mhurhangee/ep-ind-claims huggingface dataset:
A method for predicting sepsis or diagnosing systemic inflammatory response syndrome (SIRS) and/or sepsis in a subject, the method comprising determining levels of at least CCL23, A1AT and CRP, optionally together with at least one or more of sICAM, PLA2, IL-6, procalcitonin, MMP8, TNFalpha, AcPGP, enzymatic MMP activity, TIMP1, sRAGE and desmosine in a sample taken from the subject, wherein the combined levels of the at least three markers are used to predict or diagnose SIRS and/or sepsis.
A random access method, comprising: determining, by a first terminal device, a first physical random access resource, wherein the first terminal device is a first-type terminal device; sending, by the first terminal device, a first random access request message on the first physical random access resource; receiving, by the first terminal device, first downlink control information DCI, wherein the first DCI is used to schedule a first random access response RAR; and receiving, by the first terminal device, the first RAR based on the first DCI; and the first DCI and second downlink control information DCI received by a second terminal device are carried on a same physical downlink control channel PDCCH, and/or the first RAR and a second random access response RAR scheduled by using the second DCI are carried on a same physical downlink shared channel PDSCH, wherein the second terminal device is a second-type terminal device, characterized in that before the receiving, by the first terminal device, first downlink control information DCI, the method further comprises: receiving, by the first terminal device, first indication information, wherein the first indication information indicates whether the first DCI and the second DCI are carried on a same PDCCH. determining, by a first terminal device, a first physical random access resource, wherein the first terminal device is a first-type terminal device; sending, by the first terminal device, a first random access request message on the first physical random access resource; receiving, by the first terminal device, first downlink control information DCI, wherein the first DCI is used to schedule a first random access response RAR; and receiving, by the first terminal device, the first RAR based on the first DCI; and the first DCI and second downlink control information DCI received by a second terminal device are carried on a same physical downlink control channel PDCCH, and/or the first RAR and a second random access response RAR scheduled by using the second DCI are carried on a same physical downlink shared channel PDSCH, wherein the second terminal device is a second-type terminal device, characterized in that before the receiving, by the first terminal device, first downlink control information DCI, the method further comprises: receiving, by the first terminal device, first indication information, wherein the first indication information indicates whether the first DCI and the second DCI are carried on a same PDCCH.
A stamp device, comprising a main body, the main body comprising a bottom plate on which a carrier and a stamp are placed, a pressing plate which cooperates with the bottom plate to press the carrier and the stamp, a limiting structure for limiting a lateral relative movement of the pressing plate and the bottom plate, and a connecting structure for folding and unfolding the main body; an upper surface of the bottom plate being provided with a working space for placing the carrier and the stamp; wherein the main body has an elastic structure for supporting the pressing plate and the bottom plate when the main body is in a folded state, and the elastic structure is disposed on the pressing plate or on the bottom plate; characterized in that: the elastic structure is an elastic telescopic structure, including a groove and a movable block that is confined in the groove, wherein a top of the movable block is configured to extend out and retract in the groove, an inside of the groove is provided with an elastic member for driving the movable block to be returned in a natural state, and the top of the movable block is configured to extend out of the groove. wherein the main body has an elastic structure for supporting the pressing plate and the bottom plate when the main body is in a folded state, and the elastic structure is disposed on the pressing plate or on the bottom plate; characterized in that: the elastic structure is an elastic telescopic structure, including a groove and a movable block that is confined in the groove, wherein a top of the movable block is configured to extend out and retract in the groove, an inside of the groove is provided with an elastic member for driving the movable block to be returned in a natural state, and the top of the movable block is configured to extend out of the groove.
A method of determining fault conditions in a rotating electrical machine comprising a rotor and a stator by means of end winding vibration measurements, wherein the method comprises: obtaining a vibration measurement from an end winding sensor (13a, 13b, 13c) arranged on an end winding of the stator of the electrical machine, and configured to measure vibrations of the end winding, frequency transforming the vibration measurement to obtain a frequency spectrum (15, 17, 19, 21) of the vibration measurement, comparing the frequency spectrum with reference frequency spectra (17, 19, 21), and determining whether a fault condition is present in an active shaft region of the electrical machine based on the comparison between the frequency spectrum (15, 17, 19, 21) and the reference frequency spectra (17, 19, 21), wherein the active shaft region is defined by the length of the electrical machine where electromagnetic interaction between the rotor and the stator of the electrical machine is present. obtaining a vibration measurement from an end winding sensor (13a, 13b, 13c) arranged on an end winding of the stator of the electrical machine, and configured to measure vibrations of the end winding, frequency transforming the vibration measurement to obtain a frequency spectrum (15, 17, 19, 21) of the vibration measurement, comparing the frequency spectrum with reference frequency spectra (17, 19, 21), and determining whether a fault condition is present in an active shaft region of the electrical machine based on the comparison between the frequency spectrum (15, 17, 19, 21) and the reference frequency spectra (17, 19, 21), wherein the active shaft region is defined by the length of the electrical machine where electromagnetic interaction between the rotor and the stator of the electrical machine is present.
A back support for a chair comprising: a cover configured to be coupled to opposing sides of a chair frame; a strap connected to the cover; and a sled having a central portion coupled to the strap, the sled being configured to pivot with respect to the chair frame and provide support to a user's back, characterized in that the cover is configured to moveably connect to the chair frame between a low position and a high position, and in that the sled is configured to pivot as the cover moves between the low position and the high position so that the central portion of the sled is substantially parallel to at least a portion of a membrane connected to the frame between the low position and the high position. a cover configured to be coupled to opposing sides of a chair frame; a strap connected to the cover; and a sled having a central portion coupled to the strap, the sled being configured to pivot with respect to the chair frame and provide support to a user's back, characterized in that the cover is configured to moveably connect to the chair frame between a low position and a high position, and in that the sled is configured to pivot as the cover moves between the low position and the high position so that the central portion of the sled is substantially parallel to at least a portion of a membrane connected to the frame between the low position and the high position.
A connection processing method in a wireless communication system including a wireless terminal and a wireless base station, the connection processing method comprising: on the wireless base station, upon rejecting a connection from the wireless terminal that makes a connection request in accordance with a first connection processing, processing a wireless resource for a second connection processing different from the first connection processing, the second connection processing being such that the wireless terminal is allowed to retry the rejected connection request from an intermediate step of the first connection processing rather than from the beginning of the first connection processing, the wireless resource being allocated to the wireless terminal for uplink communication; and adopting the second connection processing in response to a subsequent connection request by the wireless terminal. on the wireless base station, upon rejecting a connection from the wireless terminal that makes a connection request in accordance with a first connection processing, processing a wireless resource for a second connection processing different from the first connection processing, the second connection processing being such that the wireless terminal is allowed to retry the rejected connection request from an intermediate step of the first connection processing rather than from the beginning of the first connection processing, the wireless resource being allocated to the wireless terminal for uplink communication; and adopting the second connection processing in response to a subsequent connection request by the wireless terminal.
A method of deriving a value for % biomarker positivity for all tumor cells present in a field of view, comprising: (i) generating an image of first fluorescence signals representative of nuclei of all cells present in a field of view, and dilating the first fluorescence signals to a diameter of that of an entire cell to construct a first mask of all cells present in the field of view; (ii) constructing a second mask of second fluorescence signals representative of all areas present in the field of view, which express a tumor biomarker; (iii) combining said first and second masks in a manner that provides a third mask comprising fluorescence signals representative of all tumor cells in the field of view; (iv) constructing a fourth mask of third fluorescence signals representative of all areas present in the field of view, which express a biomarker of interest; (v) combining said third and fourth masks in a manner that provides a fifth mask comprising fluorescence signals representative of all tumor cells in the field of view, which also express the biomarker of interest; and (vi) deriving a value for PBP for all tumor cells expressing the biomarker of interest by dividing the total area of the fifth mask by the total area of the third mask. (i) generating an image of first fluorescence signals representative of nuclei of all cells present in a field of view, and dilating the first fluorescence signals to a diameter of that of an entire cell to construct a first mask of all cells present in the field of view; (ii) constructing a second mask of second fluorescence signals representative of all areas present in the field of view, which express a tumor biomarker; (iii) combining said first and second masks in a manner that provides a third mask comprising fluorescence signals representative of all tumor cells in the field of view; (iv) constructing a fourth mask of third fluorescence signals representative of all areas present in the field of view, which express a biomarker of interest; (v) combining said third and fourth masks in a manner that provides a fifth mask comprising fluorescence signals representative of all tumor cells in the field of view, which also express the biomarker of interest; and (vi) deriving a value for PBP for all tumor cells expressing the biomarker of interest by dividing the total area of the fifth mask by the total area of the third mask.
A yarn winding machine comprising: a yarn supplying section adapted to supply a yarn; a winding device adapted to wind the yarn into a package; a yarn joining device having a cutter; and a yarn monitoring device adapted to monitor the yarn, wherein the cutter of the yarn joining device is adapted to cut the continuous yarn in accordance with a monitoring result of the yarn monitoring device, characterized in that the cutter is adapted to cut the yarn after stopping winding of the winding device when the yarn monitoring device detects a defect in a joint of the yarn, and in that the yarn joining device includes a guide member (93, 94) and a yarn moving lever (95, 96), a first slit (101, 201) and a second slit (102, 202) are formed on the guide member (93, 94), the first slit (101, 201) being a slit to which a first yarn end that is a yarn end of the yarn from the yarn supplying section is introduced for yarn joining, and the second slit (102, 202) being a slit to which a second yarn end that is a yarn end of the yarn from the package is introduced for the yarn joining, the yarn moving lever (95, 96) is adapted to perform a yarn moving operation during the yarn joining to move the first yarn end to an inner side of the first slit (101, 201) and to move the second yarn end to an inner side of the second slit (102, 202), and a) the guide member (93, 94) includes a cut-guiding section adapted to guide the continuous yarn to one of the first slit (101, 201) and the second slit (102, 202) when performing the yarn moving operation by the yarn moving lever (95, 96) for cutting the yarn, and/or b) the yarn moving lever (95, 96) includes a cut-guiding section adapted to guide the continuous yarn to one of the first slit (101, 201) and the second slit (102, 202) when performing the yarn moving operation by the yarn moving lever (95, 96) for cutting the yarn. a yarn supplying section adapted to supply a yarn; a winding device adapted to wind the yarn into a package; a yarn joining device having a cutter; and a yarn monitoring device adapted to monitor the yarn, a) the guide member (93, 94) includes a cut-guiding section adapted to guide the continuous yarn to one of the first slit (101, 201) and the second slit (102, 202) when performing the yarn moving operation by the yarn moving lever (95, 96) for cutting the yarn, and/or b) the yarn moving lever (95, 96) includes a cut-guiding section adapted to guide the continuous yarn to one of the first slit (101, 201) and the second slit (102, 202) when performing the yarn moving operation by the yarn moving lever (95, 96) for cutting the yarn.
Process for the manufacture of lignocellulosic fibre-based insulation boards, comprising (a) Providing lignocellulosic fibres, (b) Applying a binder composition to the lignocellulosic fibres, (c) Forming a lignocellulosic fibre mat by compressing the lignocellulosic fibres impregnated with the binder composition, (d) Heating the compressed lignocellulosic fibre mat so as to obtain a lignocellulosic fibreboard bound by an insoluble and infusible thermoset binder, said process being characterized by the fact that the binder composition is an emulsion of a poly(methylene diphenyl isocyanate) (pMDI) in an aqueous phase comprising water and a polyol dissolved therein. (a) Providing lignocellulosic fibres, (b) Applying a binder composition to the lignocellulosic fibres, (c) Forming a lignocellulosic fibre mat by compressing the lignocellulosic fibres impregnated with the binder composition, (d) Heating the compressed lignocellulosic fibre mat so as to obtain a lignocellulosic fibreboard bound by an insoluble and infusible thermoset binder,
Yeast strain, characterized in that it comprises exogenous genes of the xylose metabolic pathway, wherein the exogenous genes of the xylose metabolic pathway present in the yeast strain consist of at least one copy of an exogenous gene encoding a xylose isomerase, and a copy of an exogenous gene encoding a xylitol dehydrogenase, and in that it has undergone a subsequent step of directed evolution comprising the following successive steps consisting in subjecting said yeast strain to: (i) a mutagenesis, (ii) a growth in cyclic cultures, under limited O 2 in a medium comprising at least one pentose, especially xylose, and (iii) a selection by aerobic growth on solid medium containing glycerol as sole carbon source. (i) a mutagenesis, (ii) a growth in cyclic cultures, under limited O 2 in a medium comprising at least one pentose, especially xylose, and (iii) a selection by aerobic growth on solid medium containing glycerol as sole carbon source.
A vehicle drive device comprising: a power transmission mechanism for transmitting a drive power from a drive power source to a plurality of wheels; a differential gear mechanism provided in the power transmission mechanism and distributing the drive power input from the drive power source to the plurality of wheels; a casing housing the power transmission mechanism; and an oil pump, the vehicle drive device driving the oil pump in conjunction with rotation of the differential gear mechanism; a catch tank for storing a lubricating oil provided in the casing, wherein an introduction path is formed in the casing for introducing lubricating oil stored in a storage space (S1a) of the casing, and scooped up by the differential gear mechanism during backward running of a vehicle, into the catch tank, wherein a discharge oil passage connected to a discharge port of the oil pump is connected to the catch tank, wherein the oil pump rotates in a first direction during forward running of the vehicle to suck the lubricating oil stored in the storage space (S1a) of the casing, characterized in that the oil pump further rotates in a second direction opposite to the first direction during backward running of the vehicle to suck lubricating oil stored in the catch tank through the discharge oil passage into the oil pump. an introduction path is formed in the casing for introducing lubricating oil stored in a storage space (S1a) of the casing, and scooped up by the differential gear mechanism during backward running of a vehicle, into the catch tank, wherein a discharge oil passage connected to a discharge port of the oil pump is connected to the catch tank, wherein the oil pump rotates in a first direction during forward running of the vehicle to suck the lubricating oil stored in the storage space (S1a) of the casing, characterized in that the oil pump further rotates in a second direction opposite to the first direction during backward running of the vehicle to suck lubricating oil stored in the catch tank through the discharge oil passage into the oil pump.
A system for peak power reduction on a plurality of frequency domain orthogonal frequency divisional multiplexing (OFDM) signal carriers and a plurality of time domain signal carriers in a communications system, comprising; a plurality of frequency domain carrier processing blocks configured to iteratively perform frequency domain processing of at least one frequency domain OFDM signal carrier to reduce peak power transmission; and a plurality of time domain carrier processing blocks configured to iteratively perform time domain processing of at least one time domain signal carrier to reduce peak power transmission, wherein the system is further configured to perform the frequency domain processing and time domain processing substantially simultaneously in an overlapping timewise manner, thereby spreading excess peak power to one or more of the plurality of frequency domain OFDM signal carriers and to one or more of the plurality of time domain signal carriers. a plurality of frequency domain carrier processing blocks configured to iteratively perform frequency domain processing of at least one frequency domain OFDM signal carrier to reduce peak power transmission; and a plurality of time domain carrier processing blocks configured to iteratively perform time domain processing of at least one time domain signal carrier to reduce peak power transmission, wherein the system is further configured to perform the frequency domain processing and time domain processing substantially simultaneously in an overlapping timewise manner, thereby spreading excess peak power to one or more of the plurality of frequency domain OFDM signal carriers and to one or more of the plurality of time domain signal carriers.
A power line communication system in which a first device and a second device connected to each other with two power lines (71, 72) are configured to perform communication via the power lines (71, 72), the first device comprising: a signal superimposition/separation section (55, 56, 57) which is connected to two branch lines (51 a, 52a) respectively branched from the two power lines (71, 72) and which superimposes a signal on the power lines (71, 72) and separates a signal superimposed on the power lines (71, 72); and a power line communication section which performs power line communication via the signal superimposition/separation section (55, 56, 57), and the second device comprising: a signal superimposition/separation section (15, 16) which is inserted in one of the power lines and which superimposes a signal on the power line and separates a signal superimposed on the power line; and a power line communication section which performs power line communication via the signal superimposition/separation section (15, 16); wherein the signal superimposition/separation section of the first device includes: two capacitors (56, 57) respectively connected to the two branch lines (51 a, 52a); and an electromagnetic induction type signal converter whose primary coil is connected to the two capacitors (56, 57) and whose secondary coil is connected to the power line communication section, and the signal superimposition/separation section (15,16) of the second device includes: an electromagnetic induction type signal converter whose primary coil is interposed in the one of the power lines (71, 72) and whose secondary coil is connected to the power line communication section; and a capacitor connected to and between the two power lines (71, 72). a signal superimposition/separation section (55, 56, 57) which is connected to two branch lines (51 a, 52a) respectively branched from the two power lines (71, 72) and which superimposes a signal on the power lines (71, 72) and separates a signal superimposed on the power lines (71, 72); and a power line communication section which performs power line communication via the signal superimposition/separation section (55, 56, 57), and a signal superimposition/separation section (15, 16) which is inserted in one of the power lines and which superimposes a signal on the power line and separates a signal superimposed on the power line; and a power line communication section which performs power line communication via the signal superimposition/separation section (15, 16); two capacitors (56, 57) respectively connected to the two branch lines (51 a, 52a); and an electromagnetic induction type signal converter whose primary coil is connected to the two capacitors (56, 57) and whose secondary coil is connected to the power line communication section, and an electromagnetic induction type signal converter whose primary coil is interposed in the one of the power lines (71, 72) and whose secondary coil is connected to the power line communication section; and a capacitor connected to and between the two power lines (71, 72).