mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising a first copolypeptide comprising Substructure I, a second copolypeptide comprising Substructure II, and water, wherein Substructure I is depicted as follows: -X m -C p - Substructure I; Substructure II is depicted as follows: -Y n -A q - Substructure II; wherein: at least 80 mol% of the X amino acid residues are methionine sulfoxide, and the remaining X amino acid residues are independently selected from methionine sulfoxide, S-alkyl-cysteine sulfoxide, S-alkyl cysteine sulfone, glycosylated cysteine, serine, homoserine, homomethionine sulfoxide, glycine, and alanine; at least 80 mol% of the Y amino acid residues are methionine sulfoxide, and the remaining Y amino acid residues are independently selected from methionine sulfoxide, S-alkyl-cysteine sulfoxide, S-alkyl cysteine sulfone, glycosylated cysteine, serine, homoserine, homomethionine sulfoxide, glycine, and alanine; each instance of C is independently lysine or arginine; each instance of A is independently glutamic acid or aspartic acid; m is 100 to 600; n is 100 to 600; p is 20 to 200; q is 20 to 200; at least 90 mol% of the C amino acid residues are (d)-amino acid residues or at least 90 mol% of the C amino acid residues are (l)-amino acid residues; and at least 90 mol% of the A amino acid residues are (D)-amino acid residues or at least 90 mol% of the A amino acid residues are (L)-amino acid residues. Substructure I is depicted as follows: -X m -C p - Substructure I; Substructure II is depicted as follows: -Y n -A q - Substructure II; at least 80 mol% of the X amino acid residues are methionine sulfoxide, and the remaining X amino acid residues are independently selected from methionine sulfoxide, S-alkyl-cysteine sulfoxide, S-alkyl cysteine sulfone, glycosylated cysteine, serine, homoserine, homomethionine sulfoxide, glycine, and alanine; at least 80 mol% of the Y amino acid residues are methionine sulfoxide, and the remaining Y amino acid residues are independently selected from methionine sulfoxide, S-alkyl-cysteine sulfoxide, S-alkyl cysteine sulfone, glycosylated cysteine, serine, homoserine, homomethionine sulfoxide, glycine, and alanine; each instance of C is independently lysine or arginine; each instance of A is independently glutamic acid or aspartic acid; m is 100 to 600; n is 100 to 600; p is 20 to 200; q is 20 to 200; at least 90 mol% of the C amino acid residues are (d)-amino acid residues or at least 90 mol% of the C amino acid residues are (l)-amino acid residues; and at least 90 mol% of the A amino acid residues are (D)-amino acid residues or at least 90 mol% of the A amino acid residues are (L)-amino acid residues.
A sheet manufacturing apparatus comprising: a defibrating unit configured to defibrate, in air, feedstock containing fiber; a mixing unit configured to mix, in air, resin with the fiber defibrated from the feedstock by the defibrating unit; an air-laying unit configured to lay a web (W) from the mixture output from the mixing unit; a liquid application unit configured to add water to part of the web laid by the air-laying unit; and a sheet forming unit configured to form a sheet (S) with parts having different light transmittance by heating and compressing the web to which water was added by the liquid application unit. a defibrating unit configured to defibrate, in air, feedstock containing fiber; a mixing unit configured to mix, in air, resin with the fiber defibrated from the feedstock by the defibrating unit; an air-laying unit configured to lay a web (W) from the mixture output from the mixing unit; a liquid application unit configured to add water to part of the web laid by the air-laying unit; and a sheet forming unit configured to form a sheet (S) with parts having different light transmittance by heating and compressing the web to which water was added by the liquid application unit.
Portable hand-held power planer, having at least one workpiece contact unit that has at least one workpiece contact surface , and having at least one handle unit that has at least one main handle , wherein the main handle has at least one maximum distance point that, as viewed along a direction that is at least substantially perpendicular to the at least one workpiece contact surface , has a maximum distance of less than 150 mm in relation to the at least one workpiece contact surface , wherein a drive unit has at least one drive axis , which intersects an axis of main extent of the main handle , characterized by at least one energy storage receiving unit , which is disposed mostly in the main handle .
A drill bushing comprising: a base member having: an upper surface ; a lower surface configured to rest on a workpiece having a pilot hole ; an external side wall that extends between the upper surface and the lower surface, wherein the external side wall defines the external shape, perimeter, or periphery, of the base member; and a retaining member that projects from the lower surface of the base member, wherein the retaining member has a cylindrical outer diameter suitable for fitting within the pilot hole; a drill hole that passes from the upper surface of the base member through the retaining member to provide a passage for a drill bit; an expandable slit that passes through the base member and the retaining member to the drill hole , wherein the expandable slit extends from the upper surface to the lower surface of the base member, and from the external side wall of the base member through to the drill hole, the slit also forming a corresponding cut or opening through the retaining member, wherein the slit is expandable so that the base member and the retaining member are able to be spread open; and an adjustment member configured to expand the expandable slit to increase the cylindrical outer diameter of the retaining member within the pilot hole . a base member having: an upper surface ; a lower surface configured to rest on a workpiece having a pilot hole ; an external side wall that extends between the upper surface and the lower surface, wherein the external side wall defines the external shape, perimeter, or periphery, of the base member; and a retaining member that projects from the lower surface of the base member, wherein the retaining member has a cylindrical outer diameter suitable for fitting within the pilot hole; an upper surface ; a lower surface configured to rest on a workpiece having a pilot hole ; an external side wall that extends between the upper surface and the lower surface, wherein the external side wall defines the external shape, perimeter, or periphery, of the base member; and a retaining member that projects from the lower surface of the base member, wherein the retaining member has a cylindrical outer diameter suitable for fitting within the pilot hole; a drill hole that passes from the upper surface of the base member through the retaining member to provide a passage for a drill bit; an expandable slit that passes through the base member and the retaining member to the drill hole , wherein the expandable slit extends from the upper surface to the lower surface of the base member, and from the external side wall of the base member through to the drill hole, the slit also forming a corresponding cut or opening through the retaining member, wherein the slit is expandable so that the base member and the retaining member are able to be spread open; and an adjustment member configured to expand the expandable slit to increase the cylindrical outer diameter of the retaining member within the pilot hole .
An electronic device comprising: a housing ; a display viewable through at least a portion of a front surface of the housing ; a rear cover disposed on a rear surface of the housing ; a first electrode disposed on a lateral surface of the housing; and second and third electrodes disposed at different positions on the rear cover , wherein the first electrode , the second electrode , and the third electrode include a conductive material that is a compound containing titanium (Ti), aluminum (Al), chromium (Cr), silicon (Si), carbon (C), and nitrogen (N), and wherein the conductive material includes titanium (Ti) of about 1 to 7% by weight, aluminum (Al) of about 1 to 7% by weight, chromium (Cr) of about 15 to 35% by weight, silicon (Si) of about 3 to 15% by weight, carbon (C) of about 8 to 25% by weight, and nitrogen (N) of about 15 to 35% by weight. a housing ; a display viewable through at least a portion of a front surface of the housing ; a rear cover disposed on a rear surface of the housing ; a first electrode disposed on a lateral surface of the housing; and second and third electrodes disposed at different positions on the rear cover , wherein the first electrode , the second electrode , and the third electrode include a conductive material that is a compound containing titanium (Ti), aluminum (Al), chromium (Cr), silicon (Si), carbon (C), and nitrogen (N), and wherein the conductive material includes titanium (Ti) of about 1 to 7% by weight, aluminum (Al) of about 1 to 7% by weight, chromium (Cr) of about 15 to 35% by weight, silicon (Si) of about 3 to 15% by weight, carbon (C) of about 8 to 25% by weight, and nitrogen (N) of about 15 to 35% by weight.
A device for the metallurgical treatment of electrical and/or electronic scrap or components, wherein the device comprises a smelting reactor , which has a cooling facility , and wherein the device is configured for the metallurgical treatment of up to 100 % by weight of electrical and/or electronic scrap or components, wherein the smelting reactor is designed with side walls and a floor , and wherein the cooling facility is located in at least one of the side walls of the smelting reactor .
A method for controlling a power system control area during a plurality of consecutive automatic generation control cycles, according to a control performance standard, wherein operation of the control area determines area control parameter values and control performance standard values, both according to the control performance standard, the method comprising: (a) determining a control performance standard compliance target; (b) determining a statistical measure of control performance standard values according to the control performance standard from a beginning of a compliance period of the control performance standard to a time t at which the statistical measure is determined; (c) determining an area control parameter target responsive to the statistical measure; (d) determining a relationship between the area control parameter values and the area control parameter target over a prior automatic generation control cycle time interval; (e) determining an area control parameter correction responsive to the relationship determined at a step (d); (f) controlling the power system control area responsive to the area control parameter correction; and (g) periodically repeating steps (b) - (f) wherein the steps (b) and (c) are executed once per each clock minute and the steps (d) through (f) are executed for each automatic generation control cycle of each clock minute until the end of the compliance period of the control performance standard. (a) determining a control performance standard compliance target; (b) determining a statistical measure of control performance standard values according to the control performance standard from a beginning of a compliance period of the control performance standard to a time t at which the statistical measure is determined; (c) determining an area control parameter target responsive to the statistical measure; (d) determining a relationship between the area control parameter values and the area control parameter target over a prior automatic generation control cycle time interval; (e) determining an area control parameter correction responsive to the relationship determined at a step (d); (f) controlling the power system control area responsive to the area control parameter correction; and (g) periodically repeating steps (b) - (f) wherein the steps (b) and (c) are executed once per each clock minute and the steps (d) through (f) are executed for each automatic generation control cycle of each clock minute until the end of the compliance period of the control performance standard.
A shaving blade comprising: a substrate having a cutting edge on which a substrate tip is formed, wherein a thickness T16 of the substrate , measured at a distance D16 that is 16 micrometers from the substrate tip , is in a range from 2.41 micrometers to 3.76 micrometers, wherein a thickness T100 of the substrate , measured at a distance D100 that is 100 micrometers from the substrate tip , is in a range from 10.5 micrometers to 19.5 micrometers. a substrate having a cutting edge on which a substrate tip is formed, wherein a thickness T16 of the substrate , measured at a distance D16 that is 16 micrometers from the substrate tip , is in a range from 2.41 micrometers to 3.76 micrometers, wherein a thickness T100 of the substrate , measured at a distance D100 that is 100 micrometers from the substrate tip , is in a range from 10.5 micrometers to 19.5 micrometers.
An implantable pressure sensor apparatus comprising: a pressure sensor ; a saline chamber ; a sensing cannula with a lumen extending into the saline chamber ; a drain cannula with a portion adjoining and running parallel with the sensing cannula and a flow restrictor within the drain cannula ; characterized in that the pressure sensor is an electronic pressure sensor with a pressure sensitive membrane , wherein the implantable pressure sensor apparatus further comprises: an oil chamber encapsulating the pressure sensitive membrane , the oil chamber filled with a biocompatible oil and having a pliable membrane on at least one side; and filler wedges within valleys between the sensing cannula and the adjoining drain cannula , the filler wedges , sensing cannula , and drain cannula forming an oval cross section; and wherein, the saline chamber is on an opposite side of the pliable membrane from the oil chamber . a pressure sensor ; a saline chamber ; a sensing cannula with a lumen extending into the saline chamber ; a drain cannula with a portion adjoining and running parallel with the sensing cannula and a flow restrictor within the drain cannula ; characterized in that the pressure sensor is an electronic pressure sensor with a pressure sensitive membrane , wherein the implantable pressure sensor apparatus further comprises: an oil chamber encapsulating the pressure sensitive membrane , the oil chamber filled with a biocompatible oil and having a pliable membrane on at least one side; and filler wedges within valleys between the sensing cannula and the adjoining drain cannula , the filler wedges , sensing cannula , and drain cannula forming an oval cross section; and wherein, the saline chamber is on an opposite side of the pliable membrane from the oil chamber . an oil chamber encapsulating the pressure sensitive membrane , the oil chamber filled with a biocompatible oil and having a pliable membrane on at least one side; and filler wedges within valleys between the sensing cannula and the adjoining drain cannula , the filler wedges , sensing cannula , and drain cannula forming an oval cross section; and wherein, the saline chamber is on an opposite side of the pliable membrane from the oil chamber .
A ferrite sintered body comprising a crystal grain of a Ni-Zn ferrite and a grain boundary thereof, wherein Ti is unevenly distributed in an outer region of the crystal grain, the outer region extending from an interface of the crystal grain to a length of 20% of a major axis of the crystal grain, wherein the amount of Ti present in the outer region is 0.5% by mass or more and 5.0% by mass or less, and wherein a portion having a characteristic X-ray intensity of Ni higher than that in the crystal grain is present in the grain boundary, and an area occupancy ratio of the portion is 0.01% or more and 2.0% or less.
A system for estimating the driving style of a vehicle, comprising: a device for measuring the vehicle longitudinal acceleration (a x ) and lateral acceleration (a y ) along a measuring path; a memory module in which admissible limit values pairs of the longitudinal and lateral accelerations are memorized so to form a closed admissible acceleration curve in a longitudinal acceleration - lateral acceleration plane; an elaboration module configured for: - associating to each measured longitudinal acceleration - lateral acceleration pair of the vehicle a corresponding longitudinal acceleration - lateral acceleration pair on said admissible acceleration curve; - determining a safety index (SI, Cia) representing the driving style on the basis of the trend in the time domain along the measuring path of the distance of the measured longitudinal acceleration - lateral acceleration pair with respect to the corresponding longitudinal acceleration - lateral acceleration pair on the admissible acceleration curve. a device for measuring the vehicle longitudinal acceleration (a x ) and lateral acceleration (a y ) along a measuring path; a memory module in which admissible limit values pairs of the longitudinal and lateral accelerations are memorized so to form a closed admissible acceleration curve in a longitudinal acceleration - lateral acceleration plane; an elaboration module configured for: - associating to each measured longitudinal acceleration - lateral acceleration pair of the vehicle a corresponding longitudinal acceleration - lateral acceleration pair on said admissible acceleration curve; - determining a safety index (SI, Cia) representing the driving style on the basis of the trend in the time domain along the measuring path of the distance of the measured longitudinal acceleration - lateral acceleration pair with respect to the corresponding longitudinal acceleration - lateral acceleration pair on the admissible acceleration curve. - associating to each measured longitudinal acceleration - lateral acceleration pair of the vehicle a corresponding longitudinal acceleration - lateral acceleration pair on said admissible acceleration curve; - determining a safety index (SI, Cia) representing the driving style on the basis of the trend in the time domain along the measuring path of the distance of the measured longitudinal acceleration - lateral acceleration pair with respect to the corresponding longitudinal acceleration - lateral acceleration pair on the admissible acceleration curve.
A hydraulic tank having a longitudinal axis (2; 14) and comprising a tubular side wall (5; 17), which extends around the longitudinal axis (2; 14), is delimited by an outer surface (6; 18) and by an inner surface and has a plurality of slots (8; 19) obtained on the outer surface (6; 18); and characterized in that at least part of the slots (8; 19) are hexagonal slots (8; 19) aligned with one another along at least one row of hexagonal slots (8; 19) parallel to the longitudinal axis (2; 14).
Method for positioning at least one element (P, V1, V2, V3, V4) on a supporting panel, such as a sacrificial panel , arranged on a work table of a machine for machining wood panels (P) and the like, wherein said method comprises the following steps: A) reading positioning data (C, C1, C2 C3, C4) of said at least one element (P, V1, V2, V3, V4) on said sacrificial panel ; and characterised by B) marking, on the upper surface of said sacrificial panel , at least one positioning sign (D, D1, D2, D3, D4) associated to said positioning data (C, C1, C2 C3, C4) of said at least one element (P, V1, V2, V3, V4); and C) placing said at least one element (P, V1, V2, V3, V4) in correspondence of the respective positioning sign (D, D1, D2, D3, D4). A) reading positioning data (C, C1, C2 C3, C4) of said at least one element (P, V1, V2, V3, V4) on said sacrificial panel ; and characterised by B) marking, on the upper surface of said sacrificial panel , at least one positioning sign (D, D1, D2, D3, D4) associated to said positioning data (C, C1, C2 C3, C4) of said at least one element (P, V1, V2, V3, V4); and C) placing said at least one element (P, V1, V2, V3, V4) in correspondence of the respective positioning sign (D, D1, D2, D3, D4).
A device for dilating a Eustachian tube of a patient, the device comprising: a guide catheter having an first elongate shaft , the first elongate shaft having a proximal end and a distal end and a lumen therebetween, the guide catheter having a proximal hub attached to the proximal end of the first elongate shaft ; and a balloon dilation catheter having a second elongate shaft , the second elongate shaft having a proximal end and a distal end and an outer diameter , the balloon dilation catheter having an actuator for one-handed advancement of the catheter coupled to the second elongate shaft between the second elongate shaft proximal end and the second elongate shaft distal end and that separates the second elongate shaft into a proximal portion and a distal portion, the actuator having a proximal side and a distal side; wherein the balloon dilation catheter is slidably coupled with the guide catheter through the guide catheter lumen and is fully inserted into the guide catheter lumen when the actuator is fully deployed; and wherein the distal end of the balloon dilation catheter has a bulbous tip , the bulbous tip having an outer diameter, wherein the outer diameter of the bulbous tip is larger than the outer diameter of the second elongate shaft such that the size of the bulbous tip is configured to prevent the balloon dilation catheter from passing through an isthmus of approximately 1 mm in diameter. a guide catheter having an first elongate shaft , the first elongate shaft having a proximal end and a distal end and a lumen therebetween, the guide catheter having a proximal hub attached to the proximal end of the first elongate shaft ; and a balloon dilation catheter having a second elongate shaft , the second elongate shaft having a proximal end and a distal end and an outer diameter , the balloon dilation catheter having an actuator for one-handed advancement of the catheter coupled to the second elongate shaft between the second elongate shaft proximal end and the second elongate shaft distal end and that separates the second elongate shaft into a proximal portion and a distal portion, the actuator having a proximal side and a distal side; wherein the balloon dilation catheter is slidably coupled with the guide catheter through the guide catheter lumen and is fully inserted into the guide catheter lumen when the actuator is fully deployed; and wherein the distal end of the balloon dilation catheter has a bulbous tip , the bulbous tip having an outer diameter, wherein the outer diameter of the bulbous tip is larger than the outer diameter of the second elongate shaft such that the size of the bulbous tip is configured to prevent the balloon dilation catheter from passing through an isthmus of approximately 1 mm in diameter.