mhurhangee/ep-ind-claims huggingface dataset:
Neurostimulation device, capable of performing brain stimulation and/or spinal cord stimulation by delivering electrical AC and/or DC stimulation pulses, comprising: a) at least an electrode arrangement for delivering the electrical AC and/or DC stimulation pulses to the brain or the spinal cord of a patient, wherein the electrode arrangement comprises at least one center electrode and a plurality of stimulation electrodes (21, 22, 23, 24) surrounding the center electrode, wherein the center electrode is a counter electrode, wherein the electrodes (20, 21, 22, 23, 24) are configured to be implanted in the subgaleal area above the skull and below the scalp of a patient, b) at least a signal generation circuit connected to the electrode arrangement, which is configured for generating and delivering the stimulation pulses to the at least one stimulation electrode (21, 22, 23, 24), c) at least a charge balancing circuit for compensation of hyperpolarization effects, which is configured for short circuiting the at least one stimulation electrode (21, 22, 23, 24) with the counter electrode, depending from a control signal, d) at least one control processor, which is configured for delivering control signals to the charge balancing circuit for short circuiting the at least one stimulation electrode (21, 22, 23, 24) with the counter electrode. a) at least an electrode arrangement for delivering the electrical AC and/or DC stimulation pulses to the brain or the spinal cord of a patient, wherein the electrode arrangement comprises at least one center electrode and a plurality of stimulation electrodes (21, 22, 23, 24) surrounding the center electrode, wherein the center electrode is a counter electrode, wherein the electrodes (20, 21, 22, 23, 24) are configured to be implanted in the subgaleal area above the skull and below the scalp of a patient, b) at least a signal generation circuit connected to the electrode arrangement, which is configured for generating and delivering the stimulation pulses to the at least one stimulation electrode (21, 22, 23, 24), c) at least a charge balancing circuit for compensation of hyperpolarization effects, which is configured for short circuiting the at least one stimulation electrode (21, 22, 23, 24) with the counter electrode, depending from a control signal, d) at least one control processor, which is configured for delivering control signals to the charge balancing circuit for short circuiting the at least one stimulation electrode (21, 22, 23, 24) with the counter electrode.
A capsular tension ring inserter comprising: a cannula having at least one opening or port with said cannula adapted for use with a syringe; a capsular tension ring disposed within said cannula and having a leading eyelet and a trailing eyelet; a hook element disposed within said cannula that engages said trailing eyelet and moves the CTR during deployment; and a suture placed on the leading eyelet and fed back through said cannula with said suture also fed through at least one of said opening or port in said cannula to allow a user to control said leading eyelet of said CTR by pulling on said suture and creating tension on said suture between said leading eyelet and said cannula during deployment of said CTR. a cannula having at least one opening or port with said cannula adapted for use with a syringe; a capsular tension ring disposed within said cannula and having a leading eyelet and a trailing eyelet; a hook element disposed within said cannula that engages said trailing eyelet and moves the CTR during deployment; and a suture placed on the leading eyelet and fed back through said cannula with said suture also fed through at least one of said opening or port in said cannula to allow a user to control said leading eyelet of said CTR by pulling on said suture and creating tension on said suture between said leading eyelet and said cannula during deployment of said CTR.
Equipment for playing basketball, comprising a base intended to be disposed bearing on the ground, said base being equipped with two lateral structures forming a housing therebetween, said equipment comprising a post having an upper section carrying a board on the front side of which a basketball hoop is mounted, said post having a lower section which is rotatably mounted on said base so as to be able to dispose said post reversibly between a stowed storage configuration in which at least the lower section is disposed in the housing and an upright use configuration, said upper section being slidably mounted on said lower section and said equipment comprising a system for actuating said movement over a stroke comprised between a retracted storage position and at least one projecting position corresponding to a height of use, said actuation system comprising a case fastened on a rear wall of the lower section and a mechanism for moving the upper section which is housed in said case, said mechanism comprising a handling socket which projects from the case, said equipment being characterised in that said socket is disposed on a rear wall of the case and in that the housing is arranged so as to receive the lower section in the stowed configuration while preventing access to said socket.
An apparatus for transcranial sonothrombolysis of a subject's head, the apparatus comprising: a first temporal transducer array in cooperation with a first transducer-array registration member; a second temporal transducer array in cooperation with a second transducer-array registration member; and a headset defining a headset plane (P, 230) and having a front corresponding to a forehead of the subject's head, a headset surface, and a nasion registration member affixed to the headset at the front and protruding transversely to the headset plane,, the first and second transducer arrays (105a, 105b) being affixed on said headset opposite to one another, said nasion and first and second transducer-array registration members (120, 154) being configured such that, when the headset is positioned on the subject's head for transcranial sonothrombolysis, said nasion registration member rests on the nasion of the subject to ensure that the headset plane is inclined with respect to a reference plane defined by a left otobasion superior, a right OBS, and a nasion of the subject's head, and that the headset plane passes through said left and right OBS, and said first and second transducer-array registration members align said first and second temporal transducer arrays (105a, 105b) with a respective otobasion superior and a respective sphenoid shelf of the subject's head such as to optimize a degree of insonation of a target central cerebral vasculature with an ultrasound beam emitted by said first and second transducer arrays (105a, 105b), the insonation being directed substantially along the headset plane. a first temporal transducer array in cooperation with a first transducer-array registration member; a second temporal transducer array in cooperation with a second transducer-array registration member; and a headset defining a headset plane (P, 230) and having a front corresponding to a forehead of the subject's head, a headset surface, and a nasion registration member affixed to the headset at the front and protruding transversely to the headset plane,, the first and second transducer arrays (105a, 105b) being affixed on said headset opposite to one another, said nasion and first and second transducer-array registration members (120, 154) being configured such that, when the headset is positioned on the subject's head for transcranial sonothrombolysis, said nasion registration member rests on the nasion of the subject to ensure that the headset plane is inclined with respect to a reference plane defined by a left otobasion superior, a right OBS, and a nasion of the subject's head, and that the headset plane passes through said left and right OBS, and said first and second transducer-array registration members align said first and second temporal transducer arrays (105a, 105b) with a respective otobasion superior and a respective sphenoid shelf of the subject's head such as to optimize a degree of insonation of a target central cerebral vasculature with an ultrasound beam emitted by said first and second transducer arrays (105a, 105b), the insonation being directed substantially along the headset plane.
Autonomous culture system comprising side and top walls and: - a cultivation space comprising at least one culture support adapted to the culture of plantations and delimited by the set of side walls, and comprising ambient air of temperature and hygrometry adapted to the growth of the plantations; - one or more air inlets arranged at the level of the side walls and enabling outside air to be collected to produce an incoming flow of collected air; - a condensation device located above the cultivation space in which a cold air flow circulates; and - an air-to-air heat pump for producing the cold air flow from the captured air flow; wherein said culture support comprises a water reservoir, where the ambient air humidity is condensed in contact with the condensation device and where the side walls are airtight so as to maintain the ambient air humidity within the culture space. - a cultivation space comprising at least one culture support adapted to the culture of plantations and delimited by the set of side walls, and comprising ambient air of temperature and hygrometry adapted to the growth of the plantations; - one or more air inlets arranged at the level of the side walls and enabling outside air to be collected to produce an incoming flow of collected air; - a condensation device located above the cultivation space in which a cold air flow circulates; and - an air-to-air heat pump for producing the cold air flow from the captured air flow;
Payload module of a stratospheric drone, comprising: - a casing, and - at least one piece of payload equipment (20, 30, 60), contained in the casing, the module being characterized in that the casing comprises a support structure and a cover, the support structure being suitable for attachment to the drone at the front end thereof, relative to the direction of movement of the drone, and for extending forward from said front end, and in that the support structure is suitable for supporting the payload equipment so that the mass of said payload equipment is carried by the support structure, and in that the cover is mounted on the support structure. - a casing, and - at least one piece of payload equipment (20, 30, 60), contained in the casing,
Method for producing a toothbrush with a body, which comprises at least a handle region, a neck region and a head region, and with a carrier element connected to the body, wherein a plurality of segments in a form of sleeves or cups as well as other regions of the carrier element are produced of a first component in hollow regions (12, 14) completely separated from each other of an injection mold in a first step of a two- or multicomponent injection-molding method, connecting elements in a form of a membrane are produced by injection of a second component on the segments and the other regions in a further step, the segments of the carrier element are fitted thereafter with bristles and the tufted carrier element is connected to a separately produced body.
An anti-arrhythmic pharmaceutical composition, comprising: an active ingredient, comprising 1-(3-methanesulfonamido benzyl)-6-methoxy, 7-benzyloxy-1,2,3,4-tetrahydroisoquinoline or a pharmaceutically acceptable salt thereof; and auxiliary materials, comprising lactose, microcrystalline cellulose and a pre-gelatinized starch, which account for 30% to 80% of a total weight of the composition. an active ingredient, comprising 1-(3-methanesulfonamido benzyl)-6-methoxy, 7-benzyloxy-1,2,3,4-tetrahydroisoquinoline or a pharmaceutically acceptable salt thereof; and auxiliary materials, comprising lactose, microcrystalline cellulose and a pre-gelatinized starch, which account for 30% to 80% of a total weight of the composition.
Method for tag based access to auxiliary information during a video- and/or audio-conference, the video- and/or audio conference involving a video- and/or audio conferencing system comprising a mapping between tags and associated portions of auxiliary information, the method comprising: - transmitting video data and/or audio data from the video- and/or audio-conferencing system to a first rendering device of a participant of the video-conference; - having the conferencing system extract tags from the video data and/or audio data being transmitted; - upon receiving by the conferencing system of a request for auxiliary information from the participant, causing the conferencing system to: - select at least one of the tags extracted from the transmitted video data and/or audio data; - retrieve at least one auxiliary information portion associated with the selected at least one tag; - transmit the at least one retrieved auxiliary information portion to a second rendering device of the participant that has requested the auxiliary information. - transmitting video data and/or audio data from the video- and/or audio-conferencing system to a first rendering device of a participant of the video-conference; - having the conferencing system extract tags from the video data and/or audio data being transmitted; - upon receiving by the conferencing system of a request for auxiliary information from the participant, causing the conferencing system to: - select at least one of the tags extracted from the transmitted video data and/or audio data; - retrieve at least one auxiliary information portion associated with the selected at least one tag; - transmit the at least one retrieved auxiliary information portion to a second rendering device of the participant that has requested the auxiliary information.
A propellant tank (6;7) for a spacecraft that can discharge propellant accumulated therein toward an engine by pressurizing an inside thereof by operating gas, the propellant tank (6;7) comprising: a tank body that is configured to accumulate therein the propellant in a liquid state; a holding container that is provided inside the tank body and is disposed with a predetermined gap from an inner wall of the tank body, so that the propellant in a liquid state can be held therein; and a reservoir container that is provided in the holding container on a discharge side of the propellant and can hold the propellant in a liquid state therein, wherein the holding container and the reservoir container are configured from a mesh material having a mesh pattern on which surface tension of the propellant in a liquid state stage can act such that, when the inside of the tank body is in a microgravity state or a zero-gravity state and is not pressurized by the operating gas, passage of liquid through the holding container is suppressed by the surface tension of the propellant in the liquid state. a tank body that is configured to accumulate therein the propellant in a liquid state; a holding container that is provided inside the tank body and is disposed with a predetermined gap from an inner wall of the tank body, so that the propellant in a liquid state can be held therein; and a reservoir container that is provided in the holding container on a discharge side of the propellant and can hold the propellant in a liquid state therein, wherein the holding container and the reservoir container are configured from a mesh material having a mesh pattern on which surface tension of the propellant in a liquid state stage can act such that, when the inside of the tank body is in a microgravity state or a zero-gravity state and is not pressurized by the operating gas, passage of liquid through the holding container is suppressed by the surface tension of the propellant in the liquid state.
A method performed by a transmitting device for transmitting information bits to a receiving device in a wireless communication network; the method comprising: encoding information bits of a first type of information and a second type of information into a codeword; interleaving the encoded information bits of the first type of information according to a first interleaving pattern and the encoded information bits of the second type of information according to a second interleaving pattern, thereby changing an order of at least one of the encoded information bits of the first type of information and the second type of information in the codeword and generating an interleaved encoded information bit sequence,, wherein the second interleaving pattern comprises a first subpattern that applies to one or more systematic bits and a second subpattern that applies to one or more redundant bits; and transmitting the interleaved encoded information bit sequence to the receiving device, wherein the first type of information comprises information in a Protocol Data Unit, PDU, Header of a packet, which PDU header carries information about a PDU Payload length, and wherein the second type of information comprises information in a Protocol Data Unit, PDU, Payload field of a packet. encoding information bits of a first type of information and a second type of information into a codeword; interleaving the encoded information bits of the first type of information according to a first interleaving pattern and the encoded information bits of the second type of information according to a second interleaving pattern, thereby changing an order of at least one of the encoded information bits of the first type of information and the second type of information in the codeword and generating an interleaved encoded information bit sequence,, wherein the second interleaving pattern comprises a first subpattern that applies to one or more systematic bits and a second subpattern that applies to one or more redundant bits; and transmitting the interleaved encoded information bit sequence to the receiving device, wherein the first type of information comprises information in a Protocol Data Unit, PDU, Header of a packet, which PDU header carries information about a PDU Payload length, and wherein the second type of information comprises information in a Protocol Data Unit, PDU, Payload field of a packet.
An attrition-resistant superabsorbent polymer, obtainable by: mixing 100 g of acrylic acid, 0.3 g of polyethylene glycol diacrylate, 0.033 g of diphenyl(2,4,6-trimethylbenzoyl)-phosphine oxide, 38.9 g of sodium hydroxide and 103.9 g of water to prepare a monomer mixture, placing the monomer mixture on a continuously moving conveyor belt and irradiating with UV rays with intensity of 2 mW/cm 2 for 2 minutes to obtain a hydrogel polymer, cutting the hydrogel polymer into a size of 5*5 mm, drying in a hot air oven at 170 °C for 2 hours, and milling to obtain a superabsorbent polymer having a particle size of 150 μm to 850 μm using a sieve, adding 0.025% by weight of aerogel to the superabsorbent polymer, based on 100% by weight of the superabsorbent polymer, stirring and adding 0.064% by weight of citric acid and 0.64% by weight of aluminum sulfate, dissolved in 3.0% by weight of water, and 1.0% by weight of propylene glycol, wherein the aerogel has an average particle size of 5 μm, a BET specific surface area of 720 m 2 /g, a water contact angle of 144° and a porosity of 95%, wherein the BET specific surface area and the porosity are measured using a BET analyser, the particle size of the aerogel is measured in accordance with ISO 13320 using a Helium-Neon Laser Optical System, and the contact angle for water is measured using a contact angle analyser. mixing 100 g of acrylic acid, 0.3 g of polyethylene glycol diacrylate, 0.033 g of diphenyl(2,4,6-trimethylbenzoyl)-phosphine oxide, 38.9 g of sodium hydroxide and 103.9 g of water to prepare a monomer mixture, placing the monomer mixture on a continuously moving conveyor belt and irradiating with UV rays with intensity of 2 mW/cm 2 for 2 minutes to obtain a hydrogel polymer, cutting the hydrogel polymer into a size of 5*5 mm, drying in a hot air oven at 170 °C for 2 hours, and milling to obtain a superabsorbent polymer having a particle size of 150 μm to 850 μm using a sieve, adding 0.025% by weight of aerogel to the superabsorbent polymer, based on 100% by weight of the superabsorbent polymer, stirring and adding 0.064% by weight of citric acid and 0.64% by weight of aluminum sulfate, dissolved in 3.0% by weight of water, and 1.0% by weight of propylene glycol, wherein the aerogel has an average particle size of 5 μm, a BET specific surface area of 720 m 2 /g, a water contact angle of 144° and a porosity of 95%, wherein the BET specific surface area and the porosity are measured using a BET analyser, the particle size of the aerogel is measured in accordance with ISO 13320 using a Helium-Neon Laser Optical System, and the contact angle for water is measured using a contact angle analyser.
A system for detecting safe operating conditions and maintained integrity in a Pressure Safety Valve, the system comprising a valve with an inlet, an outlet, a valve disc controlling fluid flow between the inlet and outlet, a stem connected to the valve disc, a spring washer, and a spring in communication with the valve disc and the spring washer, a position sensor which detects the position of the valve disc transferred through the stem, a vibration sensor which detects vibration in the valve disc, an inlet pressure sensor which detects the static pressure in the inlet, a microcontroller which is controlling said sensors (9, 11, 12), and further including a compression load cell sensor which detects the dynamic force applied on the valve spring washer by the spring. a position sensor which detects the position of the valve disc transferred through the stem, a vibration sensor which detects vibration in the valve disc, an inlet pressure sensor which detects the static pressure in the inlet, a microcontroller which is controlling said sensors (9, 11, 12), and further including a compression load cell sensor which detects the dynamic force applied on the valve spring washer by the spring.
A use of a powdered refractory metal for powder bed-based additive manufacturing of a shaped body, wherein the powdered refractory metal has a mean roundness, determined according to the method specified in the description, in the range of from 0.30 to 0.70, and a BET surface area, determined with nitrogen as an adsorbate at 77 K using the multi-point method according to ISO 9277: 2010, of less than 0.07 m 2 /g, and additive manufacturing is carried out by electron beam melting, wherein the refractory metal is an elemental refractory metal or an alloy of a refractory metal which contains one or more refractory metals in an amount of more than 50 at.%, and the refractory metal is tungsten, niobium, tantalum, chromium, molybdenum or rhenium.