mhurhangee/ep-ind-claims huggingface dataset:
Autonomous smoke extraction and treatment device, comprising: - a housing equipped with filtering means, - ventilation means suitable for carrying the smoke through said filtering means, and wherein the housing comprises an inner chamber wherein the bottom wall is formed by said filtering means, said ventilation means being arranged upstream from said inner chamber, enabling a pressurisation of said inner chamber, to a pressure greater than the pressure downstream from the filtering means and wherein the device is intended to be mounted on the ceiling suitable for collecting the smoke in the vicinity of the ceiling, laterally to the housing and for expelling the filtered smoke in a downward flow, below the housing, characterised in that: - the filtering means and said ventilation means are determined to ensure a filtered air flow rate between 150 m3/h and 450 m3/h, - the ventilation means are fans, said device including a battery system for the electrical power supply of the fans, and - the battery system is sized to ensure operation of the device for a duration between 20 minutes and 100 minutes. - a housing equipped with filtering means, - ventilation means suitable for carrying the smoke through said filtering means, and - the filtering means and said ventilation means are determined to ensure a filtered air flow rate between 150 m3/h and 450 m3/h, - the ventilation means are fans, said device including a battery system for the electrical power supply of the fans, and - the battery system is sized to ensure operation of the device for a duration between 20 minutes and 100 minutes.
A method of wireless communication, comprising: identifying an uplink transmission time period associated with an unlicensed radio frequency spectrum band, wherein said uplink transmission time period corresponds to a duration of an assigned physical uplink shared channel, PUSCH, transmission, or an assigned physical uplink control channel, PUCCH, transmission; receiving an indicator in a downlink transmission associated with an uplink transmission of a sounding reference signal, wherein the indicator alerts to transmit the sounding reference signal without designating a location of a sounding reference signal time period relative to the uplink transmission time period; and transmitting the sounding reference signal over the unlicensed radio frequency spectrum band according to a predetermined configuration, wherein the predetermined configuration includes the location of the sounding reference signal time period to be during a last symbol of the assigned PUSCH or last one or two symbols of the assigned PUCCH. identifying an uplink transmission time period associated with an unlicensed radio frequency spectrum band, wherein said uplink transmission time period corresponds to a duration of an assigned physical uplink shared channel, PUSCH, transmission, or an assigned physical uplink control channel, PUCCH, transmission; receiving an indicator in a downlink transmission associated with an uplink transmission of a sounding reference signal, wherein the indicator alerts to transmit the sounding reference signal without designating a location of a sounding reference signal time period relative to the uplink transmission time period; and transmitting the sounding reference signal over the unlicensed radio frequency spectrum band according to a predetermined configuration, wherein the predetermined configuration includes the location of the sounding reference signal time period to be during a last symbol of the assigned PUSCH or last one or two symbols of the assigned PUCCH.
A pharmaceutical composition comprising a glucopyranosyl lipid adjuvant or a pharmaceutically acceptable salt thereof as an active ingredient for use in a method of treatment for reducing or preventing metastasis development following a tumor excision surgery in a subject, wherein said composition is administered during the perioperative period of said tumor excision surgery, and wherein the GLA has the following structural formula: wherein R 1, R 3, R 5 and R 6 are C 11 -C 20 alkyl; and R 2 and R 4 are C 12 -C 20 alkyl.
A method of controlling a charge pump, the method comprising: monitoring a power-on status of the charge pump; calculating a duty cycle of the charge pump within a time period based on the power-on status of the charge pump during said time period; and adjusting at least one of a charge pump clock frequency setting and a charge pump capacitance setting based on the duty cycle of the charge pump. monitoring a power-on status of the charge pump; calculating a duty cycle of the charge pump within a time period based on the power-on status of the charge pump during said time period; and adjusting at least one of a charge pump clock frequency setting and a charge pump capacitance setting based on the duty cycle of the charge pump.
A system, comprising: a hub to receive first electronic data from a first document source wherein the first electronic data comprises identification of a first intended recipient; and a processor to: review the first electronic data to identify the first electronic data as being associated with a first document type; in response to the first electronic data being associated with the first document type, classify the first electronic data with a first tag; classify the first electronic data with a second tag based on the first intended recipient; in response to the first electronic data being classified with the first tag, parse the first electronic data to extract first selected data from the first electronic data; verify an identity of the first intended recipient; and grant the first intended recipient access to the first selected data based on the verified identity. a hub to receive first electronic data from a first document source wherein the first electronic data comprises identification of a first intended recipient; and a processor to: review the first electronic data to identify the first electronic data as being associated with a first document type; in response to the first electronic data being associated with the first document type, classify the first electronic data with a first tag; classify the first electronic data with a second tag based on the first intended recipient; in response to the first electronic data being classified with the first tag, parse the first electronic data to extract first selected data from the first electronic data; verify an identity of the first intended recipient; and grant the first intended recipient access to the first selected data based on the verified identity. review the first electronic data to identify the first electronic data as being associated with a first document type; in response to the first electronic data being associated with the first document type, classify the first electronic data with a first tag; classify the first electronic data with a second tag based on the first intended recipient; in response to the first electronic data being classified with the first tag, parse the first electronic data to extract first selected data from the first electronic data; verify an identity of the first intended recipient; and grant the first intended recipient access to the first selected data based on the verified identity.
Robot comprising a robot arm, having a plurality of motor-driven joints and a plurality of members that each connect two adjacent joints (5.1, 5.2) of these driven joints to one another, wherein at least one of these members has a load-bearing structural component that is designed to transmit forces and/or moments from an adjacent joint (5.1) to the other adjacent joint (5.2), wherein the structural component is provided with at least one cover, which at least partially covers the structural component, and at least one contact sensor, wherein the at least one contact sensor is in the form of a switching strip (8.1) that is arranged between the structural component and the cover, and movable mounting means for mounting the cover on the structural component, which mounting means are spring-preloaded in the basic position of the cover, are adjusted by an inherent elasticity of the switching strip (8.1), characterized in that the cover has a central wall portion (7.3) that is designed to cover a first surface (6.1) of the structural component and has at least two side wall portions (7.1, 7.2) that delimit the central wall portion (7.3) from opposite sides, wherein at least one first side wall portion (7.1) of the cover partially or completely overlaps a second surface (6.2) of the structural component and at least one second side wall portion (7.2) of the cover partially or completely overlaps a third surface (6.3) of the structural component that is opposite the second surface (6.2) of the structural component, and the second surface (6.2) of the structural component has at least one first protrusion (9.1) that cooperates with a first undercut (10.1) on the inner side of the first side wall portion (7.1) of the cover in order to hold the cover in a spring-preloaded manner in its basic position on the structural component such that it is secured against detachment from the structural component and/or the third surface (6.3) of the structural component has at least one second protrusion (9.2) that cooperates with a second undercut (10.2) on the inner side of the second side wall portion (7.2) of the cover in order to hold the cover in a spring-preloaded manner in its basic position on the structural component such that it is secured against detachment from the structural component.
A fuel magnetization treatment method comprises the following steps of: 1) installing at least one electromagnetic coil on a supply system supplying fuels to an engine combustion device, and connecting two electrodes of the coil to an electromagnet generator. 2) providing an alternating current to the coil with the electromagnet generator, so that the coils produce alternate a magnetic field, by which the fuel to be delivered to the engine is magnetized; wherein the band of the AC is 4KHz ∼ 25KHz; wherein the supply system comprises a fuel tank, a fuel supply tubing, an air supply tubing, and an air filter, the fuel tank being connected with the combustion device via the fuel supply tubing, and the air filter being connected with the combustion device via the air supply tubing; and wherein the coil is winded into a volute-shaped coil, attached to an insulator, so that a coil module is formed; the coil module can be installed in the fuel tank, in the air filter, on the periphery of the fuel supply tubing or the periphery of the air supply tubing, or installed in combination of any way characterized in that the coil is applied with a special harmless radioactive ceramic layer, which radioactivity intensity is harmless to the human body. 1) installing at least one electromagnetic coil on a supply system supplying fuels to an engine combustion device, and connecting two electrodes of the coil to an electromagnet generator. 2) providing an alternating current to the coil with the electromagnet generator, so that the coils produce alternate a magnetic field, by which the fuel to be delivered to the engine is magnetized; wherein the band of the AC is 4KHz ∼ 25KHz;
A combinable electrode needle base structure comprising an electrode needle base, the electrode needle base including a front side to which electrode needles are coupled, so as to receive RF waves from RF (radio frequency) generator, wherein the electrode needle base is divided into a plurality of dividable bases to which the electrode needles are respectively coupled, and coupling parts which do not interface with each other are formed on separation surfaces of each of the dividable bases so that the coupling parts of the separation surfaces of one dividable base are coupled to the coupling parts of the separation surfaces of another dividable base, wherein the combinable electrode needle base structure is used in a combined state by coupling the coupling parts of the separation surfaces of one dividable base to the coupling parts of the separation surfaces of another dividable base, or the combinable electrode needle base structure is used in a separated state by decoupling the coupling parts of the separation surfaces of one dividable base from the coupling parts of the separation surfaces of another dividable base, characterized in that the combinable electrode needle base structure further comprises coupling tools, widened parts are formed at both ends of each of the dividable bases, and when the dividable bases are combined, said coupling tools are coupled to outer sides of the dividable bases in a manner such that the coupling tools cover and fasten the widened parts of the dividable bases so as to prevent separation of the dividable bases.
A vehicle comprising a reinforcement device arranged between a slide of a seat and a floor of a vehicle, the reinforcement device comprising a spacer including a proximal portion to be fixed between the slide and the floor, and a distal portion, in extension of the proximal portion, the distal portion extending beyond the slide, the distal portion the blade being intended to be fixed to the floor, the slide being intended to be fixed to the floor of the vehicle, a fixing wedge projecting from the slide, the proximal part of the reinforcement device comprising a hole intended to receive said fixing wedge, the reinforcement device being characterized in that the proximal part is fixed to the floor of the vehicle, by means of the pressure exerted by the fixed part the slide.
A method of manufacturing a stator assembly - for an electric motor or generator comprising: providing a plurality of stator windings, each stator winding formed from a multistrand cable that comprises a plurality of wires that are electrically insulated; connecting an end of the multistrand cable of each stator winding to a respective conductive stud; and then mounting the stator windings in a stator housing; characterised in that the plurality of wires comprises ≥10 wires and in that the method comprises removing the electrical insulation between the ends of the plurality of wires at the end of the multistrand cable that is connected to the conductive stud; wherein the multistrand cable of each stator winding is connected to the conductive stud by thermal crimping, and wherein the thermal crimping causes said removal of the electrical insulation. providing a plurality of stator windings, each stator winding formed from a multistrand cable that comprises a plurality of wires that are electrically insulated; connecting an end of the multistrand cable of each stator winding to a respective conductive stud; and then mounting the stator windings in a stator housing; characterised in that the plurality of wires comprises ≥10 wires and in that the method comprises removing the electrical insulation between the ends of the plurality of wires at the end of the multistrand cable that is connected to the conductive stud; wherein the multistrand cable of each stator winding is connected to the conductive stud by thermal crimping, and wherein the thermal crimping causes said removal of the electrical insulation.
A cooling device comprising: a cooling unit; and a control unit programmed to control operation of the cooling unit in order to cool one or more sebaceous glands within a local region for a period of time and to a temperature below 15° C to disrupt function of the one or more sebaceous glands; and wherein the control unit is programmed to control operation of the cooling unit to: cool the one of more sebaceous glands for a first period of time; characterised in that the control unit is further programmed to control operation of the cooling unit to: actively or passively warm the one or more sebaceous glands, in order to maintain subcutaneous adipose tissue in the temperature range above 25° C, by one of: a. actuation of an energy source to introduce energy into the local region; b. controlling the cooling unit to actively raise the temperature of the cooling unit; c. suspending or reducing operation of the cooling unit; d. a plurality of cooling-warming cycles; and cool the one or more sebaceous glands for a second period of time. a cooling unit; and a control unit programmed to control operation of the cooling unit in order to cool one or more sebaceous glands within a local region for a period of time and to a temperature below 15° C to disrupt function of the one or more sebaceous glands; and wherein the control unit is programmed to control operation of the cooling unit to: cool the one of more sebaceous glands for a first period of time; characterised in that the control unit is further programmed to control operation of the cooling unit to: cool the one of more sebaceous glands for a first period of time; characterised in that the control unit is further programmed to control operation of the cooling unit to: actively or passively warm the one or more sebaceous glands, in order to maintain subcutaneous adipose tissue in the temperature range above 25° C, by one of: a. actuation of an energy source to introduce energy into the local region; b. controlling the cooling unit to actively raise the temperature of the cooling unit; c. suspending or reducing operation of the cooling unit; d. a plurality of cooling-warming cycles; and cool the one or more sebaceous glands for a second period of time. a. actuation of an energy source to introduce energy into the local region; b. controlling the cooling unit to actively raise the temperature of the cooling unit; c. suspending or reducing operation of the cooling unit; d. a plurality of cooling-warming cycles; and cool the one or more sebaceous glands for a second period of time.
A lithium-ion secondary battery having a positive electrode sheet, a negative electrode sheet, a separator, and an electrolyte solution, the positive electrode sheet comprising a positive electrode current collector and a positive electrode material layer arranged on at least one surface of the positive electrode current collector, the positive electrode material layer comprising a carbon coated positive electrode active material and carbon, wherein the electrolyte solution comprises a highly heat-stable salt (M y+) x/y R 1 (SO 2 N -) x SO 2 R 2, wherein the M y+ is a metal ion, R 1 and R 2 are each independently a fluorine atom, an alkyl with 1-20 carbon atoms, a fluoroalkyl with 1-20 carbon atoms, or a fluoroalkoxy with 1-20 carton atoms, the x is 1, 2, or 3, the y is 1, 2, or 3; and a mass percent of the salt in the electrolyte solution is set as k2%; a temperature rise coefficient k1 of the positive electrode sheet satisfies 2.5≤k1≤32, wherein k1=Cw/Mc, Cw is a positive electrode material load per unit area (mg/cm 2) on the surface of any side of the positive electrode current collector on which the positive electrode material layer is loaded, and Mc is a carbon content (%) of the positive electrode material layer; and the lithium-ion secondary battery satisfies 0.34≤k2/k1≤8. the electrolyte solution comprises a highly heat-stable salt (M y+) x/y R 1 (SO 2 N -) x SO 2 R 2, wherein the M y+ is a metal ion, R 1 and R 2 are each independently a fluorine atom, an alkyl with 1-20 carbon atoms, a fluoroalkyl with 1-20 carbon atoms, or a fluoroalkoxy with 1-20 carton atoms, the x is 1, 2, or 3, the y is 1, 2, or 3; and a mass percent of the salt in the electrolyte solution is set as k2%; a temperature rise coefficient k1 of the positive electrode sheet satisfies 2.5≤k1≤32, wherein k1=Cw/Mc, Cw is a positive electrode material load per unit area (mg/cm 2) on the surface of any side of the positive electrode current collector on which the positive electrode material layer is loaded, and Mc is a carbon content (%) of the positive electrode material layer; and the lithium-ion secondary battery satisfies 0.34≤k2/k1≤8.
An engine starting apparatus comprising an electric motor receives supply of current to generate a rotational force, an output shaft that provides an axial direction which is along a longitudinal direction of the output shaft and has an outer periphery surface and rotates by the rotational force, a one-way clutch that is helical-spline-fitted to the outer periphery surface of the output shaft, a pinion that receives the rotational force via the one-way clutch and has a second periphery surface on which a plurality of teeth are formed, the teeth of the pinion having a second axial end face facing the ring gear and being directed in the axial direction, pinion pushing means that pushes, together with the one-way clutch, the pinion toward a ring gear of an engine that has a first periphery surface on which a plurality of teeth are formed, the teeth of the ring gear having a first axial end face facing the pinion and being directed in the axial direction, wherein the one-way clutch having an idling torque being set to be smaller than a torque of the ring gear that tries to turn the pinion when the second axial end face of the pinion is pressed against the first axial end face of the ring gear with a predetermined load, and current switching means that turns on/off the current supplied to the motor, the current switching means being operative independently from the pinion pushing means; revolution speed detecting means that detects a revolution speed of the ring gear; and control means that control the pinion pushing means so as to operate when the revolution speed of the ring gear detected by the revolution speed detecting means is larger than a revolution speed of the pinion acquired from a revolution speed of the motor and a relative revolution speed between the revolution speed of the ring gear and the revolution speed of the pinion is a desired value, wherein frictional coefficient increasing means are formed on the second axial end face of the teeth of the pinion to increase a frictional force thereon.
A method (1400; 1500) for wireless communication, comprising: selecting (1405; 1505), by a first wireless device, a direction for a wireless transmission over a channel; monitoring (1410; 1510), by the first wireless device, an availability of the channel in the selected direction for a duration of a first channel listening time corresponding to the selected direction; receiving (1415; 1515) a channel reservation message from an interfering wireless device during the monitoring, the channel reservation message indicating a duration of an interfering transmission; setting (1420; 1520) a timer associated with the selected direction based at least in part on the duration of the interfering transmission indicated in the channel reservation message; and monitoring (1425; 1525), by the first wireless device, an availability of the channel in the selected direction for a duration of a second channel listening time corresponding to the selected direction in response based at least in part on an expiration of the timer, wherein the second channel listening time is shorter than the first channel listening time. selecting (1405; 1505), by a first wireless device, a direction for a wireless transmission over a channel; monitoring (1410; 1510), by the first wireless device, an availability of the channel in the selected direction for a duration of a first channel listening time corresponding to the selected direction; receiving (1415; 1515) a channel reservation message from an interfering wireless device during the monitoring, the channel reservation message indicating a duration of an interfering transmission; setting (1420; 1520) a timer associated with the selected direction based at least in part on the duration of the interfering transmission indicated in the channel reservation message; and monitoring (1425; 1525), by the first wireless device, an availability of the channel in the selected direction for a duration of a second channel listening time corresponding to the selected direction in response based at least in part on an expiration of the timer, wherein the second channel listening time is shorter than the first channel listening time.