mhurhangee/ep-ind-claims huggingface dataset:
A ductile iron composition comprising, by weight: about 3.1% to about 3.6% C; about 3.5% to about 4.0% Si; about 0.035% to about 0.050% Mg; about 0.001% to about 0.004% Ce; up to about 0.005% Sb; about 0.008% to about 0.016% S; up to about 0.04% P; up to about 0.3% Mn; and balance iron and incidental impurities; wherein the ductile iron composition includes a ratio of Sb/Ce greater than or equal to about 1.25, has a ferritic microstructure containing less than 5 areal % pearlite and less than 0.5 areal % carbides, and graphite nodules, and greater than about 65% of the graphite nodules having a highly spherical geometry wherein the composition includes a tensile strength of greater than 540 MPa and a 0.2% yield strength of greater than 435 MPa; wherein quantitative values indicated as being about a number vary by about +/- 10%; wherein highly spherical geometry means at least Type VI according to ISO 945-1:2008 standard. about 3.1% to about 3.6% C; about 3.5% to about 4.0% Si; about 0.035% to about 0.050% Mg; about 0.001% to about 0.004% Ce; up to about 0.005% Sb; about 0.008% to about 0.016% S; up to about 0.04% P; up to about 0.3% Mn; and balance iron and incidental impurities; wherein the ductile iron composition includes a ratio of Sb/Ce greater than or equal to about 1.25, has a ferritic microstructure containing less than 5 areal % pearlite and less than 0.5 areal % carbides, and graphite nodules, and greater than about 65% of the graphite nodules having a highly spherical geometry wherein the composition includes a tensile strength of greater than 540 MPa and a 0.2% yield strength of greater than 435 MPa; wherein quantitative values indicated as being about a number vary by about +/- 10%; wherein highly spherical geometry means at least Type VI according to ISO 945-1:2008 standard. wherein quantitative values indicated as being about a number vary by about +/- 10%; wherein highly spherical geometry means at least Type VI according to ISO 945-1:2008 standard.
A computer-implemented method of identifying at least one portion of the skin of an animal which is a region of interest, the method comprising: receiving a temperature dataset comprising a two-dimensional thermal image indicating the temperature of each of a plurality of points in the region of the skin of the animal; and based on the temperature dataset, deriving an estimate of the portion of the region of the skin which is part of the region of interest; wherein the step of deriving the estimate of the portion of the skin which is part of the region of interest further employs a three-dimensional model of the profile of the skin, wherein the temperature dataset is used to obtain an initial segmentation of the region of the skin which classifies the region of the skin into at least one portion of the skin which is part of the region of interest and at least one portion which is not part of the region of interest, and wherein the three dimensional model of the profile of the skin is used to enhance the initial segmentation by identifying at least one area of the initial segmentation which incorrectly classifies skin as part of the region of interest, and by correcting the identified incorrect classification. receiving a temperature dataset comprising a two-dimensional thermal image indicating the temperature of each of a plurality of points in the region of the skin of the animal; and based on the temperature dataset, deriving an estimate of the portion of the region of the skin which is part of the region of interest; wherein the step of deriving the estimate of the portion of the skin which is part of the region of interest further employs a three-dimensional model of the profile of the skin, wherein the temperature dataset is used to obtain an initial segmentation of the region of the skin which classifies the region of the skin into at least one portion of the skin which is part of the region of interest and at least one portion which is not part of the region of interest, and wherein the three dimensional model of the profile of the skin is used to enhance the initial segmentation by identifying at least one area of the initial segmentation which incorrectly classifies skin as part of the region of interest, and by correcting the identified incorrect classification.
A circuit breaker assembly comprising: a circuit breaker cassette (40- 42) including a connector receiving zone; a housing receptive of the circuit breaker cassette (40- 42), the housing including a connector mounting member; and a circuit breaker connector member snap-fittingly extending into the connector receiving zone through the connector mounting member joining the circuit breaker cassette (40- 42) and the housing; characterized in that the connector mounting member includes a first end, a second end, and an intermediate portion extending therebetween, the second end being cantilevered from the housing, and the circuit breaker connector member includes at least one locking arm member (110, 111) engaging the second end of the connector mounting member. a circuit breaker cassette (40- 42) including a connector receiving zone; a housing receptive of the circuit breaker cassette (40- 42), the housing including a connector mounting member; and a circuit breaker connector member snap-fittingly extending into the connector receiving zone through the connector mounting member joining the circuit breaker cassette (40- 42) and the housing; characterized in that the connector mounting member includes a first end, a second end, and an intermediate portion extending therebetween, the second end being cantilevered from the housing, and the circuit breaker connector member includes at least one locking arm member (110, 111) engaging the second end of the connector mounting member.
An adjustment system 500) for use with a damper of a bike suspension, the adjustment system comprising: a coil spring engageable with the damper and extending about a spring axis, the coil spring having: an end coil; an adjacent coil extending helically away from the end coil to define a gap between the end coil and the adjacent coil in a direction parallel to the spring axis; and an insert (510a, 510b, 520c) insertable within the gap of the coil spring, characterized in that, the insert including a support surface having a first helical region and a second helical region, the insert being sized and structured such that when the coil spring is at rest and the insert is inserted within the gap, and contacting the end coil, the first helical region contacts the adjacent coil and the second helical region is spaced from the adjacent coil, and when the coil spring is under a prescribed compressive force, both the first and second regions contact the adjacent coil to mitigate compression of the adjacent coil toward the end coil; and wherein the first helical region of the support surface defines a first helix angle and the second helical region of the support surface defines a second helix angle different from the first helix angle. a coil spring engageable with the damper and extending about a spring axis, the coil spring having: an end coil; an adjacent coil extending helically away from the end coil to define a gap between the end coil and the adjacent coil in a direction parallel to the spring axis; and an end coil; an adjacent coil extending helically away from the end coil to define a gap between the end coil and the adjacent coil in a direction parallel to the spring axis; and an insert (510a, 510b, 520c) insertable within the gap of the coil spring, characterized in that, the insert including a support surface having a first helical region and a second helical region, the insert being sized and structured such that when the coil spring is at rest and the insert is inserted within the gap, and contacting the end coil, the first helical region contacts the adjacent coil and the second helical region is spaced from the adjacent coil, and when the coil spring is under a prescribed compressive force, both the first and second regions contact the adjacent coil to mitigate compression of the adjacent coil toward the end coil; and wherein the first helical region of the support surface defines a first helix angle and the second helical region of the support surface defines a second helix angle different from the first helix angle.
A core of a high-efficiency and high-speed carton sealer, including a main fixing plate, a first cylinder, a return spring, a spring, a front arm, a rear arm, a connecting rod and a second cylinder, wherein a tape roll fixing core seat is fixed on an upper part of the main fixing plate, a tension-variable mechanism bracket is fixed in the middle of the main fixing plate, a front arm shaft and a rear arm shaft are fixed at a lower part of the main fixing plate, a one-way knurled wheel and a first tape guide wheel are fixed on the main fixing plate, the first cylinder is fixed on the tension-variable mechanism bracket, a pre-stretching roller is fixed at a top end of an ejector rod of the first cylinder, the tension-variable mechanism bracket is provided with a guide rod corresponding to the pre-stretching roller, the front arm can rotate around the front arm shaft, the rear arm can rotate around the rear arm shaft, one end of the connecting rod is rotatably connected to the front arm through a first connecting rod shaft, the other end of the connecting rod is rotatably connected to the rear arm through a second connecting rod shaft, the front arm is provided with a front arm wheel and a second tape guide wheel, the rear arm is provided with a rear arm wheel, the bottom of the second cylinder is arranged on an elasticity-variable mechanism fixing shaft which is fixed on the main fixing plate, the second cylinder can rotate around the elasticity-variable mechanism fixing shaft, a spring stretching plate is fixed at a top end of an ejector rod of the second cylinder, two return springs are fixed on the spring stretching plate, the other ends of the return springs are fixed on spring fixing plates of the rear arm, a first rear arm limiting block and a second rear arm limiting block are fixed on the main fixing plate, the second rear arm limiting block is provided with a threaded rod, the spring is fixed at a top end of the threaded rod, a tape guide plate shaft and a tape finger-pressing member shaft are fixed on the front arm, the tape guide plate shaft is provided with a tape guide plate, and the tape finger-pressing member shaft is provided with a tape finger-pressing member.
Value document such as a banknote, a check, a credit or other payment card, an identity card or the like, which has a front side and a back side, shows a representation recognizable to the unaided eye in top view at least from the front side, has specific dimensions (B, H) and comprises a substrate body which has the specific dimensions (B, H) in top view and is constructed from at least one transparent film (11, 12) which also has the specific dimensions (B, H) in top view, wherein the representation recognizable from the front side is generated by a first and at least partly metallized embossed structure and which is arranged on one side of the first film and has a laterally, i.e. transversely to the top view direction, varying profiling and/or metallization, wherein the first and at least partly metallized embossed structure is formed on a film front side facing the front side and a second and at least partly metallized embossed structure is formed on a film back side facing the rear side and at least one of the metallized embossed structures is covered with a levelling cover layer, wherein - the embossed structure comprises micro lenses and/or micromirrors and/or - the embossed structure is formed in sections as a subwavelength structure having a periodicity of 150 nm to 500 nm or being aperiodically with structure widths of 150 nm to 500 nm. - the embossed structure comprises micro lenses and/or micromirrors and/or - the embossed structure is formed in sections as a subwavelength structure having a periodicity of 150 nm to 500 nm or being aperiodically with structure widths of 150 nm to 500 nm.
Drive mechanism for a drug delivery device, comprising: - a body having a distal end and a proximal end, which are spaced apart in the direction of an axis, - a first output member arranged within the body, the first output member being rotatable around the axis relatively to the body, - a second output member arranged within the body along the axis, the second output member being movable relatively to the body along the axis, - the first output member and the second output member being rotationally coupled, and - a drive feature (6, 7) that is provided to generate a rotation of the first output member, characterized in that - the device further comprises a removable and attachable part, which is removable from and attachable to the body, the first output member being unidirectionally rotationally coupled with the drive feature when the part is attached to the body, so that the first output member is rotatable in one direction, - a resilient element, - the removable and attachable part restraining the resilient element when the part is attached to the body, and - the resilient element removing the unidirectional rotational coupling when the removable and attachable part is removed from the body, so that the first output member is rotatable in an opposite direction. - a body having a distal end and a proximal end, which are spaced apart in the direction of an axis, - a first output member arranged within the body, the first output member being rotatable around the axis relatively to the body, - a second output member arranged within the body along the axis, the second output member being movable relatively to the body along the axis, - the first output member and the second output member being rotationally coupled, and - a drive feature (6, 7) that is provided to generate a rotation of the first output member, characterized in that - the device further comprises a removable and attachable part, which is removable from and attachable to the body, the first output member being unidirectionally rotationally coupled with the drive feature when the part is attached to the body, so that the first output member is rotatable in one direction, - a resilient element, - the removable and attachable part restraining the resilient element when the part is attached to the body, and - the resilient element removing the unidirectional rotational coupling when the removable and attachable part is removed from the body, so that the first output member is rotatable in an opposite direction.
A microwave wave generator with a virtual cathode oscillator, with axial geometry, comprising a cathode, a thin anode and a cylindrical wave guide, of longitudinal axis z and radius R G, having a first end forming an entrance to the cylindrical wave guide and a second end forming an exit from the cylindrical wave guide, the cathode being positioned upstream of the entry to the cylindrical wave guide and configured to emit electrons, and the thin anode being positioned at the entrance to the cylindrical wave guide, between the cathode and the cylindrical wave guide, and the device further comprising at least a first reflector (F 1) that is located in the wave guide, transparent to electrons and configured to reflect a microwave wave created by at least one virtual cathode generated in the wave guide, the device being characterized in that it further comprises a narrow magnetic ring of width (L M) along the longitudinal axis z, positioned externally around the cylindrical wave guide at a distance (d AM) from the thin anode and with the first reflector (F 1) positioned at a distance (d AF1) from the thin anode beyond the magnetic ring such that the magnetic ring is located between the thin anode and the first reflector (F 1), the magnetic ring being configured to generate a magnetic field adapted to brake the electrons and to create an accumulation of charge at the origin of a non-oscillating virtual cathode positioned between the thin anode and the first reflector (F 1).
A relaying method for relaying messages by a relay for use in a telecommunications system having M sources ( s,s 1,..., s M), L relays ( r,r 1,..., r L), and D destinations ( d,d 1,..., d D), M ≥1, L ≥1, D ≥1, the transmissions between the sources, the relays, and the destinations taking place via a transmission channel, wherein the method comprises: • soft decoding of code words transmitted by at least one source during a given first number of the channel uses in order to obtain vectors of soft values representing the decoded messages; • detecting errors in the vectors in order to be able to separate messages estimated without error from messages estimated with error; the method being characterized in that it further comprises: • reliability testing relating solely to the vectors of messages estimated with error in order to be able to separate messages that are reliable from messages that are not reliable; • shaping, comprising channel interleaving (π c,ch) and modulation taking account only of the messages estimated without error and of those messages estimated with error that are reliable, this shaping of the messages being performed in soft form if at least one message estimated with error successfully passes the reliability testing; and • during a second given number of channel uses, transmitting a signal that is representative of the messages taken into account by the shaping. • soft decoding of code words transmitted by at least one source during a given first number of the channel uses in order to obtain vectors of soft values representing the decoded messages; • detecting errors in the vectors in order to be able to separate messages estimated without error from messages estimated with error; • reliability testing relating solely to the vectors of messages estimated with error in order to be able to separate messages that are reliable from messages that are not reliable; • shaping, comprising channel interleaving (π c,ch) and modulation taking account only of the messages estimated without error and of those messages estimated with error that are reliable, this shaping of the messages being performed in soft form if at least one message estimated with error successfully passes the reliability testing; and • during a second given number of channel uses, transmitting a signal that is representative of the messages taken into account by the shaping.
A method of forming a heat exchanger tube, comprising the steps of: providing a strip of heat conductive material having a first surface and a second surface, wherein said strip of heat conductive material extends along an A-axis; progressively forming said strip at a series of stations to plastically deform said strip to form a pair of corrugations about the A-axis, each of said pair of corrugations being provided on either sides of the A-axis and including a series of alternating crests and web segments, wherein each of said pair of corrugations defines an internal nose, wherein said internal nose is defined by an outward extension, with respect to the A-axis, of the outer most crest followed by an inward curve back towards the A-axis; creating a first fold by folding said corrugations inward toward said second surface forming a pair of folded corrugations, wherein each of said pair of folded corrugations defines a central wall along said first fold; and creating a second fold by folding said pair of folded corrugations inward toward said second surface such that said central walls are tightly abutted against each other, and such that said internal noses are abutted up against a respective portion of said second surface along said second fold defining a pair of double noses, thereby forming a "B" shaped double nosed folded tube having two top walls and a bottom wall. providing a strip of heat conductive material having a first surface and a second surface, wherein said strip of heat conductive material extends along an A-axis; progressively forming said strip at a series of stations to plastically deform said strip to form a pair of corrugations about the A-axis, each of said pair of corrugations being provided on either sides of the A-axis and including a series of alternating crests and web segments, wherein each of said pair of corrugations defines an internal nose, wherein said internal nose is defined by an outward extension, with respect to the A-axis, of the outer most crest followed by an inward curve back towards the A-axis; creating a first fold by folding said corrugations inward toward said second surface forming a pair of folded corrugations, wherein each of said pair of folded corrugations defines a central wall along said first fold; and creating a second fold by folding said pair of folded corrugations inward toward said second surface such that said central walls are tightly abutted against each other, and such that said internal noses are abutted up against a respective portion of said second surface along said second fold defining a pair of double noses, thereby forming a "B" shaped double nosed folded tube having two top walls and a bottom wall.
Handling device for a medical instrument, comprising a main body with a coupling for releasable mechanical connection to a proximal end of an outer shaft provided for the medical instrument; a first actuation device, which is movable relative to the main body; a second actuation device, which is movable relative to the main body; a first coupling device for coupling the first actuation device to a first transfer device for transferring at least either a force or a torque; a second coupling device for coupling the second actuation device to a second transfer device for transferring at least either a force or a torque; wherein the first coupling device and the second coupling device (84; 90) each have a decoupling position (79, 89), in which the associated actuation device (70, 80) is decoupled from the associated transfer device (40, 50), wherein the decoupling positions (79, 89) of both coupling devices (74, 84) can then only be reached when the outer shaft provided for the medical instrument is not connected to the coupling on the main body in the manner provided for the use of the medical instrument.
An X-ray work station, comprising at least one X-ray source (9a, b) and at least one X-ray detector (11a, 11b, 19) wherein at least two X-ray sources (9a, 9b) and at least two X-ray detectors (11a, b, 19) are provided, characterized in that two X-ray sources and two X-ray detectors (11a, 11b) are arranged at a rail system that is arranged at a ceiling so that the two X-ray sources and the X-ray detectors are movable in two dimensions (X, Y) of a horizontal plane, wherein the two X-ray sources (9a, b) are alignable relative to one another in space in a controlled manner and are also alignable in a controlled manner relative to the two X-ray detectors (11a, b) wherein the two X-ray sources (9a, b) and the two X-ray detectors (11a, b) are respectively arranged rotatable about a vertical axis, respectively pivotable in a vertical plane and respectively movable in different positions with respect to a vertical so that a first X-ray source of the two X-ray sources (9a, b) is alignable with an X-ray detector of the two X-ray detectors (11a, b) and a second X-ray source of the two X-ray sources (9a, b) is alignable with an X-ray detector of the two X-ray detectors (11a, b) so that respective alignment beams (23, 25) intersect in an intersection point so that an object (21, 37, 43) arranged between the two X-ray sources (9a, b) and two X-ray detectors (11a, b) in the intersection point is X-rayed.