mhurhangee/patent-ind-claim-en huggingface dataset:
A headset comprising a first earpiece , where the earpiece is configured to be arranged at least partly in an ear of a user, where the earpiece comprises: - a heart rate measurement unit for measuring the heart rate in or at the ear of the user; - a receiving member comprising a through hole, wherein the through hole is configured for accommodating a detachable speaker unit of the headset ; and - a detachable speaker unit which is configured to be attached and detached from the through hole of the receiving member of the earpiece ; wherein the through hole of the receiving member is circular and wherein the speaker unit is circular and wherein the inner diameter of the through hole of the receiving member matches the outer diameter of the speaker unit ; wherein an inner surface of the receiving member comprises one or more first electrical connection parts and wherein an outer surface of the speaker unit comprises one or more second electrical connection parts , and wherein the first electrical connection parts and the second electrical connection parts are configured to be arranged opposite and/or facing each other, when the speaker unit is attached in the receiving member thereby providing an electrical connection between the speaker unit and the earpiece . - a heart rate measurement unit for measuring the heart rate in or at the ear of the user; - a receiving member comprising a through hole, wherein the through hole is configured for accommodating a detachable speaker unit of the headset ; and - a detachable speaker unit which is configured to be attached and detached from the through hole of the receiving member of the earpiece ;
Therapy device for treating left-side respectively right-side body parts, comprising a single-piece base plate having a left-side surface respectively a right-side surface , a moving segment having a support surface for a left-side or right-side body part to be treated, and a drive for pivoting the moving segment back and forth relative to the base plate , wherein the moving segment is directly fastened to the base plate so as to be pivotable about an axis of rotation, and wherein the left-side surface of the base plate respectively the right-side surface of the base plate respectively is shaped to support a left-side body portion respectively a right-side body portion which are associated with a left-side body part respectively a right-side body part to be treated, characterized in that the base plate has a hollow interior in which the drive is arranged. a single-piece base plate having a left-side surface respectively a right-side surface , a moving segment having a support surface for a left-side or right-side body part to be treated, and a drive for pivoting the moving segment back and forth relative to the base plate , wherein the moving segment is directly fastened to the base plate so as to be pivotable about an axis of rotation, and wherein the left-side surface of the base plate respectively the right-side surface of the base plate respectively is shaped to support a left-side body portion respectively a right-side body portion which are associated with a left-side body part respectively a right-side body part to be treated, characterized in that the base plate has a hollow interior in which the drive is arranged.
A porous component for an electronic cigarette, comprising: a porous substrate ; an atomizing portion located on the porous substrate ; a liquid guiding portion located on the porous substrate , a porosity of the liquid guiding portion being greater than a porosity of the atomizing portion ; and a functional portion located on the porous substrate , characterized in that a porosity of the functional portion is greater than a porosity of the liquid guiding portion , and a thermal conductivity of the functional portion is greater than a thermal conductivity of the atomizing portion and the liquid guiding portion . a porous substrate ; an atomizing portion located on the porous substrate ; a liquid guiding portion located on the porous substrate , a porosity of the liquid guiding portion being greater than a porosity of the atomizing portion ; and a functional portion located on the porous substrate , characterized in that a porosity of the functional portion is greater than a porosity of the liquid guiding portion , and a thermal conductivity of the functional portion is greater than a thermal conductivity of the atomizing portion and the liquid guiding portion .
A method of surveillance of a downhole environment in a well comprising: providing an acoustic impulse, interrogating at least one optical fibre arranged along the path of a well bore with optical radiation; sampling data gathered from said at least one fibre in response to the acoustic impulse; and processing the sampled data to provide an indication of the acoustic signals detected by at least one longitudinal sensing portion of said fibre , characterised in that the data comprises: (i) data indicative of at least one characteristic of the acoustic impulse and (ii) data indicative of the downhole environment, wherein the data indicative of at least one characteristic of the acoustic impulse is at least substantially free of convolutions to the impulse imparted by the downhole environment, and the data indicative of the downhole environment includes such convolutions and the method comprises using the data indicative of at least one characteristic of the acoustic impulse to deconvolve the data indicative of the downhole environment to provide an indication of at least one characteristic of the downhole environment. (i) data indicative of at least one characteristic of the acoustic impulse and (ii) data indicative of the downhole environment,
An intracardiac ventricular pacemaker, comprising: a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal comprising an atrial systolic event (A4) and a ventricular diastolic event (A3) indicating a passive ventricular filling phase; and a control circuit coupled to the motion sensor and the pulse generator and configured to: set a detection threshold to a first amplitude during an expected time interval of the ventricular diastolic event and to a second amplitude lower than the first amplitude after the expected time interval of the ventricular diastolic event; detect the atrial systolic event in response to the motion signal crossing the detection threshold; set an atrioventricular pacing interval in response to detecting the atrial systolic event; and control the pulse generator to deliver a pacing pulse to the ventricle in response to the atrioventricular pacing interval expiring. a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal comprising an atrial systolic event (A4) and a ventricular diastolic event (A3) indicating a passive ventricular filling phase; and a control circuit coupled to the motion sensor and the pulse generator and configured to: set a detection threshold to a first amplitude during an expected time interval of the ventricular diastolic event and to a second amplitude lower than the first amplitude after the expected time interval of the ventricular diastolic event; detect the atrial systolic event in response to the motion signal crossing the detection threshold; set an atrioventricular pacing interval in response to detecting the atrial systolic event; and control the pulse generator to deliver a pacing pulse to the ventricle in response to the atrioventricular pacing interval expiring. set a detection threshold to a first amplitude during an expected time interval of the ventricular diastolic event and to a second amplitude lower than the first amplitude after the expected time interval of the ventricular diastolic event; detect the atrial systolic event in response to the motion signal crossing the detection threshold; set an atrioventricular pacing interval in response to detecting the atrial systolic event; and control the pulse generator to deliver a pacing pulse to the ventricle in response to the atrioventricular pacing interval expiring.
Apparatus for a desanding system, the apparatus comprising:- a MultiPhase Desanding (MPD) vessel , a valve manifold fluidly coupled to said MPD vessel by a plurality of detachable inlet/outlet connections ; and characterised in that the detachable connections are arranged to be reattached to the opposing side of the vessel to allow for a uni-sided MPD vessel design which is coupleable to the valve manifold on either of its sides, without the need for integral pipework modifications, and wherein the detachable inlet/outlet connections are integrally mounted on the opposite sides of the MPD vessel such that all of the inlet/outlet connections are symmetrical in orientation, which allows the vessel to be coupled with connections on a second side which is opposite the first side. a MultiPhase Desanding (MPD) vessel , a valve manifold fluidly coupled to said MPD vessel by a plurality of detachable inlet/outlet connections ; and characterised in that the detachable connections are arranged to be reattached to the opposing side of the vessel to allow for a uni-sided MPD vessel design which is coupleable to the valve manifold on either of its sides, without the need for integral pipework modifications, and wherein the detachable inlet/outlet connections are integrally mounted on the opposite sides of the MPD vessel such that all of the inlet/outlet connections are symmetrical in orientation, which allows the vessel to be coupled with connections on a second side which is opposite the first side.
Fixing arrangement having a wall-hung sanitaryware item and a fixing device for the sanitaryware item which has an opening on a rear side , wherein the fixing device has a holder which is attachable to a wall and on which there is arranged an engagement element having a counter-bearing surface for the sanitaryware item , which surface faces towards the wall when the holder has been fixed to the wall as intended, and the engagement element engages behind an undercut in the opening of the sanitaryware item and holds the sanitaryware item against the wall when the sanitaryware item has been fixed to the wall with the fixing device as intended, characterised in that the fixing device has a spacer element with a spacer surface on an underside of the fixing device and also has a resilient element which acts upon the spacer element in such a way that, when the fixing device has been fixed to the wall as intended, the spacer element is movable towards the counter-bearing surface in opposition to the weight force (F G ) against the force of the resilient element .
An optical device comprising an active liquid crystal element having an active liquid crystal layer including a liquid crystal compound and capable of switching between first and second oriented states, wherein the active liquid crystal element includes two base layers disposed opposite to each other and the active liquid crystal layer existing between the two base layers, a polarizer , and a hard coating layer having a thickness of 2μm or more is formed on at least one side of the base layers; characterized in that the optical device further comprises two outer substrates disposed opposite to each other and an adhesive film , wherein the active liquid crystal element and the polarizer are sequentially disposed between the two outer substrates, the adhesive film is present between the outer substrate and the active liquid crystal element, between the active liquid crystal element and the polarizer, between the polarizer and the outer substrate, and on the sides of the active liquid crystal element and the polarizer, and the active liquid crystal element and the polarizer are encapsulated by the adhesive film between the two outer substrates. crystal layer including a liquid crystal compound and capable of switching between first and second oriented states, wherein the active liquid crystal element includes two base layers disposed opposite to each other and the active liquid crystal layer existing between the two base layers, a polarizer , and a hard coating layer having a thickness of 2μm or more is formed on at least one side of the base layers; characterized in that the optical device further comprises two outer substrates disposed opposite to each other and an adhesive film , wherein the active liquid crystal element and the polarizer are sequentially disposed between the two outer substrates, the adhesive film is present between the outer substrate and the active liquid crystal element, between the active liquid crystal element and the polarizer, between the polarizer and the outer substrate, and on the sides of the active liquid crystal element and the polarizer, and the active liquid crystal element and the polarizer are encapsulated by the adhesive film between the two outer substrates.
An electro-luminescence display device comprising: a pixel (P) comprising: an electro-luminescence diode (ELD); a driving transistor (DT) configured to supply a current to the electro-luminescence diode (ELD); and a switching transistor (ST) configured to switch a signal supplied to the driving transistor (DT), wherein an area of a channel region of the driving transistor (DT) is different from an area of a channel region of the switching transistor (ST), and wherein the channel region of each of the driving transistor (DT) and the switching transistor (ST) includes a semi-conductor layer (ACT) having edges with a taper angle (θ)), wherein a taper angle deviation (|Δθ (DT-ST) |) between the taper angle of the semiconductor layer of the driving transistor (DT) and the taper angle of the semiconductor layer of the switching transistor (ST) is equal to or less than 10°. a pixel (P) comprising: an electro-luminescence diode (ELD); a driving transistor (DT) configured to supply a current to the electro-luminescence diode (ELD); and a switching transistor (ST) configured to switch a signal supplied to the driving transistor (DT), an electro-luminescence diode (ELD); a driving transistor (DT) configured to supply a current to the electro-luminescence diode (ELD); and a switching transistor (ST) configured to switch a signal supplied to the driving transistor (DT), wherein an area of a channel region of the driving transistor (DT) is different from an area of a channel region of the switching transistor (ST), and wherein the channel region of each of the driving transistor (DT) and the switching transistor (ST) includes a semi-conductor layer (ACT) having edges with a taper angle (θ)), wherein a taper angle deviation (|Δθ (DT-ST) |) between the taper angle of the semiconductor layer of the driving transistor (DT) and the taper angle of the semiconductor layer of the switching transistor (ST) is equal to or less than 10°.
A wheel holding member for a vehicle, which has a rod shape, and is to be removably mounted to a wheel hub , the wheel holding member being configured to hold a wheel under a state in which the holding member is mounted to the wheel hub , the wheel holding member comprising: a thread portion , which is formed on one end portion side in an axial direction, and has a male thread formed on an outer peripheral surface thereof, the male thread being threadedly engageable with a hub bolt hole formed in the wheel hub ; a first portion, which extends toward a side opposite to the one end portion of the thread portion , and is insertable through a hub-bolt insertion hole formed in the wheel , characterized in that at least the thread portion has a tool insertion hole , which is opened at an end surface of the one end portion, and into which a tool for rotating the wheel holding member for a vehicle is insertable, and wherein the tool insertion hole is formed such that a bottom surface of the tool insertion hole is located on an outer side in a vehicle width direction with respect to a surface of the wheel hub in which the hub bolt hole is formed under a state in which the thread portion is threadedly engaged with the hub bolt hole . a thread portion , which is formed on one end portion side in an axial direction, and has a male thread formed on an outer peripheral surface thereof, the male thread being threadedly engageable with a hub bolt hole formed in the wheel hub ; a first portion, which extends toward a side opposite to the one end portion of the thread portion , and is insertable through a hub-bolt insertion hole formed in the wheel , characterized in that at least the thread portion has a tool insertion hole , which is opened at an end surface of the one end portion, and into which a tool for rotating the wheel holding member for a vehicle is insertable, and wherein the tool insertion hole is formed such that a bottom surface of the tool insertion hole is located on an outer side in a vehicle width direction with respect to a surface of the wheel hub in which the hub bolt hole is formed under a state in which the thread portion is threadedly engaged with the hub bolt hole .
A method for producing pellets that are to be used for producing iron-nickel alloy, comprising mixing at least nickel oxide ore, carbonaceous reducing agent and iron oxide, and then agglomerating a mixture obtained, the method comprising: a mixing process step of forming at least two types of mixtures having different mixing ratios of the nickel oxide ore, the carbonaceous reducing agent and the iron oxide; and a pellet formation step of forming a pellet which is a lump having a layered structure using the at least two types of mixtures, so that a mixture having the largest content proportion of the iron oxide among the at least two types of mixtures obtained in the mixing process step forms an outermost layer. a mixing process step of forming at least two types of mixtures having different mixing ratios of the nickel oxide ore, the carbonaceous reducing agent and the iron oxide; and a pellet formation step of forming a pellet which is a lump having a layered structure using the at least two types of mixtures, so that a mixture having the largest content proportion of the iron oxide among the at least two types of mixtures obtained in the mixing process step forms an outermost layer.
A method of generating a time domain echo waveform , the method comprising: emitting , by a triggered source of pulsed electromagnetic radiation , a plurality of pulses of electromagnetic radiation in response to a trigger signal; irradiating, by a plurality of reflected echo signals of electromagnetic radiation , an electromagnetic radiation detector cell , the electromagnetic radiation detector cell generating a plurality of stored electrical measurements in response to electromagnetic radiation incident thereupon; generating a time-varying mixing signal; respectively applying phase-shifted variations of the mixing signal to the electromagnetic radiation detector cell while generating the plurality of stored electrical measurements; reading out , by a signal pre-processor , the plurality of stored electrical measurements from the electromagnetic radiation detector cell ; generating , by a signal reconstruction unit , a spectrum in respect of the plurality of stored electrical measurements and providing a spectrum of the mixing signal; generating, by the signal reconstruction unit , a reconstruction signal spectrum by deconvolving the spectrum of the plurality of stored electrical measurements using the spectrum of the mixing signal; and generating, by the signal reconstruction unit , the time domain echo waveform by converting the reconstruction signal spectrum to the time domain. emitting , by a triggered source of pulsed electromagnetic radiation , a plurality of pulses of electromagnetic radiation in response to a trigger signal; irradiating, by a plurality of reflected echo signals of electromagnetic radiation , an electromagnetic radiation detector cell , the electromagnetic radiation detector cell generating a plurality of stored electrical measurements in response to electromagnetic radiation incident thereupon; generating a time-varying mixing signal; respectively applying phase-shifted variations of the mixing signal to the electromagnetic radiation detector cell while generating the plurality of stored electrical measurements; reading out , by a signal pre-processor , the plurality of stored electrical measurements from the electromagnetic radiation detector cell ; generating , by a signal reconstruction unit , a spectrum in respect of the plurality of stored electrical measurements and providing a spectrum of the mixing signal; generating, by the signal reconstruction unit , a reconstruction signal spectrum by deconvolving the spectrum of the plurality of stored electrical measurements using the spectrum of the mixing signal; and generating, by the signal reconstruction unit , the time domain echo waveform by converting the reconstruction signal spectrum to the time domain.
A drug solution administration device comprising a main flow passage including a flow rate controller controlling a flow rate of the drug solution, and a bolus administration unit providing a drug solution, the bolus administration unit branching off the main flow passage characterized in that the bolus administration unit includes: an inflow passage connected to the main flow passage on a proximal end side of the flow rate controller ; an outflow passage connected to the main flow passage on a distal end side of the flow rate controller ; a reservoir connected between the inflow passage and the outflow passage , and reserving the drug solution; and a control portion controlling the reserve of the drug solution in the reservoir and dispensing of the drug solution from the reservoir , the inflow passage has a part in which the inflow passage branches into a first flow passage and a second flow passage smaller in flow passage cross-sectional area than the first flow passage , and the control portion includes: a first closer operable to close the first flow passage ; and a second closer operable to close the outflow passage , linked with the first closer and operable to open and close the outflow passage when the first flow passage is closed.