mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device for a disk of a turbine (T) extending along an axis (X), the disk including on its circumference at least one cell framed by disk teeth each having an upstream face , the cell including a bottom in fluid communication with an upstream cavity via at least one lunula , the lunula including lateral surface portions , and the cell having a radial plane (Ps) corresponding to a plane of symmetry of the cell into which the lunula opens, the cooling device being characterised in that the lateral surface portions are inclined (angle δ) relative to the radial plane, and in that the cell extends along an axis (A) inclined by a non-zero broach angle (Φ) relative to the axis (X) of the turbine, the broach angle (Φ) being greater than 0° and less than or equal to 20°, the direction of inclination of the lateral surfaces being selected according to the direction of rotation expected for the disk , the lateral surfaces being inclined in the same direction.
An apparatus of a Cellular-Internet-of-Things, CIoT, capable user equipment, UE , the apparatus comprising: processing circuitry, the processing circuitry configured to: encode an Attach Request message for transmission to a Mobility Management Entity MME , in an Evolved Packet System, EPS, the Attach Request message including a Packet Data Network, PDN, Connectivity Request message for establishing a PDN connection with a Service Capability Exposure Function, SCEF , of the EPS; encode a first Reliable Data Service, RDS, frame for transmission to the SCEF , the first RDS frame for establishing an RDS acknowledged transfer procedure; and in response to an acceptance of the first RD S frame, encode a second RDS frame for transmission to the SCEF , the second RDS frame including an information field with data; and memory coupled to the processing circuitry, the memory configured to store the second RDS frame. processing circuitry, the processing circuitry configured to: encode an Attach Request message for transmission to a Mobility Management Entity MME , in an Evolved Packet System, EPS, the Attach Request message including a Packet Data Network, PDN, Connectivity Request message for establishing a PDN connection with a Service Capability Exposure Function, SCEF , of the EPS; encode a first Reliable Data Service, RDS, frame for transmission to the SCEF , the first RDS frame for establishing an RDS acknowledged transfer procedure; and in response to an acceptance of the first RD S frame, encode a second RDS frame for transmission to the SCEF , the second RDS frame including an information field with data; and encode an Attach Request message for transmission to a Mobility Management Entity MME , in an Evolved Packet System, EPS, the Attach Request message including a Packet Data Network, PDN, Connectivity Request message for establishing a PDN connection with a Service Capability Exposure Function, SCEF , of the EPS; encode a first Reliable Data Service, RDS, frame for transmission to the SCEF , the first RDS frame for establishing an RDS acknowledged transfer procedure; and in response to an acceptance of the first RD S frame, encode a second RDS frame for transmission to the SCEF , the second RDS frame including an information field with data; and memory coupled to the processing circuitry, the memory configured to store the second RDS frame.
A display module , comprising: a substrate ; a thin film transistor (TFT) layer disposed on a surface of the substrate ; a plurality of LED packages comprising a connection substrate and a plurality of LEDs (131-133) disposed on a first surface of the connection substrate ; a wiring configured to electrically connect the TFT layer and the plurality of LEDs (131-133), wherein the wiring comprises a first wiring for electrically coupling with the plurality of LEDs (131-133) on the first surface of the connection substrate , and a second wiring for electrically coupling with the TFT layer on a second surface of the connection substrate ; and characterised in that a black matrix is formed between each of the plurality of LED packages on the TFT layer ; the display module further comprises a molding part configured to cover the plurality of LED packages and the black matrix , and the molding part covers the TFT layer exposed between the plurality of LED packages . a substrate ; a thin film transistor (TFT) layer disposed on a surface of the substrate ; a plurality of LED packages comprising a connection substrate and a plurality of LEDs (131-133) disposed on a first surface of the connection substrate ; a wiring configured to electrically connect the TFT layer and the plurality of LEDs (131-133), wherein the wiring comprises a first wiring for electrically coupling with the plurality of LEDs (131-133) on the first surface of the connection substrate , and a second wiring for electrically coupling with the TFT layer on a second surface of the connection substrate ; and characterised in that a black matrix is formed between each of the plurality of LED packages on the TFT layer ; the display module further comprises a molding part configured to cover the plurality of LED packages and the black matrix , and the molding part covers the TFT layer exposed between the plurality of LED packages .
A method of rendering optical coherence tomography, OCT, retinal image data, which has been acquired by an OCT scanner scanning a retina of an eye over a range of scan locations, wherein each of the scan locations is associated with a respective coordinate in a first coordinate system, and each pixel of the rendered OCT retinal image data is associated with a respective coordinate in a second coordinate system that is different from the first coordinate system, the method comprising: receiving (S10) the OCT retinal image data acquired by the OCT scanner; determining (S20; S20') values of coordinates in the second coordinate system of pixels in the received OCT retinal image using a transformation from coordinates in the first coordinate system to coordinates in the second coordinate system; and interpolating (S30) between values of the pixels at the determined values of coordinates in the second coordinate system to calculate values of the pixels of the rendered OCT retinal image data. receiving (S10) the OCT retinal image data acquired by the OCT scanner; determining (S20; S20') values of coordinates in the second coordinate system of pixels in the received OCT retinal image using a transformation from coordinates in the first coordinate system to coordinates in the second coordinate system; and interpolating (S30) between values of the pixels at the determined values of coordinates in the second coordinate system to calculate values of the pixels of the rendered OCT retinal image data.
A pump arrangement for pumping a liquid, in particular a liquid contaminated by dirt particles, wherein the pump arrangement has at least one working chamber and at least one delivery piston , and at least one inlet valve and at least one outlet valve , and the delivery piston is movable for sucking liquid into the working chamber via the inlet valve and for expelling liquid from the working chamber via the outlet valve , and the pump arrangement has a wear monitoring device for monitoring the wear on the inlet valve and/or outlet valve with at least one pressure sensor and a pressure evaluating unit for processing pressure measurement values issued by the pressure sensor , characterised in that the pump arrangement has a drive fluid system , which can be operated by a drive fluid, for moving the delivery piston , and the pressure sensor of the wear monitoring device is arranged in the drive fluid system for detecting the pressure of the drive fluid.
A chimeric antigen receptor (CAR), comprising an extracellular antigen-binding domain, a transmembrane domain and an intracellular domain, wherein the extracellular antigen-binding domain comprises a single-chain variable fragment (scFv), wherein the scFv comprises: a heavy chain variable region CDR1 comprising the amino acid sequence set forth in SEQ ID NO:11, a heavy chain variable region CDR2 comprising the amino acid sequence set forth in SEQ ID NO:12, a heavy chain variable region CDR3 comprising the amino acid sequence set forth in SEQ ID NO:13, a light chain variable region CDR1 comprising the amino acid sequence set forth in SEQ ID NO:14, a light chain variable region CDR2 comprising the amino acid sequence set forth in SEQ ID NO:15, and a light chain variable region CDR3 comprising the amino acid sequence set forth in SEQ ID NO:16.
Method for detecting an anomaly associated with a magnetic locating device, said magnetic locating device comprising a first magnetic element and a second magnetic element that are associated with a first object and with a second object , respectively, the first object comprising a first movement sensor able to determine a first datum (g 1 ) dependent on the inclination of the first object in a basic reference frame, notably the terrestrial reference frame, the method comprising: • a step (E1) of determining the first datum (g 1 ) from said first movement sensor , • a step (E2) of determining a second datum (g 2 ) dependent on the inclination of the second object in said basic reference frame, • a step (E3) of determining at least one orientation parameter with the magnetic locating device using the first and second magnetic elements , the orientation parameter being representative of an orientation of the first object relative to the second object, • a step (E4) of using said at least one orientation parameter and the first and second data (g 1 , g 2 ) to generate an indicator of presence of the anomaly, the method further comprising a transposition of the first datum and of the second datum to a common coordinate system, such that the anomaly is determined depending on an angle between said transposed first and second data. • a step (E1) of determining the first datum (g 1 ) from said first movement sensor , • a step (E2) of determining a second datum (g 2 ) dependent on the inclination of the second object in said basic reference frame, • a step (E3) of determining at least one orientation parameter with the magnetic locating device using the first and second magnetic elements , the orientation parameter being representative of an orientation of the first object relative to the second object, • a step (E4) of using said at least one orientation parameter and the first and second data (g 1 , g 2 ) to generate an indicator of presence of the anomaly, the method further comprising
System for driving an ultrasonic device for bone cement removal and/or osteotomy operations, comprising: - a control unit ; - a memory unit (MEM); and - connection means for connecting together said control unit and a handset of the ultrasonic device, said control unit being configured to: - send a signal (Sg1) to the handset ; - receive from the handset a response (Sg2) to said signal (Sg1) sent; and - check an operating condition of the ultrasonic device based on said response (Sg2), wherein said sent signal (Sg1) is a signal with a frequency variable within a frequency range, and wherein, based on said response (Sg2), the control unit is configured to calculate at least one parameter indicative of the frequency response of the ultrasonic device, said parameter being the variation in impedance as a function of the frequency, providing an impedance curve representing the frequency response of the ultrasonic device, characterized in that , in said check an operating condition of the ultrasonic device, the control unit is configured to measure the entire impedance curve within the defined frequency range and to compare said entire impedance curve with stored reference models, wherein said reference models characterize the expected behavior that is specific for each combination of the handset with a specific tool (T) connectable to said handset by means of connection means of said handset and to which the generated ultrasounds are transmitted. - a control unit ; - a memory unit (MEM); and - connection means for connecting together said control unit and a handset of the ultrasonic device, said control unit being configured to: - send a signal (Sg1) to the handset ; - receive from the handset a response (Sg2) to said signal (Sg1) sent; and - check an operating condition of the ultrasonic device based on said response (Sg2), - send a signal (Sg1) to the handset ; - receive from the handset a response (Sg2) to said signal (Sg1) sent; and - check an operating condition of the ultrasonic device based on said response (Sg2), wherein said sent signal (Sg1) is a signal with a frequency variable within a frequency range, and wherein, based on said response (Sg2), the control unit is configured to calculate at least one parameter indicative of the frequency response of the ultrasonic device, said parameter being the variation in impedance as a function of the frequency, providing an impedance curve representing the frequency response of the ultrasonic device, characterized in that , in said check an operating condition of the ultrasonic device, the control unit is configured to measure the entire impedance curve within the defined frequency range and to compare said entire impedance curve with stored reference models, wherein said reference models characterize the expected behavior that is specific for each combination of the handset with a specific tool (T) connectable to said handset by means of connection means of said handset and to which the generated ultrasounds are transmitted.
A method of converting a fluorinated compound into a fluorinated acyl fluoride, the method comprising: reacting the fluorinated compound with a catalytic amount of at least one transition metal compound selected from the group consisting of an oxide, a spinel compound, an oxoperoxo metal compound, and oxoperoxo metal complex with organic complexing agents, and a combination thereof; and an oxygen-containing compound to form the fluorinated acyl fluoride, wherein the transition metal compound comprises V, Nb, Ta, or combinations thereof; and wherein the oxygen-containing compound comprises an oxygen-containing gas comprising oxygen (O 2 ), water (H2O), hydrogen peroxide (H2O2), ozone (O 3 ), nitrous oxide (N 2 O), or combinations thereof; and wherein the reaction is carried out at a temperature from 70 °C to 500 °C wherein the fluorinated compound is a fluorinated olefin containing compound and wherein the fluorinated compound being converted into a fluorinated acyl fluoride does not include an acyl fluoride group and/or is not classified as an acyl fluoride compound . reacting the fluorinated compound with a catalytic amount of at least one transition metal compound selected from the group consisting of an oxide, a spinel compound, an oxoperoxo metal compound, and oxoperoxo metal complex with organic complexing agents, and a combination thereof; and an oxygen-containing compound to form the fluorinated acyl fluoride, wherein the transition metal compound comprises V, Nb, Ta, or combinations thereof; and wherein the oxygen-containing compound comprises an oxygen-containing gas comprising oxygen (O 2 ), water (H2O), hydrogen peroxide (H2O2), ozone (O 3 ), nitrous oxide (N 2 O), or combinations thereof; and wherein the reaction is carried out at a temperature from 70 °C to 500 °C wherein the fluorinated compound is a fluorinated olefin containing compound and wherein the fluorinated compound being converted into a fluorinated acyl fluoride does not include an acyl fluoride group and/or is not classified as an acyl fluoride compound .
A compound comprising a ligand L selected from the group A consisting of: wherein each X 1 to X 13 are independently selected from the group consisting of carbon and nitrogen; wherein each R a , R b , R c , and R d may represent from mono substitution to the possible maximum number of substitution, or no substitution; wherein each R a , R b , R c , and R d are independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the ligand L is coordinated to a metal M selected from the group consisting of Ir, Rh, Re, Ru, Os, Pt, Au, and Cu; wherein the ligand L is optionally linked with other ligands to comprise a tridentate, tetradentate, pentadentate or hexadentate ligand; wherein the compound comprises at least one intramolecular hydrogen bonding interaction determined by measuring the 1 H(proton) NMR chemical shift as shown in the scheme: whereby the chemical shift of H is shifted downfield by at least 1.3 ppm compared to the compound when Z 2 is carbon wherein Z 1 is carbon of alkyl; and wherein Z 2 is one of X 1 to X 13 , and is nitrogen of pyridine. wherein each X 1 to X 13 are independently selected from the group consisting of carbon and nitrogen; wherein each R a , R b , R c , and R d may represent from mono substitution to the possible maximum number of substitution, or no substitution; wherein each R a , R b , R c , and R d are independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the ligand L is coordinated to a metal M selected from the group consisting of Ir, Rh, Re, Ru, Os, Pt, Au, and Cu; wherein the ligand L is optionally linked with other ligands to comprise a tridentate, tetradentate, pentadentate or hexadentate ligand; wherein the compound comprises at least one intramolecular hydrogen bonding interaction determined by measuring the 1 H(proton) NMR chemical shift as shown in the scheme: whereby the chemical shift of H is shifted downfield by at least 1.3 ppm compared to the compound when Z 2 is carbon wherein Z 1 is carbon of alkyl; and wherein Z 2 is one of X 1 to X 13 , and is nitrogen of pyridine. whereby the chemical shift of H is shifted downfield by at least 1.3 ppm compared to the compound when Z 2 is carbon wherein Z 1 is carbon of alkyl; and wherein Z 2 is one of X 1 to X 13 , and is nitrogen of pyridine.
A stopper for a container with a closable dispenser with evidence of first opening comprising an upper part and a lower part mutually coupled by snap-assembly, wherein: - the upper part comprises a protection cap closable on a pouring element and connected thereto by a hinge ; - the lower part is produced with a section having cylindrical steps with diameters decreasing upwardly, wherein it has an upper hollow cylindrical portion which is coaxially coupled inside said pouring element and a lower cylindrical portion having a larger diameter , internally threaded (in 39), to be positioned on a screw neck of a mouthpiece of a container; - an annular security crown connected to said lower part of the stopper by means of frangible bridges and positioned, in use, between said lower part of the stopper and said screw neck of the container; - a cam arrangement provided between an outer surface of said upper hollow cylindrical portion and an inner surface of said pouring element coaxially coupled for causing their translation and rotation; characterized in that it comprises - a frangible label positioned astride between the closed protection cap and the pouring element ; - a security ring positioned between said upper part and said lower part connected with frangible bridges ; - said pouring element internally providing a duct passage and a coaxial island shutter which collaborates with a hole defined centrally in the upper hollow cylindrical portion of the lower part to close it - the upper part comprises a protection cap closable on a pouring element and connected thereto by a hinge ; - the lower part is produced with a section having cylindrical steps with diameters decreasing upwardly, wherein it has an upper hollow cylindrical portion which is coaxially coupled inside said pouring element and a lower cylindrical portion having a larger diameter , internally threaded (in 39), to be positioned on a screw neck of a mouthpiece of a container; - an annular security crown connected to said lower part of the stopper by means of frangible bridges and positioned, in use, between said lower part of the stopper and said screw neck of the container; - a cam arrangement provided between an outer surface of said upper hollow cylindrical portion and an inner surface of said pouring element coaxially coupled for causing their translation and rotation; - a frangible label positioned astride between the closed protection cap and the pouring element ; - a security ring positioned between said upper part and said lower part connected with frangible bridges ; - said pouring element internally providing a duct passage and a coaxial island shutter which collaborates with a hole defined centrally in the upper hollow cylindrical portion of the lower part to close it
A work vehicle including a suspended platform , the work vehicle comprising: a work cage configured to carry an operator; an arm mechanism having a distal end, the distal end being movable to an intended position by at least one of a rotating mechanism , an extension mechanism , or a derricking mechanism that are installed on a vehicle body ; and the suspended platform comprising a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post , being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post , and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards , characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position (S) and inoperable from the work cage at a raised or lowered position. a work cage configured to carry an operator; an arm mechanism having a distal end, the distal end being movable to an intended position by at least one of a rotating mechanism , an extension mechanism , or a derricking mechanism that are installed on a vehicle body ; and the suspended platform comprising a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post , being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post , and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards , characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position (S) and inoperable from the work cage at a raised or lowered position. a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post , being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post , and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards , characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position (S) and inoperable from the work cage at a raised or lowered position.