mhurhangee/ep-ind-claims huggingface dataset:
A thermal transfer image receiving sheet comprising the lamination of: an ink receiving layer, a first support provided with a foamed layer, a non-foamed skin layer on one side of the foamed layer, and a non-foamed skin layer on the other side of the foamed layer, an adhesive layer, and a second support provided with a foamed layer, a non-foamed skin layer on one side of the foamed layer, and a non-foamed skin layer on the other side of the foamed layer, in that order; wherein, the adhesive layer is a layer that adheres the non-foamed skin layer on the other side of the first support and the non-foamed skin layer on one side of the second support; the basis weight of the adhesive layer is 1 g/m 2 to 15 g/m 2; and the average porosity of the foamed layer (21, 41) in the first support and the second support is 8% to 35%. an ink receiving layer, a first support provided with a foamed layer, a non-foamed skin layer on one side of the foamed layer, and a non-foamed skin layer on the other side of the foamed layer, an adhesive layer, and a second support provided with a foamed layer, a non-foamed skin layer on one side of the foamed layer, and a non-foamed skin layer on the other side of the foamed layer, in that order; wherein, the adhesive layer is a layer that adheres the non-foamed skin layer on the other side of the first support and the non-foamed skin layer on one side of the second support; the basis weight of the adhesive layer is 1 g/m 2 to 15 g/m 2; and the average porosity of the foamed layer (21, 41) in the first support and the second support is 8% to 35%.
Column with portions for the transfer of material (3a, 3b) arranged in parallel that are divided by a vertical partition, which comprises a reflux divider comprising organs for separating a liquid to be treated in a controlled way, whereby said organs are connected to a liquid collector, which is disposed above the partition within the column, whereas the organs are arranged outside the column, and which comprise the first and the second connecting lines (21, 22) for a first and a second partial stream (210, 220), whereby the two partial streams (210, 220) are fed into the portions for the transfer of material (3a, 3b) through the first and the second connecting line (210, 220), characterized in that the liquid collector comprises a container, in particular an annular channel, in which the amount of the collected liquid may vary between a minimum and a maximum level, in that below the minimum level the first connecting line is connected to the container for the first partial stream, and that the second connecting line is connected to the container for the second partial stream, in that upstream from the second connecting line a container compartment is disposed in the container that is separated by a wall, in that in the wall of said container compartment at least one orifice is provided for a throttled passage of the liquid to produce a second partial flow, whereby the organs comprise a controlled throttle valve in the first connecting line as well as at least two flowmeters (81, 82) for controlling the throttle valve, whereby a flowmeter is provided in the first connecting line.
An apparatus for forming elongated composite structural members comprising: abase (104, 204, 304, 704); at least one mandrel (106, 206, 306, 706) mounted on the base, the at least one mandrel exhibiting a substantially elongated geometry; a carriage assembly (108, 208, 710), the carriage assembly and the base being relatively movable with respect to each other; at least one roller (116, 216, 342, 406, 606, 728) coupled with the carriage assembly (108, 208, 710), the at least one roller exhibiting a geometry configured to at least partially complementarily engage with at least one ply of material positioned over the at least one mandrel (106, 206, 306, 706); at least one force applying mechanism (122, 808) configured to apply a desired force to the at least one ply of material positioned over the at least one mandrel through the at least one roller; and characterized by a controller configured to control a vertical position of the at least one roller (116, 216, 342, 406, 606, 728) relative to the at least one mandrel (106, 206, 306, 706) and to control an amount of the desired force applied by at least one roller (116, 216, 342, 406, 606, 728). abase (104, 204, 304, 704); at least one mandrel (106, 206, 306, 706) mounted on the base, the at least one mandrel exhibiting a substantially elongated geometry; a carriage assembly (108, 208, 710), the carriage assembly and the base being relatively movable with respect to each other; at least one roller (116, 216, 342, 406, 606, 728) coupled with the carriage assembly (108, 208, 710), the at least one roller exhibiting a geometry configured to at least partially complementarily engage with at least one ply of material positioned over the at least one mandrel (106, 206, 306, 706); at least one force applying mechanism (122, 808) configured to apply a desired force to the at least one ply of material positioned over the at least one mandrel through the at least one roller; and characterized by a controller configured to control a vertical position of the at least one roller (116, 216, 342, 406, 606, 728) relative to the at least one mandrel (106, 206, 306, 706) and to control an amount of the desired force applied by at least one roller (116, 216, 342, 406, 606, 728).
A process for potting hollow fiber membranes in a diffusion and/or filtration device comprising a tubular housing with a bundle of hollow fiber membranes arranged therein and at least one tubular fluid port (10, 41, 43) located on the outer wall surface of the tubular housing, the process being characterized by comprising the steps of a) dosing simultaneously, but separate from each other, a polyol component and an isocyanate component into a recess (11, 42, 44) provided on an inner wall of the at least one tubular fluid port (10, 41, 43); b) allowing the polyol component and the isocyanate component to mix in the recess (11, 42, 44), forming a polyurethane reaction mixture; c) causing the polyurethane reaction mixture to flow towards a mouth of the tubular housing which has been closed with a potting lid (47, 49); and to embed the ends of the bundle of hollow fibers in the polyurethane reaction mixture; and d) allowing the polyurethane reaction mixture to cure and form a solid potting zone (46, 48) sealing the mouth of the tubular housing. a) dosing simultaneously, but separate from each other, a polyol component and an isocyanate component into a recess (11, 42, 44) provided on an inner wall of the at least one tubular fluid port (10, 41, 43); b) allowing the polyol component and the isocyanate component to mix in the recess (11, 42, 44), forming a polyurethane reaction mixture; c) causing the polyurethane reaction mixture to flow towards a mouth of the tubular housing which has been closed with a potting lid (47, 49); and to embed the ends of the bundle of hollow fibers in the polyurethane reaction mixture; and d) allowing the polyurethane reaction mixture to cure and form a solid potting zone (46, 48) sealing the mouth of the tubular housing.
A method of operating a terminal device (406, 408) in a wireless telecommunications system for communicating with network infrastructure equipment on a primary cell supporting a primary component carrier on radio resources within a first frequency band and a secondary cell supporting a secondary component carrier on radio resources within a second frequency band, wherein the method comprises: receiving from the network infrastructure equipment an indication of a plurality of configuration settings for the secondary component carrier; receiving from the network infrastructure equipment an allocation message indicating an allocation of transmission resources to be used for communicating data between the network infrastructure equipment and the terminal device on the secondary component carrier; receiving from the network infrastructure equipment in association with the allocation message an indication of a selected one of the plurality of configuration settings for the secondary component carrier to be used for communicating the data; and receiving the data from the network infrastructure equipment using the allocated resources on the secondary component carrier operating in accordance with the selected one of the plurality of configuration settings. receiving from the network infrastructure equipment an indication of a plurality of configuration settings for the secondary component carrier; receiving from the network infrastructure equipment an allocation message indicating an allocation of transmission resources to be used for communicating data between the network infrastructure equipment and the terminal device on the secondary component carrier; receiving from the network infrastructure equipment in association with the allocation message an indication of a selected one of the plurality of configuration settings for the secondary component carrier to be used for communicating the data; and receiving the data from the network infrastructure equipment using the allocated resources on the secondary component carrier operating in accordance with the selected one of the plurality of configuration settings.
Drain set having a bottom drainage valve, and device for automatically actuating the bottom drainage valve which has a valve seat surface and a valve body, for a sanitary basin, in particular for a bathtub, subject to the height of the water level in the sanitary basin, wherein the device has at least one pressure sensor for detecting the height of the water level in the sanitary basin, an electronic measuring and control means which is arranged to detect measurement signals transmitted thereto from the pressure sensor, and an actuator for opening and/or closing the bottom drainage valve, wherein the pressure sensor is arranged on a line, and wherein the actuator is controlled by the measuring and control means subject to the height of the water level detected by the pressure sensor, characterised in that the line on which the pressure sensor is arranged leads to a bottom opening for the basin, which bottom opening is integrated into the drain set, the end (6.1) of the line remote from the bottom opening leading to the valve seat surface of the bottom drainage valve, and this end (6.1) of the line being sealed in a water-tight manner by the valve body of the bottom drainage valve when the bottom drainage valve is closed.
Process for assembling a multilayer pipe inside a pipe fitting, where the multilayer pipe has an intermediate layer made of aluminum that is arranged between an outer layer and an inner layer made of polymeric materials, where the process comprises at least the following steps: - a) removing a portion of the outer layer of the pipe so that a portion of the intermediate layer made of aluminum at one end of the pipe and an edge of the outer layer of the pipe are both exposed; - b) coupling the pipe with a barbed or threaded portion of a main body of the fitting; - c) coupling irreversibly the main body of the fitting with a connecting threaded terminal member; - d) positioning a threaded element on the pipe; - e) positioning a pipe-clamping ring outside of the pipe, in an intermediate position between the pipe itself and the threaded element; - f) screwing the threaded element on the connecting threaded terminal member to seam the pipe-clamping ring to the outer surface of the pipe and to lead the edge of the outer layer of the pipe to contact a gasket interposed between the exposed portion made of aluminum of the pipe and an inner surface of the connecting threaded terminal member. - a) removing a portion of the outer layer of the pipe so that a portion of the intermediate layer made of aluminum at one end of the pipe and an edge of the outer layer of the pipe are both exposed; - b) coupling the pipe with a barbed or threaded portion of a main body of the fitting; - c) coupling irreversibly the main body of the fitting with a connecting threaded terminal member; - d) positioning a threaded element on the pipe; - e) positioning a pipe-clamping ring outside of the pipe, in an intermediate position between the pipe itself and the threaded element; - f) screwing the threaded element on the connecting threaded terminal member to seam the pipe-clamping ring to the outer surface of the pipe and to lead the edge of the outer layer of the pipe to contact a gasket interposed between the exposed portion made of aluminum of the pipe and an inner surface of the connecting threaded terminal member.
Structure comprising: a resonant circuit (40, 45, 50, 70, 80, 90) for providing a resonating output signal on a resonator output lead; an SRAM cell comprising a first SRAM data input lead, a second SRAM data input lead and an SRAM power supply lead; an input lead for receiving a data signal (DATA); first and second write bit lines (WBIT, WBITn); a first switch for coupling said resonator output lead to said first write bit line; a second switch (S20n) for coupling said resonator output lead to said second write bit line, said first and second switches coupling said resonator output lead to said first or second write bit lines in response to the state of said data signal; and a set of switches (S10, S11) for providing said resonating output signal on said first SRAM data input lead and a static binary voltage on said second SRAM data input lead to store a first value in said SRAM cell, and for providing said resonating output signal on said second SRAM data input lead and said static binary voltage on said first SRAM data input lead to store a second value in said SRAM cell opposite said first value, data being stored in said SRAM cell while a DC voltage is applied to said SRAM power supply lead. a resonant circuit (40, 45, 50, 70, 80, 90) for providing a resonating output signal on a resonator output lead; an SRAM cell comprising a first SRAM data input lead, a second SRAM data input lead and an SRAM power supply lead; an input lead for receiving a data signal (DATA); first and second write bit lines (WBIT, WBITn); a first switch for coupling said resonator output lead to said first write bit line; a second switch (S20n) for coupling said resonator output lead to said second write bit line, said first and second switches coupling said resonator output lead to said first or second write bit lines in response to the state of said data signal; and a set of switches (S10, S11) for providing said resonating output signal on said first SRAM data input lead and a static binary voltage on said second SRAM data input lead to store a first value in said SRAM cell, and for providing said resonating output signal on said second SRAM data input lead and said static binary voltage on said first SRAM data input lead to store a second value in said SRAM cell opposite said first value, data being stored in said SRAM cell while a DC voltage is applied to said SRAM power supply lead.
A method, comprising: identifying, in a three-dimensional anatomical image of a patient organ, multiple anatomical points corresponding to respective predefined locations on a skin of the patient organ in a first coordinate system; receiving multiple positions in a second coordinate system, measured by a position sensor of a position-tracking system at the respective predefined locations on the skin of the patient organ; calculating, at each predefined location, a distance between a respective anatomical point and closest bone tissue of the patient organ; assigning weights to the predefined locations based on respective distances between the anatomical points and the closest bone tissue; and registering the first and second coordinate systems, by correlating between the positions and the respective anatomical points using the assigned weights. identifying, in a three-dimensional anatomical image of a patient organ, multiple anatomical points corresponding to respective predefined locations on a skin of the patient organ in a first coordinate system; receiving multiple positions in a second coordinate system, measured by a position sensor of a position-tracking system at the respective predefined locations on the skin of the patient organ; calculating, at each predefined location, a distance between a respective anatomical point and closest bone tissue of the patient organ; assigning weights to the predefined locations based on respective distances between the anatomical points and the closest bone tissue; and registering the first and second coordinate systems, by correlating between the positions and the respective anatomical points using the assigned weights.
A thermoplastic polyolefin composition consisting essentially of: (i) from about 1 to about 15 parts by weight of a propylene polymer having a density equal to or greater than 0.885 g/cm 3 and comprising from 80 to 100 percent by mole of propylene; (ii) from about 10 to about 30 parts by weight of one or more linear ethylene polymer, one or more substantially linear ethylene polymer, or mixtures thereof characterized as having (ii.a) a density of from 0.873 g/cm 3 to 0.885 g/cm 3 and/or (ii.b) an I 2 of from greater than 1 g/10 min to less than 5 g/10 min; (iii) from about 2 to about 7 parts by weight of plasticizer; (iv) from about 60 to about 85 parts by weight of particulate filler; and (v) optionally one or more of a slip agent, an ignition resistant additive, a stabilizer, a colorant, a pigment, an antioxidant, an antistat, a flow enhancer, a mold release, or a nucleating agent; wherein parts by weight is based on the total weight of the thermoplastic polyolefin composite. (i) from about 1 to about 15 parts by weight of a propylene polymer having a density equal to or greater than 0.885 g/cm 3 and comprising from 80 to 100 percent by mole of propylene; (ii) from about 10 to about 30 parts by weight of one or more linear ethylene polymer, one or more substantially linear ethylene polymer, or mixtures thereof characterized as having (ii.a) a density of from 0.873 g/cm 3 to 0.885 g/cm 3 and/or (ii.b) an I 2 of from greater than 1 g/10 min to less than 5 g/10 min; (ii.a) a density of from 0.873 g/cm 3 to 0.885 g/cm 3 and/or (ii.b) an I 2 of from greater than 1 g/10 min to less than 5 g/10 min; (iii) from about 2 to about 7 parts by weight of plasticizer; (iv) from about 60 to about 85 parts by weight of particulate filler; and (v) optionally one or more of a slip agent, an ignition resistant additive, a stabilizer, a colorant, a pigment, an antioxidant, an antistat, a flow enhancer, a mold release, or a nucleating agent;
An optical lens comprising (i) a temporary coating at least partially covering a surface of the lens, said temporary coating comprising an outermost layer mechanically degradable through friction and/or contact; (ii) a removable film having opposite first side and second sides which adhere to said outermost layer through its first side, characterized in that - the first side of the film has a roughness Rq lower than 750 nm and - the first side of the film has a surface energy lower than 38 mJ/m 2. (i) a temporary coating at least partially covering a surface of the lens, said temporary coating comprising an outermost layer mechanically degradable through friction and/or contact; (ii) a removable film having opposite first side and second sides which adhere to said outermost layer through its first side, characterized in that - the first side of the film has a roughness Rq lower than 750 nm and - the first side of the film has a surface energy lower than 38 mJ/m 2. - the first side of the film has a roughness Rq lower than 750 nm and - the first side of the film has a surface energy lower than 38 mJ/m 2.
Fitted sheet for covering the top and the side faces of a rectangular mattress, made of a rectangular piece of fabric, whereby the fitted sheet comprises a head end and a foot end, the rectangular piece of fabric is sewn together at two corners at the foot end to form mattress corner enveloping pockets, the pockets comprise an elastic band and the rectangular piece of fabric at the head end is partially folded double in the direction of the foot end, the double folded portion being sewn together to form a mattress head enveloping pocket, characterised in that the folded portion of the piece of fabric is sewn together in corners of the head end to form closed rectangles and the mattress head enveloping pocket lies between the rectangles, one side of a rectangle having a length of at least 15 cm and with the mattress head enveloping pocket having a width of at least 70 cm and at most 300 cm.
A stone element for the construction of multi-line gutters, paving strips comprising a common base and at least three stone heads (2, 3, 4) emanating from the base and offset in a stepped manner with respect to one another in axial direction of the gutter to be constructed or the paving strip to be constructed, the stone heads being separated from one another by dummy joints wherein the stone heads (2, 3, 4) have different lengths in axial direction of the gutter to be constructed or the paving strip to be constructed, i.e. parallel with respect to the direction of the dummy joints, and a respective spacer (5, 6; 10, 11) is disposed on the lateral surfaces of the edge stone heads (2, 4) extending perpendicularly with respect to the axis wherein the stone heads (2, 3, 4) are formed longer step-by-step in axial direction from one edge stone head across the middle stone head to the other edge stone head, characterized in that the spacers (5, 6; 10, 11) are formed like a ledge, are disposed in the outer end portions of the lateral surfaces and are offset in such a manner on opposite lateral surfaces that they contact the spacers (5, 6; 10, 11) of adjacent stone elements in a placed condition of the stone element and form with the same a locking for joint material in lateral direction and the stone heads (2, 3, 4) on the one side project for the same distance with respect to the adjacent stone head, respectively.
A bipolar plate for making a proton-exchange membrane fuel cell stack, said bipolar plate being made up of metal sheets that are shaped and assembled together in such a manner as to define primary fluid-flow channels and secondary fluid-flow channels that are arranged in alternation, said primary channels being formed between said assembled-together sheets; the bipolar plate being characterized in that it includes mechanical reinforcement made out of metal material arranged in a reinforcing duct of the bipolar plate, said metal reinforcement being configured in such a manner as to oppose a compression force applied to the bipolar plate, said bipolar plate further including a source of electricity adapted to feed electric current to the mechanical reinforcement and thereby give off heat by the Joule effect.