mhurhangee/patent-ind-claim-en huggingface dataset:
A laser machining system , in particular a laser welding system, for machining a workpiece by means of a laser beam , wherein the laser machining system comprises: - a laser machining head for irradiating a laser beam onto a workpiece for generating a vapor capillary ; - an optical measuring device for measuring a depth of the vapor capillary by means of an optical measuring beam ; - an image capturing unit adapted to capture an image of an area of the workpiece comprising the vapor capillary and a measuring spot generated on the workpiece by the optical measuring beam , characterised in that the laser machining system is adapted to determine a position of the measuring spot and a position of the vapor capillary for measuring the depth of the vapor capillary based on the captured image , and wherein the laser machining system further comprises an adjustment device adapted to adjust the position of the measuring spot to the position of the vapor capillary determined for measuring the depth of the vapor capillary . - a laser machining head for irradiating a laser beam onto a workpiece for generating a vapor capillary ; - an optical measuring device for measuring a depth of the vapor capillary by means of an optical measuring beam ; - an image capturing unit adapted to capture an image of an area of the workpiece comprising the vapor capillary and a measuring spot generated on the workpiece by the optical measuring beam , the laser machining system is adapted to determine a position of the measuring spot and a position of the vapor capillary for measuring the depth of the vapor capillary based on the captured image , and wherein the laser machining system further comprises an adjustment device adapted to adjust the position of the measuring spot to the position of the vapor capillary determined for measuring the depth of the vapor capillary .
A peristaltic transport device comprising: a tube member having an inner space to receive material , the tube member includes a series of repeating sections wherein each of the sections includes a plurality of bladders to selectively occlude portions of the inner space according to a defined peristaltic sequence to transport the material through the inner space , wherein a first bladder of the plurality of bladders is configured to expand to fill at least a portion of a volume of the inner space of the tube member such that expansion causes the occlusion within the inner space; and an actuator assembly to control the selective occlusion of the inner space by selectively expanding and contracting ones of the plurality of bladders according to the defined peristaltic sequence, wherein the actuator assembly is configured to simultaneously control corresponding ones of the plurality of bladders across the series of repeating sections to propagate consecutive expansion of the first bladder and a second bladder in a first repeating section concomitantly with corresponding first and second bladders in each of the repeating sections of the tube member. a tube member having an inner space to receive material , the tube member includes a series of repeating sections wherein each of the sections includes a plurality of bladders to selectively occlude portions of the inner space according to a defined peristaltic sequence to transport the material through the inner space , wherein a first bladder of the plurality of bladders is configured to expand to fill at least a portion of a volume of the inner space of the tube member such that expansion causes the occlusion within the inner space; and an actuator assembly to control the selective occlusion of the inner space by selectively expanding and contracting ones of the plurality of bladders according to the defined peristaltic sequence, wherein the actuator assembly is configured to simultaneously control corresponding ones of the plurality of bladders across the series of repeating sections to propagate consecutive expansion of the first bladder and a second bladder in a first repeating section concomitantly with corresponding first and second bladders in each of the repeating sections of the tube member.
Household dishwasher with a washing container , at least one functional unit provided in a container bottom of the washing container , a lower rack embodied as a wire basket and a lower rack raising means, characterised in that - the lower rack has at least one fixed lower rack element and at least one removable lower rack element , wherein access to the bottom area of the washing container of the household dishwasher can be unblocked by the removal of the removable lower rack element , - the at least one fixed lower basket element is embodied as an at least one basket bottom , a front wall and two side walls of the wire basket and - the at least one removable lower rack element is embodied as a rear wall of the wire basket . - the lower rack has at least one fixed lower rack element and at least one removable lower rack element , wherein access to the bottom area of the washing container of the household dishwasher can be unblocked by the removal of the removable lower rack element , - the at least one fixed lower basket element is embodied as an at least one basket bottom , a front wall and two side walls of the wire basket and - the at least one removable lower rack element is embodied as a rear wall of the wire basket .
A photovoltaic module monitoring apparatus, applied to a power system including an inverter and a photovoltaic PV module serially connected to the inverter and parallelly connected to the photovoltaic module monitoring apparatus, wherein the power system uses an electrical power cable of the power system as a transmission medium for transmission of an analog signal or a digital signal at a high speed by using a carrier and the photovoltaic module monitoring apparatus comprises: a driver module , configured to: receive a status request differential signal sent by the inverter of the power system via the electrical power cable; obtain, according to the status request differential signal, status information of the photovoltaic PV module corresponding to the photovoltaic module monitoring apparatus; modulate the status information of the photovoltaic PV module to generate a status response differential signal; and send the status response differential signal to the inverter via the electrical power cable; and a bypass module parallelly connected to the driver module , configured to transmit the status request differential signal and the status response differential signal, wherein an input end of the driver module and an input end of the bypass module are configured to be connected to an input end of the photovoltaic module monitoring apparatus, an output end of the driver module and an output end of the bypass module are configured to be connected to an output end of the photovoltaic module monitoring apparatus, and the impedance of the bypass module is less than the impedance of the photovoltaic PV module with respect to the status request differential signal sent from the inverter and the status response differential signal sent to the inverter. a driver module , configured to: receive a status request differential signal sent by the inverter of the power system via the electrical power cable; obtain, according to the status request differential signal, status information of the photovoltaic PV module corresponding to the photovoltaic module monitoring apparatus; modulate the status information of the photovoltaic PV module to generate a status response differential signal; and send the status response differential signal to the inverter via the electrical power cable; and a bypass module parallelly connected to the driver module , configured to transmit the status request differential signal and the status response differential signal, wherein an input end of the driver module and an input end of the bypass module are configured to be connected to an input end of the photovoltaic module monitoring apparatus, an output end of the driver module and an output end of the bypass module are configured to be connected to an output end of the photovoltaic module monitoring apparatus, and the impedance of the bypass module is less than the impedance of the photovoltaic PV module with respect to the status request differential signal sent from the inverter and the status response differential signal sent to the inverter.
A method for making a gas separator for use in electrochemical conversion processes, the method comprising: - one of the steps: ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; - forming a sheet by spreading the casting suspension on an inert surface; and - extracting the solvent from the sheet wherein the solvent is removed to form the gas separator. - one of the steps: ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; - forming a sheet by spreading the casting suspension on an inert surface; and - extracting the solvent from the sheet wherein the solvent is removed to form the gas separator.
A vacuum cleaner , comprising: a main body having a first motor configured to generate suction power, the main body configured to detachably mount a module including a drum having a brush and a second motor configured to rotate the drum ; a sensor configured to detect a load applied to the second motor ; and a processor configured to: obtain, through the sensor, a first signal corresponding to the load applied to the second motor according to a floor type while the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body , and control a speed of the first motor for generating the suction power based on the first signal corresponding to the load applied to the second motor and the second signal corresponding to the type of the module while the first motor is driving, wherein the processor is further configured to, in response to identifying that the module mounted on the main body is a preset module based on the second signal and identifying that the load applied to the second motor is greater than or equal to a preset first threshold value based on the first signal, reduce the speed of the first motor . a main body having a first motor configured to generate suction power, the main body configured to detachably mount a module including a drum having a brush and a second motor configured to rotate the drum ; a sensor configured to detect a load applied to the second motor ; and a processor configured to: obtain, through the sensor, a first signal corresponding to the load applied to the second motor according to a floor type while the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body , and control a speed of the first motor for generating the suction power based on the first signal corresponding to the load applied to the second motor and the second signal corresponding to the type of the module while the first motor is driving, obtain, through the sensor, a first signal corresponding to the load applied to the second motor according to a floor type while the module is performing a cleaning operation, obtain a second signal corresponding to a type of the module mounted to the main body , and control a speed of the first motor for generating the suction power based on the first signal corresponding to the load applied to the second motor and the second signal corresponding to the type of the module while the first motor is driving, wherein the processor is further configured to, in response to identifying that the module mounted on the main body is a preset module based on the second signal and identifying that the load applied to the second motor is greater than or equal to a preset first threshold value based on the first signal, reduce the speed of the first motor .
An apparatus for subretinal administration of a therapeutic agent, the apparatus comprising: (a) a body ; (b) a cannula extending distally from the body , wherein the cannula is flexible, wherein the cannula includes a distal end that is configured to provide separation between sclera and choroid layers of a patient's eye to enable the cannula to be advanced between the sclera and the choroid layers without inflicting trauma to the sclera or choroid layers; and (c) a needle slidably disposed in the cannula , wherein the needle includes: (i) a sharp distal tip , wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion , wherein the needle is resiliently biased to extend along a curve through the curved portion ; (iii) a straight proximal portion ; and (iv) a straight distal portion , wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion . (a) a body ; (b) a cannula extending distally from the body , wherein the cannula is flexible, wherein the cannula includes a distal end that is configured to provide separation between sclera and choroid layers of a patient's eye to enable the cannula to be advanced between the sclera and the choroid layers without inflicting trauma to the sclera or choroid layers; and (c) a needle slidably disposed in the cannula , wherein the needle includes: (i) a sharp distal tip , wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion , wherein the needle is resiliently biased to extend along a curve through the curved portion ; (iii) a straight proximal portion ; and (iv) a straight distal portion , wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion . (i) a sharp distal tip , wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion , wherein the needle is resiliently biased to extend along a curve through the curved portion ; (iii) a straight proximal portion ; and (iv) a straight distal portion , wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion .
A system for bone fixation, comprising: a pin configured to be inserted into a bone; and a deformable collar configured to engage the pin and the bone to retain the pin in the bone; wherein the collar is configured to be operatively disposed on the pin such that the collar extends more than halfway and less than completely around the pin , wherein the collar has a first end opposite a second end and defines a hole extending through the collar from the first end to the second end, the hole being open along one side of the collar from the first end to the second end to form a lateral entryway to the hole , wherein the collar is configured to be deformed elastically by a section of the pin entering the hole via the lateral entryway from outside the collar , and wherein the collar is configured to retain the pin in the bone without threaded engagement between the pin and the collar and without threaded engagement between the collar and the bone. a pin configured to be inserted into a bone; and a deformable collar configured to engage the pin and the bone to retain the pin in the bone; wherein the collar is configured to be operatively disposed on the pin such that the collar extends more than halfway and less than completely around the pin , wherein the collar has a first end opposite a second end and defines a hole extending through the collar from the first end to the second end, the hole being open along one side of the collar from the first end to the second end to form a lateral entryway to the hole ,
An apparatus for separating liquid and particles from a mixture, said apparatus comprising: a separation chamber having a cylindrical wall extending between a first end and a second end and about a longitudinal axis ; an inlet , for receiving the mixture, which opens into the separation chamber substantially tangential to the cylindrical wall ; a gas outlet in the first end of the separation chamber to enable gas separated from the mixture to exit through the gas outlet; a fluid outlet in the second end of the separation chamber to enable liquid to flow through from the separation chamber; a debris passage extending through the cylindrical wall and oriented such that a radial velocity of the particles within the separation chamber directs the particles through the debris passage; and a particle collection chamber into which the debris passage communicates to receive the particles; characterized in that the apparatus further comprises: a sensor for producing an first electrical signal indicating an amount of metallic and non-metallic debris in the particle collection chamber ; and a magnetic probe extending into the particle collection chamber for gathering metal particles in the debris, wherein the magnetic probe is configured to produce a second electrical signal indicating an amount of metal particles that has been gathered. a separation chamber having a cylindrical wall extending between a first end and a second end and about a longitudinal axis ; an inlet , for receiving the mixture, which opens into the separation chamber substantially tangential to the cylindrical wall ; a gas outlet in the first end of the separation chamber to enable gas separated from the mixture to exit through the gas outlet; a fluid outlet in the second end of the separation chamber to enable liquid to flow through from the separation chamber; a debris passage extending through the cylindrical wall and oriented such that a radial velocity of the particles within the separation chamber directs the particles through the debris passage; and a particle collection chamber into which the debris passage communicates to receive the particles; characterized in that the apparatus further comprises: a sensor for producing an first electrical signal indicating an amount of metallic and non-metallic debris in the particle collection chamber ; and a magnetic probe extending into the particle collection chamber for gathering metal particles in the debris, wherein the magnetic probe is configured to produce a second electrical signal indicating an amount of metal particles that has been gathered. a sensor for producing an first electrical signal indicating an amount of metallic and non-metallic debris in the particle collection chamber ; and a magnetic probe extending into the particle collection chamber for gathering metal particles in the debris, wherein the magnetic probe is configured to produce a second electrical signal indicating an amount of metal particles that has been gathered.
Method for controlling a light pattern provided by an automotive lighting device of an automotive vehicle , wherein the light pattern is a low beam pattern and the light pattern comprises a dynamic portion and a fixed portion , wherein the dynamic portion of the light pattern is provided by a matrix arrangement of light sources arranged in several columns by several rows, the method comprising the steps of - sensing a turn in a steering system of the automotive vehicle ; - dividing the dynamic portion in a first portion and a second portion in a way that the luminous intensity of each of the first portion and of the second portion is not null; wherein the first portion presents a higher luminous intensity than that of the second portion and wherein the first portion comprises a cut-off with a diagonal line of the low beam pattern; - shifting the operation of the light sources associated to the first portion in the same direction as the sensed turn in a way that the cut-off is shifted according to the movement of steering system of the vehicle while the second portion remains still, thus creating a plurality of blank spaces between the shifted first portion and the second portion; and - creating a third portion between the shifted first portion and the second portion to fill in the blank spaces, wherein the luminous intensity of the third portion is a linear interpolation between the column of the shifted first portion which is closest to the third portion and the column of the second portion which is closest to the third portion. - sensing a turn in a steering system of the automotive vehicle ; - dividing the dynamic portion in a first portion and a second portion in a way that the luminous intensity of each of the first portion and of the second portion is not null; wherein the first portion presents a higher luminous intensity than that of the second portion and wherein the first portion comprises a cut-off with a diagonal line of the low beam pattern; - shifting the operation of the light sources associated to the first portion in the same direction as the sensed turn in a way that the cut-off is shifted according to the movement of steering system of the vehicle while the second portion remains still, thus creating a plurality of blank spaces between the shifted first portion and the second portion; and - creating a third portion between the shifted first portion and the second portion to fill in the blank spaces, wherein the luminous intensity of the third portion is a linear interpolation between the column of the shifted first portion which is closest to the third portion and the column of the second portion which is closest to the third portion.