mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a composite material, characterised in that (i) a foamed polycarbonate moulding composition is produced by injection moulding using chemical or physical foaming techniques, wherein a composition containing A) 20 to 99.9 parts by weight of aromatic polycarbonate and/or aromatic polyester carbonate, B) 0.1 to 40 parts by weight of rubber-modified graft polymer, C) 0 to 40 parts by weight of vinyl (co)polymer (C.1) and/or polyalkylene terephthalate (C.2), D) 0 to 50 parts by weight of glass fibres, and E) 0 to 30 parts by weight of additives is used as the polycarbonate moulding composition, and (ii) a polyurethane reaction system is applied on top and allowed to cure. (i) a foamed polycarbonate moulding composition is produced by injection moulding using chemical or physical foaming techniques, wherein a composition containing A) 20 to 99.9 parts by weight of aromatic polycarbonate and/or aromatic polyester carbonate, B) 0.1 to 40 parts by weight of rubber-modified graft polymer, C) 0 to 40 parts by weight of vinyl (co)polymer (C.1) and/or polyalkylene terephthalate (C.2), D) 0 to 50 parts by weight of glass fibres, and E) 0 to 30 parts by weight of additives is used as the polycarbonate moulding composition, and A) 20 to 99.9 parts by weight of aromatic polycarbonate and/or aromatic polyester carbonate, B) 0.1 to 40 parts by weight of rubber-modified graft polymer, C) 0 to 40 parts by weight of vinyl (co)polymer (C.1) and/or polyalkylene terephthalate (C.2), D) 0 to 50 parts by weight of glass fibres, and E) 0 to 30 parts by weight of additives is used as the polycarbonate moulding composition, and (ii) a polyurethane reaction system is applied on top and allowed to cure.
A polylactide resin composition comprising: 100 parts by weight of a polylactide resin, 0.05 to 1.0 parts by weight of an organic acid anhydride; 0.05 to 1.0 parts by weight of a phosphorus-based compound, and 0.1 to 5.0 parts by weight of a branching agent represented by Chemical Formula 1: in Chemical Formula 1, R is 100 parts by weight of a polylactide resin, 0.05 to 1.0 parts by weight of an organic acid anhydride; 0.05 to 1.0 parts by weight of a phosphorus-based compound, and 0.1 to 5.0 parts by weight of a branching agent represented by Chemical Formula 1: in Chemical Formula 1, R is
A lateral flow assay device that further includes: a housing, and a test strip disposed within said housing comprising a membrane with a detection region and a collection region; a sample meter comprising a first end for absorption of a test sample, and a storage section that receives and stores at least a component of the test sample; an opening in said housing sized for insertion of said sample meter into said housing such that said storage section of said sample meter is disposed adjacent said collection region of said membrane, the test sample component transferable from said storage section to said collection region for subsequent migration to said detection region; and an activatable isolation mechanism within said housing and disposed so as to isolate portions of said sample meter storage section upon activation thereof such that a defined length section of said storage section is presented to said collection region of said membrane, characterised in that said isolation mechanism comprises a scraping mechanism having a pair of spaced apart and movably mounted blades, said blades contacting said sample meter at a first static position that defines said defined length section of said storage section between said blades, said blades configured for scraping said storage section on opposite sides of said defined section as said blades move to a second actuated position. a housing, and a test strip disposed within said housing comprising a membrane with a detection region and a collection region; a sample meter comprising a first end for absorption of a test sample, and a storage section that receives and stores at least a component of the test sample; an opening in said housing sized for insertion of said sample meter into said housing such that said storage section of said sample meter is disposed adjacent said collection region of said membrane, the test sample component transferable from said storage section to said collection region for subsequent migration to said detection region; and an activatable isolation mechanism within said housing and disposed so as to isolate portions of said sample meter storage section upon activation thereof such that a defined length section of said storage section is presented to said collection region of said membrane, characterised in that said isolation mechanism comprises a scraping mechanism having a pair of spaced apart and movably mounted blades, said blades contacting said sample meter at a first static position that defines said defined length section of said storage section between said blades, said blades configured for scraping said storage section on opposite sides of said defined section as said blades move to a second actuated position.
Gasket comprising at least one sheet or plate, referred to as sheet metal, at least one opening and/or orifice in such a way as to put into communication conduits that open respectively into each surface to be sealed, at least one sealing barrier in the form of a rib as well as at least one thickening arranged on at least one sheet metal, characterised in that said thickening comprises at least one rib, arranged on at least one sheet metal, extending along several lines (26, 28) substantially parallel to one another and parallel to the border of the gasket, with the rib passing from one line to another by forming two opposite loops.
A fluid filling nozzle for filling a container, the fluid filling nozzle having a longitudinal centerline and comprising: a body having a discharge end and an orifice at the discharge end, wherein the fluid filling nozzle is constructed to (i) receive a flow of a fluid for filling a container, (ii) eject the fluid from the orifice in the form of a stream into the container when the flow of the fluid is received, and wherein the fluid filling nozzle is characterized in that it is constructed to (iii) vibrate by means of an ultrasonic transducer in communication with said filling nozzle at a reference ultrasonic frequency and at a vibration amplitude when the flow of the fluid to the fluid filling nozzle is stopped, wherein the vibration amplitude is configured to break a fluid string of the fluid extending from the orifice at the discharge end of the fluid filling nozzle.
A bending tool, in particular a head bearing bending punch and/or a head bearing bending die for a bending press, in particular a press brake for free form bending workpieces of a single piece of sheet metal, comprising a panel-shaped base body with a first flat side and a second flat side, as well as end faces (31, 32, 33, 34) arranged to surround the flat sides (29, 30), wherein the base body having a first head and a first working section as well as a second head and a second working section, and wherein the first head and the first working section as well as the second head and the second working section are arranged opposite from each other on the end faces (31, 32, 33, 34), characterized in that the first head and the second head are arranged immediately consecutively as seen in the circumferential direction of the end faces (31, 32, 33, 34) of the base body and at an angle to each other, and that they define a corner of the base body.
A self expanding luminal prosthesis comprising: a stent comprising: a first outer part comprising a distal bulbous region which is adapted to be retained in a lumen; a second inner part provided radially inward of the first outer part comprising a region, which is softer than the rest of the stent and is adapted for mounting of a valve; a proximal flare; and a connector between the first outer part and the second inner part at least partially isolating the second inner part from the first outer part such that a force applied to the second inner part is at least partially isolated from the first outer part, wherein the softer region has means to allow coaxial connection of a valve and the distal bulbous region is allowed to expand thereby reinforcing the retention of the stent, wherein the stent further comprises an additional axially flexible connector being at least one tether between the inner and outer parts. a stent comprising: a first outer part comprising a distal bulbous region which is adapted to be retained in a lumen; a second inner part provided radially inward of the first outer part comprising a region, which is softer than the rest of the stent and is adapted for mounting of a valve; a proximal flare; and a connector between the first outer part and the second inner part at least partially isolating the second inner part from the first outer part such that a force applied to the second inner part is at least partially isolated from the first outer part, a first outer part comprising a distal bulbous region which is adapted to be retained in a lumen; a second inner part provided radially inward of the first outer part comprising a region, which is softer than the rest of the stent and is adapted for mounting of a valve; a proximal flare; and a connector between the first outer part and the second inner part at least partially isolating the second inner part from the first outer part such that a force applied to the second inner part is at least partially isolated from the first outer part, wherein the softer region has means to allow coaxial connection of a valve and the distal bulbous region is allowed to expand thereby reinforcing the retention of the stent, wherein the stent further comprises an additional axially flexible connector being at least one tether between the inner and outer parts.
Use of 4-n-Butylresorcinal for preventing or reducing the diffusion of one or more constituents of cosmetic emulsions into the container material, in particular tubes, surrounding the preparation.
A method of blending a fracturing fluid for delivery to a wellbore to be fractured, the method comprising the steps of providing: a turbine generator at a well site, wherein the turbine generator provides a dedicated source of electrical power; and at least one electric blender at the site, the electric blender comprising a blender tub that receives fluid from a fluid source and a fluid additive source, wherein the electric blender receives electric power from the source of electric power to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; and characterised in that the electric blender is operatively coupled to the turbine generator such that the dedicated source of electric power is adapted to supply electricity to the electric blender for producing the fracturing fluid, wherein the electric blender further comprises a first blender unit including a first inlet electric motor and a first electric discharge motor, and a second blender unit including a second inlet electric motor and a second electric discharge motor, and wherein the dedicated source of electric power supplies electricity to the first inlet electric motor, the second inlet electric motor, the first electric discharge motor, and the second electric discharge motor. a turbine generator at a well site, wherein the turbine generator provides a dedicated source of electrical power; and at least one electric blender at the site, the electric blender comprising a blender tub that receives fluid from a fluid source and a fluid additive source, wherein the electric blender receives electric power from the source of electric power to effect blending of a fluid from the fluid source with a fluid additive from the fluid additive source to generate the fracturing fluid; and characterised in that the electric blender is operatively coupled to the turbine generator such that the dedicated source of electric power is adapted to supply electricity to the electric blender for producing the fracturing fluid, wherein the electric blender further comprises a first blender unit including a first inlet electric motor and a first electric discharge motor, and a second blender unit including a second inlet electric motor and a second electric discharge motor, and a first blender unit including a first inlet electric motor and a first electric discharge motor, and a second blender unit including a second inlet electric motor and a second electric discharge motor, and wherein the dedicated source of electric power supplies electricity to the first inlet electric motor, the second inlet electric motor, the first electric discharge motor, and the second electric discharge motor.
A cell culture apparatus, comprising a cell culture substrate, a semipermeable membrane, and a liquid feeding pad, wherein the cell culture substrate has, on a surface thereof, a narrow culture groove for holding and culturing cells and wide flow grooves for discarding the cells held and cultured in the culture groove, the narrow culture groove and the wide flow grooves being in a groove pattern where the culture groove is formed between two flow grooves, the both ends of the culture groove being connected to a side surface of the respective the flow grooves at an angle of the flow groove relative to the culture groove of 90° ± 15°, the flow grooves being larger in width and depth than the culture groove, the culture groove having a depth of 1 to 2 times as large as the thickness (width) of a cell and a width 1 to 3 times as large as the thickness (width) of the cell, and the flow grooves having a width of 10 to 100 times as large as the groove width of the culture groove and a depth of 1.5 to 50 times as large as the depth of the culture groove, the semipermeable membrane covers the culture groove and the flow grooves of the cell culture substrate, and the liquid feeding pad is disposed on the cell culture substrate and forms a space over the culture groove, the first and second flow grooves and the semipermeable membrane, and the liquid feeding pad is adhered and scaled to a periphery of an area of the cell culture substrate comprising the culture groove and the first and second flow grooves, wherein the liquid feeding pad is provided with at least one through hole at one end thereof which connected to a liquid feeding pump via a liquid feeding tube and at least one through hole at the other end thereof which connected to a waste liquid tank.
A method for forming a multilayer coating film, comprising the following steps to: applying a color paint containing a hydroxy-containing resin and a color pigment to a substrate to form a colored coating film; applying an effect pigment dispersion to the colored coating film obtained in step to form an effect first base coating film, wherein the effect pigment dispersion contains a hydroxy-containing resin and an effect pigment, and the content of the effect pigment in the effect pigment dispersion is within a range of 15 to 80 parts by mass, based on 100 parts by mass of the total solids content in the effect pigment dispersion; applying a transparent colored second base paint containing a hydroxy-containing resin and a color pigment to the effect first base coating film obtained in step to form a transparent colored second base coating film; applying a clear paint to the transparent colored second base coating film obtained in step to form a clear coating film, wherein the clear paint contains a hydroxy-containing acrylic resin and a polyisocyanate compound, and the polyisocyanate compound contains an aliphatic triisocyanate compound (z2-1) having a molecular weight within a range of 200 to 350 as at least one of the polyisocyanate compound; and heating a multilayer coating film containing the effect first base coating film, the transparent colored second base coating film, and the clear coating film formed in steps to to simultaneously cure the multilayer coating film. applying a color paint containing a hydroxy-containing resin and a color pigment to a substrate to form a colored coating film; applying an effect pigment dispersion to the colored coating film obtained in step to form an effect first base coating film, wherein the effect pigment dispersion contains a hydroxy-containing resin and an effect pigment, and the content of the effect pigment in the effect pigment dispersion is within a range of 15 to 80 parts by mass, based on 100 parts by mass of the total solids content in the effect pigment dispersion; applying a transparent colored second base paint containing a hydroxy-containing resin and a color pigment to the effect first base coating film obtained in step to form a transparent colored second base coating film; applying a clear paint to the transparent colored second base coating film obtained in step to form a clear coating film, wherein the clear paint contains a hydroxy-containing acrylic resin and a polyisocyanate compound, and the polyisocyanate compound contains an aliphatic triisocyanate compound (z2-1) having a molecular weight within a range of 200 to 350 as at least one of the polyisocyanate compound; and heating a multilayer coating film containing the effect first base coating film, the transparent colored second base coating film, and the clear coating film formed in steps to to simultaneously cure the multilayer coating film.
An exhaust gas aftertreatment system for an internal combustion engine, said system comprising - an exhaust duct allowing a through-flow of exhaust gas; - a catalytic NOx converter arranged in the exhaust duct; - a fluid inlet arranged to introduce a liquid reductant into in the exhaust duct upstream the catalytic NOx converter, - a reductant evaporator element arranged in the exhaust duct, wherein the fluid inlet and the reductant evaporator are arranged in relation to each other so that the reductant is introduced in a direction towards said evaporator element; - a heat absorbing element arranged in the exhaust duct at a distance from the evaporator element in a position where the temperature is higher than at the position of the evaporator during operation of the internal combustion engine; and - a heat transfer element thermally connected to the heat absorbing element and the evaporator element so as to be capable of transferring heat from the heat adsorbing element to the evaporator element during operation of the internal combustion engine, characterized in that the heat absorbing element is arranged upstream the evaporator element, wherein the heat transfer element substantially extends in the longitudinal direction of the exhaust duct, and wherein the heat transfer element comprises guiding fins (10a, 10b) configured to guide the flow of exhaust gas towards the evaporator element. - an exhaust duct allowing a through-flow of exhaust gas; - a catalytic NOx converter arranged in the exhaust duct; - a fluid inlet arranged to introduce a liquid reductant into in the exhaust duct upstream the catalytic NOx converter, - a reductant evaporator element arranged in the exhaust duct, wherein the fluid inlet and the reductant evaporator are arranged in relation to each other so that the reductant is introduced in a direction towards said evaporator element; - a heat absorbing element arranged in the exhaust duct at a distance from the evaporator element in a position where the temperature is higher than at the position of the evaporator during operation of the internal combustion engine; and - a heat transfer element thermally connected to the heat absorbing element and the evaporator element so as to be capable of transferring heat from the heat adsorbing element to the evaporator element during operation of the internal combustion engine,
Device for facilitating the placement of screws in osseous tissues, particularly for carrying out osteosynthesis of fragmented bones, comprising: - on the one hand, an elongated hollow body comprising: - a proximal part allowing it to be fixed to a mandrel or another rotary drive device; - a distal part provided with a cutter that allows the countersink to be produced for receiving the screw head; - a central part provided with a longitudinal reading window; and - on the other hand, - a perforating spindle, the diameter of which allows it to axially slide inside the bore of the hollow body, characterised in that the window is provided with a graduated scale and in that said perforating spindle comprises, in its intermediate part, a marking means capable of being brought into the view of the reading window of said body; the proximal part of the body comprising a first fixing portion formed by an end portion provided with longitudinale slots allowing the hollow body to be concentrically clamped on the spindle and allowing the simultaneous rotary drive of said hollow body and of the spindle housed therein, and comprising a second fixing portion formed by a portion for connecting said end portion to the remaining part of the hollow body, allowing the rotary drive of said hollow body only. - on the one hand, an elongated hollow body comprising: - a proximal part allowing it to be fixed to a mandrel or another rotary drive device; - a distal part provided with a cutter that allows the countersink to be produced for receiving the screw head; - a central part provided with a longitudinal reading window; and - a proximal part allowing it to be fixed to a mandrel or another rotary drive device; - a distal part provided with a cutter that allows the countersink to be produced for receiving the screw head; - a central part provided with a longitudinal reading window; and - on the other hand, - a perforating spindle, the diameter of which allows it to axially slide inside the bore of the hollow body, - a perforating spindle, the diameter of which allows it to axially slide inside the bore of the hollow body,
A method of wireless communication performed by a receiver device, comprising: receiving, from a transmission point, a reference RF signal on a wireless channel; receiving, from a positioning entity (230, 270; 402), an indication that the reference RF signal serves as a source for a quasi-collocation, QCL, type(s) for positioning reference RF signals received by the receiver device from the transmission point on the wireless channel; measuring an average delay, a delay spread, or both the average delay and the delay spread of the reference RF signal based on the QCL type(s); receiving, from the transmission point, a positioning reference RF signal on the wireless channel; and identifying a time of arrival, ToA, of the positioning reference RF signal based on the measured average delay, the delay spread, or both the average delay and the delay spread of the reference RF signal; characterized in that the QCL type(s) indicates that the reference RF signal and the positioning reference RF signal have the same average delay only, the same delay spread only, or both the same average delay and the same delay spread. receiving, from a transmission point, a reference RF signal on a wireless channel; receiving, from a positioning entity (230, 270; 402), an indication that the reference RF signal serves as a source for a quasi-collocation, QCL, type(s) for positioning reference RF signals received by the receiver device from the transmission point on the wireless channel; measuring an average delay, a delay spread, or both the average delay and the delay spread of the reference RF signal based on the QCL type(s); receiving, from the transmission point, a positioning reference RF signal on the wireless channel; and identifying a time of arrival, ToA, of the positioning reference RF signal based on the measured average delay, the delay spread, or both the average delay and the delay spread of the reference RF signal; characterized in that the QCL type(s) indicates that the reference RF signal and the positioning reference RF signal have the same average delay only, the same delay spread only, or both the same average delay and the same delay spread.