mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed at an optical transmitter , the method comprising: generating , from a plurality of encoded client bits , a set of symbols exhibiting non-uniform visitation probabilities in at least one dimension; encoding the set of symbols across a plurality of frequency division multiplexing 'FDM' subcarriers, wherein different subsets of the set of symbols are encoded on different FDM subcarriers; and transmitting an optical signal comprising the plurality of FDM subcarriers across which the set of symbols is encoded. generating , from a plurality of encoded client bits , a set of symbols exhibiting non-uniform visitation probabilities in at least one dimension; encoding the set of symbols across a plurality of frequency division multiplexing 'FDM' subcarriers, wherein different subsets of the set of symbols are encoded on different FDM subcarriers; and transmitting an optical signal comprising the plurality of FDM subcarriers across which the set of symbols is encoded.
A method performed by a terminal (g-01, h-01) in a wireless communication system, the method comprising: receiving (g-05, h-05), from a base station (g-02, h-02), system information including a public land mobile network, PLMN, list, the PLMN list including at least one PLMN for each type of a core network, wherein a type of the core network is an evolved packet core, EPC, or a fifth generation, 5G, core, 5GC; selecting, by a non-access stratum, NAS, layer of the terminal (g-01, h-01), a core network type to be accessed by the terminal (g-01, h-01), based on the system information; transmitting (g-10, h-10), to the base station (g-02, h-02), a radio resource control, RRC, connection request message for the selected core network type; receiving (g-15, h-15), from the base station (g-02, h-02), an RRC connection setup message, as a response to the RRC connection request message;; transmitting (g-20, h-20), to the base station (g-02, h-02), an RRC connection setup complete message based on the RRC connection setup message, wherein the RRC connection setup complete message includes information on a network slice for the terminal (g-01, h-01), in case that the selected core network type is the 5GC; and receiving (i-30) from the base station, an RRC message after transmitting the RRC connection setup complete message, the RRC message including information for re-directing the terminal to another core network type. receiving (g-05, h-05), from a base station (g-02, h-02), system information including a public land mobile network, PLMN, list, the PLMN list including at least one PLMN for each type of a core network, wherein a type of the core network is an evolved packet core, EPC, or a fifth generation, 5G, core, 5GC; selecting, by a non-access stratum, NAS, layer of the terminal (g-01, h-01), a core network type to be accessed by the terminal (g-01, h-01), based on the system information; transmitting (g-10, h-10), to the base station (g-02, h-02), a radio resource control, RRC, connection request message for the selected core network type; receiving (g-15, h-15), from the base station (g-02, h-02), an RRC connection setup message, as a response to the RRC connection request message;; transmitting (g-20, h-20), to the base station (g-02, h-02), an RRC connection setup complete message based on the RRC connection setup message, wherein the RRC connection setup complete message includes information on a network slice for the terminal (g-01, h-01), in case that the selected core network type is the 5GC; and receiving (i-30) from the base station, an RRC message after transmitting the RRC connection setup complete message, the RRC message including information for re-directing the terminal to another core network type.
Scraper ring suitable for scraping oil from a translationally oscillating piston rod , wherein the scraper ring comprises at least one outer circumferential groove provided on the radially outer circumferential surface, wherein the outer circumferential groove is suitable for receiving an annular spring for radially prestressing the scraper ring , wherein a plurality of sealing sections is provided on the radially inner circumferential surface of the scraper ring , each having a scraping edge , wherein adjacent sealing sections are each spaced axially apart from one another by an inner circumferential groove , wherein at least one recess radially penetrating the scraper ring is provided on the circumference of the scraper ring , which extends at least partially from a first axial ring end (E1) of the scraper ring to a second axial ring end (E2) of the scraper ring in order to produce an adjustability of the scraper ring in the circumferential direction, at least in the region of multiple sealing sections on the first axial end (E1) of the scraper ring , wherein the recess extends at least in sections in a direction deviating from the axial direction of the scraper ring , wherein at least one drainage opening is provided on the outer circumferential surface of the scraper ring which is connected to at least one inner circumferential groove for removing scraped oil from the inner circumferential grooves , characterized in that at least one drainage hole extends in the shape of a groove from the first axial ring end (E1) of said scraper ring partially in the direction of the second axial ring end (E2) and is connected to multiple inner circumferential grooves .
Genistein for use in a method of treatment of Alzheimer's disease as a stimulator of autophagy process, characterized in that , the genistein is used at a dose 150 mg/kg/day.
A luminaire comprising: a first plurality of optical modules , each optical module comprising: a plurality of light emitting sub-modules , each comprising one light emitting diode, LED, ; and a beam angle control system configured to change the beam angle of each of the plurality of light emitting sub-modules of one optical module together; characterized in that each optical module includes at least one effects system configured to move an optical effect into and out of a light beam of an associated light emitting sub-module. a plurality of light emitting sub-modules , each comprising one light emitting diode, LED, ; and a beam angle control system configured to change the beam angle of each of the plurality of light emitting sub-modules of one optical module together; characterized in that each optical module includes at least one effects system configured to move an optical effect into and out of a light beam of an associated light emitting sub-module.
A computer-implemented method for correlating at least one infrared 2D-image to a 3D-representation of at least a part of a tooth displayed in a graphical user-interface, of a hand-held scanning device, on a screen thereby providing information related to color, geometry, and caries inside the tooth , comprising the steps of: • obtaining a first set of 2D-images of the at least part of the tooth based on illuminating the tooth with light in the visible domain; • forming a 3D-representation of the at least a part of the tooth from the first set of 2D-images; • displaying, in the graphical user-interface, the 3D-representation ; • obtaining a second set of 2D-images , wherein the second set of 2D images are infrared 2D-images acquired within the at least part of the tooth ; • displaying, in the user-interface, at least one of the 2D-images from the second set of 2D-images ; • displaying, in the user-interface, a manipulator configured to change between 2D-images in the second set of 2D-images ; • based on input as associated to the manipulator , changing between the 2D-images in the second set of 2D-images until a desired 2D-image is displayed; and • correlating the desired 2D-image to the 3D-representation thereby showing the location of where the desired 2D-image relates to the 3D-representation . • obtaining a first set of 2D-images of the at least part of the tooth based on illuminating the tooth with light in the visible domain; • forming a 3D-representation of the at least a part of the tooth from the first set of 2D-images; • displaying, in the graphical user-interface, the 3D-representation ; • obtaining a second set of 2D-images , wherein the second set of 2D images are infrared 2D-images acquired within the at least part of the tooth ; • displaying, in the user-interface, at least one of the 2D-images from the second set of 2D-images ; • displaying, in the user-interface, a manipulator configured to change between 2D-images in the second set of 2D-images ; • based on input as associated to the manipulator , changing between the 2D-images in the second set of 2D-images until a desired 2D-image is displayed; and • correlating the desired 2D-image to the 3D-representation thereby showing the location of where the desired 2D-image relates to the 3D-representation .
A pharmaceutical composition comprising a human interleukin (IL)-3-diphtheria toxin conjugate for use in a method for treating a plasmacytoid dendritic cell cancer in a human, wherein said method comprises administering said human IL-3-diphtheria toxin conjugate to said human.
A liquid concentrate comprising dissolved prohexadione in a ionic liquid, the ionic liquid comprising an organic base and a strong acid, wherein the organic base is an amine, imine or amide, wherein the strong acid has a pKa of below 4 and is able to form a ionic liquid with the organic base.
A hydraulic coupling device comprising a female coupling unit comprising a female coupling body , a holding block , a guiding ring , and an expanding ring for fixedly arranging the female coupling unit to the holding block 50 in an opening of the holding block , wherein the guiding ring comprises an outer surface comprising a thread surface portion (60a1) configured to engage with a thread surface portion (52c1) of a cylindrical portion of the opening of the holding block fixedly arranging the guiding ring to the holding block , wherein a seat is provided in the opening for supporting the expanding ring , wherein an outer surface of the front end of the female coupling body comprises a circumferential groove comprising a groove seat , configured to receive the expanding ring , wherein the female coupling unit is adapted to be fixedly arranged to the holding block by being suspended between the guiding ring and the seat , wherein the expanding ring is arranged as a support between the female coupling unit and the seat , wherein the female coupling body is adapted to be inserted from a female coupling body insertion side of the holding block , characterized in that a rear end of the guiding ring is adapted to be inserted into the opening and face the female coupling body insertion side .
An optical unit comprising: a first lens with a positive power, a second lens with a positive power, a third lens with a positive power, and a fourth lens with a negative power that are arranged in that order from an object side toward an image surface side ; wherein the first lens is formed of a plastic material, the second lens is formed of a plastic material, the third lens is formed of a glass lens, and the fourth lens is formed of a plastic material. a first lens with a positive power, a second lens with a positive power, a third lens with a positive power, and a fourth lens with a negative power that are arranged in that order from an object side toward an image surface side ; wherein the first lens is formed of a plastic material, the second lens is formed of a plastic material, the third lens is formed of a glass lens, and the fourth lens is formed of a plastic material.
A battery module , which allows a swelling amount of battery cells accommodated in a module housing to be intuitionally checked, the battery module comprising: a cell pressing plate accommodated in the module housing and disposed on at least one of both longitudinal side surfaces of a cell stack that is formed by stacking the battery cells ; characterized by a swelling gauge provided to protrude from a surface of the cell pressing plate , and a gauge hole (H1) formed in the module housing , wherein a front end of the swelling gauge is pushed out of the module housing through the gauge hole (H1) by the swelling pressure of the battery cells , wherein the swelling gauge is provided with a scale arranged on a surface thereof and extending in the pushing direction of the swelling gauge . a cell pressing plate accommodated in the module housing and disposed on at least one of both longitudinal side surfaces of a cell stack that is formed by stacking the battery cells ; characterized by a swelling gauge provided to protrude from a surface of the cell pressing plate , and a gauge hole (H1) formed in the module housing , wherein a front end of the swelling gauge is pushed out of the module housing through the gauge hole (H1) by the swelling pressure of the battery cells , wherein the swelling gauge is provided with a scale arranged on a surface thereof and extending in the pushing direction of the swelling gauge .
A process for manufacturing a purified aromatic carboxylic acid comprising: contacting crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; separating a vapor effluent from the purified aromatic carboxylic acid; scrubbing the vapor effluent to form a scrubber effluent; treating the scrubber effluent to form a gaseous treated scrubber effluent and a liquid treated scrubber effluent; and removing at least a portion of organic impurities from the liquid treated scrubber effluent. contacting crude aromatic carboxylic acid with hydrogen in the presence of a catalyst in a hydrogenation reactor to form a purified aromatic carboxylic acid; separating a vapor effluent from the purified aromatic carboxylic acid; scrubbing the vapor effluent to form a scrubber effluent; treating the scrubber effluent to form a gaseous treated scrubber effluent and a liquid treated scrubber effluent; and removing at least a portion of organic impurities from the liquid treated scrubber effluent.
An apparatus , comprising: a first marker coupled to a garment at a first location, a second marker coupled to the garment at a second location, the garment being substantially planar and configured to be adhesively coupled to a dynamic body, wherein the first and second markers change in orientation relative to each other during a path of motion of the dynamic body; a first element coupled to the garment proximate the location of the first marker ; and a second element coupled to the garment proximate the location of the second marker , the first element and the second element each being coupled to a receiving device and configured to simultaneously send to the receiving device position data associated with a plurality of positions in three-dimensional space of the first element and position data associated with a plurality of positions in three-dimensional space of the second element during the path of motion of the dynamic body, wherein the receiving device determines a vector distance between the position of the first element and the position of the second element based on the position data for each instant of time for a plurality of instants of time during the motion of the dynamic body. a first marker coupled to a garment at a first location, a second marker coupled to the garment at a second location, the garment being substantially planar and configured to be adhesively coupled to a dynamic body, wherein the first and second markers change in orientation relative to each other during a path of motion of the dynamic body; a first element coupled to the garment proximate the location of the first marker ; and a second element coupled to the garment proximate the location of the second marker , the first element and the second element each being coupled to a receiving device and configured to simultaneously send to the receiving device position data associated with a plurality of positions in three-dimensional space of the first element and position data associated with a plurality of positions in three-dimensional space of the second element during the path of motion of the dynamic body, wherein the receiving device determines a vector distance between the position of the first element and the position of the second element based on the position data for each instant of time for a plurality of instants of time during the motion of the dynamic body.
A method of calibrating an inertial unit comprising an inertial core having three gyros mounted relative to one another so as to have sensing axes (X, Y, Z) that are substantially mutually perpendicular, the gyros being vibratory axisymmetric gyros connected to means for setting them into vibration and for adjusting an angular orientation of a vibration axis about the sensing axis, the method being characterized in that it comprises the steps of: • starting from a first position, causing the inertial core to pivot towards a second position about a pivot axis that is not in alignment with the sensing axes and that is not in alignment with a trisector of said sensing axes, the gyros having errors that appear at frequencies that are not identical; - between the first and second positions, taking measurements of the angular orientation of the vibration axis of each gyro , with the angular orientation being left free; - returning the inertial core to the first position; - adjusting the angular orientation of the vibration axis of each gyro to a value corresponding to the second position; - causing the inertial core to pivot towards the second position about the pivot axis ; - taking measurements of the angular orientation of the vibration axis of each gyro during pivoting of the inertial core, angular orientation being left free during pivoting; and - calibrating the inertial core as a function of the measurements taken. • starting from a first position, causing the inertial core to pivot towards a second position about a pivot axis that is not in alignment with the sensing axes and that is not in alignment with a trisector of said sensing axes, the gyros having errors that appear at frequencies that are not identical; - between the first and second positions, taking measurements of the angular orientation of the vibration axis of each gyro , with the angular orientation being left free; - returning the inertial core to the first position; - adjusting the angular orientation of the vibration axis of each gyro to a value corresponding to the second position; - causing the inertial core to pivot towards the second position about the pivot axis ; - taking measurements of the angular orientation of the vibration axis of each gyro during pivoting of the inertial core, angular orientation being left free during pivoting; and - calibrating the inertial core as a function of the measurements taken. - between the first and second positions, taking measurements of the angular orientation of the vibration axis of each gyro , with the angular orientation being left free; - returning the inertial core to the first position; - adjusting the angular orientation of the vibration axis of each gyro to a value corresponding to the second position; - causing the inertial core to pivot towards the second position about the pivot axis ; - taking measurements of the angular orientation of the vibration axis of each gyro during pivoting of the inertial core, angular orientation being left free during pivoting; and - calibrating the inertial core as a function of the measurements taken.
A method for regulating a temperature of a magnetron, comprising: determining an anode current flowing through the magnetron and an output power of a variable-frequency power supply, the output power being configured to drive the magnetron to operate; calculating an anode voltage of the magnetron according to the anode current of the magnetron and the output power of the variable-frequency power supply; calculating an anode temperature of the magnetron according to the anode voltage of the magnetron; regulating the output power of the variable-frequency power supply according to the anode temperature of the magnetron. determining an anode current flowing through the magnetron and an output power of a variable-frequency power supply, the output power being configured to drive the magnetron to operate; calculating an anode voltage of the magnetron according to the anode current of the magnetron and the output power of the variable-frequency power supply; calculating an anode temperature of the magnetron according to the anode voltage of the magnetron; regulating the output power of the variable-frequency power supply according to the anode temperature of the magnetron.
An engine having a supercharger and an EGR device which executes isochronus control so as to keep a target rotation speed (Nm) the same as that at idling or executes droop control so as to reduce the target rotation speed (Nm) for predetermined percentage corresponding to a load state when a rotation speed (N) of the engine is shifted from a no-load or light-load run to a high-load state, the engine having an ECU and a rotation speed sensor , characterized in that : the ECU is configured to receive signals from the rotation speed sensor and to execute on-off control of an EGR valve of the EGR device, whereby when the difference between the target rotation speed (Nm) and the actual rotation speed (N) is larger than a predetermined threshold (ΔNxy), the EGR valve is either closed to an opening smaller than a normal set opening corresponding to the load state for a predetermined opening or fully closed; a condition for making the opening of the EGR valve returning to the normal set opening corresponding to the load state is that a deficiency amount of the actual rotation speed (N) against the target rotation speed (Nm) is not larger than a predetermined amount; and passing of a predetermined time at a load shift state is also adopted as the condition for making the opening of the EGR valve returning to the normal set opening corresponding to the load state so that the opening of the EGR valve is returned to the normal set opening corresponding to the load state after the passage of the predetermined time even if the return condition is not satisfied that the deficiency amount of the actual rotation speed (N) against the target rotation speed (Nm) is not larger than the predetermined amount. the ECU is configured to receive signals from the rotation speed sensor and to execute on-off control of an EGR valve of the EGR device, whereby when the difference between the target rotation speed (Nm) and the actual rotation speed (N) is larger than a predetermined threshold (ΔNxy), the EGR valve is either closed to an opening smaller than a normal set opening corresponding to the load state for a predetermined opening or fully closed; a condition for making the opening of the EGR valve returning to the normal set opening corresponding to the load state is that a deficiency amount of the actual rotation speed (N) against the target rotation speed (Nm) is not larger than a predetermined amount; and passing of a predetermined time at a load shift state is also adopted as the condition for making the opening of the EGR valve returning to the normal set opening corresponding to the load state so that the opening of the EGR valve is returned to the normal set opening corresponding to the load state after the passage of the predetermined time even if the return condition is not satisfied that the deficiency amount of the actual rotation speed (N) against the target rotation speed (Nm) is not larger than the predetermined amount.