mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a battery ; a housing assembly , comprising: a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing , the second housing and the first housing corporately defining a receptacle receiving the battery ; and two reinforcing features spaced apart from each other; and a display unit , whereby the two reinforcing features are embedded in the second housing , each of the two reinforcing features has a circular cross section, the two reinforcing features each extend along a length direction of the receptacle , one reinforcing feature is located at a left side of the receptacle , adjacent to the left side wall and a left side of the battery , and interposed between the left side wall and the left side of the battery , and the other reinforcing feature is located at a right side of the receptacle , adjacent to the right side wall and a right side of the battery , and interposed between the right side wall and the right side of the battery , the display unit is embedded in a front face of the housing assembly , and the two reinforcing features are arranged at two sides of the battery , and longitudinal axes of the two reinforcing features are in one plane, and a longitudinal central axis of the battery is in the same one plane. a battery ; a housing assembly , comprising: a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing , the second housing and the first housing corporately defining a receptacle receiving the battery ; and two reinforcing features spaced apart from each other; and a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing , the second housing and the first housing corporately defining a receptacle receiving the battery ; and two reinforcing features spaced apart from each other; and a display unit , whereby the two reinforcing features are embedded in the second housing , each of the two reinforcing features has a circular cross section, the two reinforcing features each extend along a length direction of the receptacle , one reinforcing feature is located at a left side of the receptacle , adjacent to the left side wall and a left side of the battery , and interposed between the left side wall and the left side of the battery , and the other reinforcing feature is located at a right side of the receptacle , adjacent to the right side wall and a right side of the battery , and interposed between the right side wall and the right side of the battery , the display unit is embedded in a front face of the housing assembly , and the two reinforcing features are arranged at two sides of the battery , and longitudinal axes of the two reinforcing features are in one plane, and a longitudinal central axis of the battery is in the same one plane.
A process for treating waste water from an industrial process for producing propylene oxide, which process comprises subjecting the waste water to a catalytic wet oxidation treatment in the presence of a catalyst comprising metal nanoparticles-doped porous carbon beads, wherein the waste water treatment is carried out at a temperature in the range of from 120 to 300 °C and a pressure in the range of from 2 to 15 MPa, wherein the metal nanoparticles are incorporated within the beads, and wherein the catalyst has been prepared by a method comprising:- (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; and (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads. (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; and (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads.
Monopole wire-plate antenna that is reconfigurable in a frequency range of operation, comprising: - a ground plane ; - a capacitive roof ; - a probe feed , which is electrically insulated from the ground plane , and which extends between the ground plane and the capacitive roof so as to electrically feed the capacitive roof ; - at least one shorting wire , which is arranged to electrically connect the capacitive roof to the ground plane , and which is coated in a magneto-dielectric material ; characterized in that : - applying means are arranged to apply a static magnetic field to the magneto-dielectric material with a strength lower than or equal to 400 A.m -1 ; - the magneto-dielectric material has a complex magnetic permeability, which varies as a function of the static magnetic field applied to the magneto-dielectric material . - a ground plane ; - a capacitive roof ; - a probe feed , which is electrically insulated from the ground plane , and which extends between the ground plane and the capacitive roof so as to electrically feed the capacitive roof ; - at least one shorting wire , which is arranged to electrically connect the capacitive roof to the ground plane , and which is coated in a magneto-dielectric material ; - applying means are arranged to apply a static magnetic field to the magneto-dielectric material with a strength lower than or equal to 400 A.m -1 ; - the magneto-dielectric material has a complex magnetic permeability, which varies as a function of the static magnetic field applied to the magneto-dielectric material .
A method of assessing a histological stain, the method comprising: a) measuring on a spectrophotometer an absorbance spectrum of the histological stain over a predefined range; b) identifying one or more wavelengths of peak absorbance from the measured spectrum; c) comparing the one or more identified wavelengths of peak absorbance to a library comprising reference wavelengths of peak absorbance for a plurality of histological stains; and d) determining the identity of the histological stain based on the comparison. a) measuring on a spectrophotometer an absorbance spectrum of the histological stain over a predefined range; b) identifying one or more wavelengths of peak absorbance from the measured spectrum; c) comparing the one or more identified wavelengths of peak absorbance to a library comprising reference wavelengths of peak absorbance for a plurality of histological stains; and d) determining the identity of the histological stain based on the comparison.
A method of message acknowledgement performed by a user equipment, UE, of a wireless communication network, the method comprising: establishing , while the UE is in an active radio resource control, RRC, connected mode and prior to entering an uplink-enhanced idle mode, one or more idle-mode uplink air interface resources for communicating with a base station, BS, of the wireless communication network during the uplink-enhanced idle mode of the UE ; establishing a UE-specific identifier with the BS ; entering the uplink-enhanced idle mode; transmitting a plurality of uplink messages to the BS : during the uplink-enhanced idle mode; through at least one of the one or more idle-mode uplink air interface resources established with the BS ; and using the UE-specific identifier; and following the transmitting the plurality of uplink messages, receiving a group acknowledgment from the BS indicating a success or failure of reception by the BS of each of the uplink messages. establishing , while the UE is in an active radio resource control, RRC, connected mode and prior to entering an uplink-enhanced idle mode, one or more idle-mode uplink air interface resources for communicating with a base station, BS, of the wireless communication network during the uplink-enhanced idle mode of the UE ; establishing a UE-specific identifier with the BS ; entering the uplink-enhanced idle mode; transmitting a plurality of uplink messages to the BS : during the uplink-enhanced idle mode; through at least one of the one or more idle-mode uplink air interface resources established with the BS ; and using the UE-specific identifier; and during the uplink-enhanced idle mode; through at least one of the one or more idle-mode uplink air interface resources established with the BS ; and using the UE-specific identifier; and following the transmitting the plurality of uplink messages, receiving a group acknowledgment from the BS indicating a success or failure of reception by the BS of each of the uplink messages.
A method of substance identification of an item to be inspected using a multi-energy-spectrum X-ray imaging system, the method comprising: acquiring a transparency related vector consisting of transparency values of the item to be inspected in N energy regions, wherein N is greater than 2; and determining the item to be inspected based on the transparency related vector, characterized in that determining the item to be inspected based on the transparency related vector comprises: a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; determining an atomic number and a thickness of the item to be inspected by using a linear interpolation algorithm based on the first and second atomic numbers and the first and second thicknesses; and determining a kind of the item to be inspected based on the atomic number and the thickness of the item to be inspected. acquiring a transparency related vector consisting of transparency values of the item to be inspected in N energy regions, wherein N is greater than 2; and determining the item to be inspected based on the transparency related vector, characterized in that determining the item to be inspected based on the transparency related vector comprises: a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; determining an atomic number and a thickness of the item to be inspected by using a linear interpolation algorithm based on the first and second atomic numbers and the first and second thicknesses; and determining a kind of the item to be inspected based on the atomic number and the thickness of the item to be inspected.
Vortioxetine or a derivative thereof, for use as: i) a promoter of satellite cells self-renewal and/or differentiation; and/or ii) an agent preventing and/or inhibiting the satellite cells pool exhaustion, in a subject affected by a natural or by a pathological loss and/or damage and/or impairment of skeletal muscle tissue(s), wherein said derivative of Vortioxetine is Vortioxetine that is modified to comprise at least one charged chemical moiety. i) a promoter of satellite cells self-renewal and/or differentiation; and/or ii) an agent preventing and/or inhibiting the satellite cells pool exhaustion,
A leadless cardiac device configured for deployment within a patient's vasculature at a location near the patient's heart , the leadless cardiac device comprising: an elongated housing configured to be positioned within the patient's vasculature proximate the patient's heart , the elongated housing having a proximal end and a distal end ; a power source disposed within the elongated housing ; circuitry disposed within the elongated housing and operatively coupled to the power source , the circuitry configured to pace the patient's heart and/or sense electrical activity of the patient's heart ; a first electrode fixed relative to the elongated housing and operatively coupled to the circuitry; a second electrode fixed relative to the elongated housing and operatively coupled to the circuitry, the second electrode spaced from the first electrode and positioned along a side wall of the elongated housing ; a distal extension extending distally from the distal end of the elongated housing , the distal extension including at least one electrode positioned near a distal end thereof and operatively coupled to the circuitry; and an expandable anchoring mechanism releasably coupled to the elongated housing , the expandable anchoring mechanism having a collapsed configuration for delivery and an expanded configuration that locates the leadless cardiac device within the patient's vasculature. an elongated housing configured to be positioned within the patient's vasculature proximate the patient's heart , the elongated housing having a proximal end and a distal end ; a power source disposed within the elongated housing ; circuitry disposed within the elongated housing and operatively coupled to the power source , the circuitry configured to pace the patient's heart and/or sense electrical activity of the patient's heart ; a first electrode fixed relative to the elongated housing and operatively coupled to the circuitry; a second electrode fixed relative to the elongated housing and operatively coupled to the circuitry, the second electrode spaced from the first electrode and positioned along a side wall of the elongated housing ; a distal extension extending distally from the distal end of the elongated housing , the distal extension including at least one electrode positioned near a distal end thereof and operatively coupled to the circuitry; and an expandable anchoring mechanism releasably coupled to the elongated housing , the expandable anchoring mechanism having a collapsed configuration for delivery and an expanded configuration that locates the leadless cardiac device within the patient's vasculature.
A synthetic peptide comprising (i) an analogue of VDAC1-derived peptide, wherein the analogue comprises the amino acid sequence set forth in SEQ ID NO:2 and is completely inverso modified and (ii) a recognition and/or localization peptide comprising the amino acid sequence set forth in SEQ ID NO:8.
A ship comprising an engine, the ship further comprising: a first self-heat exchanger configured to cool a boil-off gas (BOG) by exchanging heat with BOG discharged from a storage tank ; a multistage compressor configured to compress the BOG discharged from the storage tank and having passed through the first self-heat exchanger in multiple stages; a first decompressor configured to expand some of the BOG compressed by the multistage compressor; a second self-heat exchanger configured to precool other BOG compressed by the multistage compressor with the BOG expanded by the first decompressor; and a second decompressor configured to expand the BOG precooled by the second self-heat exchanger and cooled by the first self-heat exchanger, wherein the first self-heat exchanger is configured to cool the BOG compressed by the multistage compressor and having passed through the second self-heat exchanger using the BOG discharged from the storage tank. a first self-heat exchanger configured to cool a boil-off gas (BOG) by exchanging heat with BOG discharged from a storage tank ; a multistage compressor configured to compress the BOG discharged from the storage tank and having passed through the first self-heat exchanger in multiple stages; a first decompressor configured to expand some of the BOG compressed by the multistage compressor; a second self-heat exchanger configured to precool other BOG compressed by the multistage compressor with the BOG expanded by the first decompressor; and a second decompressor configured to expand the BOG precooled by the second self-heat exchanger and cooled by the first self-heat exchanger, wherein the first self-heat exchanger is configured to cool the BOG compressed by the multistage compressor and having passed through the second self-heat exchanger using the BOG discharged from the storage tank.
A wireless communication method by a terminal or a chip in the terminal , comprising: receiving first higher layer signaling from a base station , wherein the first higher layer signaling configures a first time resource and a first frequency resource, and the first time resource and the first frequency resource are configured to be used for uplink transmission without scheduling; receiving second higher layer signaling from the base station , wherein the second higher layer signaling indicates at least one candidate slot; and receiving downlink control information from the base station , wherein the downlink control information indicates a format of a slot in the at least one candidate slot, and the format indicates a transmission direction of a symbol in the slot, wherein an uplink symbol in the slot is a time resource except the first time resource and that is configured to be used for the uplink transmission without scheduling. receiving first higher layer signaling from a base station , wherein the first higher layer signaling configures a first time resource and a first frequency resource, and the first time resource and the first frequency resource are configured to be used for uplink transmission without scheduling; receiving second higher layer signaling from the base station , wherein the second higher layer signaling indicates at least one candidate slot; and receiving downlink control information from the base station , wherein the downlink control information indicates a format of a slot in the at least one candidate slot, and the format indicates a transmission direction of a symbol in the slot, wherein an uplink symbol in the slot is a time resource except the first time resource and that is configured to be used for the uplink transmission without scheduling.
Tissue stent for allowing passage of a fluid, the tissue stent being suited for implantation into the body of a mammal, the tissue stent comprising: • a body (MESH) forming said passage from an entry side (IN) towards an exit side (OUT) when implanted, • an energy harvesting and storage portion (BAT), • an inductivity (L 1 ), characterized in that the tissues stent also comprises • at least two sensing portions (S 1 , S 2 ), whereby a first sensing portion (S 1 ) is arranged near the entry side (IN) and whereby a second sensing portion (S 2 ) is arranged near the exit side (OUT), the first sensing portion (S 1 ) and second sensing portion (S 2 ) being pressure sensors (S pressure ), • a wireless sending portion (TX) for sending information indicative of the functional conditions of the passage, • whereby the at least two sensing portions (S 1 , S 2 ) and the wireless sending portion (TX) are energized via the energy harvesting and storage section (BAT), • whereby the inductivity (L 1 ) is temporarily connected to the energy harvesting and storage portion (BAT) allowing for energy harvesting, and whereby the inductivity (L 1 ) when not connected to the energy harvesting and storage portion (BAT) is temporarily connected to the wireless sending portion (TX) allowing for sending information. • a body (MESH) forming said passage from an entry side (IN) towards an exit side (OUT) when implanted, • an energy harvesting and storage portion (BAT), • an inductivity (L 1 ), characterized in that the tissues stent also comprises • at least two sensing portions (S 1 , S 2 ), whereby a first sensing portion (S 1 ) is arranged near the entry side (IN) and whereby a second sensing portion (S 2 ) is arranged near the exit side (OUT), the first sensing portion (S 1 ) and second sensing portion (S 2 ) being pressure sensors (S pressure ), • a wireless sending portion (TX) for sending information indicative of the functional conditions of the passage, • whereby the at least two sensing portions (S 1 , S 2 ) and the wireless sending portion (TX) are energized via the energy harvesting and storage section (BAT), • whereby the inductivity (L 1 ) is temporarily connected to the energy harvesting and storage portion (BAT) allowing for energy harvesting, and whereby the inductivity (L 1 ) when not connected to the energy harvesting and storage portion (BAT) is temporarily connected to the wireless sending portion (TX) allowing for sending information.
Beam for a beam conveyor furnace for depositing a material to be heated, comprising: - an elongated base body , - one or more receptacles in the elongate base body , in each of which an insert is received, the inserts projecting with respect to the elongate base body and together forming a support for the material to be heated, wherein the elongate base body is a hollow profile which has a profile wall bounding an inner cavity , wherein the profile wall has one or more openings into each of which an insert is inserted, wherein the openings are formed in an upper profile wall section (5-1) located at the top in the working position of the beam in the beam conveyor furnace, wherein the inserts are loosely inserted into the receptacles and rest on a lower profile wall section (5-2) opposite the upper profile wall section (5-1), wherein the inserts are each plate-shaped, wherein the support for the material to be heated is formed by end faces of the plate-shaped inserts and wherein the plate-shaped inserts are received in the receptacles with plate planes aligned parallel to the extension of the elongate base body . - an elongated base body , - one or more receptacles in the elongate base body , in each of which an insert is received, the inserts projecting with respect to the elongate base body and together forming a support for the material to be heated,