the anchoring of a front part (PVT) of a wheel carrier, and ii) a rear extension (PB) including two horizontal wings (AH) provided with holes defining another anchoring point (PA3), along a vertical direction, for the anchoring of a rear part (PRT) of said wheel carrier, characterized in that at least one of said vertical walls (PV) of each front anchoring part (PAV) and said horizontal wings (AH) of each rear extension (PB) include respectively first (MG1) and second (MG2) guiding means, guiding respectively said front parts (PVT) and rear parts (PRT) of the corresponding wheel carrier during their respective positionings with respect to said anchoring points (PA1, PA3).
A wireless network device comprising: a transceiver configured to receive a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network; a processor configured to generate an announce message that includes the network topology and the interface information; the transceiver configured to transmit the announce message to unblocked hello peers of the wireless network device ; the transceiver configured to receive, on a wired interface from another node, a hello message, wherein the wireless network device and the another node are determined to be link layer island heads based on the received hello message being received on the wired interface, and wherein the wired interface is utilized for further communication between the island heads; and the processor configured to identify immediate wireless neighbor nodes, wherein immediate wireless neighbor nodes having a least path cost are associated with the wireless network device , and link layer wireless links with wireless neighbor nodes associated with a different link layer island head are blocked; wherein the wireless network device is configured to dynamically determine link layer island heads based on future hello messages being received on a wired interface, and to dynamically identify other immediate wireless neighbor nodes to block based on an associated path cost. a transceiver configured to receive a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network; a processor configured to generate an announce message that includes the network topology and the interface information; the transceiver configured to transmit the announce message to unblocked hello peers of the wireless network device ; the transceiver configured to receive, on a wired interface from another node, a hello message, wherein the wireless network device and the another node are determined to be link layer island heads based on the received hello message being received on the wired interface, and wherein the wired interface is utilized for further communication between the island heads; and the processor configured to identify immediate wireless neighbor nodes, wherein immediate wireless neighbor nodes having a least path cost are associated with the wireless network device , and link layer wireless links with wireless neighbor nodes associated with a different link layer island head are blocked; wherein the wireless network device is configured to dynamically determine link layer island heads based on future hello messages being received on a wired interface, and to dynamically identify other immediate wireless neighbor nodes to block based on an associated path cost.