mhurhangee/ep-ind-claims huggingface dataset:
A battery pack manufacturing method comprising: (a) stacking battery cells to form a cell stack (230; 330; 430; 530); (b) coupling the cell stack and a U-frame (110; 210; 410; 510) to each other; (c) measuring a volume of a space between a flat plate (120; 220; 420; 520) coupled to the U-frame and the cell stack; and (d) applying an amount of a polymer resin, the amount corresponding to the volume measured in step (c), wherein step (c) comprises a process of measuring a length between the flat plate and the cell stack to calculate a correction length (Z') and multiplying the correction length (Z') by an area of the cell stack, wherein the correction length (Z') between the flat plate and the cell stack is an average of a maximum value and a minimum value calculated by reflecting a tolerance range in the length between the flat plate and the cell stack defined by the following formula: Z = M0 + M1 − M2 wherein Z indicates the length between the flat plate and the cell stack, M0 indicates a distance between a maximum protrusion (233; 333; 433) and a minimum protrusion (232; 332; 432)of the cell stack, M1 indicates a length from the maximum protrusion of the cell stack to an end of a sidewall of the U-frame, and M2 indicates a step difference between a portion of the flat plate to which the polymer resin is applied and a portion of the flat plate to which the U-frame is coupled. (a) stacking battery cells to form a cell stack (230; 330; 430; 530); (b) coupling the cell stack and a U-frame (110; 210; 410; 510) to each other; (c) measuring a volume of a space between a flat plate (120; 220; 420; 520) coupled to the U-frame and the cell stack; and (d) applying an amount of a polymer resin, the amount corresponding to the volume measured in step (c), wherein step (c) comprises a process of measuring a length between the flat plate and the cell stack to calculate a correction length (Z') and multiplying the correction length (Z') by an area of the cell stack, wherein the correction length (Z') between the flat plate and the cell stack is an average of a maximum value and a minimum value calculated by reflecting a tolerance range in the length between the flat plate and the cell stack defined by the following formula: Z = M0 + M1 − M2 wherein Z indicates the length between the flat plate and the cell stack, M0 indicates a distance between a maximum protrusion (233; 333; 433) and a minimum protrusion (232; 332; 432)of the cell stack, M1 indicates a length from the maximum protrusion of the cell stack to an end of a sidewall of the U-frame, and M2 indicates a step difference between a portion of the flat plate to which the polymer resin is applied and a portion of the flat plate to which the U-frame is coupled.
A stereolithography apparatus for generating a three-dimensional object from a photocurable substance, comprising: an optical unit for projecting an image towards the photocurable substance for hardening the photocurable substance deposited in the focus layer; a control unit for controlling the optical unit, further comprising: a detection unit which comprises: a detection means that is movably arranged in a detection region for detecting during the generation process or in a generation-pause at least part of the image projected by the optical unit and for outputting a signal indicative of the detected image to the control unit; and a first driving means for moving the detection means into or out of the detection region, and wherein the optical unit further comprises: a second driving means which is linked to the optical unit for moving the focus layer into or out of the detection region, wherein the control unit is further adapted to control the first driving unit and the second driving means, and to adjust the optical unit and/or to modify the image to be projected based on the signal indicative of the detected image. an optical unit for projecting an image towards the photocurable substance for hardening the photocurable substance deposited in the focus layer; a control unit for controlling the optical unit, further comprising: a detection unit which comprises: a detection means that is movably arranged in a detection region for detecting during the generation process or in a generation-pause at least part of the image projected by the optical unit and for outputting a signal indicative of the detected image to the control unit; and a first driving means for moving the detection means into or out of the detection region, and wherein the optical unit further comprises: a second driving means which is linked to the optical unit for moving the focus layer into or out of the detection region, wherein the control unit is further adapted to control the first driving unit and the second driving means, and to adjust the optical unit and/or to modify the image to be projected based on the signal indicative of the detected image. a detection unit which comprises: a detection means that is movably arranged in a detection region for detecting during the generation process or in a generation-pause at least part of the image projected by the optical unit and for outputting a signal indicative of the detected image to the control unit; and a first driving means for moving the detection means into or out of the detection region, and wherein the optical unit further comprises: a second driving means which is linked to the optical unit for moving the focus layer into or out of the detection region, wherein the control unit is further adapted to control the first driving unit and the second driving means, and to adjust the optical unit and/or to modify the image to be projected based on the signal indicative of the detected image.
A system for real-time placement tracking of an endotracheal tube, comprising: an endotracheal tube comprising a cuff; an optical component positioned at the endotracheal tube cuff and adapted to emit light into tissue surrounding the trachea into which the endotracheal tube is inserted to induce ultrasonic pressure waves within the tissue; an external acoustic detector adapted to receive the ultrasonic pressure waves induced in the tissue; and an analyzer in electrical communication with the acoustic detector, wherein the analyzer is adapted to produce an output based on the received ultrasonic pressure waves that indicates whether or not the endotracheal tube cuff is properly positioned within the trachea. an endotracheal tube comprising a cuff; an optical component positioned at the endotracheal tube cuff and adapted to emit light into tissue surrounding the trachea into which the endotracheal tube is inserted to induce ultrasonic pressure waves within the tissue; an external acoustic detector adapted to receive the ultrasonic pressure waves induced in the tissue; and an analyzer in electrical communication with the acoustic detector, wherein the analyzer is adapted to produce an output based on the received ultrasonic pressure waves that indicates whether or not the endotracheal tube cuff is properly positioned within the trachea.
Measurement device for highly precise optical distance or position determination with a light source, at least one optical functional element in the form of a plane mirror and a detector arrangement, means for producing at least two partial beams, at least one of which impinges on the functional element three times before the partial beams propagate, with interfering superposition, in the direction of the detector arrangement via which at least one phase-coded measurement signal is producible from the superposed partial beams, characterized - in that the partial beam passes through two imaging elements (AE; 11.1 - 11.3; 11.n) between the impingement on the optical functional element (10; 110; 210; 310), wherein the imaging elements (AE; 11.1 - 11.3; 11.n) have imaging factors (m N) such that no spatial and directional shear of the interfering partial beams (M, R) results in the case of tilting of the optical functional element (10; 110; 210; 310) out of its target orientation and the following condition applies for the imaging factors (m n) of the N imaging elements (AE; 11.1 - 11.3; 11.n; 12.1 A - 12.N A, 12.1 B - 12.N B): N = 2: m 1 = − 2, m 2 = − 1⁄2 with: n:= 1...N N:= number of the imaging elements m n:= imaging factor of the n-th imaging element and - in that the imaging elements (AE; 11.1 - 11.3; 11.n) are embodied such that a displacement of the reflected partial beams with respect to the incident beams is brought about thereby. - in that the partial beam passes through two imaging elements (AE; 11.1 - 11.3; 11.n) between the impingement on the optical functional element (10; 110; 210; 310), wherein the imaging elements (AE; 11.1 - 11.3; 11.n) have imaging factors (m N) such that no spatial and directional shear of the interfering partial beams (M, R) results in the case of tilting of the optical functional element (10; 110; 210; 310) out of its target orientation and the following condition applies for the imaging factors (m n) of the N imaging elements (AE; 11.1 - 11.3; 11.n; 12.1 A - 12.N A, 12.1 B - 12.N B): N = 2: m 1 = − 2, m 2 = − 1⁄2 with: n:= 1...N N:= number of the imaging elements m n:= imaging factor of the n-th imaging element and n:= 1...N N:= number of the imaging elements m n:= imaging factor of the n-th imaging element - in that the imaging elements (AE; 11.1 - 11.3; 11.n) are embodied such that a displacement of the reflected partial beams with respect to the incident beams is brought about thereby.
A minimum-boiling, binary azeotrope of a linear alkane comprised of at least 9 carbon atoms and an ester alcohol, wherein the linear alkane is n-undecane and the ester alcohol is n-butyl-3-hydroxybutyrate.
A computer-implemented method for coregistering digital images of adjacent tissue slices (20,22) of a thickness of about two microns obtained by slicing a tissue sample (16,19) of about two millimeters in diameter obtained by needle biopsy, wherein the tissue slices include tissue structures at different z-altitudes at the same position in x and y dimensions of the tissue sample, the method comprising: defining a first path in a first image object of a first digital image of a first tissue slice; defining a second path in a second image object of a second digital image of a second tissue slice; defining first landmarks on the first path; defining second landmarks on the second path; associating individual first landmarks with individual second landmarks; coregistering a first pixel in the first image object with a second pixel in the second object using multiple first landmarks and multiple second landmarks; and displaying on a graphical user interface the first digital image in a first frame and the second digital image in a second frame, wherein the first pixel is positioned at a first reference location inside the first frame and the second pixel is positioned at a second reference location inside the second frame, and wherein the first reference location relative to the first frame corresponds to the second reference location relative to the second frame. defining a first path in a first image object of a first digital image of a first tissue slice; defining a second path in a second image object of a second digital image of a second tissue slice; defining first landmarks on the first path; defining second landmarks on the second path; associating individual first landmarks with individual second landmarks; coregistering a first pixel in the first image object with a second pixel in the second object using multiple first landmarks and multiple second landmarks; and displaying on a graphical user interface the first digital image in a first frame and the second digital image in a second frame, wherein the first pixel is positioned at a first reference location inside the first frame and the second pixel is positioned at a second reference location inside the second frame, and wherein the first reference location relative to the first frame corresponds to the second reference location relative to the second frame.
Integrated circuit arrangement, arranged on a shared chip or chip carrier, for safety-critical applications, particularly for use as a control and regulation unit in a motor vehicle braking system, comprising at least one microprocessor system module which has at least one processor core (21a, 21b) with which at least one read-only memory and at least one read/write memory (23a, 23b) are associated, at least one power module for actuating external loads, and at least two monitoring modules (4a, 4b) for monitoring at least portions and/or subsystems of the circuit arrangement, wherein the integrated circuit arrangement has at least one temperature sensor (51a, 51b, 52a, 52b) for sensing a chip temperature, wherein the at least one temperature sensor (51a, 51b, 52a, 52b) has at least one associated temperature monitoring unit (45a, 45b) which can use an evaluation circuit (451a, 451b) and/or an evaluation program to evaluate the temperature data for the at least one temperature sensor (51a, 51b, 52a, 52b) and can shut down at least subsystems of the circuit arrangement and/or put them into an emergency operating mode with restricted functionality, characterized by two redundant monitoring modules (4a, 4b) which are arranged on a common chip, wherein the temperature monitoring unit (45a, 45b) is part of the monitoring module (4a, 4b) and wherein the monitoring modules (4a, 4b) in each case have an independent power supply device (43a, 43b).
A liner (100, 200) for use with a respiratory mask having a face-engaging portion including nasal pillows, the finer (100, 200) comprising: a body (112, 212) constructed from an absorbent material, the body (112, 212) having a first pair of apertures (116, 220) and a second pair of apertures (120, 222) spaced from the first pair of apertures characterized in that, the first pair of apertures (116, 220) receiving the nasal pillows, and the second pair of apertures (120, 222) sized to lay on top of the nasal pillows and allow air to flow through the nasal pillows when the liner (100, 200) is in a folded configuration.
A process for the preparation of methanol, with a carbon oxides per-pass conversion equal to or higher than 65%, and selectivity to methanol formation equal to or higher than 75%, comprising reacting hydrogen with carbon dioxide, carbon monoxide or mixtures thereof; at a pressure equal to or higher than 200 bar; at a temperature comprised of from 230 to 320 °C; and at a space velocity comprised of from 5.000 to 200.000 h -1 in the presence of a mixture comprising M 1 and M 2, or alternatively, in the presence of a mixture comprising M 1, M 2 and at least a compound of formula A n O m, wherein: the molar ratio of hydrogen to carbon dioxide, the molar ratio of hydrogen to the mixture of carbon dioxide and carbon monoxide, or the molar ratio of hydrogen to carbon monoxide is equal to or higher than 3:1; M 1 is Cu, CuO, Cu 2 O or a mixture thereof; M 2 is Zn, ZnO or a mixture thereof; A is a cation selected from the group consisting of Mg 2+, Al 3+, Si 2+, Si 4+, Ti 3+, Ti 4+, V 2+, V 3+, V 4+, V 5+, Cr 2+, Cr 3+, Cr 6+, Zr 4+, Mn 2+, Mn 3+, Mn 4+, Mn 6+, La 3+, Ce 3+, Ce 4+, and Th 4+; and n is an integer selected from 1 to 3; m is an integer selected from 1 to 9; being the sum of positive charges of A n equal to the sum of negative charges of O m. the molar ratio of hydrogen to carbon dioxide, the molar ratio of hydrogen to the mixture of carbon dioxide and carbon monoxide, or the molar ratio of hydrogen to carbon monoxide is equal to or higher than 3:1; M 1 is Cu, CuO, Cu 2 O or a mixture thereof; M 2 is Zn, ZnO or a mixture thereof; A is a cation selected from the group consisting of Mg 2+, Al 3+, Si 2+, Si 4+, Ti 3+, Ti 4+, V 2+, V 3+, V 4+, V 5+, Cr 2+, Cr 3+, Cr 6+, Zr 4+, Mn 2+, Mn 3+, Mn 4+, Mn 6+, La 3+, Ce 3+, Ce 4+, and Th 4+; and n is an integer selected from 1 to 3; m is an integer selected from 1 to 9; being the sum of positive charges of A n equal to the sum of negative charges of O m.
A method for controlling transmission powers by a communication apparatus in a wireless communication system supporting a plurality of component carriers, the method comprising: when simultaneous transmission of a sounding reference symbol, SRS, on a first component carrier and a physical uplink shared channel, PUSCH, on a second component carrier is scheduled: calculating transmission powers of the SRS and the PUSCH; and checking whether a total transmission power of the SRS and the PUSCH exceeds a maximum transmission power of the communication apparatus; dropping the SRS transmission if the total transmission power of the SRS and the PUSCH exceeds a maximum transmission power of the communication apparatus; and transmitting the PUSCH on the second component carrier based on the calculated transmission power of the PUSCH. when simultaneous transmission of a sounding reference symbol, SRS, on a first component carrier and a physical uplink shared channel, PUSCH, on a second component carrier is scheduled: calculating transmission powers of the SRS and the PUSCH; and checking whether a total transmission power of the SRS and the PUSCH exceeds a maximum transmission power of the communication apparatus; calculating transmission powers of the SRS and the PUSCH; and checking whether a total transmission power of the SRS and the PUSCH exceeds a maximum transmission power of the communication apparatus; dropping the SRS transmission if the total transmission power of the SRS and the PUSCH exceeds a maximum transmission power of the communication apparatus; and transmitting the PUSCH on the second component carrier based on the calculated transmission power of the PUSCH.
A compound of formula I: wherein: A is selected from: (i) where R F1 is H or F; (ii) where R F1 is H or F; (iii) a N-containing C 6 heteroaryl group; and B is where X 1 is either CR F2 or N, where R F2 is H or F; X 2 is either CR 3 or N, where R 3 is selected from H, Me, Cl, F, or OMe; X 3 is CH; X 4 is either CR F3 or N, where R F3 is H or F; where only one or two of X 1, X 2 and X 4 may be N; and R 4 is selected from: i) unsubstituted phenyl; ii) phenyl substitued by a single substituent selected from halo, cyano, -OC 1-4 alkyl, -OC 2-4 alkenyl, -OC 2-4 alkynyl and -OC 3-4 cycloalkyl; iii) optionally substituted C 5-6 heteroaryl, which is selected from the group consisting of: (a) C 6 (N 1): (b) C 6 (N 2): (c) C 5 (O 1 or S 1): (d) C 5 (N 2): (e) C 5 (N 3): (f) C 5 (N 1 S 1) and (g) C 5 (N 2 O 1) iv) methyl, ethyl, iso-propyl and CF 3; and v) with the proviso that the compound is not either of P1 or P3: P1 P3 A is selected from: (i) where R F1 is H or F; (ii) where R F1 is H or F; (iii) a N-containing C 6 heteroaryl group; and (i) where R F1 is H or F; (ii) where R F1 is H or F; (iii) a N-containing C 6 heteroaryl group; and B is where X 1 is either CR F2 or N, where R F2 is H or F; X 2 is either CR 3 or N, where R 3 is selected from H, Me, Cl, F, or OMe; X 3 is CH; X 4 is either CR F3 or N, where R F3 is H or F; where only one or two of X 1, X 2 and X 4 may be N; and R 4 is selected from: i) unsubstituted phenyl; ii) phenyl substitued by a single substituent selected from halo, cyano, -OC 1-4 alkyl, -OC 2-4 alkenyl, -OC 2-4 alkynyl and -OC 3-4 cycloalkyl; iii) optionally substituted C 5-6 heteroaryl, which is selected from the group consisting of: (a) C 6 (N 1): (b) C 6 (N 2): (c) C 5 (O 1 or S 1): (d) C 5 (N 2): (e) C 5 (N 3): (f) C 5 (N 1 S 1) and (g) C 5 (N 2 O 1) iv) methyl, ethyl, iso-propyl and CF 3; and v) i) unsubstituted phenyl; ii) phenyl substitued by a single substituent selected from halo, cyano, -OC 1-4 alkyl, -OC 2-4 alkenyl, -OC 2-4 alkynyl and -OC 3-4 cycloalkyl; iii) optionally substituted C 5-6 heteroaryl, which is selected from the group consisting of: (a) C 6 (N 1): (b) C 6 (N 2): (c) C 5 (O 1 or S 1): (d) C 5 (N 2): (e) C 5 (N 3): (f) C 5 (N 1 S 1) and (g) C 5 (N 2 O 1) (a) C 6 (N 1): (b) C 6 (N 2): (c) C 5 (O 1 or S 1): (d) C 5 (N 2): (e) C 5 (N 3): (f) C 5 (N 1 S 1) and (g) C 5 (N 2 O 1) iv) methyl, ethyl, iso-propyl and CF 3; and v) with the proviso that the compound is not either of P1 or P3: P1 P3
Sealing tape which has at least one main body from a soft foam which is capable of restoring after compression, wherein the sealing tape has an upper side, a lower side, and a first and a second side flank which connect the upper side and the lower side, wherein the side flanks extend so as to be substantially perpendicular to a functional direction of the sealing tape, wherein an adhesive layer for adhering to a component, in particular a frame profile of a window or a door, is disposed in the region of the lower side, and wherein the sealing tape has a continuous barrier structure for reducing the water vapour diffusion permeability and/or the air permeability in the functional direction, said continuous barrier structure on the upper side extending from at least one of the first and the second side flank to a region between the first and the second side flank, there runs from the upper side in the direction of the lower side of the sealing tape, and subsequently extends along a lower side of the at least one main body, from the region between the first and the second side flank to at least one of the first and the second side flank, wherein the barrier structure is partially formed by a barrier layer disposed on the upper side of the at least one main body, characterized in that the barrier layer disposed on the upper side of the at least one main body comprises substantially closed-cell soft foam or is formed from the latter. wherein the sealing tape has an upper side, a lower side, and a first and a second side flank which connect the upper side and the lower side, wherein the side flanks extend so as to be substantially perpendicular to a functional direction of the sealing tape, wherein an adhesive layer for adhering to a component, in particular a frame profile of a window or a door, is disposed in the region of the lower side, and wherein the sealing tape has a continuous barrier structure for reducing the water vapour diffusion permeability and/or the air permeability in the functional direction, said continuous barrier structure on the upper side extending from at least one of the first and the second side flank to a region between the first and the second side flank, there runs from the upper side in the direction of the lower side of the sealing tape, and subsequently extends along a lower side of the at least one main body, from the region between the first and the second side flank to at least one of the first and the second side flank, wherein the barrier structure is partially formed by a barrier layer disposed on the upper side of the at least one main body, characterized in that the barrier layer disposed on the upper side of the at least one main body comprises substantially closed-cell soft foam or is formed from the latter.
A method of producing a free-flowing plant mix modifier for mixing with an asphalt to form a hot mix asphalt for paving, the method comprising: grinding an elastomeric polymer; pre-swelling the ground elastomeric polymer via the addition of an oil; adding ground plastomer and wax to the pre-swelled ground elastomeric polymer; combining the elastomeric polymer, oil, plastomer, and wax with a powder filler modifier; and forming the elastomeric polymer, oil, plastomer, wax, and powder filler modifier into a powder, pellet, granule, chip, or flake form, wherein the plant mix modifier is absent of asphalt. grinding an elastomeric polymer; pre-swelling the ground elastomeric polymer via the addition of an oil; adding ground plastomer and wax to the pre-swelled ground elastomeric polymer; combining the elastomeric polymer, oil, plastomer, and wax with a powder filler modifier; and forming the elastomeric polymer, oil, plastomer, wax, and powder filler modifier into a powder, pellet, granule, chip, or flake form, wherein the plant mix modifier is absent of asphalt.