mhurhangee/ep-ind-claims huggingface dataset:
A method for culturing organoids, the method comprising: a) disassociating unprocessed organoids to produce a cell suspension; b) sieving the cell suspension through a cell strainer to retain a sieved cell suspension containing cells of about 10 μm to about 1 mm in diameter; c) seeding cells of the sieved cell suspension into a bioreactor in a cell culture medium comprising an extracellular support matrix; d) culturing the cells in the bioreactor to form stage I organoids; e) removing the stage I organoids from the bioreactor and suspending the organoids in cell culture medium to form an organoid suspension; and f) sieving the organoid suspension through at least two cell strainers having different mesh sizes to obtain a suspension of stage II organoids having a diameter of about 20 μm to about 200 μm. a) disassociating unprocessed organoids to produce a cell suspension; b) sieving the cell suspension through a cell strainer to retain a sieved cell suspension containing cells of about 10 μm to about 1 mm in diameter; c) seeding cells of the sieved cell suspension into a bioreactor in a cell culture medium comprising an extracellular support matrix; d) culturing the cells in the bioreactor to form stage I organoids; e) removing the stage I organoids from the bioreactor and suspending the organoids in cell culture medium to form an organoid suspension; and f) sieving the organoid suspension through at least two cell strainers having different mesh sizes to obtain a suspension of stage II organoids having a diameter of about 20 μm to about 200 μm.
Spindle motor, comprising an electric motor having a rotor connected to a threaded spindle, the thread of which engages with a thread of a spindle nut connected to a piston rod, wherein the spindle nut with piston rod is axially guided in a housing part of the spindle motor, wherein a guide part is connected to the spindle nut and the piston rod for axial guidance, wherein the threaded spindle, at its axial end region facing the electric motor, is mounted in the housing part or in a second housing part connected to the first housing part, via bearings, wherein the threaded spindle, at its axial end region facing away from the electric motor, is mounted on the piston rod via a bearing arranged on the threaded spindle, wherein the outer ring of the bearing is held in a support by means of a stop provided in an axial direction, wherein a spatial region enclosed by the piston rod and a spatial region arranged between piston rod and housing are provided, wherein an oil-air mixture is provided inside the spatial regions, characterised in that the outer ring of the bearing is held in the support by means of a securing ring provided in the other axial direction, wherein the support comprises a spring region, by means of which the support carries away supporting forces at the piston rod and the support presses with its outer circumference against the inner wall of the piston rod and thus supports the threaded spindle, wherein the spring region of the support is of interrupted design in the circumferential direction or has openings, in particular for the passage of oil, wherein the support is produced from polyethylene or a polyethylene-containing material, wherein the spindle nut has ventilation bores, wherein the ventilation bores are oriented substantially axially, wherein the ventilation bores connect the spatial region enclosed by the piston rod to the spatial region arranged between piston rod and housing, for pressure equalisation.
A pharmaceutical composition for treating leukemia, mainly made of the following raw materials by weight percentage comprising, 2 to 8 percent of realgar, 25 to 42 percent of indigo naturalis, 50 to 60 percent of salvia miltiorrhiza, and 6 to 10 percent of radix pseudostellariae.
A pharmaceutical formulation comprising imiquimod in an amount by weight of 2.5% or 3.75% for use in the treatment of actinic keratosis, comprising applying the imiquimod formulation to a treatment area once a day, each day, for a total on treatment period of up to 4 weeks including an intervening rest period of up to 2 weeks to achieve at least partial clearance of AK lesions.
Laminated glazing comprising: a. an external first glass sheet, b. an electrically powered functional film, c. an infrared-reflecting means placed between the first glass sheet and the functional film, d. at least one first thermoplastic interlayer placed between the infrared-reflecting means and the functional film, e. an internal second glass sheet, characterized in that at least the external first sheet has an infrared reflection RIR V, such as measured according to the method indicated in the description, such that RIR V ≥ 1.087 * TL V, TL V being the light transmission, such as measured according to the method indicated in the description, of the glass sheet, and in that the infrared-reflecting means is characterized by a light transmission TL C, such as measured according to the method indicated in the description, such that TL C ≥ 1.3 * TIR C, TIR C being the infrared transmission, such as measured according to the method indicated in the description, of the infrared-reflecting means and in that at least the first glass sheet has a composition that comprises, in an amount expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3) 0.002 - 0.06%; Cr 2 O 3 0.0001 - 0.06%. a. an external first glass sheet, b. an electrically powered functional film, c. an infrared-reflecting means placed between the first glass sheet and the functional film, d. at least one first thermoplastic interlayer placed between the infrared-reflecting means and the functional film, e. an internal second glass sheet,
A refrigeration cycle apparatus in which a non-azeotropic refrigerant mixture is enclosed, the refrigeration cycle apparatus comprising an evaporator and a fan, the fan being configured to take outdoor air, cause the outdoor air to exchange heat with the refrigerant in the evaporator, and then to discharge the air to the outside, the evaporator comprising: a plurality of fins that are arranged at a predetermined interval in a plate thickness direction; and a plurality of heat transfer tubes that extend through the plurality of fins in the plate thickness direction, a first header (233a, 233a') and a second header (233b, 233b'), wherein the first header (233a, 233a') and the second header (233b, 233b') are coupled to both ends of the plurality of heat transfer tubes, wherein a first heat exchange section in which, when the plurality of heat transfer tubes are viewed as a heat-transfer-tube group in the plate thickness direction of the fins, a distribution center of the heat-transfer-tube group in an airflow direction of the fan is positioned on a leeward side of a center of the fins in the airflow direction is formed, wherein a second heat exchange section in which the distribution center of the heat-transfer-tube group is positioned on a windward side of the center of the fins in the airflow direction is further formed, wherein the first heat exchange section is provided on an evaporator inlet side and the second heat exchange section is provided on an evaporator outlet side. a plurality of fins that are arranged at a predetermined interval in a plate thickness direction; and a plurality of heat transfer tubes that extend through the plurality of fins in the plate thickness direction, a first header (233a, 233a') and a second header (233b, 233b'), wherein the first header (233a, 233a') and the second header (233b, 233b') are coupled to both ends of the plurality of heat transfer tubes, wherein a first heat exchange section in which, when the plurality of heat transfer tubes are viewed as a heat-transfer-tube group in the plate thickness direction of the fins, a distribution center of the heat-transfer-tube group in an airflow direction of the fan is positioned on a leeward side of a center of the fins in the airflow direction is formed, wherein a second heat exchange section in which the distribution center of the heat-transfer-tube group is positioned on a windward side of the center of the fins in the airflow direction is further formed, wherein the first heat exchange section is provided on an evaporator inlet side and the second heat exchange section is provided on an evaporator outlet side.
A method for classifying images, comprising: a. generating one or more color models (702, 702'), each color model being generated from a respective one of one or more first images comprising a region of interest; b. selecting a representative color model set T' from the one or more color models; and c. classifying one or more second images by using a color matching function with the representative color model set T'; wherein the color matching function between an image I and a color model set T is given by: D I T = ∑ T ∈ T d I T where d( I,T) denotes a distance between the image I and a color model T; and wherein the selection of the representative color model set T' comprises: (a') setting the representative color model set T' to void; (b') searching for a color model T a from the one or more generated color models that maximizes the statistical distance U: T a = argmax U({ T a} U T'; (c') updating the representative color model set T' by T' ← { T a} U T'; (d') repeating steps (b') to (c') until the statistical distance U(T') reaches a maximum; and wherein the statistical distance U is given by: U T = μ b − μ a 2 σ b σ a where μ a is the mean and σ a is the standard deviation of D( I a, T) for I a ∈ I a and μ b is the mean and σ b is the standard deviation of D( I b, T) for I b ∈ I b wherein I a denotes the one or more first images and I b denotes a set of third images without a region of interest. a. generating one or more color models (702, 702'), each color model being generated from a respective one of one or more first images comprising a region of interest; b. selecting a representative color model set T' from the one or more color models; and c. classifying one or more second images by using a color matching function with the representative color model set T'; (a') setting the representative color model set T' to void; (b') searching for a color model T a from the one or more generated color models that maximizes the statistical distance U: T a = argmax U({ T a} U T'; (c') updating the representative color model set T' by T' ← { T a} U T'; (d') repeating steps (b') to (c') until the statistical distance U(T') reaches a maximum;
A method of monitoring a rotating component, comprising: gathering an electrical signal from a sensor arranged adjacent a rotating component of an assembly; transforming the electrical signal from a time domain into a frequency domain; and comparing the electrical signal to an expected signal; determining whether there is a fault in the assembly based on the comparison to the expected signal; determining a portion of the assembly containing the fault based on the comparison to the expected signal; and/or comprising determining whether the fault corresponds to an issue with a gear system, shaft, or bearing; and wherein the rotating component is a gear having at least one tooth; wherein the gathering step comprises gathering data at a frequency of at least about 30 kHz; and/or wherein the gathering step comprises gathering an electrical signal from a speed range of the rotating component; and/or wherein the gathering step comprises gathering the electrical signal for a period of time corresponding to a startup of the component operating through all rotational speed conditions; and creating a three-dimensional plot of the electrical signal including time, frequency and amplitude of the signal, and characterized by removing any amplitude pulses corresponding to a tooth passing the sensor from the electrical signal before the transforming step. gathering an electrical signal from a sensor arranged adjacent a rotating component of an assembly; transforming the electrical signal from a time domain into a frequency domain; and comparing the electrical signal to an expected signal; determining whether there is a fault in the assembly based on the comparison to the expected signal; determining a portion of the assembly containing the fault based on the comparison to the expected signal; and/or comprising determining whether the fault corresponds to an issue with a gear system, shaft, or bearing; and wherein the rotating component is a gear having at least one tooth; wherein the gathering step comprises gathering data at a frequency of at least about 30 kHz; and/or wherein the gathering step comprises gathering an electrical signal from a speed range of the rotating component; and/or wherein the gathering step comprises gathering the electrical signal for a period of time corresponding to a startup of the component operating through all rotational speed conditions; and creating a three-dimensional plot of the electrical signal including time, frequency and amplitude of the signal, and characterized by removing any amplitude pulses corresponding to a tooth passing the sensor from the electrical signal before the transforming step.
A packing container filled with a content, wherein at least part of a surface that comes in contact with said content is a liquid-permeable surface which holds a liquid different from said content, wherein said liquid-permeable surface is formed from a resin that contains fine particles.
A method for processing a product by using a heat treatment apparatus for heat treating a product in a number of sections of the heat treatment apparatus, said number of sections comprising at least a first heating section, a second heating section, the heat treatment apparatus comprising a valve arrangement that comprises a number of valves, the valve arrangement being configured to be in a first mode and a second mode, wherein in the first mode, a number of the sections are configured to be passed by the product in a first order, and in the second mode, said number of the sections are configured to be passed by the product in a second order, the first order being different from the second order, the heat treatment apparatus being, by using the valve arrangement, configured to be in a first mode or in a second mode, wherein, in the first mode of the heat treatment apparatus, said number of the sections are configured to be passed by the product in a first order that comprises the first heating section being followed by the second heating section, and in the second mode of the heat treatment apparatus, said number of sections are configured to be passed by the product in a second order that comprises the second heating section being followed by the first heating section, characterised in that the method comprises, in the second mode of the heat treatment apparatus, deactivating the second heating section by redirecting a heat transfer media using a valve.
An articulated vehicle comprising: a first body section; a second body section; an elongate projection projecting from an end of said first body section towards said second body section; a pair of steering cylinders (34, 36) mounted such that they are partially or wholly disposed in or on said elongate projection; a rotatable member provided towards the end of the elongate projection which is distal from the first body section, the rotatable member being operatively connected to the second body section such that rotation of the rotatable member causes the steering angle between the first and second body sections to vary, and such that the first and second body sections articulate relative to one another about said distal end of the elongate projection; and at least one linkage connecting the rotatable member to the steering cylinders (34, 36), such that actuation of a steering cylinder (34, 36) causes the linkage to force the rotatable member to rotate; characterised in that the pair of steering cylinders (34, 36) are disposed one above the other such that they overlap vertically. a first body section; a second body section; an elongate projection projecting from an end of said first body section towards said second body section; a pair of steering cylinders (34, 36) mounted such that they are partially or wholly disposed in or on said elongate projection; a rotatable member provided towards the end of the elongate projection which is distal from the first body section, the rotatable member being operatively connected to the second body section such that rotation of the rotatable member causes the steering angle between the first and second body sections to vary, and such that the first and second body sections articulate relative to one another about said distal end of the elongate projection; and at least one linkage connecting the rotatable member to the steering cylinders (34, 36), such that actuation of a steering cylinder (34, 36) causes the linkage to force the rotatable member to rotate; characterised in that the pair of steering cylinders (34, 36) are disposed one above the other such that they overlap vertically.
A management method for managing at least one combi radiator that comprises both an electrical radiator system and a hot-water radiator system, the electrical radiator system including an activation device enabling it to be activated and the hot-water radiator system including a valve arranged to act selectively to cut off a flow of water through the combi radiator; the management method being performed by a processor unit including a memory storing a predefined table; the management method comprising the following steps that are repeated for each current day, and for each current period taken from a predetermined period set constituted by at least one successive period defined in the current day, the steps comprising: · acquiring a predetermined indication from the predefined table, said predetermined indication being associated with said current period and being taken from a list comprising a first indication for which only the electrical radiator system is to be activated, and/or a second indication for which only the hot-water radiator system is to be activated, and/or a third indication for which both the electrical radiator system and the hot-water radiator system are to be activated; · controlling the activation device and/or the valve as a function of the predetermined indication. the management method being performed by a processor unit including a memory storing a predefined table; the management method comprising the following steps that are repeated for each current day, and for each current period taken from a predetermined period set constituted by at least one successive period defined in the current day, the steps comprising: · acquiring a predetermined indication from the predefined table, said predetermined indication being associated with said current period and being taken from a list comprising a first indication for which only the electrical radiator system is to be activated, and/or a second indication for which only the hot-water radiator system is to be activated, and/or a third indication for which both the electrical radiator system and the hot-water radiator system are to be activated; · controlling the activation device and/or the valve as a function of the predetermined indication. · acquiring a predetermined indication from the predefined table, said predetermined indication being associated with said current period and being taken from a list comprising a first indication for which only the electrical radiator system is to be activated, and/or a second indication for which only the hot-water radiator system is to be activated, and/or a third indication for which both the electrical radiator system and the hot-water radiator system are to be activated; · controlling the activation device and/or the valve as a function of the predetermined indication.
An apparatus (10a, 50) for generating a broadband frequency signal (11, f out), the apparatus (10a, 50) comprising: a first controlled oscillator; a second controlled oscillator; a common phase locked loop (14a, 54), wherein the first controlled oscillator and the second controlled oscillator (12, 13) are included in the common phase locked loop (14a, 54), and wherein the first controlled oscillator and the second controlled oscillator (12, 13) are controlled based on a voltage signal; a mixer configured to generate the broadband frequency signal (11, f out) by mixing an output signal (f H) of the first controlled oscillator and an output signal (f L) of the second controlled oscillator; wherein the mixer is included in the common phase-locked loop; wherein the first and second controlled oscillators (12, 13) are configured to cause an opposing frequency change when the voltage signal changes, wherein the output of the mixer is coupled to a feedback path of the common phase locked loop (14a, 54) for feeding back the broadband frequency signal (11, f out) through the common phase locked loop (14a, 54) and wherein the voltage signal is generated by the common phase locked loop (14a, 54) based on the fed back broadband frequency signal (11, f out). a first controlled oscillator; a second controlled oscillator; a common phase locked loop (14a, 54), wherein the first controlled oscillator and the second controlled oscillator (12, 13) are included in the common phase locked loop (14a, 54), and wherein the first controlled oscillator and the second controlled oscillator (12, 13) are controlled based on a voltage signal; a mixer configured to generate the broadband frequency signal (11, f out) by mixing an output signal (f H) of the first controlled oscillator and an output signal (f L) of the second controlled oscillator; wherein the mixer is included in the common phase-locked loop; wherein the first and second controlled oscillators (12, 13) are configured to cause an opposing frequency change when the voltage signal changes, wherein the mixer is included in the common phase-locked loop; wherein the first and second controlled oscillators (12, 13) are configured to cause an opposing frequency change when the voltage signal changes,
A method performed by an apparatus and comprising: receiving, from at least one network device, first information indicating a first set of multiple transmission configuration indicator states; receiving, from the at least one network device, second information indicating a second set of multiple transmission configuration indicator states; determining an association between the first set of transmission configuration indicator states and a first set of transmission occasions; and determining an association between the second set of transmission configuration indicator states and a second set of transmission occasions, wherein the first set of transmission configuration indicator states and the second set of transmission configuration indicator states are indicated by a codepoint in downlink control information, the codepoint points to an index of an activated transmission configuration indicator table with at least one transmission configuration indicator state, and characterized in that a plurality of consecutive neighboring indices of the index are implicitly indicated. receiving, from at least one network device, first information indicating a first set of multiple transmission configuration indicator states; receiving, from the at least one network device, second information indicating a second set of multiple transmission configuration indicator states; determining an association between the first set of transmission configuration indicator states and a first set of transmission occasions; and determining an association between the second set of transmission configuration indicator states and a second set of transmission occasions, wherein the first set of transmission configuration indicator states and the second set of transmission configuration indicator states are indicated by a codepoint in downlink control information, the codepoint points to an index of an activated transmission configuration indicator table with at least one transmission configuration indicator state, and characterized in that a plurality of consecutive neighboring indices of the index are implicitly indicated.