mhurhangee/patent-ind-claim-en huggingface dataset:
A method for aborting blocked bus access between a master controller and connected peripherals communicating via a bus protocol, the method comprising the following steps: - an interrupt event message is sent to the master controller for starting an interrupt service routine, whereas the interrupt event message is also sent to a connected peripheral , which blocks the bus , - the master controller jumps into the interrupt service routine and - the peripheral aborts its bus access and unblocks the bus by sending an abort interrupt message to the master controller , and - the master controller accesses the unblocked bus for serving the interrupt service routine, and - after leaving the interrupt service routine the master controller jumps back to a main routine. - an interrupt event message is sent to the master controller for starting an interrupt service routine, whereas the interrupt event message is also sent to a connected peripheral , which blocks the bus , - the master controller jumps into the interrupt service routine and - the peripheral aborts its bus access and unblocks the bus by sending an abort interrupt message to the master controller , and - the master controller accesses the unblocked bus for serving the interrupt service routine, and - after leaving the interrupt service routine the master controller jumps back to a main routine.
A method of controlling a cooking process in a cooking device , in which a specific heat input, which is a heat flow per surface of the food being cooked, into a product to be cooked is determined, this specific heat input is integrated over the cooking time, and the cooking process is terminated when this heat flow integral reaches a predetermined value, wherein the specific heat input is determined from the product of an assumed heat transfer coefficient α for the current cooking process and a driving temperature difference, which is the difference between a cooking medium temperature T M and a temperature T o which represents the surface temperature of the product to be cooked, wherein the predetermined value of the heat flow integral at which the cooking process is terminated has been determined experimentally in advance.
A tool for arranging voice coil leadouts in a microspeaker, comprising: a mandrel having a top surface on which a bobbin and voice coil of the microspeaker can be positioned during formation of helicoidal leadout regions of a microspeaker voice coil; a bobbin alignment feature at a top region of, and adjacent the top surface of, the mandrel, the bobbin alignment feature constructed and arranged for positioning at an inner diameter of the bobbin; a sleeve alignment element at a bottom region of the bobbin alignment feature, the sleeve alignment element having a first surface on which a sleeve of the microspeaker can be positioned during the formation of the voice coil helicoidal leadout regions; and a gluing ring positioned about the mandrel and on a second surface of the sleeve alignment element, the gluing ring constructed and arranged for providing guide paths for distal ends of the helicoidal leadout regions extending in a direction from the mandrel to the sleeve alignment element. a mandrel having a top surface on which a bobbin and voice coil of the microspeaker can be positioned during formation of helicoidal leadout regions of a microspeaker voice coil; a bobbin alignment feature at a top region of, and adjacent the top surface of, the mandrel, the bobbin alignment feature constructed and arranged for positioning at an inner diameter of the bobbin; a sleeve alignment element at a bottom region of the bobbin alignment feature, the sleeve alignment element having a first surface on which a sleeve of the microspeaker can be positioned during the formation of the voice coil helicoidal leadout regions; and a gluing ring positioned about the mandrel and on a second surface of the sleeve alignment element, the gluing ring constructed and arranged for providing guide paths for distal ends of the helicoidal leadout regions extending in a direction from the mandrel to the sleeve alignment element.
A wiper seal having a central axis (A) along which a shaft of a medical instrument extends during use, the wiper seal comprising: an outer perimeter portion; an inner sealing portion; and a flex portion between the outer perimeter portion and the inner sealing portion, wherein: the inner sealing portion is thicker relative to the flex portion and includes an angled upper annular face and an angled lower annular face characterised in that said angled upper annular face and said angled lower annular face meet to form an annular seal lip that seals around an outer surface of the shaft during use; and wherein an angle (α) formed between the central axis (A) and the angled upper annular face and an angle (β) formed between the central axis (A) and the angled lower annular face are both acute angles. an outer perimeter portion; an inner sealing portion; and a flex portion between the outer perimeter portion and the inner sealing portion, wherein: the inner sealing portion is thicker relative to the flex portion and includes an angled upper annular face and an angled lower annular face characterised in that said angled upper annular face and said angled lower annular face meet to form an annular seal lip that seals around an outer surface of the shaft during use; and wherein an angle (α) formed between the central axis (A) and the angled upper annular face and an angle (β) formed between the central axis (A) and the angled lower annular face are both acute angles. the inner sealing portion is thicker relative to the flex portion and includes an angled upper annular face and an angled lower annular face characterised in that said angled upper annular face and said angled lower annular face meet to form an annular seal lip that seals around an outer surface of the shaft during use; and wherein an angle (α) formed between the central axis (A) and the angled upper annular face and an angle (β) formed between the central axis (A) and the angled lower annular face are both acute angles.
Method for manufacturing a laminated glazing comprising a first and a second glass sheet (2; 3) bonded to each other by an adhesive interlayer , characterized in that it comprises the operations consisting of - pairing the first and second glass sheets (2; 3) while they are flat and then setting them down in a relative position close to the position they are intended to occupy in the laminated glazing , in a printing station, using a gripping tool which moves one glass sheet (2; 3) with respect to the other glass sheet (3; 2) only in the direction perpendicular to their main surface, the face of the first glass sheet oriented toward the second glass sheet comprising a first printed pattern ; - using a camera to measure the position of the first printed pattern of the first glass sheet ; - positioning a robot having one or more printheads in the printing station relative to the measurement of the position of the first printed pattern , validating its position with respect to the first and second glass sheets (2; 3) and printing a second printed pattern on the face of the second glass sheet which is opposite the first glass sheet ; and - setting down the first and second glass sheets (2; 3) in a bending oven using a gripping tool which moves one glass sheet (2; 3) with respect to the other glass sheet (3; 2) only in the direction perpendicular to their main surface. - pairing the first and second glass sheets (2; 3) while they are flat and then setting them down in a relative position close to the position they are intended to occupy in the laminated glazing , in a printing station, using a gripping tool which moves one glass sheet (2; 3) with respect to the other glass sheet (3; 2) only in the direction perpendicular to their main surface, the face of the first glass sheet oriented toward the second glass sheet comprising a first printed pattern ; - using a camera to measure the position of the first printed pattern of the first glass sheet ; - positioning a robot having one or more printheads in the printing station relative to the measurement of the position of the first printed pattern , validating its position with respect to the first and second glass sheets (2; 3) and printing a second printed pattern on the face of the second glass sheet which is opposite the first glass sheet ; and - setting down the first and second glass sheets (2; 3) in a bending oven using a gripping tool which moves one glass sheet (2; 3) with respect to the other glass sheet (3; 2) only in the direction perpendicular to their main surface.
An ophthalmologic microscope comprising: an illuminating optical system for illuminating a subject's eye ; an observation optical system that comprises an observation optical system for left eye and an observation optical system for right eye to observe the subject's eye illuminated by the illuminating optical system; an objective lens through which an optical axis of the observation optical system for left eye (O-400L) and an optical axis of the observation optical system for right eye (O-400R) of the observation optical system commonly penetrate; and an OCT optical system comprising a light path of a measuring light for testing the subject's eye by Optical Coherence Tomography and a deflection optical element configured to scan the measuring light, wherein the observation optical system , the objective lens , and the OCT optical system are placed in such a way that the optical axis of the OCT optical system (O-500) does not penetrate through the objective lens through which the optical axis of the observation optical system (O-400) penetrates, it further comprises, aside from the objective lens , an objective lens for OCT through which the optical axis of the OCT optical system (O-500) penetrates, and the deflection optical element and the objective lens for OCT are in a substantially optically conjugate positional relation, characterized in that the illuminating optical system , and the observation optical system are accommodated in an ophthalmologic microscope body , and the OCT optical system is accommodated in a function expansion unit , and ophthalmologic microscope body and the function expansion unit are detachably coupled by a joint. an illuminating optical system for illuminating a subject's eye ; an observation optical system that comprises an observation optical system for left eye and an observation optical system for right eye to observe the subject's eye illuminated by the illuminating optical system; an objective lens through which an optical axis of the observation optical system for left eye (O-400L) and an optical axis of the observation optical system for right eye (O-400R) of the observation optical system commonly penetrate; and an OCT optical system comprising a light path of a measuring light for testing the subject's eye by Optical Coherence Tomography and a deflection optical element configured to scan the measuring light, wherein the observation optical system , the objective lens , and the OCT optical system are placed in such a way that the optical axis of the OCT optical system (O-500) does not penetrate through the objective lens through which the optical axis of the observation optical system (O-400) penetrates, it further comprises, aside from the objective lens , an objective lens for OCT through which the optical axis of the OCT optical system (O-500) penetrates, and the deflection optical element and the objective lens for OCT are in a substantially optically conjugate positional relation,
A passive temperature-sensing apparatus, the apparatus comprising a capacitive sensing element that comprises a capacitive sensing composition that includes a ferroelectric ceramic material that exhibits a measurable electrical Curie temperature, below which the ferroelectric ceramic material exhibits ferroelectric behavior and above which the ferroelectric ceramic material exhibits paraelectric behavior, that is below 30 degrees C and that is chosen from the group consisting of BaM x Ti 1-x O 3 , where M = Zr or Sn and where 0.1 ≤ x ≤ 0.8, and wherein the capacitive sensing composition exhibits a negative slope of capacitance versus temperature over the temperature range of from 30 degrees C to 150 degrees C, and wherein the capacitive sensing element is a capacitive element of an L-C circuit and is in thermal communication with a portion of a high voltage power cable.
A computer-implemented method for optimizing efficiency of a water purification apparatus comprising a fluid circuit including a Reverse Osmosis, RO, unit, providing a permeate flow and producing a reject flow, and an electrically controlled deionization unit downstream the RO unit receiving at least part of the permeate flow and producing a reject flow, the method comprising: - obtaining (S1), using an electrical meter that measures or reacts to current and/or voltage passed from a power control unit to the electrically controlled deionization unit, a value indicative of power consumption by the electrically controlled deionization unit; - determining (S2) whether the obtained value meets at least one criterion; and - controlling (S3), using a first valve unit , recirculation of reject water comprising a reject flow from the RO unit to an incoming flow of the RO unit and/or controlling (S3), using a second valve unit, recirculation of reject water comprising a reject flow from the electrically controlled deionization unit to the incoming flow of the RO unit, based on a result of the determining (S2), wherein the controlling (S3) comprises: - increasing (S3a1, S3a2) the recirculation of reject water in response to determining (S2) that the obtained value indicative of power consumption is below a first threshold, and/or - decreasing (S3b1, S3b2) the recirculation of reject water in response to determining (S2) that the obtained value indicative of power consumption is above a second threshold. - obtaining (S1), using an electrical meter that measures or reacts to current and/or voltage passed from a power control unit to the electrically controlled deionization unit, a value indicative of power consumption by the electrically controlled deionization unit; - determining (S2) whether the obtained value meets at least one criterion; and - controlling (S3), using a first valve unit , recirculation of reject water comprising a reject flow from the RO unit to an incoming flow of the RO unit and/or controlling (S3), using a second valve unit, recirculation of reject water comprising a reject flow from the electrically controlled deionization unit to the incoming flow of the RO unit, based on a result of the determining (S2), wherein the controlling (S3) comprises: - increasing (S3a1, S3a2) the recirculation of reject water in response to determining (S2) that the obtained value indicative of power consumption is below a first threshold, and/or - decreasing (S3b1, S3b2) the recirculation of reject water in response to determining (S2) that the obtained value indicative of power consumption is above a second threshold.
Method for the additive manufacturing of a three-dimensional component, in which regions of the respective component are designed with a device for performing a fused filament process, and other regions of the component are formed with a device for three-dimensional printing and characterised in that with the device for three-dimensional printing flaws, gussets or deviations from a predetermined geometry or dimensioning of the respective component, which have been detected by a sensor and which have been designed during design with the device , which has been designed to perform a fused filament process, are filled or levelled.
A cleaning liquid composition comprising: a transition metal compound represented by Chemical Formula 1 below; and a hydrocarbon-based solvent: in Chemical Formula 1, M is ruthenium or osmium, R 1 and R 2 are each independently a hydrogen atom or a substituent represented by Chemical Formula 2 below, at least one of R 1 or R 2 is a substituent represented by Chemical Formula 2 below, X 1 and X 2 are each independently a halogen atom, and Ph is a phenyl group, in Chemical Formula 2, R 3 and R 4 are each independently a C1-C10 alkyl group; or R 3 and R 4 are linked with each other to form a saturated or unsaturated 5-membered ring. a transition metal compound represented by Chemical Formula 1 below; and a hydrocarbon-based solvent: in Chemical Formula 1, M is ruthenium or osmium, R 1 and R 2 are each independently a hydrogen atom or a substituent represented by Chemical Formula 2 below, at least one of R 1 or R 2 is a substituent represented by Chemical Formula 2 below, X 1 and X 2 are each independently a halogen atom, and Ph is a phenyl group, in Chemical Formula 2, R 3 and R 4 are each independently a C1-C10 alkyl group; or R 3 and R 4 are linked with each other to form a saturated or unsaturated 5-membered ring.
A photovoltaic device comprising an absorber layer , wherein: the absorber layer comprises cadmium, tellurium, and selenium; the absorber layer is doped p-type with a Group V dopant and has a carrier concentration of the Group V dopant greater than 4×10 15 cm -3 ; the absorber layer has a central region , wherein the central region is the middle 50% of the absorber layer , which is offset by 25% of the thickness of the absorber layer from each of a first surface and a second surface of the absorber layer ; the absorber layer comprises oxygen in the central region of the absorber layer; the absorber layer comprises an alkali metal in the central region of the absorber layer; and a ratio of an atomic concentration of the alkali metal to an atomic concentration of the oxygen is at least 0.1 in the central region of the absorber layer . the absorber layer comprises cadmium, tellurium, and selenium; the absorber layer is doped p-type with a Group V dopant and has a carrier concentration of the Group V dopant greater than 4×10 15 cm -3 ; the absorber layer has a central region , wherein the central region is the middle 50% of the absorber layer , which is offset by 25% of the thickness of the absorber layer from each of a first surface and a second surface of the absorber layer ; the absorber layer comprises oxygen in the central region of the absorber layer; the absorber layer comprises an alkali metal in the central region of the absorber layer; and a ratio of an atomic concentration of the alkali metal to an atomic concentration of the oxygen is at least 0.1 in the central region of the absorber layer .
WHEEL FOR FURNITURE WITH MANUAL BRAKE comprising: - two lateral bearings with internal toothing which are connected by a tubular shaft , - an internal casing and a device for coupling the wheel, - a flat base with a rail for a horizontal displacement of the brake lever and - an outer lever for manual actuation, characterized in that - the wheel has a hollow O-shaped profile and - the flat base , the brake lever and the outer lever are located in the lower part of the wheel. - two lateral bearings with internal toothing which are connected by a tubular shaft , - an internal casing and a device for coupling the wheel, - a flat base with a rail for a horizontal displacement of the brake lever and - an outer lever for manual actuation, - the wheel has a hollow O-shaped profile and - the flat base , the brake lever and the outer lever are located in the lower part of the wheel.
A method of a User Equipment, in the following also referred to as UE, the method comprising: receiving a configuration of a preconfigured uplink resource, in the following also referred to as PUR, when the UE is in a RRC_CONNECTED state ; entering a RRC_IDLE state from the RRC_CONNECTED state ; performing a first transmission using the PUR when the UE is in the RRC_IDLE state ; entering the RRC_CONNECTED state again from the RRC_IDLE state ; suspending the configuration when the UE is in the RRC _CONNECTED state again, wherein the UE does not perform transmissions using the PUR if the configuration is suspended ; resuming the configuration when the UE enters the RRC_IDLE state again from the RRC_CONNECTED state , and performing a second transmission using the PUR when the UE is in the RRC_IDLE state again , the method characterized in that it further comprises releasing the configuration if the UE receives an indication in a system information to indicate that a serving cell does not support the PUR or to indicate that support of the PUR is turned off. receiving a configuration of a preconfigured uplink resource, in the following also referred to as PUR, when the UE is in a RRC_CONNECTED state ; entering a RRC_IDLE state from the RRC_CONNECTED state ; performing a first transmission using the PUR when the UE is in the RRC_IDLE state ; entering the RRC_CONNECTED state again from the RRC_IDLE state ; suspending the configuration when the UE is in the RRC _CONNECTED state again, wherein the UE does not perform transmissions using the PUR if the configuration is suspended ; resuming the configuration when the UE enters the RRC_IDLE state again from the RRC_CONNECTED state , and performing a second transmission using the PUR when the UE is in the RRC_IDLE state again , the method characterized in that it further comprises releasing the configuration if the UE receives an indication in a system information to indicate that a serving cell does not support the PUR or to indicate that support of the PUR is turned off.
A substrate for an organic electronic device (OED), comprising: a first polymer base layer ; an optical functional layer having a haze of 10 to 50% formed on the first polymer base layer ; a high refractive layer formed on the optical functional layer , wherein the high refractive layer has a structure in which a planarization layer formed on the optical functional layer and a second polymer base layer formed on the planarization layer are stacked; and a barrier layer formed on one or both surfaces of the first polymer base layer and the high refractive layer , and having a refractive index with respect to light with a wavelength of 633 nm of 1.45 or more, wherein both the first polymer base layer and the second polymer base layer include polyimide wherein the barrier layers are formed on one surface of the first polymer base layer and one surface of the second polymer base layer. a first polymer base layer ; an optical functional layer having a haze of 10 to 50% formed on the first polymer base layer ; a high refractive layer formed on the optical functional layer , wherein the high refractive layer has a structure in which a planarization layer formed on the optical functional layer and a second polymer base layer formed on the planarization layer are stacked; and a barrier layer formed on one or both surfaces of the first polymer base layer and the high refractive layer , and having a refractive index with respect to light with a wavelength of 633 nm of 1.45 or more, wherein both the first polymer base layer and the second polymer base layer include polyimide wherein the barrier layers are formed on one surface of the first polymer base layer and one surface of the second polymer base layer.
A method for manufacturing a sprue-bush , wherein a shaped part is located on a base part to manufacture the sprue-bush , the base part comprising a raw resin-flow path and a cooling medium-flow path , wherein, in the shaped part , a downstream raw resin-flow path portion is located and a downstream cooling medium-flow path portion is also located, the downstream raw resin-flow path portion corresponding to a downstream side region of a raw resin-flow path of the sprue-bush , the downstream cooling medium-flow path portion being positioned around the downstream raw resin-flow path portion and corresponding to a downstream side region of a cooling medium-flow path of the sprue-bush , and wherein the downstream cooling medium-flow path portion is located to surround the downstream raw resin-flow path portion ; wherein the shaped part is formed on the base part in accordance with a selective laser sintering method.