mhurhangee/patent-ind-claim-en huggingface dataset:
A chorionic gonadotropin carboxy terminal peptide (CTP)-modified polypeptide comprising a growth hormone (GH), wherein one CTP is attached to the amino terminus of said growth hormone, and two chorionic gonadotropin CTPs are attached in tandem to the carboxy terminus of said growth hormone, optionally including a signal peptide attached to the amino terminus of said one CTP, for use in maintaining insulin-like growth factor (IGF-1) levels within a normal therapeutic range of ±2 SDS in a human subject for six months, wherein the subject is a growth hormone deficient (GHD) child, and said CTP-modified growth hormone is administered once a week at a dose of 0.66 mg/kg/week.
A method comprising: receiving power delivered over a data fiber cable at a first optical transceiver installed at a network communications device; and transmitting data and the power from the first optical transceiver to the network communications device; wherein the network communications device is powered by the power received from the first optical transceiver ; characterized by further comprising receiving redundant data and power at a second optical transceiver installed at the network communications device. receiving power delivered over a data fiber cable at a first optical transceiver installed at a network communications device; and transmitting data and the power from the first optical transceiver to the network communications device; wherein the network communications device is powered by the power received from the first optical transceiver ; characterized by further comprising receiving redundant data and power at a second optical transceiver installed at the network communications device.
A method for separating female germline stem cells from follicular aspirates, characterized in that the method comprises: separating ovarian tissues or cell masses from the follicular aspirates and performing cell dispersion to obtain single cells; the method for separating the ovarian tissues or cell masses from the follicular aspirates comprises: filtering the follicular aspirates by using a cell strainer with a pore size of 30-100 μm, with solids retained on the strainer as the ovarian tissues or cell masses; the solids retained on the strainer as the ovarian tissues or cell masses are separated from the strainer and washed, and the ovarian tissues or cell masses are separated from the follicular aspirates by the method of centrifugation; and inoculating and culturing the cells obtained in step on inactivated feeder layer cells, and sorting female germline stem cell marker-positive cells from the cultured cells. separating ovarian tissues or cell masses from the follicular aspirates and performing cell dispersion to obtain single cells; the method for separating the ovarian tissues or cell masses from the follicular aspirates comprises: filtering the follicular aspirates by using a cell strainer with a pore size of 30-100 μm, with solids retained on the strainer as the ovarian tissues or cell masses; the solids retained on the strainer as the ovarian tissues or cell masses are separated from the strainer and washed, and the ovarian tissues or cell masses are separated from the follicular aspirates by the method of centrifugation; and inoculating and culturing the cells obtained in step on inactivated feeder layer cells, and sorting female germline stem cell marker-positive cells from the cultured cells.
A composition, particularly suitable and intended for enclosing or sealing hazardous substances, in particular toxic and/or radioactive hazardous substances, or particularly suitable and intended for use in construction technology, preferably for reinforced concrete or concrete construction components such as basement walls and foundations containing a) a fluid concrete mixture or mortar mixture, which has not yet hardened, and b) at least one cold-viscous bitumen, c) wherein the cold-viscous bitumen is of low viscosity or fluid at a processing temperature from a temperature range of 5 °C to 70 °C, d) wherein the concrete mixture or the mortar mixture hardens at this processing temperature, e) wherein the cold-viscous bitumen is a vegetable oil-modified bitumen and contains vegetable oil(s), f) wherein the fraction of vegetable oil in the vegetable oil-modified bitumen is adjusted between 10 m% and 80 m%, and g) wherein the fraction of cold-viscous bitumen in the composition is chosen between 0.7 m% and 40 m%. a) a fluid concrete mixture or mortar mixture, which has not yet hardened, and b) at least one cold-viscous bitumen, c) wherein the cold-viscous bitumen is of low viscosity or fluid at a processing temperature from a temperature range of 5 °C to 70 °C, d) wherein the concrete mixture or the mortar mixture hardens at this processing temperature, e) wherein the cold-viscous bitumen is a vegetable oil-modified bitumen and contains vegetable oil(s), f) wherein the fraction of vegetable oil in the vegetable oil-modified bitumen is adjusted between 10 m% and 80 m%, and g) wherein the fraction of cold-viscous bitumen in the composition is chosen between 0.7 m% and 40 m%.
An artificial endothelial keratoplasty graft comprising a support layer made of crosslinked hydrogel and corneal endothelial cells on top or within said support layer; characterized in that said hydrogel was initially dried and only then crosslinked, wherein the crosslinked hydrogel is based on crosslinked collagen or collagen methacrylate.
An all-solid state secondary cell comprising a positive electrode collector , a negative electrode collector , and a powder laminate disposed between the positive electrode collector and the negative electrode collector , wherein the powder laminate has a positive electrode powder layer and a negative electrode powder layer , and a solid electrolyte layer disposed between the positive electrode powder layer and the negative electrode powder layer , the solid electrolyte layer covering outer peripheries of the positive electrode powder layer and the negative electrode powder layer ; the powder laminate comprises a peripheral edge part and a center part surrounded by the peripheral edge part ; and characterized in that a thickness of the peripheral edge part is greater than a thickness of the center part . wherein the powder laminate has a positive electrode powder layer and a negative electrode powder layer , and a solid electrolyte layer disposed between the positive electrode powder layer and the negative electrode powder layer , the solid electrolyte layer covering outer peripheries of the positive electrode powder layer and the negative electrode powder layer ; the powder laminate comprises a peripheral edge part and a center part surrounded by the peripheral edge part ; and characterized in that a thickness of the peripheral edge part is greater than a thickness of the center part .
A high frequency chest wall oscillation apparatus comprising a housing , an air pulse generator carried by the housing, circuitry carried by the housing and configured to control the air pulse generator, and a control panel carried by the housing and coupled to the circuitry, the control panel permitting a user to select a first mode or a second mode , wherein the first mode includes a first range of selectable baseline pressures of pressure pulses configured to treat a first respiratory ailment and the second mode includes a second range of selectable baseline pressures of pressure pulses configured to treat a second respiratory ailment that is of a different type than the first respiratory ailment, wherein the first respiratory ailment and the second respiratory ailment are treated by application of the pressure pulses from the air pulse generator to a chest of a patient, wherein the first range of selectable baseline pressures of the pressure pulses for the first respiratory ailment is different than the second range of selectable baseline pressures of the pressure pulses for the second respiratory ailment. a housing , an air pulse generator carried by the housing, circuitry carried by the housing and configured to control the air pulse generator, and a control panel carried by the housing and coupled to the circuitry, the control panel permitting a user to select a first mode or a second mode , wherein the first mode includes a first range of selectable baseline pressures of pressure pulses configured to treat a first respiratory ailment and the second mode includes a second range of selectable baseline pressures of pressure pulses configured to treat a second respiratory ailment that is of a different type than the first respiratory ailment, wherein the first respiratory ailment and the second respiratory ailment are treated by application of the pressure pulses from the air pulse generator to a chest of a patient, wherein the first range of selectable baseline pressures of the pressure pulses for the first respiratory ailment is different than the second range of selectable baseline pressures of the pressure pulses for the second respiratory ailment.
Hydraulic arrangement comprising: a pressure source (2; 102) having a first port and a second port; two hydraulic machines (4, 6; 104, 106) each having a first port and a second port; and at least one valve (8; 108), wherein the at least one valve is configured for changing a connection of the hydraulic machines between a series connection and a parallel connection, and has a spool movable between at least two positions, and the first machine's second port (64; 164) and the second machine's first port (65; 165) are connected to the valve, the first port (61; 161) of the pressure source is connected to the second port (66; 166) of the second hydraulic machine, and the second port (62; 162) of the pressure source is connected to the first port (63; 163) of the first hydraulic machine, so as to create series and parallel circuits sharing common lines, characterized in that the at least one valve. (8; 108) comprises a spool position which is dependent on a pressure of the pressure source. a pressure source (2; 102) having a first port and a second port; two hydraulic machines (4, 6; 104, 106) each having a first port and a second port; and at least one valve (8; 108), wherein the at least one valve is configured for changing a connection of the hydraulic machines between a series connection and a parallel connection, and has a spool movable between at least two positions, and the first machine's second port (64; 164) and the second machine's first port (65; 165) are connected to the valve, the first port (61; 161) of the pressure source is connected to the second port (66; 166) of the second hydraulic machine, and the second port (62; 162) of the pressure source is connected to the first port (63; 163) of the first hydraulic machine, so as to create series and parallel circuits sharing common lines, characterized in that the at least one valve. (8; 108) comprises a spool position which is dependent on a pressure of the pressure source.
A wireless communication method, wherein the method is performed by a terminal or a chip used in a terminal , a base station provides a carrier aggregation service for the terminal by using at least two serving cells, the at least two serving cells comprise a first serving cell and a second serving cell, and the method comprises: when detecting that downlink communication of the first serving cell fails, determining that downlink communication of the second serving cell is normal; sending a communication failure recovery request on an uplink channel of the second serving cell, wherein the communication failure recovery request is used to request to recover from a downlink communication failure of the first serving cell; and detecting a communication failure recovery response on a downlink channel of the second serving cell, wherein the communication failure recovery response is used to indicate a downlink communication resource of the first serving cell. when detecting that downlink communication of the first serving cell fails, determining that downlink communication of the second serving cell is normal; sending a communication failure recovery request on an uplink channel of the second serving cell, wherein the communication failure recovery request is used to request to recover from a downlink communication failure of the first serving cell; and detecting a communication failure recovery response on a downlink channel of the second serving cell, wherein the communication failure recovery response is used to indicate a downlink communication resource of the first serving cell.
A method comprising: sending an ultrasound signal into a structure at an incidence angle from an ultrasound transducer array ; detecting a response signal at the ultrasound transducer array to form a received response, the response signal reflected from the structure in response to the ultrasound signal sent into the structure ; identifying a first location of the ultrasound transducer array , wherein the first location is an estimated receiving location for a response signal reflected from a back surface of the structure ; determining a second location of the ultrasound transducer array , wherein the second location is an estimated receiving location for a response signal reflected from an inconsistency within the structure ; configuring the ultrasound transducer array such that inactive elements are located at the second location ; and configuring the number of inactive elements to decrease an amplitude of the response signal reflected from the back surface of the structure when the inconsistency is present. sending an ultrasound signal into a structure at an incidence angle from an ultrasound transducer array ; detecting a response signal at the ultrasound transducer array to form a received response, the response signal reflected from the structure in response to the ultrasound signal sent into the structure ; identifying a first location of the ultrasound transducer array , wherein the first location is an estimated receiving location for a response signal reflected from a back surface of the structure ; determining a second location of the ultrasound transducer array , wherein the second location is an estimated receiving location for a response signal reflected from an inconsistency within the structure ; configuring the ultrasound transducer array such that inactive elements are located at the second location ; and configuring the number of inactive elements to decrease an amplitude of the response signal reflected from the back surface of the structure when the inconsistency is present.
A composite construction element, characterized in that it consists of a sandwich-type panel that includes an inner core consisting of expanded polyurethane coated on all of the faces thereof with a polyvinyl chloride (PVC) plastic resin, a glass-fibre-reinforced polyester resin, or a high-pressure-laminated (HPL) board, and a coating layer laid over one of the upper surfaces of the panel, in the form of a finishing layer produced from a ceramic material.
A method comprising: a segment routing, SR, mapping node mapping, in memory of the SR mapping node , a first node identifier, ID, to a first nodal-segment ID, wherein the first nodal-segment ID is configured to enable one-hop or multi-hop, shortest path packet forwarding to an SR node assigned the first nodal-segment ID, wherein the first node ID and the first nodal-segment ID uniquely identifies a first node within a network domain , and wherein the first node is not segment routing, SR, enabled and is not configured to make packet forwarding decisions based on SR forwarding tables and segment IDs; and the SR mapping node generating and transmitting a message to another node within the network domain , wherein the message comprises the first node ID mapped to the first nodal-segment ID, and wherein the other node is at least SR enabled and is configured to make packet forwarding decisions based on SR forwarding tables and segment IDs, and can use the message when creating or updating SR forwarding tables, or when creating segment ID stacks. a segment routing, SR, mapping node mapping, in memory of the SR mapping node , a first node identifier, ID, to a first nodal-segment ID, wherein the first nodal-segment ID is configured to enable one-hop or multi-hop, shortest path packet forwarding to an SR node assigned the first nodal-segment ID, wherein the first node ID and the first nodal-segment ID uniquely identifies a first node within a network domain , and wherein the first node is not segment routing, SR, enabled and is not configured to make packet forwarding decisions based on SR forwarding tables and segment IDs; and wherein the first node ID and the first nodal-segment ID uniquely identifies a first node within a network domain , and wherein the first node is not segment routing, SR, enabled and is not configured to make packet forwarding decisions based on SR forwarding tables and segment IDs; and the SR mapping node generating and transmitting a message to another node within the network domain , wherein the message comprises the first node ID mapped to the first nodal-segment ID, and wherein the other node is at least SR enabled and is configured to make packet forwarding decisions based on SR forwarding tables and segment IDs, and can use the message when creating or updating SR forwarding tables, or when creating segment ID stacks. wherein the message comprises the first node ID mapped to the first nodal-segment ID, and wherein the other node is at least SR enabled and is configured to make packet forwarding decisions based on SR forwarding tables and segment IDs, and can use the message when creating or updating SR forwarding tables, or when creating segment ID stacks.
A process for producing deasphalted oil, the process comprising: combining a supercritical water stream with a pressurized, heated hydrocarbon-based composition in a mixing device to create a combined feed stream; introducing the combined feed stream into a supercritical reactor, where the supercritical reactor operates at a temperature greater than a critical temperature of water and a pressure greater than a critical pressure of water, to produce an upgraded product; depressurizing the upgraded product; separating the depressurized upgraded product into at least one light and at least one heavy fraction, in which the heavy fraction has a greater concentration of asphaltene than the light fraction; passing the light fraction to a separator to separate the light fraction into at least one gas fraction, one paraffinic fraction, and one water fraction; passing the paraffinic fraction to a distillation unit to produce at least a light paraffinic fraction and a heavy paraffinic fraction, where a true boiling point of 80% of the light paraffinic fraction is less than 200 °C, preferably less than 150 °C; and combining the light paraffinic fraction with the heavy fraction to remove asphaltene and thereby produce deasphalted oil. combining a supercritical water stream with a pressurized, heated hydrocarbon-based composition in a mixing device to create a combined feed stream; introducing the combined feed stream into a supercritical reactor, where the supercritical reactor operates at a temperature greater than a critical temperature of water and a pressure greater than a critical pressure of water, to produce an upgraded product; depressurizing the upgraded product; separating the depressurized upgraded product into at least one light and at least one heavy fraction, in which the heavy fraction has a greater concentration of asphaltene than the light fraction; passing the light fraction to a separator to separate the light fraction into at least one gas fraction, one paraffinic fraction, and one water fraction; passing the paraffinic fraction to a distillation unit to produce at least a light paraffinic fraction and a heavy paraffinic fraction, where a true boiling point of 80% of the light paraffinic fraction is less than 200 °C, preferably less than 150 °C; and combining the light paraffinic fraction with the heavy fraction to remove asphaltene and thereby produce deasphalted oil.
Exercise apparatus suitable for individually exercising selected muscle groups in a person's legs by stretching and/or retraction, which exercise apparatus comprises, a controller, at least a first frame and at least a first foot platform , said foot platform is mounted on a foot platform bracket which can rotate around a bearing fastened to the first frame , which bearing is configured to permit rotation of the at least first foot platform to allow the person's foot at least plantar flexion and/or dorsal flexion, which exercise apparatus further comprises at least one actuator and/or restriction element connected to the foot platform bracket and at least one actuator connected to a leg support , wherein said leg support is fastened to said first frame via another bearing configured to permit rotation of the leg support , and wherein - one or more sensors are provided for measuring the force exerted at the leg support , wherein the position and movement of the leg support is controllable by the controller and at least one actuator adapted to be controlled based on the force measurement of the one or more sensors of the leg support, and - one or more sensors are provided for measuring the force exerted at the foot platform , wherein the position and movement of the foot platform is controllable by the controller and at least one actuator and/or restriction element adapted to be controlled based on the force measurement of the one or more sensors of the foot platform , and that the angular movement of the foot platform is individually controlled in relation to the mostly horizontal movement and/or position of the leg support . - one or more sensors are provided for measuring the force exerted at the leg support , wherein the position and movement of the leg support is controllable by the controller and at least one actuator adapted to be controlled based on the force measurement of the one or more sensors of the leg support, and - one or more sensors are provided for measuring the force exerted at the foot platform , wherein the position and movement of the foot platform is controllable by the controller and at least one actuator and/or restriction element adapted to be controlled based on the force measurement of the one or more sensors of the foot platform , and
A microbial oil, comprising a mixture of fatty acid alkyl esters or free fatty acids obtainable by performing hydrolysis or alkyl esterification on a crude oil obtained from a microbial biomass of microbe capable of producing dihomo-γ-linolenic acid, followed by a heating process including rectification under conditions including a column bottom temperature of from 160°C to 230°C and a minimum pressure in the distillation column of from 0.1 Pa to 30 Pa, the microbial oil comprising dihomo-γ-linolenic acid in fatty acid alkyl ester form and/or in free fatty acid form at a content of at least 50% by weight of the total weight of fatty acids in the oil; and in which the content of thermally-produced fatty acid having from 16 to 22 carbon atoms, generated due to heat associated with distillation, is from 0.0001% by weight to 3.0% by weight of the total weight of fatty acids in the microbial oil.
A radome , comprising: a curved body configured to be attached to an aircraft, wherein the body is transparent to microwave energy in a frequency range from about 8.0 GHz to about 12.6 GHz; and an insert secured to the body at an opening formed in the body , wherein the insert is transparent to microwave energy in a frequency range from about 75 GHz to about 100 GHz, wherein the insert has a configuration that substantially conforms to a curved shape of the body . a curved body configured to be attached to an aircraft, wherein the body is transparent to microwave energy in a frequency range from about 8.0 GHz to about 12.6 GHz; and an insert secured to the body at an opening formed in the body , wherein the insert is transparent to microwave energy in a frequency range from about 75 GHz to about 100 GHz, wherein the insert has a configuration that substantially conforms to a curved shape of the body .