mhurhangee/ep-ind-claims huggingface dataset:
A coated paper material comprising a paper substrate coated with a composition comprising: at least one polymeric binder having a glass transition temperature (Tg) of -3 °C or lower, and at least one inorganic filler having a BET specific surface area in the range of 2.0 to 20.0 m 2 /g, wherein the dry weight ratio of the at least one polymeric binder to the at least one inorganic filler is between 15:100 and 20:100, such as between 16:100 and 20:100 and wherein the at least one polymeric binder is at least one acrylic binder and wherein the at least one polymeric binder and the at least one inorganic filler together constitute at least 90 wt.-% of the composition, based on the dry weight of the composition. at least one polymeric binder having a glass transition temperature (Tg) of -3 °C or lower, and at least one inorganic filler having a BET specific surface area in the range of 2.0 to 20.0 m 2 /g, wherein the dry weight ratio of the at least one polymeric binder to the at least one inorganic filler is between 15:100 and 20:100, such as between 16:100 and 20:100 and wherein the at least one polymeric binder is at least one acrylic binder and wherein the at least one polymeric binder and the at least one inorganic filler together constitute at least 90 wt.-% of the composition, based on the dry weight of the composition.
An aqueous aluminate solution consisting of aluminium, ammonia, and ammonium ions, NH 4 +, suitable for use as a precipitation medium for aluminium hydroxides, the solution having a pH value of 9 to 12, where the concentration of ammonium ions ([NH 4 +]) in the solution is within the range from one quarter of the concentration of aluminium in the solution to the equilibrium solubility of ammonia in the solution, and the concentration of aluminium in the solution is in the range of 0.0001 mol/l to 0.02 mol/l.
An insufflation system configured for surgical use with a patient comprising: a plurality of flow rate sensors (102, 104, 106), wherein each of the flow rate sensors is configured to measure flow across a different flow rate range; a first valve in fluid communication with the plurality of flow rate sensors (102, 104, 106) and a primary gas delivery line that is connectable to the patient; a controller configured to select one of the plurality of flow rate sensors (102, 104, 106) based on a desired flow through the first valve, characterized by that the controller selects only one of the plurality of flow rate sensors (102, 104, 106) based on a desired flow through the first valve and a selected one of the plurality of flow rate sensors, wherein flow to a non-selected flow rate sensor is obstructed, and wherein flow to the non-selected flow rate sensor is obstructed by on-off valves in fluid communication with each of the plurality of flow rate sensors (102, 104, 106). a plurality of flow rate sensors (102, 104, 106), wherein each of the flow rate sensors is configured to measure flow across a different flow rate range; a first valve in fluid communication with the plurality of flow rate sensors (102, 104, 106) and a primary gas delivery line that is connectable to the patient; a controller configured to select one of the plurality of flow rate sensors (102, 104, 106) based on a desired flow through the first valve, characterized by that the controller selects only one of the plurality of flow rate sensors (102, 104, 106) based on a desired flow through the first valve and a selected one of the plurality of flow rate sensors, wherein flow to a non-selected flow rate sensor is obstructed, and wherein flow to the non-selected flow rate sensor is obstructed by on-off valves in fluid communication with each of the plurality of flow rate sensors (102, 104, 106).
Device for putting back a bearing shell which has slid at least partially out of a receiving part on a shaft, wherein the device is in the form of a hand-operable tool, wherein the tool has a shell element in the form of a circular-cylinder cutout, characterized in that, on the convex side of the shell element wall, there is provided a retaining bar, projecting therefrom, with an end-side handle, wherein the shell element of the tool, by means of the handle and the adjoining retaining bar, is designed such that the shell element is able to be placed in a form-fitting manner onto a shaft before a bearing shell which has slid out, and, by way of movement in a circumferential direction and a radial pressure on the bearing shell, the latter is able to be put back into the receiving part.
Allopregnanolone for use in a method of treating, reducing, and/or mitigating symptoms associated with and/or caused by post-partum depression in a human subject in need thereof, comprising administering to the subject the allopregnanolone, wherein the allopregnanolone is formulated in a sulfobutylether-beta-cyclodextrin sodium salt.
A rubber composition for tires, comprising: a diene rubber; silica having a BET specific surface area measured in accordance with ASTM D3037-81 of 170 to 270 m 2 /g; sulfur; a liquid resin having a softening point measured using a ring and ball softening point measuring apparatus in accordance with JIS K 6220-1:2001 of -20 to 45°C; and at least one resin selected from the group consisting of terpene resins having a softening point of 46 to 160°C, rosin resins having a softening point of 46 to 140°C, and aromatic petroleum resins having a softening point of 46 to 140°C, wherein the liquid resin is a liquid coumarone-indene resin, the at least one resin comprises an aromatic vinyl polymer obtained by polymerizing at least one of α-methylstyrene and styrene, an amount of the liquid resin is 0.5 to 20 parts by mass, and an amount of the silica is 40 to 120 parts by mass, each per 100 parts by mass of a rubber component of the rubber composition. a diene rubber; silica having a BET specific surface area measured in accordance with ASTM D3037-81 of 170 to 270 m 2 /g; sulfur; a liquid resin having a softening point measured using a ring and ball softening point measuring apparatus in accordance with JIS K 6220-1:2001 of -20 to 45°C; and at least one resin selected from the group consisting of terpene resins having a softening point of 46 to 160°C, rosin resins having a softening point of 46 to 140°C, and aromatic petroleum resins having a softening point of 46 to 140°C, wherein the liquid resin is a liquid coumarone-indene resin, the at least one resin comprises an aromatic vinyl polymer obtained by polymerizing at least one of α-methylstyrene and styrene, an amount of the liquid resin is 0.5 to 20 parts by mass, and an amount of the silica is 40 to 120 parts by mass, each per 100 parts by mass of a rubber component of the rubber composition.
A vehicle comprising: an engine including a cylinder body; a muffler to which exhaust gas from the engine is supplied; a shroud covering the cylinder body; a muffler cover covering the muffler and communicating with the shroud; an undercover provided at a lower position than the engine and having an opening; an exhaust duct connected to an exit end portion of the muffler cover; and an engine room having an underside defined by the undercover, the engine room housing the engine, the muffler, the shroud, the muffler cover and the exhaust duct, wherein the opening is located at a more rearward position than the muffler in a side view, and the exhaust duct is routed above the undercover and the exhaust duct has its rearward end portion positioned at the opening in order to discharge the exhaust gas from below the engine room to the outside; characterized in that the vehicle further comprises a fan provided inside a fan case connected to the shroud, for supplying external air into the shroud; wherein an air-flowable gap is formed between the muffler and the muffler cover, so that the external air which is introduced into the shroud by the fan flows between the shroud and the cylinder body, and between the muffler cover and the muffler. an engine including a cylinder body; a muffler to which exhaust gas from the engine is supplied; a shroud covering the cylinder body; a muffler cover covering the muffler and communicating with the shroud; an undercover provided at a lower position than the engine and having an opening; an exhaust duct connected to an exit end portion of the muffler cover; and an engine room having an underside defined by the undercover, the engine room housing the engine, the muffler, the shroud, the muffler cover and the exhaust duct, wherein the opening is located at a more rearward position than the muffler in a side view, and the exhaust duct is routed above the undercover and the exhaust duct has its rearward end portion positioned at the opening in order to discharge the exhaust gas from below the engine room to the outside; characterized in that the vehicle further comprises a fan provided inside a fan case connected to the shroud, for supplying external air into the shroud; wherein an air-flowable gap is formed between the muffler and the muffler cover, so that the external air which is introduced into the shroud by the fan flows between the shroud and the cylinder body, and between the muffler cover and the muffler.
A digital quantum dot radiographic detection system comprising: (a) a scintillation subsystem that converts X-ray ionizing radiation into luminescent visible light; (b) a semiconductor visible light detection subsystem comprising a quantum dot semiconductor substrate having_a plurality of quantum dot image sensors (200, 200a, 200b) and a semiconductor substrate, said quantum dot image sensors (200, 200a, 200b) detecting said visible light from said scintillation subsystem and converting said visible light into at least one electronic signal; and (c) said plurality of quantum dot image sensors (200, 200a, 200b) is in substantially direct contact with said scintillation subsystem. (a) a scintillation subsystem that converts X-ray ionizing radiation into luminescent visible light; (b) a semiconductor visible light detection subsystem comprising a quantum dot semiconductor substrate having_a plurality of quantum dot image sensors (200, 200a, 200b) and a semiconductor substrate, said quantum dot image sensors (200, 200a, 200b) detecting said visible light from said scintillation subsystem and converting said visible light into at least one electronic signal; and (c) said plurality of quantum dot image sensors (200, 200a, 200b) is in substantially direct contact with said scintillation subsystem.
A pretreatment cup comprising: a base comprising an exterior base surface; a wall comprising an exterior wall surface; and an opening circumscribed by a rim, wherein the opening is at least partially opposite the base; wherein: the exterior base surface is connected to the exterior wall surface at an exterior periphery; the exterior base surface comprises a pretreating region which is a spreading region, comprising spreading protrusions, wherein; the pretreatment cup further comprises a scrubbing region, wherein the scrubbing region comprises scrubbing protrusions which include lines, wherein the scrubbing region is located on a surface selected from the group consisting of: the exterior base surface, the exterior wall surface, and mixtures thereof; wherein the pretreating region is differentiated from at least part of the remaining combined area of the exterior base surface and the exterior wall surface by: a difference in material, colour, translucency, and mixtures thereof, characterised in that the spreading protrusions are dots and that the spreading region has a curvature such that when the pretreatment cup is positioned with centre of mass of the spreading region on a non-deformable surface, the pretreatment cup can be tilted a maximum of 45°, preferably a maximum of 30°, more preferably a maximum of 15° before the spreading region is no longer in contact with the non-deformable surface. a base comprising an exterior base surface; a wall comprising an exterior wall surface; and an opening circumscribed by a rim, wherein the opening is at least partially opposite the base; the exterior base surface is connected to the exterior wall surface at an exterior periphery; the exterior base surface comprises a pretreating region which is a spreading region, comprising spreading protrusions, wherein; the pretreatment cup further comprises a scrubbing region, wherein the scrubbing region comprises scrubbing protrusions which include lines, wherein the scrubbing region is located on a surface selected from the group consisting of: the exterior base surface, the exterior wall surface, and mixtures thereof;
A flow therapy apparatus comprising: an inlet port configured to receive a flow of gases from at least two different gas sources; a blower configured to receive the flow of gases from the inlet port, the blower configured to mix the flow of gases from the at least two different gas sources to produce mixed gases, the blower being a combined blower and mixer; a gases flow path configured to receive the mixed gases from the blower; one or more sensors configured to measure a property of the flow of gases flowing through the gases flow path, wherein the one or more sensors are located downstream of the blower, wherein positioning the one or more sensors after the blower allows the blower to be a mixer; and a sensing chamber; wherein the gases flow path is configured to direct the gases flow through the sensing chamber, wherein the one or more sensors are located within the sensing chamber, characterized in that the sensing chamber further comprises a sensing circuit board, wherein a first portion of the sensing circuit board is positioned at least partially within the gases flow path, wherein the sensing circuit board comprises at least a second portion of the sensing circuit board positioned outside the gases flow path, and wherein the sensing chamber comprises a seal dividing the first portion of the sensing circuit board from the second portion of the sensing circuit board. an inlet port configured to receive a flow of gases from at least two different gas sources; a blower configured to receive the flow of gases from the inlet port, the blower configured to mix the flow of gases from the at least two different gas sources to produce mixed gases, the blower being a combined blower and mixer; a gases flow path configured to receive the mixed gases from the blower; one or more sensors configured to measure a property of the flow of gases flowing through the gases flow path, wherein the one or more sensors are located downstream of the blower, wherein positioning the one or more sensors after the blower allows the blower to be a mixer; and a sensing chamber; wherein the gases flow path is configured to direct the gases flow through the sensing chamber, wherein the one or more sensors are located within the sensing chamber, characterized in that the sensing chamber further comprises a sensing circuit board, wherein a first portion of the sensing circuit board is positioned at least partially within the gases flow path, wherein the sensing circuit board comprises at least a second portion of the sensing circuit board positioned outside the gases flow path, and wherein the sensing chamber comprises a seal dividing the first portion of the sensing circuit board from the second portion of the sensing circuit board.
An anti-Notch4 antibody or a Notch4 binding fragment thereof, wherein said antibody or a Notch4 binding fragment thereof comprises heavy and light chains and is selected from any of the following (i) - (vii): (i) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, (ii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, (iii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 47, (iv) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 49, (v) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 51, (vi) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 39 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, and (vii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 47. (i) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, (ii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, (iii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 47, (iv) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 49, (v) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 33 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 51, (vi) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 39 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 45, and (vii) an antibody in which the variable region of said heavy chain comprises the amino acid sequence of SEQ ID NO. 35 and the variable region of said light chain comprises the amino acid sequence of SEQ ID NO. 47.
A computer-implemented method of predicting with accuracy a descent trajectory of an aircraft described by means of an aircraft intent formal language, the method comprising: a) storing, in a database, actual descent trajectories of at least one aircraft of an airline for at least one airport, each trajectory being defined by a set of historical flight recorded data; b) synchronising weather data with the set of historical flight recorded data, and storing in the database; c) calculating input data from the historical flight recorded data, where the input data is a set of data required for obtaning the values of the Aircraft Intent "AI" parameters which best fit the historical flight recorded data for each individual trajectory; the AI parameters being at least: an Aircraft Performance Model "APM", a lateral profile, a vertical profile and a function of the aircraft speed; d) defining a parametric AI description which describes the aircraft intended descent from the initial aircraft state, where at least one parameter comprised in said parametric AI description is open and whose final value is obtained as an output of an optimization process; and, e) applying and repeating an optimization process until the optimization process converges to a solution of the AI parameters which minimizes a cost function which represents the error between the computed and actual trajectories, then providing the computed trajectory which best fits the original trajectory. a) storing, in a database, actual descent trajectories of at least one aircraft of an airline for at least one airport, each trajectory being defined by a set of historical flight recorded data; b) synchronising weather data with the set of historical flight recorded data, and storing in the database; c) calculating input data from the historical flight recorded data, where the input data is a set of data required for obtaning the values of the Aircraft Intent "AI" parameters which best fit the historical flight recorded data for each individual trajectory; the AI parameters being at least: an Aircraft Performance Model "APM", a lateral profile, a vertical profile and a function of the aircraft speed; d) defining a parametric AI description which describes the aircraft intended descent from the initial aircraft state, where at least one parameter comprised in said parametric AI description is open and whose final value is obtained as an output of an optimization process; and, e) applying and repeating an optimization process until the optimization process converges to a solution of the AI parameters which minimizes a cost function which represents the error between the computed and actual trajectories, then providing the computed trajectory which best fits the original trajectory.
A device for inserting a liner into an acetabular cup, the device comprising: a first portion configured to engage the liner and a rim of the acetabular cup to align a pole of the liner and a pole of the cup along an axis of the device prior to insertion of the liner into the cup; and a second portion for pushing the liner into the cup, wherein the second portion comprises a guide arrangement for engaging a rim of the liner, and wherein the second portion is coupled to the first portion for movement of the second portion with respect to the first portion along said axis. a first portion configured to engage the liner and a rim of the acetabular cup to align a pole of the liner and a pole of the cup along an axis of the device prior to insertion of the liner into the cup; and a second portion for pushing the liner into the cup, wherein the second portion comprises a guide arrangement for engaging a rim of the liner, and wherein the second portion is coupled to the first portion for movement of the second portion with respect to the first portion along said axis.