mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising an aqueous dispersion of chemically and physically stable particles having an average diameter of less than 100 μm and a water-soluble or water-dispersible active pharmaceutical ingredient, said particles comprising a hydrophobic organic material stable to aqueous hydrolysis which interacts with the water-soluble or water-dispersible active pharmaceutical ingredient such that the water-soluble or water-dispersible active pharmaceutical ingredient is attached, adhered or bound to said particles, wherein the particles are prepared using shear via a process essentially free from organic solvents.
A method for producing a lithium ion secondary battery comprising: a solid solution positive electrode active material represented by the following composition formula: Li 2 − 0.5 x Mn 1 − x M 1.5 x O 3 x satisfies 0 < x < 1 (M in formula is a lithium-containing transition metal oxide expressed by Ni a Co b Mn c M1 d (in which 0 < a ≤ 0.5, 0 ≤ b ≤ 0.33, 0 < c ≤ 0.5, and 0 ≤ d ≤ 0.1 are satisfied, the sum of a, b, c, and d becomes 1, and M1 in the formula is an element selected from Li, Al, Zr, Ti, and Nb)); and a negative electrode comprising a negative electrode active material comprising carbon materials, silicon based materials or a combination of both; the method comprising: a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V. a solid solution positive electrode active material represented by the following composition formula: Li 2 − 0.5 x Mn 1 − x M 1.5 x O 3 x satisfies 0 < x < 1 (M in formula is a lithium-containing transition metal oxide expressed by Ni a Co b Mn c M1 d (in which 0 < a ≤ 0.5, 0 ≤ b ≤ 0.33, 0 < c ≤ 0.5, and 0 ≤ d ≤ 0.1 are satisfied, the sum of a, b, c, and d becomes 1, and M1 in the formula is an element selected from Li, Al, Zr, Ti, and Nb)); and a negative electrode comprising a negative electrode active material comprising carbon materials, silicon based materials or a combination of both; the method comprising: a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V. a Step (a) for repeating charge-discharge multiple times, wherein the upper limit charging voltage is the same as or higher than the immediately prior charge-discharge interval such that the charge-discharge interval is greater or the same as the immediately prior charge-discharge interval; characterized in that the method further comprises a Step (b) in which discharge is carried out at a lower current density than a current density during charging, during each discharge of the multiple charges-discharges, wherein a lower limit value of a battery voltage during each discharge is set to 3.0-2.0 V.
A kit for treating a treatment area in a vasculature, comprising: a first catheter adapted for positioning at the treatment area in the vasculature, said first catheter including a first balloon having a radiopaque material having first and second ends corresponding to the treatment area; and a second catheter adapted for positioning at the treatment area, said second catheter including a treatment having first and second ends corresponding to the first and second ends of the radiopaque material. a first catheter adapted for positioning at the treatment area in the vasculature, said first catheter including a first balloon having a radiopaque material having first and second ends corresponding to the treatment area; and a second catheter adapted for positioning at the treatment area, said second catheter including a treatment having first and second ends corresponding to the first and second ends of the radiopaque material.
Method for ascertaining the operating point of a compressor with at least one impeller, with compressor blades attached to the impeller, a housing and at least two sensors (1, 2), wherein a calculation of the deflection of the compressor blades is performed, on the basis of which the operating point and its distance from the pumping limit are ascertained by times at which the compressor blades pass by a sensor (1, 2) being measured and a signal that is representative of the rotational speed of the compressor impeller being ascertained, characterized in that, during a learning or adaptation mode, compressor-blade-specific, state- and position-induced deviations from an ideal state are ascertained by compressor-blade-specific passing times being measured and compared with ideal passing times, and in that, during a working mode, compressor-blade-specific passing times are measured and corrected by the ascertained state- and position-induced deviations.
A comb, comprising a plurality of comb teeth (7, 8, 20) protruding from a comb main body having a longitudinal direction thereof are arrayed, wherein the plurality of comb teeth (7, 8, 20) having first comb teeth (20, 30, 40, 50) each having a stepped part (32, 42, 52) that is formed at an intermediate position of each first comb tooth (30, 40, 50) in a protruding direction thereof, wherein a first section (31, 41, 51) of the first comb tooth (30, 40, 50) that extends from a tip end side (30a, 40a, 50a) to the stepped part (32, 42, 52) has a smaller dimension in a direction perpendicular to the protruding direction of the first comb tooth (30, 40, 50), compared with a second section (33, 43, 53) that extends from the stepped part (32, 42, 52) to a root side (30b, 40b, 50b), and wherein the stepped part (32, 42, 52) is formed slantly with respect to the protruding direction so that the stepped part (32, 42, 52) spreads toward the root side (30b, 40b, 50b) of the first comb tooth (30, 40, 50), wherein the plurality of comb teeth (7, 8, 20) comprises a plurality of other comb teeth (7, 8) having no stepped part (32, 42, 52) and being arrayed parallel to the row of the plurality of first comb teeth (20, 30, 40, 50) having the stepped part (32, 42, 52), characterized in that an interval of the other comb teeth (7, 8) having no stepped part (32, 42, 52) is wider than an interval of the first comb teeth (20, 30, 40, 50) having the stepped part (32, 42, 52).
Sanitary fitting for receiving a mixing valve, in particular a mixing valve or thermostat mixing valve cartridge, operable via a rotatably mounted spindle having a non-circular end portion, comprising a base body, which is provided with an axial cartridge receiving space for the mixing valve cartridge and a handle part designed to receive, in a rotationally fixed manner, the non-circular end portion of the spindle, characterised in that at least two radially arranged inlet channels and at least one arranged outlet channel open into the cartridge receiving space and that the sanitary fitting comprises a driver ring, which is rotatably arranged on the base body and on which rests the handle part, wherein driver ring and handle part can be positively connected via an engagement in exactly one relative position to each other and wherein means for the temporary fixing of a rotational position of the driver ring to the base body are arranged.
An extruded separator spline of indeterminate length for separating at least two pairs of twisted conductors comprising an extrudate having an indeterminate length; said extrudate having a central longitudinal axis along its indeterminate length; and wherein the extrudate is formed of a foamed, polymeric, halogen-free material and further wherein the extrudate has a. a shape having four arms emanating from the central longitudinal axis; the extrudate further comprising a cross-section without a continuous void along either the longitudinal axis or in any of said four arms; each of the arms being of uniform dimension from the longitudinal axis towards a terminal end of each arm; each of the arms being arranged in an angular disposition relative to the other arms of the extrudate and adjacent arms defining a space therebetween such that a twisted pair of conductors can nest in the space without extending beyond the terminal ends of the adjacent arms; or b. a shape being selected from the group consisting of a rod, a star, and a bar; a periphery of each of the rod, the star and the bar having a plurality of cavities extending from the periphery into the body of the rod, the star and the bar; said cavities being of a size and shape to house within the cavity a twisted pair of conductors; the extrudate further comprising a cross-section without a continuous void along the longitudinal axis, and wherein the extrudate forms a separator spline suitable to isolate at least two twisted pair of conductors in a different cavity of said plurality of cavities. a. a shape having four arms emanating from the central longitudinal axis; the extrudate further comprising a cross-section without a continuous void along either the longitudinal axis or in any of said four arms; each of the arms being of uniform dimension from the longitudinal axis towards a terminal end of each arm; each of the arms being arranged in an angular disposition relative to the other arms of the extrudate and adjacent arms defining a space therebetween such that a twisted pair of conductors can nest in the space without extending beyond the terminal ends of the adjacent arms; or b. a shape being selected from the group consisting of a rod, a star, and a bar; a periphery of each of the rod, the star and the bar having a plurality of cavities extending from the periphery into the body of the rod, the star and the bar; said cavities being of a size and shape to house within the cavity a twisted pair of conductors; the extrudate further comprising a cross-section without a continuous void along the longitudinal axis, and wherein the extrudate forms a separator spline suitable to isolate at least two twisted pair of conductors in a different cavity of said plurality of cavities.
A loading unit detection system comprising: an adaptor configured to releasably couple to a handle of a surgical instrument. wherein the adaptor defines an elongate member defining a receiver; a loading unit including a connector configured to be received within the receiver to releasably couple the loading unit to the elongate member; a magnet supported on the connector, the magnet configured to translate relative to elongate member as the connector is received within the receiver; and a GMR IC embedded within the elongate member, the GMR IC configured to output a differential voltage in response to a magnetic field produced by the magnet of the loading unit, the differential voltage being indicative of the position of the loading unit within the receiver of the elongate member. an adaptor configured to releasably couple to a handle of a surgical instrument. wherein the adaptor defines an elongate member defining a receiver; a loading unit including a connector configured to be received within the receiver to releasably couple the loading unit to the elongate member; a magnet supported on the connector, the magnet configured to translate relative to elongate member as the connector is received within the receiver; and a GMR IC embedded within the elongate member, the GMR IC configured to output a differential voltage in response to a magnetic field produced by the magnet of the loading unit, the differential voltage being indicative of the position of the loading unit within the receiver of the elongate member.
A method for operating a noise reducing headset comprising: determining if electrical power from an external battery with an attached charging source is available, and if electrical power from the external battery with the attached charging source is available, operating communication circuitry, talk through circuitry, and ANR circuitry with power from the battery with the external charging source; if electrical power from the external battery with the attached charging source is not available, determining if electrical power from an external battery without an attached charging source is available, and if electrical power from the external battery without an attached charging source is available, operating the communication circuitry, the talk through circuitry, and the ANR circuitry with power from the battery without the external charging source; if electrical power from the external battery without an attached charging source is not available, determining if electrical power above a threshold level from an internal battery is available, and if electrical power electrical power above a threshold level from the internal battery source is available, operating the communication circuitry, the talk through circuitry, and the ANR circuitry with power from the internal battery; and if electrical power above the threshold level is not available, operating the communication circuitry and the talk through circuitry unpowered and disabling the ANR circuitry. determining if electrical power from an external battery with an attached charging source is available, and if electrical power from the external battery with the attached charging source is available, operating communication circuitry, talk through circuitry, and ANR circuitry with power from the battery with the external charging source; if electrical power from the external battery with the attached charging source is not available, determining if electrical power from an external battery without an attached charging source is available, and if electrical power from the external battery without an attached charging source is available, operating the communication circuitry, the talk through circuitry, and the ANR circuitry with power from the battery without the external charging source; if electrical power from the external battery without an attached charging source is not available, determining if electrical power above a threshold level from an internal battery is available, and if electrical power electrical power above a threshold level from the internal battery source is available, operating the communication circuitry, the talk through circuitry, and the ANR circuitry with power from the internal battery; and if electrical power above the threshold level is not available, operating the communication circuitry and the talk through circuitry unpowered and disabling the ANR circuitry.
A method of detecting alignment at a wireless power receiver, comprising: receiving wireless power at a first inductive element from a transmitter; receiving wireless power at a second inductive element from the transmitter; intermittently, electrically coupling a node common to both the first and second inductive elements with an output; measuring a characteristic between one end of the first inductive element and the output; measuring a characteristic between one end of the second inductive element and the output; and determining a lateral position of the receiver relative to the transmitter based on the measured characteristics. receiving wireless power at a first inductive element from a transmitter; receiving wireless power at a second inductive element from the transmitter; intermittently, electrically coupling a node common to both the first and second inductive elements with an output; measuring a characteristic between one end of the first inductive element and the output; measuring a characteristic between one end of the second inductive element and the output; and determining a lateral position of the receiver relative to the transmitter based on the measured characteristics.
A flexible pouch comprising an opening with a perimeter of the opening (a), a bottom with a perimeter of the bottom (b), at least two side walls, at least two lateral folding lines, at least one of these lateral folding lines comprising a welding line of a width (w), said perimeter of the opening (a) is greater than said perimeter of the bottom (b), characterised in that a part or all of the lateral welding lines of the flexible pouch have a width (w) which is not constant along its length, wherein the pouch is a stand-up pouch; and wherein at least one lateral welding line has a width near the bottom which is larger than the width near the opening.
A lithium ion secondary battery comprising an electrode, the electrode including an active material mix layer on both sides of a current collector, characterized in that the active material mix layer has a smaller void ratio in a current collector side region of the active material mix layer near the current collector and a surface side region of the layer near the surface of the active material mix layer than in an intermediate region between the current collector side region and the surface side region of the active material mix layer, a proportion of the void ratio in the current collector side region and the surface side region to the void ratio in the intermediate region is in a range of 86% to 95%; the active material mix layer has active material particles, and the active material particles have a longer average actual circumferential length in the surface side region and the current collector side region than in the intermediate region, a proportion of the average actual circumferential length of the active material particles in the current collector side region and the surface side region to the average actual circumferential length of the active material particles in the intermediate region is in a range of 109% to 127; wherein secondary particles containing voids formed by combining a plurality of primary particles are used as the active material particles, the secondary particles being obtained by sintering the plurality of primary particles.
A method based on a redundantly designed combination of data for estimating if an individual diagnosed with prostate cancer will require active therapy, comprising the steps of: 1. In at least one biological sample from said individual, analyzing a category of SNPs related to PCa (SNPpc), by measuring a presence or absence of one or two risk allele(s) of each of a plurality of SNPpc; 2. Combining data regarding said category of SNPpc to form a SNPpc composite value, wherein the method allows disregarding data of a subset of at least 10% of the SNPpc of the SNPpc category when forming the SNPpc composite value, wherein the SNPpc composite value is based on a predetermined odds ratio for each individual SNP included in the SNPpc category, and wherein the SNPpc composite value is formed from data of at least 90 SNPpc; 3. Correlating said SNPpc composite value to the likelihood of the individual requiring active therapy, by comparing the SNPpc composite value to a pre-determined cut-off value established with control samples, wherein it is known if the individuals, from whom the control samples originate, required active therapy or did not require active therapy. 1. In at least one biological sample from said individual, analyzing a category of SNPs related to PCa (SNPpc), by measuring a presence or absence of one or two risk allele(s) of each of a plurality of SNPpc; 2. Combining data regarding said category of SNPpc to form a SNPpc composite value, wherein the method allows disregarding data of a subset of at least 10% of the SNPpc of the SNPpc category when forming the SNPpc composite value, wherein the SNPpc composite value is based on a predetermined odds ratio for each individual SNP included in the SNPpc category, and wherein the SNPpc composite value is formed from data of at least 90 SNPpc; 3. Correlating said SNPpc composite value to the likelihood of the individual requiring active therapy, by comparing the SNPpc composite value to a pre-determined cut-off value established with control samples, wherein it is known if the individuals, from whom the control samples originate, required active therapy or did not require active therapy.
A cable transportation system for transporting people, the system extending along a given track and comprising: - at least one first and at least one second haul cable (3, 4), which are respectively actuated by a first and a second motor (17, 18), extending at least partly along the track and having respective mutually aligned end sections; - at least one vehicle comprising at least one first and at least one second clamping device (9, 10), which are configured for selectively attaching the vehicle to the first or the second haul cable (3, 4); - a passenger embarking and disembarking station at the end sections of the first and the second haul cable (3, 4); - a first and a second control cam (11, 12), which are respectively arranged at the end sections of the first and the second haul cable (3, 4); and - a first and second actuator (13, 14) for selectively moving the first and the second control cam (11, 12) between an operating position for opening and closing the first and the second clamping device (9, 10) and a resting position, in which the first and the second control cam (11, 12) do not interfere with the first and the second clamping device (9, 10), wherein the first and the second control cam (11, 12) are mutually spaced apart by a distance equal to the distance between the first and the second clamping device (9, 10) so that when the first clamping device is arranged at the second control cam, the second clamping device is arranged at the first control cam, and each control cam (11; 12) comprises an opening ramp and a closing ramp for the clamping devices (9, 10) so that, when each control cam (11; 12) is arranged in the operating position and the vehicle advances, the clamping device (9; 10) which interferes with the control cam (11; 12) performs a cycle of opening and closing. - at least one first and at least one second haul cable (3, 4), which are respectively actuated by a first and a second motor (17, 18), extending at least partly along the track and having respective mutually aligned end sections; - at least one vehicle comprising at least one first and at least one second clamping device (9, 10), which are configured for selectively attaching the vehicle to the first or the second haul cable (3, 4); - a passenger embarking and disembarking station at the end sections of the first and the second haul cable (3, 4); - a first and a second control cam (11, 12), which are respectively arranged at the end sections of the first and the second haul cable (3, 4); and - a first and second actuator (13, 14) for selectively moving the first and the second control cam (11, 12) between an operating position for opening and closing the first and the second clamping device (9, 10) and a resting position, in which the first and the second control cam (11, 12) do not interfere with the first and the second clamping device (9, 10),