mhurhangee/patent-ind-claim-en huggingface dataset:
A cold-rolled steel sheet, consisting of: in mass%, C: 0.0005 to 0.0045%; Mn: 0.80 to 2.50%; Ti: 0.002 to 0.150%; B: 0.0005 to 0.01%; Si: 0.01 to 1.0%; Al: 0.010 to 0.10%; Nb: 0 to 0.040%; Mo: 0 to 0.500%; Cr: 0 to 3.000%; W: 0 to 3.000%; Cu: 0 to 3.000%; Ni: 0 to 3.000%; Ca: 0 to 0.1000%; Rem: 0 to 0.1000%; V: 0 to 0.100%; P: 0.15% or less; S: 0.010% or less; N: 0.006% or less, in which Expression below is satisfied, and a balance being composed of iron and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a random intensity ratio (A) of the <110> orientation is 3 or less, a random intensity ratio (B) of the <9 16 5> orientation and a random intensity ratio (C) of the <112> orientation are both 7 or more, and {(B)/(A) ≧ 5} and {(B) > (C)} are satisfied. 0.07 ≦ Mn mass % − Mn ∗ mass % / B ppm − B ∗ ppm ≦ 0.2 Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000 In the case of Mn* < 0 and B* < 0, B* is set to 0. in mass%, C: 0.0005 to 0.0045%; Mn: 0.80 to 2.50%; Ti: 0.002 to 0.150%; B: 0.0005 to 0.01%; Si: 0.01 to 1.0%; Al: 0.010 to 0.10%; Nb: 0 to 0.040%; Mo: 0 to 0.500%; Cr: 0 to 3.000%; W: 0 to 3.000%; Cu: 0 to 3.000%; Ni: 0 to 3.000%; Ca: 0 to 0.1000%; Rem: 0 to 0.1000%; V: 0 to 0.100%; P: 0.15% or less; S: 0.010% or less; N: 0.006% or less, in which Expression below is satisfied, and a balance being composed of iron and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a random intensity ratio (A) of the <110> orientation is 3 or less, a random intensity ratio (B) of the <9 16 5> orientation and a random intensity ratio (C) of the <112> orientation are both 7 or more, and {(B)/(A) ≧ 5} and {(B) > (C)} are satisfied. 0.07 ≦ Mn mass % − Mn ∗ mass % / B ppm − B ∗ ppm ≦ 0.2 Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000 In the case of Mn* < 0 and B* < 0, B* is set to 0. Expression above is set as follows. Mn ∗ mass % = 55 ⁢ S mass % / 32 B ∗ ppm = 10 N mass % − 14 Ti mass % − 14 Ti mass % / 48 / 14 × 10000
Cellulase comprising the catalytic domain motif [STA]-T-R-Y-[FYW]-D-x -[CA] and a carbohydrate binding domain with a sequence identity of at least 80% to SEQ ID NO: 3 or a carbohydrate binding domain comprising the tag motif V-[PSC]-[DQEN]-S-G-G-P-G-P-G-P-G-P-G-P and wherein the cellulase has a sequence identity of at least 99% to SEQ ID NO: 11, SEQ ID NO: 13, SEQ ID NO: 15 or SEQ ID NO: 17.
A method of managing the position of the focal plane (4.10, 4.11) in a stereoscopic scene represented by a left-hand image (4.7) and a right-hand image (4.8), characterized in that it comprises: - a step of determining at least one zone in the two images; - a step of calculating the dominant translation value, that is for which the correlation is the best, for each of the zones; - a step of determining a relative translation value between the left-hand and right-hand images based on the dominant translation values of each of the zones so that more than 50% of the surface of the images appear to be located behind the focal plane, and - a step of relative translation of the two left-hand and right-hand images by said previously determined value. - a step of determining at least one zone in the two images; - a step of calculating the dominant translation value, that is for which the correlation is the best, for each of the zones; - a step of determining a relative translation value between the left-hand and right-hand images based on the dominant translation values of each of the zones so that more than 50% of the surface of the images appear to be located behind the focal plane, and - a step of relative translation of the two left-hand and right-hand images by said previously determined value.
A method for concentrating, stabilizing and converting waste and/or products having an organic/inorganic matrix and a degree of dryness of up to 50%, comprising: (i) A step of dehydration, stabilization and conversion of the waste and/or products having an organic/inorganic matrix, said step being realized in a reaction chamber under high vacuum conditions, where said waste and/or said products having an organic matrix are mixed and shredded at the same time in a mixer comprising motorized blades positioned on the cladding of the reaction chamber, heated uniformly to a temperature of 60-70°C and subjected to microwave treatment utilizing microwaves of 2-4 kW, thereby reducing the volume of the organic/inorganic matrix waste and/or product by 50-90% compared to the original volume, said step lasting for a maximum of 2-3 hours; and (ii) A step of condensation of the vapour that is released during step (i). (i) A step of dehydration, stabilization and conversion of the waste and/or products having an organic/inorganic matrix, said step being realized in a reaction chamber under high vacuum conditions, where said waste and/or said products having an organic matrix are mixed and shredded at the same time in a mixer comprising motorized blades positioned on the cladding of the reaction chamber, heated uniformly to a temperature of 60-70°C and subjected to microwave treatment utilizing microwaves of 2-4 kW, thereby reducing the volume of the organic/inorganic matrix waste and/or product by 50-90% compared to the original volume, said step lasting for a maximum of 2-3 hours; and (ii) A step of condensation of the vapour that is released during step (i).
Equipment comprising: · a speaker enclosure comprising a chamber , a loudspeaker , and a vent ; • an electronic component ; and • a heat sink device arranged to dissipate the heat generated by the electronic component and comprising both the vent and also a thermally conductive element that extends from an end of the vent and that is thermally coupled with the electronic component, the vent comprising fins projecting from an inside surface of the vent and extending parallel to a longitudinal axis (X) of the vent, the equipment being characterized in that it comprises a cable and a cable passage formed on or in a fin or between two adjacent fins, the cable passage extending along the length of said fin(s). · a speaker enclosure comprising a chamber , a loudspeaker , and a vent ; • an electronic component ; and • a heat sink device arranged to dissipate the heat generated by the electronic component and comprising both the vent and also a thermally conductive element that extends from an end of the vent and that is thermally coupled with the electronic component, the vent comprising fins projecting from an inside surface of the vent and extending parallel to a longitudinal axis (X) of the vent, the equipment being characterized in that it comprises a cable and a cable passage formed on or in a fin or between two adjacent fins, the cable passage extending along the length of said fin(s).
A timepiece comprising: a base ; a case holding a time display; and a frame to which the case is pivotably connected for rotation about a first axis (Y), the frame pivotably connected to the base for rotation about a second axis (X) between an extended position and a retracted position, the frame forming a two-axis gimbal supporting the case ; a gimbal coupling mechanism configured to operably couple the frame and the case whereby rotation of the frame from the retracted position to the extended position then back to the retracted position rotates the case about the first axis (Y) to facilitate flipping of the case so as to selectively hide or show the time display, characterised in that the gimbal coupling mechanism further comprises: - a gimbal gear pair comprising a first gear mounted to the case and a second gear mounted to the base or the frame : and - a one-way clutch having a rotary output member fixed to the first gear or the second gear for unidirectional rotation. a base ; a case holding a time display; and a frame to which the case is pivotably connected for rotation about a first axis (Y), the frame pivotably connected to the base for rotation about a second axis (X) between an extended position and a retracted position, the frame forming a two-axis gimbal supporting the case ; a gimbal coupling mechanism configured to operably couple the frame and the case whereby rotation of the frame from the retracted position to the extended position then back to the retracted position rotates the case about the first axis (Y) to facilitate flipping of the case so as to selectively hide or show the time display, characterised in that the gimbal coupling mechanism further comprises: - a gimbal gear pair comprising a first gear mounted to the case and a second gear mounted to the base or the frame : and - a one-way clutch having a rotary output member fixed to the first gear or the second gear for unidirectional rotation. - a gimbal gear pair comprising a first gear mounted to the case and a second gear mounted to the base or the frame : and - a one-way clutch having a rotary output member fixed to the first gear or the second gear for unidirectional rotation.
A device for forming shaft part by two-roller flexible skew rolling, wherein the device comprises a first skew roller , a second skew roller , a guiding plate , a first guiding cylinder , a second guiding cylinder and an axial pushing device ; the first skew roller and the second skew roller both can do roller rotation motion rotating around the roller axis, straight-line motion in the radial direction of a blank and tilt angle adjustment motion adjusting the included angles between the axes of the skew rollers and the axis of the blank ; radial center lines of the first skew roller and the second skew roller coincide with each other; the guiding plate is fixedly arranged between the first skew roller and the second skew roller and is used for limiting the radial movement of the blank ; the first guiding cylinder and the second guiding cylinder are respectively and fixedly arranged on the two sides of the two skew rollers and are used for controlling swing of the blank ; the axial pushing device is fixedly arranged on the feeding side of the two skew rollers and is used for applying axial pushing force to the blank ; and the blank is subjected to skew rolling in a space defined by the first skew roller , the second skew roller and the guiding plate to form a shaft part . the guiding plate is fixedly arranged between the first skew roller and the second skew roller and is used for limiting the radial movement of the blank ; the first guiding cylinder and the second guiding cylinder are respectively and fixedly arranged on the two sides of the two skew rollers and are used for controlling swing of the blank ; the axial pushing device is fixedly arranged on the feeding side of the two skew rollers and is used for applying axial pushing force to the blank ; and the blank is subjected to skew rolling in a space defined by the first skew roller , the second skew roller and the guiding plate to form a shaft part .
An antenna control device to control a plurality of antennas (11 1 to 11 5 ) used for communicating with a mobile station that moves along a predetermined path in a radio communication system that includes a plurality of linear cells, each of which is formed by the antennas (11 1 to 11 5 ) and in each of which each of the antennas (11 1 to 11 5 ) sets a directionality in a same direction as a path of the mobile station and transmits an identical signal at an identical frequency, and that has two frequencies recurrently allocated in such a manner that adjacent linear cells use different frequencies for transmission, wherein the antenna control device is configured to calculate, for each of the plurality of antennas (11 1 to 11 5 ), a distance from a position of each antenna to a boundary to a linear cell adjacent thereto, and determine a power of a radio signal to be transmitted from each antenna to become equal to or lower than a specific value at the boundary to the adjacent linear cell on a basis of the calculated distance, and the antenna control device is configured to adjust, in each of the linear cells, power distribution to each of the antennas (11 1 to 11 5 ) that form a first linear cell so as to be gradually decreased with distance in a direction of antenna directionality of each of the antennas (11 1 to 11 5 ) to a position of the boundary to the adjacent linear cell, which is a second linear cell, so that the minimum value of a signal-to-interference power ratio of a third linear cell that uses an identical frequency to the first linear cell is improved compared to a case where the same total transmission power transmitted from the plurality of the antennas of the antenna control device is uniformly distributed to each of the antennas. the antenna control device is configured to calculate, for each of the plurality of antennas (11 1 to 11 5 ), a distance from a position of each antenna to a boundary to a linear cell adjacent thereto, and determine a power of a radio signal to be transmitted from each antenna to become equal to or lower than a specific value at the boundary to the adjacent linear cell on a basis of the calculated distance, and the antenna control device is configured to adjust, in each of the linear cells, power distribution to each of the antennas (11 1 to 11 5 ) that form a first linear cell so as to be gradually decreased with distance in a direction of antenna directionality of each of the antennas (11 1 to 11 5 ) to a position of the boundary to the adjacent linear cell, which is a second linear cell, so that the minimum value of a signal-to-interference power ratio of a third linear cell that uses an identical frequency to the first linear cell is improved compared to a case where the same total transmission power transmitted from the plurality of the antennas of the antenna control device is uniformly distributed to each of the antennas.
A wheel hub , comprising - an outer collar region , as seen in the radial direction, and - an inner core region , as seen in the radial direction, wherein the inner core region has a greater extent in the axial direction than the outer collar region , and wherein, in the inner core region , the wheel hub has a substantially axially running primary recess for the connection of a brake disk , characterized in that a ratio between a radial distance (A1) between an axis of rotation (A) and the primary recess and a diameter (D) of the wheel hub , as measured in the radial direction, assumes a value of between 0.6 and 0.3. - an outer collar region , as seen in the radial direction, and - an inner core region , as seen in the radial direction,
A method for implementing a switched Controller Area Network, CAN, the method comprising the steps of: receiving , at a bridge, a CAN message; identifying a first plurality of nodes to which the CAN message is addressed by comparing a virtual CAN bus identifier of the CAN message to entries of a virtual CAN bus lookup table; identifying a second plurality of nodes to which the CAN message is addressed by comparing a message identifier, ID, of the CAN message to entries of a message ID lookup table; performing a logical AND operation between a first set of data fields corresponding to the first plurality of nodes and a second set of data fields corresponding to the second plurality of nodes to identify a data field that belongs to both the first set and the second set; and transmitting the CAN message to a node that corresponds to the identified data field from the logical AND operation. receiving , at a bridge, a CAN message; identifying a first plurality of nodes to which the CAN message is addressed by comparing a virtual CAN bus identifier of the CAN message to entries of a virtual CAN bus lookup table; identifying a second plurality of nodes to which the CAN message is addressed by comparing a message identifier, ID, of the CAN message to entries of a message ID lookup table; performing a logical AND operation between a first set of data fields corresponding to the first plurality of nodes and a second set of data fields corresponding to the second plurality of nodes to identify a data field that belongs to both the first set and the second set; and transmitting the CAN message to a node that corresponds to the identified data field from the logical AND operation.
A replication competent oncolytic virus comprising a heterologous nucleic acid inserted into a nonessential region of the adenovirus genome, said nucleic acid comprising a sequence encoding an OX40 (CD134) agonist operatively linked to a transcriptional control element, wherein the OX40 (CD134) agonist is OX40 ligand (OX40L) (gp34), preferably wherein the nucleic acid encoding OX40L encodes a polypeptide having the amino acid sequence set forth in GenBank Accession Number NP_003317.1 or a sequence at least 95% identical thereto and more preferably wherein the nucleic acid encoding OX40L has the nucleic acid sequence of NCBI Reference Sequence: NM_003326.3 or a sequence at least 95% identical thereto, or is an antibody against OX40.
Use of a fat or oil as hard butter, the fat or oil comprising 55 mass% or more of diacylglycerols satisfying the following and : 70 to 100 mass% of a disaturated diacylglycerol (SS) in the diacylglycerols; and 55 mass% or less of a total content of saturated fatty acids having 16 and 18 carbon atoms in constituent fatty acids of the diacylglycerols. 70 to 100 mass% of a disaturated diacylglycerol (SS) in the diacylglycerols; and 55 mass% or less of a total content of saturated fatty acids having 16 and 18 carbon atoms in constituent fatty acids of the diacylglycerols.
A system of soft decoupling a virtual reality input, the system comprising: one or more sensors configured to generate an input, the input comprising at least acceleration data and orientation data; and a server, configured to receive the input from the one or more sensors, and in response to receiving the input, the server is configured to: determine a motion based on the acceleration data of the input; determine a heading from the orientation data of the input; calculate a heading delta based on an angle of the heading and a ratio; combine the heading delta and the heading to determine a soft-decoupled heading; calculate a velocity vector from a velocity received from the input and the soft-decoupled heading; and translate the velocity vector into coordinates of the virtual reality input. one or more sensors configured to generate an input, the input comprising at least acceleration data and orientation data; and a server, configured to receive the input from the one or more sensors, and in response to receiving the input, the server is configured to: determine a motion based on the acceleration data of the input; determine a heading from the orientation data of the input; calculate a heading delta based on an angle of the heading and a ratio; combine the heading delta and the heading to determine a soft-decoupled heading; calculate a velocity vector from a velocity received from the input and the soft-decoupled heading; and translate the velocity vector into coordinates of the virtual reality input. determine a motion based on the acceleration data of the input; determine a heading from the orientation data of the input; calculate a heading delta based on an angle of the heading and a ratio; combine the heading delta and the heading to determine a soft-decoupled heading; calculate a velocity vector from a velocity received from the input and the soft-decoupled heading; and translate the velocity vector into coordinates of the virtual reality input.
An imprint apparatus in which alignment between a mold and a substrate is effected with respect to an in-plane direction of the substrate and a pattern formed on the mold is transferred onto a pattern forming layer provided on the substrate , the imprint apparatus comprising: a mold holding portion for holding the mold ; a substrate holding portion for holding the substrate ; and a control portion for controlling such that the mold holding portion and the substrate holding portion are brought near to each other while effecting the alignment between the mold and the substrate, to bring the mold and the pattern forming layer into contact with each other and detecting states of the mold and the substrate; characterized in that the control portion is for changing a driving profile for the alignment or a control parameter for the alignment, and for detecting states between the mold and the substrate by detecting at least one of a load exerted on the mold or the substrate, a gap between the mold and the substrate, a torque of the mold holding portion or the substrate holding portion, and an amount of reflected light from the mold or the substrate, the driving profile is a profile for moving the substrate holding portion for holding the substrate to a target position, the driving profile includes at least one of an acceleration, a speed, a driving voltage, and a driving current of the substrate holding portion, and the changed control parameter includes at least one of a PID parameter, a feed forward parameter and a filter parameter. a mold holding portion for holding the mold ; a substrate holding portion for holding the substrate ; and a control portion for controlling such that the mold holding portion and the substrate holding portion are brought near to each other while effecting the alignment between the mold and the substrate, to bring the mold and the pattern forming layer into contact with each other and detecting states of the mold and the substrate; characterized in that the control portion is for changing a driving profile for the alignment or a control parameter for the alignment, and for detecting states between the mold and the substrate by detecting at least one of a load exerted on the mold or the substrate, a gap between the mold and the substrate, a torque of the mold holding portion or the substrate holding portion, and an amount of reflected light from the mold or the substrate, the driving profile is a profile for moving the substrate holding portion for holding the substrate to a target position, the driving profile includes at least one of an acceleration, a speed, a driving voltage, and a driving current of the substrate holding portion, and the changed control parameter includes at least one of a PID parameter, a feed forward parameter and a filter parameter.
A method of protecting fuel hardware with a thermal management system (30; 70) for a gas turbine engine in an aircraft, comprising: determining a current altitude of the aircraft; and controlling a temperature of fuel for the gas turbine engine based at least in part on the current altitude; and elevating the fuel temperature of the gas turbine engine when the current altitude is above a threshold altitude. determining a current altitude of the aircraft; and controlling a temperature of fuel for the gas turbine engine based at least in part on the current altitude; and elevating the fuel temperature of the gas turbine engine when the current altitude is above a threshold altitude.