mhurhangee/ep-ind-claims huggingface dataset:
A surface-emitting laser array comprising a plurality of light emitting parts, each of the plurality of light emitting parts having a structure of a shape of a mesa and including: a first reflection mirror including aluminum gallium arsenide (Al x Ga (1-x) As) where x is greater than 0.95 but less than or equal to 1; a resonator structure provided on the first reflection mirror and including a first spacer layer, an active layer, and a second spacer layer; a second reflection mirror provided on the second spacer layer; and an electrode surrounding an emission region, from which laser light is emitted, the electrode covering a region between mesas of adjacent light emitting parts in the plurality of light emitting parts, characterized in that the electrode has a thickness greater than or equal to 2 μm, and a thickness of the electrode at the region between the mesas is greater than or equal to a height of the mesas. a first reflection mirror including aluminum gallium arsenide (Al x Ga (1-x) As) where x is greater than 0.95 but less than or equal to 1; a resonator structure provided on the first reflection mirror and including a first spacer layer, an active layer, and a second spacer layer; a second reflection mirror provided on the second spacer layer; and an electrode surrounding an emission region, from which laser light is emitted, the electrode covering a region between mesas of adjacent light emitting parts in the plurality of light emitting parts, characterized in that the electrode has a thickness greater than or equal to 2 μm, and a thickness of the electrode at the region between the mesas is greater than or equal to a height of the mesas.
A collision avoidance assist apparatus comprising: a detection section that detects a relative speed between a vehicle and an object ahead; a brake section that brakes the vehicle so as to avoid the collision with the object ahead; characterized by a control section that sets a braking time that will be taken for the relative speed (Vr) to reach zero based on deceleration determined depending on a braking ability of the vehicle, and controls the brake section such that the braking of the vehicle is continued over the braking time. a detection section that detects a relative speed between a vehicle and an object ahead; a brake section that brakes the vehicle so as to avoid the collision with the object ahead; characterized by a control section that sets a braking time that will be taken for the relative speed (Vr) to reach zero based on deceleration determined depending on a braking ability of the vehicle, and controls the brake section such that the braking of the vehicle is continued over the braking time.
An apparatus comprising: a pressure generator configured to deliver a flow of air at a controllable treatment pressure above atmospheric to an airway of a patient via a patient interface over an air circuit; and a controller configured to: control the treatment pressure of the flow of air so as to apply paced breathing to the airway of the patient, and control the providing of biofeedback to the patient, wherein the biofeedback is matched to an interim breathing rate target of the paced breathing. a pressure generator configured to deliver a flow of air at a controllable treatment pressure above atmospheric to an airway of a patient via a patient interface over an air circuit; and a controller configured to: control the treatment pressure of the flow of air so as to apply paced breathing to the airway of the patient, and control the providing of biofeedback to the patient, wherein the biofeedback is matched to an interim breathing rate target of the paced breathing. control the treatment pressure of the flow of air so as to apply paced breathing to the airway of the patient, and control the providing of biofeedback to the patient, wherein the biofeedback is matched to an interim breathing rate target of the paced breathing.
A combination of therapeutically effective amounts of: (a) an isolated population of natural killer cells; and (b) an isolated antibody or an antigen-binding portion thereof that binds specifically to C-X-C Chemokine Receptor 4 (CXCR4) expressed on the surface of a cancer cell for use in a method for treating a subject afflicted with a cancer comprising administering to the subject the combination of the NK cells and the isolated antibody or antigen-binding portion thereof. (a) an isolated population of natural killer cells; and (b) an isolated antibody or an antigen-binding portion thereof that binds specifically to C-X-C Chemokine Receptor 4 (CXCR4) expressed on the surface of a cancer cell
A transparent diffusive OLED substrate comprising the following successive elements or layers: (a) a transparent flat substrate made of mineral glass having a refractive index n 1 of between 1.48 and 1.58, (b) a monolayer of mineral particles attached to one side of the substrate by means of a low index mineral binder having a refractive index n 2 of between 1.45 and 1.61, and (c) a high index layer made of an enamel having a refractive index n 4 comprised between 1.82 and 2.10 covering the monolayer of mineral particles, characterized by the mineral particles having a refractive index n 3 comprised between n 2 +0.08 and n 4 -0.08 and protruding from the low index mineral binder so as to be directly in contact with the high index layer, thereby forming a first diffusive interface (Di 1) between the mineral particles and the low index binder, and a second diffusive interface (Di 2) between the mineral particles and the high index layer. (a) a transparent flat substrate made of mineral glass having a refractive index n 1 of between 1.48 and 1.58, (b) a monolayer of mineral particles attached to one side of the substrate by means of a low index mineral binder having a refractive index n 2 of between 1.45 and 1.61, and (c) a high index layer made of an enamel having a refractive index n 4 comprised between 1.82 and 2.10 covering the monolayer of mineral particles,
A method for discovery in a wireless communications network (10a, 10b), the method being performed by a communications device, the method comprising the step of: wirelessly receiving, using a short-range communications technology, at least one beacon signal from at least one second wireless device in the wireless communications network; the method being characterized by further comprising the steps of: determining timing information relating to the received at least one beacon signal, determining an identity associated with the at least one second wireless device based on the received at least one beacon signal, and wirelessly transmitting to at least one first wireless device, using the short-range communications technology, information relating to the received at least one beacon signal in at least one message such as to allow for discovery of the at least one second wireless device, wherein the at least one message comprises said timing information and said identity. wirelessly receiving, using a short-range communications technology, at least one beacon signal from at least one second wireless device in the wireless communications network; the method being characterized by further comprising the steps of: determining timing information relating to the received at least one beacon signal, determining an identity associated with the at least one second wireless device based on the received at least one beacon signal, and wirelessly transmitting to at least one first wireless device, using the short-range communications technology, information relating to the received at least one beacon signal in at least one message such as to allow for discovery of the at least one second wireless device, determining timing information relating to the received at least one beacon signal, determining an identity associated with the at least one second wireless device based on the received at least one beacon signal, and wirelessly transmitting to at least one first wireless device, using the short-range communications technology, information relating to the received at least one beacon signal in at least one message such as to allow for discovery of the at least one second wireless device,
A method for determining an effect of process variation, the method comprising: receiving a layout which includes multiple instances of a pattern, wherein the pattern is designed to be electrically testable when printed; receiving a set of photolithography process models which model the photolithography process at different exposure and focus conditions; performing optical proximity correction on the layout to obtain a corrected layout, wherein each instance of the pattern in the layout is corrected using a different photolithography process model in the set of photolithography process models; printing the corrected layout on a wafer by subjecting the corrected layout to the photolithography process at nominal exposure and focus conditions; performing electrical tests on features on the wafer, wherein the features are associated with the instances of the pattern; and storing results of the electrical tests. receiving a layout which includes multiple instances of a pattern, wherein the pattern is designed to be electrically testable when printed; receiving a set of photolithography process models which model the photolithography process at different exposure and focus conditions; performing optical proximity correction on the layout to obtain a corrected layout, wherein each instance of the pattern in the layout is corrected using a different photolithography process model in the set of photolithography process models; printing the corrected layout on a wafer by subjecting the corrected layout to the photolithography process at nominal exposure and focus conditions; performing electrical tests on features on the wafer, wherein the features are associated with the instances of the pattern; and storing results of the electrical tests.
Arrangement for cooling a cabinet, the cabinet comprising a converter cell with a chamber for accommodating at least one heat dissipating device, a cooling duct located on the top of the converter cell, adjacent with the chamber and separated by a wall from the chamber for receiving heat from the chamber, a fan for transferring heat in the cooling duct out from the cabinet, a filtering device comprising at least one filter element, the filtering device arranged to the end of the cooling duct for filtering intake air, characterized in that a cross-sectional area of the filtering device is larger than a cross-sectional area of the cooling duct and in that the filtering device is fixed turnable by hinges or detachable for enabling to open the door of the chamber.
A fan blade for a gas turbine engine, comprising: a blade body extending from a blade root to a blade tip along a longitudinal axis, wherein the blade body defines a leading edge and a trailing edge, a first airfoil surface extending from the leading edge to the trailing edge; a pocket defined between the leading edge, the trailing edge, the blade root and the blade tip; a plurality of composite segments disposed in the pocket and adhered to a bottom surface of the pocket; characterised by: a clearance defined between each of the plurality of composite segments and between the plurality of composite segments and each of a leading edge side of the pocket, a pocket perimeter and a trailing edge side of the pocket; and a cover mounted to the composite segments and to the blade body to form a second airfoil surface, wherein said clearance is configured to provide flexibility to the cover. a blade body extending from a blade root to a blade tip along a longitudinal axis, wherein the blade body defines a leading edge and a trailing edge, a first airfoil surface extending from the leading edge to the trailing edge; a pocket defined between the leading edge, the trailing edge, the blade root and the blade tip; a plurality of composite segments disposed in the pocket and adhered to a bottom surface of the pocket; characterised by: a clearance defined between each of the plurality of composite segments and between the plurality of composite segments and each of a leading edge side of the pocket, a pocket perimeter and a trailing edge side of the pocket; and a cover mounted to the composite segments and to the blade body to form a second airfoil surface, wherein said clearance is configured to provide flexibility to the cover. a clearance defined between each of the plurality of composite segments and between the plurality of composite segments and each of a leading edge side of the pocket, a pocket perimeter and a trailing edge side of the pocket; and a cover mounted to the composite segments and to the blade body to form a second airfoil surface, wherein said clearance is configured to provide flexibility to the cover.
A nucleoside derivative or a salt thereof, represented by the following chemical formula: where in the chemical formula, Su is a sugar skeleton of a nucleoside residue or a sugar phosphate skeleton of a nucleotide residue, and may or may not have a protecting group, L 1 and L 2 are each independently a straight-chain or branched, saturated or unsaturated hydrocarbon group having 2 to 10 carbon atoms, X 1 and X 2 are each independently an imino group (-NR 1 -), an ether group (-O-), or a thioether group (-S-), and the R 1 is a hydrogen atom or a straight-chain or branched, saturated or unsaturated hydrocarbon group having 2 to 10 carbon atoms. Su is a sugar skeleton of a nucleoside residue or a sugar phosphate skeleton of a nucleotide residue, and may or may not have a protecting group, L 1 and L 2 are each independently a straight-chain or branched, saturated or unsaturated hydrocarbon group having 2 to 10 carbon atoms, X 1 and X 2 are each independently an imino group (-NR 1 -), an ether group (-O-), or a thioether group (-S-), and the R 1 is a hydrogen atom or a straight-chain or branched, saturated or unsaturated hydrocarbon group having 2 to 10 carbon atoms.
A ventilation analysis system comprising: an interface module configured to receive an average partial pressure carbon dioxide (PCO 2) signal from a CO 2 sensor and a breath flow dynamics signal; wherein said CO 2 sensor is configured to provide discrete PCO 2 readings taken every 100 ms or more; and a control logic configured to determine a duty cycle of exhalation and inhalation based on said breath flow dynamics signal to calculate an average PCO 2 during exhalation based on said average PCO 2 signal and said duty cycle of exhalation and inhalation, and to construct a PCO 2 waveform based on said calculated average PCO 2 during exhalation and the duty cycle of exhalation and inhalation; wherein said PCO 2 waveform comprises a trapezoid comprising an upsurge curve, a gradually rising curve, a drop curve and a zero-value curve. an interface module configured to receive an average partial pressure carbon dioxide (PCO 2) signal from a CO 2 sensor and a breath flow dynamics signal; wherein said CO 2 sensor is configured to provide discrete PCO 2 readings taken every 100 ms or more; and a control logic configured to determine a duty cycle of exhalation and inhalation based on said breath flow dynamics signal to calculate an average PCO 2 during exhalation based on said average PCO 2 signal and said duty cycle of exhalation and inhalation, and to construct a PCO 2 waveform based on said calculated average PCO 2 during exhalation and the duty cycle of exhalation and inhalation; wherein said PCO 2 waveform comprises a trapezoid comprising an upsurge curve, a gradually rising curve, a drop curve and a zero-value curve.
An extruded biodegradable intraocular implant comprising a biodegradable polymer matrix and a protein associated with the biodegradable polymer matrix, wherein the biodegradable polymer matrix comprises a first poly(D,L-lactide-co-glycolide) and a second poly(D,L-lactide-co-glycolide), the first poly(D,L-lactide-co-glycolide) having an ester end group and a D,L-lactide:glycolide ratio of 75:25, and the second poly(D,L-lactide-co-glycolide) having an acid end group and a D,L-lactide:glycolide ratio of 50:50, wherein the implant provides continuous release of the protein in a biologically active form for at least two months after placement of the implant in an eye of a mammal.
A process for preparing alcohols by electrochemical reductive coupling of an aromatic vinyl compound and a carbonyl compound, which comprises electrolyzing an electrolyte solution in an electrochemical cell, the electrolyte solution containing less than 5 % by weight of water and comprising the aromatic vinyl compound, the carbonyl compound and a non-aqueous protic solvent, wherein the electrolyte solution is in contact with a carbon-based cathode.
A method for preparing an oil to be supplied to the cylinders of a two-stroke crosshead engine with crossheads, pistons in cylinder liners and with a crankcase lubrication system operating with system oil, said method comprising: determining or estimating an actual cylinder liner temperature; determining an actual desired viscosity for the oil to be supplied to the cylinders at the determined actual cylinder liner temperature; withdrawing system oil from the crankcase lubrication system and/or providing a base oil; preparing an oil for supplying to the cylinders by blending said system oil and/or base oil with a TBN agent; and adjusting a viscosity of the prepared oil to the actual desired viscosity by blending the prepared oil with a viscosity agent to obtain a viscosity adjusted oil. determining or estimating an actual cylinder liner temperature; determining an actual desired viscosity for the oil to be supplied to the cylinders at the determined actual cylinder liner temperature; withdrawing system oil from the crankcase lubrication system and/or providing a base oil; preparing an oil for supplying to the cylinders by blending said system oil and/or base oil with a TBN agent; and adjusting a viscosity of the prepared oil to the actual desired viscosity by blending the prepared oil with a viscosity agent to obtain a viscosity adjusted oil.
A fine silver particle dispersion, which comprises: fine silver particles, a short chain amine having 5 or less carbon atoms, a highly polar solvent, and a protective dispersant having an acid value, characterised in that a partition coefficient logP of the short chain amine is -1.0 to 1.4, the short chain amine is an alkoxyamine, and the protective dispersant has a functional group derived from a phosphoric acid. fine silver particles, a short chain amine having 5 or less carbon atoms, a highly polar solvent, and a protective dispersant having an acid value, characterised in that a partition coefficient logP of the short chain amine is -1.0 to 1.4, the short chain amine is an alkoxyamine, and the protective dispersant has a functional group derived from a phosphoric acid.
A system for converting sensory data to haptic effects, comprising: a memory (124, 126) storing video data and sensor data, the video data including an image associated with an object, the sensor data measuring a movement of a sensor located on the object, the sensor data being acquired concurrently with the video data; a processor, coupled to the memory (124, 126), configured to read the sensor data from the memory (124, 126), receive a sensor type from a user input device or the sensor, receive a sensor position on the object from the user input device, select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; a haptic output device, coupled to the processor, configured to receive the haptic signal and generate the haptic effect based on the haptic signal; and a display, coupled to the processor, configured to display the selected scene synchronized with the haptic effect generated by the haptic output device. a memory (124, 126) storing video data and sensor data, the video data including an image associated with an object, the sensor data measuring a movement of a sensor located on the object, the sensor data being acquired concurrently with the video data; a processor, coupled to the memory (124, 126), configured to read the sensor data from the memory (124, 126), receive a sensor type from a user input device or the sensor, receive a sensor position on the object from the user input device, select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; read the sensor data from the memory (124, 126), receive a sensor type from a user input device or the sensor, receive a sensor position on the object from the user input device, select an algorithm for generating a haptic effect from a plurality of algorithms based on the sensor type and the sensor position, each algorithm being configured to generate a different haptic effect for a particular sensor type and sensor position, create a haptic signal based on the sensor data and the selected algorithm, and transmit the haptic signal; a haptic output device, coupled to the processor, configured to receive the haptic signal and generate the haptic effect based on the haptic signal; and a display, coupled to the processor, configured to display the selected scene synchronized with the haptic effect generated by the haptic output device.