mhurhangee/patent-ind-claim-en huggingface dataset:
A patient interface system comprising: a non-sealing nasal cannula configured to deliver gases to a user; a mask having a mask body , the mask body defining a user-contacting surface and an interior space when the user-contacting surface is in contact with a face of the user, the mask being selectively securable to or removable from a user independently of the nasal cannula , wherein the mask body is adapted to create a seal around the nasal cannula when the mask is used in combination with the nasal cannula allowing the interior space of the mask to be pressurized; the interior space of the mask being configured to accommodate at least a portion of the nasal cannula when the mask is positioned on the head of the user with the user-contacting surface in contact with the face of the user; a flow controller configured to, in use, use pressure data from within the mask to control the pressure within the mask; and a pressure port that communicates with the interior space and allows measurement of a pressure within the interior space. a non-sealing nasal cannula configured to deliver gases to a user; a mask having a mask body , the mask body defining a user-contacting surface and an interior space when the user-contacting surface is in contact with a face of the user, the mask being selectively securable to or removable from a user independently of the nasal cannula , wherein the mask body is adapted to create a seal around the nasal cannula when the mask is used in combination with the nasal cannula allowing the interior space of the mask to be pressurized; the interior space of the mask being configured to accommodate at least a portion of the nasal cannula when the mask is positioned on the head of the user with the user-contacting surface in contact with the face of the user; a flow controller configured to, in use, use pressure data from within the mask to control the pressure within the mask; and a pressure port that communicates with the interior space and allows measurement of a pressure within the interior space.
An application starting method performed by a terminal device, wherein the method comprises: • detecting (S 101) ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and • starting (S102), when the magnetic field strength is greater than a magnetic field strength threshold and at least two of the following conditions are met: the light intensity is not less than a light intensity threshold, the distance is greater than a distance threshold, the acceleration is not less than an acceleration threshold, the speed is not less than a speed threshold, the change rate is not less than a change rate threshold, and the Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device, an application corresponding to the magnetic field strength threshold. • detecting (S 101) ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and • starting (S102), when the magnetic field strength is greater than a magnetic field strength threshold and at least two of the following conditions are met: the light intensity is not less than a light intensity threshold, the distance is greater than a distance threshold, the acceleration is not less than an acceleration threshold, the speed is not less than a speed threshold, the change rate is not less than a change rate threshold, and the Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device, an application corresponding to the magnetic field strength threshold.
An offshore material handling system comprising a service or supply vessel having a crane , an installation structure being fixed to the seabed and projecting above the sea level, said installation structure comprising a lifting appliance on board said installation structure , wherein said material handling system further comprises an independent platform structure having attachment means in the form of hooks or other fixations means to be temporarily hung onto said installation structure at a level within reach of both the crane of the service or supply vessel and the lifting appliance onboard said installations structure , said independent platform structure acting as a temporary load station supported on said installation structure , said independent platform structure having means for attachment to a crane hook onboard said service- or supply vessel , so that the independent platform structure is adapted to be lifted as a single unit and hung onto said installation structure by the crane .
A leak testing machine for tightness testing of a cylinder head , an engine block or a similar workpiece with at least one internal chamber to be tested, comprising: - at least one sealing plate (14; 14A, 14B) with a sealing arrangement for a connection region of the workpiece; - a machine frame with at least one workpiece holding device for the workpiece; and - an adjusting device with at least one first drive for bringing together workpiece (11; 12) and sealing plate (14; 14A, 14B) into a test position , in which the workpiece lies with the connection region tight against the sealing arrangement of the sealing plate; - and preferably comprising a changeover device (30; 30A, 30B) for sealing plates (14; 14A, 14B) with a holding arrangement adjustable on the machine frame with an associated second drive (36A; 36B) for sealing plate changeover, in particular for bringing a holder with sealing plate out of a waiting position into an operating position associated with the test position and vice versa , wherein the holding arrangement comprises at least two holders (34-1 - 34-4) in each case for one sealing plate and a common supporting member , which is mounted swivelably on the machine frame and on which the at least two holders (34-1 - 34-4) are provided; CHARACTERIZED IN THAT - a rotary device is provided on the machine frame, which device has the at least one workpiece holding device as well as an associated third drive for bringing the workpiece out of a loading position for loading and unloading the leak testing machine into a home position upstream of the test position or into the test position and vice versa. - at least one sealing plate (14; 14A, 14B) with a sealing arrangement for a connection region of the workpiece; - a machine frame with at least one workpiece holding device for the workpiece; and - an adjusting device with at least one first drive for bringing together workpiece (11; 12) and sealing plate (14; 14A, 14B) into a test position , in which the workpiece lies with the connection region tight against the sealing arrangement of the sealing plate; - and preferably comprising a changeover device (30; 30A, 30B) for sealing plates (14; 14A, 14B) with a holding arrangement adjustable on the machine frame with an associated second drive (36A; 36B) for sealing plate changeover, in particular for bringing a holder with sealing plate out of a waiting position into an operating position associated with the test position and vice versa , wherein the holding arrangement comprises at least two holders (34-1 - 34-4) in each case for one sealing plate and a common supporting member , which is mounted swivelably on the machine frame and on which the at least two holders (34-1 - 34-4) are provided; - a rotary device is provided on the machine frame, which device has the at least one workpiece holding device as well as an associated third drive for bringing the workpiece out of a loading position for loading and unloading the leak testing machine into a home position upstream of the test position or into the test position and vice versa.
An apparatus for projecting a structured light pattern, comprising: a display screen including a plurality of OLED pixels disposed at a particular pitch in a first plane; a light projector including a plurality of light emitting elements disposed in a second plane parallel to the first plane, the plurality of light emitting elements being disposed at the same pitch as the plurality of OLED pixels, or at an integer multiple of the pitch of the plurality of OLED pixels, wherein the plurality of light emitting elements are operable to produce light at a wavelength for transmission through the display screen , and wherein the first and second planes are separated from one another by a distance D such that d 2 =2 ∗ (λ) ∗ (D)/(N), where d is the pitch of the OLED pixels, λ is the wavelength, and N is a positive integer; wherein each of the light emitting elements is arranged to illuminate a respective subset of the OLED pixels, and each of the subsets includes multiple neighboring OLED pixels, such that light from each particular one of the light emitting elements passes through different ones of the OLED pixels in the respective subset so as to produce an interference pattern. a display screen including a plurality of OLED pixels disposed at a particular pitch in a first plane; a light projector including a plurality of light emitting elements disposed in a second plane parallel to the first plane, the plurality of light emitting elements being disposed at the same pitch as the plurality of OLED pixels, or at an integer multiple of the pitch of the plurality of OLED pixels, wherein the plurality of light emitting elements are operable to produce light at a wavelength for transmission through the display screen , and wherein the first and second planes are separated from one another by a distance D such that d 2 =2 ∗ (λ) ∗ (D)/(N), where d is the pitch of the OLED pixels, λ is the wavelength, and N is a positive integer; wherein each of the light emitting elements is arranged to illuminate a respective subset of the OLED pixels, and each of the subsets includes multiple neighboring OLED pixels, such that light from each particular one of the light emitting elements passes through different ones of the OLED pixels in the respective subset so as to produce an interference pattern.
A steel for nitrocarburizing, comprising: a chemical composition containing, in mass%, C: 0.010 % or more and 0.100 % or less, Si: 1.00 % or less, Mn: 0.50 % or more and 3.00 % or less, P: 0.020 % or less, S: 0.060 % or less, Cr: 0.30 % or more and 0.90 % or less, Mo: 0.005 % or more and 0.200 % or less, V: 0.02 % or more and 0.50 % or less, Nb: 0.003 % or more and 0.150 % or less, Al: 0.005 % or more and 0.200 % or less, N: 0.0200 % or less, Sb: 0.0005 % or more and 0.0200 % or less, W: 0.3 % or less inclusive of 0 %, Co: 0.3 % or less inclusive of 0 %, Hf: 0.2 % or less inclusive of 0 %, Zr: 0.2 % or less inclusive of 0 %, and Ti: 0.1 % or less inclusive of 0 %, and optionally one or more selected from B: 0.0100 % or less, Cu: 0.3 % or less, Ni: 0.3 % or less, Pb: 0.2 % or less, Bi: 0.2 % or less, Zn: 0.2 % or less, and Sn: 0.2 % or less, with the balance being Fe and inevitable impurities; and a steel microstructure in which an area ratio of bainite phase with respect to the entire microstructure is more than 50 %, wherein the chemical composition satisfies the following Formula : 9.5 ≤ Cr / 52 + V / 50.9 + Nb / 92.9 + M × 10 3 ≤ 18.5 where M is a sum total of [W]/183.8, [Co]/58.9, [Hf]/178.5, [Zr]/91.2, and [Ti]/47.9, and parentheses [] represent a content of a corresponding element in the parentheses in mass %. a chemical composition containing, in mass%, C: 0.010 % or more and 0.100 % or less, Si: 1.00 % or less, Mn: 0.50 % or more and 3.00 % or less, P: 0.020 % or less, S: 0.060 % or less, Cr: 0.30 % or more and 0.90 % or less, Mo: 0.005 % or more and 0.200 % or less, V: 0.02 % or more and 0.50 % or less, Nb: 0.003 % or more and 0.150 % or less, Al: 0.005 % or more and 0.200 % or less, N: 0.0200 % or less, Sb: 0.0005 % or more and 0.0200 % or less, W: 0.3 % or less inclusive of 0 %, Co: 0.3 % or less inclusive of 0 %, Hf: 0.2 % or less inclusive of 0 %, Zr: 0.2 % or less inclusive of 0 %, and Ti: 0.1 % or less inclusive of 0 %, and optionally one or more selected from B: 0.0100 % or less, Cu: 0.3 % or less, Ni: 0.3 % or less, Pb: 0.2 % or less, Bi: 0.2 % or less, Zn: 0.2 % or less, and Sn: 0.2 % or less, with the balance being Fe and inevitable impurities; and a steel microstructure in which an area ratio of bainite phase with respect to the entire microstructure is more than 50 %, wherein the chemical composition satisfies the following Formula : 9.5 ≤ Cr / 52 + V / 50.9 + Nb / 92.9 + M × 10 3 ≤ 18.5 where M is a sum total of [W]/183.8, [Co]/58.9, [Hf]/178.5, [Zr]/91.2, and [Ti]/47.9, and parentheses [] represent a content of a corresponding element in the parentheses in mass %.
A combination comprising MEDI4736, or an antigen-binding fragment thereof, and tremelimumab, or an antigen-binding fragment thereof, for use in the treatment of NSCLC in a human patient, wherein MEDI-4736 is administered at 20 mg/kg every 4 weeks and tremelimumab is administered at 1 mg/kg to the patient.
A method for lens presence and condition detection using a light emitter and a light detector both aligned with the width of the lens, as opposed to the functional direction of the lens, the method comprising: emitting, using the light emitter, light that is directed to pass through the lens, the light directed at a first edge of the lens; detecting, using the light detector, an intensity of the light proximate an opposing, second edge of the lens; determining a presence of the lens based on the detected intensity of the light that passes through the lens; determining a condition of the lens based on the detected intensity of the light that passes through the lens; wherein the detected intensity of the light that passes through the lens depends on the presence and condition of the lens; and wherein determining the presence of the lens and determining the condition of the lens comprise using the lens, when present, as a waveguide which concentrates the light emitter's divergent light beams and produces a higher intensity light at the light detector than would otherwise if the lens was not present, wherein the highest intensity of the light that passes through the lens is detected when the lens is present and not damaged. emitting, using the light emitter, light that is directed to pass through the lens, the light directed at a first edge of the lens; detecting, using the light detector, an intensity of the light proximate an opposing, second edge of the lens; determining a presence of the lens based on the detected intensity of the light that passes through the lens; determining a condition of the lens based on the detected intensity of the light that passes through the lens; wherein the detected intensity of the light that passes through the lens depends on the presence and condition of the lens; and wherein determining the presence of the lens and determining the condition of the lens comprise using the lens, when present, as a waveguide which concentrates the light emitter's divergent light beams and produces a higher intensity light at the light detector than would otherwise if the lens was not present, wherein the highest intensity of the light that passes through the lens is detected when the lens is present and not damaged.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one longitudinal groove , in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm , wherein said wiper blade includes opposing longitudinal grooves on its longitudinal sides, in which grooves spaced-apart longitudinal strips of the carrier element are disposed, wherein said grooves are open towards their longitudinal sides that face away from each other, and wherein each groove is defined by a longitudinal web of said wiper blade located between said two opposing grooves and by two longitudinal, laterally extending shoulders of said wiper blade , wherein longitudinal walls of said shoulders facing towards said strips are provided with a noise dampening profile along at least a part of their length, characterized in that wherein said noise dampening profile comprises several ribs engaging said strips , and wherein adjacent ribs define a noise trapping chamber , wherein in cross-sectional view of said wiper blade said chamber has a trapezoidal form, or wherein in cross-sectional view of said wiper blade said chamber has a curved form.
A chemical mechanical polishing composition comprising: a water based liquid carrier; a first colloidal silica abrasive dispersed in the liquid carrier, the first colloidal silica abrasive having a permanent positive charge of at least 10 mV; a second colloidal silica abrasive dispersed in the liquid carrier, the second colloidal silica abrasive having a permanent positive charge of at least 10 mV; and an iron containing accelerator; wherein an average particle size of the second colloidal silica abrasive is at least 20 nanometers greater than an average particle size of the first colloidal silica abrasive, and wherein the first colloidal silica abrasive and the second colloidal silica abrasive comprise colloidal silicas in which 50 percent or more of the colloidal silica abrasive particles include two or more aggregated primary particles. a water based liquid carrier; a first colloidal silica abrasive dispersed in the liquid carrier, the first colloidal silica abrasive having a permanent positive charge of at least 10 mV; a second colloidal silica abrasive dispersed in the liquid carrier, the second colloidal silica abrasive having a permanent positive charge of at least 10 mV; and an iron containing accelerator; wherein an average particle size of the second colloidal silica abrasive is at least 20 nanometers greater than an average particle size of the first colloidal silica abrasive, and wherein the first colloidal silica abrasive and the second colloidal silica abrasive comprise colloidal silicas in which 50 percent or more of the colloidal silica abrasive particles include two or more aggregated primary particles.
A photoelectrochemical reaction device, comprising: an electrolytic solution; an oxidation electrode layer immersed in the electrolytic solution; a reduction electrode layer immersed in the electrolytic solution; and a photovoltaic layer having a first face electrically connected to the oxidation electrode layer and a second face electrically connected to the reduction electrode layer, and performing charge separation by energy of light irradiated on the first face or the second face, wherein the reduction electrode layer includes a conductive layer having a porous structure with a fine pore distribution of 5 μm or more and 10 μm or less; and a reduction catalyst layer stacked on the conductive layer, the reduction catalyst layer having a porous structure with a fine pore distribution of 5 nm or more and 100 nm or less and containing fine particles of a reduction catalyst of 100 nm or less, the fine particles of the reduction catalyst are selected from Au, Ag, Cu, Pt, Ni, Zn and Pd. an electrolytic solution; an oxidation electrode layer immersed in the electrolytic solution; a reduction electrode layer immersed in the electrolytic solution; and a photovoltaic layer having a first face electrically connected to the oxidation electrode layer and a second face electrically connected to the reduction electrode layer, and performing charge separation by energy of light irradiated on the first face or the second face, a conductive layer having a porous structure with a fine pore distribution of 5 μm or more and 10 μm or less; and a reduction catalyst layer stacked on the conductive layer, the reduction catalyst layer having a porous structure with a fine pore distribution of 5 nm or more and 100 nm or less and containing fine particles of a reduction catalyst of 100 nm or less, the fine particles of the reduction catalyst are selected from Au, Ag, Cu, Pt, Ni, Zn and Pd.
A method of constructing a three-dimensional model of an internal surface of a downhole tubular structure , comprising: obtaining image data from an area of the internal surface of the structure using a downhole camera tool; obtaining measured height profile data from the internal surface in a plurality of sub-regions of the area; determining image properties from the image data; determining a depth position of the image data and a depth position of the measured height profile data; correlating the measured height profile data with the image properties in the sub-regions ; and constructing expected height profile data for at least part of the area outside the sub-regions using (a) the correlation between the measured height profile data and the image properties in the sub-regions and (b) the image properties outside the sub-regions ; wherein correlating the measured height profile data with the image properties comprises matching the depth position of the measured height profile data to the depth position of the image data. obtaining image data from an area of the internal surface of the structure using a downhole camera tool; obtaining measured height profile data from the internal surface in a plurality of sub-regions of the area; determining image properties from the image data; determining a depth position of the image data and a depth position of the measured height profile data; correlating the measured height profile data with the image properties in the sub-regions ; and constructing expected height profile data for at least part of the area outside the sub-regions using (a) the correlation between the measured height profile data and the image properties in the sub-regions and (b) the image properties outside the sub-regions ; wherein correlating the measured height profile data with the image properties comprises matching the depth position of the measured height profile data to the depth position of the image data.