mhurhangee/patent-ind-claim-en huggingface dataset:
A test device comprising: a chromatography support ; and a housing accommodating the chromatography support , wherein the housing comprises: a supporting part that supports a container accommodating a liquid used for chromatography, and a perforation/incision part that perforates or incises the container supported by the supporting part and the support to leak a liquid from the container to a position where the liquid comes into contact with the support , and wherein the support comprises, at a position that comes into contact with the perforation/incision part , a perforation/incision target part provided thereon in advance, which is more easily to be perforated or incised by the perforation/incision part , compared with other parts of the support . a chromatography support ; and a housing accommodating the chromatography support , wherein the housing comprises: a supporting part that supports a container accommodating a liquid used for chromatography, and a perforation/incision part that perforates or incises the container supported by the supporting part and the support to leak a liquid from the container to a position where the liquid comes into contact with the support , and wherein the support comprises, at a position that comes into contact with the perforation/incision part , a perforation/incision target part provided thereon in advance, which is more easily to be perforated or incised by the perforation/incision part , compared with other parts of the support . a supporting part that supports a container accommodating a liquid used for chromatography, and a perforation/incision part that perforates or incises the container supported by the supporting part and the support to leak a liquid from the container to a position where the liquid comes into contact with the support , and wherein the support comprises, at a position that comes into contact with the perforation/incision part , a perforation/incision target part provided thereon in advance, which is more easily to be perforated or incised by the perforation/incision part , compared with other parts of the support .
A method of transmitting a Physical sidelink shared channel, PSSCH, which is transmitted by a user equipment, UE, in a wireless communication system, comprising the steps of: generating a PSSCH based on information included in a Physical sidelink control channel, PSCCH; and transmitting the generated PSSCH with the PSCCH in a subframe, wherein sequences for the PSSCH are scrambled by using a value related to a cyclic redundancy check, CRC, field on the PSCCH. generating a PSSCH based on information included in a Physical sidelink control channel, PSCCH; and transmitting the generated PSSCH with the PSCCH in a subframe, wherein sequences for the PSSCH are scrambled by using a value related to a cyclic redundancy check, CRC, field on the PSCCH.
A central processing unit CPU comprising: an interrupt unit for interrupting execution of instructions; a plurality context defining register sets , wherein each set of registers having the same number of CPU registers; a switching unit for coupling a selected register set within the CPU , characterized in that the switching unit switches to a predetermined register set of said plurality of context defining register sets either directly upon occurrence of an exception or upon execution of a context switch instruction; and in that the central processing unit CPU further comprises a context status register coupled with the switching unit comprising a first bitfield CCTX indicating a current context and a second bitfield MCTX indicating a most recent context selected by said context switch instruction. an interrupt unit for interrupting execution of instructions; a plurality context defining register sets , wherein each set of registers having the same number of CPU registers; a switching unit for coupling a selected register set within the CPU , the switching unit switches to a predetermined register set of said plurality of context defining register sets either directly upon occurrence of an exception or upon execution of a context switch instruction; and in that the central processing unit CPU further comprises a context status register coupled with the switching unit comprising a first bitfield CCTX indicating a current context and a second bitfield MCTX indicating a most recent context selected by said context switch instruction.
A heat exchanger comprising a first heat exchange row and a second heat exchange row overlapping with each other, wherein each heat exchange row comprises a first distributor and a second distributor and a plurality of parallel, coplanar tubes interconnecting the first distributor and the second distributor , wherein each of said distributors has a tubular body, on a lateral wall of which a plurality of slots is formed, in each of which slots one end of a relevant tube is inserted, wherein one of said first distributor and second distributor of the first heat exchange row has an inlet (IN) of the heat exchanger and one of said first distributor and second distributor of the second heat exchange row has an outlet (OUT) of the heat exchanger, wherein the heat exchanger further comprises a fluid connection element connecting one of said first distributor and second distributor of the first heat exchange row, hereinafter referred to as the first row distributor , to one of said first distributor and second distributor of the second heat exchange row, hereinafter referred to as the second row distributor , wherein said fluid connection element is an element which is fixedly connected at the top to ends of the first row distributor and of the second row distributor and in which a conduit is formed that fluidically connects the first row distributor to the second row distributor , wherein the fluid connection element is formed as a hollow block in which two openings are formed, characterised in that in the said openings the ends of the first row distributor and of the second row distributor are inserted, respectively. wherein each of said distributors has a tubular body, on a lateral wall of which a plurality of slots is formed, in each of which slots one end of a relevant tube is inserted, wherein one of said first distributor and second distributor of the first heat exchange row has an inlet (IN) of the heat exchanger and one of said first distributor and second distributor of the second heat exchange row has an outlet (OUT) of the heat exchanger, wherein the heat exchanger further comprises a fluid connection element connecting one of said first distributor and second distributor of the first heat exchange row, hereinafter referred to as the first row distributor , to one of said first distributor and second distributor of the second heat exchange row, hereinafter referred to as the second row distributor , wherein said fluid connection element is an element which is fixedly connected at the top to ends of the first row distributor and of the second row distributor and in which a conduit is formed that fluidically connects the first row distributor to the second row distributor , wherein the fluid connection element is formed as a hollow block in which two openings are formed, characterised in that in the said openings the ends of the first row distributor and of the second row distributor are inserted, respectively.
A measuring apparatus measuring a pulse wave signal of a living body to generate biological information about the living body, the measuring apparatus comprising: a first signal acquirer configured to acquire a time domain pulse wave signal representing a pulse wave of the living body in a time domain; a second signal acquirer configured to acquire a time domain body motion signal representing a body motion of the living body in a time domain; a frequency domain analyzer configured to convert the time domain pulse wave signal and the time domain body motion signal to a frequency domain to generate a frequency domain pulse wave signal and a frequency domain body motion signal, and estimate a frequency of the pulse wave of the living body on the basis of the frequency domain pulse wave signal and the frequency domain body motion signal; and a time domain analyzer configured to calculate the biological information on the basis of the time domain pulse wave signal and the frequency of the pulse wave of the living body. a first signal acquirer configured to acquire a time domain pulse wave signal representing a pulse wave of the living body in a time domain; a second signal acquirer configured to acquire a time domain body motion signal representing a body motion of the living body in a time domain; a frequency domain analyzer configured to convert the time domain pulse wave signal and the time domain body motion signal to a frequency domain to generate a frequency domain pulse wave signal and a frequency domain body motion signal, and estimate a frequency of the pulse wave of the living body on the basis of the frequency domain pulse wave signal and the frequency domain body motion signal; and a time domain analyzer configured to calculate the biological information on the basis of the time domain pulse wave signal and the frequency of the pulse wave of the living body.
A power sweeper comprising: a handle having a first end graspable by a user and a second end ; a drive shaft extending along the handle; a power head coupled to the handle to rotate the drive shaft; a gear box coupled to the drive shaft adjacent the second end; a brush coupled to the gear box for rotation in response to rotation of the drive shaft; a shield coupled to the gear box, the shield defining an aperture through which the handle extends; characterised in that the power sweeper further comprises : an axle ; a first wheel coupled to the axle, the first wheel configured to roll along a ground surface; a second wheel coupled to the axle, the second wheel configured to roll along the ground surface , wherein the axle is moveable with respect to the shield and the brush to adjust an angle between the handle and the ground surface. a handle having a first end graspable by a user and a second end ; a drive shaft extending along the handle; a power head coupled to the handle to rotate the drive shaft; a gear box coupled to the drive shaft adjacent the second end; a brush coupled to the gear box for rotation in response to rotation of the drive shaft; an axle ; a first wheel coupled to the axle, the first wheel configured to roll along a ground surface; a second wheel coupled to the axle, the second wheel configured to roll along the ground surface , wherein the axle is moveable with respect to the shield and the brush to adjust an angle between the handle and the ground surface.
Process for treating an illite-containing formation comprising introducing a fluid containing glutamic acid N,N-diacetic acid or a salt thereof (GLDA) into the formation.
A sample rack used to hold a sample container containing a sample and to transport the held sample container, comprising: a container holding part configured to hold the sample container ; and a plurality of marks indicating an amount of the sample stored in the sample container held by the container holding part , characterized in that : the plurality of marks are arranged in a flat surface adjacent the container holding part and arranged at equal intervals from each other by a predetermined distance by respective recesses in the flat surface . a container holding part configured to hold the sample container ; and a plurality of marks indicating an amount of the sample stored in the sample container held by the container holding part , characterized in that : the plurality of marks are arranged in a flat surface adjacent the container holding part and arranged at equal intervals from each other by a predetermined distance by respective recesses in the flat surface .
A method for producing fried noodles, comprising the steps of: kneading a main raw material powder, water, and 1 to 3% by weight of at least potassium lactate as a sub material relative to a total weight of the main raw material powder to prepare dough; preparing noodle strings from the prepared dough; steaming the prepared noodle strings to gelatinize the noodle strings; and fry drying the gelatinized noodle strings. kneading a main raw material powder, water, and 1 to 3% by weight of at least potassium lactate as a sub material relative to a total weight of the main raw material powder to prepare dough; preparing noodle strings from the prepared dough; steaming the prepared noodle strings to gelatinize the noodle strings; and fry drying the gelatinized noodle strings.
A light receiving element comprising: a plurality of pixels (P); a photoelectric converter that includes a compound semiconductor material, is provided as a layer common to the plurality of pixels (P), and has a stacked structure in which a photoelectric conversion layer , a first contact layer , and a second contact layer are stacked, the photoelectric conversion layer being provided between the first contact layer and the second contact layer; further characterised by an insulating layer provided over the photoelectric converter; and a transparent electrode layer provided over the insulating layer. a plurality of pixels (P); a photoelectric converter that includes a compound semiconductor material, is provided as a layer common to the plurality of pixels (P), and has a stacked structure in which a photoelectric conversion layer , a first contact layer , and a second contact layer are stacked, the photoelectric conversion layer being provided between the first contact layer and the second contact layer; further characterised by an insulating layer provided over the photoelectric converter; and a transparent electrode layer provided over the insulating layer.
A powder comprising a fluoropolymer containing at least one group A selected from -COOR, -SO 3 X, -SO 2 NR 1 2 , and -COOX, wherein R is C 1-4 -alkyl; X is H, M 1/L or NR 1 4 , where M is an L-valent metal selected from the groups 1, 2, 4, 8, 11, 12 or 13 of the periodic table; and R 1 each individually is H or C 1-4 -alkyl; which powder has an aspect ratio, determined according to the description, of ≤ 3, and a dispersion, calculated by filtering a composition obtainable by mixing the powder with water through a mesh having an opening of 20 um, of ≥ 50%, wherein the dispersion is calculated by the following method: the powder having a dry mass of X g and an appropriate amount of water are mixed so that a composition containing the fluoropolymer is prepared. The composition is filtered through a mesh having an opening of 20 um. The filtrate is collected, and the dry mass Y g of the fluoropolymer contained in the filtrate is measured. The dispersion is calculated as Dispersion (%) = Y/X × 100. R is C 1-4 -alkyl; X is H, M 1/L or NR 1 4 , where M is an L-valent metal selected from the groups 1, 2, 4, 8, 11, 12 or 13 of the periodic table; and R 1 each individually is H or C 1-4 -alkyl; which powder has an aspect ratio, determined according to the description, of ≤ 3, and a dispersion, calculated by filtering a composition obtainable by mixing the powder with water through a mesh having an opening of 20 um, of ≥ 50%, wherein the dispersion is calculated by the following method: the powder having a dry mass of X g and an appropriate amount of water are mixed so that a composition containing the fluoropolymer is prepared. The composition is filtered through a mesh having an opening of 20 um. The filtrate is collected, and the dry mass Y g of the fluoropolymer contained in the filtrate is measured. The dispersion is calculated as Dispersion (%) = Y/X × 100.
A pneumatic tire comprising two annular bead portions each having a bead core , a carcass extending between the bead portions through sidewall portions and a tread portion, wherein the carcass includes at least two axially inner plies which extend down from the tread and axially inward of the bead core , said at least two axially inner plies being wound around the bead core forming respective turn-ups , each turn-up being located axially outward of the bead core , and wherein said carcass further includes at least one axially outer ply which extends down from the tread towards the bead core and axially outward of the bead core ; wherein (i) at least one of the axially inner plies is formed using reinforcements having a higher break strength than the reinforcements of the other plies or the at least one axially outer ply ; and/or (ii) at least one of the axially inner plies is formed using reinforcements having a lower % elongation at break than the reinforcements of the other plies or the at least one axially outer ply ; characterized in that the tire has a first axially outer ply which extends down from the tread towards the bead core and which is positioned axially outward of the bead core , and a second axially outer ply which extends down from the tread towards the bead core and which is positioned axially outward of the bead core , and wherein the reinforcements of the at least two of the axially inner plies have a higher break strength than the reinforcements of the two axially outer plies . (i) at least one of the axially inner plies is formed using reinforcements having a higher break strength than the reinforcements of the other plies or the at least one axially outer ply ; and/or (ii) at least one of the axially inner plies is formed using reinforcements having a lower % elongation at break than the reinforcements of the other plies or the at least one axially outer ply ;
A video data transmission method, wherein the method comprises: receiving (S1000), by a network device, a plurality of data packets corresponding to a plurality of video frames from a server, wherein each of the plurality of video frames comprises one or more data packets; determining (S1001), by the network device, a transmission phase of the one or more data packets corresponding to each video frame in the video frame, wherein the transmission phase comprises a frame header, a frame middle, or a frame tail; determining (S1002), by the network device based on the transmission phase of the one or more data packets corresponding to each video frame, a priority of the one or more data packets corresponding to each video frame; and sending (S1003), by the network device based on the priority of the one or more data packets corresponding to each video frame, the one or more data packets corresponding to the video frame to a terminal device corresponding to the video frame, wherein a priority of one or more data packets in a frame tail in a corresponding video frame is greater than a priority of one or more data packets in a frame middle or a frame header in the corresponding video frame; and/or a priority of one or more data packets in a frame middle in a corresponding video frame is greater than a priority of one or more data packets in a frame header in the corresponding video frame. receiving (S1000), by a network device, a plurality of data packets corresponding to a plurality of video frames from a server, wherein each of the plurality of video frames comprises one or more data packets; determining (S1001), by the network device, a transmission phase of the one or more data packets corresponding to each video frame in the video frame, wherein the transmission phase comprises a frame header, a frame middle, or a frame tail; determining (S1002), by the network device based on the transmission phase of the one or more data packets corresponding to each video frame, a priority of the one or more data packets corresponding to each video frame; and sending (S1003), by the network device based on the priority of the one or more data packets corresponding to each video frame, the one or more data packets corresponding to the video frame to a terminal device corresponding to the video frame, wherein a priority of one or more data packets in a frame tail in a corresponding video frame is greater than a priority of one or more data packets in a frame middle or a frame header in the corresponding video frame; and/or a priority of one or more data packets in a frame middle in a corresponding video frame is greater than a priority of one or more data packets in a frame header in the corresponding video frame.
A computer-implemented method for determining operational constraints to be followed for a first constellation of non-geostationary satellites (CONS_I) transmitting to a ground station (SV) at a point on the earth in relation to a second constellation of non-geostationary satellites (CONS_V) linked to the ground station, the operational constraints comprising at least one maximum transmission power for the satellites of the first constellation, the method comprising the following steps of: - determining triplets of limit values ( θ , φ, I / N ) of two angles ( θ , φ) and an interference-to-noise ratio, the two angles ( θ , φ ) defining a position of a satellite (NGSO_I) of the first constellation (CONS_I) relative to an axis formed by the ground station (SV) and a satellite (NGSO_V) of the second constellation (CONS_V) and the interference-to-noise ratio (I/N) being the ratio between interference (I) emitted by the first constellation on a link between the ground station (SV) and the satellite (NGSO_V) of the second constellation (CONS_V) and the noise (N) of the link, the triplets being determined so that a distribution of signal-to-noise-plus-interference ratios (R) cumulated over a time interval is greater than a reference distribution (REF), the signal-to-noise-plus-interference ratios (R) being the ratios between a useful signal (C) of the link and the noise (N) and the interferences (I); - determining at least the maximum transmission power of at least one satellite of the first constellation based on the triplets of values. - determining triplets of limit values ( θ , φ, I / N ) of two angles ( θ , φ) and an interference-to-noise ratio, the two angles ( θ , φ ) defining a position of a satellite (NGSO_I) of the first constellation (CONS_I) relative to an axis formed by the ground station (SV) and a satellite (NGSO_V) of the second constellation (CONS_V) and the interference-to-noise ratio (I/N) being the ratio between interference (I) emitted by the first constellation on a link between the ground station (SV) and the satellite (NGSO_V) of the second constellation (CONS_V) and the noise (N) of the link, the triplets being determined so that a distribution of signal-to-noise-plus-interference ratios (R) cumulated over a time interval is greater than a reference distribution (REF), the signal-to-noise-plus-interference ratios (R) being the ratios between a useful signal (C) of the link and the noise (N) and the interferences (I); - determining at least the maximum transmission power of at least one satellite of the first constellation based on the triplets of values.