mhurhangee/ep-ind-claims huggingface dataset:
An extract production system comprising: a solvent storage unit configured to store a solvent; an extraction unit configured to extract an extract from a starting material using the solvent arranged to flow into the interior thereof; a first heat exchange unit configured to subject the solvent arranged to flow into the extraction unit to heat exchange using a heat exchange medium; a second heat exchange unit configured to subject the solvent which underwent heat exchange in the first heat exchange unit to heat exchange by reusing the heat exchange medium which underwent heat exchange in the first heat exchange unit; a solvent supply flow path which is configured to connect the solvent storage unit and the extraction unit, has the first heat exchange unit disposed along the connection, and is configured to cause the solvent stored in the solvent storage unit to flow to the extraction unit; and a solvent return flow path which branches from the solvent supply flow path downstream of the first heat exchange unit to connect the solvent supply flow path and the solvent storage unit, has the second heat exchange unit disposed along the connection, and is configured to return the solvent which underwent heat exchange in the first heat exchange unit to the solvent storage unit. a solvent storage unit configured to store a solvent; an extraction unit configured to extract an extract from a starting material using the solvent arranged to flow into the interior thereof; a first heat exchange unit configured to subject the solvent arranged to flow into the extraction unit to heat exchange using a heat exchange medium; a second heat exchange unit configured to subject the solvent which underwent heat exchange in the first heat exchange unit to heat exchange by reusing the heat exchange medium which underwent heat exchange in the first heat exchange unit; a solvent supply flow path which is configured to connect the solvent storage unit and the extraction unit, has the first heat exchange unit disposed along the connection, and is configured to cause the solvent stored in the solvent storage unit to flow to the extraction unit; and a solvent return flow path which branches from the solvent supply flow path downstream of the first heat exchange unit to connect the solvent supply flow path and the solvent storage unit, has the second heat exchange unit disposed along the connection, and is configured to return the solvent which underwent heat exchange in the first heat exchange unit to the solvent storage unit.
A cognitive radio system, comprising: a memory configured to store a system parameter and a pseudo parameter, the system parameter being used for generation of a feature value which has such a property that the feature value is large in a case where a radio signal of a radio system for which a search is performed exists in a received frequency band, the pseudo parameter being similar to the system parameter which is used for generation of a non-feature value which has such a property that, in a case where no radio signal of a radio system for which the search is performed exists in a received frequency band, the non-feature value has the same probability distribution as that of the above-mentioned feature value, and that, in the case where the radio signal of the radio system exists in a received frequency band, the non-feature value is kept small; a feature value generator configured to generate one or a plurality of the feature values based on a signal in a received frequency band by using the system parameter; a non-feature value generator configured to generate one or a plurality of non-feature values based on the signal in the received frequency band by using the pseudo parameter; and a determination section configured to determine whether or not a signal of the radio system exists by using the one or the plurality of the feature values and the one or the plurality of non-feature values. a memory configured to store a system parameter and a pseudo parameter, the system parameter being used for generation of a feature value which has such a property that the feature value is large in a case where a radio signal of a radio system for which a search is performed exists in a received frequency band, the pseudo parameter being similar to the system parameter which is used for generation of a non-feature value which has such a property that, in a case where no radio signal of a radio system for which the search is performed exists in a received frequency band, the non-feature value has the same probability distribution as that of the above-mentioned feature value, and that, in the case where the radio signal of the radio system exists in a received frequency band, the non-feature value is kept small; a feature value generator configured to generate one or a plurality of the feature values based on a signal in a received frequency band by using the system parameter; a non-feature value generator configured to generate one or a plurality of non-feature values based on the signal in the received frequency band by using the pseudo parameter; and a determination section configured to determine whether or not a signal of the radio system exists by using the one or the plurality of the feature values and the one or the plurality of non-feature values.
A method of diagnosing a cancer subtype in a subject, comprising: obtaining a sample from the subject; assaying the sample to determine the expression level of CCL2; assaying the sample to determine the expression level LKB1; and diagnosing the cancer subtype in the subject based on the presence of both a level of CCL2 higher than a CCL2 reference level and a level of LKB1 lower than a LKB1 reference level, wherein the method further comprises assaying an increased sensitivity to endoplasmic reticulum stress, and wherein the cancer subtype is non-small cell lung cancer (NSCLC). obtaining a sample from the subject; assaying the sample to determine the expression level of CCL2; assaying the sample to determine the expression level LKB1; and diagnosing the cancer subtype in the subject based on the presence of both a level of CCL2 higher than a CCL2 reference level and a level of LKB1 lower than a LKB1 reference level, wherein the method further comprises assaying an increased sensitivity to endoplasmic reticulum stress, and wherein the cancer subtype is non-small cell lung cancer (NSCLC).
A communication apparatus configured to execute a phase of communicating data conveyed by a plurality of transport channels over a radio with other communication apparatus, said phase of communicating data comprising a rate matching process executing a transformation of a plurality of input data blocks of initial sizes into a plurality of output data blocks of final sizes, and comprising a multiplexing process executing a multiplexing of said plurality of output data blocks of final sizes into at least one multiplexing frame, data of said plurality of output data blocks of final sizes being conveyed by said plurality of transport channels and being processed by said rate matching process, said plurality of input data blocks being blocks of data conveyed by said plurality of transport channels, said communication apparatus being characterised by comprising: a receiver configured to receive, from said other communication apparatus, first parameters, each of said first parameters being relative to a rate matching ratio for a corresponding one of said plurality of transport channels, and being set according to Quality of Service required for said plurality of transport channels; and a calculator configured to execute a calculation of said final sizes of said output data blocks based on said initial sizes of said input data blocks, said first parameters, a maximum payload for said multiplexing frame, and a second parameter being a predefined non-dimensional parameter corresponding to a maximum percentage of bits to be punctured, said calculator select s an available maximum payload, for said at least one multiplexing frame, from among a set of possible maximum payloads based on said set of possible maximum payloads, initial sizes of said input data blocks, said first parameters and said second parameter, calculates a size of aggregate of said output data blocks of final sizes according to a following formula Z 0 = 0 Z i: = ⌊ ∑ j = 1 j = i Y j ʹ ⋅ N ∑ j = 1 j = k Y j ʹ ⌋, i = 1 to k where Z i is the size of the aggregate from the first output data block to the i-th output data block, Y' j is a value calculated using a function of a j-th input data block of said plurality of input data blocks and the corresponding first parameter, N is said maximum payload selected, k is a number of said input data blocks to be processed by said rate matching process, └x┘ is a the largest integer less than or equal to x, and calculates all of said final sizes of plurality of said output data blocks by calculating a difference Z i -Z i-1.
A sequential frequency band acquisition apparatus for an oscilloscope wherein the sequential frequency band acquisition apparatus comprises: an input to receive an input signal; a digitizer to digitize a selected signal; a bypass path to selectively couple the input to the digitizer; a frequency shift path to frequency shift the input signal and selectively couple the frequency-shifted input signal to the digitizer, the frequency shift path including a means for frequency shifting; an input switch to switch the input signal to one of the bypass path and the frequency shift path; an output switch to provide the selected signal to the digitizer by selectively coupling an output of one of the frequency shift path and the bypass path to the digitizer; a controller configured to control the input switch and the output switch to select a desired path, and to control a signal selector to select a frequency shifting signal; a plurality of memories to store digitized signals from the frequency shift path for each selected frequency shifting signal, and from the bypass path, wherein the controller is further configured to control storage of the digitized signals in each of the memories; at least one digital frequency shifter to frequency shift an associated signal from the frequency-shifted path in an associated memory; and a combiner to combine the at least one digitally frequency-shifted signal and the signal from the bypass path. an input to receive an input signal; a digitizer to digitize a selected signal; a bypass path to selectively couple the input to the digitizer; a frequency shift path to frequency shift the input signal and selectively couple the frequency-shifted input signal to the digitizer, the frequency shift path including a means for frequency shifting; an input switch to switch the input signal to one of the bypass path and the frequency shift path; an output switch to provide the selected signal to the digitizer by selectively coupling an output of one of the frequency shift path and the bypass path to the digitizer; a controller configured to control the input switch and the output switch to select a desired path, and to control a signal selector to select a frequency shifting signal; a plurality of memories to store digitized signals from the frequency shift path for each selected frequency shifting signal, and from the bypass path, wherein the controller is further configured to control storage of the digitized signals in each of the memories; at least one digital frequency shifter to frequency shift an associated signal from the frequency-shifted path in an associated memory; and a combiner to combine the at least one digitally frequency-shifted signal and the signal from the bypass path.
A titanium matrix based on a tension-free metal knitted fabric for guided tissue regeneration, wherein said matrix is made of a warp-knitted mesh fabric knitted from titanium threads, wherein the structure of the mesh fabric being in the form of a combined, plain, two-bar metal knitted fabric formed on the basis of primary and derived weaves and having alternating wales (1, 2) consisting of one and two titanium threads respectively, and wherein the titanium threads have a contoured surface.
A method of preparing a DNA unit fragment composition, comprising: a step of preparing solutions containing multiple kinds of DNA unit fragments, each solution containing one of the multiple kinds of DNA unit fragments, each DNA unit fragment being attached to a corresponding auxiliary sequence; and a step of, after preparing each solution, measuring the concentration of each kind of DNA unit fragment with the corresponding auxiliary sequence attached thereto in each of the solutions, and then based on the measurement result, taking a portion from each of the solutions so that the number of moles of DNA unit fragment in one portion is close to the number of moles of DNA unit fragment in another portion. a step of preparing solutions containing multiple kinds of DNA unit fragments, each solution containing one of the multiple kinds of DNA unit fragments, each DNA unit fragment being attached to a corresponding auxiliary sequence; and a step of, after preparing each solution, measuring the concentration of each kind of DNA unit fragment with the corresponding auxiliary sequence attached thereto in each of the solutions, and then based on the measurement result, taking a portion from each of the solutions so that the number of moles of DNA unit fragment in one portion is close to the number of moles of DNA unit fragment in another portion.
A microbial fuel cell in which the anode and/or cathode half-cell comprises at least one additional electrode insulated from direct contact with the working electrode and arranged to be coupled to an external voltage or current source, wherein the additional electrode does not comprise an internal redox system.
Hydraulic control apparatus for actuating a plurality of shifting elements (K_A, K_B, K_C) for the transmission of torque in an automatic transmission, each shifting element having at least one hydraulic actuator (4A, 4B, 4C) which comprises an actuating pressure space (7A, 7B, 7C), by means of the pressurization of which from the hydraulic control apparatus the shifting elements can be actuated, the hydraulic control apparatus comprising at least one switchable shut-off valve and at least one hydraulic switching unit which is connected to a pressure source and has a plurality of pressure actuating devices (23A, 23B, 23C) which are assigned to the different shifting elements, characterized in that the shut-off valve is configured and arranged in such a way that the actuators of at least two shifting elements can be connected hydraulically by way of a common shut-off valve to the pressure actuating devices (23A, 23B, 23C), all actuating pressure spaces (7A, 7B, 7C) of the at least two shifting elements (K_A, K_B, K_C) being closed tightly by the shut-off valve in a first switching position of the shut-off valve, and all actuating pressure spaces (7A, 7B, 7C) of the at least two shifting elements (K_A, K_B, K_C) being connected by way of the shut-off valve to the pressure actuating device (23A, 23B, 23C) which is assigned to the respective shifting element (K_A, K_B, K_C) in a second shifting position of the shut-off valve.
A compound having the formula: or a pharmaceutically acceptable salt thereof, for use in the treatment of a prostate cancer, wherein the prostate cancer comprises at least one pathogenic androgen receptor mutation. or a pharmaceutically acceptable salt thereof, for use in the treatment of a prostate cancer, wherein the prostate cancer comprises at least one pathogenic androgen receptor mutation.
A method of manufacturing a glass product, comprising: forming a glass object from molten glass, applying fluid comprising metal with antimicrobial properties on the glass object having a surface temperature of 500-950 °C while the object is cooling after said forming, and annealing the glass object after said applying to obtain the finished antimicrobial glass product. forming a glass object from molten glass, applying fluid comprising metal with antimicrobial properties on the glass object having a surface temperature of 500-950 °C while the object is cooling after said forming, and annealing the glass object after said applying to obtain the finished antimicrobial glass product.
A method for adjusting a force effect and/or a relative position between a running gear and a wagon body of a vehicle, in particular a rail vehicle, in which - a force and/or a relative position between the running gear, in particular a frame (103.4) of the running gear, and the wagon body is adjusted via an actuator device (106; 206; 306) acting between the running gear and the body in a plane of action, wherein - the plane of action is defined by a vehicle longitudinal direction and vehicle lateral direction of the vehicle, - the adjustment of the force effect and/or the relative position is made as a function of an adjustment directive for realizing a predeterminable adjustment concept for the force effect and/or the relative position, and - the adjustment of the force effect and/or the relative position is made as a function of at least two different adjustment directives for at least two predeterminable different adjustment concepts. characterized in that, - as one of the at least two adjustment directives, an angular acceleration adjustment directive of an angular acceleration adjustment concept is used, which relates to the minimization, in particular, the substantially complete elimination, of an angular acceleration of the running gear about a rotational axis parallel to a vehicle height direction in a predefined angular acceleration frequency range. - a force and/or a relative position between the running gear, in particular a frame (103.4) of the running gear, and the wagon body is adjusted via an actuator device (106; 206; 306) acting between the running gear and the body in a plane of action, wherein - the plane of action is defined by a vehicle longitudinal direction and vehicle lateral direction of the vehicle, - the adjustment of the force effect and/or the relative position is made as a function of an adjustment directive for realizing a predeterminable adjustment concept for the force effect and/or the relative position, and - the adjustment of the force effect and/or the relative position is made as a function of at least two different adjustment directives for at least two predeterminable different adjustment concepts. characterized in that, - as one of the at least two adjustment directives, an angular acceleration adjustment directive of an angular acceleration adjustment concept is used, which relates to the minimization, in particular, the substantially complete elimination, of an angular acceleration of the running gear about a rotational axis parallel to a vehicle height direction in a predefined angular acceleration frequency range.
A method for providing an attribute of a user profile to a requesting electronic device (260, 560) through a personal data server (250, 550), the user profile being stored on a first electronic device of the user or on a social network service (230, 530), the attribute pertaining to a data type comprising a plurality of accuracy levels, the method comprising, at the personal data server (250, 550): - receiving a request from the requesting electronic device (260, 560) for the attribute of the user profile, - collecting the requested attribute from the first electronic device or from the social network service (230, 530), - comparing the user profile and a profile of the requesting electronic device (260, 560) to determine a contextual distance between the user profile and the profile of the requesting electronic device, - changing the accuracy level of the collected attribute based on the determined contextual distance to define an updated attribute, - providing the updated attribute to the requesting electronic device (260, 560) in response to the request. - receiving a request from the requesting electronic device (260, 560) for the attribute of the user profile, - collecting the requested attribute from the first electronic device or from the social network service (230, 530), - comparing the user profile and a profile of the requesting electronic device (260, 560) to determine a contextual distance between the user profile and the profile of the requesting electronic device, - changing the accuracy level of the collected attribute based on the determined contextual distance to define an updated attribute, - providing the updated attribute to the requesting electronic device (260, 560) in response to the request.
An apparatus connectable to a host device, the apparatus comprising: a first memory die (160-a; 320-a; 520-a) comprising a first memory array (170-a) and configured to be coupled with the host device via a data bus and a command and address, C/A, bus; and a second memory die (160-b; 320-b; 520-b) comprising a second memory array, (170-b) the second memory die coupled with the first memory die and not coupled with the host device, the first memory die configured to: receive, via the C/A bus, a read command for a set of data; prefetch a first subset of the set of data from the first memory array; receive a second subset of the set of data from the second memory die; and output the set of data via the data bus. a first memory die (160-a; 320-a; 520-a) comprising a first memory array (170-a) and configured to be coupled with the host device via a data bus and a command and address, C/A, bus; and a second memory die (160-b; 320-b; 520-b) comprising a second memory array, (170-b) the second memory die coupled with the first memory die and not coupled with the host device, the first memory die configured to: receive, via the C/A bus, a read command for a set of data; prefetch a first subset of the set of data from the first memory array; receive a second subset of the set of data from the second memory die; and output the set of data via the data bus. receive, via the C/A bus, a read command for a set of data; prefetch a first subset of the set of data from the first memory array; receive a second subset of the set of data from the second memory die; and output the set of data via the data bus.
Ballistic protection element for protecting the torso and/or back of a person, said element: - having a rear face, intended to be disposed facing the body of said person, and an opposite front face, - and including, in the thickness thereof, a so-called first stack of a plurality of fibre-based layers, said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, having surface dimensions adapted for covering the torso or the back of said person, said element including a second stack of a plurality of fibre-based layers, said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, said second stack having surface dimensions that are smaller than the surface dimensions of said first stack, and being superimposed on said first stack at a central portion of said element, so as to form an extra thickness in said central portion, said element being characterised in that all of the layers of said first stack and of said second stack are connected to one other in a binder matrix, at least in said central portion. - having a rear face, intended to be disposed facing the body of said person, and an opposite front face, - and including, in the thickness thereof, a so-called first stack of a plurality of fibre-based layers, said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, having surface dimensions adapted for covering the torso or the back of said person,