mhurhangee/ep-ind-claims huggingface dataset:
A vehicle having an integrated connector system, comprising: an accessory comprising one or more attachment plugs; a vehicle body comprising an outer surface; a plurality of attachment ports arranged on the outer surface each configured to receive a respective attachment plug of the accessory, each of the plurality of attachment ports comprising: a recess that extends below the surrounding outer surface configured to receive a respective attachment plug, the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess, the pin being arranged within the recess at a depth less than the depth of the recess; wherein the one or more attachment plugs each includes a body configured to extend into the recess, characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess, and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port. an accessory comprising one or more attachment plugs; a vehicle body comprising an outer surface; a plurality of attachment ports arranged on the outer surface each configured to receive a respective attachment plug of the accessory, each of the plurality of attachment ports comprising: a recess that extends below the surrounding outer surface configured to receive a respective attachment plug, the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess, the pin being arranged within the recess at a depth less than the depth of the recess; wherein the one or more attachment plugs each includes a body configured to extend into the recess, characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess, and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port. a recess that extends below the surrounding outer surface configured to receive a respective attachment plug, the recess having opposing sides and a depth; and a pin extending between two opposing sides of the recess, the pin being arranged within the recess at a depth less than the depth of the recess; wherein the one or more attachment plugs each includes a body configured to extend into the recess, characterized in that a notch formed in the body is configured to accommodate the pin when the plug is inserted into the recess, and a latching mechanism configured to engage the pin when the pin is received in the notch to constrain relative motion of the attachment plug away from the attachment port.
Colloidal coating dispersion comprising electrochromic polymer particles having an average particle size d 50 in the range from 1 to 200 nm as solid phase and at least one alcohol as liquid phase; wherein the solids content of the colloidal coating dispersion is from 0.1 to 20 wt.-% based on the total mass of the colloidal coating dispersion; the electrochromic polymer particles are derived from a water-insoluble monomer selected from the group consisting of pyrrole derivatives, thiophene, thiophene derivatives or their mixtures; and the colloidal coating solution contains a maximum of 5 wt.-% of stabilizers and dispersing agents.
A method of melt infiltration for producing a ceramic matrix composite, the method comprising: applying a non-wetting coating onto one or more outer surfaces of a porous fibre preform, the non-wetting coating comprising a non-wetting material with which molten silicon comprises a contact angle (θc) of at least 45 degrees, the non-wetting material being selected from the group consisting of boron nitride, aluminium nitride and silicon nitride; applying a high-emissivity coating comprising a non-reflective material onto the non-wetting coating, the non-reflective material comprising carbon; after applying the high-emissivity coating, immersing an uncoated portion of the porous fibre preform into a molten material comprising silicon, the molten material being infiltrated into the porous fibre preform through the uncoated portion, the non-wetting coating serving as a barrier to inhibit or prevent the molten material from penetrating the one or more outer surfaces; after infiltration of the molten material into the porous fibre preform, cooling the molten material to form a ceramic matrix composite; and removing the non-wetting coating. applying a non-wetting coating onto one or more outer surfaces of a porous fibre preform, the non-wetting coating comprising a non-wetting material with which molten silicon comprises a contact angle (θc) of at least 45 degrees, the non-wetting material being selected from the group consisting of boron nitride, aluminium nitride and silicon nitride; applying a high-emissivity coating comprising a non-reflective material onto the non-wetting coating, the non-reflective material comprising carbon; after applying the high-emissivity coating, immersing an uncoated portion of the porous fibre preform into a molten material comprising silicon, the molten material being infiltrated into the porous fibre preform through the uncoated portion, the non-wetting coating serving as a barrier to inhibit or prevent the molten material from penetrating the one or more outer surfaces; after infiltration of the molten material into the porous fibre preform, cooling the molten material to form a ceramic matrix composite; and removing the non-wetting coating.
Industrial extraction installation having a filter door for closing a housing opening of a filter housing for at least one filter, wherein the filter door having at least one locking means is attachable with respect to the housing surface of the industrial extraction installation, and the filter housing has an annular edge around the housing opening, on which the filter door is placeable and which projects by a distance horizontally from the housing surface of the filter housing, wherein the filter door in the opened state forms a support surface for the filter, characterised in that the filter door is arranged to be pivotable on the housing surface on one side by means of a slotted guide and has a displaceable pivot axis, wherein the slotted guide consists of at least one guide element arranged on the housing surface and having at least one profiled recess, and the opposite part has at least one pin which is mounted to be rotatable and displaceable in the profiled recess, wherein the length of a horizontal, straight section of the profiled recess of the guide element corresponds approximately to the distance of the edge.
A toy water gun comprising at least: a pressure tank, a nozzle, a tube, and a valve with a valve conduit and with a valve drive coupled to a valve stem, wherein - the pressure tank is a bladder tank and has an outlet being directly connected to an inlet of the tube, - the tube has an outlet being directly connected to an inlet port of the valve conduit, and - an outlet port of the valve conduit is in fluid communication with the nozzle, wherein the valve drive is a linear drive comprising a body and an electromagnet, which is configured to attract the body, when connected to a power source. - the pressure tank is a bladder tank and has an outlet being directly connected to an inlet of the tube, - the tube has an outlet being directly connected to an inlet port of the valve conduit, and - an outlet port of the valve conduit is in fluid communication with the nozzle, wherein the valve drive is a linear drive comprising a body and an electromagnet, which is configured to attract the body, when connected to a power source.
A synthetic turf testing apparatus comprising: - a test element, wherein the test element has a contact surface for contacting a synthetic turf surface; - a pedestal attached to the test element, wherein the pedestal is configured for applying force to the test element; - a carriage for translating the pedestal along a translational path; - a guide structure for supporting the carriage and guiding the carriage along the translational path; and - an actuator for moving the carriage relative to the guide structure; characterized in that the test element comprises a temperature sensor for measuring a time dependent surface temperature of the contact surface, wherein the temperature sensor is mounted flush with the contact surface, wherein the temperature sensor is a surface thermocouple mounted flush with the contact surface. - a test element, wherein the test element has a contact surface for contacting a synthetic turf surface; - a pedestal attached to the test element, wherein the pedestal is configured for applying force to the test element; - a carriage for translating the pedestal along a translational path; - a guide structure for supporting the carriage and guiding the carriage along the translational path; and - an actuator for moving the carriage relative to the guide structure;
An insulin pump which is self-learning in configuration, having a pump device, a control for the pump device, a memory, at least one operating element for the user of the insulin pump to operate the insulin pump, and a display device, wherein the control is designed and programmed in a manner such that a user-specific preference profile stored in the memory is continuously updated on the basis of an analysis of operating inputs by the user, characterized in that the analysis of the operating inputs comprises correlating with the respective time and with the respective date as well as a statistical analysis in order to obtain the updated user-specific preference profile, wherein a menu selection with menu items which are a function of the updated user-specific preference profile and a current time are presented to the user of the insulin pump on the display device, wherein the menu items of the menu selection are displayed in an order which is in accordance with the updated preference profile and the current time, wherein the menu item with the most probable selection as a function of the current time and of the preference profile is displayed in a prioritized manner and the further menu items follow in the order of the selection probabilities assigned thereto, wherein prioritized means that the relevant menu item can be selected by pressing a confirmation key, whereas in order to select a further menu item, a cursor must firstly be moved onto it.
A composition comprising a polyclonal population of cytotoxic T lymphocytes (CTLs) that target at least one antigen from two or more viruses; wherein the CTLs are generated by a method comprising contacting peripheral blood mononuclear cells (PBMCs) with at least two libraries of peptides, said libraries of peptides each comprising peptides that overlap in sequence to span part or all of a viral antigen and that are at least seven amino acids in length; wherein the contacting is performed in the absence of isolated peptide-pulsed dendritic cells; wherein the viral antigen for at least one of the libraries is an immunodominant antigen and the viral antigen for a different at least one of the libraries is a subdominant antigen; wherein the CTLs are specific for the immunodominant antigen and the subdominant antigen; and wherein (a) one of the viruses is BK virus and the antigen is selected from LT and VP-1; (b) one of the viruses is HHV6 and the antigen is selected from U14, U11, U71, U54, and U90; (c) one of the viruses is RSV and the antigen is selected from N and F; and/or (d) one of the viruses is influenza and the antigen is selected from MP1 and NP1. (a) one of the viruses is BK virus and the antigen is selected from LT and VP-1; (b) one of the viruses is HHV6 and the antigen is selected from U14, U11, U71, U54, and U90; (c) one of the viruses is RSV and the antigen is selected from N and F; and/or (d) one of the viruses is influenza and the antigen is selected from MP1 and NP1.
A variable power divider comprising: a latching ferrite circulator including an input port, a first output port, a second output port, and at least one magnetizing winding, wherein the input port, first output port, and the second output port meet in a common junction; characterised in that it further comprises a controller interface having an input that receives a command signal indicating a desired power division ratio for dividing power received at the input port between the first output port and the second output port; and a driver circuit configured to receive a control signal from the controller interface; wherein the driver circuit generates a first current pulse in a first direction through the at least one magnetizing winding, the first current pulse having a duration and amplitude corresponding to a first saturation state of the latching ferrite circulator; wherein after the first current pulse, the driver circuit generates a second current pulse in a second direction through the at least one magnetizing winding opposite to the first direction, the second current pulse having a duration and amplitude determined from the desired power division ratio indicated by the command signal and corresponding to a non-saturation state of the latching ferrite circulator. a latching ferrite circulator including an input port, a first output port, a second output port, and at least one magnetizing winding, wherein the input port, first output port, and the second output port meet in a common junction; characterised in that it further comprises a controller interface having an input that receives a command signal indicating a desired power division ratio for dividing power received at the input port between the first output port and the second output port; and a driver circuit configured to receive a control signal from the controller interface; wherein the driver circuit generates a first current pulse in a first direction through the at least one magnetizing winding, the first current pulse having a duration and amplitude corresponding to a first saturation state of the latching ferrite circulator; wherein after the first current pulse, the driver circuit generates a second current pulse in a second direction through the at least one magnetizing winding opposite to the first direction, the second current pulse having a duration and amplitude determined from the desired power division ratio indicated by the command signal and corresponding to a non-saturation state of the latching ferrite circulator.
A compound comprising a substituted nucleoside of Formula I: wherein R 1 = Z-CO-, wherein Z = X(CH 2) n Y(CH 2) n -, or CH 3 (CH 2) n CH(Br)-; X = CH 3, N 3, alkyl-S, alkyl-O, aryl-O, aryl-S, alkyl-NH, arylNH, Br, Cl, F, I, OH, NH 2, COOH, CHO, CH 3 S, aryl, heteroaryl, phenyl, alkene, alkyne, or substituted phenyl; Y = CH 2, O, S, NH, 1,2,3-triazole; n = 0-18; R 2 = F; R 3 = CH 3; and R 4 = H; for use as a microbicide to prevent or reduce transmission of a sexually transmitted pathogen. R 1 = Z-CO-, wherein Z = X(CH 2) n Y(CH 2) n -, or CH 3 (CH 2) n CH(Br)-; X = CH 3, N 3, alkyl-S, alkyl-O, aryl-O, aryl-S, alkyl-NH, arylNH, Br, Cl, F, I, OH, NH 2, COOH, CHO, CH 3 S, aryl, heteroaryl, phenyl, alkene, alkyne, or substituted phenyl; Y = CH 2, O, S, NH, 1,2,3-triazole; n = 0-18; R 2 = F; R 3 = CH 3; and R 4 = H; for use as a microbicide to prevent or reduce transmission of a sexually transmitted pathogen.
A nanoparticle comprising: one or more than one polymer comprising from 60 to 330 monomeric constituents selected from C 1 -C 10 -alkyl cyanoacrylates and C 1 -C 6 -alkoxy-C 1 -C 10 -alkyl cyanoacrylates, and having a dispersity of less than 3.0, and one or more than one cargo compound selected from pharmaceutically active agents, cosmetically active agents and nutritional supplements. one or more than one polymer comprising from 60 to 330 monomeric constituents selected from C 1 -C 10 -alkyl cyanoacrylates and C 1 -C 6 -alkoxy-C 1 -C 10 -alkyl cyanoacrylates, and having a dispersity of less than 3.0, and one or more than one cargo compound selected from pharmaceutically active agents, cosmetically active agents and nutritional supplements.
A method for manufacturing of coating used in paper and board manufacturing, in which method the coating is manufactured by mixing together two or more components in an arrangement which comprises at least means for transferring and mixing the coating components, characterised in that - the mixing of components is carried out by mixing two or more components in two or more mixing zones arranged in series and/or in parallel, which mixing zones are pressurised at the pressure level about 100-1000 kPa, and that - the components to be mixed are in a pressurised space also at least between the pressurised mixing zones. - the mixing of components is carried out by mixing two or more components in two or more mixing zones arranged in series and/or in parallel, which mixing zones are pressurised at the pressure level about 100-1000 kPa, and that - the components to be mixed are in a pressurised space also at least between the pressurised mixing zones.
A sealing method, comprising: installing a plurality of resilient annular seals, made of an elastomeric material, between outer and inner seal surfaces (28, 30) in a well tool, wherein each one of the seals is interposed between, and is in direct contact with each ring of a pair of anti-extrusion rings, the seals being compressed radially between the outer and inner seal surfaces as a result of the installing; and at least one spring external to the seals exerting a longitudinal compressive force on the seals to radially extend the seals into sealing engagement with the surfaces. installing a plurality of resilient annular seals, made of an elastomeric material, between outer and inner seal surfaces (28, 30) in a well tool, wherein each one of the seals is interposed between, and is in direct contact with each ring of a pair of anti-extrusion rings, the seals being compressed radially between the outer and inner seal surfaces as a result of the installing; and at least one spring external to the seals exerting a longitudinal compressive force on the seals to radially extend the seals into sealing engagement with the surfaces.
A secondary battery, comprising: • a high capacity electrode portion comprising a first positive electrode plate, a first negative electrode plate opposite to the first positive electrode plate, and a first separator portion interposed between the first positive electrode plate and the first negative electrode plate; • a high power electrode portion comprising a second positive electrode plate, a second negative electrode plate opposite to the second positive electrode plate, and a second separator portion interposed between the second positive electrode plate and the second negative electrode plate; and • a battery case (11, 21) configured to accommodate the high-capacity electrode portion, the high-power electrode portion and an electrolyte therein, characterised in that a volume of a second positive electrode active material coating portion coated on the second positive electrode plate is 2 vol% to 20 vol% of that of a first positive electrode active material coating portion coated on the first positive electrode plate and said second positive electrode active material coating portion wherein a power density of the second electrode portion is at least four times greater than that of the first electrode portion. • a high capacity electrode portion comprising a first positive electrode plate, a first negative electrode plate opposite to the first positive electrode plate, and a first separator portion interposed between the first positive electrode plate and the first negative electrode plate; • a high power electrode portion comprising a second positive electrode plate, a second negative electrode plate opposite to the second positive electrode plate, and a second separator portion interposed between the second positive electrode plate and the second negative electrode plate; and • a battery case (11, 21) configured to accommodate the high-capacity electrode portion, the high-power electrode portion and an electrolyte therein, characterised in that a volume of a second positive electrode active material coating portion coated on the second positive electrode plate is 2 vol% to 20 vol% of that of a first positive electrode active material coating portion coated on the first positive electrode plate and said second positive electrode active material coating portion wherein a power density of the second electrode portion is at least four times greater than that of the first electrode portion.
An electronic display assembly comprising: a first microlens layer on a first side of a circuit board, the first microlens layer comprising a first plurality of cells; a second microlens layer on an opposite side of the circuit board from the first microlens layer, the second microlens layer comprising a second plurality of cells; an image sensor layer adjacent to the first microlens layer, the image sensor layer comprising a plurality of sensor pixels configured to detect incoming light through the first plurality of cells; and a display layer adjacent to the second microlens array, the display layer comprising a plurality of display pixels configured to emit light through the second plurality of cells; wherein each cell of the first and second plurality of cells comprises: a transparent lenslet; and a plurality of opaque walls configured to prevent light from bleeding into adjacent cells. a first microlens layer on a first side of a circuit board, the first microlens layer comprising a first plurality of cells; a second microlens layer on an opposite side of the circuit board from the first microlens layer, the second microlens layer comprising a second plurality of cells; an image sensor layer adjacent to the first microlens layer, the image sensor layer comprising a plurality of sensor pixels configured to detect incoming light through the first plurality of cells; and a display layer adjacent to the second microlens array, the display layer comprising a plurality of display pixels configured to emit light through the second plurality of cells; wherein each cell of the first and second plurality of cells comprises: a transparent lenslet; and a plurality of opaque walls configured to prevent light from bleeding into adjacent cells. a transparent lenslet; and a plurality of opaque walls configured to prevent light from bleeding into adjacent cells.
An apparatus for automated control of gas washout of a patient interface of a respiratory treatment apparatus comprising: a vent assembly having a variable exhaust area, the vent assembly being associated with a patient interface to vent expiratory gas, characterized in that the vent assembly includes a spherical diverter and a conduit casing that houses the spherical diverter, the spherical diverter having a flow bore (1114, 1277-1, 1277-2) for directing the expiratory gas to one or more exhaust ports of the conduit casing for venting; and an actuator to manipulate orientation of the spherical diverter to variably adjust the exhaust area with respect to the one or more exhaust ports of the conduit casing.