mhurhangee/patent-ind-claim-en huggingface dataset:
A remote-controlled, electrically driven work machine , comprising; - a portable control unit for remote control of the work machine, wherein the work machine further comprises, - a control computer remotely controlled by the portable control unit - operational devices driven by a flow of hydraulic fluid, - a hydraulic control system that supplies driving flow to the operational devices of the work machine, by means of electrically controlled control valves characterised in that the hydraulic control system can be reset from a normal operating mode to an operation mode with limited power, whereby the volume of flow of the hydraulic medium to the operational devices is limited through parameter adjustment of control curves that the programable hydraulic system that is based on a CAN bus uses to regulate an opening of the electronically controlled control valves for passage through them of hydraulic flow to the operational devices . - a portable control unit for remote control of the work machine, wherein the work machine further comprises, - a control computer remotely controlled by the portable control unit - operational devices driven by a flow of hydraulic fluid, - a hydraulic control system that supplies driving flow to the operational devices of the work machine, by means of electrically controlled control valves characterised in that the hydraulic control system can be reset from a normal operating mode to an operation mode with limited power, whereby the volume of flow of the hydraulic medium to the operational devices is limited through parameter adjustment of control curves that the programable hydraulic system that is based on a CAN bus uses to regulate an opening of the electronically controlled control valves for passage through them of hydraulic flow to the operational devices .
Device for controlled cardiopulmonary resuscitation of the human body in cardiac arrest, with at least one pressure transmission means and at least one pressure-absorbing element and a pressure display, which occurs when an adjustable limit pressure (Fmax) occurs human sensory organs generates a perceptible signal (S), whereas the device comprising at least one spring system with a plurality of spring elements , which interact when mechanical pressure (F) is exerted and the limit pressure is set by interaction of all spring elements, wherein at least one spring element of the spring system is flat and in one piece, characterized in that at least two spring elements of the spring system are arranged laterally to the flat one-piece spring element and around the flat one-piece spring element , and above the at least one area A one-piece spring element is arranged at least one further spring element of the spring system, which absorbs the mechanical pressure on the at least one pressure transmission means and transfers it to the flat one-piece spring element .
Use of a single phase composition for cleansing the skin of a user, the single phase composition comprising from 0.05% (by weight of the composition) to 50% (by weight of the composition) of at least one water dispersible silicone and from 50% (by weight of the composition) to 99.95% (by weight of the composition) water, the silicone being a modified sorbitan siloxane having the following structure: wherein R 1 is an alkyl having from 7 to 21 carbon atoms; R 2 , R 3 , and R 4 are independently selected from the group consisting of H and Structure 2: wherein at least one of R 2 , R 3 , or R 4 is Structure 2; a is an integer ranging from 0 to 200; b is an integer ranging from 1 to 10; z is an integer ranging from 1 to 10; c is an integer ranging from 0 to 10; d is an integer ranging from 5 to 20; n is an integer ranging from 7 to 17; e is an integer ranging from 0 to 30; f is an integer ranging from 0 to 30; g is an integer ranging from 0 to 30, wherein the sum of e, f, and g is an integer ranging from 9 to 50; and wherein the ratio of hydroxyl to carboxyl group ranges from 4:1 to 2:1; the use comprising introducing the composition to the skin of the user and then removing the composition from the skin of the user.
A case , comprising: a base unit including: a heat generating component, and a heat diffusing surface comprising at least one exhaust vent at a first side of the base to dissipate the heat of the heat generating component; a display unit including, a stand having a heat dissipating member , the heat dissipating member comprising an air vent including at least one aperture, and a lid connected to the stand , the lid being configured to be above the stand when the display unit is in an open position; and a hinge to connect the base unit and the display unit, the hinge being connected below the at least one exhaust vent of the heat diffusing surface and the air vent of the heat dissipating member , wherein when the display unit is in a closed position the heat diffusing surface overlaps the heat dissipating member , and the air vent of the heat dissipating member aligns with the at least one exhaust vent. a base unit including: a heat generating component, and a heat diffusing surface comprising at least one exhaust vent at a first side of the base to dissipate the heat of the heat generating component; a heat generating component, and a heat diffusing surface comprising at least one exhaust vent at a first side of the base to dissipate the heat of the heat generating component; a display unit including, a stand having a heat dissipating member , the heat dissipating member comprising an air vent including at least one aperture, and a lid connected to the stand , the lid being configured to be above the stand when the display unit is in an open position; and a stand having a heat dissipating member , the heat dissipating member comprising an air vent including at least one aperture, and a lid connected to the stand , the lid being configured to be above the stand when the display unit is in an open position; and a hinge to connect the base unit and the display unit, the hinge being connected below the at least one exhaust vent of the heat diffusing surface and the air vent of the heat dissipating member , wherein when the display unit is in a closed position the heat diffusing surface overlaps the heat dissipating member , and the air vent of the heat dissipating member aligns with the at least one exhaust vent.
A drilling assembly, comprising: a hydraulic amplifier assembly configured to increase a pressure of a drilling fluid so as to produce a pressurized drilling fluid; a driver that is driven by the pressure of the drilling fluid; a bearing housing coupled to the driver ; and a shaft extending through the bearing housing , wherein the shaft is driven to rotate by the driver , a drill bit coupled to a downhole end of the shaft and configured to be rotated by the driver ; characterized in that the hydraulic amplifier assembly is configured to deliver the pressurized drilling fluid to the drill bit ,_wherein the hydraulic amplifier assembly is coupled to the driver , such that the driver is configured to drive the hydraulic amplifier assembly . a hydraulic amplifier assembly configured to increase a pressure of a drilling fluid so as to produce a pressurized drilling fluid; a driver that is driven by the pressure of the drilling fluid; a bearing housing coupled to the driver ; and a shaft extending through the bearing housing , wherein the shaft is driven to rotate by the driver , a drill bit coupled to a downhole end of the shaft and configured to be rotated by the driver ; characterized in that the hydraulic amplifier assembly is configured to deliver the pressurized drilling fluid to the drill bit ,_wherein the hydraulic amplifier assembly is coupled to the driver , such that the driver is configured to drive the hydraulic amplifier assembly .
A self-charging assembly for a hydro-mechanical device , the self-charging assembly including a first gas chamber configured to hold a compressible gas; a second gas chamber disposed within the first gas chamber , the second gas chamber configured to hold a compressible gas; a first flow passage connecting an interior portion of the second gas chamber with an atmosphere outside of the self-charging assembly , the first flow passage having a first valve assembly configured for selectively blocking flow through the first flow passage ; and a second flow passage connecting an interior portion of the first gas chamber with the interior portion of the second gas chamber , the second flow passage having a second valve assembly configured for selectively blocking flow through the second flow passage ; wherein the first valve assembly is configured to allow flow through the first flow passage when an air pressure within the second gas chamber is below an air pressure of the atmosphere outside of the self-charging assembly ; and wherein the first valve assembly is configured to block flow through the first flow passage when the air pressure within the second gas chamber is equal or greater than the air pressure in the atmosphere outside of the self-charging assembly ; and wherein the second valve assembly comprises an inflow valve configured to allow flow through the second flow passage when an air pressure within the first gas chamber is below an air pressure of the second gas chamber ; and wherein the inflow valve is configured to block flow through the second flow passage when the air pressure within the first gas chamber is greater than the air pressure in the second gas chamber ; characterised in that the second valve assembly further comprises an outflow valve to allow flow through the second flow passage when an air pressure within the first gas chamber is greater than or equal to a threshold pressure; and in that the outflow valve is configured to block flow through the second flow passage when the air pressure within the first gas chamber is less than the threshold pressure.
A food processor, comprising: a motor ; a lid having a feed tube ; a processing bowl having a handle ; a pusher device having a body; and a safety linkage mechanism in an external housing ; wherein the safety linkage mechanism is configured to cooperate with a safety rail formed on the pusher device , wherein the safety rail extends above a surface of the body of the pusher device ; wherein the motor is configured to not operate unless the safety rail is in engagement with the safety linkage mechanism, wherein the feed tube includes a longitudinal slot for receiving the safety rail , and a channel having an opening through which protrudes, from the external housing , a nose of an upper link of the safety linkage mechanism that is configured to pivot in response to a contact with the safety rail ; wherein the safety linkage mechanism extends from the upper link to a projection that forms a terminal part that extends to contact a first intermediate link contained in the handle of the processing bowl ; and wherein the channel comprises a neck of a pilot opening for receiving the safety rail and the slot comprises a relief area that is substantially exposed to an interior of the feed tube and that is configured to receive the safety rail , the pilot opening being associated with the relief area , characterized in that the feed tube further comprises a partition that isolates an interior of the channel from the interior of the feed tube , wherein internal surfaces of the partition are blended into the interior of the guide tube and a lower extent of the partition slopes downward and blends with the interior of the feed tube to promote the discharge of waste and cleaning when required. a motor ; a lid having a feed tube ; a processing bowl having a handle ; a pusher device having a body; and a safety linkage mechanism in an external housing ; wherein the safety linkage mechanism is configured to cooperate with a safety rail formed on the pusher device , wherein the safety rail extends above a surface of the body of the pusher device ; wherein the motor is configured to not operate unless the safety rail is in engagement with the safety linkage mechanism, wherein the feed tube includes a longitudinal slot for receiving the safety rail , and a channel having an opening through which protrudes, from the external housing , a nose of an upper link of the safety linkage mechanism that is configured to pivot in response to a contact with the safety rail ; wherein the safety linkage mechanism extends from the upper link to a projection that forms a terminal part that extends to contact a first intermediate link contained in the handle of the processing bowl ; and wherein the channel comprises a neck of a pilot opening for receiving the safety rail and the slot comprises a relief area that is substantially exposed to an interior of the feed tube and that is configured to receive the safety rail , the pilot opening being associated with the relief area , characterized in that
A nebulizer comprising a vibrating aperture plate, a mounting, an actuator, and an aperture plate drive circuit having a controller, wherein the controller is configured to: measure aperture plate drive current at each of a plurality of measuring points in a scan, each measuring point having a drive frequency; determine a minimum value of the drive current during the scan; determine a value for maximum rate of change of drive current during the scan; and to use said minimum drive current value in combination with said maximum rate of change value to execute an algorithm to calculate an indicator value for end-of-dose, wherein the controller is configured to: determine a ratio of said maximum rate of change of drive current and said minimum value of the drive currrent to provide the indicator, and to scale said indicator by a constant value. measure aperture plate drive current at each of a plurality of measuring points in a scan, each measuring point having a drive frequency; determine a minimum value of the drive current during the scan; determine a value for maximum rate of change of drive current during the scan; and to use said minimum drive current value in combination with said maximum rate of change value to execute an algorithm to calculate an indicator value for end-of-dose, wherein the controller is configured to: determine a ratio of said maximum rate of change of drive current and said minimum value of the drive currrent to provide the indicator, and to scale said indicator by a constant value. determine a ratio of said maximum rate of change of drive current and said minimum value of the drive currrent to provide the indicator, and to scale said indicator by a constant value.
A vapour controlling insulation structure for a flat or low slope warm roof with a load supporting structure , comprising a first insulation layer , a vapour controlling membrane , and a second insulation layer , said vapour controlling membrane situated between the first insulation layer and second insulation layer , where said second insulation layer exhibits a top surface with an area (A) adapted for mounting of a roofing membrane, where the first insulation layer exhibits an intermediate surface , said intermediate surface adapted for mounting of said vapour controlling membrane , and where the first insulation layer is with a thickness (t) and constituted by one or more insulation boards , characterized in that said second insulation layer is constituted by two stacked sub-layers both with substantially the same thickness (t) as the first insulation layer . a first insulation layer , a vapour controlling membrane , and a second insulation layer , said vapour controlling membrane situated between the first insulation layer and second insulation layer , where said second insulation layer exhibits a top surface with an area (A) adapted for mounting of a roofing membrane, where the first insulation layer exhibits an intermediate surface , said intermediate surface adapted for mounting of said vapour controlling membrane , and where the first insulation layer is with a thickness (t) and constituted by one or more insulation boards , characterized in that said second insulation layer is constituted by two stacked sub-layers both with substantially the same thickness (t) as the first insulation layer .
A light emitting device comprising: a light transmissive member ; a light emitting element having a substrate and a semiconductor stacked layer portion on the substrate ; and electrodes respectively disposed on the semiconductor stacked layer portion in this order; wherein the substrate has, from the light transmissive member side, a first region and a second region , the light transmissive member has, from the light emitting element side, a third region and a fourth region ; the first region has an irregular atomic arrangement compared with the second region ; the third region has an irregular atomic arrangement compared with the fourth region , and the first region and the third region are directly bonded. a light transmissive member ; a light emitting element having a substrate and a semiconductor stacked layer portion on the substrate ; and electrodes respectively disposed on the semiconductor stacked layer portion in this order; wherein the substrate has, from the light transmissive member side, a first region and a second region , the light transmissive member has, from the light emitting element side, a third region and a fourth region ; the first region has an irregular atomic arrangement compared with the second region ; the third region has an irregular atomic arrangement compared with the fourth region , and the first region and the third region are directly bonded.
A power consumption management method, wherein the method is applied to a device, the device comprises a plurality of voltage domains, each of the voltage domains comprises at least one processor core, and the method comprises: identifying (S301) a first voltage domain that meets a preset condition, wherein the first voltage domain is any voltage domain in the device, and wherein the first voltage domain comprises components whose power consumption can be adjusted; migrating (S302) a task to be executed by a processor core in the first voltage domain to a second voltage domain, wherein the second voltage domain is a voltage domain other than the first voltage domain in the device; and setting (S303) working modes of each of the components in the first voltage domain as a first mode, wherein the components comprise the processor core and other components associated with the processor core, and wherein the first mode is a mode with a lower or lowest power consumption. identifying (S301) a first voltage domain that meets a preset condition, wherein the first voltage domain is any voltage domain in the device, and wherein the first voltage domain comprises components whose power consumption can be adjusted; migrating (S302) a task to be executed by a processor core in the first voltage domain to a second voltage domain, wherein the second voltage domain is a voltage domain other than the first voltage domain in the device; and setting (S303) working modes of each of the components in the first voltage domain as a first mode, wherein the components comprise the processor core and other components associated with the processor core, and wherein the first mode is a mode with a lower or lowest power consumption.
A method for producing a decorative coating , wherein a support layer is wetted with a liquid in at least one region , then a powder is applied to the support layer , wherein the powder adheres in the wetted region , and subsequently non-adhering powder is removed from the support layer , whereupon the adhering powder is fixed to the support layer , characterized in that a support layer with a weight between 10 g/m 2 and 250 g/m 2 inclusive is employed and a powder is employed which contains biomaterial particles in a proportion between 30 % and 60 % as well as colour pigments, corundum and thermosetting resins in powder form and the biomaterial has a particle size of less than or equal to 500 μm, powder being applied to the support layer plural times and a plurality of mutually different powders are applied to the support layer and non-adherent powder is removed from the support layer by suction and the powder adhering to the support layer is hardened during fixing, wherein the fixing of the powder adhering to the support layer being carried out by applying heat.
A battery resistance diagnosis device comprising: a current supply unit configured to supply a preset fixed current to a battery cell; a voltage measurement unit configured to measure an open circuit voltage of the battery cell while the fixed current is supplied, wherein when the battery cell is fully charged the voltage measurement unit is configured to perform the measurement in a state in which the battery cell is in the open circuit voltage state, wherein the fixed current is a balancing current of the battery; an external resistance calculation unit configured to calculate an external resistance value of the battery cell based on the fixed current and the open circuit voltage of the battery cell; and an abnormality diagnosis unit configured to diagnose a battery abnormality due to a voltage drop by comparing the calculated external resistance value with a preset external resistance value, wherein the external resistance value of the battery cell comprises at least one resistance value among a lead resistance of a connection part of the battery cell, a busbar resistance, a flexible printed circuit, FPC, resistance, a printed circuit board, PCB, resistance, and a connector resistance. a current supply unit configured to supply a preset fixed current to a battery cell; a voltage measurement unit configured to measure an open circuit voltage of the battery cell while the fixed current is supplied, wherein when the battery cell is fully charged the voltage measurement unit is configured to perform the measurement in a state in which the battery cell is in the open circuit voltage state, wherein the fixed current is a balancing current of the battery; an external resistance calculation unit configured to calculate an external resistance value of the battery cell based on the fixed current and the open circuit voltage of the battery cell; and an abnormality diagnosis unit configured to diagnose a battery abnormality due to a voltage drop by comparing the calculated external resistance value with a preset external resistance value, wherein the external resistance value of the battery cell comprises at least one resistance value among a lead resistance of a connection part of the battery cell, a busbar resistance, a flexible printed circuit, FPC, resistance, a printed circuit board, PCB, resistance, and a connector resistance.