mhurhangee/patent-ind-claim-en huggingface dataset:
A cutting insert for a cutting tool, comprising: - an upper side comprising a top surface around which at least one chamfer extends, - a lower side comprising a bottom surface, wherein a centre axis (C) extends perpendicularly through the top surface and the bottom surface, - a side surface extending between the upper side and the lower side , - at least one cutting edge formed in a corner region of the cutting insert in a transition between the side surface and the at least one chamfer , wherein at least the corner region comprises a superhard sintered body comprising polycrystalline cubic boron nitride (PCBN) or polycrystalline diamond (PCD), - a chip breaker formed in the at least one chamfer inside of the cutting edge , extending between a lower chamfer portion of the at least one chamfer close to the cutting edge and an upper chamfer portion of the at least one chamfer close to the top surface , wherein the chip breaker comprises a chip breaker bottom connected to the lower chamfer portion , and a chip breaker wall extending at least partly from the upper chamfer portion to the chip breaker bottom , wherein an upper transition is formed above the chip breaker wall , extending at least partly between the upper chamfer portion and the chip breaker wall , and wherein as seen in a section perpendicular to the cutting edge , the chip breaker wall and chip breaker bottom together form a smooth concave profile, characterized in that , as seen in a top view, the upper transition follows a smoothly curved path comprising a convex middle portion extending inside a nose radius portion of the cutting edge , and wherein the upper transition is a radius shaped transition. - an upper side comprising a top surface around which at least one chamfer extends, - a lower side comprising a bottom surface, wherein a centre axis (C) extends perpendicularly through the top surface and the bottom surface, - a side surface extending between the upper side and the lower side , - at least one cutting edge formed in a corner region of the cutting insert in a transition between the side surface and the at least one chamfer , wherein at least the corner region comprises a superhard sintered body comprising polycrystalline cubic boron nitride (PCBN) or polycrystalline diamond (PCD), - a chip breaker formed in the at least one chamfer inside of the cutting edge , extending between a lower chamfer portion of the at least one chamfer close to the cutting edge and an upper chamfer portion of the at least one chamfer close to the top surface ,
An intraocular lens insertion system, comprising: a handpiece having a longitudinal axis, a distal end, and a proximal end, a pushrod assembly having a distal end and a proximal end, wherein the pushrod assembly comprises a pushrod and a plunger ; wherein the pushrod assembly couples with the handpiece along the longitudinal axis; wherein the pushrod is coupled with the plunger and the pushrod is located on the distal end of the push rod assembly and the plunger is located on the proximal end of the pushrod assembly ; wherein the plunger is configured and dimensioned to advance the pushrod toward the distal end of the handpiece along the longitudinal axis by rotation of the plunger and translational movement of the plunger ; wherein the plunger comprises threads and one or more safety detents , wherein the one or more safety detents are located on a distal end of the plunger on one or more of the threads; and wherein the one or more safety detents are configured and dimensioned to prevent advancement of pushrod with rotation of the plunger until such rotation is desired. a handpiece having a longitudinal axis, a distal end, and a proximal end, a pushrod assembly having a distal end and a proximal end, wherein the pushrod assembly comprises a pushrod and a plunger ; wherein the pushrod assembly couples with the handpiece along the longitudinal axis; wherein the pushrod is coupled with the plunger and the pushrod is located on the distal end of the push rod assembly and the plunger is located on the proximal end of the pushrod assembly ; wherein the plunger is configured and dimensioned to advance the pushrod toward the distal end of the handpiece along the longitudinal axis by rotation of the plunger and translational movement of the plunger ; wherein the plunger comprises threads and one or more safety detents , wherein the one or more safety detents are located on a distal end of the plunger on one or more of the threads; and wherein the one or more safety detents are configured and dimensioned to prevent advancement of pushrod with rotation of the plunger until such rotation is desired. wherein the pushrod assembly comprises a pushrod and a plunger ; wherein the pushrod assembly couples with the handpiece along the longitudinal axis; wherein the pushrod is coupled with the plunger and the pushrod is located on the distal end of the push rod assembly and the plunger is located on the proximal end of the pushrod assembly ; wherein the plunger is configured and dimensioned to advance the pushrod toward the distal end of the handpiece along the longitudinal axis by rotation of the plunger and translational movement of the plunger ; wherein the plunger comprises threads and one or more safety detents , wherein the one or more safety detents are located on a distal end of the plunger on one or more of the threads; and wherein the one or more safety detents are configured and dimensioned to prevent advancement of pushrod with rotation of the plunger until such rotation is desired.
A medical device including a medical securing device and a delivery sheath that is configured to overlay and compress the medical device for delivery, the medical securing device comprising: a barb comprising a pointed tip coupled to a depth stop , the depth stop configured to limit a depth of penetration of the barb into a body lumen wall wherein the depth stop comprises a undulating shape or an S-shape comprising a trough portion coupled to an apex portion , wherein the trough portion and the apex portion of the depth stop together, are configured to limit a depth of penetration of the barb into a body lumen wall , and wherein the trough portion and the apex portion extend in opposite directions, and wherein, in use, the medical securing device is configured to be urged into a flat position against an outer surface of the medical device by the delivery sheath and is configured to spring away from the outer surface of the medical device upon release from the delivery sheath, such that the medical securing device is configured to make contact with and penetrate a body lumen wall. a barb comprising a pointed tip coupled to a depth stop , the depth stop configured to limit a depth of penetration of the barb into a body lumen wall wherein the depth stop comprises a undulating shape or an S-shape comprising a trough portion coupled to an apex portion , wherein the trough portion and the apex portion of the depth stop together, are configured to limit a depth of penetration of the barb into a body lumen wall , and wherein the trough portion and the apex portion extend in opposite directions, and wherein, in use, the medical securing device is configured to be urged into a flat position against an outer surface of the medical device by the delivery sheath and is configured to spring away from the outer surface of the medical device upon release from the delivery sheath, such that the medical securing device is configured to make contact with and penetrate a body lumen wall.
A fusion protein comprising: a. a first peptide comprising an extracellular ligand binding domain of a VEGF receptor, wherein the extracellular ligand binding domain of the VEGF receptor consists of an Ig-like domain D2 of a VEGFR1 and an Ig-like domain D3 of a VEGFR2, b. an Fc region of an antibody, wherein the Fc region of the antibody consists of a CH2 and a CH3 region of IgG1, and c. a second peptide comprising an extracellular ligand binding domain of a PDGF receptor, wherein the extracellular ligand binding domain of the PDGF receptor consists of Ig-like domains D1 to D3 of a PDGFRβ; wherein the fusion protein is arranged from N-terminus to C-terminus in the order of (c)-(b)-(a); wherein the fusion protein further comprising a first linker peptide between the Fc region and the first or second peptide at the C-terminus of the fusion protein, wherein the first linker peptide comprising amino acid sequence of SEQ ID NO: 20 or 24; and wherein the fusion protein is capable of binding to a VEGF and a PDGF and inhibiting the activity of the VEGF and the activity of the PDGF. a. a first peptide comprising an extracellular ligand binding domain of a VEGF receptor, wherein the extracellular ligand binding domain of the VEGF receptor consists of an Ig-like domain D2 of a VEGFR1 and an Ig-like domain D3 of a VEGFR2, b. an Fc region of an antibody, wherein the Fc region of the antibody consists of a CH2 and a CH3 region of IgG1, and c. a second peptide comprising an extracellular ligand binding domain of a PDGF receptor, wherein the extracellular ligand binding domain of the PDGF receptor consists of Ig-like domains D1 to D3 of a PDGFRβ; wherein the fusion protein is arranged from N-terminus to C-terminus in the order of (c)-(b)-(a); wherein the fusion protein further comprising a first linker peptide between the Fc region and the first or second peptide at the C-terminus of the fusion protein, wherein the first linker peptide comprising amino acid sequence of SEQ ID NO: 20 or 24; and wherein the fusion protein is capable of binding to a VEGF and a PDGF and inhibiting the activity of the VEGF and the activity of the PDGF.
A battery management system comprising: a plurality of temperature measuring means (20x1, 20x2, 20n1, 20n2) configured to measure temperature values of a battery capable of charging and discharging electricity; voltage and current measuring means configured to measure a voltage and a current of said battery ; calculation means configured to determine a maximum temperature (Tmax)and a minimum temperature (Tmin) of said battery from the temperature values measured by said temperature measuring means (20x1, 20x2, 20n1, 20n2), and to calculate respective values of maximum available charge and discharge powers or maximum available charge and discharge currents (Icmax, Idmax) of said battery corresponding to the maximum temperature (Tmax) and the minimum temperature (Tmin) based on the voltage and the current of said battery measured by said voltage and current measuring means ; characterised by selection means configured to select the smallest one among values of the maximum available charge power (Pcmax) and the smallest one among values of the maximum available discharge power (Pdmax) or smallest one of values of the maximum available charge current (Icmax) and the maximum available discharge current (Idmax) of said battery corresponding to the maximum temperature (Tmax) and the minimum temperature (Tmin), which are calculated by said calculation means . a plurality of temperature measuring means (20x1, 20x2, 20n1, 20n2) configured to measure temperature values of a battery capable of charging and discharging electricity; voltage and current measuring means configured to measure a voltage and a current of said battery ; calculation means configured to determine a maximum temperature (Tmax)and a minimum temperature (Tmin) of said battery from the temperature values measured by said temperature measuring means (20x1, 20x2, 20n1, 20n2), and to calculate respective values of maximum available charge and discharge powers or maximum available charge and discharge currents (Icmax, Idmax) of said battery corresponding to the maximum temperature (Tmax) and the minimum temperature (Tmin) based on the voltage and the current of said battery measured by said voltage and current measuring means ; characterised by selection means configured to select the smallest one among values of the maximum available charge power (Pcmax) and the smallest one among values of the maximum available discharge power (Pdmax) or smallest one of values of the maximum available charge current (Icmax) and the maximum available discharge current (Idmax) of said battery corresponding to the maximum temperature (Tmax) and the minimum temperature (Tmin), which are calculated by said calculation means .
An electronic apparatus comprising: a first circuit board and a second circuit board ; one or more electronic components mounted on opposing surfaces of the first circuit board and the second circuit board , wherein the one or more electronic components include a first electronic component mounted on the first circuit board and a second electronic component mounted on the second circuit board ; an enclosure portion configured to support a surface of each of the first circuit board and the second circuit board to oppose each other and to enclose a gap space that includes the one or more electronic components, within the gap space defined by a predetermined gap between the first circuit board and the second circuit board , wherein the first electronic component and the second electronic component are arranged in the gap space in a manner so as to not interfere with each other; a housing configured to accommodate the first circuit board , the second circuit board , and the enclosure portion , the enclosure portion contacting the housing ; a partition wall that is fixed to the enclosure portion and partitions the gap space into a first circuit board space that includes the first electronic component and a second circuit board space that includes the second electronic component , wherein the partition wall has heat conductivity and directly contacts at least one of the first electronic component and the second electronic component . a first circuit board and a second circuit board ; one or more electronic components mounted on opposing surfaces of the first circuit board and the second circuit board , wherein the one or more electronic components include a first electronic component mounted on the first circuit board and a second electronic component mounted on the second circuit board ; an enclosure portion configured to support a surface of each of the first circuit board and the second circuit board to oppose each other and to enclose a gap space that includes the one or more electronic components, within the gap space defined by a predetermined gap between the first circuit board and the second circuit board , wherein the first electronic component and the second electronic component are arranged in the gap space in a manner so as to not interfere with each other; a housing configured to accommodate the first circuit board , the second circuit board , and the enclosure portion , the enclosure portion contacting the housing ; a partition wall that is fixed to the enclosure portion and partitions the gap space into a first circuit board space that includes the first electronic component and a second circuit board space that includes the second electronic component , wherein the partition wall has heat conductivity and directly contacts at least one of the first electronic component and the second electronic component .
A connector comprising: two connector portions each including a ferrule and a latch ; and a boot mounted to the connector portions , the boot movable longitudinally relative to the connector portions , wherein the boot causes movement of the latches as the boot is moved away from the connector portions ; wherein a front housing of each of the connector portions can each be rotated about the longitudinal axis of the ferrule without rotating the ferrule or the boot , to change the polarity of the two connector portions ; wherein each latch includes a proximal end , wherein the proximal end of the latch extends over the boot ; wherein the boot includes slots for receiving the proximal ends of the latches of the connector portions , wherein the boot causes unlatching of the latches as the boot is moved away from the connector portions , wherein the slots and each proximal end are angled so as to cause a lifting motion of the proximal ends of the latches which results in a downward movement of distal ends of the latches when the boot is pulled longitudinally away from the connector portions ; and wherein the boot includes the angled slots on both sides of the boot for receiving the proximal ends of the latches , as the connector portions are rotated to change polarity without rotating the boot . two connector portions each including a ferrule and a latch ; and a boot mounted to the connector portions , the boot movable longitudinally relative to the connector portions , wherein the boot causes movement of the latches as the boot is moved away from the connector portions ; wherein a front housing of each of the connector portions can each be rotated about the longitudinal axis of the ferrule without rotating the ferrule or the boot , to change the polarity of the two connector portions ; wherein each latch includes a proximal end , wherein the proximal end of the latch extends over the boot ; wherein the boot includes slots for receiving the proximal ends of the latches of the connector portions , wherein the boot causes unlatching of the latches as the boot is moved away from the connector portions , wherein the slots and each proximal end are angled so as to cause a lifting motion of the proximal ends of the latches which results in a downward movement of distal ends of the latches when the boot is pulled longitudinally away from the connector portions ; and wherein the boot includes the angled slots on both sides of the boot for receiving the proximal ends of the latches , as the connector portions are rotated to change polarity without rotating the boot .
A control apparatus of an automation system (AS), said control apparatus comprising a database adapted to store time series data (TSD) in a historian data source (HDS) and adapted to store events (E) derived from said time series data (TSD) based on event detection rules (EDR) in an event data source (EDS), and an ontological context model (CM) stored in said database , said control apparatus being adapted - to gather continuously time series data (TSD) from connected automation system components, - to derive events from the gathered time series data (TSD) in every real-time control cycle of said automation system (AS), - to write the time series data (TSD) and the derived events in the corresponding data sources of the database , - to receive a semantic data or event query (SQ), - to map the received semantic data or event query (SQ) to a corresponding data source of said database to retrieve the queried data or event, - to contextualize said retrieved queried data or event using the ontological context model (CM), and - to output said contextualized queried data or event in a semantic format. - to gather continuously time series data (TSD) from connected automation system components, - to derive events from the gathered time series data (TSD) in every real-time control cycle of said automation system (AS), - to write the time series data (TSD) and the derived events in the corresponding data sources of the database , - to receive a semantic data or event query (SQ), - to map the received semantic data or event query (SQ) to a corresponding data source of said database to retrieve the queried data or event, - to contextualize said retrieved queried data or event using the ontological context model (CM), and - to output said contextualized queried data or event in a semantic format.
A textile machine comprising: a winding device which includes a bobbin holder supporting bobbins (B) which are aligned along a bobbin axial direction and fulcrum guides about which yarns (Y) wound onto to respective bobbins (B) are traversed, the winding device being configured to wind the yarns (Y) onto the bobbins (B); and an automatic yarn threading device which includes a yarn threading assisting member configured to temporarily hold the yarns (Y) and a driving mechanism configured to drive and move the yarn threading assisting member , the driving mechanism driving the yarn threading assisting member so that the automatic yarn threading device performing yarn threading of threading the yarns to the fulcrum guides , the winding device including an assisting member guide unit on which a guide surface is formed to guide the yarn threading assisting member in a guide direction having a component in the bobbin axial direction, characterized in that the automatic yarn threading device includes a cushion member which absorbs repellent force applied from the guide surface to the yarn threading assisting member . a winding device which includes a bobbin holder supporting bobbins (B) which are aligned along a bobbin axial direction and fulcrum guides about which yarns (Y) wound onto to respective bobbins (B) are traversed, the winding device being configured to wind the yarns (Y) onto the bobbins (B); and an automatic yarn threading device which includes a yarn threading assisting member configured to temporarily hold the yarns (Y) and a driving mechanism configured to drive and move the yarn threading assisting member , the driving mechanism driving the yarn threading assisting member so that the automatic yarn threading device performing yarn threading of threading the yarns to the fulcrum guides , the winding device including an assisting member guide unit on which a guide surface is formed to guide the yarn threading assisting member in a guide direction having a component in the bobbin axial direction, characterized in that the automatic yarn threading device includes a cushion member which absorbs repellent force applied from the guide surface to the yarn threading assisting member .
Air conditioning system for a motor vehicle with at least one filter device for filtering air fed from outside into the motor vehicle interior, the filter device comprising: - at least one first filter layer made of a carrier medium for receiving a coating, - a holder in which the at least one first filter layer is held, the holder being provided for fastening in the motor vehicle, the carrier medium of the at least one first filter layer is coated at least in sections on its surfaces with a salt layer, the salt layer being formed from at least one inorganic salt, the salt layer containing common salt as at least one inorganic salt, the salt layer on the carrier medium of the at least one first filter layer having a thickness of 0.1 to 100 μm, preferably 1 to 5 μm, characterized in that the filter device comprises at least one second filter layer of a carrier medium formed of a plastic, for example filter paper, or of a synthetic nonwoven, wherein the second filter layer is without a salt coating, and wherein the second filter layer is provided for a retention of larger particles, so that the usable filter area of the first filter layer is not occupied by the larger particles. - at least one first filter layer made of a carrier medium for receiving a coating, - a holder in which the at least one first filter layer is held, the holder being provided for fastening in the motor vehicle, the carrier medium of the at least one first filter layer is coated at least in sections on its surfaces with a salt layer, the salt layer being formed from at least one inorganic salt, the salt layer containing common salt as at least one inorganic salt, the salt layer on the carrier medium of the at least one first filter layer having a thickness of 0.1 to 100 μm, preferably 1 to 5 μm, characterized in that the filter device comprises at least one second filter layer of a carrier medium formed of a plastic, for example filter paper, or of a synthetic nonwoven, wherein the second filter layer is without a salt coating, and wherein the second filter layer is provided for a retention of larger particles, so that the usable filter area of the first filter layer is not occupied by the larger particles.