mhurhangee/patent-ind-claim-en huggingface dataset:
An investment casting system comprising: a core having at least one fine detail ; a shell positioned relative to said core ; and a strengthening coating applied at least to said at least one fine detail , characterised in that : the core includes at least one additively manufactured component; an exterior surface roughness of the strengthening coating is less than a surface roughness of the core ; said core comprises at least two distinct core components ; and said strengthening coating maintains a relative position of the at least two distinct core components . a core having at least one fine detail ; a shell positioned relative to said core ; and a strengthening coating applied at least to said at least one fine detail , the core includes at least one additively manufactured component; an exterior surface roughness of the strengthening coating is less than a surface roughness of the core ; said core comprises at least two distinct core components ; and said strengthening coating maintains a relative position of the at least two distinct core components .
A device for imaging of a microscopic object , the device comprising: an array of light sensitive areas , each of the light sensitive areas being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source comprising at least a first point of operation in which the at least one light source is configured to generate light in a visible part of the wavelength range, and a second point of operation in which the at least one light source is configured to generate light in an infrared part of the wavelength range, the at least one light source being arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object , forming scattered light; wherein the device is configured to transmit the scattered light and non-scattered light, from the same light source , to the array of light sensitive areas , wherein the array of light sensitive areas is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light; and wherein the device is further configured to be set in a selected point of operation from the at least first and second points of operation, for detecting the interference pattern for imaging the microscopic object at a wavelength defined by the selected point of operation. an array of light sensitive areas , each of the light sensitive areas being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source comprising at least a first point of operation in which the at least one light source is configured to generate light in a visible part of the wavelength range, and a second point of operation in which the at least one light source is configured to generate light in an infrared part of the wavelength range, the at least one light source being arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object , forming scattered light; wherein the device is configured to transmit the scattered light and non-scattered light, from the same light source , to the array of light sensitive areas , wherein the array of light sensitive areas is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light; and wherein the device is further configured to be set in a selected point of operation from the at least first and second points of operation, for detecting the interference pattern for imaging the microscopic object at a wavelength defined by the selected point of operation.
A delivery sheath system for percutaneous delivery and implantation of a self-expanding prosthetic heart valve , the delivery sheath system comprising: a sheath member defining a tubular structure extending between a proximal end and a distal end of the sheath member ; a tip portion provided at the distal end of the sheath member , the tip portion having a central lumen extending therethrough, wherein at least one cross-sectional segment of an inner surface of the tip portion includes alternating portions of concave and convex curvature ; wherein the portions of concave and convex curvature extend longitudinally along the tip portion ; wherein a diameter of the inner surface of the tip portion at a distal end of the tip portion is greater than a diameter of the inner surface at a proximal end of the tip portion creating a decreasing tapered surface extending between the distal end and the proximal end of the tip portion , wherein the tapered inner surface of the tip portion including the portions of concave and convex curvature is configured to fold or crimp the heart valve during withdrawal into the sheath member and to counteract an outward radial force of the self-expanding heart valve . a sheath member defining a tubular structure extending between a proximal end and a distal end of the sheath member ; a tip portion provided at the distal end of the sheath member , the tip portion having a central lumen extending therethrough, wherein at least one cross-sectional segment of an inner surface of the tip portion includes alternating portions of concave and convex curvature ; wherein the portions of concave and convex curvature extend longitudinally along the tip portion ; wherein a diameter of the inner surface of the tip portion at a distal end of the tip portion is greater than a diameter of the inner surface at a proximal end of the tip portion creating a decreasing tapered surface extending between the distal end and the proximal end of the tip portion , wherein the tapered inner surface of the tip portion including the portions of concave and convex curvature is configured to fold or crimp the heart valve during withdrawal into the sheath member and to counteract an outward radial force of the self-expanding heart valve .
A method for calculating a load skewness result (LSR) for a determination of service intervals for a turbine (GT), based on historical and continuously measured sensor data of turbine operation, comprising the following method steps: - Receiving (S1) a continuously measured load signal over time, indicating a load of the turbine (GT) during operation thereof; - Determining (S4) a load percentage signal (lp) over time as a deviation of the received measured load signal from a maximum capacity signal (mc), wherein the maximum capacity signal (mc) represents a maximal possible load to be generated at a given time and is calculated from continuously measured sensor signals (s), representing operating parameters of turbine operation; - Calculating (S5) a load percentage distribution (LPD) based on the determined load percentage signal (lp); - Calculating (S6) a load skewness factor (LSF) as a measure of an asymmetry of the calculated load percentage distribution (LPD); - Providing (S7) the load skewness result (LSR), comprising the calculated load percentage distribution (LPD) and the calculated load skewness factor (LSF). - Receiving (S1) a continuously measured load signal over time, indicating a load of the turbine (GT) during operation thereof; - Determining (S4) a load percentage signal (lp) over time as a deviation of the received measured load signal from a maximum capacity signal (mc), wherein the maximum capacity signal (mc) represents a maximal possible load to be generated at a given time and is calculated from continuously measured sensor signals (s), representing operating parameters of turbine operation; - Calculating (S5) a load percentage distribution (LPD) based on the determined load percentage signal (lp); - Calculating (S6) a load skewness factor (LSF) as a measure of an asymmetry of the calculated load percentage distribution (LPD); - Providing (S7) the load skewness result (LSR), comprising the calculated load percentage distribution (LPD) and the calculated load skewness factor (LSF).
A cable fixation structure for fixing at least a portion of a fiber optic cable to a telecommunications fixture for strain relief, the structure comprising: a base portion configured to be mounted to the telecommunications fixture and a removable cable holder portion that is slidably inserted into the base portion , wherein the cable holder portion is configured for fixing the at least a portion of the fiber optic cable ; wherein the base portion defines a slot for receiving the cable holder portion in an axial direction into the base portion , wherein the slot is configured to allow the cable holder portion to be slid in a direction that is transverse to the axial direction once the cable holder portion has been inserted into the base portion , wherein the cable fixation structure further comprises a door provided on the base portion to limit access to the cable holder portion , and wherein the door is pivotally coupled to the base portion and is pivotable about at least one pivot axis that is parallel to the axial insertion direction of the cable holder portion , characterised in that the door is pivotally openable in two different pivot directions, about two separate pivot axes (P) that are both parallel to each other. a base portion configured to be mounted to the telecommunications fixture and a removable cable holder portion that is slidably inserted into the base portion , wherein the cable holder portion is configured for fixing the at least a portion of the fiber optic cable ; wherein the base portion defines a slot for receiving the cable holder portion in an axial direction into the base portion , wherein the slot is configured to allow the cable holder portion to be slid in a direction that is transverse to the axial direction once the cable holder portion has been inserted into the base portion , wherein the cable fixation structure further comprises a door provided on the base portion to limit access to the cable holder portion , and wherein the door is pivotally coupled to the base portion and is pivotable about at least one pivot axis that is parallel to the axial insertion direction of the cable holder portion , characterised in that the door is pivotally openable in two different pivot directions, about two separate pivot axes (P) that are both parallel to each other.
A stone retrieval device comprising: a sheath ; a stone retrieval basket including a distal region with a plurality of basket wires and a proximal region with one or more core wires, the stone retrieval basket being contained within the sheath and movable out of a distal opening of the sheath to cause the plurality of basket wires to open into a basket shape; a lock mechanism for locking the position of the stone retrieval basket with respect to the position of the sheath ; a basket force controller including a first control stage and a second control stage; and an automatic release mechanism; wherein the first control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in an unlocked position and the second control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in a locked position, and wherein the automatic release mechanism is configured to release the stone retrieval basket when the force on the stone retrieval basket exceeds a predetermined maximum force. a sheath ; a stone retrieval basket including a distal region with a plurality of basket wires and a proximal region with one or more core wires, the stone retrieval basket being contained within the sheath and movable out of a distal opening of the sheath to cause the plurality of basket wires to open into a basket shape; a lock mechanism for locking the position of the stone retrieval basket with respect to the position of the sheath ; a basket force controller including a first control stage and a second control stage; and an automatic release mechanism; wherein the first control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in an unlocked position and the second control stage includes a sensor for measuring force on the stone retrieval basket when the lock mechanism is in a locked position, and wherein the automatic release mechanism is configured to release the stone retrieval basket when the force on the stone retrieval basket exceeds a predetermined maximum force.
A solid particulate composition comprising a first group of hydrophobized particles and a second group of catalytically active particles , whereby said first group of particles ▪ are selected from the group consisting of Oxides, Hydroxides, Carbides, Nitrides, Phosphates, Carbonates, Silicates (1.1), and ▪ where the particle's surface is modified with amphiphilic molecules (1.2) that comprise at least one head group and one tail group, ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and said second group of particles ▪ are selected from mangan (IV) oxide, either synthetic MnO2 or naturally occurring minerals, and ▪ are selected to react with a peroxide blowing agent to form a gas; the amount of is in the range of 20.0-99.8% and / or the amount of is in the range of 0.2-80%; and the amount of amphiphilic molecules (1.2) on the particles (1.1) is in the range of 0.5 - 160 μmol (1.2) / m 2 particle (1.1). ▪ are selected from the group consisting of Oxides, Hydroxides, Carbides, Nitrides, Phosphates, Carbonates, Silicates (1.1), and ▪ where the particle's surface is modified with amphiphilic molecules (1.2) that comprise at least one head group and one tail group, ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and ▪ said tail group being selected from an aliphatic or an aromatic or a cyclic group with 2 to 8 carbon atoms and optionally one or more substituents, and ▪ said head group being selected from phosphates, phosphonates, sulfates, sulfonates, alcohols, amines, amides, pyrrolidones, gallates, carboxylic acids; and ▪ are selected from mangan (IV) oxide, either synthetic MnO2 or naturally occurring minerals, and ▪ are selected to react with a peroxide blowing agent to form a gas;
A particulate acidulant composition comprising 20-70 wt.% malic acid, 3-40 wt.% lactic acid and 0-40 wt.% of food acid selected from citric acid, fumaric acid, adipic acid, tartaric acid and acetic acid and combinations thereof, wherein the acidulant composition comprises: • 40-90 wt.% of M-particles comprising co-crystal of malic acid and partially neutralized polycarboxylic acid selected from malic acid, citric acid, fumaric acid, adipic acid, tartaric acid, and combinations thereof, said M-particles containing at least 30 wt.% malic acid and at least 30 wt.% of the partially neutralized polycarboxylic acid; • 5-60 wt.% of L-particles comprising co-crystal of lactic acid and at least partially neutralized lactic acid, said L-particles containing at least 30 wt.% lactic acid and at least 30 wt.% of the at least partially neutralized lactic acid; and wherein the combination of M-particles and L-particles constitutes at least 50 wt.% of the acidulant composition. • 40-90 wt.% of M-particles comprising co-crystal of malic acid and partially neutralized polycarboxylic acid selected from malic acid, citric acid, fumaric acid, adipic acid, tartaric acid, and combinations thereof, said M-particles containing at least 30 wt.% malic acid and at least 30 wt.% of the partially neutralized polycarboxylic acid; • 5-60 wt.% of L-particles comprising co-crystal of lactic acid and at least partially neutralized lactic acid, said L-particles containing at least 30 wt.% lactic acid and at least 30 wt.% of the at least partially neutralized lactic acid; and
A sealable rock bolt assembly comprising a bearing plate; an elongated member having a top, bottom, and containing annular space proximate to said rock bolt assembly when said rock bolt assembly is placed in a pre-formed hole; and a sealing unit located proximate to said annular space around said rock bolt assembly , said sealing unit comprising a container having sides and two ends and wherein said sealing unit is comprised of a water degradable material and having both ends capped with a water degradable material, said container containing a liquid water activated, expandable hydrophobic pre-polymeric resin , wherein said annular space is contained to receive expanded resin, characterized in that the said water degradable material is dissolvable in water.
A card storage box including a knockout plate , a casing and a baseplate , the knockout plate is movably connected with the casing , and there is a push rod on the said baseplate , characterized in that the baseplate is connected with the casing via screw, and in that the card storage box is a card storage box with a slide bar structure, wherein there is a slide bar assembly on the lateral wall of the said casing , the slide bar assembly includes slide a block (4-1), a slide bar (4-2) and a spring (4-3), the slide bar (4-2) penetrates the slide block (4-1), the spring (4-3) is belled on one end of the slide bar (4-2) for butting with the slide block (4-1), and the other end of it is butted with the casing , there is a locating slot (1-1) on the lateral side of the said knockout plate , it is interlocked with the slide block (4-1).
A method performed by a third node for controlling a packet transmission for a split bearer connected to a first node and a second node in a wireless communication system, the method comprising: obtaining (S910) information related to a buffer state for each of the first node and the second node ; characterized in that the method further comprises: determining (S920) a packet arrival time at a terminal through each of the first node and the second node , based on the information related to the buffer state for each of the first node and the second node ; selecting (S930) one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node ; and transmitting (S940) a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer. obtaining (S910) information related to a buffer state for each of the first node and the second node ; characterized in that the method further comprises: determining (S920) a packet arrival time at a terminal through each of the first node and the second node , based on the information related to the buffer state for each of the first node and the second node ; selecting (S930) one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node ; and transmitting (S940) a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer. determining (S920) a packet arrival time at a terminal through each of the first node and the second node , based on the information related to the buffer state for each of the first node and the second node ; selecting (S930) one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node ; and transmitting (S940) a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer.
A computer-implemented method for input in a virtual reality, VR, scenario of a VR application, the VR scenario including a virtual element, the method being performed by a VR device, the method comprising: presenting the virtual element in the VR scenario, wherein the virtual element is a virtual button that is presented for performing user input, the virtual button having a rectangular shape; determining an effective interaction region, EIR, of the virtual element that the virtual element can effectively interact with, wherein the EIR has an area which is smaller than an area of the virtual element and overlaps a portion of the area of the virtual element, the EIR being a rectangular area with an upper boundary line and a lower boundary line inside the area of the virtual element, wherein the upper boundary line and the lower boundary line are provided at locations relative to the virtual element; determining a trajectory of an operational focus of the VR application based on a movement sensed by the VR device; and selecting the virtual element if an interaction between the trajectory of the operational focus and the EIR satisfies one or more conditions for triggering a selection event of the virtual element, wherein the one or more conditions of the interaction include that the trajectory intersects with one or more of the upper boundary line and the lower boundary line of the EIR for more than two times. presenting the virtual element in the VR scenario, wherein the virtual element is a virtual button that is presented for performing user input, the virtual button having a rectangular shape; determining an effective interaction region, EIR, of the virtual element that the virtual element can effectively interact with, wherein the EIR has an area which is smaller than an area of the virtual element and overlaps a portion of the area of the virtual element, the EIR being a rectangular area with an upper boundary line and a lower boundary line inside the area of the virtual element, wherein the upper boundary line and the lower boundary line are provided at locations relative to the virtual element; determining a trajectory of an operational focus of the VR application based on a movement sensed by the VR device; and selecting the virtual element if an interaction between the trajectory of the operational focus and the EIR satisfies one or more conditions for triggering a selection event of the virtual element, wherein the one or more conditions of the interaction include that the trajectory intersects with one or more of the upper boundary line and the lower boundary line of the EIR for more than two times.