mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a terminal for receiving from a base station and transmitting to the base station in a wireless communication system, the method comprising: receiving, from the base station, configuration information for configuring an operation of the terminal according to a first communication system; acquiring transmit power information about a downlink signal of the first communication system based on the configuration information; and receiving the downlink signal from the base station based on the transmit power information, wherein the downlink signal is transmitted through a downlink carrier of the first communication system, wherein the downlink carrier is allocated in a guard-band of a second communication system, the first communication system using a Frequency Division Duplex, FDD, scheme, wherein the guard-band comprises a lower guard-band and an upper guard-band, wherein each of the lower guard-band and the upper guard-band comprises a first band, a second band and a third band, the second band being a band for allocating carriers of the first communication system including the downlink carrier, the first band being a guard-band configured between the second band and a band out of a band allocated to the second communication system and the third band being a guard band configured between the second band and an in-band of the second communication system, and wherein the carriers of the first communication system are sequentially allocated within the second band, starting at a frequency farthest from the in-band. receiving, from the base station, configuration information for configuring an operation of the terminal according to a first communication system; acquiring transmit power information about a downlink signal of the first communication system based on the configuration information; and receiving the downlink signal from the base station based on the transmit power information, wherein the downlink signal is transmitted through a downlink carrier of the first communication system, wherein the downlink carrier is allocated in a guard-band of a second communication system, the first communication system using a Frequency Division Duplex, FDD, scheme, wherein the guard-band comprises a lower guard-band and an upper guard-band, wherein each of the lower guard-band and the upper guard-band comprises a first band, a second band and a third band, the second band being a band for allocating carriers of the first communication system including the downlink carrier, the first band being a guard-band configured between the second band and a band out of a band allocated to the second communication system and the third band being a guard band configured between the second band and an in-band of the second communication system, and wherein the carriers of the first communication system are sequentially allocated within the second band, starting at a frequency farthest from the in-band.
Filter unit for a household appliance, in particular for a washing machine, the filter unit comprising: a filter receiving body , a filter opening in the filter receiving body , a cap for closing the filter opening , a drain passage passing through the cap , a closing means for closing the drain passage , characterized by a swivel-mounted lever element (6; 6a, 6b) in operative connection with the closing means for opening and closing the closing means . a filter receiving body , a filter opening in the filter receiving body , a cap for closing the filter opening , a drain passage passing through the cap , a closing means for closing the drain passage , characterized by a swivel-mounted lever element (6; 6a, 6b) in operative connection with the closing means for opening and closing the closing means .
A stretched film which is stretched in the machine direction (MD) at a stretch ratio of 2-6 and comprises a fluoropolymer having a melting point of ≥ 180°C and has - a thickness of 1-100 μm, - a relative permittivity of ≥ 8 at a frequency of 1 kHz at 30°C, and - a rate of change of -8 to +8%, calculated from a relative permittivity A at a frequency of 1 kHz at 30°C and a relative permittivity B at a frequency of 1 kHz at 150°C according to the formula: Rate of change % = B − A / A × 100 . - a thickness of 1-100 μm, - a relative permittivity of ≥ 8 at a frequency of 1 kHz at 30°C, and - a rate of change of -8 to +8%, calculated from a relative permittivity A at a frequency of 1 kHz at 30°C and a relative permittivity B at a frequency of 1 kHz at 150°C according to the formula: Rate of change % = B − A / A × 100 .
A method for transmitting data in a wireless network comprising: mapping data according to a sequence pattern from a group of sequence patterns to provide a spreading sequence (S ) that includes multiple non-zero elements and that is configured to partially collide in the wireless network with other spreading sequences (S to S ) that have been mapped according to other sequence patterns from the group , wherein a first spreading sequence and a second spreading sequence partially collide, if some, but not all, of the non-zero elements in the first spreading sequence transmitted from a first user collide with non-zero elements in the second spreading sequence transmitted from a second user, and wherein the non-zero elements of the spreading sequences represent the used wireless resources; and transmitting the mapped data in the wireless network; characterized in that each of the other spreading sequences (S to S ) has less non-zero elements than the spreading sequence (S ); and in that the spreading sequence (S ) and the other spreading sequences (S to S ) are designed so that the spreading sequence (S ) and the other spreading sequences (S to S ) have a smallest maximum resource element collision in the frequency domain by using sequence values that correspond to partially offset pulses in the time domain. mapping data according to a sequence pattern from a group of sequence patterns to provide a spreading sequence (S ) that includes multiple non-zero elements and that is configured to partially collide in the wireless network with other spreading sequences (S to S ) that have been mapped according to other sequence patterns from the group , wherein a first spreading sequence and a second spreading sequence partially collide, if some, but not all, of the non-zero elements in the first spreading sequence transmitted from a first user collide with non-zero elements in the second spreading sequence transmitted from a second user, and wherein the non-zero elements of the spreading sequences represent the used wireless resources; and transmitting the mapped data in the wireless network; characterized in that each of the other spreading sequences (S to S ) has less non-zero elements than the spreading sequence (S ); and in that the spreading sequence (S ) and the other spreading sequences (S to S ) are designed so that the spreading sequence (S ) and the other spreading sequences (S to S ) have a smallest maximum resource element collision in the frequency domain by using sequence values that correspond to partially offset pulses in the time domain.
Compositions containing, as active ingredient, a mixture of amino acids consisting of glycine, L-proline, L-alanine, L-valine, L-leucine and L-lysine hydrochloride in the following weight ratios: - Glycine 1; - L-proline: 0.7-0.8; - L-alanine: 0.47-0.76; - L-valine: 0.35-0.56; - L-leucine: 0.13-0.27; - L-lysine hydrochloride: 0.10-0.12. - Glycine 1; - L-proline: 0.7-0.8; - L-alanine: 0.47-0.76; - L-valine: 0.35-0.56; - L-leucine: 0.13-0.27; - L-lysine hydrochloride: 0.10-0.12.
An antenna device comprising an odd number of three or more radiating elements in total that are arrayed in a first direction and a feeder circuit configured to feed a high frequency signal to the radiating elements , wherein an excitation voltage of a first radiating element positioned at the center of the array is set to be 2.20-2.29 times an average value of excitation voltages of other radiating elements excluding the first radiating element , and the radiating elements are arranged at regular intervals of about 0.5-0.8 wavelength and excited with equal phase. an excitation voltage of a first radiating element positioned at the center of the array is set to be 2.20-2.29 times an average value of excitation voltages of other radiating elements excluding the first radiating element , and the radiating elements are arranged at regular intervals of about 0.5-0.8 wavelength and excited with equal phase.
A radio frequency electronic circuit, including: (a) a phase shifter circuit configured for modifying the phase of an applied radio frequency signal in response to applied phase state digital control words selecting a phase state from a discrete set of phase states; and (b) a fine adjustment circuit series coupled to the phase shifter circuit and configured to substantially equalize insertion loss variations between phase states selected by the applied phase state digital control words, characterized in that the fine adjustment circuit includes a plurality of selectable adjustment attenuator circuits configured for providing selectable attenuation adjustment of the phase-modified applied radio frequency signal as a function of the applied phase state digital control words. (a) a phase shifter circuit configured for modifying the phase of an applied radio frequency signal in response to applied phase state digital control words selecting a phase state from a discrete set of phase states; and (b) a fine adjustment circuit series coupled to the phase shifter circuit and configured to substantially equalize insertion loss variations between phase states selected by the applied phase state digital control words,
A method for compensating for gravity during movement of a crawler vehicle on a surface of a body , the method comprising: (a) attaching one end of a first cable to a first crawler vehicle ; (b) attaching another end of the first cable to a first spool of a second crawler vehicle ; (c) placing the first crawler vehicle at a first position in contact with a first surface area on the surface of the body , wherein the first surface area is non-level; (d) placing the second crawler vehicle at a second position in contact with a second surface area on the surface of the body ; (e) adhering the first crawler vehicle to the surface of the body using suction; (f) while the first crawler vehicle is adhered to the surface, moving the first crawler vehicle along a first path that extends from the first position to a third position in contact with a third surface area on the surface of the body ; and (g) tensioning the first cable to exert a tensile force on the first crawler vehicle having a vector component in opposition to a force of gravity tending to urge the first crawler vehicle to a lower elevation during step (f). (a) attaching one end of a first cable to a first crawler vehicle ; (b) attaching another end of the first cable to a first spool of a second crawler vehicle ; (c) placing the first crawler vehicle at a first position in contact with a first surface area on the surface of the body , wherein the first surface area is non-level; (d) placing the second crawler vehicle at a second position in contact with a second surface area on the surface of the body ; (e) adhering the first crawler vehicle to the surface of the body using suction; (f) while the first crawler vehicle is adhered to the surface, moving the first crawler vehicle along a first path that extends from the first position to a third position in contact with a third surface area on the surface of the body ; and (g) tensioning the first cable to exert a tensile force on the first crawler vehicle having a vector component in opposition to a force of gravity tending to urge the first crawler vehicle to a lower elevation during step (f).
An inflation system , comprising: a gas source ; a valve including: a valve body ; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston , wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet ; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve. a gas source ; a valve including: a valve body ; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston , wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet ; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve. a valve body ; an inlet in the valve body in fluid communication with the gas source; an outlet in the valve body; a rupture disc in fluid communication with and between the inlet and the outlet, wherein the rupture disc prevents fluid communication between the inlet and the outlet; and a piston , wherein the piston is urged by a gas from the gas source to rupture the rupture disc to allow initial and subsequent fluid communication between the gas source and the outlet; characterized by a solenoid valve to selectively allow flow between the gas source and the outlet in the valve body wherein the solenoid valve includes an inlet and an outlet ; wherein the gas is drawn from the valve inlet and is routed to the inlet of the solenoid valve.
Assembly of a motor for a tube of a screen , for example a roller blind tube, and a set of plugs for engaging an inner surface of the tube, wherein the set of plugs comprises a drive plug for driving the tube, which drive plug is arranged to be connected to a drive shaft of the motor, wherein the set of plugs comprises a crown plug (30; 40), which crown plug is arranged to be connected to an outer end of the motor for forming a first bearing at a first outer end of the tube, wherein the set of plugs comprises an end plug arranged to be inserted into the tube at a second outer end of the tube for forming a second bearing, characterized in that each plug is provided with adapter means for adapting the outer diameter of the plug to the inner diameter of the tube, wherein the adapter means comprise one or more engaging elements (13, 23, 33; 43) for engaging the inner surface of the tube that are movable between a minimal position in which the dimensions of the outer diameter of the plug are at a minimum and an extreme position in which the dimensions of the outer diameter of the plug are at a maximum.
A surgical robotic system comprising: a robotic arm ; a surgical instrument configured to couple to the robotic arm ; and a controller configured to: access usage data pertaining to the surgical instrument , wherein the usage data includes maximum life data and previous use data, characterized in that : the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. a robotic arm ; a surgical instrument configured to couple to the robotic arm ; and a controller configured to: access usage data pertaining to the surgical instrument , wherein the usage data includes maximum life data and previous use data, characterized in that : the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time.
A process for the manufacture of a plurality of capsules each comprising a crosslinked hydrogel outer shell surrounding a central core, wherein a hydrogel solution and an composition of interest, designed to form the central core, are concentrically coextruded to form mixed drops each comprising a layer of hydrogel solution surrounding a drop of composition of interest, the coextrusion step being carried out above a crosslinking aerosol so that the mixed drops pass through said crosslinking aerosol, so that the layer of hydrogel solution at least partially crosslinks around the drop of composition of interest in contact with said aerosol, said capsules being spherical and having a diameter comprised between 50 and 500 μm, characterized in that the composition of interest is an aqueous composition of interest and the osmotic concentration of the crosslinking aerosol is comprised between 0.3 to 3 times the osmotic concentration of the composition of interest forming the central core of the capsules.
A laser system, comprising: a semiconductor laser having a laser driver coupled thereto; wherein an output of said semiconductor laser is optically coupled to an input of an optical splitter that provides outputs including or coupled to a first branch having a first branch fiber coupled to a feedback reflector which provides a cavity boundary that defines a passive secondary cavity for said semiconductor laser , and a second branch including a back reflection reduction device , wherein a roundtrip attenuation from an output facet of said semiconductor laser to said feedback reflector is from -30 dB to -80 dB; wherein an output of said laser system is taken after said back reflection reduction device , characterized in that said laser driver is configured to provide sufficient drive stability so that, during operation, a frequency variation of said semiconductor laser is less than a free spectral range, FSR, of said secondary cavity, and wherein the first branch is arranged such that the optical path length thereof is allowed to vary during operation. a semiconductor laser having a laser driver coupled thereto; wherein an output of said semiconductor laser is optically coupled to an input of an optical splitter that provides outputs including or coupled to a first branch having a first branch fiber coupled to a feedback reflector which provides a cavity boundary that defines a passive secondary cavity for said semiconductor laser , and a second branch including a back reflection reduction device , wherein a roundtrip attenuation from an output facet of said semiconductor laser to said feedback reflector is from -30 dB to -80 dB; wherein an output of said laser system is taken after said back reflection reduction device , characterized in that said laser driver is configured to provide sufficient drive stability so that, during operation, a frequency variation of said semiconductor laser is less than a free spectral range, FSR, of said secondary cavity, and wherein the first branch is arranged such that the optical path length thereof is allowed to vary during operation.
A method for selectively recovering at least one rare earth present in waste selected from used nickel-metal hydride cells and used nickel-metal hydride electrochemical batteries, which comprises the steps of: a) dissolving the waste in a divided form into an acidic aqueous solution to release the rare earth in the aqueous solution; b) precipitating the rare earth as a double sulphate of rare earth and a metal other than a rare earth; and c) collecting the precipitate; characterised in that steps a) and b) are simultaneously performed by immersing the waste in a divided form into an aqueous solution S1 comprising sulphuric acid and a sulphate of the metal other than the rare earth and maintaining this waste in this solution for a time t, the aqueous solution S1 having an increasing pH as a function of time t between an initial pH value, pHi, lower than 1 and a final pH value, pHf, at most equal to 2. a) dissolving the waste in a divided form into an acidic aqueous solution to release the rare earth in the aqueous solution; b) precipitating the rare earth as a double sulphate of rare earth and a metal other than a rare earth; and c) collecting the precipitate;
An electronic key for a vehicle comprises at least one button for controlling at least one vehicle function, wherein each of the at least one button can take on a pressed state and a released state; a signal unit that is configured to send command signals to the vehicle upon request of a user; and a microcontroller , wherein the electronic key can be operated in a normal state and in an error state, and wherein when the electronic key is in the normal state, the electronic key is configured to change into a low power mode when no command signals are sent to the vehicle and each of the at least one button is released, and to change into an active mode when at least one of the buttons is pressed, and when it is detected that a button is unintentionally stuck in a pressed state and does not return to the released state, the electronic key is configured to change into the error state, wherein, when the electronic key is in the error state, the electronic key is configured to mark the at least one button as being stuck, to change into the low power mode when no command signals are sent to the vehicle notwithstanding that at least one button is being pressed, and to change from the low power mode into the active mode when the stuck button is released.