mhurhangee/patent-ind-claim-en huggingface dataset:
An accessory for an electronic device , the accessory comprising: a housing including a first portion including an opening and formed to provide cooling and wireless charging to the electronic device and a second portion extending to one side from the first portion and formed to provide wireless charging; a fan assembly disposed in the first portion of the housing and configured to discharge air through the opening, the fan assembly disposed under the opening; first wireless charging circuitry disposed over the fan assembly and including a first wireless charging coil; a pad member disposed within the opening and configured to cover the first wireless charging circuitry; and second wireless charging circuitry disposed in the second portion of the housing and including a second wireless charging coil, wherein a first intake area is included in the first portion of the housing and a second intake area is included in the second portion of the housing, wherein the fan assembly is configured to introduce air into the housing through the first intake area and the second intake area, and wherein the accessory is configured so that air introduced into the second portion of the housing through the second intake area will pass over the second wireless charging circuit and move to the first portion of the housing. a housing including a first portion including an opening and formed to provide cooling and wireless charging to the electronic device and a second portion extending to one side from the first portion and formed to provide wireless charging; a fan assembly disposed in the first portion of the housing and configured to discharge air through the opening, the fan assembly disposed under the opening; first wireless charging circuitry disposed over the fan assembly and including a first wireless charging coil; a pad member disposed within the opening and configured to cover the first wireless charging circuitry; and second wireless charging circuitry disposed in the second portion of the housing and including a second wireless charging coil, wherein a first intake area is included in the first portion of the housing and a second intake area is included in the second portion of the housing, wherein the fan assembly is configured to introduce air into the housing through the first intake area and the second intake area, and wherein the accessory is configured so that air introduced into the second portion of the housing through the second intake area will pass over the second wireless charging circuit and move to the first portion of the housing.
A method for wireless communication at a user equipment, UE, comprising: identifying a channel quality indication, CQI, table that provides one or more parameters associated with one or more modulation orders for transmissions between the UE and a base station; receiving , from the base station, control information for a downlink transmission, the control information including a first index value for a first entry in a modulation and coding scheme, MCS, table, wherein the first entry in the MCS table indicates a first modulation order independently of the one or more modulation orders of the CQI table; and determining a rate matching parameter for the downlink transmission based at least in part on at least one of the first modulation order or the CQI table; the method further comprising: receiving radio resource control, RRC, signaling that includes a signaled modulation order that is different than a modulation order indicated in the first entry in the MCS table. identifying a channel quality indication, CQI, table that provides one or more parameters associated with one or more modulation orders for transmissions between the UE and a base station; receiving , from the base station, control information for a downlink transmission, the control information including a first index value for a first entry in a modulation and coding scheme, MCS, table, wherein the first entry in the MCS table indicates a first modulation order independently of the one or more modulation orders of the CQI table; and determining a rate matching parameter for the downlink transmission based at least in part on at least one of the first modulation order or the CQI table; the method further comprising: receiving radio resource control, RRC, signaling that includes a signaled modulation order that is different than a modulation order indicated in the first entry in the MCS table.
A mechanical ply-bonding member for a ply-bonding unit, having a side surface comprising a plurality of protuberances spaced by cavities , characterized in that the cavities are at least partially filled with a yielding material .
Apparatus comprising: an acoustic-based air probe having: an acoustic source configured to provide an acoustic signal into a mixture of concrete; an acoustic receiver configured to be substantially co-planar with the acoustic source, to respond to the acoustic signal, and to provide signaling containing information about the acoustic signal injected into the mixture of concrete, and a signal processor configured to receive the signaling containing information about the acoustic signal injected into the mixture of concrete; and determine a measurement of air percentage in the mixture of concrete based at least partly on a dual frequency technique that depends on the relationship between the acoustic signal injected and the signaling received, wherein the acoustic signal injected is a reference signal; the signaling received is detected signaling; and the signal processor is configured to determine the measurement of air percentage in the mixture of concrete based at least partly on mixing the reference signal with the detected signaling using a phase sensitive lock-in approach. an acoustic source configured to provide an acoustic signal into a mixture of concrete; an acoustic receiver configured to be substantially co-planar with the acoustic source, to respond to the acoustic signal, and to provide signaling containing information about the acoustic signal injected into the mixture of concrete, and a signal processor configured to receive the signaling containing information about the acoustic signal injected into the mixture of concrete; and determine a measurement of air percentage in the mixture of concrete based at least partly on a dual frequency technique that depends on the relationship between the acoustic signal injected and the signaling received, wherein the acoustic signal injected is a reference signal; the signaling received is detected signaling; and the signal processor is configured to determine the measurement of air percentage in the mixture of concrete based at least partly on mixing the reference signal with the detected signaling using a phase sensitive lock-in approach.
An endoscope system , , comprising: an endoscope , including an endoscope electro-pneumatic connection assembly having a leak test port ; an endoscope electro-optic subsystem which is connectable to said endoscope , via said endoscope electro-pneumatic connection assembly in a manner which precludes access to said leak test port when said endoscope electro-optic subsystem and said endoscope , are directly connected at said electro-pneumatic connection assembly ; and an electro-pneumatic adaptor , which is connectable to said endoscope , at said electro-pneumatic connection assembly and comprises: an adaptor electro-pneumatic connection assembly, including: an electrical connector for connection to an electrical connector of said endoscope , ; a pneumatic connector portion for connection to a pneumatic connector portion of said endoscope electro-pneumatic connection assembly ; and a leak test port connector for connection to said leak test port of said endoscope , ; an adaptor electrical port assembly to which said endoscope electro-optic subsystem is connectable; and a pneumatic port with a conduit pneumatically connecting the pneumatic port to said leak test port connector . an endoscope , including an endoscope electro-pneumatic connection assembly having a leak test port ; an endoscope electro-optic subsystem which is connectable to said endoscope , via said endoscope electro-pneumatic connection assembly in a manner which precludes access to said leak test port when said endoscope electro-optic subsystem and said endoscope , are directly connected at said electro-pneumatic connection assembly ; and an electro-pneumatic adaptor , which is connectable to said endoscope , at said electro-pneumatic connection assembly and comprises: an adaptor electro-pneumatic connection assembly, including: an electrical connector for connection to an electrical connector of said endoscope , ; a pneumatic connector portion for connection to a pneumatic connector portion of said endoscope electro-pneumatic connection assembly ; and a leak test port connector for connection to said leak test port of said endoscope , ; an adaptor electrical port assembly to which said endoscope electro-optic subsystem is connectable; and a pneumatic port with a conduit pneumatically connecting the pneumatic port to said leak test port connector . an adaptor electro-pneumatic connection assembly, including: an electrical connector for connection to an electrical connector of said endoscope , ; a pneumatic connector portion for connection to a pneumatic connector portion of said endoscope electro-pneumatic connection assembly ; and a leak test port connector for connection to said leak test port of said endoscope , ; an adaptor electrical port assembly to which said endoscope electro-optic subsystem is connectable; and a pneumatic port with a conduit pneumatically connecting the pneumatic port to said leak test port connector .
Anti-adrenomedullin (ADM) antibody or an anti-adrenomedullin antibody fragment for use in therapy or prevention of symptoms of illness in a subject in need thereof, wherein the subject is human, and wherein the symptoms of illness are selected from the group of nausea, headache, muscle aches, back pain, and/or shivering, wherein the illness is characterized by an amount of C-reactive protein (CRP) in a sample which is ≥ 10 mg/L, and/or wherein the amount of TNF in a sample is ≥ 50 pg/ml, and/or wherein the amount of bio-ADM in a sample is ≥ 43pg/ml, and wherein said sample is selected from the group consisting whole blood, plasma, serum, and wherein said antibody or fragment is a humanized monoclonal antibody or fragment that binds to ADM or a fragment thereof, wherein the heavy chain comprises the sequences: CDR1: SEQ ID NO: 5 GYTFSRYW CDR2: SEQ ID NO: 6 ILPGSGST CDR3: SEQ ID NO: 7 TEGYEYDGFDY and wherein the light chain comprises the sequences: CDR1: SEQ ID NO: 8 QSIVYSNGNTY CDR2: RVS CDR3: SEQ ID NO: 9 FQGSHIPYT. the subject is human, and wherein the symptoms of illness are selected from the group of nausea, headache, muscle aches, back pain, and/or shivering, wherein the illness is characterized by an amount of C-reactive protein (CRP) in a sample which is ≥ 10 mg/L, and/or wherein the amount of TNF in a sample is ≥ 50 pg/ml, and/or wherein the amount of bio-ADM in a sample is ≥ 43pg/ml, and wherein said sample is selected from the group consisting whole blood, plasma, serum, and wherein said antibody or fragment is a humanized monoclonal antibody or fragment that binds to ADM or a fragment thereof, wherein the heavy chain comprises the sequences: CDR1: SEQ ID NO: 5 GYTFSRYW CDR2: SEQ ID NO: 6 ILPGSGST CDR3: SEQ ID NO: 7 TEGYEYDGFDY CDR1: SEQ ID NO: 5 GYTFSRYW CDR2: SEQ ID NO: 6 ILPGSGST CDR3: SEQ ID NO: 7 TEGYEYDGFDY and wherein the light chain comprises the sequences: CDR1: SEQ ID NO: 8 QSIVYSNGNTY CDR2: RVS CDR3: SEQ ID NO: 9 FQGSHIPYT. CDR1: SEQ ID NO: 8 QSIVYSNGNTY CDR2: RVS CDR3: SEQ ID NO: 9 FQGSHIPYT.
A battery module , comprising: a plurality of battery cells ; a base frame configured to support the plurality of battery cells ; a cover frame coupled to the base frame to cover the plurality of battery cells , wherein the cover frame has a rotation guide groove , the rotation guide groove being provided at both side ends of the cover frame ; and a bus bar unit coupled to the cover frame in a tiltable form to be pivoted at a predetermined angle between a first location fixed to the cover frame and a second location fixed to the base frame ; wherein the bus bar unit includes: a bus bar housing pivotally coupled to the cover frame and fixed to the base frame ; a connection bus bar provided to the bus bar housing and connected to electrode leads of the plurality of battery cells ; and a rotation shaft projection provided at both sides of the top portion of the bus bar housing and pivotally inserted into the rotation guide groove of the cover frame ; and wherein the bus bar housing has a tension stopper that is caught at the first location by a bottom portion of the cover frame to make the bus bar housing be spaced apart from the base frame at a predetermined angle. a plurality of battery cells ; a base frame configured to support the plurality of battery cells ; a cover frame coupled to the base frame to cover the plurality of battery cells , wherein the cover frame has a rotation guide groove , the rotation guide groove being provided at both side ends of the cover frame ; and a bus bar unit coupled to the cover frame in a tiltable form to be pivoted at a predetermined angle between a first location fixed to the cover frame and a second location fixed to the base frame ; wherein the bus bar unit includes: a bus bar housing pivotally coupled to the cover frame and fixed to the base frame ; a connection bus bar provided to the bus bar housing and connected to electrode leads of the plurality of battery cells ; and a rotation shaft projection provided at both sides of the top portion of the bus bar housing and pivotally inserted into the rotation guide groove of the cover frame ; and wherein the bus bar housing has a tension stopper that is caught at the first location by a bottom portion of the cover frame to make the bus bar housing be spaced apart from the base frame at a predetermined angle. a bus bar housing pivotally coupled to the cover frame and fixed to the base frame ; a connection bus bar provided to the bus bar housing and connected to electrode leads of the plurality of battery cells ; and a rotation shaft projection provided at both sides of the top portion of the bus bar housing and pivotally inserted into the rotation guide groove of the cover frame ; and wherein the bus bar housing has a tension stopper that is caught at the first location by a bottom portion of the cover frame to make the bus bar housing be spaced apart from the base frame at a predetermined angle.
Anchoring arrangement for anchoring a floatable wind power unit in water, wherein the anchoring arrangement comprises: - the floatable wind power unit having a first part and a second part between which support elements adapted to support at least two wind turbines are arranged, and - an anchoring element comprising an elongated fundament configured to be firmly attached in a bottom sediment so that a longitudinal axis (L1) of the fundament is oriented from the bottom sediment towards the surface of the water, wherein the anchoring element further comprises a displacement member rotary arranged on the fundament and a connection member adapted to form a connection between the displacement member and the first part of the floatable wind power unit , wherein the displacement member is arranged displaceable along said longitudinal axis (L1) between a first position and a second position, which first position is located further away from the bottom sediment than the second position, wherein the connection member is adapted to form a rigid connection between the displacement member and the first part of the floatable wind power unit when the displacement member is in the first position, and the displacement member is adapted, while being connected to the first part of the floatable wind power unit , to be brought from the first position to the second position, characterized in that the displacement member is adapted to be displaced from the first position, configured to be located at or in vicinity of the surface of the water, to the second position, configured to be located at or in vicinity of the bottom sediment, by means of reducing the buoyancy of the first part of the floatable wind power unit while the second part of the floatable wind power unit is maintained floating. - the floatable wind power unit having a first part and a second part between which support elements adapted to support at least two wind turbines are arranged, and - an anchoring element comprising an elongated fundament configured to be firmly attached in a bottom sediment so that a longitudinal axis (L1) of the fundament is oriented from the bottom sediment towards the surface of the water,
A device for remote ischemic preconditioning, the device comprising: - a cuff with a width selected to be 1/3 or greater of a limb circumference to fit about a limb of a subject in a deflated state, the cuff configured to be inflated from the deflated state to an inflated state to at least substantially reduce a blood flow through the limb, - a controller connected to said cuff, said controller is configured to inflate and deflate said cuff according to a preconditioning treatment protocol, said treatment protocol includes a plurality of treatment cycles, said cuff is configured to assure a limb occlusion pressure equal or less than a systolic blood pressure of said subject, said treatment cycles comprising the intervals of: - cuff inflation, during which said controller inflates said cuff to at least said limb occlusion pressure, - an ischemic duration, during which said controller maintains said cuff at or above said limb occlusion pressure but at or below the systolic blood pressure of the subject for at least a portion of said ischemic duration, the ischemic duration lasting for at least about a minute, - cuff deflation, during which said controller deflates said cuff to said deflated state, and - a reperfusion duration, wherein said controller is configured to detect said systolic blood pressure of said subject during at least one of said treatment cycles when said cuff is at or above said limb occlusion pressure but below a previously detected systolic blood pressure of the subject, whereby said systolic blood pressure is detected without reperfusion of said limb. - a cuff with a width selected to be 1/3 or greater of a limb circumference to fit about a limb of a subject in a deflated state, the cuff configured to be inflated from the deflated state to an inflated state to at least substantially reduce a blood flow through the limb, - a controller connected to said cuff, said controller is configured to inflate and deflate said cuff according to a preconditioning treatment protocol, said treatment protocol includes a plurality of treatment cycles, - cuff inflation, during which said controller inflates said cuff to at least said limb occlusion pressure, - an ischemic duration, during which said controller maintains said cuff at or above said limb occlusion pressure but at or below the systolic blood pressure of the subject for at least a portion of said ischemic duration, the ischemic duration lasting for at least about a minute, - cuff deflation, during which said controller deflates said cuff to said deflated state, and - a reperfusion duration,
A method of cleaning a wellbore or tubing or casing in a wellbore containing residues and/or deposits of an oil or synthetic based drilling mud, the method comprising introducing into the wellbore, tubing or casing an aqueous cleaning fluid containing banana and removing from the wellbore, tubing or casing the cleaning fluid having at least a portion of the residues or deposits of the oil or synthetic based drilling mud entrained therein.
A method for acquiring timing information of a first timing information source using timing information of a second timing information source , the method being performed by a wireless device and comprising the steps of: receiving (S208) instructions from a network node to use second timing information of the second timing information source as a source for deriving first timing information of the first timing information source; and receiving (S210) the second timing information from the second timing information source. receiving (S208) instructions from a network node to use second timing information of the second timing information source as a source for deriving first timing information of the first timing information source; and receiving (S210) the second timing information from the second timing information source.
A display device comprising: a first substrate ; a pixel electrode on the first substrate ; a second substrate facing the first substrate ; a plurality of optical members disposed on the second substrate and protruding towards the first substrate ; an overcoat layer formed directly on and covering the optical members ; and a liquid crystal layer disposed between the pixel electrode and the overcoat layer , wherein the display device further comprises a pixel, the pixel including an active area (AA) in which light transmittance is controlled, the pixel comprising the pixel electrode which overlaps the active area (AA) of the pixel, wherein the optical members comprise sloping sidewalls, wherein the pixel electrode comprises a plurality of branch electrodes which extend in the same direction in 80% or more of the active area (AA) such that the pixel electrode defines one domain of the liquid crystal layer , wherein the pixel electrode comprises a first stem electrode extending in a first direction (DR1), a second stem electrode extending in a second direction (DR2) perpendicular to the first direction, and wherein the plurality of branch electrodes extend from at least one of the first stem electrode and the second stem electrode , and characterized in that the plurality of optical members are disposed in the active area (AA) of the pixel and a refractive index of a first material that forms the optical members is greater than that of a second material that forms the overcoat layer. a first substrate ; a pixel electrode on the first substrate ; a second substrate facing the first substrate ; a plurality of optical members disposed on the second substrate and protruding towards the first substrate ; an overcoat layer formed directly on and covering the optical members ; and a liquid crystal layer disposed between the pixel electrode and the overcoat layer , wherein the display device further comprises a pixel, the pixel including an active area (AA) in which light transmittance is controlled, the pixel comprising the pixel electrode which overlaps the active area (AA) of the pixel, wherein the optical members comprise sloping sidewalls, wherein the pixel electrode comprises a plurality of branch electrodes which extend in the same direction in 80% or more of the active area (AA) such that the pixel electrode defines one domain of the liquid crystal layer , wherein the pixel electrode comprises a first stem electrode extending in a first direction (DR1), a second stem electrode extending in a second direction (DR2) perpendicular to the first direction, and wherein the plurality of branch electrodes extend from at least one of the first stem electrode and the second stem electrode , and characterized in that the plurality of optical members are disposed in the active area (AA) of the pixel and a refractive index of a first material that forms the optical members is greater than that of a second material that forms the overcoat layer.