mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a rubber composition for tire tread, which is prepared by mixing 100 parts by mass of a rubber component containing 60 to 80 parts by mass of a natural rubber and 20 to 40 parts by mass of a modified conjugated dienic polymer having one or more functional groups having another atom than carbon and hydrogen, and 40 to 60 parts by mass of carbon black having a nitrogen adsorption specific surface area (N 2 SA) of 60 to 95 m 2 /g and a hydrogen release rate of 0.37 to 0.60 % by mass based on 100 parts by mass of the rubber component, wherein the temperature of the rubber composition at the time of discharge in the kneading step for mixing carbon black therein is 170 to 250°C, with the proviso that the nitrogen adsorption specific surface area (N 2 SA) is measured according to JIS K 6217-2:2001, and the hydrogen release rate is obtained as follows: a carbon black sample is dried in a constant temperature drier at 105°C for 1 hour, and cooled in a desiccator to room temperature (23°C), about 10 mg of the sample is accurately metered in a tin-made tubular sample vessel, and sealed up under pressure, and the sample is heated in an argon stream atmosphere at 2,000°C for 15 minutes using a gas chromatography apparatus to measure the hydrogen gas generation amount, and the amount is expressed as % by mass.
A method for producing a concentrated platelet solution, said method comprising: a filtering step of carrying out cross-flow filtration of a platelet solution under the conditions of Formula 1 described below at an inlet wall shear rate of 25 to 1500 s -1 using a separation membrane whose surface which contacts with the platelet solution has an average pore size of not less than 0.1 μm and less than 2.0 μm, thereby obtaining the concentrated platelet solution. 1.0 × 10 11 < A × B / γ × μ P ≤ 2.5 × 10 13 platelets / hr ⋅ m 2 ⋅ Pa A: Concentration of platelets contained in the platelet solution (platelets/mL; with the proviso that the range is 8.0×10 7 to 200×10 7 platelets/mL) B: Filtration flow rate per unit area (mL/hr/m 2) γ: Inlet wall shear rate (s -1) μ P: Viscosity of the platelet solution (Pa·s) a filtering step of carrying out cross-flow filtration of a platelet solution under the conditions of Formula 1 described below at an inlet wall shear rate of 25 to 1500 s -1 using a separation membrane whose surface which contacts with the platelet solution has an average pore size of not less than 0.1 μm and less than 2.0 μm, thereby obtaining the concentrated platelet solution. 1.0 × 10 11 < A × B / γ × μ P ≤ 2.5 × 10 13 platelets / hr ⋅ m 2 ⋅ Pa A: Concentration of platelets contained in the platelet solution (platelets/mL; with the proviso that the range is 8.0×10 7 to 200×10 7 platelets/mL) B: Filtration flow rate per unit area (mL/hr/m 2) γ: Inlet wall shear rate (s -1) μ P: Viscosity of the platelet solution (Pa·s) A: Concentration of platelets contained in the platelet solution (platelets/mL; with the proviso that the range is 8.0×10 7 to 200×10 7 platelets/mL) B: Filtration flow rate per unit area (mL/hr/m 2) γ: Inlet wall shear rate (s -1) μ P: Viscosity of the platelet solution (Pa·s)
A stapling cartridge assembly for use in a circular stapling instrument having an anvil assembly comprising an annular breakaway washer attached to an anvil base surface, the annular breakaway washer comprising a pair of spaced-apart walls and a web extending therebetween, the stapling cartridge comprising: a casing; a staple driver receivable within said casing and configured to move within said casing from a pre-fired position to a fired position; and an annular blade attachable to said staple driver, wherein said annular blade comprises an annular cutting edge for cutting the web of the annular breakaway washer when the staple driver is moved from the pre-fired position to the fired position; said assembly characterized by said annular blade comprising a breakaway washer attachment member comprising at least one breakaway washer retention barb extending from the annular blade at a non-parallel angle to the cutting edge for fixedly attaching to one of the spaced-apart walls of the annular breakaway washer when the staple driver is moved from the pre-fired position to the fired position, thereby locking the annular blade to the annular breakaway washer. a casing; a staple driver receivable within said casing and configured to move within said casing from a pre-fired position to a fired position; and an annular blade attachable to said staple driver, wherein said annular blade comprises an annular cutting edge for cutting the web of the annular breakaway washer when the staple driver is moved from the pre-fired position to the fired position; said assembly characterized by said annular blade comprising a breakaway washer attachment member comprising at least one breakaway washer retention barb extending from the annular blade at a non-parallel angle to the cutting edge for fixedly attaching to one of the spaced-apart walls of the annular breakaway washer when the staple driver is moved from the pre-fired position to the fired position, thereby locking the annular blade to the annular breakaway washer.
Device for treating packaging elements or packaging means, in particular in the form of bottles or like containers, including a circular or semi-circular transport segment formed with a transporter, on which the packaging means are moved, at least with a part region comprising in each case a packaging means opening (2.1), inside a sterile interior space bounded from the surroundings by a housing component, wherein a part section (9.1) of the housing is provided at the transporter and is moved with the transporter, and a further part section (9.2) of the housing is provided at the device framework of the device and is not moved with the transporter; wherein the housing, at least in the further part section (9.2), consists of a wall structure, formed from wall elements (16, 17), which bounds the interior of the housing from the surroundings, as well as consisting of a load-bearing structure, which is provided outside the wall structure and in which the wall structure is arranged, kept free of loadings, in particular of forces and torque moments; wherein elements (15, 13.1) of the load-bearing structure are connected to one another by mechanical connections; wherein the elements of the load-bearing structure comprise a plurality of carriers oriented transverse or perpendicular to a transport direction of the transporter, these being secured by one end to the device framework by mechanical connections, in order to connect the load-bearing structure to the device framework; and wherein a longitudinal belt (13.1) is provided, oriented in the transport direction, in the form of at least one ring, with which the carriers are connected by means of the mechanical connections to a grid or cage structure characterised in that the longitudinal belt (13.1) is a load-bearing structure, and that at the transition between the part sections (9.1, 9.2) labyrinth seals and/or siphon seals (13, 14) are provided, wherein one of these seals is provided at the device framework, and wherein the longitudinal belt (13.1) is a constituent part of the other seal.
Process for the production of microfibrillated cellulose composition, wherein the microfibrillated cellulose has an average fiber length in the range from 500 to 1300 μm and a percentage of fiber length in the category ≤200 μm of at least 15%, obtained by subjecting an aqueous mixture comprising 30 to 70 % by weight of cellulose containing fibers to mechanical shearing at a temperature in the range of from ≥40°C to ≤120°C in the presence of at least one thermostable biocide, wherein the cellulose containing fibers are mechanically sheared in a single screw, twin screw or conical extruder or with a refiner, wherein the average fiber length is the weight-weighted average fiber length L W determined according to Tappi standard T 271 and the percentage of length in the category <200 μm is determined as described in Tappi standard T 271.
A heat sink for illuminating device, wherein the heat sink comprises a first housing and a second housing, the first housing is a first metal stamping part, the second housing is a second metal stamping part, and the first metal stamping part and the second metal stamping part are removably assembled together, wherein the first housing is in thermal contact with a first part of the illuminating device at one side, and defines, together with the second housing, a first space at the other side, and the first space is in air communication with outside, wherein the first housing comprises a recessed region (11.1) which supports the first part and an air guiding region (11.2), the air guiding region (11.2) extends radially outwardly from the recessed region (11.1) at one side away from the second housing, and a flow path enabling communication of the first space with outside is formed in the air guiding region (11.2), wherein the second housing comprises a second bottom region (12.1) which is annular, and a second central region (12.2) and a second side wall (12.3) which respectively extend from two sides of the second bottom region (12.1) to the first housing, wherein the second central region (12.2) is in thermal contact and mechanical connection with the recessed region (11.1), wherein a removable joint structure is present between the second central region (12.2) and the recessed region (11.1), wherein the joint structure comprises at least one assembling hole (11.4) opened in the bottom surface of the recessed region (11.1) and at least one fastener (12.4) extending from the second central region (12.2) to run through the at least one assembling hole (11.4), wherein in an assembling state of the heat sink, a free end of the fastener (12.4) exerts a pressure onto the first housing at one side of the first housing supporting the first part, characterized in that the free end is bent to an angle relative to a central axis of the heat sink, and the recessed region (11.1) is sandwiched between the free end and the second central region (12.2).
An apparatus for determining a distribution volume of at least one uremic substance in a dialysis patient, comprising: - a dialyser for withdrawing the at least one substance from a body fluid which is adapted for dialysis fluid flowing through the same in order to dispose of the at least one withdrawn substance, - optionally, a flow rate measuring system for detecting a flow rate of the dialysis fluid through the dialyser, - a dialysis fluid measuring system for detecting at least one dialysis fluid parameter that depends on the at least one substance in the dialysis fluid, and - at least one computer configured for instantaneously establishing a dialysis dose based on the dialysis fluid parameter and for establishing the distribution volume based on the dialysis dose taking a clearance factor and dialysis duration into account, wherein the dialysis dose as well as the clearance and the dialysis duration, i.e. the time interval (t), are known, wherein the determination of the dialysis dose manages without implied model assumptions, i.e. that no distribution volume is theoretically provided so as to determine the dialysis dose, wherein the fluid withdrawal (UF, ultrafiltration) is taken into account in the calculation: K * t / 0,5 * V 1 + V 1 − UF, wherein V1 is the volume at the beginning of the measuring period, wherein by instantaneously determining the dialysis dose at any point in time during therapy, the current urea distribution volume of the patient can be determined. - a dialyser for withdrawing the at least one substance from a body fluid which is adapted for dialysis fluid flowing through the same in order to dispose of the at least one withdrawn substance, - optionally, a flow rate measuring system for detecting a flow rate of the dialysis fluid through the dialyser, - a dialysis fluid measuring system for detecting at least one dialysis fluid parameter that depends on the at least one substance in the dialysis fluid, and - at least one computer configured for instantaneously establishing a dialysis dose based on the dialysis fluid parameter and for establishing the distribution volume based on the dialysis dose taking a clearance factor and dialysis duration into account, wherein the dialysis dose as well as the clearance and the dialysis duration, i.e. the time interval (t), are known, wherein the determination of the dialysis dose manages without implied model assumptions, i.e. that no distribution volume is theoretically provided so as to determine the dialysis dose, wherein the fluid withdrawal (UF, ultrafiltration) is taken into account in the calculation: K * t / 0,5 * V 1 + V 1 − UF, wherein V1 is the volume at the beginning of the measuring period, wherein by instantaneously determining the dialysis dose at any point in time during therapy, the current urea distribution volume of the patient can be determined.
A blood treatment filter (30A to 30C) which removes a predetermined blood component from blood, the blood treatment filter comprising: a housing having a first resin sheet and a second resin sheet constituting walls opposite to each other; a filter member which is provided between the first resin sheet and the second resin sheet, is provided with at least one filtering material, and partitions the interior of the housing into a blood inflow chamber and a blood outflow chamber; an inflow port communicating with the blood inflow chamber; an outflow port communicating with the blood outflow chamber; a peripheral edge molded body which is formed in a frame shape covering a peripheral edge portion of the filter member and has an inner peripheral edge portion joined to an outer peripheral end edge of the filtering material; and a connection sheet (66, 67) extending outward from the peripheral edge molded body and connected to the housing, wherein a thickness of the filtering material in the peripheral edge portion with respect to a thickness of the filtering material in a portion of the filter member other than the peripheral edge portion is 90 to 100%. a housing having a first resin sheet and a second resin sheet constituting walls opposite to each other; a filter member which is provided between the first resin sheet and the second resin sheet, is provided with at least one filtering material, and partitions the interior of the housing into a blood inflow chamber and a blood outflow chamber; an inflow port communicating with the blood inflow chamber; an outflow port communicating with the blood outflow chamber; a peripheral edge molded body which is formed in a frame shape covering a peripheral edge portion of the filter member and has an inner peripheral edge portion joined to an outer peripheral end edge of the filtering material; and a connection sheet (66, 67) extending outward from the peripheral edge molded body and connected to the housing, wherein a thickness of the filtering material in the peripheral edge portion with respect to a thickness of the filtering material in a portion of the filter member other than the peripheral edge portion is 90 to 100%.
A combination of (i) an immune checkpoint modulator and (ii) a complex comprising: a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist, wherein the components a) - c) comprised by the complex are covalently linked, for use in medicine. (i) an immune checkpoint modulator and (ii) a complex comprising: a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist, a) a cell penetrating peptide; b) at least one antigen or antigenic epitope; and c) at least one TLR peptide agonist,
A method for fabricating emitter packages designed to emit light at a nominal color temperature, comprising: fabricating a plurality of LEDs, each of said LEDs emitting at a wavelength within a wavelength range, wherein said wavelength range has a minimum wavelength and a maximum wavelength; arranging each of said LEDs in a respective package with a plurality of conversion materials (24, 26) so that at least some light from each of said LEDs is absorbed and re-emitted by its corresponding conversion materials (24, 26), characterised by said plurality of conversion materials (24, 26) arranged in each package comprising a first conversion material having a lower excitation efficiency at said minimum wavelength than at said maximum wavelength and a second conversion material having a higher excitation efficiency at said minimum wavelength than at said maximum wavelength, the excitation efficiency of the first conversion material increasing monotonically and the excitation efficiency of the second conversion material decreasing monotonically from said minimum wavelength to said maximum wavelength, such that each of said emitter packages emits light with a color temperature substantially similar to said nominal color temperature. fabricating a plurality of LEDs, each of said LEDs emitting at a wavelength within a wavelength range, wherein said wavelength range has a minimum wavelength and a maximum wavelength; arranging each of said LEDs in a respective package with a plurality of conversion materials (24, 26) so that at least some light from each of said LEDs is absorbed and re-emitted by its corresponding conversion materials (24, 26), characterised by said plurality of conversion materials (24, 26) arranged in each package comprising a first conversion material having a lower excitation efficiency at said minimum wavelength than at said maximum wavelength and a second conversion material having a higher excitation efficiency at said minimum wavelength than at said maximum wavelength, the excitation efficiency of the first conversion material increasing monotonically and the excitation efficiency of the second conversion material decreasing monotonically from said minimum wavelength to said maximum wavelength, such that each of said emitter packages emits light with a color temperature substantially similar to said nominal color temperature.
A force-measuring sleeve having at least inner and outer force-transmitting areas (38, 39) extending concentrically to the longitudinal axis of the sleeve, characterized in that at least two ring segments are provided at both of the free front ends (34, 35) of the sleeve, the ring segments extending respectively concentrically to the longitudinal axis of the sleeve and forming force-transmitting areas (38, 39), which are arranged in pairs concentrically to each other, characterized in that a recess is worked into the free front ends of the segments, preferably respectively concentrically, wherein the front ends are facing a circumferential direction of the sleeve, and characterized in that at least one strain gauge is mounted to the ground and/or the wall of the respective recess.
A transmission device (300, 303) comprising: a first converter configured to convert a first analog signal, which is a broadcast signal of a specific wave polarization, into a first digital signal; a second converter configured to convert a second analog signal, which is a broadcast signal of a wave polarization that is different from the specific wave polarization, into a second digital signal; a generation component configured to generate a third digital signal that includes information of the first and second digital signals; and a transmitter configured to transmit the third digital signal generated by the generation component, wherein the transmitter is configured to transmit the third digital signal to a distribution system which is a community access television system or a community antenna television system. a first converter configured to convert a first analog signal, which is a broadcast signal of a specific wave polarization, into a first digital signal; a second converter configured to convert a second analog signal, which is a broadcast signal of a wave polarization that is different from the specific wave polarization, into a second digital signal; a generation component configured to generate a third digital signal that includes information of the first and second digital signals; and a transmitter configured to transmit the third digital signal generated by the generation component, wherein the transmitter is configured to transmit the third digital signal to a distribution system which is a community access television system or a community antenna television system.
A molded polyurethane foam that has a foam density from 250 to 550 kg/m 3, and is a reaction product of an aromatic polyisocyanate and an isocyanate-reactive component in the presence of an effective amount of a blowing agent, an effective amount of a surfactant and an effective amount of one or more catalysts, wherein the isocyanate-reactive component contains: a) a polyether polyol having a hydroxyl equivalent weight of from 800 to 3000, or a mixture of such polyols, which polyether polyol or mixture of polyols may contain dispersed polymer particles; b) from 1 to 5 parts by weight, per 100 parts by weight of component a), of an aliphatic diol chain extender having a hydroxyl equivalent weight of up to 75; and c) from 0.5 to 3 parts by weight, per 100 parts by weight of component a), of a crosslinker that contains at least three aliphatic hydroxyl groups and has a hydroxyl equivalent weight of up to 75. a) a polyether polyol having a hydroxyl equivalent weight of from 800 to 3000, or a mixture of such polyols, which polyether polyol or mixture of polyols may contain dispersed polymer particles; b) from 1 to 5 parts by weight, per 100 parts by weight of component a), of an aliphatic diol chain extender having a hydroxyl equivalent weight of up to 75; and c) from 0.5 to 3 parts by weight, per 100 parts by weight of component a), of a crosslinker that contains at least three aliphatic hydroxyl groups and has a hydroxyl equivalent weight of up to 75.
A method of depositing a SiN film, comprising: exposing a substrate to a silicon-nitrogen precursor and a NH 3 plasma to deposit a flowable SiN polymer; and curing the flowable SiN polymer to form a cured SiN film; characterised in that the silicon-nitrogen precursor comprises: wherein R 1 - R 5 are independently H or C 1-C4 alkyl. exposing a substrate to a silicon-nitrogen precursor and a NH 3 plasma to deposit a flowable SiN polymer; and curing the flowable SiN polymer to form a cured SiN film; characterised in that the silicon-nitrogen precursor comprises: wherein R 1 - R 5 are independently H or C 1-C4 alkyl.