mhurhangee/ep-ind-claims huggingface dataset:
An aqueous dispersion comprising a graft-modified propylene·α-olefin copolymer obtained by graft-reacting a polar monomer onto a propylene·α-olefin copolymer (a) comprising 50 to 90 mol% of propylene-derived structural units and 10 to 50 mol% of C 4-8 α-olefin-derived structural units (Cα) (wherein the total of the structural units C3 and Cα is 100 mol%), the graft-modified propylene·α-olefin copolymer satisfying the following requirements (i) to (iv) at the same time: (i) the amount of the polar monomer grafted is 0.4 to 1.5 wt%, (ii) the content of the polar monomer is not more than 1000 ppm, (iii) the content of a gel insoluble in xylene at 140°C is not more than 2.5 wt%, and (iv) the content of a volatile hydrocarbon compound is not more than 10 ppm. (i) the amount of the polar monomer grafted is 0.4 to 1.5 wt%, (ii) the content of the polar monomer is not more than 1000 ppm, (iii) the content of a gel insoluble in xylene at 140°C is not more than 2.5 wt%, and (iv) the content of a volatile hydrocarbon compound is not more than 10 ppm.
Gas appliance comprising a shut-off valve (100, 100') for opening or closing a gas flow, and a control unit electrically operating the shut-off valve (100, 100'), the shut-off valve (100; 100') comprising a closure orifice, a closure member cooperating with the closure orifice to open and close the gas passage, and an electromagnetic actuator (130, 130') operated by the control unit, comprising a movable assembly (131, 131') which is attached to the closure member, the closure member moving integrally with the movable assembly (131, 131'), and electromagnetic means (137, 137') magnetically associated with the movable assembly (131, 131') which allow causing the change in position of the movable assembly (131, 131'), the shut-off valve (100; 100') also comprising a manual actuator configured for moving the movable assembly (131, 131') together with the closure member for closing the gas flow, and comprising an open position in which it is decoupled from the movable assembly (131,131'), characterized in that the manual actuator is also configured for moving the movable assembly (131, 131') together with the closure member for opening the gas flow, said manual actuator being coupled to the movable assembly (131, 131') in order to move said movable assembly (131, 131') for opening the gas flow, the electromagnetic actuator (130, 130') thus being able to act on the closure member to cause its closure as the electromagnetic means (137, 137') are fed with electric pulses.
A method for preparing a non-phosphorylated hexose epimer, comprising treating a non-phosphorylated hexose with a composition for epimerization of a non-phosphorylated hexose, comprising D-tagaturonate epimerase derived from Caldanaerobacter yonseiensis KB-1.
Use of alpha-amino-functional alkoxysilanes for the treatment of phosphorus-containing steel surfaces which are subsequently exposed to a corrosive atmosphere of a gas mixture composed of residual moisture, chlorine, hydrogen chloride, chlorosilanes, hydrogen and possibly reactive elemental silicon.
An apparatus to facilitate autonomous or semi-autonomous control of a vehicle comprising at least one processor and at least one non-transitory memory including computer program code instructions stored thereon, the computer program code instructions configured to, when executed, cause the apparatus to at least: receive a first image (310, 410) of a road segment comprising a feature (315, 415) disposed along the road segment; process the feature (315, 415) of the first image (310, 410) through a variational auto-encoder using a loss function to produce an encoded representation of a weathered version of the feature (315, 415) of the first image (310, 410); generate a revised image through the variational auto-encoder based on the encoded representation, wherein the revised image comprises the weathered version of the feature; generate a predicted image, using interpolation between the first image (310, 410) and the revised image, of a partially weathered version of the feature; receive a user image, wherein the user image is received from a vehicle traveling along the road segment; correlate a feature in the user image to the partially weathered version of the feature in the predicted image; establish that the feature in the user image corresponds to the feature (315, 415) disposed along the road segment; and facilitate autonomous or semi-autonomous control of the vehicle based, at least in part, on the feature in the user image in response to the feature in the user image being established as corresponding to the feature (315, 415) disposed along the road segment. receive a first image (310, 410) of a road segment comprising a feature (315, 415) disposed along the road segment; process the feature (315, 415) of the first image (310, 410) through a variational auto-encoder using a loss function to produce an encoded representation of a weathered version of the feature (315, 415) of the first image (310, 410); generate a revised image through the variational auto-encoder based on the encoded representation, wherein the revised image comprises the weathered version of the feature; generate a predicted image, using interpolation between the first image (310, 410) and the revised image, of a partially weathered version of the feature; receive a user image, wherein the user image is received from a vehicle traveling along the road segment; correlate a feature in the user image to the partially weathered version of the feature in the predicted image; establish that the feature in the user image corresponds to the feature (315, 415) disposed along the road segment; and facilitate autonomous or semi-autonomous control of the vehicle based, at least in part, on the feature in the user image in response to the feature in the user image being established as corresponding to the feature (315, 415) disposed along the road segment.
A method for producing an energy storage device holder for a vehicle, wherein the method has the following steps: - provision of a holder unit that is designed to accommodate and secure at least one energy storage unit and that has one base plate that includes at least one exposed cooling channel that is designed to carry a cooling fluid; - provision of a cooling plate; and - connection of the cooling plate to the holder unit, by which means the at least one exposed cooling channel is closed, characterised in that furthermore a step of providing an additional cooling plate is included, wherein the additional cooling plate has at least one additional exposed cooling channel, and wherein, furthermore, the additional exposed cooling channel in the additional cooling plate is closed by a side surface of the holder unit during the connection step, or wherein, during the step of providing the holder unit, a holder unit is provided that has on a side surface at least one additional exposed cooling channel that is further closed by an additional provided cooling plate during the connection step. - provision of a holder unit that is designed to accommodate and secure at least one energy storage unit and that has one base plate that includes at least one exposed cooling channel that is designed to carry a cooling fluid; - provision of a cooling plate; and - connection of the cooling plate to the holder unit, by which means the at least one exposed cooling channel is closed,
Disconnecting device for a power line, comprising - at least one disconnecting means which is spatially arranged between a first and a second connector (2, 4) when the disconnecting device is in a closed state, and which disconnecting means is moveable between a closed position and an open position, - the disconnecting means having at least one connecting element forming an electrical connection between the connectors (2,4) when the disconnecting device is in the closed state, - wherein the connecting element is electrically connected to the first connector via a first contact point and to the second connector via a second contact point when the disconnecting device is in the closed state, wherein - the disconnecting means is arranged in such a way that, when the disconnecting device is in an open state, a breakdown voltage between the first and the second connector (2, 4) is greater than between the first connector and the first contact point of the connecting element and/or between the second connector and the second contact point of the connecting element characterized in that - the disconnecting means is coated with at least two resistor elements (18a, 18b) which have different specific conductivities and form a resistance gradient, wherein the resistor elements (18a, b) immediately after the disconnection, are arranged between the connectors (2, 4), thereby electrically connecting the connectors (2, 4). - at least one disconnecting means which is spatially arranged between a first and a second connector (2, 4) when the disconnecting device is in a closed state, and which disconnecting means is moveable between a closed position and an open position, - the disconnecting means having at least one connecting element forming an electrical connection between the connectors (2,4) when the disconnecting device is in the closed state, - wherein the connecting element is electrically connected to the first connector via a first contact point and to the second connector via a second contact point when the disconnecting device is in the closed state, wherein - the disconnecting means is arranged in such a way that, when the disconnecting device is in an open state, a breakdown voltage between the first and the second connector (2, 4) is greater than between the first connector and the first contact point of the connecting element and/or between the second connector and the second contact point of the connecting element characterized in that - the disconnecting means is coated with at least two resistor elements (18a, 18b) which have different specific conductivities and form a resistance gradient, wherein the resistor elements (18a, b) immediately after the disconnection, are arranged between the connectors (2, 4), thereby electrically connecting the connectors (2, 4).
A method for scaling a layout of an application in an image display device, the method comprising: generating (107, 411, 607, 707) a scaling variable based on a distance between the image display device and a user; and scaling (109, 413, 611, 615, 715, 717) a layout of an application based on the scaling variable, wherein the scaling variable is generated (107, 411, 607, 707) as a ratio of a Pixel Per Degree, PPD, value of the image display device to a reference PPD, wherein the reference PPD is a PPD of another image display device, and wherein the scaling the layout of the application based on the scaling variable comprises: identifying that one or more image objects and one or more non-image objects are included in the layout; based on the scaling variable, scaling the one or more non-image objects; and based on one or more sizes of the scaled one or more non-image objects, scaling the one or more image objects. generating (107, 411, 607, 707) a scaling variable based on a distance between the image display device and a user; and scaling (109, 413, 611, 615, 715, 717) a layout of an application based on the scaling variable, wherein the scaling variable is generated (107, 411, 607, 707) as a ratio of a Pixel Per Degree, PPD, value of the image display device to a reference PPD, wherein the reference PPD is a PPD of another image display device, and wherein the scaling the layout of the application based on the scaling variable comprises: identifying that one or more image objects and one or more non-image objects are included in the layout; based on the scaling variable, scaling the one or more non-image objects; and based on one or more sizes of the scaled one or more non-image objects, scaling the one or more image objects. identifying that one or more image objects and one or more non-image objects are included in the layout; based on the scaling variable, scaling the one or more non-image objects; and based on one or more sizes of the scaled one or more non-image objects, scaling the one or more image objects.
A flywheel driven fastening tool comprising: a fastener driver drivable along a driver axis, and the fastener driver including a driver profile and a driver blade; a flywheel coupled to a tool frame and driven by an electric motor, and the flywheel being engageable with a flywheel side of the driver profile along a longitudinal flywheel engagement length; and a pair of pinch rollers coupled to the tool frame and being engageable with a pinch roller side of the driver profile that is opposite the flywheel side along a longitudinal roller engagement length of the pinch roller side of the driver profile; wherein a plane aligned with an axis of rotation of the flywheel and oriented perpendicular to the driver axis is located between an axis of rotation of each of the pair of pinch rollers throughout engagement of the flywheel with the fastener driver along the longitudinal flywheel engagement length. a fastener driver drivable along a driver axis, and the fastener driver including a driver profile and a driver blade; a flywheel coupled to a tool frame and driven by an electric motor, and the flywheel being engageable with a flywheel side of the driver profile along a longitudinal flywheel engagement length; and a pair of pinch rollers coupled to the tool frame and being engageable with a pinch roller side of the driver profile that is opposite the flywheel side along a longitudinal roller engagement length of the pinch roller side of the driver profile; wherein a plane aligned with an axis of rotation of the flywheel and oriented perpendicular to the driver axis is located between an axis of rotation of each of the pair of pinch rollers throughout engagement of the flywheel with the fastener driver along the longitudinal flywheel engagement length.
Finishing element for liquid-tight finishing of an at least substantially shank-like free outer end of a construction element, comprising a relatively form-retaining core body comprising a first core part with a first cavity for adjustably receiving therein a part of the free outer end and a second core part with a second cavity for adjustably receiving therein a part of the free outer end, and comprising a relatively flexible rim body of a bituminous or plastic wall-covering material which, at least in the mounted situation, is connected at least substantially liquid-tightly to the core body and extends laterally around the core body in at least substantially liquid-tight manner, characterized in that the second core part leaves an open space up to the free outer end and in that a liquid barrier is provided between the core body and the free outer end, the liquid barrier comprising a plug nut, which in the mounted position lies clampingly between the free outer end and the second core part for liquid-tight sealing of the open space.
A method for detecting a Gardnerella vaginalis target sequence if present in a sample comprising: (a) providing at least one oligonucleotide primer that will anneal to at least some portion of a target region of the vly gene of GV selected from the group consisting of SEQ ID NO. 20 and SEQ ID NO. 21; (b) combining the at least one oligonucleotide primer with a biological sample; (c) subjecting the sample to conditions to cause amplification of a portion of the target sequence, if present, in the sample; and (d) determining the presence or absence of the amplified target sequence. (a) providing at least one oligonucleotide primer that will anneal to at least some portion of a target region of the vly gene of GV selected from the group consisting of SEQ ID NO. 20 and SEQ ID NO. 21; (b) combining the at least one oligonucleotide primer with a biological sample; (c) subjecting the sample to conditions to cause amplification of a portion of the target sequence, if present, in the sample; and (d) determining the presence or absence of the amplified target sequence.
Polyarylene sulfide having an initial melt viscosity measured at 300°C of 70 to 200 Pa·s (700 to 2000 poise), and a melt viscosity after heat treated and molten at 300°C, equal to or greater than the initial melt viscosity, wherein melt viscosity change rate is in the range of +2% to +10% per 10 minutes as defined by the following Equation 1: Melt viscosity change rate % = 100 MV f / MV i − 1 wherein in the Equation 1, MV i denotes the initial melt viscosity of polyarylene sulfide, and MV f is the melt viscosity of polyarylene sulfide after heat treating the polyarylene sulfide at 300°C and melting it, wherein the MVf is melt viscosity measured under shear rate of 1rad/s in a plate-plate rheometer, 10 minutes after heat treating the polyarylene sulfide under inert gas atmosphere at 300°C for 3 minutes to melt it, wherein the polyarylene sulfide is prepared by a method comprising polymerization reaction of reactants including p-diiodobenzene, sulfur, and based on 100 parts by weight of the p-diiodobenzene, 0.25 to 0.43 parts by weight of a polymerization terminator, wherein a part of the sulfur is added to the initial reaction mixture 5 hours or more elapsed after the polymerization reaction is initiated, the polymerization reaction is further progressed for 3 hours to 8 hours after the additional amount of sulfur is added, the content of the additional amount of the sulfur is 1.5 to 5.0 parts by weight based on 100 parts by weight of the sulfur included in the initial reactants.
An electrochemical measurement device for electrochemically measuring a chemical substance generated or consumed in a biological sample in a solution, wherein the biological sample, which has diameter dimension between 100 μm, inclusive, and 600 μm, inclusive, comprises cells, cell aggregates, pieces of tissue, or non-biological samples containing biologically-relevant substances, by comprising a working electrode that includes an electrode surface supplying or receiving electrons to or from the chemical substance to cause an oxidation-reduction reaction, provided that the biological sample excludes human embryos and fertilized human egg cells, wherein the electrode surface has a diameter dimension d el less than or equal to 80 μm; and a spacer is present in a solution well containing the solution and the biological sample, the spacer having a profile surface at a distance h 1 in the direction perpendicular to the electrode surface, the distance h 1 satisfying h 1 = 21.8 d el + 0.8 d el + 9.7 ± 5 μm the spacer preventing the biological sample from entering a region on the electrode surface side of the profile surface and allowing a dissolved substance to diffuse in the solution to the working electrode. wherein the electrode surface has a diameter dimension d el less than or equal to 80 μm; and a spacer is present in a solution well containing the solution and the biological sample, the spacer having a profile surface at a distance h 1 in the direction perpendicular to the electrode surface, the distance h 1 satisfying h 1 = 21.8 d el + 0.8 d el + 9.7 ± 5 μm the spacer preventing the biological sample from entering a region on the electrode surface side of the profile surface and allowing a dissolved substance to diffuse in the solution to the working electrode.
A method of repairing a wind turbine, a gear assembly of the wind turbine comprising a housing component having an inner surface (22a, 24a, 26a) defining a bore (22, 24, 26) and a bearing housed in the bore (22, 24, 26), the method being characterised by: drilling a hole from an outer surface of the housing component to the inner surface (22a, 24a, 26a), the hole being formed to communicate with a gap created by wear between the housing component and the bearing, the gap being defined between the inner surface (22a, 24a, 26a) of the housing component and an outer surface of the bearing; and, injecting a liquid resin through the hole to fill the gap, and allowing the liquid resin to solidify in the gap prior to resuming operation of the wind turbine. drilling a hole from an outer surface of the housing component to the inner surface (22a, 24a, 26a), the hole being formed to communicate with a gap created by wear between the housing component and the bearing, the gap being defined between the inner surface (22a, 24a, 26a) of the housing component and an outer surface of the bearing; and, injecting a liquid resin through the hole to fill the gap, and allowing the liquid resin to solidify in the gap prior to resuming operation of the wind turbine.
An external controller for receiving wireless data from an implantable medical device, comprising: an antenna configured to generate an AC signal in response to wireless data received from the implantable medical device, wherein the wireless data comprises at least one first frequency; an amplifier configured to amplify the AC signal; a switching circuit controlled by a digital reference signal of a second frequency, wherein the switching circuit is configured to invert the amplified AC signal when the digital reference signal changes state, thereby producing an intermediate frequency AC signal (Vif) comprising at least one intermediate frequency; and an analog-to-digital (A/D) converter configured to sample the intermediate frequency AC signal using the digital reference signal, thereby producing digital samples; wherein the second frequency is more than two times the at least one intermediate frequency, but not more than two times the at least one first frequency. an antenna configured to generate an AC signal in response to wireless data received from the implantable medical device, wherein the wireless data comprises at least one first frequency; an amplifier configured to amplify the AC signal; a switching circuit controlled by a digital reference signal of a second frequency, wherein the switching circuit is configured to invert the amplified AC signal when the digital reference signal changes state, thereby producing an intermediate frequency AC signal (Vif) comprising at least one intermediate frequency; and an analog-to-digital (A/D) converter configured to sample the intermediate frequency AC signal using the digital reference signal, thereby producing digital samples; wherein the second frequency is more than two times the at least one intermediate frequency, but not more than two times the at least one first frequency.
Wiper device, having a wiper blade with a connection terminal and having a wiper arm with a locking cap and with at least one fluid-guiding line, wherein the wiper blade is connectable to the wiper arm at the connection terminal via a side lock connection and is lockable in a fixed position by the locking cap pressing against the connection terminal, wherein the connection terminal has nozzles arranged at the side of the wiper blade, characterized in that the nozzles are connected in a fluid-conducting manner to at least one fluid coupling introduced into the connection terminal, the at least one fluid-guiding line of the wiper arm being connected to a fluid plug-type connector to form a fluid-guiding connection with the fluid coupling, and the fluid plug-type connector being concealed by the locking cap, the fluid plug-type connector being rotatably arranged on the wiper arm parallel to the locking cap.