mhurhangee/ep-ind-claims huggingface dataset:
A terpolymer having General Formula: in which: R 1 and R 3 are each independently chosen from divalent C 4 -C 7 aliphatic groups and divalent C 4 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combination thereof, where: the divalent C 4 -C 7 heteroaliphatic groups of R 1 and R 3 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 or R 3 is two; R 2 is Q 1: in which: R 4 is chosen from divalent C 4 -C 7 aliphatic groups and divalent C 4 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combination thereof, where: the divalent C 4 -C 7 heteroaliphatic groups of R 4 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 4 is two; x is a molar fraction range chosen from 0.1 to 0.9; y is a molar fraction range chosen from 0.1 to 0.9; and z is a molar fraction range chosen from greater than 0 to 0.8, where the summation of x, y, and z equals 1. R 1 and R 3 are each independently chosen from divalent C 4 -C 7 aliphatic groups and divalent C 4 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combination thereof, where: the divalent C 4 -C 7 heteroaliphatic groups of R 1 and R 3 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 or R 3 is two; the divalent C 4 -C 7 heteroaliphatic groups of R 1 and R 3 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 1 or R 3 is two; R 2 is Q 1: in which: R 4 is chosen from divalent C 4 -C 7 aliphatic groups and divalent C 4 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combination thereof, where: the divalent C 4 -C 7 heteroaliphatic groups of R 4 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 4 is two; R 4 is chosen from divalent C 4 -C 7 aliphatic groups and divalent C 4 -C 7 heteroaliphatic groups, optionally substituted with one or more C 1 -C 6 aliphatic groups, heteroatoms independently chosen from O, N, and S, or combination thereof, where: the divalent C 4 -C 7 heteroaliphatic groups of R 4 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 4 is two; the divalent C 4 -C 7 heteroaliphatic groups of R 4 comprise one or two heteroatoms independently chosen from O, N, and S, and the maximum number of heteroatoms in R 4 is two; x is a molar fraction range chosen from 0.1 to 0.9; y is a molar fraction range chosen from 0.1 to 0.9; and z is a molar fraction range chosen from greater than 0 to 0.8, where the summation of x, y, and z equals 1.
A catheter balloon completely or partially coated with paclitaxel in crystalline hydrated form or in crystalline hydrated solvated form, having an immediate release and bioavailability of a therapeutically effective amount of paclitaxel at the site of intervention, wherein the coating layer of paclitaxel comprises urea.
An autofocus apparatus, comprising: a light source; an optical coupler having a first port, second port and a third port; wherein a light signal in the optical coupler travels substantially only from the first port to the second port and from the second port to the third port; wherein the optic coupler couples to the light source at the first port; an optical collimator for directing a light output from the second port of the optical coupler onto a sample through a Dichroic mirror and a microscope objective, wherein the sample is placed on a substrate supported by an adjustable microscopy stage; a scanning means for focusing the light at a plurality of focal points along an axis; a photodiode detector for converting a light signal that comprises reflections off of the substrate at the plurality of focal points along the axis, into an intensity signal, wherein the light signal is captured by the microscope objective and sent to the photodiode detector through the Dichroic mirror, the optical collimator, and into the second port and out of the third port of the optic coupler; a memory device for storing a signal template; and a microprocessor for detecting a peak in the intensity signal by cross-correlating the intensity signal with the signal template; wherein the microprocessor is configured to generate a command for moving the position of the adjustable microscopy stage along the axis based on a difference between the location of the detected peak in the intensity signal and the location of a peak in a reference signal. a light source; an optical coupler having a first port, second port and a third port; wherein a light signal in the optical coupler travels substantially only from the first port to the second port and from the second port to the third port; wherein the optic coupler couples to the light source at the first port; an optical collimator for directing a light output from the second port of the optical coupler onto a sample through a Dichroic mirror and a microscope objective, wherein the sample is placed on a substrate supported by an adjustable microscopy stage; a scanning means for focusing the light at a plurality of focal points along an axis; a photodiode detector for converting a light signal that comprises reflections off of the substrate at the plurality of focal points along the axis, into an intensity signal, wherein the light signal is captured by the microscope objective and sent to the photodiode detector through the Dichroic mirror, the optical collimator, and into the second port and out of the third port of the optic coupler; a memory device for storing a signal template; and a microprocessor for detecting a peak in the intensity signal by cross-correlating the intensity signal with the signal template; wherein the microprocessor is configured to generate a command for moving the position of the adjustable microscopy stage along the axis based on a difference between the location of the detected peak in the intensity signal and the location of a peak in a reference signal.
Respiratory ventilation device, intended to send an airflow, generated by a fan, into a duct, the duct extending between the device and a respiratory mask, intended to be worn by a user, the device comprising: - an air inlet, intended to admit air into the device; - a fan; - an air outlet, the air outlet being configured to be connected to the duct; such that when the fan is operating, air flows, through the device, from the air inlet successively to the fan then to the air outlet; - a flow sensor, measuring a flow rate of air flowing through the device, and/or a pressure sensor measuring a pressure between the fan and the air outlet; - a control unit, connected to the flow sensor and/or to the pressure sensor; - an enclosure, defining the air inlet and the air outlet, the enclosure containing the fan, - the enclosure extending, around a longitudinal axis, between a base (10 inf) and a top (10 sup); - the enclosure comprising a side wall (11, 12, 13) connecting the base and the top, the side wall extending around the longitudinal axis; the device being characterized in that - the enclosure comprises at least one holder (40, 40 a, 40 b), forming a curve, and extending inside the enclosure, around the longitudinal axis, the holder being placed facing the side wall, the holder bearing a plurality of light sources, each light source being configured to emit a light; - the enclosure is formed from a translucent and/or scattering material; such that under the effect of an activation of the light sources fastened to the holder, the light, produced by the light sources, diffuses through the side wall of the enclosure. - an air inlet, intended to admit air into the device; - a fan; - an air outlet, the air outlet being configured to be connected to the duct; such that when the fan is operating, air flows, through the device, from the air inlet successively to the fan then to the air outlet; - a flow sensor, measuring a flow rate of air flowing through the device, and/or a pressure sensor measuring a pressure between the fan and the air outlet; - a control unit, connected to the flow sensor and/or to the pressure sensor; - an enclosure, defining the air inlet and the air outlet, the enclosure containing the fan, - the enclosure extending, around a longitudinal axis, between a base (10 inf) and a top (10 sup); - the enclosure comprising a side wall (11, 12, 13) connecting the base and the top, the side wall extending around the longitudinal axis; - the enclosure comprises at least one holder (40, 40 a, 40 b), forming a curve, and extending inside the enclosure, around the longitudinal axis, the holder being placed facing the side wall, the holder bearing a plurality of light sources, each light source being configured to emit a light; - the enclosure is formed from a translucent and/or scattering material;
A method of producing hematite for ironmaking by a process of adding a mineral acid and an oxidant to ore containing iron and valuable metals and then leaching the valuable metals under high pressure and high temperature, the method further comprising the following steps to: a neutralization step of performing a two-stage neutralization process having a first neutralization process of neutralizing a leachate obtained under high pressure and high temperature by adding the mineral acid and the oxidant to the ore containing iron and valuable metals with magnesium oxide sieved in a particle size range from 10 μm to 500 μm as a neutralizer, and a second neutralization process in which the neutralizer is replaced with magnesium hydroxide as a neutralizer when a concentration of a free acid of the leachate is reduced to 4 g/L, thereby forming a leach slurry; a solid-liquid separation step of separating the leach slurry obtained in the neutralization step into a leach residue and the leachate; and a classification step of classifying the leach residue into the hematite and gangue components. a neutralization step of performing a two-stage neutralization process having a first neutralization process of neutralizing a leachate obtained under high pressure and high temperature by adding the mineral acid and the oxidant to the ore containing iron and valuable metals with magnesium oxide sieved in a particle size range from 10 μm to 500 μm as a neutralizer, and a second neutralization process in which the neutralizer is replaced with magnesium hydroxide as a neutralizer when a concentration of a free acid of the leachate is reduced to 4 g/L, thereby forming a leach slurry; a solid-liquid separation step of separating the leach slurry obtained in the neutralization step into a leach residue and the leachate; and a classification step of classifying the leach residue into the hematite and gangue components.
An implantable device to treat obesity, said device being able to create a mechanical constraint on a gastrointestinal organ wall and comprising: - an energy source (36, 92), - a mechanical stimulation means, characterized in that the device is adapted to create a repetitive mechanical constraint by cyclic deformation of the mechanical stimulation means, wherein the shape and size of constitutive components of said device, or at least of some of them, are adapted for inserted mounting within the wall of a gastrointestinal organ, and wherein the mechanical stimulation means, or at least its part(s) or component(s) (33; 92; 44) providing the repetitive mechanical constraint, has(have) a given surface extension, able to cover a substantial part of the wall, the considered means or component(s) having also a relative stiffness when not activated. - an energy source (36, 92), - a mechanical stimulation means, characterized in that the device is adapted to create a repetitive mechanical constraint by cyclic deformation of the mechanical stimulation means, wherein the shape and size of constitutive components of said device, or at least of some of them, are adapted for inserted mounting within the wall of a gastrointestinal organ, and
A shock absorbing member, comprising: a cylindrical member that is configured to receive an impact load axially applied and to be axially collapsed, and a wood member that is received in the cylindrical member while an axial direction of annual rings thereof is aligned with an axial direction of the cylindrical member, wherein the wood member and the cylindrical member are configured to receive the impact load in an axial direction thereof, characterized in that said shock absorbing member further comprises positioning means (25, 27, 30) for positioning the wood member relative to the cylindrical member such that a clearance is formed between an outer surface (12u, 12d, 12f, 12r) of the wood member and an inner wall surface of the cylindrical member over an entire circumference thereof. a cylindrical member that is configured to receive an impact load axially applied and to be axially collapsed, and a wood member that is received in the cylindrical member while an axial direction of annual rings thereof is aligned with an axial direction of the cylindrical member, wherein the wood member and the cylindrical member are configured to receive the impact load in an axial direction thereof, characterized in that said shock absorbing member further comprises positioning means (25, 27, 30) for positioning the wood member relative to the cylindrical member such that a clearance is formed between an outer surface (12u, 12d, 12f, 12r) of the wood member and an inner wall surface of the cylindrical member over an entire circumference thereof.
A column for supporting electrical accessories and/or for routing power conductors or cables, the column extending along a longitudinal axis and including an elongate frame defining at least one conduit, and a presser device for pressing the frame between two walls, the presser device comprising a telescopic pole; said presser device includes a first cam surface that is secured to said frame, a second cam surface that is associated with said pole, said first and second cam surfaces being annular, characterized in that the telescopic pole is housed, at least in part, in said frame, with a portion that projects in line with said frame, and said presser device includes a locking ring with an inside face carrying two splines that are parallel to the longitudinal axis of the column with opposite ends that are adapted to press against the first and second cam surfaces (301, 302) respectively, so as to move the pole relative to the frame when said locking ring is turned about the longitudinal axis of the column.
A method for analyzing one or more analytes selected from the group consisting of anionic compounds, phosphorylated compounds, sulfated compounds, carboxylated compounds and phosphopeptides in a sample by liquid chromatography coupled with mass spectrometry, the method comprising: providing a liquid chromatography column packed with a stationary phase; providing a mobile phase comprising one or more solvents and an additive of medronic acid; injecting the sample into the mobile phase; performing chromatography under conditions to separate the one or more analytes in the liquid chromatography column, by flowing the mobile phase with the sample through the liquid chromatography column; and analyzing the one or more separated analytes with a mass spectrometer. providing a liquid chromatography column packed with a stationary phase; providing a mobile phase comprising one or more solvents and an additive of medronic acid; injecting the sample into the mobile phase; performing chromatography under conditions to separate the one or more analytes in the liquid chromatography column, by flowing the mobile phase with the sample through the liquid chromatography column; and analyzing the one or more separated analytes with a mass spectrometer.
Device for implementing a mirror therapy, comprising: - a camera for filming a healthy limb of a patient, - a working surface on which the patient positions their healthy or pathological limb, - a screen capable of displaying the image of the healthy limb, which is positioned on the working surface, and which is filmed by the camera, said screen preventing the patient from directly seeing their healthy or pathological limb on the working surface, and - a support structure, which is connected to the working surface, and on which the screen and the camera are mounted, characterized in that the device includes a mirror fixed behind the screen, and in that the camera films the healthy limb reflected in the mirror, and in that the image displayed by the screen is a reflection of the healthy limb in said mirror. - a camera for filming a healthy limb of a patient, - a working surface on which the patient positions their healthy or pathological limb, - a screen capable of displaying the image of the healthy limb, which is positioned on the working surface, and which is filmed by the camera, said screen preventing the patient from directly seeing their healthy or pathological limb on the working surface, and - a support structure, which is connected to the working surface, and on which the screen and the camera are mounted, characterized in that the device includes a mirror fixed behind the screen, and in that the camera films the healthy limb reflected in the mirror, and in that the image displayed by the screen is a reflection of the healthy limb in said mirror.
Method for characterizing objects to be identified, comprising acquiring sensor data from a first source of sensor information and a second source of sensor information; taking the sensor data as a basis for determining at least one object to be identified; wherein a hierarchic model is used in which a data cloud containing all the sensor data serves as a basis; selecting that sensor information from the first source that is associated with the object to be identified; using information based on the selected sensor information from the first source to characterize the object to be identified; wherein the characterization of the object to be identified is limited to sensor data from the first source of sensor information; wherein the first source of sensor information is a local sensor of a vehicle and provides sensor raw data, and wherein the second source of sensor information is a remote sensor and provides sensor messages via an interface, and wherein objects to be identified are all items, persons and vehicles present in the vehicle environment. acquiring sensor data from a first source of sensor information and a second source of sensor information; taking the sensor data as a basis for determining at least one object to be identified; wherein a hierarchic model is used in which a data cloud containing all the sensor data serves as a basis; selecting that sensor information from the first source that is associated with the object to be identified; using information based on the selected sensor information from the first source to characterize the object to be identified; wherein the characterization of the object to be identified is limited to sensor data from the first source of sensor information; wherein the first source of sensor information is a local sensor of a vehicle and provides sensor raw data, and wherein the second source of sensor information is a remote sensor and provides sensor messages via an interface, and wherein objects to be identified are all items, persons and vehicles present in the vehicle environment.
A terminal control method in a terminal (3, 300) having installed a first operating system and a second operating system, wherein the first operating system and the second operating system are different operating systems, wherein the method comprises: receiving, by the terminal (3, 300), first control information sent by a server, wherein the first control information carries a first control instruction and a system identifier, the first control instruction instructs to perform an indicated operation on the terminal (3, 300); determining, by the terminal (3, 300), based on the system identifier that a foreground operating system of the terminal is the first operating system; in response to the determining, setting a Wi-Fi access point identifier list of the first operating system, wherein the first control instruction is used to indicate that a Wi-Fi device in the terminal (3, 300) is allowed to be used, and only access points in the Wi-Fi access point identifier list can be connected when the Wi-Fi device in the terminal (3, 300) is used; and the setting the Wi-Fi access point identifier list of the first operating system comprises: powering on, by the terminal (3, 300), the Wi-Fi device by using driver information of the Wi-Fi device in the terminal (3, 300), and setting the Wi-Fi access point identifier list of the first operating system to comprise only the identifier of a preset access point by using an application development interface, API, in a system service of a container, wherein the container bears the first operating system receiving, by the terminal (3, 300), first control information sent by a server, wherein the first control information carries a first control instruction and a system identifier, the first control instruction instructs to perform an indicated operation on the terminal (3, 300); determining, by the terminal (3, 300), based on the system identifier that a foreground operating system of the terminal is the first operating system; in response to the determining, setting a Wi-Fi access point identifier list of the first operating system, wherein the first control instruction is used to indicate that a Wi-Fi device in the terminal (3, 300) is allowed to be used, and only access points in the Wi-Fi access point identifier list can be connected when the Wi-Fi device in the terminal (3, 300) is used; and the setting the Wi-Fi access point identifier list of the first operating system comprises: powering on, by the terminal (3, 300), the Wi-Fi device by using driver information of the Wi-Fi device in the terminal (3, 300), and setting the Wi-Fi access point identifier list of the first operating system to comprise only the identifier of a preset access point by using an application development interface, API, in a system service of a container, wherein the container bears the first operating system