mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscope , comprising: a shaft having a longitudinal axis, a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; a tubular member having a lumen , wherein the tubular member includes a distal portion that is bendable relative to a proximal portion of the tubular member , the lumen having a distal-end opening and the distal portion of the tubular member defining a longitudinal axis through a center of the lumen , the tubular member being movable between a first configuration and a second configuration; and a medical device positioned within the tubular member ; wherein in the first configuration of the tubular member , the longitudinal axis of the distal portion of the tubular member is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member , the longitudinal axis of the distal portion of the tubular member extends through a lateral opening in a wall of the shaft, wherein the wall of the shaft includes a distal-facing indentation configured to receive and secure the medical device relative to the wall of the shaft, such that the medical device can be pressed between a wall of the distal portion of the tubular member and the indentation . a shaft having a longitudinal axis, a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; a tubular member having a lumen , wherein the tubular member includes a distal portion that is bendable relative to a proximal portion of the tubular member , the lumen having a distal-end opening and the distal portion of the tubular member defining a longitudinal axis through a center of the lumen , the tubular member being movable between a first configuration and a second configuration; and a medical device positioned within the tubular member ; wherein in the first configuration of the tubular member , the longitudinal axis of the distal portion of the tubular member is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member , the longitudinal axis of the distal portion of the tubular member extends through a lateral opening in a wall of the shaft, wherein the wall of the shaft includes a distal-facing indentation configured to receive and secure the medical device relative to the wall of the shaft, such that the medical device can be pressed between a wall of the distal portion of the tubular member and the indentation .
Method for evaluating a filling state of a load bearing means by means of a monitoring system comprising a sensing module ; said load bearing means adapted for being carried by a transport unit ; said load bearing means comprising a loading space ; said sensing module situated in proximity to said load bearing means and outside of said loading space ; said sensing module comprising an emitter , a receiver , an evaluator and a memory comprising calibration data ; said sensing module configured for carrying out the steps of: - generating an emitted sound wave by means of said emitter ; - converting a reflected sound wave in a reflected signal by means of said receiver ; and - evaluating said filling state indicative of the loading space being filled or not by means of said evaluator based on at least said calibration data and said reflected signal ; wherein said evaluator is further configured for extracting a resonant frequency of the reflected sound wave; wherein evaluating the filling state is based on at least comparing said resonant frequency to the calibration data ; and whereby said load bearing means is a cargo vessel for holding cargo; characterized in that a spacing (S) between said emitter and said receiver does not exceed 200 mm, preferably does not exceed 100 mm; and wherein a maximum dimension (M) of said load bearing means , preferably a length (M) of said load bearing means , is not smaller than 4 m, preferably not smaller than 6 m. - generating an emitted sound wave by means of said emitter ; - converting a reflected sound wave in a reflected signal by means of said receiver ; and - evaluating said filling state indicative of the loading space being filled or not by means of said evaluator based on at least said calibration data and said reflected signal ; wherein said evaluator is further configured for extracting a resonant frequency of the reflected sound wave; wherein evaluating the filling state is based on at least comparing said resonant frequency to the calibration data ; and whereby said load bearing means is a cargo vessel for holding cargo; characterized in that a spacing (S) between said emitter and said receiver does not exceed 200 mm, preferably does not exceed 100 mm; and wherein a maximum dimension (M) of said load bearing means , preferably a length (M) of said load bearing means , is not smaller than 4 m, preferably not smaller than 6 m.
A lens moving apparatus comprising: a base including a body having an opening, and a first post , a second post , a third post and a fourth post , which project from the body ; a bobbin disposed on the body ; a coil disposed at the bobbin ; a first magnet (130-1) disposed between the first post and the second post ; a second magnet (130-2) disposed between the third post and the fourth post ; a lower elastic member coupled both to a lower portion of the bobbin and to the base ; and an upper elastic member coupled both to an upper portion of the bobbin and to the first to fourth posts , wherein the first magnet (130-1) is coupled to side surfaces of the first and second posts , and the second magnet (130-2) is coupled to side surfaces of the third and fourth posts , wherein the lower elastic member is positioned inside the first to fourth posts of the base , and wherein the lower elastic member is coupled to the base between the first post and the fourth post , which is adjacent to the first post . a base including a body having an opening, and a first post , a second post , a third post and a fourth post , which project from the body ; a bobbin disposed on the body ; a coil disposed at the bobbin ; a first magnet (130-1) disposed between the first post and the second post ; a second magnet (130-2) disposed between the third post and the fourth post ; a lower elastic member coupled both to a lower portion of the bobbin and to the base ; and an upper elastic member coupled both to an upper portion of the bobbin and to the first to fourth posts , wherein the first magnet (130-1) is coupled to side surfaces of the first and second posts , and the second magnet (130-2) is coupled to side surfaces of the third and fourth posts , wherein the lower elastic member is positioned inside the first to fourth posts of the base , and wherein the lower elastic member is coupled to the base between the first post and the fourth post , which is adjacent to the first post .
Support fitting for a movable leaf of a window or a door , wherein the support fitting can be arranged between a leaf and a fixed frame of the window or door , and wherein the support fitting has a spring element , wherein the support fitting has a support arm , wherein the support arm has booms which extend in an elongate manner, are angled relative to one another and are pivotable about a common center of rotation , wherein the booms are rigidly fixable to one another, or the support arm is formed in one piece, wherein a first end of the support arm is connected to a first end of the spring element , wherein the support fitting has a first rail , which can be connected to the leaf or fixed frame , wherein the support arm is connected to the first rail via the rotary spindle and the region of a second end of the spring element is arranged on the first rail , in particular pivotably, wherein the support fitting has a second rail , which can be arranged on the fixed frame or on the leaf , wherein the support arm in the region of a second end is pivotably arranged on the second rail and wherein the support fitting has two spreader arms between the first rail and the second rail , wherein the support arm is arranged between the spreader arms , wherein the support arm is rotatably mountable by 180° perpendicularly to the rotary spindle which extends through the center of rotation , so that both a right-opening support fitting and also a left-opening support fitting can be achieved with the same components of the support fitting .
A process for the treatment of a hydrophobic surface by a liquid film comprising an aqueous phase, said process comprising the coating of said surface by the liquid whose aqueous phase comprises: - an effective amount of an agent of modification of the properties of surface chosen from tris(2-ethylhexyl) phosphate, tris(2-butoxyethyl) phosphate, di(2-ethylhexyl) phosphate, mono(2-ethylhexyl) phosphate, tris(2-isooctyl) phosphate, tricresylphosphate, cresyldiphenylphosphate, trixylilphosphate, triphenylphosphate, tributyl phosphate, triethyl phosphate, or tri(2-chloroethyl)phosphate, and - a mineral oxide surface active agent, wherein the agent of modification of the properties of surface is adsorbed on the active agent, acting as an inert mineral support, and wherein the hydrophobic surface to be treated is PVC, polyethylene terephtalate, polycarbonate, polyamide, polyolefin, polyethylene, polypropylene, human skin, human hair, natural fibers, synthetic fibers, crockery or metal objects. - an effective amount of an agent of modification of the properties of surface chosen from tris(2-ethylhexyl) phosphate, tris(2-butoxyethyl) phosphate, di(2-ethylhexyl) phosphate, mono(2-ethylhexyl) phosphate, tris(2-isooctyl) phosphate, tricresylphosphate, cresyldiphenylphosphate, trixylilphosphate, triphenylphosphate, tributyl phosphate, triethyl phosphate, or tri(2-chloroethyl)phosphate, and - a mineral oxide surface active agent,
Pressure measuring device for measuring pressure in a biological system , comprising a flexibly or resiliently designed measuring cell holder and consisting of at least one optical waveguide, which comprises a first end which is close to the evaluation unit, and a second end which is remote from the evaluation unit, characterised in that , in the measuring cell holder , there are at least two fibre Bragg grating sensors which are arranged at a distance from one another, and wherein a Fabry-Perot interferometer is arranged in the end which is remote from the evaluation unit, which interferometer is composed of at least one end of the second end which is remote from the evaluation unit of the measuring cell holder and at least one mirrored membrane 24 which can be deformed, wherein the Fabry-Perot interferometer can be evaluated in the same wavelength window as the fibre Bragg grating sensors .
A fuel spray nozzle , for atomising liquid fuel in a gas, comprising: a gas passage ; a liquid fuel passage ; a swirler provided in the gas passage and comprising vanes such that, when gas passes through the gas passage , the swirler produces a jet flow of gas from between adjacent vanes and a turbulent flow of gas in the wake of each vane ; a prefilming surface configured to receive liquid fuel from the liquid fuel passage , and to receive gas from the gas passage , wherein the prefilming surface comprises areas that, in use, receive jet flow of gas from the gas passage ; wherein the fuel spray nozzle comprises apertures for supplying liquid fuel to the liquid fuel passage , and is configured to direct 50% or more of the liquid fuel passing through the apertures and the liquid fuel passage to the areas on the prefilming surface that receive, in use, the jet flow of gas from the gas passage , rather than the turbulent flow of gas in the wake of each vane . a gas passage ; a liquid fuel passage ; a swirler provided in the gas passage and comprising vanes such that, when gas passes through the gas passage , the swirler produces a jet flow of gas from between adjacent vanes and a turbulent flow of gas in the wake of each vane ; a prefilming surface configured to receive liquid fuel from the liquid fuel passage , and to receive gas from the gas passage , wherein the prefilming surface comprises areas that, in use, receive jet flow of gas from the gas passage ; wherein the fuel spray nozzle comprises apertures for supplying liquid fuel to the liquid fuel passage , and is configured to direct 50% or more of the liquid fuel passing through the apertures and the liquid fuel passage to the areas on the prefilming surface that receive, in use, the jet flow of gas from the gas passage , rather than the turbulent flow of gas in the wake of each vane .
Method for charging an electrochemical rechargeable battery cell with charge pulse control (PL), the pulses (PL) being controlled in voltage regulation in the form of voltage levels (Pt) of variable amplitude, characterized in what it consists of calculating the value (Ut+1) of each voltage level (Pt+1) in relation to the value (Ut) of the previous voltage level (Pt) and as a function of a progression variable ( Var) representative of the variation in the internal resistance of the cell (d(R)/dt), during a period finalizing at the previous level (Pt), relative to a predetermined tolerated variation threshold (α), where said variable Var Equals : Var = dR dt − α Where: Var is the progression variable, d(R)/dt is the variation in the internal resistance of the cell, and α the predetermined tolerated variation threshold.
Insulation part for the insulated holding of an electrically conductive nozzle on a laser processing head , the insulation part having an annular, electrically insulating body which has a central through-opening for a working laser beam path , characterized in that it has a ferromagnetic body .
A light emitting device outputting white light having a Correlated Color Temperature, the light emitting device comprising: an LED emitting blue or near-UV light; a first phosphor excited by the light emitted by the LED and/or by light emitted by another phosphor excited by the LED and in response emitting green or greenish-yellow light; and a second phosphor excited by the light emitted by the LED, by the light emitted by the first phosphor, and/or by light emitted by another phosphor excited by the LED, and in response emitting red light, the second phosphor having a luminescence efficiency that is constant or approximately constant with excitation power; wherein the second phosphor comprises Mn 4+ ions at a concentration of 5*10 18 / centimeter3 to 5*10 20 / centimeter 3 in an optically homogenous layer disposed on the LED, and wherein the first phosphor is in the optically homogenous layer disposed on the LED or in a second optically homogenous layer disposed on the optically homogenous layer that is disposed on the LED; wherein emission power from the first phosphor increases linearly or approximately linearly with emission power from the LED; and wherein as emission power from the LED increases, emission power from the second phosphor saturates as a result of ground state depletion of the second phosphor and the second phosphor transmits an increasing fraction of the light impinging on it, thereby causing the Correlated Color Temperature of the white light to increase as output power from the light emitting device increases. an LED emitting blue or near-UV light; a first phosphor excited by the light emitted by the LED and/or by light emitted by another phosphor excited by the LED and in response emitting green or greenish-yellow light; and a second phosphor excited by the light emitted by the LED, by the light emitted by the first phosphor, and/or by light emitted by another phosphor excited by the LED, and in response emitting red light, the second phosphor having a luminescence efficiency that is constant or approximately constant with excitation power; wherein the second phosphor comprises Mn 4+ ions at a concentration of 5*10 18 / centimeter3 to 5*10 20 / centimeter 3 in an optically homogenous layer disposed on the LED, and wherein the first phosphor is in the optically homogenous layer disposed on the LED or in a second optically homogenous layer disposed on the optically homogenous layer that is disposed on the LED; wherein emission power from the first phosphor increases linearly or approximately linearly with emission power from the LED; and wherein as emission power from the LED increases, emission power from the second phosphor saturates as a result of ground state depletion of the second phosphor and the second phosphor transmits an increasing fraction of the light impinging on it, thereby causing the Correlated Color Temperature of the white light to increase as output power from the light emitting device increases.
A computer-implemented method of providing a digital representation of an orthodontic template for positioning an object on a patient's tooth, the method comprising: obtaining a digital tooth model of the patient's tooth; positioning a virtual object on the digital tooth model at a location on the tooth; scaling the digital tooth model; superimposing the scaled digital tooth model over the original digital tooth model; providing the digital representation of the orthodontic template for positioning a said object on the patient's tooth, wherein the digital representation is based on the scaled digital tooth model and the original digital tooth model. obtaining a digital tooth model of the patient's tooth; positioning a virtual object on the digital tooth model at a location on the tooth; scaling the digital tooth model; superimposing the scaled digital tooth model over the original digital tooth model; providing the digital representation of the orthodontic template for positioning a said object on the patient's tooth, wherein the digital representation is based on the scaled digital tooth model and the original digital tooth model.
A method comprising: receiving a message from a telecommunications device , the message including at least a mobile telephone number and a globally unique identifier GUID, for the telecommunications device that identify communication paths available for use by the telecommunications device , the message received by a server using a communication path associated with the GUID; transmitting a code to the telecommunications device in response to the message using a communication path associated with the mobile telephone number; receiving a hash from the telecommunications device that is based at least in part on the code, the mobile telephone number, and the GUID, and used to authenticate a relationship between the mobile telephone number and the GUID; determining whether the hash is correct; and mapping the mobile telephone number to the GUID when the hash is correct, the mapping to create an operation that forwards communications initially directed to the mobile telephone number to be directed to the GUID. receiving a message from a telecommunications device , the message including at least a mobile telephone number and a globally unique identifier GUID, for the telecommunications device that identify communication paths available for use by the telecommunications device , the message received by a server using a communication path associated with the GUID; transmitting a code to the telecommunications device in response to the message using a communication path associated with the mobile telephone number; receiving a hash from the telecommunications device that is based at least in part on the code, the mobile telephone number, and the GUID, and used to authenticate a relationship between the mobile telephone number and the GUID; determining whether the hash is correct; and mapping the mobile telephone number to the GUID when the hash is correct, the mapping to create an operation that forwards communications initially directed to the mobile telephone number to be directed to the GUID.
A press-formed product of a steel sheet having a body including a transverse cross section of a substantial channel shape, a substantial hat shape or a shape resulting from a combination of the substantial channel shape and the substantial hat shape, and extending in a direction, the transverse cross section including a bottom portion and a shoulder portion that is contiguous to the bottom portion through an R end characterized in that , a first region from the R end to a position a predetermined distance away in a direction in which the bottom portion extends, and a second region that is a part of the bottom portion and is contiguous to the first region in the transverse cross section have a work-hardening distribution, at the shoulder portion , a front side of the steel sheet has tensile stress and a back side of the steel sheet has compressive stress, at both ends of the cross-section of the shoulder portion , the front side of the steel sheet has compressive stress and the back side of the steel sheet has tensile stress, the work-hardening distribution: average hardness Hv1 of an area of the first region from a surface of the steel sheet to a position with a depth obtained by multiplying a thickness of the steel sheet by 0.2 and average hardness Hv2 of an area of the second region from the surface of the steel sheet to the position with the depth obtained by multiplying the thickness of the steel sheet by 0.2 satisfy a relationship of Hv1 > 1.05 × Hv2. a first region from the R end to a position a predetermined distance away in a direction in which the bottom portion extends, and a second region that is a part of the bottom portion and is contiguous to the first region in the transverse cross section have a work-hardening distribution, at the shoulder portion , a front side of the steel sheet has tensile stress and a back side of the steel sheet has compressive stress, at both ends of the cross-section of the shoulder portion , the front side of the steel sheet has compressive stress and the back side of the steel sheet has tensile stress, the work-hardening distribution: average hardness Hv1 of an area of the first region from a surface of the steel sheet to a position with a depth obtained by multiplying a thickness of the steel sheet by 0.2 and average hardness Hv2 of an area of the second region from the surface of the steel sheet to the position with the depth obtained by multiplying the thickness of the steel sheet by 0.2 satisfy a relationship of Hv1 > 1.05 × Hv2.
A set of N security symbols (5,6; 105,106,110; 205,206,210; 305,306; 405,406), each security symbol forming on its own an authentication mark different from those formed by the other security symbols, being characterized in that the various security symbols are conformed to form conjointly by superposition of the N security symbols an N+1 th authentication mark (9; 112; 212; 309; 509) unrelated to the other N authentication marks each formed by a respective one of the N security symbols.
A selectable drive printing device comprising: a feedshaft to selectively drive a print drive system and a scan drive system ; and a shifter to selectively shift a drive selector assembly of the selectable drive printing device between a scanning system drive position wherein the scan drive system is driven and a printing system drive position wherein the print drive system is driven, characterised in that the shifter is coaxially and rotatably coupled around the feedshaft , the shifter comprising a friction finger formed to bias the shifter in a rotational direction of the feedshaft ; and in that the shifter selectively drives the print drive system and the scan drive system based on an angular position of the shifter about the feedshaft. a feedshaft to selectively drive a print drive system and a scan drive system ; and a shifter to selectively shift a drive selector assembly of the selectable drive printing device between a scanning system drive position wherein the scan drive system is driven and a printing system drive position wherein the print drive system is driven, characterised in that the shifter is coaxially and rotatably coupled around the feedshaft , the shifter comprising a friction finger formed to bias the shifter in a rotational direction of the feedshaft ; and in that the shifter selectively drives the print drive system and the scan drive system based on an angular position of the shifter about the feedshaft.