mhurhangee/ep-ind-claims huggingface dataset:
A data storage medium comprising a diamond-based substrate comprising: - NV centres inserted in a crystalline cell of said substrate, ∘ each NV centre being made up of a nitrogen atom substituted with a carbon atom and coupled to a vacancy, the nitrogen/vacancy atom pair forming a defect in said crystalline cell; ∘ said NV centres being capable of emitting a light wave at a fluorescence wavelength when said substrate is illuminated by a light source at an excitation wavelength capable of exciting the fluorescence of said NV centres, said fluorescence wavelength being distinct from said excitation wavelength; - said substrate comprising residual NV centres according to a given concentration (D r), characterised in that: - said substrate further comprises a plurality of distinct elementary data storage zones; - said elementary zones being able to be altered so as to modify the number of NV centres, defining two distinct states as a function of the stored data and capable of being distinguished between: ∘ a first non-modified state where the first number of NV centres is equal to the number (Nr) of residual NV centres present in said zone; ∘ a second modified state where the second number of NV centres comprises a given number (Ni) of additional NV centres implanted in said zone; - the first number and the second number being distinct. - NV centres inserted in a crystalline cell of said substrate, ∘ each NV centre being made up of a nitrogen atom substituted with a carbon atom and coupled to a vacancy, the nitrogen/vacancy atom pair forming a defect in said crystalline cell; ∘ said NV centres being capable of emitting a light wave at a fluorescence wavelength when said substrate is illuminated by a light source at an excitation wavelength capable of exciting the fluorescence of said NV centres, said fluorescence wavelength being distinct from said excitation wavelength; - said substrate comprising residual NV centres according to a given concentration (D r), characterised in that: - said substrate further comprises a plurality of distinct elementary data storage zones; - said elementary zones being able to be altered so as to modify the number of NV centres, defining two distinct states as a function of the stored data and capable of being distinguished between: ∘ a first non-modified state where the first number of NV centres is equal to the number (Nr) of residual NV centres present in said zone; ∘ a second modified state where the second number of NV centres comprises a given number (Ni) of additional NV centres implanted in said zone; ∘ a first non-modified state where the first number of NV centres is equal to the number (Nr) of residual NV centres present in said zone; ∘ a second modified state where the second number of NV centres comprises a given number (Ni) of additional NV centres implanted in said zone; - the first number and the second number being distinct.
A charging unit for use in wireless power transmission system, comprising: a power source; a rectifier configured to receive an alternating current input signal from the power source and convert the AC input to a direct current power; an inverter configured to receive the DC power from the rectifier and convert the DC power to an AC output signal at a desired resonant frequency; and a transmit coil configured to receive the AC output signal from the inverter and generate an alternating electromagnetic field, wherein the transmit coil has a spirangle arrangement segmented into n coil segments (L1, L2.. Ln) and capacitors (C1, C2...Cn) interconnecting adjacent coil segments, wherein n is an integer greater than two, characterized in that the length of each coil segment in the transmit coil is sized to distribute voltage in the capacitors evenly. a power source; a rectifier configured to receive an alternating current input signal from the power source and convert the AC input to a direct current power; an inverter configured to receive the DC power from the rectifier and convert the DC power to an AC output signal at a desired resonant frequency; and a transmit coil configured to receive the AC output signal from the inverter and generate an alternating electromagnetic field, wherein the transmit coil has a spirangle arrangement segmented into n coil segments (L1, L2.. Ln) and capacitors (C1, C2...Cn) interconnecting adjacent coil segments, wherein n is an integer greater than two, characterized in that the length of each coil segment in the transmit coil is sized to distribute voltage in the capacitors evenly.
A connection system for temporarily electrically connecting a catenary to a circulation rail of a railway, the connection system comprising: - a support leg extending vertically along an axis Z, - a linking arm comprising an electrical connection end configured to be mechanically connected to the catenary and a fastening end connected to the support leg by a steering mechanism, the linking arm being configured to transition at least between a resting position and a connection position for connecting to the catenary, and - an electrical cable connected, on the one hand, to the connection end of the linking arm and configured to be connected, on the other hand, to the circulation rail of a railway, the connection system being characterised in that the steering mechanism is configured to adjust the angular position of the linking arm about the axis Z so as to position the connection end above the catenary and to adjust the vertical position of the linking arm in order to disconnect/connect the connection end from/to the catenary. - a support leg extending vertically along an axis Z, - a linking arm comprising an electrical connection end configured to be mechanically connected to the catenary and a fastening end connected to the support leg by a steering mechanism, the linking arm being configured to transition at least between a resting position and a connection position for connecting to the catenary, and - an electrical cable connected, on the one hand, to the connection end of the linking arm and configured to be connected, on the other hand, to the circulation rail of a railway,
A safety release system of barrier bars for controlling the entrance to restricted access areas, comprising: a first flange comprising a through-hole and a bending spring arranged about said hole so as to narrow the useful diameter thereof with a predetermined resistive force; a second flange connected by means of a hinge to said first flange and comprising a pin provided with a groove which allows said pin to engage said bending spring reversibly, said first flange and said second flange being connectable to an actuation shaft of the bar or to the end of the bar or both, characterized in that said pin is configured to be disengaged from said bending spring if said bar undergoes an impact such as to exceed said predetermined resistive force. a first flange comprising a through-hole and a bending spring arranged about said hole so as to narrow the useful diameter thereof with a predetermined resistive force; a second flange connected by means of a hinge to said first flange and comprising a pin provided with a groove which allows said pin to engage said bending spring reversibly, said first flange and said second flange being connectable to an actuation shaft of the bar or to the end of the bar or both, characterized in that said pin is configured to be disengaged from said bending spring if said bar undergoes an impact such as to exceed said predetermined resistive force.
Vehicle comprising a first front seat, a second front seat, a loading-space cabin and a space left free by the folding of the second front seat, and a device for protecting a user of the vehicle seated on the first front seat arranged in the cabin defining the internal space, the protective device comprising partitioning means (31; 32; 33) able to separate the internal space of the cabin into a first user space and a second loading space, the loading space being obtained from a space left free by the folding of the second front seat, adjacent to the first seat and the partitioning means (31; 32; 33) partitioning the free loading space thus obtained, characterised in that the partitioning means (31; 32; 33) are arranged independently of the folded sear, in the internal space of the cabin, while being able to be deployed in a direction parallel to the longitudinal axis of the vehicle, along the loading surface, corresponding to the surface of the space left free after folding of the seat, forming a floor, towards the dashboard until it completely closes the loading space so as to prevent any passage between the loading space and the space reserved for the user for objects stored on the floor.
A dishwasher comprising a flow controller for controlling water flow from a pump pumping water from a sump of said dish washer to a water conduit system of the dishwasher, the flow controller comprising: - a plate with openings forming water outlets to the water conduit system, and - a disc rotatably arranged in relation to the plate, the disc comprising openings arranged for allowing closing and opening of the water outlets in the plate during rotation of the disc; characterized in that the flow controller comprises a cavity formed between the disc and the plate configured to allow water to flow back from the water conduit system via a water outlet in the plate being closed by the disc and via the cavity to a-drain outlet in the plate whereby water can return from a closed water outlet in the plate via the drain outlet in the disc to the sump. - a plate with openings forming water outlets to the water conduit system, and - a disc rotatably arranged in relation to the plate, the disc comprising openings arranged for allowing closing and opening of the water outlets in the plate during rotation of the disc;
A process for the preparation of Treprostinil and its pharmaceutically acceptable salts, comprising; (a) reacting compound with compound to provide compound (b) oxidizing compound and asymmetrically reducing resulting compound to provide compound, (c) treating compound with a hydroxyl protecting reagent to give compound, which is then cyclized in presence of dicobalt octacarbonyl (Co 2 8) to give compound, and hydrogenating to provide compound, (d) treating compound with a reducing agent to give compound, deprotecting the side-chain hydroxyl group in compound to give compound, and treating compound with a deprotecting agent to provide compound (e) treating compound with halogenated acetonitrile to provide compound, which on alkaline hydrolysis followed by acidification gave Treprostinil and its pharmaceutically acceptable salts, wherein R is alkyl, alkoxyalkyl, substituted or unsubstituted arylalkyl. (a) reacting compound with compound to provide compound (b) oxidizing compound and asymmetrically reducing resulting compound to provide compound, (c) treating compound with a hydroxyl protecting reagent to give compound, which is then cyclized in presence of dicobalt octacarbonyl (Co 2 8) to give compound, and hydrogenating to provide compound, (d) treating compound with a reducing agent to give compound, deprotecting the side-chain hydroxyl group in compound to give compound, and treating compound with a deprotecting agent to provide compound (e) treating compound with halogenated acetonitrile to provide compound, which on alkaline hydrolysis followed by acidification gave Treprostinil and its pharmaceutically acceptable salts, wherein R is alkyl, alkoxyalkyl, substituted or unsubstituted arylalkyl.
A supporting body including a frame with supporting members for supporting wafers having a diameter of 300 mm or greater, wherein at least one of the supporting members includes a front supporting piece that is projected from the frame and approximately horizontally retains a wafer on, at least, the side part in the front peripheral edge; and a rear supporting piece that is projected from the frame and approximately horizontally retains the wafer on, at least, the side part in the rear peripheral edge, and the front supporting piece is formed of a projected part that extends from the front of the frame toward the front peripheral edge of the wafer and a curved part that extends rearwards from the projected part along the peripheral edge of the wafer, characterized in that the frame, the front supporting piece and the rear supporting piece are integrally molded with a hollow formed between the frame and the front supporting piece.
A power-meter apparatus comprising: a digital signal processor, DSP, configured to determine a respective consumed energy within each of a plurality of predetermined contiguous time intervals; a dequantizer configured to, for each time interval: determine a sum of a remainder and the consumed energy, characterized in that the dequantizer is further configured to, for each time interval: calculate an integer pulse-count by dividing the sum of the remainder and the consumed energy by a predetermined pulse-quantum, calculate a new remainder by subtracting the product of the integer pulse-count and the pulse-quantum from the sum, and replace the remainder by the new remainder; and a pulse generator configured to, for each time interval, generate the integer pulse-count number of pulses of an indicator signal. a digital signal processor, DSP, configured to determine a respective consumed energy within each of a plurality of predetermined contiguous time intervals; a dequantizer configured to, for each time interval: determine a sum of a remainder and the consumed energy, characterized in that the dequantizer is further configured to, for each time interval: calculate an integer pulse-count by dividing the sum of the remainder and the consumed energy by a predetermined pulse-quantum, calculate a new remainder by subtracting the product of the integer pulse-count and the pulse-quantum from the sum, and replace the remainder by the new remainder; and a pulse generator configured to, for each time interval, generate the integer pulse-count number of pulses of an indicator signal. determine a sum of a remainder and the consumed energy, characterized in that the dequantizer is further configured to, for each time interval: calculate an integer pulse-count by dividing the sum of the remainder and the consumed energy by a predetermined pulse-quantum, calculate a new remainder by subtracting the product of the integer pulse-count and the pulse-quantum from the sum, and replace the remainder by the new remainder; and a pulse generator configured to, for each time interval, generate the integer pulse-count number of pulses of an indicator signal.
A composition, which is a water-repellent composition comprising: a polymer comprising 2-100 wt.-%, based on the polymer, of repeating units derived from an amide group-containing monomer (a) of the formula: wherein R 1 is an organic residue having an ethylenically unsaturated polymerizable group, R 2 is a C 7-30 -hydrocarbon group, and R 3 is a C 1-5 -hydrocarbon group; and a liquid medium. a polymer comprising 2-100 wt.-%, based on the polymer, of repeating units derived from an amide group-containing monomer (a) of the formula: wherein R 1 is an organic residue having an ethylenically unsaturated polymerizable group, R 2 is a C 7-30 -hydrocarbon group, and R 3 is a C 1-5 -hydrocarbon group; and a liquid medium.
A mobile communications terminal, wherein the mobile communications terminal comprises a USB OTG controller, an MHL adapter chip, a changeover switch chip and a multiplexing interface, wherein the USB OTG controller and the MHL adapter chip are separately connected to the changeover switch chip; the changeover switch chip is connected to the multiplexing interface; the MHL adapter chip detects a first voltage from the multiplexing interface and compares the first voltage with a preset voltage value; if the first voltage is greater than zero and less than or equal to the preset voltage value, the MHL adapter chip controls the changeover switch chip, so that the MHL adapter chip is connected to the multiplexing interface by using the changeover switch chip; and if the first voltage is equal to zero or greater than the preset voltage value, the MHL adapter chip controls the changeover switch chip, so that the USB OTG controller is connected to the multiplexing interface by using the changeover switch chip; wherein the USB OTG controller is configured to transmit a USB OTG signal, and the USB OTG controller comprises a pin USB_OTG_DP and a pin USB_OTG_DN; the MHL adapter chip converts parallel RGB signals to serial MHL video signals, and the MHL adapter chip comprises a pin MHL_DB, a pin MHL_D, a pin CBUS_ID, and a pin C12CA; the changeover switch chip comprises a pin USB+, a pin USB-, a pin MDV+, a pin MDV-, a pin D+, a pin D- and a pin SEL1; and the multiplexing interface comprises a pin VBUS, a pin D+, a pin D-, a pin ID and pins GND, wherein the pin USB+ is connected to the pin USB_OTG_DP, the pin USB- is connected to the pin USB_OTG_DN, the pin MDV+ is connected to the pin MHL_DB, the pin MDV- is connected to the pin MHL_D, the pin SEL1 is connected to the pin C12CA, the MHL adapter chip controls the changeover switch chip by using the pin SEL1 and the pin C12CA, the pin D+ of the changeover switch chip is connected to the pin D+ of the multiplexing interface, the pin D- of the changeover switch chip is connected to the pin D- of the multiplexing interface, the pin ID is connected to the pin CBUS_ID, and the MHL adapter chip detects the first voltage from the pin ID by using the pin CBUS_ID.
Method for charging an electrochemical nickel-based battery having a predetermined nominal capacity, comprising at least one measurement of the battery voltage and one measurement of the temperature representative of the battery, the charging of the battery is stopped when the voltage measured at the terminals of the battery reaches a voltage threshold, depending on the measured temperature, method characterized in that the battery is recharged by an intermittent and variable-current source of energy in that the voltage threshold, is representative of a capacity charged in the battery corresponding to a charging efficiency equal to or higher than 90%, the charing efficiency being defined by the ratio between the capacity charged in the battery and the capacity provided by the battery during discharge of the battery.
A method for uplink transmission in an unlicensed band, applied to a terminal, comprising: sensing a scheduled resource to obtain a corresponding sensing result; and transmitting a transport block on the scheduled resource based on the sensing result; wherein before the step of sensing a scheduled resource to obtain a corresponding sensing result, the method comprises: receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result. sensing a scheduled resource to obtain a corresponding sensing result; and transmitting a transport block on the scheduled resource based on the sensing result; wherein before the step of sensing a scheduled resource to obtain a corresponding sensing result, the method comprises: receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result. receiving first downlink control information, DCI, used to indicate the scheduled resource; characterized in that the step of transmitting a transport block on the scheduled resource based on the sensing result, comprises: separately transmitting a first transport block and a second transport block on the scheduled resource based on the sensing result, the first DCI, and an update time, wherein the update time is associated with the sensing result.
Spoiler (1; 101; 201; 301; 401) of a vehicle to enhance the thermal management of a telematics system, comprising a body (102; 202; 302; 402) and an electronic component (103; 203; 303; 403), the electronic component (103; 203; 303; 403) being part of the telematics system, wherein the body (102; 202; 302; 402) comprises a cavity (104; 204; 304; 404), wherein the electronic component (103; 203; 303; 404) is arranged in this cavity (104; 204; 304; 404) characterized in that the spoiler (1; 101; 201; 301; 401) comprises an outer recess (105; 205; 305; 405) and that the spoiler (1; 101; 201; 301; 401) comprises an outer heat sink (106; 206; 306; 406), wherein the outer heat sink (106; 206; 306; 406) is arranged in the outer recess (105; 205; 305; 405) of the body (102; 202; 302; 402) and wherein the outer recess (105;205; 305; 405) passes over into the cavity (104; 204; 304; 404).
A monoclonal antibody which specifically recognizes a native three-dimensional structure of an extracellular region of system ASC amino acid transporter 2 (hereinafter, referred to as "ASCT2"), binds to the said extracellular region, and inhibits intracellular uptake of an amino acid through ASCT2, or an antibody fragment thereof, wherein CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 26, 27 and 28, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 29, 30 and 31, respectively; CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 32, 33 and 34, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 35, 36 and 37, respectively; or CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 49, 50 and 51, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 52, 53 and 54, respectively. CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 26, 27 and 28, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 29, 30 and 31, respectively; CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 32, 33 and 34, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 35, 36 and 37, respectively; or CDR1, CDR2 and CDR3 of VH of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 49, 50 and 51, respectively, and/or CDR1, CDR2 and CDR3 of VL of the antibody comprise the amino acid sequences represented by SEQ ID NOs: 52, 53 and 54, respectively.