mhurhangee/ep-ind-claims huggingface dataset:
A foothold comprising: a module housing including a dissipation fan; a dissipation heat sink provided over the dissipation fan; a cover disposed on the module housing and having a top surface on which a user's feet are placeable; a thermoelectric element disposed between the dissipation heat sink and the cover; and a blowing portion (120, 130) disposed at a side of the module housing and including a blowing fan (142, 144) configured to blow air to a space over the cover. a module housing including a dissipation fan; a dissipation heat sink provided over the dissipation fan; a cover disposed on the module housing and having a top surface on which a user's feet are placeable; a thermoelectric element disposed between the dissipation heat sink and the cover; and a blowing portion (120, 130) disposed at a side of the module housing and including a blowing fan (142, 144) configured to blow air to a space over the cover.
Method for measuring the reproducibility of the performance levels of N unitary ion/electrode exchange membrane assemblies, with the integer N being strictly greater than 1, each assembly containing an ion exchange membrane which is located between an anode which is supplied by a first flux and a cathode which is supplied by a second flux and which has characteristics of cell voltage, characterised in that it comprises the following steps: - introducing into each unitary assembly a flux which contains at least one polluting species for a given period of time; - measuring at least one electrochemical parameter of each assembly; - comparing the measurements in order to evaluate the reproductivity of the assemblies. - introducing into each unitary assembly a flux which contains at least one polluting species for a given period of time; - measuring at least one electrochemical parameter of each assembly; - comparing the measurements in order to evaluate the reproductivity of the assemblies.
A light output device comprising a substrate arrangement (1,2) with at least one light source device integrated into the structure of the substrate arrangement, wherein the substrate arrangement comprises: first and second light transmissive substrates (1, 2); a thermally insulating layer in thermal contact with the at least one light source device; and a thermally conductive layer in thermal contact with the at least one light source device, characterized in that the thermally conductive layer is provided on one of the first and second substrates, wherein another thermally conductive layer is provided on the other of the first and second substrates and between said thermally insulating layer and the other of the first and second substrates, and wherein the light transmissive substrates (1,2) are each coated with the preferably optically transparent, thermally conductive layer (6a,6b), wherein the substrate arrangement further comprises an electrode arrangement (3a,3b) sandwiched between the substrates (1,2), wherein the at least one light source device is connected to the electrode arrangement, and wherein the or each thermally conductive layer (6a,6b) comprises one or more of diamond-like-carbon, MgO and Si3N4. first and second light transmissive substrates (1, 2); a thermally insulating layer in thermal contact with the at least one light source device; and a thermally conductive layer in thermal contact with the at least one light source device, wherein the substrate arrangement further comprises an electrode arrangement (3a,3b) sandwiched between the substrates (1,2), wherein the at least one light source device is connected to the electrode arrangement, and wherein the or each thermally conductive layer (6a,6b) comprises one or more of diamond-like-carbon, MgO and Si3N4.
A cart (350, 550, 750, 850, 950, 1050, 1250, 1450, 1850, 2050, 2150, 2250) comprising: a base freely movable on a support surface between a first location remote from a surgical table (100, 200) and a second location adjacent to the surgical table (100, 200); an arm support (569, 969, 1469) coupled to the base and configured to support a surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) having a coupler (539, 739, 839, 939, 1039, 1239, 1439, 1839, 1939, 2039) releasably couplable to a coupling site on the surgical table (100, 200), characterized in that the arm support (569, 969, 1469) is releasably couplable to the surgical robotic arm at a support location spaced from the coupler to support the surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) above the base and permit movement of the arm between a first position in which the coupler is not engageable with the coupling site when the base is at the second location and a second position in which the coupler is engageable with the coupling site when the base is at the second location to allow the arm support (569, 969, 1469) to disengage from the surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) when the coupler (539, 739, 839, 939, 1039, 1239, 1439, 1839, 1939, 2039) is engaged with the coupling site. a base freely movable on a support surface between a first location remote from a surgical table (100, 200) and a second location adjacent to the surgical table (100, 200); an arm support (569, 969, 1469) coupled to the base and configured to support a surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) having a coupler (539, 739, 839, 939, 1039, 1239, 1439, 1839, 1939, 2039) releasably couplable to a coupling site on the surgical table (100, 200), characterized in that the arm support (569, 969, 1469) is releasably couplable to the surgical robotic arm at a support location spaced from the coupler to support the surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) above the base and permit movement of the arm between a first position in which the coupler is not engageable with the coupling site when the base is at the second location and a second position in which the coupler is engageable with the coupling site when the base is at the second location to allow the arm support (569, 969, 1469) to disengage from the surgical robotic arm (130, 230, 330, 530, 730, 830, 930, 1230, 1430, 1830, 2030) when the coupler (539, 739, 839, 939, 1039, 1239, 1439, 1839, 1939, 2039) is engaged with the coupling site.
A method of preparing a banana extract comprising the steps of: combining a fruit core from a plant of the family Musaceae, wherein the fruit core is substantially free of: the fruit peel, the fruit ends, and any discoloration or bruises, with distilled water; blending the fruit and distilled water in a processor to form a smooth mixture; separating the blended fruit and distilled water into a supernatant and a sediment, wherein the sediment is discarded and the supernatant is further processed; sterilizing the supernatant; optionally performing a second separation on the sterilized supernatant to remove any separated sediment or debris; and clarifying the sterilized supernatant by membrane filtration with a flat sheet or hollow fiber membrane, tubular membrane, spiral wound, hollow fiber, pressurized, immersed, or ceramic filtration process with a molecular cut-off of 1000 Dalton. the fruit peel, the fruit ends, and any discoloration or bruises, with distilled water; blending the fruit and distilled water in a processor to form a smooth mixture; separating the blended fruit and distilled water into a supernatant and a sediment, wherein the sediment is discarded and the supernatant is further processed; sterilizing the supernatant; optionally performing a second separation on the sterilized supernatant to remove any separated sediment or debris; and clarifying the sterilized supernatant by membrane filtration with a flat sheet or hollow fiber membrane, tubular membrane, spiral wound, hollow fiber, pressurized, immersed, or ceramic filtration process with a molecular cut-off of 1000 Dalton.
An immunoglobulin G-degrading enzyme of Streptococcus pyogenes (IdeS) polypeptide for use in the prevention or treatment of an humoral immune response caused by administration of a recombinant adeno-associated virus vector, wherein the humoral immune response is against the recombinant AAV vector and wherein the IdeS is administered within 72 hours before the recombinant AAV vector is administered.
A work machine, comprising: an implement (300, 400) coupled to the work machine; a first sensor coupled to the implement (300, 400); a second sensor coupled to the work machine, wherein the orientation of the implement (300, 400) is identified by comparing the values of the first sensor with the values of the second sensor; a controller; and an implement position system that couples the implement (300, 400) to the work machine, wherein, the first sensor identifies the orientation of the implement (300, 400) along more than one axis (306, 312, 314); wherein the controller manipulates the implement position system to reposition the implement (300, 400) relative to the work machine by comparing orientation date from the first sensor to orientation data from the second sensor; characterized in that the controller manipulates the implement position system to follow a contour of an underlying surface when the first sensor identifies a prolonged movement of the implement (300, 400) and the second sensor does not identify a corresponding prolonged movement of the work machine the implement comprising a draper head or a rotary head. an implement (300, 400) coupled to the work machine; a first sensor coupled to the implement (300, 400); a second sensor coupled to the work machine, wherein the orientation of the implement (300, 400) is identified by comparing the values of the first sensor with the values of the second sensor; a controller; and an implement position system that couples the implement (300, 400) to the work machine, wherein, the first sensor identifies the orientation of the implement (300, 400) along more than one axis (306, 312, 314); wherein the controller manipulates the implement position system to reposition the implement (300, 400) relative to the work machine by comparing orientation date from the first sensor to orientation data from the second sensor; characterized in that the controller manipulates the implement position system to follow a contour of an underlying surface when the first sensor identifies a prolonged movement of the implement (300, 400) and the second sensor does not identify a corresponding prolonged movement of the work machine the implement comprising a draper head or a rotary head.
A method for automated selection of image features useful for classifying cell phenotype, the method comprising the steps of: (a) calculating an original set S 0 of N 0 features for imaged cells having a first known class and for imaged cells having a second known class; (b) selecting a plurality of pairs of features from the original set S 0 and determining for each said pair of features a signal-to-noise ratio (S/N) between the first and the second known class, wherein the S/N is a function of the ratio of variance between classes (σ b 2) to variance within the classes (σ w 2); (c) identifying, in decreasing order of value S/N, a predetermined number N p of feature pairs with highest value S/N determined in step (b), wherein N p is an integer ≥ 2; and (d) after a predefined number N s of times a single feature appears in the feature pairs identified at step (c), omitting all following pairs with the same feature from the feature pairs identified at step (c) and identifying the set S 1 of distinct features within the remaining feature pairs; (e) selecting a set S 2 of N 2 features for classification of cell phenotype from the set S 1. (a) calculating an original set S 0 of N 0 features for imaged cells having a first known class and for imaged cells having a second known class; (b) selecting a plurality of pairs of features from the original set S 0 and determining for each said pair of features a signal-to-noise ratio (S/N) between the first and the second known class, wherein the S/N is a function of the ratio of variance between classes (σ b 2) to variance within the classes (σ w 2); (c) identifying, in decreasing order of value S/N, a predetermined number N p of feature pairs with highest value S/N determined in step (b), wherein N p is an integer ≥ 2; and (d) after a predefined number N s of times a single feature appears in the feature pairs identified at step (c), omitting all following pairs with the same feature from the feature pairs identified at step (c) and identifying the set S 1 of distinct features within the remaining feature pairs; (e) selecting a set S 2 of N 2 features for classification of cell phenotype from the set S 1.
Biodegradable container or plate material comprising a layer of cellulose-based material provided with a composite surface layer comprising cellulose-based material and a polyester derived from an aliphatic polyalcohol with 2-15 carbon atoms, the aliphatic polyalcohol containing at least 50 mole% of glycerol and an aliphatic polycarboxylic acid with 3 to 15 carbon atoms, wherein the polycarboxylic acid comprises at least 50 wt.% of citric acid, the cellulose-based material containing at least 70 wt.% of cellulose material.
Pneumatic vehicle tyre of a radial type of construction, with a tread of a single layer or multiple layers in the radial direction, wherein at least one carbon center beam is provided, passing through the tread in the radial direction, and wherein the tread or the radially outermost tread layer consists of electrically nonconductive rubber material and the carbon center beam consists of electrically conductive rubber material, characterized in that the rubber material of the tread or of the radially outermost tread layer and the rubber material of the carbon center beam have according to DIN 53504, but at a rubber temperature of 150°C, stress values at 50% elongation (σ 50) and stress values at 100% elongation (σ 100), wherein both with an elongation of 50% and with an elongation of 100% the stress values (σ 50, σ 100) of the rubber material of the carbon center beam deviate by at most 25% from the stress values of the rubber material of the tread or of the radially outermost tread layer and wherein the rubber material of the tread or of the radially outermost tread layer and the rubber material of the carbon center beam respectively have a stress value at 100% elongation (σ 100) of 0.8 MPa to 1.7 MPa.
A method for providing, receiving and processing traffic data, the method being performed by a device application on a mobile device (110, 130, 140, 800) of a plurality of mobile devices (110, 130, 140, 800) and comprising the steps of: receiving traffic data, the traffic data originating from multiple sources (150, 160, 170), wherein the traffic data is at least in part crowd sourced data, a portion of the crowd sourced data originating passively through the plurality of mobile devices (110, 130, 140, 800) and another portion of the crowd sourced data originating actively from the remote user through a plurality of mobile devices (110, 130, 140, 800), and wherein the traffic data includes incident data, traffic flow data, and media data associated with the traffic; validating the traffic data by aggregating the traffic data and removing anomalies in the traffic data; providing traffic data information through an interface of the mobile device (110, 130, 140, 800) according to user criteria, wherein the user criteria includes at least a user location and at least one type of traffic information the user is interested in receiving, and wherein the traffic data information is generated based on the validated traffic data; providing (340, 350, 360) driving efficiency information through the interface; and periodically updating the traffic data information at a frequency selected by the user or set by the device application. receiving traffic data, the traffic data originating from multiple sources (150, 160, 170), wherein the traffic data is at least in part crowd sourced data, a portion of the crowd sourced data originating passively through the plurality of mobile devices (110, 130, 140, 800) and another portion of the crowd sourced data originating actively from the remote user through a plurality of mobile devices (110, 130, 140, 800), and wherein the traffic data includes incident data, traffic flow data, and media data associated with the traffic; validating the traffic data by aggregating the traffic data and removing anomalies in the traffic data; providing traffic data information through an interface of the mobile device (110, 130, 140, 800) according to user criteria, wherein the user criteria includes at least a user location and at least one type of traffic information the user is interested in receiving, and wherein the traffic data information is generated based on the validated traffic data; providing (340, 350, 360) driving efficiency information through the interface; and periodically updating the traffic data information at a frequency selected by the user or set by the device application.
Composition comprising an extract of seeds of Acacia macrostachya and if necessary an appropriate excipient, characterized in that the seed extract is a peptide and oside extract substantially cleared of any residual native protein.
Alighting arrangement (1, 51, 71, 91, 111, 141, 161, 181, 211) having a means (14, 15, 44, 45, 77, 97) for coupling the lighting arrangement to a bulb holder (4, 75, 95, 115, 165, 185, 215) of an attachable pendant type light fitting, an attachable pendant centre light, an attachable recessed light, an attachable table lamp or an attachable floor lamp and a lampshade (3, 33, 53, 84, 113, 142) supported on the coupling means (14, 15, 44, 45, 77, 97), the lighting arrangement having means (2,) for causing relative movement between the lampshade (3, 33, 53, 84, 104, 113, 142) and the coupling means (14, 15, 44, 45, 77, 97), the movable lampshade having a lampshade support frame, the movement causing means comprising a transducer for converting solar energy to electrical energy.
A modular electrical device for switches, sockets and other electrical components to be applied to a wall, comprising a frame and one or more electrical components that can be fixed to the frame; said frame having engagement means (2, 3, 7), each of said engagement means (2, 3, 7) engaging a grip member (207, 210) provided on an electrical component to be associated with said frame; said engagement means (2, 3, 7) comprising a lock means (3, 17) for locking the axial movement of said electrical component with respect to said frame, said grip members (207, 210) comprising an axial guiding means that guides said electrical component to slide with respect to said frame, guiding means comprising dovetail members provided on opposite walls of said electrical component, said dovetail members being inserted and sliding along external profiles of said frame; said device being characterized in that said lock means comprise a groove which is formed within each of guiding members of said frame and a recess which is arranged below each guiding member and accommodates a tooth of a flexible engagement member provided on opposite walls of said electric component; said lock means further comprising a protruding member, which is formed on said electrical component at said flexible engagement member on the same axis as said tooth, said protruding member abutting against a final rear part of said groove of said guiding member, said tooth abutting inside said recess.
A current sensor comprising: an inductor configured for sensing an alternating current signal component of an observed signal, the inductor comprising a multi-layered substrate, a plurality of conductive traces associated with different layers of the substrate, and one or more conductive vias for interconnecting the plurality of conductive traces; a magnetic field sensor configured for sensing a direct current signal component of the observed signal; a first filtering circuit having a high-pass filter response, the first filtering circuit coupled to the inductor to provide a filtered alternating current signal component; a second filtering circuit having a low-pass filter response, the second filtering circuit coupled to the magnetic field sensor to provide a filtered direct current signal component; and a sensor fusion circuit configured for accepting the filtered alternating current signal component and the filtered direct current signal component and for determining an aggregate sensed current. an inductor configured for sensing an alternating current signal component of an observed signal, the inductor comprising a multi-layered substrate, a plurality of conductive traces associated with different layers of the substrate, and one or more conductive vias for interconnecting the plurality of conductive traces; a magnetic field sensor configured for sensing a direct current signal component of the observed signal; a first filtering circuit having a high-pass filter response, the first filtering circuit coupled to the inductor to provide a filtered alternating current signal component; a second filtering circuit having a low-pass filter response, the second filtering circuit coupled to the magnetic field sensor to provide a filtered direct current signal component; and a sensor fusion circuit configured for accepting the filtered alternating current signal component and the filtered direct current signal component and for determining an aggregate sensed current.
A replaceable component for a luminaire, the luminaire having an organic emissive component, and an outcoupling component configured to outcouple light from the organic emissive component, said replaceable component comprising: an index matching material; wherein the replaceable component is replaceable separately from at least one other component of the luminaire characterized in that the replaceable component further comprises an index matching element, wherein the index matching element is a self-contained unit, and wherein the self-contained unit contains a packet containing the index matching material, an index matching material; wherein the replaceable component is replaceable separately from at least one other component of the luminaire characterized in that the replaceable component further comprises an index matching element, wherein the index matching element is a self-contained unit, and wherein the self-contained unit contains a packet containing the index matching material,