mhurhangee/patent-ind-claim-en huggingface dataset:
A foam discharging nozzle for a foam discharging device being capable of forming, on a foam receiver, a foam-formed product (B), and compri sing: a foam diffusion space to which foam produced by mixing a liquid and a gas is supplied from a foam supply opening located on an upper side; and at least one foam discharging opening formed in a bottom portion of the foam diffusion space , wherein: an area of the bottom portion of the foam diffusion space is wider than an area of the foam supply opening ; wherein a centroid of the foam discharging opening does not match a centroid of a supply opening projected portion formed by projecting the foam supply opening onto the bottom portion parallel to a central axis of the foam diffusion space , wherein the foam supply opening is provided with a first porous element , and the foam discharging nozzle further comprises: a second porous element arranged at the foam discharging opening of the foam discharging nozzle , and the foam supplied from the foam supply opening diffuses even more favorably in the horizontal direction within the foam diffusion space , and wherein the second porous element is configured to discharge the foam, which is supplied in the foam diffusion space , from the foam discharging opening at an averaged-out speed over the entire region of the foam discharging opening . a foam diffusion space to which foam produced by mixing a liquid and a gas is supplied from a foam supply opening located on an upper side; and at least one foam discharging opening formed in a bottom portion of the foam diffusion space , wherein: an area of the bottom portion of the foam diffusion space is wider than an area of the foam supply opening ; wherein a centroid of the foam discharging opening does not match a centroid of a supply opening projected portion formed by projecting the foam supply opening onto the bottom portion parallel to a central axis of the foam diffusion space , wherein the foam supply opening is provided with a first porous element , and the foam discharging nozzle further comprises: a second porous element arranged at the foam discharging opening of the foam discharging nozzle , and the foam supplied from the foam supply opening diffuses even more favorably in the horizontal direction within the foam diffusion space , and wherein the second porous element is configured to discharge the foam, which is supplied in the foam diffusion space , from the foam discharging opening at an averaged-out speed over the entire region of the foam discharging opening . a second porous element arranged at the foam discharging opening of the foam discharging nozzle , and the foam supplied from the foam supply opening diffuses even more favorably in the horizontal direction within the foam diffusion space , and wherein the second porous element is configured to discharge the foam, which is supplied in the foam diffusion space , from the foam discharging opening at an averaged-out speed over the entire region of the foam discharging opening .
Use of a flux in a resin flux cored solder, characterized in that the flux comprises: a rosin resin in an amount of 70 to 99.9 mass-% based on the total mass of the flux, an activator, at least one selected from an acrylic polymer and a vinyl ether polymer, which has a weight average molecular weight of 8000 to 100000, in an amount of 0.1 to 3 mass-% based on the total mass of the flux, and a solvent in an amount of 0 to 13 mass-% based on the total mass of the flux. a rosin resin in an amount of 70 to 99.9 mass-% based on the total mass of the flux, an activator, at least one selected from an acrylic polymer and a vinyl ether polymer, which has a weight average molecular weight of 8000 to 100000, in an amount of 0.1 to 3 mass-% based on the total mass of the flux, and a solvent in an amount of 0 to 13 mass-% based on the total mass of the flux.
A multi-stage gear pump, comprising: a rotating device to which an input shaft is connected; a first pump stage configured to supply fuel to an engine of an aircraft, the first pump stage comprising a rotational input and a rotational output ; a second pump stage configured to supply fuel to aircraft actuators, the second pump stage comprising a rotational input to which an output shaft is connected and a rotational output ; and a variable speed gearbox including an input and an output, wherein the input is rotationally coupled to the rotational input of the first pump stage via the input shaft and the input rotates at a first rotational speed , and the output is rotationally coupled to the rotational input of the second pump stage via the output shaft and rotates at a second rotational speed , wherein a variable gear ratio determines the second rotational speed relative to the first rotational speed; further comprising a boost stage configured to boost the pressure of the fuel, wherein: the boost stage is rotationally coupled to the rotational output of the first pump stage via boost shaft , and the rotational output of the first pump stage drives the boost shaft at a rotational speed varying from the first rotational speed. a rotating device to which an input shaft is connected; a first pump stage configured to supply fuel to an engine of an aircraft, the first pump stage comprising a rotational input and a rotational output ; a second pump stage configured to supply fuel to aircraft actuators, the second pump stage comprising a rotational input to which an output shaft is connected and a rotational output ; and a variable speed gearbox including an input and an output, wherein the input is rotationally coupled to the rotational input of the first pump stage via the input shaft and the input rotates at a first rotational speed , and the output is rotationally coupled to the rotational input of the second pump stage via the output shaft and rotates at a second rotational speed , wherein a variable gear ratio determines the second rotational speed relative to the first rotational speed; further comprising a boost stage configured to boost the pressure of the fuel, wherein: the boost stage is rotationally coupled to the rotational output of the first pump stage via boost shaft , and the rotational output of the first pump stage drives the boost shaft at a rotational speed varying from the first rotational speed.
Apparatus for controlling one or more operations of a medical apparatus , comprising : • a remote control device configured to control said one or more operations of said medical apparatus through a first wireless communication channel , • a remote control enable device comprising : - one or more manually operable switches , - a wireless transmission means configured to transmit through a second wireless communication channel, a status signal related at least to the status of said one or more switches, said status signal being used for enabling the use of the remote control device, • a receiving device configured to receive said status signal, • a control unit coupled to the receiving device , and configured to allow the remote control device to control said one or more operations when said switch is closed or, in the case of multiple switches, when said switches are closed simultaneously, wherein the remote control device and the remote control enable device are incorporated in a common hand-held housing , provided with one or more buttons configured respectively to operate said one or more switches . • a remote control device configured to control said one or more operations of said medical apparatus through a first wireless communication channel , • a remote control enable device comprising : - one or more manually operable switches , - a wireless transmission means configured to transmit through a second wireless communication channel, a status signal related at least to the status of said one or more switches, said status signal being used for enabling the use of the remote control device, - one or more manually operable switches , - a wireless transmission means configured to transmit through a second wireless communication channel, a status signal related at least to the status of said one or more switches, said status signal being used for enabling the use of the remote control device, • a receiving device configured to receive said status signal, • a control unit coupled to the receiving device , and configured to allow the remote control device to control said one or more operations when said switch is closed or, in the case of multiple switches, when said switches are closed simultaneously,
An article storage and retrieval apparatus, comprising: a main frame ; an accommodating assembly, having an article storing state and a folded state, the accommodating assembly comprising a closed frame rotatably arranged on the main frame and an openable door , and the closed frame being configured to enclose an article storing space between the accommodating assembly and the main frame in the article storing state; a first locking assembly, configured to realize locking between the closed frame and the main frame , and allow opening of the article storage and retrieval apparatus after unlocking; and a second locking assembly, configured to realize locking between the closed frame and the openable door , and allow the accommodating assembly to switch from the folded state to the article storage state after unlocking. a main frame ; an accommodating assembly, having an article storing state and a folded state, the accommodating assembly comprising a closed frame rotatably arranged on the main frame and an openable door , and the closed frame being configured to enclose an article storing space between the accommodating assembly and the main frame in the article storing state; a first locking assembly, configured to realize locking between the closed frame and the main frame , and allow opening of the article storage and retrieval apparatus after unlocking; and a second locking assembly, configured to realize locking between the closed frame and the openable door , and allow the accommodating assembly to switch from the folded state to the article storage state after unlocking.
Refrigerator with at least one pulse tube or Gifford-McMahon (GM) cooler having at least two cold stages being arranged in a vacuum can of the refrigerator, and with at least one recuperative trapping stage , the recuperative trapping stage comprising at least one first portion and at least one second portion configured for conveying fluids, wherein the first portion is in fluid communication with the second portion, and at least two different parts or sections of the first portion of the at least one recuperative trapping stage are respectively thermally coupled, or at least configured to be respectively thermally coupleable, to different cold stages of the pulse tube or Gifford-McMahon (GM) cooler , and wherein at least a part of the recuperative trapping stage is arranged within the vacuum can , characterized in that at least one part of the second portion is arranged within the first portion, and in that at least a part of the recuperative trapping stage is arranged in an outside of the vacuum can , the refrigerator further comprising: one or more further recuperative trapping stage mounted in series, and/or at least a condensing line in which at least one cold trap is arranged. with at least one pulse tube or Gifford-McMahon (GM) cooler having at least two cold stages being arranged in a vacuum can of the refrigerator, and with at least one recuperative trapping stage , the recuperative trapping stage comprising at least one first portion and at least one second portion configured for conveying fluids, wherein the first portion is in fluid communication with the second portion, one or more further recuperative trapping stage mounted in series, and/or at least a condensing line in which at least one cold trap is arranged.
A device for forming a container by folding a cardboard sheet , said sheet comprising at least a lid and notably a tab , comprising at least: - a conveyor driving said cardboard sheet in a direction of travel ; - means for folding over said lid ; - said folding-over means comprising at least a pressing surface for pressing on said lid , said pressing surface being actuated in a movement from an initial position toward a deployed position of folding said lid over, and vice versa ; characterized in that - said pressing surface is mobile in said direction of travel ; - said pressing surface comprising at least an endless belt motorized in said direction of travel. - a conveyor driving said cardboard sheet in a direction of travel ; - means for folding over said lid ; - said folding-over means comprising at least a pressing surface for pressing on said lid , said pressing surface being actuated in a movement from an initial position toward a deployed position of folding said lid over, and vice versa ; characterized in that - said pressing surface is mobile in said direction of travel ; - said pressing surface comprising at least an endless belt motorized in said direction of travel.
A medical device , comprising a configurable part, and a positioning system for configuring the configurable part, the positioning system comprising a controller with a button , a control system electrically connected to the button , an actuator electrically connected to the control system , a verification system of a calculation module , characterized in that it further comprises an accelerometer , the accelerometer is mechanically connected to the controller to detect mechanical impacts and thereby generate an electrical signal at the same time when closing a switching element of the button wherein the controller is also mechanically connected to the button , which is fitted with the switching element, and the accelerometer also being electrically connected to the calculation module , which is a part of the control system which comprises at least one control unit , and the control unit evaluates the electrical signal generated when the switching element of the button is closed and an electrical signal generated by the accelerometer is sent to the calculation module where it is evaluated and the processed information sent to the control system , which, on the basis of this information and the electrical signal generated by the switching element, activates the actuator .
A portable terminal comprising: a touchpad including a sensor unit , wherein the sensor unit is adapted for generating an interrupt signal upon sensing pressure on the touchpad ; wherein the touchpad includes a small flat panel to which a pressure sensor is attached; a second control unit adapted, in an active mode, for controlling the touchpad ; and a first control unit adapted for controlling an overall operation of the portable terminal and adapted for outputting an activating signal to activate the second control unit when the interrupt signal is received, wherein, if the activating signal is received from the first control unit while the second control unit is in an inactive mode, the second control unit is adapted to convert from the inactive mode to the active mode, and to process signals input through the touchpad a touchpad including a sensor unit , wherein the sensor unit is adapted for generating an interrupt signal upon sensing pressure on the touchpad ; wherein the touchpad includes a small flat panel to which a pressure sensor is attached; a second control unit adapted, in an active mode, for controlling the touchpad ; and a first control unit adapted for controlling an overall operation of the portable terminal and adapted for outputting an activating signal to activate the second control unit when the interrupt signal is received, wherein, if the activating signal is received from the first control unit while the second control unit is in an inactive mode, the second control unit is adapted to convert from the inactive mode to the active mode, and to process signals input through the touchpad
A method for pose estimation in a device, the method comprising: digitally capturing an image; estimating poses of an object included in the digitally captured image during the capturing of the image; obtaining skeleton information of the object based on the estimating of the poses of the object; establishing a mapping between a 3D model of the object based on the skeleton information and corresponding regions of the object in the image to replace, add, or delete the content of the corresponding regions, and processing the skeleton information of the object for adjusting content, the content being a texture of the object included in the image or a virtual item added to the image for interaction with the object, wherein the estimating of the poses of the object comprises: extracting features from the digitally captured image; detecting , based on the extracted features, key point information of the object; and constructing the skeleton information of the object based on the key point information, wherein the adjusting of the content comprises performing at least one of texture replacement, virtual item addition to the captured image and virtual item deletion. digitally capturing an image; estimating poses of an object included in the digitally captured image during the capturing of the image; obtaining skeleton information of the object based on the estimating of the poses of the object; establishing a mapping between a 3D model of the object based on the skeleton information and corresponding regions of the object in the image to replace, add, or delete the content of the corresponding regions, and processing the skeleton information of the object for adjusting content, the content being a texture of the object included in the image or a virtual item added to the image for interaction with the object, wherein the estimating of the poses of the object comprises: extracting features from the digitally captured image; detecting , based on the extracted features, key point information of the object; and constructing the skeleton information of the object based on the key point information, wherein the adjusting of the content comprises performing at least one of texture replacement, virtual item addition to the captured image and virtual item deletion. extracting features from the digitally captured image; detecting , based on the extracted features, key point information of the object; and constructing the skeleton information of the object based on the key point information, wherein the adjusting of the content comprises performing at least one of texture replacement, virtual item addition to the captured image and virtual item deletion.
A wireless sensor , comprising: a switch and a transmitter set, the transmitter set configured to be operatively coupled to a network gateway device , the transmitter set configured to send to the network gateway device a first data packet at a first time on a first frequency, the first data packet including a payload, the transmitter set configured to send to the network gateway device a second data packet at a second time on a second frequency different from the first frequency, the second time being after the first time and with substantially no delay between the first time and the second time the second data packet including a payload corresponding to the payload of the first data packet, the transmitter set configured to send the first data packet and the second data packet independent of an instruction from the network gateway device. a switch and a transmitter set, the transmitter set configured to be operatively coupled to a network gateway device , the transmitter set configured to send to the network gateway device a first data packet at a first time on a first frequency, the first data packet including a payload, the transmitter set configured to send to the network gateway device a second data packet at a second time on a second frequency different from the first frequency, the second time being after the first time and with substantially no delay between the first time and the second time the second data packet including a payload corresponding to the payload of the first data packet, the transmitter set configured to send the first data packet and the second data packet independent of an instruction from the network gateway device.
A device for guiding liquid, namely a drainage gutter, having a guiding section and at least one functional area arranged on the face at the end of the drainage gutter, wherein the guiding section is formed of concrete which has a binder and a filler having a first grain size K 1 , and wherein the functional area is at least in part formed of a filled reaction resin, wherein the reaction resin has a filler having a second grain size K 2 , wherein K 2 < K 1 , and wherein a determination of the grain size has been made by means of a grindometer test following EN ISO 1524.
A fiber optic connector , comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , the housing comprising a front portion (FP) and a rear portion (RP), wherein the rear portion (RP) of the housing comprises a keying portion and at least one locking feature integrally formed in the rear portion (RP) of the housing ; and a ferrule comprising at least one fiber bore . a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , the housing comprising a front portion (FP) and a rear portion (RP), wherein the rear portion (RP) of the housing comprises a keying portion and at least one locking feature integrally formed in the rear portion (RP) of the housing ; and a ferrule comprising at least one fiber bore .
Method for identifying, by a probe, a wireless communication protocol to be used to communicate with a base station , the probe comprising control and processing devices configured to emulate a plurality of wireless communication protocols featuring respective activation procedures, each activation procedure allowing the base station to activate the probe to perform a checking cycle; the method comprising the following steps, all carried out by the probe autonomously: - detecting a command given by the user by means of hardware interfaces of the probe and consequently setting the probe in a search state (100-105), - in the search state (100-105) attempting the activation procedures, - detecting at least one positive conclusion of one of the activation procedures, - identifying the wireless communication protocol featuring said one of the activation procedures as the wireless communication protocol to be used, and - switching the probe to an operative state (201-205) associated with the identified wireless communication protocol. - detecting a command given by the user by means of hardware interfaces of the probe and consequently setting the probe in a search state (100-105), - in the search state (100-105) attempting the activation procedures, - detecting at least one positive conclusion of one of the activation procedures, - identifying the wireless communication protocol featuring said one of the activation procedures as the wireless communication protocol to be used, and - switching the probe to an operative state (201-205) associated with the identified wireless communication protocol.