mhurhangee/ep-ind-claims huggingface dataset:
Sill assembly, for example for a window or door, said sill assembly comprising a sill and at least one plinth block (3, 4), wherein said sill and said plinth block (3, 4) comprise mutually cooperating connecting means for connecting the at least one plinth block (3, 4) to the sill, wherein said sill is made of a solid plastic material, and wherein said sill is made by means of machining and/or milling, characterized in that said sill comprises a basic sill part and a stop block (6, 7) for a moveable door or window, wherein said basic sill part and said stop block (6, 7) comprise mutually cooperating connecting means for connecting the stop block (6, 7) to the basic sill part, wherein the mutually cooperating connecting means comprise a recess and a projection, wherein the recess is arranged to receive the projection, wherein said projection is arranged as a snap projection. said sill is made of a solid plastic material, and wherein said sill is made by means of machining and/or milling, characterized in that said sill comprises a basic sill part and a stop block (6, 7) for a moveable door or window, wherein said basic sill part and said stop block (6, 7) comprise mutually cooperating connecting means for connecting the stop block (6, 7) to the basic sill part, wherein the mutually cooperating connecting means comprise a recess and a projection, wherein the recess is arranged to receive the projection, wherein said projection is arranged as a snap projection.
A cornea shape measurement apparatus for measuring a corneal shape of an examinee's eye, comprising: a first projecting optical system (1, 45a) configured to project a first target on the cornea (Ec); a first imaging optical system configured to capture a reflection image of the first target projected on the cornea (Ec); a second projecting optical system (10, 11) configured to project a second target different from the first target on the cornea (Ec) to measure the corneal shape, wherein the second target differs from the first target in at least the projection area, the second target having a wider projection area on the cornea (Ec) than the first target; a second imaging optical system configured to capture a reflection image of the second target projected on the cornea (Ec); and a calculation controller corneal shape measuring means for controlling the amount of light of the second target by adjusting the amount of projection light of the second projecting optical system (10, 11) based on the reflection image of the first target, the reflection image of the first target having been acquired by the first imaging optical system, and measuring the corneal shape of the examinee's eye based on the reflection image of the second target, the reflection image of the second target having been captured by the second imaging optical system. a first projecting optical system (1, 45a) configured to project a first target on the cornea (Ec); a first imaging optical system configured to capture a reflection image of the first target projected on the cornea (Ec); a second projecting optical system (10, 11) configured to project a second target different from the first target on the cornea (Ec) to measure the corneal shape, wherein the second target differs from the first target in at least the projection area, the second target having a wider projection area on the cornea (Ec) than the first target; a second imaging optical system configured to capture a reflection image of the second target projected on the cornea (Ec); and a calculation controller corneal shape measuring means for controlling the amount of light of the second target by adjusting the amount of projection light of the second projecting optical system (10, 11) based on the reflection image of the first target, the reflection image of the first target having been acquired by the first imaging optical system, and measuring the corneal shape of the examinee's eye based on the reflection image of the second target, the reflection image of the second target having been captured by the second imaging optical system.
A bias circuit, for providing a bias signal at a bias output connection, the bias circuit connected to a first power supply connection and to a second power supply connection, the bias circuit comprising: a current mirror, comprising a common terminal (320, 820) connected to the first power supply connection (325, 825), a first current-carrying terminal (302, 802) and a second current-carrying terminal (306, 806), the current mirror configured to source or sink a current, at the first current-carrying terminal (302, 802), substantially equal to a current flowing out of or into the second current-carrying terminal (306, 806); a first amplifying element (309, 809); a second amplifying element (313, 813); and a resistor, each of the first amplifying element (309, 809) and the second amplifying element (309, 809) comprising a first current-carrying terminal (308, 312, 808, 812), a second current-carrying terminal (310, 314, 810, 814) and a control terminal, the first current-carrying terminal (308, 808) of the first amplifying element (309, 809) being connected to the first current-carrying terminal (302, 802) of the current mirror, the second current-carrying terminal (310, 810) of the first amplifying element being connected to the second power supply connection (330, 830), a first terminal (315, 815) of the resistor being connected to the second current-carrying terminal (306, 806) of the current mirror, a second terminal (316, 816) of the resistor being connected the first current-carrying terminal (312, 812) of the second amplifying element, the second current-carrying terminal (314, 814) of the second amplifying element being connected to the second power supply connection, the control terminal of the first amplifying element being connected to the first terminal (315, 815) of the resistor and to the bias output connection, and the control terminal of the second amplifying element being connected to the second terminal (316, 816) of the resistor. a current mirror, comprising a common terminal (320, 820) connected to the first power supply connection (325, 825), a first current-carrying terminal (302, 802) and a second current-carrying terminal (306, 806), the current mirror configured to source or sink a current, at the first current-carrying terminal (302, 802), substantially equal to a current flowing out of or into the second current-carrying terminal (306, 806); a first amplifying element (309, 809); a second amplifying element (313, 813); and a resistor,
A method of diagnosing sepsis, the method comprising the steps of: a) analysing a biological sample obtained from a subject to determine the levels of four or more biomarkers, the biomarkers comprising SLC2A3, GPR84, RETN and LRRN3 and optionally one or more further biomarkers selected from any of; - group A, consisting of: GYG1, B4GALT5, HK3, PFKFB3, STXBP2, FPR2, ALPL, GRINA, FFAR2, and MPO; - group B, consisting of: IL1RN, BASP1, PSTPIP2, CKAP4, DYSF, C19orf59, IL18R1, MMP9, FGR, SPI1, PGLYRP1, RNF24, ANKRD22, CEBPD, IL1R2, LOC729021 (SCRAP-like helicase), S100A12, ITGAM, FCGR1A, IFITM3, CSF3R, LCN2, TNFAIP6, HP, ORM1, CEACAM1 and PRTN3; - and group C, consisting of: GRAP, TRAJ17, CD3D, CD247, ITM2A, LIME1, HLA-DMB, CD7, MAL, TRBV28, RPS29; and b) comparing the levels of the biomarkers determined in (a) with one or more reference values, wherein a difference in the expression levels of the four or more biomarkers in the sample(s) from the subject compared to the one or more reference values is indicative of sepsis. a) analysing a biological sample obtained from a subject to determine the levels of four or more biomarkers, the biomarkers comprising SLC2A3, GPR84, RETN and LRRN3 and optionally one or more further biomarkers selected from any of; - group A, consisting of: GYG1, B4GALT5, HK3, PFKFB3, STXBP2, FPR2, ALPL, GRINA, FFAR2, and MPO; - group B, consisting of: IL1RN, BASP1, PSTPIP2, CKAP4, DYSF, C19orf59, IL18R1, MMP9, FGR, SPI1, PGLYRP1, RNF24, ANKRD22, CEBPD, IL1R2, LOC729021 (SCRAP-like helicase), S100A12, ITGAM, FCGR1A, IFITM3, CSF3R, LCN2, TNFAIP6, HP, ORM1, CEACAM1 and PRTN3; - and group C, consisting of: GRAP, TRAJ17, CD3D, CD247, ITM2A, LIME1, HLA-DMB, CD7, MAL, TRBV28, RPS29; and - group A, consisting of: GYG1, B4GALT5, HK3, PFKFB3, STXBP2, FPR2, ALPL, GRINA, FFAR2, and MPO; - group B, consisting of: IL1RN, BASP1, PSTPIP2, CKAP4, DYSF, C19orf59, IL18R1, MMP9, FGR, SPI1, PGLYRP1, RNF24, ANKRD22, CEBPD, IL1R2, LOC729021 (SCRAP-like helicase), S100A12, ITGAM, FCGR1A, IFITM3, CSF3R, LCN2, TNFAIP6, HP, ORM1, CEACAM1 and PRTN3; - and group C, consisting of: GRAP, TRAJ17, CD3D, CD247, ITM2A, LIME1, HLA-DMB, CD7, MAL, TRBV28, RPS29; and b) comparing the levels of the biomarkers determined in (a) with one or more reference values, wherein a difference in the expression levels of the four or more biomarkers in the sample(s) from the subject compared to the one or more reference values is indicative of sepsis.
A computer-implemented method of analyzing fibers and branching structures of objects, the computer-implemented method comprising: obtaining an image of an object utilizing an imaging device (108, 109), the object comprising fibers (1, 2) and branching structures; obtaining initial tracing seeds applying adaptive thresholding method to the image; identifying tracing seeds candidates by employing Principal Component Analysis calculation on image patches at the initial seed points, wherein identifying tracing seeds candidates further comprises selecting seeds matching best to fiber distinguishable characteristics within a surrounding area and having highest signal to noise, wherein the fiber distinguishable characteristics comprise shape, intensity or color; tracing a single fiber segment utilizing a fiber detection and a fiber tracing modules, wherein performing the single fiber segment tracing comprises: calculating the best rectangle which matches the local image at a selected seed candidate by employing Principal Component Analysis calculation; growing the rectangle by moving the seed along a rectangle axis direction; and performing next Principal Component Analysis calculation; repeating the single fiber segment tracing for each selected seed candidate; assembling individual fiber segments utilizing a connectivity module; and forming and analyzing final fiber structures. obtaining an image of an object utilizing an imaging device (108, 109), the object comprising fibers (1, 2) and branching structures; obtaining initial tracing seeds applying adaptive thresholding method to the image; identifying tracing seeds candidates by employing Principal Component Analysis calculation on image patches at the initial seed points, wherein identifying tracing seeds candidates further comprises selecting seeds matching best to fiber distinguishable characteristics within a surrounding area and having highest signal to noise, wherein the fiber distinguishable characteristics comprise shape, intensity or color; tracing a single fiber segment utilizing a fiber detection and a fiber tracing modules, wherein performing the single fiber segment tracing comprises: calculating the best rectangle which matches the local image at a selected seed candidate by employing Principal Component Analysis calculation; growing the rectangle by moving the seed along a rectangle axis direction; and performing next Principal Component Analysis calculation; calculating the best rectangle which matches the local image at a selected seed candidate by employing Principal Component Analysis calculation; growing the rectangle by moving the seed along a rectangle axis direction; and performing next Principal Component Analysis calculation; repeating the single fiber segment tracing for each selected seed candidate; assembling individual fiber segments utilizing a connectivity module; and forming and analyzing final fiber structures.
A method of transmitting at least one broadcasting signal frame having Physical Layer Pipe, PLP data and preamble data, the method comprising: mapping bits of the PLP data into PLP data symbols and bits of the preamble data into preamble data symbols; building at least one data slice based on the PLP data symbols, the data slice being one of a first type of data slice and a second type of data slice, wherein the first type of data slice does not have a frame header and the second type of data slice has the frame header, wherein the frame header includes modulation and coding parameters of the PLP data for the second type of data slice; building a signal frame based on the preamble data symbols and the data slices; and modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein the preamble data symbols include Layer-1, L1, signaling information, wherein the L1 signaling information is time-interleaved to a L1 time-interleaving, TI, block within a L1 block in accordance with a time-interleaving depth, wherein pilot positions in the preamble data symbols are excluded in the time-interleaving, wherein an L1 header is included in front of the L1 TI block, and the L1 header and the L1 TI block are repeated in frequency within a least one of the preamble data symbols, wherein the L1 signaling information includes data slice ID information that identifies a data slice, wherein the L1 signaling information includes the time interleaving depth, and wherein the L1 signaling information includes modulation and coding parameters of the PLP data for the first type of data slice. mapping bits of the PLP data into PLP data symbols and bits of the preamble data into preamble data symbols; building at least one data slice based on the PLP data symbols, the data slice being one of a first type of data slice and a second type of data slice, wherein the first type of data slice does not have a frame header and the second type of data slice has the frame header, wherein the frame header includes modulation and coding parameters of the PLP data for the second type of data slice; building a signal frame based on the preamble data symbols and the data slices; and modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein the preamble data symbols include Layer-1, L1, signaling information, wherein the L1 signaling information is time-interleaved to a L1 time-interleaving, TI, block within a L1 block in accordance with a time-interleaving depth, wherein pilot positions in the preamble data symbols are excluded in the time-interleaving, wherein an L1 header is included in front of the L1 TI block, and the L1 header and the L1 TI block are repeated in frequency within a least one of the preamble data symbols, wherein the L1 signaling information includes data slice ID information that identifies a data slice, wherein the L1 signaling information includes the time interleaving depth, and wherein the L1 signaling information includes modulation and coding parameters of the PLP data for the first type of data slice.
A method, comprising: at an electronic device having memory, one or more processors, a speaker, and a microphone: sending a first set of ultrasound chirps at a first rate via the speaker; receiving, via the microphone, a first set of signals corresponding to the first set of ultrasound chirps and being reflected from a person, the method being characterized in determining based on the first set of signals that the person is in proximity to the electronic device; and in accordance with the determination that the person is in proximity to the electronic device, sending a second set of ultrasound chirps at a second rate, faster than the first rate; receiving (1316, 1334), via the microphone, a second set of signals corresponding to the second set of ultrasound chirps; and identifying a gesture from the person based on the second set of signals. sending a first set of ultrasound chirps at a first rate via the speaker; receiving, via the microphone, a first set of signals corresponding to the first set of ultrasound chirps and being reflected from a person, the method being characterized in determining based on the first set of signals that the person is in proximity to the electronic device; and in accordance with the determination that the person is in proximity to the electronic device, sending a second set of ultrasound chirps at a second rate, faster than the first rate; receiving (1316, 1334), via the microphone, a second set of signals corresponding to the second set of ultrasound chirps; and identifying a gesture from the person based on the second set of signals.
A polyether polymer composition comprising 200 parts by weight or more of a metal-containing powder per a total of 100 parts by weight of a cationic group-containing low molecular weight polyether polymer composed of 10 to 200 oxirane monomer units, wherein at least a part of the oxirane monomer units is an oxirane monomer unit having a cationic group, and a high molecular weight polyether polymer composed of more than 200 oxirane monomer units.
A headphone comprising: an electroacoustic transducer; a shell enclosing a back side of the electroacoustic transducer to define a back cavity, a first opening and a second opening through the shell each coupling the back cavity to an outer surface of the shell; and a plate attached to the shell, the plate having a bottom surface abutting the outer surface of the shell, and a top surface opposite the bottom surface, wherein the plate includes: an exit cavity defined by side walls interior to the plate, an upper aperture in the top surface of the plate, and a lower aperture in the bottom surface of the plate, the lower aperture corresponding in dimension to the first opening through the shell and aligned with the first opening through the shell, and a channel in the bottom surface of the plate, which channel begins at a point aligned with the second opening through the shell and ends at an aperture through one of the side walls of the exit cavity; wherein: the channel and the outer surface of the shell together form a reactive acoustic port from the back cavity to the exit cavity, the first opening through the shell forms a resistive acoustic port from the back cavity to the exit cavity, and the exit cavity couples the reactive acoustic port and the resistive acoustic port to free space without introducing additional acoustic impedance. an electroacoustic transducer; a shell enclosing a back side of the electroacoustic transducer to define a back cavity, a first opening and a second opening through the shell each coupling the back cavity to an outer surface of the shell; and a plate attached to the shell, the plate having a bottom surface abutting the outer surface of the shell, and a top surface opposite the bottom surface, wherein the plate includes: an exit cavity defined by side walls interior to the plate, an upper aperture in the top surface of the plate, and a lower aperture in the bottom surface of the plate, the lower aperture corresponding in dimension to the first opening through the shell and aligned with the first opening through the shell, and a channel in the bottom surface of the plate, which channel begins at a point aligned with the second opening through the shell and ends at an aperture through one of the side walls of the exit cavity; wherein: the channel and the outer surface of the shell together form a reactive acoustic port from the back cavity to the exit cavity, the first opening through the shell forms a resistive acoustic port from the back cavity to the exit cavity, and the exit cavity couples the reactive acoustic port and the resistive acoustic port to free space without introducing additional acoustic impedance. the channel and the outer surface of the shell together form a reactive acoustic port from the back cavity to the exit cavity, the first opening through the shell forms a resistive acoustic port from the back cavity to the exit cavity, and the exit cavity couples the reactive acoustic port and the resistive acoustic port to free space without introducing additional acoustic impedance.
A composition comprising (i) an exopolysaccharide-associated protein selected from the group consisting of Bap1, RbmA, or RbmC, and (ii) a heterologous protein fused to the exopolysaccharide-associated protein, thus forming a fusion protein, wherein the heterologous protein is an enzyme. (i) an exopolysaccharide-associated protein selected from the group consisting of Bap1, RbmA, or RbmC, and (ii) a heterologous protein fused to the exopolysaccharide-associated protein, thus forming a fusion protein, wherein the heterologous protein is an enzyme.
Food processing machine comprising a housing and a heat exchanger arranged in the housing for a thermal treatment of food products in the food processing machine, the heat exchanger comprising an inlet and an outlet for a fluid streaming through the heat exchanger, characterized by a quick exchange device for the heat exchanger being designed such that by its actuation the heat exchanger can be separated from the food processing machine and can at a later point in time again be connected to the same, the inlet of the heat exchanger being connected by a first quick connection to a supply line and the outlet of the heat exchanger being connected by a second quick connection to a return line, the first quick connection and the second quick connection being part of the quick exchange device.
Method of anaerobic digestion, from liquid or solid, industrial or urban effluents, in particular vinasses from alcohol or yeast production, containing the elements or the compounds inhibiting the anaerobic digestion, including: - a step of acidogenesis and of hydrolysis, or of acidogenesis alone, of effluents before anaerobic digestion, said step being controlled for the oxydo-reduction potential, for that biological reactions are carried out in reduced or slight oxidizing medium, and for produce metabolites, in particular fatty acid, alcohol, mixed with other compounds, - the metabolites are subjected to a separation step of other compounds, - and the metabolites thus separated are subjected to a treatment of anaerobic digestion, characterised in that the separation step of mixed metabolites consists of an evapo-concentration, wherein the condensates are subjected to an anaerobic digestion. - a step of acidogenesis and of hydrolysis, or of acidogenesis alone, of effluents before anaerobic digestion, said step being controlled for the oxydo-reduction potential, for that biological reactions are carried out in reduced or slight oxidizing medium, and for produce metabolites, in particular fatty acid, alcohol, mixed with other compounds, - the metabolites are subjected to a separation step of other compounds, - and the metabolites thus separated are subjected to a treatment of anaerobic digestion,