mhurhangee/patent-ind-claim-en huggingface dataset:
An automatically moving disinfection robot for disinfecting surfaces , comprising a device housing , a drive means for the movement of the disinfection robot within a surrounding area comprising at least one room , a disinfection means for performing a disinfection activity within the surrounding area, and a control means for controlling the disinfection activity, wherein the control means is configured to control a locally limited disinfection in only one subregion of the room of the surrounding area, which is predefined for this purpose, or a locally limited disinfection of only one object , which is defined for this purpose, in the room of the surrounding area in a fully automated manner, wherein for attaining a locally limited disinfection effect, the disinfection means has a shielding means , namely enclosure, for separating the locally limited subregion to be disinfected from adjacent subregions of the same room , wherein the shielding means is a housing, which is open only on one side and which is placed around the object to be disinfected or against the surface to be disinfected, so that the disinfection only takes place within the housing, but not outside of the housing, characterized in that the disinfection robot has a navigation device for navigation and self-localization of the disinfection robot within the environment on the basis of an environment map , and wherein the control device is arranged to access a disinfection plan stored in a memory of the disinfection robot or an external memory which is in data communication with the disinfection robot , the disinfection plan having a specification of a disinfection performance, which specifies the disinfection effect, during a disinfection activity, wherein more heavily contaminated sub-areas or objects of the environment are disinfected to a greater extent than, in contrast, only lightly contaminated objects or sub-areas , and wherein the disinfection robot has a detection device which is set up to detect living beings in the environment, the control device being set up to reduce a disinfection output and/or to emit a warning signal if the detection device detects the presence of a living being in the environment.
A waterproof component that is an insert molded body formed from a thermoplastic resin composition and a metal component, wherein the thermoplastic resin composition comprises a thermoplastic resin (A) and an inorganic fibrous reinforcement (B); the content of the inorganic fibrous reinforcement (B) is 40 to 130 parts by mass based on 100 parts by mass of the thermoplastic resin (A); and the inorganic fibrous reinforcement (B) has an average fiber diameter of 9 μm or less and an average fiber length of 300 μm or less. the thermoplastic resin composition comprises a thermoplastic resin (A) and an inorganic fibrous reinforcement (B); the content of the inorganic fibrous reinforcement (B) is 40 to 130 parts by mass based on 100 parts by mass of the thermoplastic resin (A); and the inorganic fibrous reinforcement (B) has an average fiber diameter of 9 μm or less and an average fiber length of 300 μm or less.
A stand machine , in particular an ultrasonic welding machine, comprising: - a stand which can be attached to a base plate on which a workpiece to be machined by the stand machine can be positioned; - a vibration generator by means of which a working member can be driven; - a slide which bears the vibration generator and which is displaceably guided in the longitudinal direction of the stand ; and - a linear drive which bears the slide and which is attached to the stand , wherein the vibration generator is located in the alignment of the actuation path of the linear drive , characterized in that an elastically deformable solid state hinge is provided in the force flow path between a working member and the stand , said elastically deformable solid state hinge being subject to an elastic deformation as a result of a force which can be applied to the workpiece via the working member with the aid of the linear drive . - a stand which can be attached to a base plate on which a workpiece to be machined by the stand machine can be positioned; - a vibration generator by means of which a working member can be driven; - a slide which bears the vibration generator and which is displaceably guided in the longitudinal direction of the stand ; and - a linear drive which bears the slide and which is attached to the stand , wherein the vibration generator is located in the alignment of the actuation path of the linear drive , characterized in that an elastically deformable solid state hinge is provided in the force flow path between a working member and the stand , said elastically deformable solid state hinge being subject to an elastic deformation as a result of a force which can be applied to the workpiece via the working member with the aid of the linear drive .
Disc brake having a brake caliper straddling at least one brake disc and a brake actuating mechanism (1;20) comprising: - an amplification mechanism for introducing a clamping force, - an adjusting mechanism for compensating for pad wear having a torque clutch, - a thrust element for transmitting the clamping force to the brake disc, the thrust element comprising an adjustment spindle (7;33) threadedly engaged with a thrust piece cooperating with a brake pad, the thrust piece being axially and non-rotatably guided in the housing of the brake caliper such that rotation of the adjustment spindle results in axial displacement of the thrust piece, the adjustment spindle (7;33) being operable by the adjusting mechanism, and - a resetting device, wherein the amplification mechanism, the adjusting mechanism, the thrust element and the resetting device are mounted in a functionally cooperating manner by means of a rod in the brake caliper, which rod is supported in the housing of the brake caliper in a non-movable and non-rotatable manner in the axial direction, characterized by at least one means (15,16,17;34,35,42) which is designed to be inactive during the adjustment process when the brake is applied and to provide a defined resisting torque against rotation of the adjustment spindle (7;33) when the brake is released and/or in the released state of the brake. - an amplification mechanism for introducing a clamping force, - an adjusting mechanism for compensating for pad wear having a torque clutch, - a thrust element for transmitting the clamping force to the brake disc, the thrust element comprising an adjustment spindle (7;33) threadedly engaged with a thrust piece cooperating with a brake pad, the thrust piece being axially and non-rotatably guided in the housing of the brake caliper such that rotation of the adjustment spindle results in axial displacement of the thrust piece, the adjustment spindle (7;33) being operable by the adjusting mechanism, and - a resetting device,
A baby car seat allowing a position change, the baby car seat comprising: a base body ; a car seat frame installed at an upper side of the base body and mounted with a car seat configured to accommodate a baby; a direction changing unit configured to allow a direction of the car seat frame to be changed relative to the base body ; a tilting unit configured to allow an angle of the car seat frame to be changed relative to the base body ; and an operation unit configured to operate the direction changing unit and the tilting unit , wherein the operation unit operates the direction changing unit and the tilting unit such that a direction of the direction changing unit and an angle of the tilting unit are changed. a base body ; a car seat frame installed at an upper side of the base body and mounted with a car seat configured to accommodate a baby; a direction changing unit configured to allow a direction of the car seat frame to be changed relative to the base body ; a tilting unit configured to allow an angle of the car seat frame to be changed relative to the base body ; and an operation unit configured to operate the direction changing unit and the tilting unit , wherein the operation unit operates the direction changing unit and the tilting unit such that a direction of the direction changing unit and an angle of the tilting unit are changed.
An apparatus for attaching an interconnector of a solar cell panel , the apparatus comprising: an interconnector fixing unit configured to form an interconnector-jig coupling by fixing a plurality of interconnectors to a jig ; a working table configured to receive the interconnector-jig coupling to fix the interconnectors to a solar cell ; and a heat source configured to attach the interconnectors and the solar cell to each other by applying heat to the interconnectors and the solar cell, which are fixed to each other, wherein the jig is configured to be separated from the interconnectors prior to passing through the heat source, wherein the apparatus further comprises a cutter configured to cut the interconnectors of the interconnector-jig coupling before the interconnector-jig coupling is received at the working table or positioned on the solar cell. an interconnector fixing unit configured to form an interconnector-jig coupling by fixing a plurality of interconnectors to a jig ; a working table configured to receive the interconnector-jig coupling to fix the interconnectors to a solar cell ; and a heat source configured to attach the interconnectors and the solar cell to each other by applying heat to the interconnectors and the solar cell, which are fixed to each other, wherein the jig is configured to be separated from the interconnectors prior to passing through the heat source, wherein the apparatus further comprises a cutter configured to cut the interconnectors of the interconnector-jig coupling before the interconnector-jig coupling is received at the working table or positioned on the solar cell.
A method for controlling low-speed propulsion of a marine vessel powered by a marine propulsion system including a plurality of propulsion devices , the method comprising: generating a vessel dynamics model representing an approximation of vessel dynamics for the marine vessel ; receiving a signal indicating a position of a manually operable input device movable to indicate desired vessel movement within three degrees of freedom; associating the position of the manually operable input device with a desired inertial velocity of the marine vessel ; determining a steering position command and an engine command for each of the plurality of propulsion devices based on the desired inertial velocity, wherein determining the steering position command and the engine command includes utilizing the vessel dynamics model to solve for at least one of a surge command, a sway command, and a yaw command based on the desired inertial velocity; automatically controlling the propulsion system based on the steering position command and the engine command; measuring an actual velocity of the marine vessel ; and determining a difference between the desired inertial velocity and the actual velocity and using the difference as feedback in subsequent steering position command and engine command determinations. generating a vessel dynamics model representing an approximation of vessel dynamics for the marine vessel ; receiving a signal indicating a position of a manually operable input device movable to indicate desired vessel movement within three degrees of freedom; associating the position of the manually operable input device with a desired inertial velocity of the marine vessel ; determining a steering position command and an engine command for each of the plurality of propulsion devices based on the desired inertial velocity, wherein determining the steering position command and the engine command includes utilizing the vessel dynamics model to solve for at least one of a surge command, a sway command, and a yaw command based on the desired inertial velocity; automatically controlling the propulsion system based on the steering position command and the engine command; measuring an actual velocity of the marine vessel ; and determining a difference between the desired inertial velocity and the actual velocity and using the difference as feedback in subsequent steering position command and engine command determinations.
A method for managing at least one radio interface (IR) and at least one physical interface (IP) of a communicating equipment (EC), characterised in that it comprises a step in which, in case of a connection of a peripheral (PE) to said physical interface (IP), a mapping of the radio communications quality on said radio interface (IR) is determined, and then this mapping determined is compared with another mapping of the radio communications quality on said radio interface (IR) in the absence of a peripheral (PE) connected to said physical interface (IP), and in case of degradation of said radio communications quality resulting from said connection, a first on-going operating configuration of said radio interface (IR) as a function of said determined mapping or a second on-going operating configuration of said physical interface (IP) is modified.
A conventional fluidized-bed catalytic cracking process comprising: - a step of reaction of a hydrocarbon feedstock over a fluidized bed of ascending or descending catalyst, - a step of disengaging/stripping the coked catalyst particles from cracked effluents, - a step of regenerating, in one or more stages, the coked catalyst particles, the regenerated catalyst particles recovered at an outlet being returned to the inlet of the fluidized bed of the reaction step, said conventional fluidized-bed catalytic cracking process incorporating, in the disengaging/stripping step, a multi-stage cracking and stripping process of a fluidized mixture of hydrocarbons and coked catalyst particles comprising at least one step of cracking and one stop of stripping after separation of the coked catalyst particles and the cracked effluents, characterized in that : - said conventional fluidized-bed catalytic cracking process operates in a mode for maximizing distillates, - said multi-stage cracking and stripping process comprises at least two steps of cracking at least one hydrocarbon fluid over the separated coked catalyst particles, followed by at least two stripping steps of said particles, each cracking step preceding a stripping step, the division of the particles being ensured in the various cracking and optionally stripping steps of the multi-stage cracking and stripping process, by means of at least one structured packing element, - in the first cracking step, at least one hydrocarbon chosen from the petrol produced or any fluid having a boiling point of less than or equal to 220°C is injected and, in the second cracking step, products having a boiling point higher than 350°C, of HCO type or slurry, recovered at a hydrocarbon fractioning step of the fluidized-bed catalytic cracking process. - a step of reaction of a hydrocarbon feedstock over a fluidized bed of ascending or descending catalyst, - a step of disengaging/stripping the coked catalyst particles from cracked effluents, - a step of regenerating, in one or more stages, the coked catalyst particles, the regenerated catalyst particles recovered at an outlet being returned to the inlet of the fluidized bed of the reaction step, - said conventional fluidized-bed catalytic cracking process operates in a mode for maximizing distillates, - said multi-stage cracking and stripping process comprises at least two steps of cracking at least one hydrocarbon fluid over the separated coked catalyst particles, followed by at least two stripping steps of said particles, each cracking step preceding a stripping step, the division of the particles being ensured in the various cracking and optionally stripping steps of the multi-stage cracking and stripping process, by means of at least one structured packing element, - in the first cracking step, at least one hydrocarbon chosen from the petrol produced or any fluid having a boiling point of less than or equal to 220°C is injected and, in the second cracking step, products having a boiling point higher than 350°C, of HCO type or slurry, recovered at a hydrocarbon fractioning step of the fluidized-bed catalytic cracking process.
Method for operating a heat-pump heating arrangement for a building , wherein an averaged heating volumetric flow rate (VM) of a heating circuit of the heat-pump heating arrangement is determined, preferably on the basis of a heating volumetric flow rate (V) of the heating circuit of the heat-pump heating arrangement that is ascertained and/or recorded over a predefined first period of time, wherein the averaged heating volumetric flow rate (VM) is compared with a predefined first threshold value (S1) in a first comparison, characterized in that an averaged external temperature (TM) is determined, preferably on the basis of an external temperature (T) outside the building that is ascertained and/or recorded at regular time intervals over the predefined first period of time, wherein the averaged external temperature (TM) is compared with a predefined second threshold value (S2), wherein, in a manner dependent on the first comparison and in the case of the predefined second threshold value (S2) being fallen below, a predefined heating curve of the heat-pump heating arrangement is adapted on the basis of the averaged external temperature (TM) and in particular of a predefined first parameter, wherein the heat-pump heating arrangement is controlled on the basis of the adapted heating curve .
An antivibratory suspension device for a mechanical assembly , the suspension device being equipped with at least one suspension means , the suspension means comprising a flapper performing a pendulum motion, the flapper comprising a mass support , the flapper comprising a flapping mass supported by the mass support , said suspension means comprising at least a first actuator generating dynamic forces for generating a dynamic force for acting on the pendulum motion of the flapper , said suspension device having at least a first computer to control the first actuator , the first computer being connected to a measurement system measuring a vibratory response to adjust said pendulum motion, said flapping mass being mobile in translation longitudinally in relation to the mass support , said suspension device comprising a second actuator the second actuator being linked to the flapping mass to longitudinally displace the flapping mass in relation to the mass support , said suspension device comprising a second computer controlling said second actuator to adjust a position of the flapping mass in relation to the mass support , characterised in that the first actuator comprises at least one magnetised part and at least one electric coil , said magnetised part or said coil being integral with the flapping mass .
A voltaic cell comprising: (a) an anode for receiving electrons and providing electrons to an external circuit or load; (b) a cathode for donating electrons to an electrochemical reaction (c) a film comprising a microbe, the film in electrical contact with the anode or cathode, wherein the microbe is capable of transferring electrons, and wherein the film is at least 50 microns thick; (d) a buffer comprising an ionically conductive medium in contact with the anode and cathode; and (e) a vessel at least partially containing the film and the buffer; and further comprising: a light-conversion system having a glass top plate that is optimized for light penetration; one or more ultraviolet (UV) light-resistant gaskets which form a leak-proof seal around the glass top plate; and a light-harvesting antennae component population arranged for light-absorption wherein the light-harvesting antennae component population is juxtaposed to a layer of conductive nanomaterial, and wherein the light-harvesting antennae component population comprises the film. (a) an anode for receiving electrons and providing electrons to an external circuit or load; (b) a cathode for donating electrons to an electrochemical reaction (c) a film comprising a microbe, the film in electrical contact with the anode or cathode, wherein the microbe is capable of transferring electrons, and wherein the film is at least 50 microns thick; (d) a buffer comprising an ionically conductive medium in contact with the anode and cathode; and (e) a vessel at least partially containing the film and the buffer; and further comprising: a light-conversion system having a glass top plate that is optimized for light penetration; one or more ultraviolet (UV) light-resistant gaskets which form a leak-proof seal around the glass top plate; and a light-harvesting antennae component population arranged for light-absorption wherein the light-harvesting antennae component population is juxtaposed to a layer of conductive nanomaterial, and wherein the light-harvesting antennae component population comprises the film. a light-conversion system having a glass top plate that is optimized for light penetration; one or more ultraviolet (UV) light-resistant gaskets which form a leak-proof seal around the glass top plate; and a light-harvesting antennae component population arranged for light-absorption wherein the light-harvesting antennae component population is juxtaposed to a layer of conductive nanomaterial, and wherein the light-harvesting antennae component population comprises the film.
A method of making a carbon-carbon composite, comprising: stacking a plurality of textile fabric layers, each textile fabric layer in the plurality of textile fabric layers including oxidized polyacrylonitrile (PAN) fibers, each textile fabric layer in the plurality of textile fabric layers being a non-crimp, multi-axial stitch-bonded fabric; needling the plurality of textile fabric layers to form a needled non-woven board; cutting a fibrous preform from the needled non-woven board; carbonizing the fibrous preform; and densifying the fibrous preform with a carbon matrix. stacking a plurality of textile fabric layers, each textile fabric layer in the plurality of textile fabric layers including oxidized polyacrylonitrile (PAN) fibers, each textile fabric layer in the plurality of textile fabric layers being a non-crimp, multi-axial stitch-bonded fabric; needling the plurality of textile fabric layers to form a needled non-woven board; cutting a fibrous preform from the needled non-woven board; carbonizing the fibrous preform; and densifying the fibrous preform with a carbon matrix.