mhurhangee/patent-ind-claim-en huggingface dataset:
An intraocular lens material comprising: - a base material; - a hydrophilic structural unit based on a hydrophilic monomer; and - a cross-linking structural unit based on a cross-linkable monomer, wherein the base material consists of: - an aromatic ring-containing acrylate structural unit, wherein the aromatic ring-containing acrylate structural unit is a phenoxyethyl acrylate structural unit; - an alkoxyalkyl methacrylate structural unit including an alkoxyalkyl group having 4 or less carbon atoms, wherein the alkoxyalkyl methacrylate structural unit is an ethoxyethyl methacrylate structural unit; and - optionally, an alkyl acrylate structural unit including an alkyl group having 1 to 20 carbon atoms, wherein the alkyl acrylate structural unit is an ethyl acrylate structural unit. - a base material; - a hydrophilic structural unit based on a hydrophilic monomer; and - a cross-linking structural unit based on a cross-linkable monomer, wherein the base material consists of: - an aromatic ring-containing acrylate structural unit, wherein the aromatic ring-containing acrylate structural unit is a phenoxyethyl acrylate structural unit; - an alkoxyalkyl methacrylate structural unit including an alkoxyalkyl group having 4 or less carbon atoms, wherein the alkoxyalkyl methacrylate structural unit is an ethoxyethyl methacrylate structural unit; and - optionally, an alkyl acrylate structural unit including an alkyl group having 1 to 20 carbon atoms, wherein the alkyl acrylate structural unit is an ethyl acrylate structural unit. - an aromatic ring-containing acrylate structural unit, wherein the aromatic ring-containing acrylate structural unit is a phenoxyethyl acrylate structural unit; - an alkoxyalkyl methacrylate structural unit including an alkoxyalkyl group having 4 or less carbon atoms, wherein the alkoxyalkyl methacrylate structural unit is an ethoxyethyl methacrylate structural unit; and - optionally, an alkyl acrylate structural unit including an alkyl group having 1 to 20 carbon atoms, wherein the alkyl acrylate structural unit is an ethyl acrylate structural unit.
A method for detecting an approach of an operator, an arrangement being used, having a sensor analysis and control circuit , a reference electrode , which is coupled to the sensor analysis and control circuit , a sensor electrode , coupled to the sensor analysis and control circuit , of a capacitive sensor for detecting an approach of an object , the sensor analysis and control circuit being constructed for detecting the capacitance between sensor electrode and reference electrode , an adjustment electrode arranged between the sensor electrode and the reference electrode , which is coupled to the control circuit in order to adjust the potential of the shield electrode, having the steps: detecting measurement data relating to the capacitance of the sensor electrode with respect to the reference electrode with the aid of the sensor analysis and control circuit , characterized by the steps: analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement. detecting measurement data relating to the capacitance of the sensor electrode with respect to the reference electrode with the aid of the sensor analysis and control circuit , characterized by the steps: analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement. analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement.
A photomask blank which is to be processed into a photomask suitable for pattern transfer using exposure light of wavelength 250 nm or below, comprising a transparent substrate and a chromium-containing film disposed on the substrate, directly or through an optical film , wherein said chromium-containing film is constituted by two or more chromium compound layers , each chromium compound layer being formed of a chromium compound containing chromium and nitrogen, or chromium, nitrogen and oxygen, and having a composition with a chromium content of at least 30 at% and a total content of chromium, nitrogen and oxygen of at least 93 at%, and meeting formula : 3Cr ≤ 2O + 3N wherein Cr is chromium content (at%), O is oxygen content (at%) and N is nitrogen content (at%), the chromium-containing film has a sheet resistance of not more than 10 000 Ω/□, and wherein the chromium compound layers include at least one chromium compound layer having a first composition with the atomic ratio of nitrogen/chromium of at least 0.95, chromium content of at least 40 at%, total content of chromium and nitrogen of at least 80 at%, and oxygen content of up to 10 at%, and the total thickness of said one or more chromium compound layers having said first composition is more than 70% and up to 100% of the overall thickness of the chromium-containing film. said chromium-containing film is constituted by two or more chromium compound layers , each chromium compound layer being formed of a chromium compound containing chromium and nitrogen, or chromium, nitrogen and oxygen, and having a composition with a chromium content of at least 30 at% and a total content of chromium, nitrogen and oxygen of at least 93 at%, and meeting formula : 3Cr ≤ 2O + 3N wherein Cr is chromium content (at%), O is oxygen content (at%) and N is nitrogen content (at%), the chromium-containing film has a sheet resistance of not more than 10 000 Ω/□, and wherein the chromium compound layers include at least one chromium compound layer having a first composition with the atomic ratio of nitrogen/chromium of at least 0.95, chromium content of at least 40 at%, total content of chromium and nitrogen of at least 80 at%, and oxygen content of up to 10 at%, and the total thickness of said one or more chromium compound layers having said first composition is more than 70% and up to 100% of the overall thickness of the chromium-containing film.
A garment comprising at least one fastener on its back side, the fastener being manufactured by forming a band-like part , on a first part of a rear piece of the garment , and by forming, on a second part of the rear piece, substantially at a height corresponding to a height at which the band-like part is attached to the first part of the rear piece , at least one incision , whose height substantially corresponds with the width of the band-like part characterised in that the fastener is manufactured by forming a band-like part , on a first part of a rear piece of the garment , wherein the band-like part is formed from the same panel as the first part of the rear piece by cutting a band-like part along the vertical side of the first part of the rear piece. the fastener being manufactured by forming a band-like part , on a first part of a rear piece of the garment , and by forming, on a second part of the rear piece, substantially at a height corresponding to a height at which the band-like part is attached to the first part of the rear piece , at least one incision , whose height substantially corresponds with the width of the band-like part characterised in that the fastener is manufactured by forming a band-like part , on a first part of a rear piece of the garment , wherein the band-like part is formed from the same panel as the first part of the rear piece by cutting a band-like part along the vertical side of the first part of the rear piece.
An enzyme granule, comprising a mixture of a laccase and a buffer, wherein the reserve alkalinity of the granulate is at least 0.3 g NaOH per 100 g granulate; wherein a 1% w/w aqueous solution/suspension of the granule has a pH in the range from 8 to 11; and wherein the laccase is an enzyme according to EC 1.10.3.2.
A rotor blade for a wind turbine , comprising: a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint , each of the first and second blade segments comprising at least one shell member defining an airfoil surface and an internal support structure , the first blade segment defining a first pre-bend in a flap-wise direction, the second blade segment defining a different, second pre-bend in the flap-wise direction, the first and second pre-bends provide an overall pre-bend in the flap-wise direction away from a tower of the wind turbine that allows for a predetermined deflection of the rotor blade towards the tower , characterized in that the first blade segment is a blade tip segment and in that the first pre-bend is greater than the second pre-bend . a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint , each of the first and second blade segments comprising at least one shell member defining an airfoil surface and an internal support structure , the first blade segment defining a first pre-bend in a flap-wise direction, the second blade segment defining a different, second pre-bend in the flap-wise direction, the first and second pre-bends provide an overall pre-bend in the flap-wise direction away from a tower of the wind turbine that allows for a predetermined deflection of the rotor blade towards the tower , characterized in that the first blade segment is a blade tip segment and in that the first pre-bend is greater than the second pre-bend .
A solid-state imaging device comprising: a plurality of pixel sets each including color filters of a same color, for a plurality of colors, each pixel set including a plurality of spatially contiguous pixels , each pixel including a plurality of photoelectric conversion parts (PD), the pixels being two-dimensionally arrayed in a pixel array , wherein of the plurality of pixels included in each pixel set , the photoelectric conversion parts (PD) of a first pixel are exposed for a first exposure time, the photoelectric conversion parts of a second pixel are exposed for a second exposure time shorter than the first exposure time, pixel signals generated in the plurality of photoelectric conversion parts (PD) of the first pixel exposed for the first exposure time are output simultaneously, and pixel signals generated in the plurality of photoelectric conversion parts (PD) of the second pixel exposed for the second exposure time are output separately. a plurality of pixel sets each including color filters of a same color, for a plurality of colors, each pixel set including a plurality of spatially contiguous pixels , each pixel including a plurality of photoelectric conversion parts (PD), the pixels being two-dimensionally arrayed in a pixel array , wherein of the plurality of pixels included in each pixel set , the photoelectric conversion parts (PD) of a first pixel are exposed for a first exposure time, the photoelectric conversion parts of a second pixel are exposed for a second exposure time shorter than the first exposure time, pixel signals generated in the plurality of photoelectric conversion parts (PD) of the first pixel exposed for the first exposure time are output simultaneously, and pixel signals generated in the plurality of photoelectric conversion parts (PD) of the second pixel exposed for the second exposure time are output separately.
Niraparib or a salt thereof for use in a method of treating prostate cancer in a human in need of such treatment comprising administering to the human a therapeutically effective amount of niraparib, wherein the human is carrying at least one DNA repair anomaly selected from the group consisting of BRCA-1 and BRCA-2.
A position detection unit for detecting a position of an actuating element arranged inside a housing of a clutch actuator of a vehicle clutch , comprising: a magnetic encoder element that is provided on the actuating element , inside the housing of the clutch actuator , a sensor that is provided outside the housing of the clutch actuator and is configured and arranged so as to have a detection space inside which the sensor is able to detect a position of the magnetic encoder element within a predefined range of motion of the magnetic encoder element , and a protective device that is configured to prevent ferritic swarf attracted by the magnetic encoder element from accumulating inside the detection space , characterised in that, due to its dimensions in conjunction with a material having a predefined magnetic permeability, the protective device is configured to allow the ferritic swarf to accumulate outside the detection space , or the protective device has a magnet that is arranged outside the detection space , and this magnet is configured to attract the ferritic swarf in order to prevent the ferritic swarf from accumulating inside the detection space , in particular by providing the magnet with a sufficiently strong magnetic force. a magnetic encoder element that is provided on the actuating element , inside the housing of the clutch actuator , a sensor that is provided outside the housing of the clutch actuator and is configured and arranged so as to have a detection space inside which the sensor is able to detect a position of the magnetic encoder element within a predefined range of motion of the magnetic encoder element , and a protective device that is configured to prevent ferritic swarf attracted by the magnetic encoder element from accumulating inside the detection space , characterised in that, due to its dimensions in conjunction with a material having a predefined magnetic permeability, the protective device is configured to allow the ferritic swarf to accumulate outside the detection space , or the protective device has a magnet that is arranged outside the detection space , and this magnet is configured to attract the ferritic swarf in order to prevent the ferritic swarf from accumulating inside the detection space , in particular by providing the magnet with a sufficiently strong magnetic force.
A method for determining a stickiness temperature of a resin, comprising: adding resin to a testing device comprising an agitator; adding an induced condensing agent (ICA) to the testing device ; running the agitator, wherein the agitator is a mixing blade rotated at a constant rate; and increasing the temperature of the resin and the ICA in the testing device until a value of a torque used to run the agitator exceeds a torque limit, wherein when the torque limit is exceeded the agitator stops, indicating the stickiness temperature of the resin. adding resin to a testing device comprising an agitator; adding an induced condensing agent (ICA) to the testing device ; running the agitator, wherein the agitator is a mixing blade rotated at a constant rate; and increasing the temperature of the resin and the ICA in the testing device until a value of a torque used to run the agitator exceeds a torque limit, wherein when the torque limit is exceeded the agitator stops, indicating the stickiness temperature of the resin.
A method for determining locations of individual fluorescent dye molecules coupled to a structure in a sample comprising the method steps of - sequential illumination of an individual, spatially isolated fluorescent dye molecule by an intensity distribution of an excitation light comprising a local intensity minimum or by an intensity distribution of an excitation light and an intensity distribution of a fluorescence-preventing light comprising a local intensity minimum and substantially complementary to the intensity distribution of the excitation light at a sequence of different scan positions of the local intensity minimum for exciting the fluorescent dye molecule to emit fluorescence light ; - detecting the number of fluorescence photons of the fluorescence light and assigning the number of fluorescence photons to the respective scan position at each step of the sequence ; - determining the location of the fluorescent dye molecule from the set of associated numbers of fluorescence photons and scan positions with an accuracy below a dimension of a diffraction-limited volume in a spatial direction; characterized in that during the illumination of the sample the magnitude of a disturbance is determined and that a weighting factor is assigned to each element of the set of associated numbers of fluorescence photons and scan positions , the value of which is determined from the magnitude of the disturbance during the detection of the fluorescence photons at the respective scan position , and in that the elements of the set of assigned numbers of fluorescence photons and scan positions are taken into account in accordance with their weighting factor when determining the location of the fluorescent dye molecule . - sequential illumination of an individual, spatially isolated fluorescent dye molecule by an intensity distribution of an excitation light comprising a local intensity minimum or by an intensity distribution of an excitation light and an intensity distribution of a fluorescence-preventing light comprising a local intensity minimum and substantially complementary to the intensity distribution of the excitation light at a sequence of different scan positions of the local intensity minimum for exciting the fluorescent dye molecule to emit fluorescence light ; - detecting the number of fluorescence photons of the fluorescence light and assigning the number of fluorescence photons to the respective scan position at each step of the sequence ; - determining the location of the fluorescent dye molecule from the set of associated numbers of fluorescence photons and scan positions with an accuracy below a dimension of a diffraction-limited volume in a spatial direction;
An air filtration unit comprising: an air duct , said air duct comprising an air inlet at a first end and an air outlet at a second end; a high efficiency particulate air filter oriented proximate to the air inlet; an airflow controller in communication with the air inlet; a carbon dioxide sensor in communication with the airflow controller; a pressure sensor in communication with the airflow controller; an ultraviolet light reactor , the ultraviolet light reactor comprising; a plurality of baffles , each having a plurality of airflow spaces allowing airflow therethrough, disposed at spaced locations within the duct between the air inlet and air outlet, the baffles being generally transverse to the longitudinal axis; a plurality of ultraviolet light emitting diodes mounted on each baffle; a porous and permeable photocatalytic oxidation filter module disposed between each pair of baffles, generally transverse to the longitudinal axis, such that air flows through the photocatalytic oxidation filter module; a porous and permeable nitrous oxide-adsorbing filter disposed downstream of the ultraviolet light reactor; and wherein each photocatalytic oxidation filter module contains one or more catalysts comprising titanium dioxide (TiO 2 ), TiO 2 doped with iron (Fe-TiO 2 ), TiO 2 doped with carbon (C-TiO 2 ), or combinations thereof which, when illuminated by ultraviolet light, are operative to chemically reduce volatile organic compounds to non-volatile organic compounds. an air duct , said air duct comprising an air inlet at a first end and an air outlet at a second end; a high efficiency particulate air filter oriented proximate to the air inlet; an airflow controller in communication with the air inlet; a carbon dioxide sensor in communication with the airflow controller; a pressure sensor in communication with the airflow controller; an ultraviolet light reactor , the ultraviolet light reactor comprising; a plurality of baffles , each having a plurality of airflow spaces allowing airflow therethrough, disposed at spaced locations within the duct between the air inlet and air outlet, the baffles being generally transverse to the longitudinal axis; a plurality of ultraviolet light emitting diodes mounted on each baffle; a porous and permeable photocatalytic oxidation filter module disposed between each pair of baffles, generally transverse to the longitudinal axis, such that air flows through the photocatalytic oxidation filter module; a porous and permeable nitrous oxide-adsorbing filter disposed downstream of the ultraviolet light reactor; and wherein each photocatalytic oxidation filter module contains one or more catalysts comprising titanium dioxide (TiO 2 ), TiO 2 doped with iron (Fe-TiO 2 ), TiO 2 doped with carbon (C-TiO 2 ), or combinations thereof which, when illuminated by ultraviolet light, are operative to chemically reduce volatile organic compounds to non-volatile organic compounds.
Mobile apparatus comprising a main frame with displacing means , a rotating sub-frame rotatably connected to the main frame, such that the sub-frame is rotatable around a rotation axis (A) relative to the main frame, and a working arm connected to the sub-frame, wherein the sub-frame is provided with a standing or seating position for an operator, said working arm comprising at least two arm segments, wherein a first arm segment of the at least two arm segments is pivotally connected to the sub-frame around a pivot point located at a distance of the rotation axis, and wherein the first arm segment and the sub-frame are configured such that the first arm segment can be moved rearwards onto the sub-frame in the direction of the rotation axis to a rearward position in which the first segment extends over the rotation axis characterized in that the first arm segment is arranged in front of the standing or seating position, substantially centrally in front of the standing or seating position.
A computer implemented method for frame pacing in a rendering process, the method comprising: estimating, for each graphics processing unit "GPU" of a plurality of GPUs, a frame rendering time, wherein the frame rendering time is an estimate of how long each GPU takes to render a frame; determining a delay based on the estimated frame rendering time for each of the plurality of GPUs; and inserting the delay into the rendering process to render frames in an evenly spaced temporal manner, characterized in that the delay is implemented in a kernel mode driver, and wherein the delay is signalled by a dummy schedulable engine in the kernel mode driver to each GPU to cause a wait time in the rendering process. estimating, for each graphics processing unit "GPU" of a plurality of GPUs, a frame rendering time, wherein the frame rendering time is an estimate of how long each GPU takes to render a frame; determining a delay based on the estimated frame rendering time for each of the plurality of GPUs; and inserting the delay into the rendering process to render frames in an evenly spaced temporal manner, characterized in that the delay is implemented in a kernel mode driver, and wherein the delay is signalled by a dummy schedulable engine in the kernel mode driver to each GPU to cause a wait time in the rendering process.