mhurhangee/ep-ind-claims huggingface dataset:
A method for isolating polynucleotides from a cell-containing sample, the method comprising: contacting the sample with a lysis solution and a plurality of binding particles coated in PAMAM(Generation 0) molecules covalently bound to carboxylic groups on the surface of the binding particles, wherein each PAMAM(Generation 0) molecule includes exactly five amine groups available for protonation, so that the polynucleotides are liberated from the cells and binding the polynucleotides from such cells to the PAMAM(Generation 0) coated binding particles, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles bound with polynucleotides; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles. contacting the sample with a lysis solution and a plurality of binding particles coated in PAMAM(Generation 0) molecules covalently bound to carboxylic groups on the surface of the binding particles, wherein each PAMAM(Generation 0) molecule includes exactly five amine groups available for protonation, so that the polynucleotides are liberated from the cells and binding the polynucleotides from such cells to the PAMAM(Generation 0) coated binding particles, thereby creating binding particles bound with polynucleotides and a solution containing residual cellular matter; compacting the binding particles bound with polynucleotides; removing the solution containing residual cellular matter; washing the binding particles; and releasing the polynucleotides from the binding particles.
A pressing screw of a pressing screw separator, comprising a base shaft, at least one screw thread arranged on the base shaft, and a wear element with - an additional shaft, and - at least one screw thread section arranged on the additional shaft, wherein the base shaft and the additional shaft can be plugged into each other so that the screw thread merges into the screw thread section, characterized by a first conical annular surface on the base shaft and a second conical annular surface on the additional shaft, wherein the two conical annular surfaces (21, 22) lie on each other in the plugged-together state, wherein the base shaft comprises a first portion with a first outer diameter and a second portion with a second outer diameter, wherein the second outer diameter is smaller than the first outer diameter, and wherein the additional shaft is plugged onto the second portion. - an additional shaft, and - at least one screw thread section arranged on the additional shaft,
An integrated electro-absorption modulator comprising: a layered diode structure formed above a device layer of a substrate, the diode structure comprising a bottom diode layer, an intrinsic diode layer, and a top diode layer; a waveguide formed in the device layer underneath the layered diode structure to couple light in and out of the intrinsic diode layer; electrical terminals (132, 136) contacting the top and bottom diode layers in an active region; a driver circuit connected between the electrical terminals and configured to apply a direct-current bias voltage and an alternating-current signal voltage across the layered diode structure; and a heater disposed at a rear end of the electro-absorption modulator to heat a rear portion of the active region, causing a temperature in the rear portion of the active region to be higher than a temperature in a front portion of the active region. a layered diode structure formed above a device layer of a substrate, the diode structure comprising a bottom diode layer, an intrinsic diode layer, and a top diode layer; a waveguide formed in the device layer underneath the layered diode structure to couple light in and out of the intrinsic diode layer; electrical terminals (132, 136) contacting the top and bottom diode layers in an active region; a driver circuit connected between the electrical terminals and configured to apply a direct-current bias voltage and an alternating-current signal voltage across the layered diode structure; and a heater disposed at a rear end of the electro-absorption modulator to heat a rear portion of the active region, causing a temperature in the rear portion of the active region to be higher than a temperature in a front portion of the active region.
An absorbent article comprising a liquid-permeable layer, a liquid-impermeable layer and an absorbent body situated between the liquid-permeable layer and the liquid-impermeable layer, wherein the liquid-permeable layer has a first layer with a skin contact surface and a non-skin contact surface and a second layer situated on the non-skin contact surface side of the first layer, the second layer is a layer formed by heat shrinkage of a heat-shrinkable fiber layer and the first layer is a layer formed by deformation of a non-heat-shrinkable fiber layer which is partially joined to the heat-shrinkable fiber layer by a joining section, by heat shrinkage of the heat-shrinkable fiber layer, a projection bulges out on the skin contact surface side, produced by deformation of the non-heat-shrinkable fiber layer, and is formed at least in the excretory opening contact region on the skin contact surface, and at least the projection of the excretory opening contact region is coated with a blood slipping agent having a 40°C kinematic viscosity of 0.01 to 80 mm 2 /s measured according to JIS K 2283:2000, "5. Kinematic Viscosity Test Method", using a Cannon-Fenske reverse-flow viscometer, at a testing temperature of 40°C, a water holding percentage of 0.01 to 4.0 mass% as described in the description and a weight-average molecular weight of less than 1,000 as described in the description. wherein the liquid-permeable layer has a first layer with a skin contact surface and a non-skin contact surface and a second layer situated on the non-skin contact surface side of the first layer, the second layer is a layer formed by heat shrinkage of a heat-shrinkable fiber layer and the first layer is a layer formed by deformation of a non-heat-shrinkable fiber layer which is partially joined to the heat-shrinkable fiber layer by a joining section, by heat shrinkage of the heat-shrinkable fiber layer, a projection bulges out on the skin contact surface side, produced by deformation of the non-heat-shrinkable fiber layer, and is formed at least in the excretory opening contact region on the skin contact surface, and at least the projection of the excretory opening contact region is coated with a blood slipping agent having a 40°C kinematic viscosity of 0.01 to 80 mm 2 /s measured according to JIS K 2283:2000, "5. Kinematic Viscosity Test Method", using a Cannon-Fenske reverse-flow viscometer, at a testing temperature of 40°C, a water holding percentage of 0.01 to 4.0 mass% as described in the description and a weight-average molecular weight of less than 1,000 as described in the description.
A barrel-based white balance filter, comprising a white balance unit, said white balance unit comprising a barrel (11, 13) and a white balance component axially adjustably mounted in said barrel (11, 13), wherein: said barrel (11, 13) is prepared from an opaque material and attachable to a camera lens of a camera directly or by means of an engagement thread thereof; the white balance component is a milky white or gray filter, the barrel-based white balance filter being characterised in that the milky white or gray filter has a milky white or gray annular rim axially extended from the periphery thereof, and mounted in said barrel (11, 13) and axially movable relative to said barrel (11, 13) between an extended position and a fully received position, said milky white or gray annular rim being completely received in said barrel (11, 13) and protected by said opaque barrel (11, 13) against the radiation of vivid light or reflected light during a manual white balance operation when said white balance component is in said fully received position, enabling a manual white balance system of the camera using the barrel-based white balance filter to measure the average white balance value of the viewing scene accurately. said barrel (11, 13) is prepared from an opaque material and attachable to a camera lens of a camera directly or by means of an engagement thread thereof; the white balance component is a milky white or gray filter, the barrel-based white balance filter being characterised in that the milky white or gray filter has a milky white or gray annular rim axially extended from the periphery thereof, and mounted in said barrel (11, 13) and axially movable relative to said barrel (11, 13) between an extended position and a fully received position, said milky white or gray annular rim being completely received in said barrel (11, 13) and protected by said opaque barrel (11, 13) against the radiation of vivid light or reflected light during a manual white balance operation when said white balance component is in said fully received position, enabling a manual white balance system of the camera using the barrel-based white balance filter to measure the average white balance value of the viewing scene accurately.
An ultraviolet-shielding glass sheet comprising a glass composition based on soda-lime glass, the glass composition comprising iron oxide and TiO 2 as coloring components, wherein the glass sheet has a thickness of 1 to 5 mm, and at the thickness, an ultraviolet transmittance (Tuv 380) as determined according to ISO 9050:1990 is 1.5% or less, an ultraviolet transmittance (Tuv 400) as determined according to ISO 13837:2008 convention A is 5.0% or less, a visible transmittance as measured using CIE standard illuminant A according to JIS R 3106:1998 is 20 to 40%, and a solar transmittance as measured according to JIS R 3106:1998 is 10 to 45%, the glass composition comprises, as base composition: 65 to 85 wt% SiO 2; 0 to 5 wt% B 2 O 3; 0 to 5 wt% Al 2 O 3; 0 to 20 wt% MgO; 0 to 20 wt% CaO; 10 to 20 wt% Na 2 O; 0 to 5 wt% K 2 O; and 0 to 0.5 wt% SO 3, the glass composition comprises, as coloring components: 0.2 to 2.0 wt% TiO 2; 0.2 to 2.0 wt% CeO 2; 1.0 wt% or more and less than 2.0 wt% T-Fe 2 O 3, where T-Fe 2 O 3 represents total iron oxide calculated as Fe 2 O 3; 50 to 150 wt. ppm cobalt oxide (CoO) calculated as CoO; 0 to 200 wt. ppm NiO; and 8 to 35 wt. ppm Se, a FeO ratio is 5 to 30%, the FeO ratio representing a weight ratio of FeO calculated as Fe 2 O 3 to T-Fe 2 O 3, the total content of TiO 2 and CeO 2 is 2 wt% or more, and a NiO/Se ratio is 0 to 15, the NiO/Se ratio representing a content ratio of NiO to Se. 65 to 85 wt% SiO 2; 0 to 5 wt% B 2 O 3; 0 to 5 wt% Al 2 O 3; 0 to 20 wt% MgO; 0 to 20 wt% CaO; 10 to 20 wt% Na 2 O; 0 to 5 wt% K 2 O; and 0 to 0.5 wt% SO 3, 0.2 to 2.0 wt% TiO 2; 0.2 to 2.0 wt% CeO 2; 1.0 wt% or more and less than 2.0 wt% T-Fe 2 O 3, where T-Fe 2 O 3 represents total iron oxide calculated as Fe 2 O 3; 50 to 150 wt. ppm cobalt oxide (CoO) calculated as CoO; 0 to 200 wt. ppm NiO; and 8 to 35 wt. ppm Se,
A method comprising: providing a MWD system, the MWD system including multiple sensors, wherein at least one of the multiple sensors is a gyro sensor, wherein the data collected by the sensors is interpreted by sensor models having adjustable sensor model parameters, wherein the sensor model parameters of the sensor model for the gyro sensor comprise azimuth offset and mass unbalance terms, and wherein the MWD system has an orientation, the orientation including azimuth and inclination; positioning the MWD system on a drill string; positioning the drill string at a first depth within a borehole drilled from a surface location, the depth measured from the location of the MWD system to the surface location, the direction of the borehole at the location of the MWD system generally being represented by the orientation of the MWD system; determining an estimated absolute orientation for the drill string at the first depth by combining the readings from two or more sensors of the multiple sensors of the MWD system when the sensors are stationary; moving, by a motion of the drill string, the location of the MWD system within the borehole from a first depth to a second depth; sensing changes in the orientation of the MWD system using one or more sensors of the multiple sensors as the MWD system is moved from the first depth to the second depth; and calculating the change in orientation of the MWD system between the first and second depths using the sensed changes in the orientation of the MWD system as the MWD system is moved. providing a MWD system, the MWD system including multiple sensors, wherein at least one of the multiple sensors is a gyro sensor, wherein the data collected by the sensors is interpreted by sensor models having adjustable sensor model parameters, wherein the sensor model parameters of the sensor model for the gyro sensor comprise azimuth offset and mass unbalance terms, and wherein the MWD system has an orientation, the orientation including azimuth and inclination; positioning the MWD system on a drill string; positioning the drill string at a first depth within a borehole drilled from a surface location, the depth measured from the location of the MWD system to the surface location, the direction of the borehole at the location of the MWD system generally being represented by the orientation of the MWD system; determining an estimated absolute orientation for the drill string at the first depth by combining the readings from two or more sensors of the multiple sensors of the MWD system when the sensors are stationary; moving, by a motion of the drill string, the location of the MWD system within the borehole from a first depth to a second depth; sensing changes in the orientation of the MWD system using one or more sensors of the multiple sensors as the MWD system is moved from the first depth to the second depth; and calculating the change in orientation of the MWD system between the first and second depths using the sensed changes in the orientation of the MWD system as the MWD system is moved.
A station comprising: means for determining idle periods of a Bluetooth device (134, 144) and wherein the means for determining are further configured to determine whether at least one condition is met for an idle period of the Bluetooth device (134,144); and means for communicating with an access point in a wireless local area network, WLAN, during the idle periods of the Bluetooth device (134, 144) if the at least one condition is met, wherein the means for determining and the means for communicating comprise a processor and a memory, wherein the at least one processor is configured to receive a status signal indicating transmit and receive periods for the Bluetooth device (134,144), and to determine the idle periods of the Bluetooth device (134, 144) based on the status signal, wherein the status signal includes a priority line that indicates that the Bluetooth device (134; 144) desires priority to use the wireless medium. means for determining idle periods of a Bluetooth device (134, 144) and wherein the means for determining are further configured to determine whether at least one condition is met for an idle period of the Bluetooth device (134,144); and means for communicating with an access point in a wireless local area network, WLAN, during the idle periods of the Bluetooth device (134, 144) if the at least one condition is met, wherein the means for determining and the means for communicating comprise a processor and a memory, wherein the at least one processor is configured to receive a status signal indicating transmit and receive periods for the Bluetooth device (134,144), and to determine the idle periods of the Bluetooth device (134, 144) based on the status signal, wherein the status signal includes a priority line that indicates that the Bluetooth device (134; 144) desires priority to use the wireless medium.
A macromer, wherein the said macromer is a polysaccharide which comprises a first repeat unit and a second repeat unit, wherein the first repeat unit has formula: wherein the second repeat unit has formula: wherein R1 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1; wherein R2 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1; wherein R3 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1. wherein the first repeat unit has formula: wherein the second repeat unit has formula: wherein R1 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1; wherein R2 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1; wherein R3 is selected from a group consisting of hydrogen, -CONH(CH 2) p m CR'=CH 2, and -(CH 2) n NH 2, wherein R' is hydrogen or a methyl group, n is no less than 1, m is no less than 1, and p is no less than 1.
Method of assembly of a first element and a second element each having a back face (10, 110) and an assembly surface (8, 108) by direct bonding,, at least the assembly surface of the first element comprising at least one portion with at least one metal part (6, 106) surrounded by at least one dielectric material (4, 104), said metal portion having a free surface (6.1) recessed from the dielectric material at said assembly surface, said method comprising: A) a step to bring the two assembly surfaces into contact (8, 108) without application of pressure such that direct bonding is obtained between the assembly surfaces (8, 108), said step taking place at at least one first temperature, said first and second assemblies (I, II) forming a stack with a thickness (e), B) a heat treatment step of said stack at at least one second temperature, Characterized in that, during at least a first phase of step B), the back faces (10, 110) of the first and the second elements are held in position so that they are held at a fixed distance between the stack thickness (e) - 2 nm and the stack thickness (e) + 2 nm. A) a step to bring the two assembly surfaces into contact (8, 108) without application of pressure such that direct bonding is obtained between the assembly surfaces (8, 108), said step taking place at at least one first temperature, said first and second assemblies (I, II) forming a stack with a thickness (e), B) a heat treatment step of said stack at at least one second temperature,
A cutting member for a shaving razor characterized in that the cutting member comprises: an elongated blade portion that tapers to a cutting edge; an elongated base portion that is integral with the blade portion; and which terminates in a blunt end region; and a bent portion, intermediate the blade portion and the base portion, wherein at least part of the cutting member has a thickness of at least about 0.005 inch (0.127 millimeter), and wherein the bent portion has an average thickness that is at least about 5 percent less than an average thickness of the base portion. an elongated blade portion that tapers to a cutting edge; an elongated base portion that is integral with the blade portion; and which terminates in a blunt end region; and a bent portion, intermediate the blade portion and the base portion, wherein at least part of the cutting member has a thickness of at least about 0.005 inch (0.127 millimeter), and wherein the bent portion has an average thickness that is at least about 5 percent less than an average thickness of the base portion.
A container comprising a base and a lid defining a first compartment therebetween, wherein at least the lid or the base includes a reconfigurable wall to enable a user to form or enlarge a second compartment on the other side of said wall to the first compartment, characterised in that, the reconfigurable wall is formed of contiguous polygons (46, 48) configured to move relative to a boundary of the reconfigurable wall and relative to each other under applied pressure so as to be arrangeable in a first, convex configuration (Figure 5A) and arrangeable in a second, concave configuration (Figure 5B), the second compartment being formed or enlarged when the contiguous polygons are arranged in the second, concave configuration.
A test and measurement instrument, comprising: a time domain channel including a decimator configured to receive a first input signal and generate a decimated signal that has a first frequency range including DC; and a frequency domain channel including a downconverter configured to receive a second input signal and generate a downconverted signal that has a second frequency range different from the first frequency range; and an acquisition system coupled to the time domain channel and the frequency domain channel and configured to acquire and store the decimated signal from the time domain channel and the downconverted signal from the frequency domain channel. a time domain channel including a decimator configured to receive a first input signal and generate a decimated signal that has a first frequency range including DC; and a frequency domain channel including a downconverter configured to receive a second input signal and generate a downconverted signal that has a second frequency range different from the first frequency range; and an acquisition system coupled to the time domain channel and the frequency domain channel and configured to acquire and store the decimated signal from the time domain channel and the downconverted signal from the frequency domain channel.
A method for microwave curing mineral wool that is mixed with a binder material, in particular glass- or rock wool for producing mineral wool insulation products, in particular for insulating buildings and similar, wherein the mineral fibers of the mineral wool are mixed with the binder material and the mineral wool is subsequently run through a microwave oven for curing the binder material, wherein the curing process in the microwave oven is supported by generating additional heat by supplying microwave active substances to the mineral wool fibers and/or the mineral wool before curing, wherein the microwave active substances generate the additional heat for curing the binder material in the mineral wool through absorption of microwaves, wherein the microwave active substances with respect to total weight are added in an amount of 0.05 % by weight to 4 % by weight.
Pipe clamp element for a pipe support, with struts (7, 8) arranged on both sides of a space for the pipe, which struts (7, 8) are connectable by the pipe clamp element, wherein the pipe clamp element has a carrier having at each end side a recess for receiving one of the struts (7, 8), wherein the carrier is equipped with an attachment part on each end side, which is supported in a shiftable manner on the carrier in longitudinal direction of the carrier, in such a way that at least a tongue of the respective attachment part leaves the recess in the carrier substantially free in an initial position of the shifting of the attachment part and in a final position shifted with respect thereto covers the recess in the carrier at least partially, characterized in that the attachment part and the carrier have interacting guiding means (34, 35, 36, 37) which are adapted to guide the attachment part during its shifting in longitudinal direction of the carrier.