mhurhangee/patent-ind-claim-en huggingface dataset:
A method operable at a second mobile computing device to receive a phone number from a first mobile computing device, the second mobile computing device comprising a radio processor , a transceiver and a central processor , the method comprising: initiating , using the central processor , a phone call with the first mobile computing device, receiving , at the central processor , a message containing contact information of a third person from the first mobile computing device while the phone call is maintained with the first mobile computing device, wherein the contact information includes a phone number of third person and a name of the third person; extracting, using the central processor , the phone number from the contact information; and presenting , using the central processor a user interface with the contact information and the phone number that enables a user of the second mobile computing device to call the received phone number with a single button press . initiating , using the central processor , a phone call with the first mobile computing device, receiving , at the central processor , a message containing contact information of a third person from the first mobile computing device while the phone call is maintained with the first mobile computing device, wherein the contact information includes a phone number of third person and a name of the third person; extracting, using the central processor , the phone number from the contact information; and presenting , using the central processor a user interface with the contact information and the phone number that enables a user of the second mobile computing device to call the received phone number with a single button press .
A method of depth sensing, comprising: illuminating a scene by light passing through a diffraction grating to include a structured light pattern component and a zero order component, wherein the zero order component is a component of a light which passes through the diffraction grating without being diffracted; capturing a first image of the illuminated scene using an imaging sensor ; generating a depth map for the scene based on the structured light pattern in the image; determining a quality level of the depth map; in response to the quality level of the depth map meeting a first criteria: determining depth information based on a position of the zero order component in the image, and capturing a second image using the imaging sensor , wherein the depth information is used to control image capture settings for capturing the second image. illuminating a scene by light passing through a diffraction grating to include a structured light pattern component and a zero order component, wherein the zero order component is a component of a light which passes through the diffraction grating without being diffracted; capturing a first image of the illuminated scene using an imaging sensor ; generating a depth map for the scene based on the structured light pattern in the image; determining a quality level of the depth map; in response to the quality level of the depth map meeting a first criteria: determining depth information based on a position of the zero order component in the image, and capturing a second image using the imaging sensor , wherein the depth information is used to control image capture settings for capturing the second image. determining depth information based on a position of the zero order component in the image, and capturing a second image using the imaging sensor , wherein the depth information is used to control image capture settings for capturing the second image.
A method of oxidizing, sanitizing, disinfecting, and/or sterilizing a target comprising: ejecting a gas stream of a gaseous mixture comprising 50 to 30,000 ppm v chlorine dioxide from a gas source at a velocity of 45.7 m/s to 274.3 m/s (150 ft/sec to 900 ft/sec); and contacting the gas stream with the target. ejecting a gas stream of a gaseous mixture comprising 50 to 30,000 ppm v chlorine dioxide from a gas source at a velocity of 45.7 m/s to 274.3 m/s (150 ft/sec to 900 ft/sec); and contacting the gas stream with the target.
A wellbore servicing composition comprising: (a) an alkaline earth metal oxide, and a soluble salt, and (b) a viscosifier wherein the viscosifier comprises an amidopropalkonium chloride with a chain length of greater than C 12 .
An aircraft autobraking system comprising: an autobrake controller configured to send an initial single autobrake pedal command based on an aircraft acceleration target, wherein the initial single autobrake pedal command is generated by the autobrake controller; a pedal balance controller configured to send an autobrake pedal correction factor to assist in maintaining a desired course of the aircraft; an autobrake pedal executive controller configured to receive at least one of the autobrake pedal correction factor from the pedal balance controller or the initial autobrake pedal command from the autobrake controller, the autobrake pedal executive controller being configured to send an autobrake left pedal command and an autobrake right pedal command to a pedal executive controller , the pedal executive controller being configured to generate a pedal command in response thereto; and wherein the pedal executive controller further receives a pilot left pedal input and a pilot right pedal input transmitted by a pilot depressing brake pedals; and a pedal braking controller configured to calculate a braking command from the pedal command received from the pedal executive controller and from the pilot left and right pedal inputs, and to send said braking command to a braking system. an autobrake controller configured to send an initial single autobrake pedal command based on an aircraft acceleration target, wherein the initial single autobrake pedal command is generated by the autobrake controller; a pedal balance controller configured to send an autobrake pedal correction factor to assist in maintaining a desired course of the aircraft; an autobrake pedal executive controller configured to receive at least one of the autobrake pedal correction factor from the pedal balance controller or the initial autobrake pedal command from the autobrake controller, the autobrake pedal executive controller being configured to send an autobrake left pedal command and an autobrake right pedal command to a pedal executive controller , the pedal executive controller being configured to generate a pedal command in response thereto; and wherein the pedal executive controller further receives a pilot left pedal input and a pilot right pedal input transmitted by a pilot depressing brake pedals; and a pedal braking controller configured to calculate a braking command from the pedal command received from the pedal executive controller and from the pilot left and right pedal inputs, and to send said braking command to a braking system.
An apparatus to be applied to a human body to effect neuromodulation treatment, comprising: a controller programmed to transmit one or more pulse waveforms (30; 80) having a spike and a primary phase following the spike , wherein the spike has a first amplitude of up to 100 V and a first duration time of between 1-5 μs, wherein the primary phase has a second amplitude and a second duration time, and wherein the first amplitude is greater than the second amplitude and the first duration time is less than the second duration time such that the spike has an intensity, as perceived by the human body, which is greater than an average intensity, as perceived by the human body, of the primary phase . a controller programmed to transmit one or more pulse waveforms (30; 80) having a spike and a primary phase following the spike , wherein the spike has a first amplitude of up to 100 V and a first duration time of between 1-5 μs, wherein the primary phase has a second amplitude and a second duration time, and wherein the first amplitude is greater than the second amplitude and the first duration time is less than the second duration time such that the spike has an intensity, as perceived by the human body, which is greater than an average intensity, as perceived by the human body, of the primary phase .
An apparatus for handling a web (W) comprising a processing unit (10; 710) for processing the web (W) and a web transport assembly for transporting the web (W) through a transport path along the processing unit (10; 710), the web transport assembly comprising: - a supply unit arranged for mounting a media roll and for supplying the web (W) from the media roll to the transport path; - a pick-up device (30; 130; 230; 330; 430; 530; 630; 730) comprising a pick-up surface (32; 132; 232; 332; 432; 532; 632; 732) and a holding mechanism (34, 40; 134; 234; 334; 434; 534; 634; 740) configured for releasably holding a leading edge section (L) of the web (W) onto the pick-up surface (32; 132; 232; 332; 432; 532; 632; 732), wherein the pick-up device (30; 130; 230; 330; 430; 530; 630; 730) is moveable between a first position near the supply unit for attaching the leading edge section (L) to the pick-up device (30; 130; 230; 330; 430; 530; 630; 730) and a second position, characterized in that the second position is positioned at an upstream end of a web supporting surface (11; 711) below the processing unit (10; 710). - a supply unit arranged for mounting a media roll and for supplying the web (W) from the media roll to the transport path; - a pick-up device (30; 130; 230; 330; 430; 530; 630; 730) comprising a pick-up surface (32; 132; 232; 332; 432; 532; 632; 732) and a holding mechanism (34, 40; 134; 234; 334; 434; 534; 634; 740) configured for releasably holding a leading edge section (L) of the web (W) onto the pick-up surface (32; 132; 232; 332; 432; 532; 632; 732), wherein the pick-up device (30; 130; 230; 330; 430; 530; 630; 730) is moveable between a first position near the supply unit for attaching the leading edge section (L) to the pick-up device (30; 130; 230; 330; 430; 530; 630; 730) and a second position, characterized in that the second position is positioned at an upstream end of a web supporting surface (11; 711) below the processing unit (10; 710).
A formulation for topical, dermatologic and/or cosmetic use, in form of hydrophobic gel, oleolite or butter comprising: at least one amino acid; at least a hydrophobic vehicle such as oil, silicone or butter; thickeners and stabilizers of hydrophobic phase, hydrogenated oils, silicone waxes and non-silicone waxes such as bee waxes, silica; a quantity of water; characterized in that said formulation comprises a porous polymer, wherein the porous polymer is methylmethacrylate crosspolymer, wherein either microspheres or cyclodextrins are included in association therewith and in that said quantity of water does not exceed 10%, whereby said formulation is microbiological stable and free of preservatives. at least one amino acid; at least a hydrophobic vehicle such as oil, silicone or butter; thickeners and stabilizers of hydrophobic phase, hydrogenated oils, silicone waxes and non-silicone waxes such as bee waxes, silica; a quantity of water; characterized in that said formulation comprises a porous polymer, wherein the porous polymer is methylmethacrylate crosspolymer, wherein either microspheres or cyclodextrins are included in association therewith and in that said quantity of water does not exceed 10%, whereby said formulation is microbiological stable and free of preservatives.
A laundry treating apparatus comprising a cabinet ; and a laundry care device , wherein the laundry care device includes: a jetting unit (no) configured to jet air to the laundry, a suction unit into which air jetted by the jetting unit , after passing through the laundry, is suctioned, and characterized in that the laundry care device is movably provided inside the cabinet and configured to reciprocate in the up and down direction, and in that the laundry treating apparatus further comprises a moving unit provided at one side of the laundry care device that allows the laundry care device to move along a moving rail formed inside the cabinet . a jetting unit (no) configured to jet air to the laundry, a suction unit into which air jetted by the jetting unit , after passing through the laundry, is suctioned, and
A reinforcing pin for reinforcing a laminated composite structure , the reinforcing pin being formed from a plurality of fibres in a polymeric matrix , each of the fibres having the form of a helix extending along the length of the reinforcing pin .
An interstitial fluid glucose measuring device , comprising: - first and second cavities , both configured for being in fluid communication with interstitial fluid outside the cavities, wherein the first and second pressure sensors are absolute pressure sensors configured for sensing a pressure in said first and second cavities , respectively, wherein a) the first cavity comprises an active solution and is defined in part by a first glucose porous membrane interfacing on one side the interior of said first cavity and on the other side configured for interfacing the interstitial body fluid, and wherein the active solution is a composition comprising a lectin and a polysaccharide wherein the lectin is Concanavalin A (ConA) and the polysaccharide is dextran and wherein the ConA to dextran ratio is from 3:1 to 1:1 and the dextran has a molecular weight of 40 kDa or 70 kDa; b) the second cavity not comprising said active solution and defined in part by a second glucose porous membrane interfacing on one side the interior of said second cavity and on the other side arranged for interfacing the interstitial body fluid. - first and second cavities , both configured for being in fluid communication with interstitial fluid outside the cavities, wherein the first and second pressure sensors are absolute pressure sensors configured for sensing a pressure in said first and second cavities , respectively, wherein a) the first cavity comprises an active solution and is defined in part by a first glucose porous membrane interfacing on one side the interior of said first cavity and on the other side configured for interfacing the interstitial body fluid, and wherein the active solution is a composition comprising a lectin and a polysaccharide wherein the lectin is Concanavalin A (ConA) and the polysaccharide is dextran and wherein the ConA to dextran ratio is from 3:1 to 1:1 and the dextran has a molecular weight of 40 kDa or 70 kDa; b) the second cavity not comprising said active solution and defined in part by a second glucose porous membrane interfacing on one side the interior of said second cavity and on the other side arranged for interfacing the interstitial body fluid. a) the first cavity comprises an active solution and is defined in part by a first glucose porous membrane interfacing on one side the interior of said first cavity and on the other side configured for interfacing the interstitial body fluid, and wherein the active solution is a composition comprising a lectin and a polysaccharide wherein the lectin is Concanavalin A (ConA) and the polysaccharide is dextran and wherein the ConA to dextran ratio is from 3:1 to 1:1 and the dextran has a molecular weight of 40 kDa or 70 kDa; b) the second cavity not comprising said active solution and defined in part by a second glucose porous membrane interfacing on one side the interior of said second cavity and on the other side arranged for interfacing the interstitial body fluid.
A method of quickly connecting or engaging a disconnected, hydraulic disc coupling in an AWD vehicle, the disc coupling having a hydraulic cylinder for its actuation, characterized in that the effective piston area in the cylinder is reduced during the connection phase, wherein the effective piston area is reduced by admitting hydraulic oil to both sides of a working piston in the cylinder , leaving the effective area to the area of the piston rod .
A method for manufacturing a security document , comprising steps of: a- forming microstructures in a substrate by pressing a die having microreliefs against a surface of the substrate , the microstructures having alternating protrusions and recesses, b- coating the microstructures with a step-index layer so that the microstructures can reflect incident light radiation, and c- covering the surface of the substrate , including the microstructures and the step-index layer, with a protective film made of polymeric material, wherein the step-index layer has a refractive index different from a refractive index of the protective film made of polymeric material, the method being characterized in that the step-index layer has a thickness smaller than a depth (h) of the microreliefs, and in that the protective film comprises a layer made of polymeric material and an adhesive layer , so that the adhesive layer at least partially fills the recesses and conforms to the protrusions of the microstructures coated with the step-index layer . a- forming microstructures in a substrate by pressing a die having microreliefs against a surface of the substrate , the microstructures having alternating protrusions and recesses, b- coating the microstructures with a step-index layer so that the microstructures can reflect incident light radiation, and c- covering the surface of the substrate , including the microstructures and the step-index layer, with a protective film made of polymeric material,
A device for producing three-dimensional models, comprising a coater with an ejection opening and at least one print head mounted on a print axis, wherein the coater moves upward over the construction field during a coating pass in the coating direction and in the lifting direction at an inclined angle with respect to the horizontal, with the ejection opening being disposed at the top in the coating direction and in the lifting direction and the print head being oriented in opposite alignment in the coating direction on the print axis disposed behind the coater opposite to the coating direction and in the lowering direction, characterised in that the print head and the coater are disposed on a common axis pair.
A method performed by a radio access network node in a communication network, the communication network further comprising one or more wireless light communication, LC, network nodes , the method being characterized by : obtaining information identifying a wireless LC network node to which a wireless device is connected, wherein obtaining information identifying a wireless LC network node comprises receiving a message from the wireless LC network node comprising an indication of an identity of the wireless device .
Retracting device , in particular for sliding doors, having a release part which can be coupled indirectly or directly to a damper and a spring , wherein the release part can be moved out of a first parking section (13.2) of a guide into a guide section (13.1), and wherein the release part can be displaced in the guide section (13.1) in the damping direction counter to the damping force of the damper , characterized in that the guide has a second parking section (13.3) into which the release part can be moved into a second parking position, in that the second parking section (13.3) is arranged offset in the damping direction with respect to the first parking section (13.2) and in that , that the release part has two guide pieces which are guided displaceable in the guide , in that in each case one guide piece can be retracted in the assigned parking position in a parking section (13.2, 13.3) and in that by means of the guide pieces the release part is assigned in the parking position and thus the release part is fixed.
Optical communication system for communicating data via an optical fiber , the optical communication system comprising: a laser diode that is coupled to the optical fiber on the transmitter side , a control unit that is coupled to the laser diode and that is configured to receive source data for a plurality of communication links , characterized in that the control unit is configured to control the laser diode to cyclically switch a mode which refers to the light of a predetermined wavelength (M1, M2, M3, M4, M5) and to modulate in every mode (M1, M2, M3, M4, M5) laser light that is generated by the laser diode based on source data for a communication link that corresponds to the respective mode (M1, M2, M3, M4, M5); and that an optical demultiplexer on a receiver side is coupled to the optical fiber on the receiver side , wherein the demultiplexer is configured to provide incoming light of different predetermined wavelengths each to a respective receiver , wherein the optical demultiplexer comprises an output port for every mode (M1, M2, M3, M4, M5) that is used by the control unit to transmit the source data . a laser diode that is coupled to the optical fiber on the transmitter side , a control unit that is coupled to the laser diode and that is configured to receive source data for a plurality of communication links , characterized in that the control unit is configured to control the laser diode to cyclically switch a mode which refers to the light of a predetermined wavelength (M1, M2, M3, M4, M5) and to modulate in every mode (M1, M2, M3, M4, M5) laser light that is generated by the laser diode based on source data for a communication link that corresponds to the respective mode (M1, M2, M3, M4, M5); and that an optical demultiplexer on a receiver side is coupled to the optical fiber on the receiver side , wherein the demultiplexer is configured to provide incoming light of different predetermined wavelengths each to a respective receiver , wherein the optical demultiplexer comprises an output port for every mode (M1, M2, M3, M4, M5) that is used by the control unit to transmit the source data .
An irrigation hose comprising a main body , having a tubular conformation and provided with a longitudinal axis (X), having an outer surface , concentric to the longitudinal axis (X) wherein the outer surface comprises a plurality of scorings parallel to the longitudinal axis (X), characterised in that the scorings are irregular, defining irregular shaped peaks and irregular shaped troughs , each peak and each through having a profile that, on a section plane radial with respect to the longitudinal axis (X), is not defined by a straight line, but by a broken line with a sinuous trend.