mhurhangee/ep-ind-claims huggingface dataset:
Device for the contactless three-dimensional inspection of a circular, mechanical component with toothing having a main axis of rotation, the teeth of said toothing having a defined thickness and a defined depth, each tooth having a first face and a second face (F A, F B), said device comprising: - means for scanning said component comprising: * at least one first pair of laser measurement modules (12A, 12B) and means for the rotational driving, around the main axis of said component, of said component relative to the laser measurement modules, or vice versa; * at least one laser measurement module configured to measure the main axis of said component; - means for building a virtual three-dimensional representation of said component using data coming from said scanning means; - means of dimensional inspection using said rebuilt virtual three-dimensional representation; - each pair of laser measurement modules comprising a first module oriented towards a first face (F A) of a tooth and a second module oriented towards a second face (F B) of a tooth; said laser measurement modules being oriented relative to said component so that during a rotation of said modules or of said component around the main axis, said scanning means scan said first and second faces of each tooth throughout their thickness and depth. - means for scanning said component comprising: * at least one first pair of laser measurement modules (12A, 12B) and means for the rotational driving, around the main axis of said component, of said component relative to the laser measurement modules, or vice versa; * at least one laser measurement module configured to measure the main axis of said component; * at least one first pair of laser measurement modules (12A, 12B) and means for the rotational driving, around the main axis of said component, of said component relative to the laser measurement modules, or vice versa; * at least one laser measurement module configured to measure the main axis of said component; - means for building a virtual three-dimensional representation of said component using data coming from said scanning means; - means of dimensional inspection using said rebuilt virtual three-dimensional representation; - each pair of laser measurement modules comprising a first module oriented towards a first face (F A) of a tooth and a second module oriented towards a second face (F B) of a tooth; said laser measurement modules being oriented relative to said component so that during a rotation of said modules or of said component around the main axis, said scanning means scan said first and second faces of each tooth throughout their thickness and depth.
A gas sensor element (100, 100B, 100C) comprising: a detection portion (150, 150B, 150C) including a solid electrolyte body (105, 105C, 109, 109C), and a pair of electrodes (104, 106, 108, 110, 104C, 106C, 108C, 110C) disposed on the solid electrolyte body; and a porous protection layer (20, 20C) covering the detection portion, wherein the porous protection layer comprises an inner porous layer (21, 21B, 21C) provided over the detection portion, and an outer porous layer (23, 23B, 23C) formed externally of the inner porous layer; the inner porous layer is higher in porosity than the outer porous layer; the inner porous layer contains, as main components, ceramic particles, and ceramic fiber filaments which are mainly formed of a ceramic material and which have a mean fiber length of 70 to 200 μm; and the amount of the ceramic fiber filaments is 25 to 75 vol% on the basis of the total amount of the ceramic particles and the ceramic fiber filaments, the total amount being taken as 100 vol%. a detection portion (150, 150B, 150C) including a solid electrolyte body (105, 105C, 109, 109C), and a pair of electrodes (104, 106, 108, 110, 104C, 106C, 108C, 110C) disposed on the solid electrolyte body; and a porous protection layer (20, 20C) covering the detection portion, wherein the porous protection layer comprises an inner porous layer (21, 21B, 21C) provided over the detection portion, and an outer porous layer (23, 23B, 23C) formed externally of the inner porous layer; the inner porous layer is higher in porosity than the outer porous layer; the inner porous layer contains, as main components, ceramic particles, and ceramic fiber filaments which are mainly formed of a ceramic material and which have a mean fiber length of 70 to 200 μm; and the amount of the ceramic fiber filaments is 25 to 75 vol% on the basis of the total amount of the ceramic particles and the ceramic fiber filaments, the total amount being taken as 100 vol%.
LED assembly, comprising: a carrier (T, T'), at least one LED chip (2, 102), which is arranged on the carrier (T, T'), the LED chip (2, 102) being connected to at least one bonding wire (3, 103), a transparent or diffuser layer (8, 108) applied over the LED chip (2, 102), a frame (4, 4'', 4''', 104) which surrounds the at least one LED chip (2, 102), wherein the frame (4, 4'', 4''', 104) comprises at least one web (5, 5'', 5''', 105) so as to divide the frame (4, 4'', 4''', 104) into at least a first frame region (6, 106), which comprises the at least one LED chip (2, 102), and at least a second frame region (7, 107), and the second frame region (7, 107) forming a protective region for a portion of the at least one bonding wire (3, 103), wherein the bonding wire (3, 103) is guided over the web (5, 5'', 5''', 105) such that it does not extend above the frame (4, 4'', 4''', 104) and is protected by means of the corresponding side walls of the frame, wherein the bonding wire (3, 103) extends in a curved manner over the web (5, 105) from the first frame region (6, 106 into the second frame region (7, 107), characterised in that the first frame region (6, 106) laterally delimits said/layer (8, 108), and the web (5, 5'', 5''', 105) comprises at least one recess (9, 9'', 9''', 109), in which the wire portion of the bonding wire (3, 103) curved over the web (5, 5'', 5''', 105) is arranged in a protected manner. a carrier (T, T'), at least one LED chip (2, 102), which is arranged on the carrier (T, T'), the LED chip (2, 102) being connected to at least one bonding wire (3, 103), a transparent or diffuser layer (8, 108) applied over the LED chip (2, 102), a frame (4, 4'', 4''', 104) which surrounds the at least one LED chip (2, 102), wherein the frame (4, 4'', 4''', 104) comprises at least one web (5, 5'', 5''', 105) so as to divide the frame (4, 4'', 4''', 104) into at least a first frame region (6, 106), which comprises the at least one LED chip (2, 102), and at least a second frame region (7, 107), and the second frame region (7, 107) forming a protective region for a portion of the at least one bonding wire (3, 103), wherein the bonding wire (3, 103) is guided over the web (5, 5'', 5''', 105) such that it does not extend above the frame (4, 4'', 4''', 104) and is protected by means of the corresponding side walls of the frame, wherein the bonding wire (3, 103) extends in a curved manner over the web (5, 105) from the first frame region (6, 106 into the second frame region (7, 107), characterised in that the first frame region (6, 106) laterally delimits said/layer (8, 108), and the web (5, 5'', 5''', 105) comprises at least one recess (9, 9'', 9''', 109), in which the wire portion of the bonding wire (3, 103) curved over the web (5, 5'', 5''', 105) is arranged in a protected manner.
A catheter that defines a longitudinal axis, the catheter comprising: an inner member having an outer wall, wherein at least a portion of the inner member has a first stiffness; a retaining member defining a pocket configured to receive a connecting member (44A, 44B) of an expandable medical device, the retaining member having a second stiffness that is different from the first stiffness; and a support member extending distally from the retaining member, wherein the support member is configured to be received radially within the expandable medical device when the connecting member (44A, 44B) is received within the retaining member, and wherein the support member is configured to provide a gradual transition between the first stiffness of the inner member and the second stiffness of the retaining member, wherein the retaining member is formed in the outer wall of the inner member, and wherein the portion of the inner member having the first stiffness is distal to or proximal to the retaining member. an inner member having an outer wall, wherein at least a portion of the inner member has a first stiffness; a retaining member defining a pocket configured to receive a connecting member (44A, 44B) of an expandable medical device, the retaining member having a second stiffness that is different from the first stiffness; and a support member extending distally from the retaining member, wherein the support member is configured to be received radially within the expandable medical device when the connecting member (44A, 44B) is received within the retaining member, and wherein the support member is configured to provide a gradual transition between the first stiffness of the inner member and the second stiffness of the retaining member, wherein the retaining member is formed in the outer wall of the inner member, and wherein the portion of the inner member having the first stiffness is distal to or proximal to the retaining member.
A method for controlling the torque of a drive device for rotating wheels of an aircraft comprising actuators for selectively driving rotating wheels of the aircraft to ensure its movement on the ground, comprising the step of regulating a torque generated by the drive device according to a torque setpoint issued by the pilot, characterized in that the method comprises the step of generating, as long as the torque setpoint is not sufficient to guarantee a stable movement speed of the aircraft, a replacement torque setpoint to allow the aircraft to move at a stable speed, and substituting the replacement torque setpoint for the torque setpoint generated by the pilot.
A computer-implemented method comprising: obtaining first data indicative of electric power supplied to a cooling apparatus during a cooling operation on a biological sample, the cooling operation having a given cooling condition; obtaining second data indicative of electric power supplied to the cooling apparatus associated with a reference cooling condition; determining, based on the first data and the second data, whether the given cooling condition has a predetermined relationship with the reference cooling condition; and in response to a determination, by the determining, that the given cooling condition has the predetermined relationship with the reference cooling condition, outputting a control signal; and wherein the control signal is to cause interruption of the cooling operation. obtaining first data indicative of electric power supplied to a cooling apparatus during a cooling operation on a biological sample, the cooling operation having a given cooling condition; obtaining second data indicative of electric power supplied to the cooling apparatus associated with a reference cooling condition; determining, based on the first data and the second data, whether the given cooling condition has a predetermined relationship with the reference cooling condition; and in response to a determination, by the determining, that the given cooling condition has the predetermined relationship with the reference cooling condition, outputting a control signal; and wherein the control signal is to cause interruption of the cooling operation.
A method of making a prosthetic valve that can take a first form wherein the valve is open and a second form wherein the valve is closed, the valve comprising a leaflet assembly having at least one leaflet attached to a supporting element, the leaflet having a free margin that can move between a first position wherein the valve takes the first form and a second position wherein the valve takes the second form, the method comprising: o providing a textile structure; o forming the leaflet assembly from the textile structure, such that a selvedge of the textile structure forms the free margin of the leaflet; wherein the textile structure is made by weaving warp and fill threads into a two-layer woven fabric having stacked and interconnected layers, the two layers having selvedges at one longitudinal edge; and wherein forming the leaflet assembly comprises connecting two lateral edges of a single piece of the fabric to make a substantially tubular structure wherein the inner layer forms the leaflet and the outer layer forms the supporting element. o providing a textile structure; o forming the leaflet assembly from the textile structure, such that a selvedge of the textile structure forms the free margin of the leaflet;
Hob device with a hotplate and a sensor unit, which is provided to detect at least one control gesture of an operator, wherein a control gesture is understood to mean a movement of a body part of the operator, which the operator consciously carries out to input operating parameters and with an at least largely predefined movement sequence, and with a control unit, which is provided to execute and/or introduce at least one action on the basis of the at least one control gesture detected by the sensor unit, wherein the sensor unit has at least two sensors (18a, 24a), which together are provided to detect the at least one control gesture stereoscopically, and are embodied as visual sensors (18a, 24a), characterised in that the visual sensors (18a, 24a) are provided to detect infrared radiation from a wavelength range of 850 nm to 1000 nm, and that the sensor unit is arranged on a side of the hotplate facing away from an operator.
Method of rectifying an image representing the surface of a tyre, comprising the following steps: • one detects, in the image, a circumferential marking present on the tyre, • one determines, on the basis of this marking and for each line of the image, a position reference on the tyre, • one determines, for each line of the image, the difference between the reference position on the current line and the minimum value of the reference positions for all of the lines of the image, and • the pixels of each of the lines are radially offset by the value of this difference. • one detects, in the image, a circumferential marking present on the tyre, • one determines, on the basis of this marking and for each line of the image, a position reference on the tyre, • one determines, for each line of the image, the difference between the reference position on the current line and the minimum value of the reference positions for all of the lines of the image, and • the pixels of each of the lines are radially offset by the value of this difference.
An aft frame assembly for a gas turbine transition piece, the aft frame assembly comprising: a main body comprising an upstream facing surface, a downstream facing surface, a radially outer facing surface and a radially inner facing surface; a plurality of feed hole inlets located on the upstream facing surface, each of the feed hole inlets coupled to one of a plurality of cooling channels passing through the main body towards the radially inner facing surface; a plurality of microchannels formed near the radially inner facing surface and extending at least partially along the downstream facing surface, the cooling channels connected to and terminating in the microchannels; and a pre-sintered preform located on the radially inner facing surface of the main body characterized in that the microchannels extend along the radially inner facing surface, curve around the corner of the radially inner facing surface and the downstream facing surface, and continue along the downstream facing surface, the microchannels exiting on the radially outer facing surface and/or on the downstream facing surface. a main body comprising an upstream facing surface, a downstream facing surface, a radially outer facing surface and a radially inner facing surface; a plurality of feed hole inlets located on the upstream facing surface, each of the feed hole inlets coupled to one of a plurality of cooling channels passing through the main body towards the radially inner facing surface; a plurality of microchannels formed near the radially inner facing surface and extending at least partially along the downstream facing surface, the cooling channels connected to and terminating in the microchannels; and a pre-sintered preform located on the radially inner facing surface of the main body characterized in that the microchannels extend along the radially inner facing surface, curve around the corner of the radially inner facing surface and the downstream facing surface, and continue along the downstream facing surface, the microchannels exiting on the radially outer facing surface and/or on the downstream facing surface.
A steel material comprising: a composition consisting of, by mass, C: 0.05% to 0.60%, Si: 0.01% to 2.0%, Mn: 0.3% to 3.0%, P: 0.001% to 0.040%, S: 0.0001% to 0.010%, N: 0.0001% to 0.0060%, Al: 0.01% to 1.5%, one or more elements selected from Ti: 0.01% to 0.20%, Nb: 0.01% to 0.20%, and V: 0.01% or more and less than 0.05%, and one or more elements selected from B: 0.0001% to 0.01%, Mo: 0.005% to 2.0%, and Cr: 0.005% to 3.0%, and optionally one or more elements selected from Ni: 0.005% to 0.70% and Cu: 0.005% to 2.00%, Ca: 0.001% to 0.01% and REM: 0.001% to 0.01%, Mg: 0.001% to 0.01% and Zr: 0.001% to 0.01%, Sb: 0.0001% to 0.1%, W: 0.001% to 1%, with the balance being Fe and inevitable impurities; and a steel microstructure that includes 95% or more of tempered martensite on a volume fraction basis, that includes a precipitate having a diameter of 100 nm or less and including one or more elements selected from Ti, Nb, and V and one or more elements selected from carbon and nitrogen at a density of 50 particles/μm 2 or more, and that includes prior austenite having a grain diameter of 3 μm or more. and a steel microstructure that includes 95% or more of tempered martensite on a volume fraction basis, that includes a precipitate having a diameter of 100 nm or less and including one or more elements selected from Ti, Nb, and V and one or more elements selected from carbon and nitrogen at a density of 50 particles/μm 2 or more, and that includes prior austenite having a grain diameter of 3 μm or more.
A signal processing method for use in a passive fiber hub in a home network, including: receiving an optical signal transmitted from a first access point device in a home network with optical fibers; and forwarding the received optical signal to two or more second access point devices in the home network with optical fibers, wherein the number of ports of the passive fiber hub is greater than or equal to a predetermined threshold, each of the ports being connected to a corresponding port optical splitter, respectively, wherein the number of port optical splitters within the passive fiber hub and the number of the ports is in a predetermined ratio, and the ports transmit data with each other via the port optical splitters connected with the ports and one or more non-port optical splitters in the passive fiber hub, wherein the non-port optical splitters are those optical splitters in the passive fiber hub other than the port optical splitters; wherein, when an internal structure of the passive fiber hub includes a combination of multiple Y-type splitters, a trunk side of each Y-type splitter is used as a passive fiber hub external port, Y-type branches are connected with each other within the passive fiber hub; and when there are more than three ports in the passive fiber hub, for each additional port, three Y-type splitters are added. receiving an optical signal transmitted from a first access point device in a home network with optical fibers; and forwarding the received optical signal to two or more second access point devices in the home network with optical fibers, wherein the number of ports of the passive fiber hub is greater than or equal to a predetermined threshold, each of the ports being connected to a corresponding port optical splitter, respectively, wherein the number of port optical splitters within the passive fiber hub and the number of the ports is in a predetermined ratio, and the ports transmit data with each other via the port optical splitters connected with the ports and one or more non-port optical splitters in the passive fiber hub, wherein the non-port optical splitters are those optical splitters in the passive fiber hub other than the port optical splitters; wherein, when an internal structure of the passive fiber hub includes a combination of multiple Y-type splitters, a trunk side of each Y-type splitter is used as a passive fiber hub external port, Y-type branches are connected with each other within the passive fiber hub; and when there are more than three ports in the passive fiber hub, for each additional port, three Y-type splitters are added.
A pneumatic tire comprising: a carcass extending between bead cores of bead portions through a tread portion and sidewall portions; a tire section width Wt (unit: mm) in relation to a bead diameter Db (unit: inch) satisfying the following equations and, Wt ≤ − 0.7257 × Db 2 + 42.763 × Db − 339.67 Wt ≥ − 0.7257 × Db 2 + 48.568 × Db − 552.33 characterised in that in a tread thickness distribution curve f(y) represented by equation below, f y = 1 − t y / t 0 when y = 0.4, the value of f(y) is in a range of from 0.03 to 0.06, and a rate of change of the value of f(y) increases to y = 0.4 and decreases thereafter, where t(y) denotes a tread thickness which is a distance in a radial direction of the tire from an outer surface of the carcass to an outer surface of the tread portion at each tire axial position Py, and y represents a ratio of an axial distance from a tire equatorial plane (Co) to an axial distance L from the tire equatorial plane (Co) to a maximum-width position (Pm) of the carcass. a carcass extending between bead cores of bead portions through a tread portion and sidewall portions; a tire section width Wt (unit: mm) in relation to a bead diameter Db (unit: inch) satisfying the following equations and, Wt ≤ − 0.7257 × Db 2 + 42.763 × Db − 339.67 Wt ≥ − 0.7257 × Db 2 + 48.568 × Db − 552.33 characterised in that in a tread thickness distribution curve f(y) represented by equation below, f y = 1 − t y / t 0 when y = 0.4, the value of f(y) is in a range of from 0.03 to 0.06, and a rate of change of the value of f(y) increases to y = 0.4 and decreases thereafter, where t(y) denotes a tread thickness which is a distance in a radial direction of the tire from an outer surface of the carcass to an outer surface of the tread portion at each tire axial position Py, and y represents a ratio of an axial distance from a tire equatorial plane (Co) to an axial distance L from the tire equatorial plane (Co) to a maximum-width position (Pm) of the carcass.