mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic imager for imaging electromagnetic radiation from an object including: - entrance optics for allowing the electromagnetic radiation to enter the electromagnetic imager , including an image plane onto which an image of the object is to be imaged between a thermally controlled electromagnetic radiation input window and laser diode transparent output window, separated by a small distance from each other in a range of 1 micrometer to 100 micrometer; wherein the output window and the input window are kept at different temperatures; - an unbalanced single-wavelength phase-shift laser diode interferometer , including direct modulation of the output wavelength of the laser diode by its injection current, the unbalanced interferometer having a measurement arm , wherein the thermally controlled electromagnetic radiation input window and laser diode transparent output window containing the image plane between the two windows is in the measurement arm , wherein at least the unbalanced interferometer is arranged in a vacuum chamber ; - a transformation layer , contained between the thermally controlled electromagnetic radiation input window and laser diode transparent output window, at the image plane , for transforming the electromagnetic radiation into a spatiotemporal variation of the refractive index of the transformation layer for causing spatiotemporal optical phase differences in the measurement arm of the unbalanced phase-shift interferometer representative of the image of the object , and wherein the transformation layer is a thin layer of a solid, a liquid, a gas, or any combination thereof. - entrance optics for allowing the electromagnetic radiation to enter the electromagnetic imager , including an image plane onto which an image of the object is to be imaged between a thermally controlled electromagnetic radiation input window and laser diode transparent output window, separated by a small distance from each other in a range of 1 micrometer to 100 micrometer; wherein the output window and the input window are kept at different temperatures; - an unbalanced single-wavelength phase-shift laser diode interferometer , including direct modulation of the output wavelength of the laser diode by its injection current, the unbalanced interferometer having a measurement arm , wherein the thermally controlled electromagnetic radiation input window and laser diode transparent output window containing the image plane between the two windows is in the measurement arm , wherein at least the unbalanced interferometer is arranged in a vacuum chamber ; - a transformation layer , contained between the thermally controlled electromagnetic radiation input window and laser diode transparent output window, at the image plane , for transforming the electromagnetic radiation into a spatiotemporal variation of the refractive index of the transformation layer for causing spatiotemporal optical phase differences in the measurement arm of the unbalanced phase-shift interferometer representative of the image of the object , and wherein the transformation layer is a thin layer of a solid, a liquid, a gas, or any combination thereof.
A distributed patient monitoring system with multiple device processors communicatively connected to each other and at least a first processor of the processors configured to perform a computer-implemented method comprising: detecting a beacon signal in the first processor when at least one radio frequency (RF) signal received from a beacon equals or exceeds a predefined signal strength threshold, the beacon signal being associated with and unique to a single patient; determining a proximity to the beacon in the first processor based on the beacon signal strength that was detected; issuing an action request to observe the patient from the first processor based on the beacon signal strength that was detected being equal to or exceeding the predefined signal strength threshold; waiting a predetermined time period to receive a response to the action request, regardless of subsequently-received beacon signals continuing to exceed or not exceed the predefined signal strength; receiving a response to the action request; and recording the response to the action request that was received. detecting a beacon signal in the first processor when at least one radio frequency (RF) signal received from a beacon equals or exceeds a predefined signal strength threshold, the beacon signal being associated with and unique to a single patient; determining a proximity to the beacon in the first processor based on the beacon signal strength that was detected; issuing an action request to observe the patient from the first processor based on the beacon signal strength that was detected being equal to or exceeding the predefined signal strength threshold; waiting a predetermined time period to receive a response to the action request, regardless of subsequently-received beacon signals continuing to exceed or not exceed the predefined signal strength; receiving a response to the action request; and recording the response to the action request that was received.
A user equipment, UE, comprising: a front surface including a display ; a rear surface including a cover ; a transceiver between the cover and the display , the transceiver configured to transmit signals supporting vertical polarization and horizontal polarization; and a plurality of electromagnetic strips proximate to the cover , the plurality of electromagnetic strips oriented to selectively tilt one of the horizontal polarization or the vertical polarization of the signals, wherein the electromagnetic strips are separated from each other by a space which is approximately the same width as each of the electromagnetic strips . a front surface including a display ; a rear surface including a cover ; a transceiver between the cover and the display , the transceiver configured to transmit signals supporting vertical polarization and horizontal polarization; and a plurality of electromagnetic strips proximate to the cover , the plurality of electromagnetic strips oriented to selectively tilt one of the horizontal polarization or the vertical polarization of the signals, wherein the electromagnetic strips are separated from each other by a space which is approximately the same width as each of the electromagnetic strips .
An ophthalmic lens comprising: - an organic substrate having a front main face and a rear main face, and - a multilayered interferential coating which is coated on at least one of the front main face and the rear main face, wherein the multilayered interferential coating comprises at least one graphene layer which is formed from a graphene monolayer or a bilayer of graphene, and which has a uniform thickness of between 0,1 nm to 1 nm. - an organic substrate having a front main face and a rear main face, and - a multilayered interferential coating which is coated on at least one of the front main face and the rear main face,
A method, comprising: receiving, via a first sensor , a signal representative of at least one of a manifold pressure, a manifold temperature, or a manifold mass flow rate of a manifold; deriving, via a manifold model using a differential equation system and the first sensor signal, a derived gas concentration measurement at a first manifold section of the manifold ; and applying the derived gas concentration measurement during operations of a gas engine , wherein the manifold is fluidly coupled to the gas engine . receiving, via a first sensor , a signal representative of at least one of a manifold pressure, a manifold temperature, or a manifold mass flow rate of a manifold; deriving, via a manifold model using a differential equation system and the first sensor signal, a derived gas concentration measurement at a first manifold section of the manifold ; and applying the derived gas concentration measurement during operations of a gas engine , wherein the manifold is fluidly coupled to the gas engine .
A method comprising: storing calibration data in a terminal , the calibration data comprising output backoff values corresponding to input backoff values for each of a first set of calibration frequencies; determining a normalized transmit power of the terminal for one or more transmit frequencies within a predetermined frequency range based, at least in part, on the calibration data; receiving an assigned frequency for use by the terminal to communicate with a gateway in a satellite communication system ; selecting a normalized transmit power corresponding to the assigned frequency; and transmitting uplink data from the terminal to the gateway using the normalized transmit power. storing calibration data in a terminal , the calibration data comprising output backoff values corresponding to input backoff values for each of a first set of calibration frequencies; determining a normalized transmit power of the terminal for one or more transmit frequencies within a predetermined frequency range based, at least in part, on the calibration data; receiving an assigned frequency for use by the terminal to communicate with a gateway in a satellite communication system ; selecting a normalized transmit power corresponding to the assigned frequency; and transmitting uplink data from the terminal to the gateway using the normalized transmit power.
A display device , comprising: a blue sub-pixel comprising a plurality of first light emitting units in a number of N1; a green sub-pixel comprising a plurality of second light emitting units in a number of N2; and a red sub-pixel comprising a plurality of third light emitting units in a number of N3, wherein N1<N2 and N1<N3. a blue sub-pixel comprising a plurality of first light emitting units in a number of N1; a green sub-pixel comprising a plurality of second light emitting units in a number of N2; and a red sub-pixel comprising a plurality of third light emitting units in a number of N3, wherein N1<N2 and N1<N3.
A polyvinyl chloride composition for powder molding, comprising: a polyvinyl chloride (A) having an average particle diameter of 50 μm or more and 500 μm or less; a polyvinyl chloride (B) having an average particle diameter of 0.01 μm or more and less than 50 μm; a plasticizer; and an alkyl phosphate, wherein an average polymerization degree of the polyvinyl chloride (A) is 1350 or more, the alkyl phosphate comprises a mono-alkyl phosphate, and the number of carbon atoms of an alkyl group in the alkyl phosphate is 5 or more, and a blending amount of the polyvinyl chloride (B) is 5 parts by mass or more and 40 parts by mass or less, a blending amount of the plasticizer is 110 parts by mass or more and 150 parts by mass or less, and a blending amount of the alkyl phosphate is 0.1 parts by mass or more and 3.0 parts by mass or less with respect to 100 parts by mass of the polyvinyl chloride (A), wherein the average particle diameter and the average polymerization degree are determined in accordance with the description. a polyvinyl chloride (A) having an average particle diameter of 50 μm or more and 500 μm or less; a polyvinyl chloride (B) having an average particle diameter of 0.01 μm or more and less than 50 μm; a plasticizer; and an alkyl phosphate, wherein an average polymerization degree of the polyvinyl chloride (A) is 1350 or more, the alkyl phosphate comprises a mono-alkyl phosphate, and the number of carbon atoms of an alkyl group in the alkyl phosphate is 5 or more, and a blending amount of the polyvinyl chloride (B) is 5 parts by mass or more and 40 parts by mass or less, a blending amount of the plasticizer is 110 parts by mass or more and 150 parts by mass or less, and a blending amount of the alkyl phosphate is 0.1 parts by mass or more and 3.0 parts by mass or less with respect to 100 parts by mass of the polyvinyl chloride (A), wherein the average particle diameter and the average polymerization degree are determined in accordance with the description.
An implantable medical device assembly comprising: a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a width defined from a first side thereof to a second side thereof, and a surface that extends along the length and across the width; an electrode protruding from the surface of the mounting structure at a location offset proximally from the distal end of the structure, and approximately centered between the first and second sides of the structure; and first and second tissue-penetrating fixation tines , characterised by each tine including a pre-formed V-shaped segment that extends away from the surface of the mounting structure, the segment of the first tine extending from the surface at a location adjacent to both the first side and the distal end of the structure, the segment of the second tine extending from the surface at a location adjacent to both the second side and the distal end of the structure, each segment including a piercing tip , and each segment being elastically deformable from a relaxed condition to an extended condition, the relaxed condition being that of the pre-formed V-shape, in which each segment extends toward the proximal end and the surface of the mounting structure so that each piercing tip is located adjacent to the electrode, and the extended condition being that in which each segment is straightened and extends distally away from the distal end of the mounting structure so that each piercing tip is located distal to the distal end of the structure. a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a width defined from a first side thereof to a second side thereof, and a surface that extends along the length and across the width; an electrode protruding from the surface of the mounting structure at a location offset proximally from the distal end of the structure, and approximately centered between the first and second sides of the structure; and first and second tissue-penetrating fixation tines , characterised by each tine including a pre-formed V-shaped segment that extends away from the surface of the mounting structure, the segment of the first tine extending from the surface at a location adjacent to both the first side and the distal end of the structure, the segment of the second tine extending from the surface at a location adjacent to both the second side and the distal end of the structure, each segment including a piercing tip , and each segment being elastically deformable from a relaxed condition to an extended condition, the relaxed condition being that of the pre-formed V-shape, in which each segment extends toward the proximal end and the surface of the mounting structure so that each piercing tip is located adjacent to the electrode, and the extended condition being that in which each segment is straightened and extends distally away from the distal end of the mounting structure so that each piercing tip is located distal to the distal end of the structure.
A liner panel assembly to be mounted to a support shell of a combustor for a gas turbine engine , the liner panel assembly comprising: a forward liner panel having a cold side and including an aft circumferential rail extending from the cold side ; an aft liner panel having a cold side and including a forward circumferential rail extending from the cold side ; wherein the circumferential rails are non-perpendicular with respect to the cold side ; wherein, when the forward liner panel and the aft liner panel are aligned, the aft circumferential rail of the forward liner panel is adjacent and parallel to the forward circumferential rail of the aft liner panel ; wherein an interface passage is formed between the aft circumferential rail of the forward liner panel and the forward circumferential rail of the aft liner panel ; wherein a multiple of effusion passages penetrate through each of the liner panels ; wherein each of the multiple of effusion passages of the forward liner panel is parallel to the aft circumferential rail of the forward liner panel ; wherein each of the multiple of effusion passages of the aft liner panel is parallel to the forward circumferential rail of the aft liner panel ; wherein the forward circumferential rail of the aft liner panel includes a discontinuous rail end surface of a distal end thereof, and wherein the discontinuous rail end surface is discontinuous and is only intermittently in contact with the respective support shell when mounted to said support shell , to provide for a flow of cooling air therethrough. a forward liner panel having a cold side and including an aft circumferential rail extending from the cold side ; an aft liner panel having a cold side and including a forward circumferential rail extending from the cold side ; wherein the circumferential rails are non-perpendicular with respect to the cold side ; wherein, when the forward liner panel and the aft liner panel are aligned, the aft circumferential rail of the forward liner panel is adjacent and parallel to the forward circumferential rail of the aft liner panel ; wherein an interface passage is formed between the aft circumferential rail of the forward liner panel and the forward circumferential rail of the aft liner panel ; wherein a multiple of effusion passages penetrate through each of the liner panels ; wherein each of the multiple of effusion passages of the forward liner panel is parallel to the aft circumferential rail of the forward liner panel ; wherein each of the multiple of effusion passages of the aft liner panel is parallel to the forward circumferential rail of the aft liner panel ; wherein the forward circumferential rail of the aft liner panel includes a discontinuous rail end surface of a distal end thereof, and wherein the discontinuous rail end surface is discontinuous and is only intermittently in contact with the respective support shell when mounted to said support shell , to provide for a flow of cooling air therethrough.
An optical coherence tomography instrument comprising: an eyepiece for receiving at least one eye of a user; at least one target display visible through said eyepiece ; a light source that outputs light that is directed through the eyepiece to the user's eye; an interferometer configured to produce optical interference using light reflected from the user's eye; an optical detector disposed so as to detect said optical interference; and electronics coupled to the target display and said detector and configured to provide an output based on optical coherence tomography measurements obtained using said interferometer, wherein said electronics are further configured to produce features on said target display of varying size and receive user responses to test the user's visual acuity, and wherein the optical coherence tomography instrument is configured to allow the user to self-administer an optical coherence tomography scan of the user's eye, said optical coherence tomography instrument comprising an auto-focus system which comprises adjustable optics , said adjustable optics configured to provide optical correction if said eye is in need of such correction. an eyepiece for receiving at least one eye of a user; at least one target display visible through said eyepiece ; a light source that outputs light that is directed through the eyepiece to the user's eye; an interferometer configured to produce optical interference using light reflected from the user's eye; an optical detector disposed so as to detect said optical interference; and electronics coupled to the target display and said detector and configured to provide an output based on optical coherence tomography measurements obtained using said interferometer, wherein said electronics are further configured to produce features on said target display of varying size and receive user responses to test the user's visual acuity, and wherein the optical coherence tomography instrument is configured to allow the user to self-administer an optical coherence tomography scan of the user's eye, said optical coherence tomography instrument comprising an auto-focus system which comprises adjustable optics , said adjustable optics configured to provide optical correction if said eye is in need of such correction.
A hydraulic pumping system for use with a subterranean well, the system comprising: a hydraulic actuator including a generally tubular cylinder , a piston sealingly and reciprocably disposed in the cylinder , and a piston rod connected to the piston , wherein the piston rod displaces relative to the cylinder in response to a pressure differential across the piston ; a first seal assembly that seals about the piston rod and is exposed to the pressure in the hydraulic actuator ; and a second seal assembly that seals about the piston rod and is exposed to pressure in the well, the second seal assembly including multiple separate seal cartridges , each of the seal cartridges including a dynamic seal that slidingly and sealingly engages the piston rod , wherein the second seal assembly is positioned in an annular seal housing , wherein disconnection of the hydraulic actuator from the annular seal housing provides access to the second seal assembly , and wherein the piston rod connects to a rod string below the first and second seal assemblies . a hydraulic actuator including a generally tubular cylinder , a piston sealingly and reciprocably disposed in the cylinder , and a piston rod connected to the piston , wherein the piston rod displaces relative to the cylinder in response to a pressure differential across the piston ; a first seal assembly that seals about the piston rod and is exposed to the pressure in the hydraulic actuator ; and a second seal assembly that seals about the piston rod and is exposed to pressure in the well, the second seal assembly including multiple separate seal cartridges , each of the seal cartridges including a dynamic seal that slidingly and sealingly engages the piston rod , wherein the second seal assembly is positioned in an annular seal housing , wherein disconnection of the hydraulic actuator from the annular seal housing provides access to the second seal assembly , and wherein the piston rod connects to a rod string below the first and second seal assemblies .
Agricultural wire-tensioning element comprising a first portion assembled to a second portion along a common rectilinear axis (X-X) in order to allow the mutual rotation around said axis, wherein said agricultural wire-tensioning element is characterized by the fact, that said rotation being constrained in a single direction for each portion by means of an engagement between a toothed radial ring of said first portion and a mirror-like toothed radial ring of said second portion, whose respective teeth (25;36) are radially inclined with respect to said axis (X-X) according to a single direction so as to form a shape coupling between the teeth of the first and of the second portion.