mhurhangee/ep-ind-claims huggingface dataset:
A hearing device comprising a detent assembly (10, 40, 100, 110), the detent assembly comprising: a base (20, 120) comprising a first magnetic region and a second magnetic region, wherein the first and second magnetic regions are disposed on or within a first sidewall of a battery compartment of the hearing device in use, and further wherein each of the first and second magnetic regions comprises a magnetic polarity; a battery door; an actuator (40, 140) connected to the base (20, 120) and comprising a magnetic region disposed on or within a sidewall of the battery door of the hearing device in use, wherein the magnetic region of the actuator (40, 140) comprises the same magnetic polarity as the magnetic polarity of the first and second magnetic regions of the base (20, 120); wherein the base (20, 120) and the actuator (40, 140) are adapted to move relative to each other, and further wherein the first and second magnetic regions of the base (20, 120) repel the magnetic region of the actuator (40, 140) to define detent positions between the base (20, 120) and the actuator (40, 140). a base (20, 120) comprising a first magnetic region and a second magnetic region, wherein the first and second magnetic regions are disposed on or within a first sidewall of a battery compartment of the hearing device in use, and further wherein each of the first and second magnetic regions comprises a magnetic polarity; a battery door; an actuator (40, 140) connected to the base (20, 120) and comprising a magnetic region disposed on or within a sidewall of the battery door of the hearing device in use, wherein the magnetic region of the actuator (40, 140) comprises the same magnetic polarity as the magnetic polarity of the first and second magnetic regions of the base (20, 120); wherein the base (20, 120) and the actuator (40, 140) are adapted to move relative to each other, and further wherein the first and second magnetic regions of the base (20, 120) repel the magnetic region of the actuator (40, 140) to define detent positions between the base (20, 120) and the actuator (40, 140).
Sample Hydraulic system for an automatic transmission, in particular double-clutch transmission, of a motor vehicle, with a high-pressure circuit, in which a pressure accumulator, at least one clutch (K1, K2) and gear selector (G1 to G4) are connected, and with a low-pressure circuit for cooling the clutch, wherein the high-pressure circuit and the low-pressure circuit have at least one hydraulic pump that can be driven by an electric motor, and with a control unit that actuates the electric motor of the hydraulic pump when a pressure accumulator charging requirement is identified, wherein the high-pressure and low-pressure circuit (H, N) are connected via a by-pass line to an integrated accumulator charging valve, which, in a non-charging position connects the hydraulic pump fluidically to the low-pressure circuit and in a charging position connects the hydraulic pump fluidically to the high-pressure circuit, wherein the accumulator charging valve automatically shifts from the charging position into the non-charging position at a first shift time (t U1) when the accumulator pressure (p s) in the high pressure circuit exceeds an upper pressure threshold value (pmax), and wherein same automatically shifts from the non-charging position into the charging position at a second shift time (t U2) when the accumulator pressure (p s) falls below a lower pressure threshold value (pmin), characterised in that the control unit has a diagnosis module with which a shift time diagnosis occurs, whereby it is determined whether the actual accumulator pressure (p s (t)) is in the range of the upper pressure threshold value (p max) at the first shift time (t U1), wherein an error can be stored in a shift time error memory, and in that a clutch valve that can be actuated by the control unit is arranged in at least one clutch path (30, 31) leading from the pressure accumulator to the clutch hydraulic cylinder, with which a hydraulic pressure applied to the clutch hydraulic cylinder can be set, and in that the electronic control unit is assigned a pressure sensor, with which the hydraulic pressure applied to the clutch-hydraulic cylinder can be detected, and in that the clutch path pressure sensor is used to detect the actual accumulator pressure (p s (t)) during the shift time diagnosis, and in that a measuring range (Δp mess) of the pressure sensor lies outside, i.e. below, the upper pressure threshold value (pmax), and in that an evaluation unit estimates a time window (Δt soll) on the basis of measured pressure values (p a (t a), p b (t b)), which lie within the pressure sensor measuring range (Δp mess), within which the first shift time (t U1) lies if the valve is operating properly, and in that in the event of a first shift time (t U1) outside the time window (Δt soll) an error is identified, which can be stored in the shift time error memory.
A machine for treating a surface comprising: - a frame having: - a rear portion arranged in contact with said surface at a contact line λ; - a front portion arranged to support an element of treatment; - a support element arranged to pass between a retracted configuration, wherein said element of treatment touches said surface, and an extended configuration, in which said element of treatment does not touch said surface; said frame comprising a reference plane π integral to said frame, said reference plane π being substantially parallel with said surface when said support element is in said retracted configuration, and arranged to rotate by an angle α about said contact line λ when said support element passes in said extended configuration, said reference plane π defining a normal z orthogonal to it, said support element comprising a pivoting wheel arranged to rotate about a rotation axis x, said machine characterized in that said support element comprises an alignment device arranged to bring said rotation axis x to be parallel to said normal z, when said support element is in said retracted configuration, and to be inclined at an angle α with respect to said normal z, when said support element is in said extended configuration, in such a way that said rotation axis x is always in substantially vertical position with respect to said surface. - a frame having: - a rear portion arranged in contact with said surface at a contact line λ; - a front portion arranged to support an element of treatment; - a rear portion arranged in contact with said surface at a contact line λ; - a front portion arranged to support an element of treatment; - a support element arranged to pass between a retracted configuration, wherein said element of treatment touches said surface, and an extended configuration, in which said element of treatment does not touch said surface;
An ion source assembly, comprising: an electron source configured to emit electrons, wherein the electron source includes an electrically floated filament, wherein a first portion of the electrons enters an ion volume to ionize an atom or molecule in the ion volume; a lens electrode positioned adjacent the electron source, wherein the lens electrode does not possess a ground which is common with earth ground and is thereby electrically floated; a supply voltage source coupled to the filament, wherein the supply voltage source is configured to supply a first voltage to the filament, wherein the first voltage is operable to provide electrons having sufficient energy to ionize the molecules in the ion volume, wherein the energy of electrons entering the ion volume is controlled by the voltage between the filament and the ion volume; and a bias voltage source coupled to the supply voltage source and configured to supply a bias voltage to the lens electrode; wherein the lens electrode is configured to collect a second portion of the electrons, wherein the second portion of the electrons flows back to the filament. an electron source configured to emit electrons, wherein the electron source includes an electrically floated filament, wherein a first portion of the electrons enters an ion volume to ionize an atom or molecule in the ion volume; a lens electrode positioned adjacent the electron source, wherein the lens electrode does not possess a ground which is common with earth ground and is thereby electrically floated; a supply voltage source coupled to the filament, wherein the supply voltage source is configured to supply a first voltage to the filament, wherein the first voltage is operable to provide electrons having sufficient energy to ionize the molecules in the ion volume, wherein the energy of electrons entering the ion volume is controlled by the voltage between the filament and the ion volume; and a bias voltage source coupled to the supply voltage source and configured to supply a bias voltage to the lens electrode; wherein the lens electrode is configured to collect a second portion of the electrons, wherein the second portion of the electrons flows back to the filament.
A hair styling appliance comprising a heater having a plurality of heating zones (Z1, Z3), wherein the plurality of heating zones (Z1, Z3) are independently controllable and wherein the plurality of heating zones (Z1, Z3) are arranged sequentially along the length of the heater in a direction parallel to a longitudinal axis of the heater.
A mobile station apparatus for carrier aggregation in a communication system including a base station apparatus and the mobile station apparatus, the mobile station apparatus comprising: a circuitry configured to configure parameters regarding a plurality of cells including a first cell currently configured to the mobile station apparatus and a second cell, characterized in that, in a case where the circuitry receives information regarding an addition of the second cell from the base station apparatus on a dedicated control channel, DCCH, the circuitry is further configured to apply first parameters and second parameters to the second cell, wherein the first parameters are commonly used for all of the plurality of cells configured to the mobile station apparatus, the second parameters are for the second cell, the first parameters are currently applied to the first cell, and the second parameters are included in the received information. a circuitry configured to configure parameters regarding a plurality of cells including a first cell currently configured to the mobile station apparatus and a second cell, characterized in that, in a case where the circuitry receives information regarding an addition of the second cell from the base station apparatus on a dedicated control channel, DCCH, the circuitry is further configured to apply first parameters and second parameters to the second cell, wherein the first parameters are commonly used for all of the plurality of cells configured to the mobile station apparatus, the second parameters are for the second cell, the first parameters are currently applied to the first cell, and the second parameters are included in the received information.
A robot system comprising: a robot; an imaging device configured to capture a movie of operation of the robot; a control module configured to control the robot so as to perform work in accordance with work contents information preliminarily stored to indicate a series of work contents; a saving module configured to save image information captured by the imaging device during work performance by the robot in association with time information; and a display module configured to display the image information saved by the saving module together with the time information, wherein the saving module saves the image information in association with the work contents information, and the display module displays movie of the image information together with a work content of the series of work contents which is performed in the movie. a robot; an imaging device configured to capture a movie of operation of the robot; a control module configured to control the robot so as to perform work in accordance with work contents information preliminarily stored to indicate a series of work contents; a saving module configured to save image information captured by the imaging device during work performance by the robot in association with time information; and a display module configured to display the image information saved by the saving module together with the time information, wherein the saving module saves the image information in association with the work contents information, and the display module displays movie of the image information together with a work content of the series of work contents which is performed in the movie.
A fuel consumption measuring instrument that measures fuel consumption of an engine, the fuel consumption measuring instrument comprising: an exhaust gas flow path; an ultrasonic flowmeter that is provided in an exhaust gas flow path through which exhaust gas emitted from the engine flows, and measures a flow rate of the exhaust gas flowing through the exhaust gas flow path; an air-fuel ratio sensor being a direct insertion type sensor for directly measuring the air-fuel ratio of the exhaust gas flowing through the exhaust gas flow path, the air-fuel ratio sensor being provided in the exhaust gas flow path; an arithmetic unit that is configured to calculate the fuel consumption of the engine with use of the exhaust gas flow rate obtained by the ultrasonic flowmeter, and an air-fuel ratio obtained by an air-fuel ratio sensor; a straight pipe, wherein an upstream side of the ultrasonic flowmeter in the exhaust gas flow path is formed of said straight pipe; the straight pipe has a length ten times or more a flow path diameter of the flow path part where the ultrasonic flowmeter is provided; characterized in that a flow conditioner is provided on an upstream side of the ultrasonic flowmeter in the straight pipe; the air-fuel ratio sensor is provided on a downstream side of the ultrasonic flowmeter in the exhaust gas flow path; and the straight pipe is provided with a heater. an exhaust gas flow path; an ultrasonic flowmeter that is provided in an exhaust gas flow path through which exhaust gas emitted from the engine flows, and measures a flow rate of the exhaust gas flowing through the exhaust gas flow path; an air-fuel ratio sensor being a direct insertion type sensor for directly measuring the air-fuel ratio of the exhaust gas flowing through the exhaust gas flow path, the air-fuel ratio sensor being provided in the exhaust gas flow path; an arithmetic unit that is configured to calculate the fuel consumption of the engine with use of the exhaust gas flow rate obtained by the ultrasonic flowmeter, and an air-fuel ratio obtained by an air-fuel ratio sensor; a straight pipe, wherein an upstream side of the ultrasonic flowmeter in the exhaust gas flow path is formed of said straight pipe; the straight pipe has a length ten times or more a flow path diameter of the flow path part where the ultrasonic flowmeter is provided; characterized in that a flow conditioner is provided on an upstream side of the ultrasonic flowmeter in the straight pipe; the air-fuel ratio sensor is provided on a downstream side of the ultrasonic flowmeter in the exhaust gas flow path; and the straight pipe is provided with a heater.
A method, comprising: defining combined frequency data based on a frequency of electromagnetic radiation having a frequency modulated continuous wave frequency pattern emitted toward an object from a laser and a frequency of electromagnetic radiation reflected from the object; defining a set of spectral bins, using a Fourier transform in a frequency domain based on the combined frequency data; identifying a subset of the set of spectral bins that correspond with relatively high power densities or amplitudes; characterized in that the method further comprising: producing time series data based on the subset of the set of spectral bins using an inverse Fourier transform; defining phase angle data calculated or derived from the time series data; identifying a datapoint from the phase angle data as an outlier; and modifying the combined frequency data based on the data point, wherein the combined frequency data that corresponds with the data point is eliminated from additional analysis. defining combined frequency data based on a frequency of electromagnetic radiation having a frequency modulated continuous wave frequency pattern emitted toward an object from a laser and a frequency of electromagnetic radiation reflected from the object; defining a set of spectral bins, using a Fourier transform in a frequency domain based on the combined frequency data; identifying a subset of the set of spectral bins that correspond with relatively high power densities or amplitudes; producing time series data based on the subset of the set of spectral bins using an inverse Fourier transform; defining phase angle data calculated or derived from the time series data; identifying a datapoint from the phase angle data as an outlier; and modifying the combined frequency data based on the data point, wherein the combined frequency data that corresponds with the data point is eliminated from additional analysis.
An asymmetric double-stranded ribonucleic acid (dsRNA) directed against CTGF comprising a sense strand and an antisense strand, wherein the antisense strand has a minimal length of 16 nucleotides and the sense strand is 12-18 nucleotides in length, wherein the double stranded nucleic acid molecule has a double stranded region and a single stranded region, the single stranded region having 4-12 nucleotides in length and having at least three nucleotide backbone modifications, wherein the sense strand comprises at least 12 contiguous nucleotides of a sequence selected from the group consisting of SEQ ID NOs: 2463 (GCACCUUUCUAGA), 3429 (G.mC. A.mC.mC.mU.mU.mU.mC.mU. A*mG*mA.TEG-Chl), 2443 (UUGCACCUUUCUAA), 3445 (mU.mU.G.mC.A.mC.mC.mU.mU.mU.mC.mU*mA* mA.TEG-Chl), 2465 (CCUUUCUAGUUGA), 3469 (mC.mC.mU.mU.mU.mC.mU. A. G.mU.mU*mG*mA.TEG-Chl), SEQ ID NOs: 2459 (GUGACCAAAAGUA) or 3493 (G.mU. G. A.mC.mC. A. A. A. A. G*mU*mA.TEG-Chl); and/or the antisense strand comprises at least 12 contiguous nucleotides of a sequence selected from the group consisting of SEQ ID NOs: 2464 (UCUAGAAAGGUGCAAACAU), 3430 (P.mU.fC.fU. A. G.mA. A.mA. G. G.fU. G.mC* A* A* A*mC*A*), 4203 (UUAGAAAGGUGCAAACAAGG), 3446 (P.mU.fU. A. G. A.mA. A. G. G.fU. G.fC.mA.mA*mA*fC*mA*mA*mG* G.), 2466 (UCAACUAGAAAGGUGCAAA), 3470 (P.mU.fC. A. A.fC.fU. A. G. A.mA. A. G. G*fU*mG*fC*mA*mA* A.), SEQ ID NOs: 2460 (UACUUUUGGUCACACUCUC) or 3494 (P.mU. A.fC.fU.fU.fU.fU. G. G.fU.mC. A.mC* A*mC*mU*mC*mU* C.).
A method of facilitating access to services of an IP Multimedia Subsystem, IMS, network comprising nodes for performing functions of the IMS in a standard way, and application servers with IMS applications for rendering services to users of the IMS, and subscriptions for the users containing initial filter criteria, iFC, instructing which services are when and how to be executed for the users, comprising at least one each, of a Proxy Call Session Control Function, P-CSCF, a Serving Call Session Control Function, S-CSCF, and a Home Subscriber Server, HSS, by user terminals located behind an access point to said IMS network, the access point being associated with a subscription to the IMS network, the method comprising: - checking, if a control indicator is present in said subscription, and when present: - at IMS registration of said access point with the IMS network, distributing Public User Identities, PUI, and functioning instructions in an Implicit Registration Set to a S-CSCF allocated to said access point, and to a P-CSCF to which said access point is attached, wherein said Implicit Registration Set contains at least one wildcard interpretation instruction and at least one wildcard PUI or PUI sub-domain representative of a range of PUI; - preserving, by the S-CSCF at handling an SIP Invite message intended for a user terminal behind said access point, the original Requested URI in a P-Called-Party-Identity header, and replacing the original Requested URI with the PUI of the access point as indicated by a formatting rule in said functioning instructions; and - forwarding the modified SIP Invite message to the P-CSCF. - checking, if a control indicator is present in said subscription, and when present: - at IMS registration of said access point with the IMS network, distributing Public User Identities, PUI, and functioning instructions in an Implicit Registration Set to a S-CSCF allocated to said access point, and to a P-CSCF to which said access point is attached, wherein said Implicit Registration Set contains at least one wildcard interpretation instruction and at least one wildcard PUI or PUI sub-domain representative of a range of PUI; - preserving, by the S-CSCF at handling an SIP Invite message intended for a user terminal behind said access point, the original Requested URI in a P-Called-Party-Identity header, and replacing the original Requested URI with the PUI of the access point as indicated by a formatting rule in said functioning instructions; and - forwarding the modified SIP Invite message to the P-CSCF.
A method in a user equipment of saving radio resources in a communication network system comprising a communication network node communicating with one or more user equipments on uplink and downlink data channels over a radio interface, whereby a transmission power value on said uplink data channel is determined by adding a power offset value to a pre-determined reference power value, characterised in that the method comprises the steps of: - determining a carrier-to-interference, C/I, value on said uplink data channel by: - interpolating a received coded bit information rate, RBIR, value using a block error rate, BLER, target value from a first lookup table; - interpolating a signal to interference plus noise rate, SINR, value using said interpolated received coded bit information rate, RBIR, (RBIR) value in a second lookup table; - converting said interpolated signal to interference plus noise rate value into said carrier-to-interference value; - determining said power offset value based on said determined carrier-to-interference value, whereby said power offset value is determined in said user equipment instead of being received over said radio interface from said communication network node. - determining a carrier-to-interference, C/I, value on said uplink data channel by: - interpolating a received coded bit information rate, RBIR, value using a block error rate, BLER, target value from a first lookup table; - interpolating a signal to interference plus noise rate, SINR, value using said interpolated received coded bit information rate, RBIR, (RBIR) value in a second lookup table; - converting said interpolated signal to interference plus noise rate value into said carrier-to-interference value; - interpolating a received coded bit information rate, RBIR, value using a block error rate, BLER, target value from a first lookup table; - interpolating a signal to interference plus noise rate, SINR, value using said interpolated received coded bit information rate, RBIR, (RBIR) value in a second lookup table; - converting said interpolated signal to interference plus noise rate value into said carrier-to-interference value; - determining said power offset value based on said determined carrier-to-interference value, whereby said power offset value is determined in said user equipment instead of being received over said radio interface from said communication network node.