mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode for an alkali secondary battery, comprising: a negative electrode core body; and a negative electrode mixture held on the negative electrode core body, wherein the negative electrode mixture comprises a hydrogen absorbing alloy powder composed of a particle of a hydrogen absorbing alloy, a powder of an electroconductive agent, and a powder of a negative electrode additive; the electroconductive agent is a hollow carbon black whose primary particle has a hollow-shell structure; and the negative electrode additive is a fluorine-containing anionic surfactant, wherein the powder of the electroconductive agent composed of the hollow carbon black is added in an amount of 0.25 parts by mass or more and 0.5 parts by mass or less based on 100 parts by mass of the hydrogen absorbing alloy powder. a negative electrode core body; and a negative electrode mixture held on the negative electrode core body, wherein the negative electrode mixture comprises a hydrogen absorbing alloy powder composed of a particle of a hydrogen absorbing alloy, a powder of an electroconductive agent, and a powder of a negative electrode additive; the electroconductive agent is a hollow carbon black whose primary particle has a hollow-shell structure; and the negative electrode additive is a fluorine-containing anionic surfactant, wherein the powder of the electroconductive agent composed of the hollow carbon black is added in an amount of 0.25 parts by mass or more and 0.5 parts by mass or less based on 100 parts by mass of the hydrogen absorbing alloy powder.
Munition module - with an explosive arrangement that can be detonated by a detonator , - with the detonator , which is arranged in relation to the explosive arrangement in such a way as to ignite it at an ignition point , wherein - the ignition point is positioned at a location remote from the detonator within a casing of the explosive arrangement , - in an initial state (A), an ignition channel surrounded by at least part of the explosive arrangement runs from the detonator to the ignition point , - the ignition channel is formed as a channel that is open in the initial state (A) and self-sealing in an exploded state (S), which occurs after detonation of the explosive of the explosive arrangement has taken place, and - in the exploded state (S) the ignition channel is at least partially closed by at least one sealing element , the sealing element having been introduced into the ignition channel by the at least partially reacted explosive, wherein the sealing element is formed by a body which in the initial state (A) has an initial form (F) and which in the exploded state (S) has been deformed into a closed form (V), at least part of the deformed body being the sealing element , wherein the body is a metal body. - with an explosive arrangement that can be detonated by a detonator , - with the detonator , which is arranged in relation to the explosive arrangement in such a way as to ignite it at an ignition point , wherein - the ignition point is positioned at a location remote from the detonator within a casing of the explosive arrangement , - in an initial state (A), an ignition channel surrounded by at least part of the explosive arrangement runs from the detonator to the ignition point , - the ignition channel is formed as a channel that is open in the initial state (A) and self-sealing in an exploded state (S), which occurs after detonation of the explosive of the explosive arrangement has taken place, and - in the exploded state (S) the ignition channel is at least partially closed by at least one sealing element , the sealing element having been introduced into the ignition channel by the at least partially reacted explosive, wherein the sealing element is formed by a body which in the initial state (A) has an initial form (F) and which in the exploded state (S) has been deformed into a closed form (V), at least part of the deformed body being the sealing element , wherein the body is a metal body.
An encoding method of encoding a first image signal of a first view and a second image signal of a second view, the method comprising the step of: encoding the first image signal to generate a base stream; characterized by the steps of: encoding the second image signal to generate a dependent stream using inter-view prediction on the basis of the first image signal, and inserting a unique data string as a NAL unit representing a dependent delimiter indicating a picture boundary between pictures in the dependent stream at the beginning of each picture in the dependent stream, wherein the unique data string has a value different from an access unit delimiter indicating a boundary between access units in the base stream at the beginning of an access unit in the base stream. encoding the second image signal to generate a dependent stream using inter-view prediction on the basis of the first image signal, and inserting a unique data string as a NAL unit representing a dependent delimiter indicating a picture boundary between pictures in the dependent stream at the beginning of each picture in the dependent stream, wherein the unique data string has a value different from an access unit delimiter indicating a boundary between access units in the base stream at the beginning of an access unit in the base stream.
A knee prosthesis or orthosis , comprising: at least one moveable joint ; and a torque modulating unit , the torque modulating unit configured to impose a controllable torque on the at least one moveable joint , the torque modulating unit including at least one of a motor or brake , the at least one of the motor or brake coupled to the at least one moveable joint via an electronically-controlled transmission, characterized in that the electronically-controlled transmission is a two-speed transmission. at least one moveable joint ; and a torque modulating unit , the torque modulating unit configured to impose a controllable torque on the at least one moveable joint , the torque modulating unit including at least one of a motor or brake , the at least one of the motor or brake coupled to the at least one moveable joint via an electronically-controlled transmission, characterized in that the electronically-controlled transmission is a two-speed transmission.
At least one protein-bound cannabinoid bound to a plasma protein for use as a medicament for treatment of a condition, wherein a total cannabinoid dose of the at least one protein-bound cannabinoid, administered over a time period comprising multiple administrations, is lower relative to a total cannabinoid dose of the at least one cannabinoid when administered in unbound form for achieving a same degree of therapeutic effect for treating the condition, and wherein the at least one protein-bound cannabinoid and dose administered are: a. between 0.6 mg/week nabilone and 1.75 mg/week nabilone when the condition is chronic pain; b. between 12 mg/week Δ-9-THC and 35 mg/week Δ-9 THC when the condition is nausea; c. between 2 mg/week nabilone and 7 mg/week nabilone when the condition is pain associated with fibromyalgia d. between 3 mg/week A-9-THC and 9 mg/week Δ-9 THC when the condition is reduced appetite; e. between 6 mg/week THC and 17.5 mg/week THC when the condition is chronic pain associated with cancer; f. between 233 mg/week CBD and 700 mg/week CBD when the condition is epilepsy; g. between 5.5 mg/kg/week CBD and 17.5 mg/kg/week CBD when the condition is epilepsy; h. between 23 mg/kg/week CBD and 70 mg/kg/week CBD when the condition is epilepsy associated with Dravet Syndrome or Lennox Gastaut Syndrome; or i. between 3.2 mg/week THC with 2.9 mg/week CBD and 9.5 mg/week THC with 8.7 mg/week CBD when the condition is epilepsy or chronic pain. a. between 0.6 mg/week nabilone and 1.75 mg/week nabilone when the condition is chronic pain; b. between 12 mg/week Δ-9-THC and 35 mg/week Δ-9 THC when the condition is nausea; c. between 2 mg/week nabilone and 7 mg/week nabilone when the condition is pain associated with fibromyalgia d. between 3 mg/week A-9-THC and 9 mg/week Δ-9 THC when the condition is reduced appetite; e. between 6 mg/week THC and 17.5 mg/week THC when the condition is chronic pain associated with cancer; f. between 233 mg/week CBD and 700 mg/week CBD when the condition is epilepsy; g. between 5.5 mg/kg/week CBD and 17.5 mg/kg/week CBD when the condition is epilepsy; h. between 23 mg/kg/week CBD and 70 mg/kg/week CBD when the condition is epilepsy associated with Dravet Syndrome or Lennox Gastaut Syndrome; or i. between 3.2 mg/week THC with 2.9 mg/week CBD and 9.5 mg/week THC with 8.7 mg/week CBD when the condition is epilepsy or chronic pain.
A device for use in negative pressure wound therapy comprising: a) a first connection site ; b) a first connector comprising an air inlet fitting and an air pathway connecting an air outlet fitting and the air inlet fitting , wherein the air outlet fitting of the first connector is coupled to the first connection site , wherein the air inlet fitting of the first connector is configured to connect with a first fluid retention source ; and c) a second connector comprising an air inlet fitting and an air pathway connecting an air outlet fitting and the air inlet fitting a fluid inlet fitting and a fluid outlet fitting connected by a fluid pathway , wherein the air outlet fitting of the second connector is coupled to the first connection site ; and wherein the air inlet fitting and the fluid outlet fitting of the second connector are configured to connect with a second fluid retention source , and the fluid inlet fitting is configured to connect individually with a transfer dressing or a fluid retention dressing ; wherein the first connector and second connector interchangeably connect to the first connection site of the device. a) a first connection site ; b) a first connector comprising an air inlet fitting and an air pathway connecting an air outlet fitting and the air inlet fitting , wherein the air outlet fitting of the first connector is coupled to the first connection site , wherein the air inlet fitting of the first connector is configured to connect with a first fluid retention source ; and c) a second connector comprising an air inlet fitting and an air pathway connecting an air outlet fitting and the air inlet fitting a fluid inlet fitting and a fluid outlet fitting connected by a fluid pathway , wherein the air outlet fitting of the second connector is coupled to the first connection site ; and wherein the air inlet fitting and the fluid outlet fitting of the second connector are configured to connect with a second fluid retention source , and the fluid inlet fitting is configured to connect individually with a transfer dressing or a fluid retention dressing ;
A method, comprising: encapsulating a plurality of cells and a plurality of particles within a plurality of at least 10,000 microfluidic droplets, at least some of the particles comprising an oligonucleotide tag covalently bonded thereto, such that the droplets of the plurality of the at least 10,000 droplets contain one or more oligonucleotide tags distinguishable from oligonucleotide tags contained in other droplets of the plurality of droplets; lysing at least some of the cells within the droplets to release nucleic acid from the cell; bonding the released nucleic acids and the oligonucleotide tags within at least some of the droplets; and releasing at least some of the oligonucleotide tags from the particles by applying light. lysing at least some of the cells within the droplets to release nucleic acid from the cell; bonding the released nucleic acids and the oligonucleotide tags within at least some of the droplets; and releasing at least some of the oligonucleotide tags from the particles by applying light.
Method of treating a workpiece comprising a titanium metal, wherein a titanium metal surface layer of the workpiece is converted to titanium nitrides, which method comprises the following steps; a) heating the workpiece to an initial nitriding temperature (T n1 ); b) subjecting said workpiece to one or more nitriding temperatures (T n1 , T n2 ) for predetermined time(s) in a nitrogen containing gas under high pressure at hot isostatic pressing (HIP) conditions for converting the titanium metal surface layer to a first layer portion consisting of titanium nitrides and a second layer portion comprising a nitrogen gradient in the titanium metal; the method being characterized by ; c) quenching the workpiece in the nitrogen containing gas under high pressure at hot isostatic pressing (HIP) conditions at a quenching rate of at least 150 K/min, in order to strengthen the titanium metal below the, in step b) formed, first nitride layer portion. a) heating the workpiece to an initial nitriding temperature (T n1 ); b) subjecting said workpiece to one or more nitriding temperatures (T n1 , T n2 ) for predetermined time(s) in a nitrogen containing gas under high pressure at hot isostatic pressing (HIP) conditions for converting the titanium metal surface layer to a first layer portion consisting of titanium nitrides and a second layer portion comprising a nitrogen gradient in the titanium metal;
A handover failure detection device comprising: detection means for detecting (S26) at least one of handover failure types regarding outgoing handover from a first cell managed by a first base station by observing a) presence/absence of reception (S23) by the first base station of an acknowledgment response to a handover command regarding first handover of a mobile terminal from the first cell to a second cell managed by a second base station , and b) presence/absence of a request for connection re-establishment (S24) from the mobile terminal to the first cell , the request occurring after initiation (S21) of the first handover, wherein the acknowledgment response to the handover command is transmitted (S23) to the first base station from the mobile terminal , and the detection means is configured to detect (S26) a first handover failure type when the acknowledgment response to the handover command is not received (S23, S25) within a first predetermined period dependent on initiation of the first handover and the request for connection re-establishment is also not received (S24, S25) within a second predetermined period dependent on initiation of the first handover. detection means for detecting (S26) at least one of handover failure types regarding outgoing handover from a first cell managed by a first base station by observing a) presence/absence of reception (S23) by the first base station of an acknowledgment response to a handover command regarding first handover of a mobile terminal from the first cell to a second cell managed by a second base station , and b) presence/absence of a request for connection re-establishment (S24) from the mobile terminal to the first cell , the request occurring after initiation (S21) of the first handover, wherein the acknowledgment response to the handover command is transmitted (S23) to the first base station from the mobile terminal , and the detection means is configured to detect (S26) a first handover failure type when the acknowledgment response to the handover command is not received (S23, S25) within a first predetermined period dependent on initiation of the first handover and the request for connection re-establishment is also not received (S24, S25) within a second predetermined period dependent on initiation of the first handover.
A method of operating a building security system comprising a building alarm system and an emergency communications system of an elevator installation , wherein the emergency communications system includes a communications interface to couple the emergency communications system to a remote elevator service central , and an emergency call panel arranged in an elevator car to allow a passenger to communicate with the remote elevator service central via the communications interface while in the elevator car during the emergency situation, and wherein the building alarm system includes a plurality of sensor units arranged at predetermined locations of the building and selected to detect predetermined building events, comprising: communicating a building event from the building alarm system via the communications interface of the emergency communications system to the remote elevator service central , wherein communicating the building event comprises: receiving, by the emergency communications system of the elevator installation , an event signal from the building alarm system , the event signal representing a predetermined value if a sensor unit detects a building event; establishing, by the emergency communications system , a communications link between the emergency communications system and the elevator service central ; and transmitting, by the emergency communications system , the event signal to the elevator service central , and/or communicating an action request from the remote elevator service central via the communications interface of the emergency communications system to the building alarm system . communicating a building event from the building alarm system via the communications interface of the emergency communications system to the remote elevator service central , wherein communicating the building event comprises: receiving, by the emergency communications system of the elevator installation , an event signal from the building alarm system , the event signal representing a predetermined value if a sensor unit detects a building event; establishing, by the emergency communications system , a communications link between the emergency communications system and the elevator service central ; and transmitting, by the emergency communications system , the event signal to the elevator service central , and/or communicating an action request from the remote elevator service central via the communications interface of the emergency communications system to the building alarm system .
A heat-insulating tile of ceramic material for a combustion chamber of a gas turbine, comprising a first face , a second face , sides adjacent to the first face and to the second face and anchorage seats on the sides ; characterized in that the anchorage seats are defined by respective recesses open on the first face and delimited by respective coupling surfaces sloping from the first face to a respective one of the sides ; the sides of the heat-insulating tiles additionally having, at the respective anchorage seats , indentations shaped so that, when the heat-insulating tile is arranged with one of the sides contiguous to one of the sides of another identical heat-insulating tile , the two contiguous heat-insulating tiles define between them a gap configured to receive an anchorage device , the gap being open at the bottom and allowing the passage of the anchorage device .
An arrangement to be used for cleaning of a circumferentially closed canal, comprising a laser radiation source arranged within a laser device , a light guide conducting a laser beam as well as a handpiece , wherein the handpiece is detachably, and preferably rotationally, connected to a delivery device, via which at least the laser beam and a liquid can be fed to the handpiece, as well as a first line guiding the liquid, that extends with its aperture side in the region of the light guide, characterised in that the aperture of the first line guiding the liquid is arranged in such a way, that the liquid is directed towards the last 1/3 of the light guide with an angle between 10° and 20° with respect to the longitudinal axis of the light guide, wherein the laser beam is directable into a canal via the light guide which is detachably connected with the handpiece, wherein mechanism are provided ensuring that a laser operation is only possible when the light guide is placed in the canal, and at least one fluid container containing cleaning fluid is attached to the laser device , wherein said at least one fluid container is a pre-pressurized fluid container.
Motor vehicle having an apparatus for ascertaining information in at least one partial region of an interior space of the motor vehicle , wherein the motor vehicle has a light source for illuminating the interior space and the illumination is effected by means of light beams emitted by the light source , wherein the light beams follow a transmission path from the light source to the partial region of the interior space that is to be illuminated, wherein the motor vehicle has a sensor for capturing information and the information is captured by means of light beams containing data relating to the partial region of the interior space , wherein the light beams follow a reception path from the illuminated partial region of the interior space to the sensor and wherein a hologram for diffracting the light beams is present and positioned such that the hologram enables diffraction of the light beams both along the transmission path and also along the reception path, characterized in that the hologram is in the form of a reflection hologram and in that the hologram is positioned at the vehicle headliner .
A method of preparing a composition suitable for a mesenchymal stem cell (MSC) treatment of a human, wherein the preparation method comprises: a. separating a gingival tissue obtained from a human into cells, b. sorting neural crest derived gingiva mesenchymal stem cells (N-GMSCs), wherein the sorting comprises sorting fluorescein isothiocyanate positive cells as N-GMSCs, and c. preparing a composition comprising N-GMSCs. a. separating a gingival tissue obtained from a human into cells, b. sorting neural crest derived gingiva mesenchymal stem cells (N-GMSCs), wherein the sorting comprises sorting fluorescein isothiocyanate positive cells as N-GMSCs, and c. preparing a composition comprising N-GMSCs.
An apparatus for a blockchain system, comprising: a device including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: storing , in a trusted execution environment, TEE, of the processor, a pre-determined type of blockchain protocol code, and a pre-determined type of consensus code; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code, and to verify that the consensus code stored in the TEE is the pre-determined type of consensus code; receiving a request to alter the pre-determined type of blockchain protocol code; and executing the pre-determined consensus code to determine whether to change the pre-determined type of blockchain protocol code. storing , in a trusted execution environment, TEE, of the processor, a pre-determined type of blockchain protocol code, and a pre-determined type of consensus code; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code, and to verify that the consensus code stored in the TEE is the pre-determined type of consensus code; receiving a request to alter the pre-determined type of blockchain protocol code; and executing the pre-determined consensus code to determine whether to change the pre-determined type of blockchain protocol code.