mhurhangee/ep-ind-claims huggingface dataset:
A vehicle brake device comprising: a brake pedal; a pedal arm on which the brake pedal is provided, the pedal arm being supported to be rotatable relative to a vehicle body side member; an input rod coupled to the pedal arm to move forward and rearward in conjunction with a depression operation on the brake pedal; a master cylinder to which a forward and rearward movement of the input rod is transmitted via a servo unit; a depression invalidation mechanism configured to make at least one hydraulic chamber of the master cylinder communicate with a reservoir tank when a depression operation position of the brake pedal lies within a preset invalid depression region; characterised by a pedal rearward movement suppression mechanism configured to suppress a rearward movement of the brake pedal in a front-rear direction of a vehicle when an impact in the front-rear direction equal to or larger than a preset load is applied to a portion supporting the pedal arm on the vehicle body side member; and a pedal bias unit configured to bias the input rod in a direction to which the brake pedal returns when the depression operation position of the brake pedal lies at least within the invalid depression region, wherein the pedal bias unit includes an elastic body including one end portion attached to the input rod and the other end portion attached to the vehicle body side member to provide a spring force to the input rod in the direction to which the brake pedal returns. a brake pedal; a pedal arm on which the brake pedal is provided, the pedal arm being supported to be rotatable relative to a vehicle body side member; an input rod coupled to the pedal arm to move forward and rearward in conjunction with a depression operation on the brake pedal; a master cylinder to which a forward and rearward movement of the input rod is transmitted via a servo unit; a depression invalidation mechanism configured to make at least one hydraulic chamber of the master cylinder communicate with a reservoir tank when a depression operation position of the brake pedal lies within a preset invalid depression region; characterised by a pedal rearward movement suppression mechanism configured to suppress a rearward movement of the brake pedal in a front-rear direction of a vehicle when an impact in the front-rear direction equal to or larger than a preset load is applied to a portion supporting the pedal arm on the vehicle body side member; and a pedal bias unit configured to bias the input rod in a direction to which the brake pedal returns when the depression operation position of the brake pedal lies at least within the invalid depression region, wherein the pedal bias unit includes an elastic body including one end portion attached to the input rod and the other end portion attached to the vehicle body side member to provide a spring force to the input rod in the direction to which the brake pedal returns.
A gas turbine engine defining a radial direction and an axial direction, the gas turbine engine comprising: a compressor section and a turbine section arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; an electric machine coupled to the rotary component at least partially inward of the core air flowpath along the radial direction; and a cavity wall defining at least in part a buffer cavity, the buffer cavity surrounding at least a portion of the electric machine to thermally insulate the electric machine; and characterised by further comprising: an electric machine lubrication system, wherein the cavity wall further defines at least in part an electric machine sump, wherein the electric machine lubrication system is in fluid communication with the electric machine sump for providing a thermal fluid to the electric machine sump; wherein the electric machine sump is positioned opposite the cavity wall of the buffer cavity and is configured to substantially completely surround the electric machine. a compressor section and a turbine section arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; an electric machine coupled to the rotary component at least partially inward of the core air flowpath along the radial direction; and a cavity wall defining at least in part a buffer cavity, the buffer cavity surrounding at least a portion of the electric machine to thermally insulate the electric machine; and characterised by further comprising: an electric machine lubrication system, wherein the cavity wall further defines at least in part an electric machine sump, wherein the electric machine lubrication system is in fluid communication with the electric machine sump for providing a thermal fluid to the electric machine sump; wherein the electric machine sump is positioned opposite the cavity wall of the buffer cavity and is configured to substantially completely surround the electric machine. an electric machine lubrication system, wherein the cavity wall further defines at least in part an electric machine sump, wherein the electric machine lubrication system is in fluid communication with the electric machine sump for providing a thermal fluid to the electric machine sump; wherein the electric machine sump is positioned opposite the cavity wall of the buffer cavity and is configured to substantially completely surround the electric machine.
A method of determining a sample component comprising: passing a fluid sample comprising the sample component over a surface of a microfluidic channel comprising a maximum cross-sectional dimension of less than 500 μm; allowing the sample component to bind with a binding partner disposed on the surface of the microfluidic channel to form a sample-binding partner complex; flowing a metal colloid associated with a further binding partner of the sample component over the surface so that the metal colloid is associated with the sample-binding partner complex; flowing a rinse solution as a first fluid over the surface; flowing a metal precursor solution as a second fluid over the surface to form a metallic layer; and determining the metallic layer and the sample component, wherein the determining step comprises exposing the metallic layer to light and determining the transmission of the light through the metallic layer; wherein plugs of the first and the second fluid are maintained separately from each other by a third fluid plug in a common, sealed vessel, wherein the third fluid is substantially immiscible with the first and second fluids, and wherein the fluid plugs are flowed in series in the microfluidic channel when the vessel is unsealed and a vacuum is applied to a downstream side of the vessel. passing a fluid sample comprising the sample component over a surface of a microfluidic channel comprising a maximum cross-sectional dimension of less than 500 μm; allowing the sample component to bind with a binding partner disposed on the surface of the microfluidic channel to form a sample-binding partner complex; flowing a metal colloid associated with a further binding partner of the sample component over the surface so that the metal colloid is associated with the sample-binding partner complex; flowing a rinse solution as a first fluid over the surface; flowing a metal precursor solution as a second fluid over the surface to form a metallic layer; and determining the metallic layer and the sample component, wherein the determining step comprises exposing the metallic layer to light and determining the transmission of the light through the metallic layer; wherein plugs of the first and the second fluid are maintained separately from each other by a third fluid plug in a common, sealed vessel, wherein the third fluid is substantially immiscible with the first and second fluids, and wherein the fluid plugs are flowed in series in the microfluidic channel when the vessel is unsealed and a vacuum is applied to a downstream side of the vessel.
A device comprising: a flexible electrode (110, 210, 300, 710, 720) comprising an elongated body (220, 320) having a length, a plurality of electrode contacts (230a-n, 330a-b, 430, 480) disposed on a substantially flat first side of the elongated body (220, 320), and a cannulation channel (240, 340) defined along a longitudinal axis of the electrode, wherein the substantially flat first side of the elongated body extends along substantially the length of the elongated body, and wherein the flexible electrode is configured to be bent into sections; and a guiding mechanism (250, 510, 610) received within the cannulation channel (240, 340), the guiding mechanism (250, 510, 610) configured to flexibly guide the flexible electrode (110, 210, 300, 710, 720) through angled paths or trajectories on brain tissue of a patient, wherein the guiding mechanism is a guide catheter that comprises a tip molded into an appropriate angle to provide tangential force to the brain tissue of the patient to advance the flexible electrode through the angled paths or trajectories on the brain tissue of the patient for placement tangential to the brain tissue in a subdural space of the patient. a flexible electrode (110, 210, 300, 710, 720) comprising an elongated body (220, 320) having a length, a plurality of electrode contacts (230a-n, 330a-b, 430, 480) disposed on a substantially flat first side of the elongated body (220, 320), and a cannulation channel (240, 340) defined along a longitudinal axis of the electrode, wherein the substantially flat first side of the elongated body extends along substantially the length of the elongated body, and wherein the flexible electrode is configured to be bent into sections; and a guiding mechanism (250, 510, 610) received within the cannulation channel (240, 340), the guiding mechanism (250, 510, 610) configured to flexibly guide the flexible electrode (110, 210, 300, 710, 720) through angled paths or trajectories on brain tissue of a patient, wherein the guiding mechanism is a guide catheter that comprises a tip molded into an appropriate angle to provide tangential force to the brain tissue of the patient to advance the flexible electrode through the angled paths or trajectories on the brain tissue of the patient for placement tangential to the brain tissue in a subdural space of the patient.
Scattered light smoke detector comprising a two-color LED for emitting light of a first and a second wavelength λ 1, λ 2, a spectrally matched photosensor forming a scattered light arrangement, and a control unit, the control unit being connected to the two-color LED and to the photosensor and being arranged to drive the two-color LED to emit light of the first or second wavelength λ 1, λ 2 detecting a photosensor signal from the photosensor, determining first and second scattered light intensities I λ1, I λ2 associated with the first and second wavelengths λ 1, λ 2 based on the photosensor signal, and including the first and second scattered light intensities I λ1, I λ2 in the event of a fire alarm characterised in that the scattered light smoke detector comprises a wavelength-selective polariser, which is optically connected upstream of the photosensor or to the two-color LED, the wavelength-selective polariser having optical properties such that the light passing through the wavelength-selective polariser is polarised at different intensities in dependence upon the respective wavelength λ 1, λ 2 of said light.
A sensor, comprising: a flow cell, including: a passivation layer having opposed surfaces and a reaction site, which is a localised region of the sensor where a designated reaction may occur and wherein a designated reaction includes a change in at least one of a chemical, electrical, physical or optical property of an analyte-of-interest, at a first of the opposed surfaces; and a lid operatively connected to the passivation layer to partially define a flow channel between the lid and the reaction site; a detection device in contact with a second of the opposed surfaces of the passivation layer, the detection device including an embedded metal layer that is electrically isolated from other detection circuitry of the detection device; and a controller configured to ground the embedded metal layer. a flow cell, including: a passivation layer having opposed surfaces and a reaction site, which is a localised region of the sensor where a designated reaction may occur and wherein a designated reaction includes a change in at least one of a chemical, electrical, physical or optical property of an analyte-of-interest, at a first of the opposed surfaces; and a lid operatively connected to the passivation layer to partially define a flow channel between the lid and the reaction site; a passivation layer having opposed surfaces and a reaction site, which is a localised region of the sensor where a designated reaction may occur and wherein a designated reaction includes a change in at least one of a chemical, electrical, physical or optical property of an analyte-of-interest, at a first of the opposed surfaces; and a lid operatively connected to the passivation layer to partially define a flow channel between the lid and the reaction site; a detection device in contact with a second of the opposed surfaces of the passivation layer, the detection device including an embedded metal layer that is electrically isolated from other detection circuitry of the detection device; and a controller configured to ground the embedded metal layer.
A resin-impregnated fibrous material in the form of a sheet or a web, comprising an impregnating resin which comprises a combination of a) at least one resin component A, which is selected from the group consisting of aminoplast resins and phenoplast resins and combinations thereof; and b) at least one resin component B, which is an oligomer or polymer having ethylenically unsaturated double bonds, wherein at least 40 mol-% of the ethylenically unsaturated double bonds are selected from the group consisting of allyl groups, acryl groups and methacryl groups. a) at least one resin component A, which is selected from the group consisting of aminoplast resins and phenoplast resins and combinations thereof; and b) at least one resin component B, which is an oligomer or polymer having ethylenically unsaturated double bonds, wherein at least 40 mol-% of the ethylenically unsaturated double bonds are selected from the group consisting of allyl groups, acryl groups and methacryl groups.
A toner comprising a toner particle containing a binder resin and a release agent, wherein the binder resin contains a polymer A that is a polymer of a composition containing a first polymerizable monomer and a second polymerizable monomer different from the first polymerizable monomer, the first polymerizable monomer is at least one selected from the group consisting of (meth)acrylic acid esters having a C 18-36 alkyl group, the content of the first polymerizable monomer in the composition is 5.0 mol% to 60.0 mol% of the total moles of all polymerizable monomers in the composition, the content of the second polymerizable monomer in the composition is 20.0 mol% to 95.0 mol% of the total moles of all polymerizable monomers in the composition, wherein the SP value of the first polymerizable monomer is SP 12 (J/cm 3) 0.5, and the SP value of the second polymerizable monomer is SP 22 (J/cm 3) 0.5, the following formula: 0.60 ≤ SP 22 − SP 12 ≤ 15.00 is satisfied, the SP value being determined according to the description, the molecular weight (Mp) of the release agent is at least 1,000, the molecular weight (Mp) being determined according to the description, and wherein the SP value of the polymer A is SP 3 (J/cm 3) 0.5 and the SP value of the release agent is SP w (J/cm 3) 0.5, SP 3 and SP w satisfy the following formula: SP 3 − SP w ≥ 1.00 the binder resin contains a polymer A that is a polymer of a composition containing a first polymerizable monomer and a second polymerizable monomer different from the first polymerizable monomer, the first polymerizable monomer is at least one selected from the group consisting of (meth)acrylic acid esters having a C 18-36 alkyl group, the content of the first polymerizable monomer in the composition is 5.0 mol% to 60.0 mol% of the total moles of all polymerizable monomers in the composition, the content of the second polymerizable monomer in the composition is 20.0 mol% to 95.0 mol% of the total moles of all polymerizable monomers in the composition, wherein the SP value of the first polymerizable monomer is SP 12 (J/cm 3) 0.5, and the SP value of the second polymerizable monomer is SP 22 (J/cm 3) 0.5, the following formula: 0.60 ≤ SP 22 − SP 12 ≤ 15.00 is satisfied, the SP value being determined according to the description, the molecular weight (Mp) of the release agent is at least 1,000, the molecular weight (Mp) being determined according to the description, and wherein the SP value of the polymer A is SP 3 (J/cm 3) 0.5 and the SP value of the release agent is SP w (J/cm 3) 0.5, SP 3 and SP w satisfy the following formula: SP 3 − SP w ≥ 1.00
A relay node for a communication system in which a mobility management entity, MME, is a core network node affected by overload, the relay node comprising: means for receiving, from a donor base station, an overload start message including an identity of the affected core network node and an information element to indicate an overload action to be performed; means for using the identity of the overload affected core network node to selectively apply an overload procedure represented by said overload start message in respect of user equipment associated with the relay node. means for receiving, from a donor base station, an overload start message including an identity of the affected core network node and an information element to indicate an overload action to be performed; means for using the identity of the overload affected core network node to selectively apply an overload procedure represented by said overload start message in respect of user equipment associated with the relay node.
An isolated fusion molecule comprising a first polypeptide sequence capable of specific binding to a native IgG inhibitory receptor comprising an immune receptor tyrosine-based inhibitory motif (ITIM), expressed on mast cells, basophils or B cells, functionally connected through a polypeptide sequence consisting of 5 to 25 amino acid residues to a second polypeptide sequence capable of specific binding directly to a native IgE receptor (FcεR), wherein the fusion molecule has at least 90% sequence identity with SEQ ID NO: 7.
A method of characterizing a target RNA polynucleotide comprising: (i) providing an RNA polynucleotide; (ii) modifying said RNA polynucleotide by annealing and ligating a polynucleotide comprising a single stranded 3' terminal random multimer segment and having a stem-loop form, wherein said polynucleotide comprising a 3' terminal random multimer segment and having a stem-loop form is a DNA polynucleotide comprising one or more 5-methyl-isoC-isoG base-pairs; (iii) optionally performing a reverse transcription of the RNA polynucleotide; (iv) cleaving the stem-loop segment of said annealed polynucleotide to yield a 3' A overhang; (v) connecting an adaptor polynucleotide complex associated with an RNA translocase enzyme and at least one cholesterol tether segment to the polynucleotide obtained in step (iv); (vi) contacting the modified RNA polynucleotide obtained in step (v) with a transmembrane pore such that the RNA translocase controls the movement of the RNA polynucleotide through the transmembrane pore and the cholesterol tether anchors the RNA polynucleotide in the vicinity of the transmembrane pore; and (vii) taking one or more measurements during the movement of the RNA polynucleotide through said transmembrane pore, wherein the measurements are indicative of one or more characteristics of the RNA polynucleotide, thereby characterizing the target RNA polynucleotide. (i) providing an RNA polynucleotide; (ii) modifying said RNA polynucleotide by annealing and ligating a polynucleotide comprising a single stranded 3' terminal random multimer segment and having a stem-loop form, wherein said polynucleotide comprising a 3' terminal random multimer segment and having a stem-loop form is a DNA polynucleotide comprising one or more 5-methyl-isoC-isoG base-pairs; (iii) optionally performing a reverse transcription of the RNA polynucleotide; (iv) cleaving the stem-loop segment of said annealed polynucleotide to yield a 3' A overhang; (v) connecting an adaptor polynucleotide complex associated with an RNA translocase enzyme and at least one cholesterol tether segment to the polynucleotide obtained in step (iv); (vi) contacting the modified RNA polynucleotide obtained in step (v) with a transmembrane pore such that the RNA translocase controls the movement of the RNA polynucleotide through the transmembrane pore and the cholesterol tether anchors the RNA polynucleotide in the vicinity of the transmembrane pore; and (vii) taking one or more measurements during the movement of the RNA polynucleotide through said transmembrane pore, wherein the measurements are indicative of one or more characteristics of the RNA polynucleotide, thereby characterizing the target RNA polynucleotide.