mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a medical tube comprising: a molding step of molding a tubular intermediate body with a crystalline resin in which a thickness of a first section on one side is less than a thickness of a second section on the other side, an outer diameter of the first section is equal to or less than an outer diameter of the second section, and a third section is formed as gradually varying in thickness between the first section and the second section; characterized by an annealing step of forming a distal portion which is provided on one end side and has a first outer diameter (A11), a first inner diameter (B11), and a first thickness, a proximal portion which is provided on the other side and has a second outer diameter greater (A12) than the first outer diameter (A11), a second inner diameter (B12) greater than the first inner diameter (B11), and a second thickness (D12) greater than the first thickness, and an intermediate portion which is provided between the distal portion and the proximal portion and of which an outer diameter, an inner diameter, and a thickness gradually vary, by annealing the intermediate body to promote crystallization, and wherein an inner diameter of the intermediate body is constant from the first section to the second section. a molding step of molding a tubular intermediate body with a crystalline resin in which a thickness of a first section on one side is less than a thickness of a second section on the other side, an outer diameter of the first section is equal to or less than an outer diameter of the second section, and a third section is formed as gradually varying in thickness between the first section and the second section; characterized by an annealing step of forming a distal portion which is provided on one end side and has a first outer diameter (A11), a first inner diameter (B11), and a first thickness, a proximal portion which is provided on the other side and has a second outer diameter greater (A12) than the first outer diameter (A11), a second inner diameter (B12) greater than the first inner diameter (B11), and a second thickness (D12) greater than the first thickness, and an intermediate portion which is provided between the distal portion and the proximal portion and of which an outer diameter, an inner diameter, and a thickness gradually vary, by annealing the intermediate body to promote crystallization, and wherein an inner diameter of the intermediate body is constant from the first section to the second section.
A drive assembly for a drug delivery device , the drive assembly being connectable with a cartridge holder and comprising: - a housing - a piston rod , the piston rod being movable in a distal direction for drug delivery, - a guide nut , the guide nut being rotatable relative to the housing around an axis of the assembly and provided for guiding the piston rod , - a locking means , the locking means being enabled to take an engaged state in which the locking means is engaged with the guide nut in order to prevent rotation of the guide nut and to take a disengaged state in which the locking means is disengaged from the guide nut in order to allow rotation of the guide nut , and - a coupling means , characterised in the coupling means being rotatable relative to the housing around the axis of the assembly and mechanically coupled with the locking means in order to change the locking means between the engaged state and the disengaged state. - a housing - a piston rod , the piston rod being movable in a distal direction for drug delivery, - a guide nut , the guide nut being rotatable relative to the housing around an axis of the assembly and provided for guiding the piston rod , - a locking means , the locking means being enabled to take an engaged state in which the locking means is engaged with the guide nut in order to prevent rotation of the guide nut and to take a disengaged state in which the locking means is disengaged from the guide nut in order to allow rotation of the guide nut , and - a coupling means ,
A composition for a gel polymer electrolyte comprising: a polymerization initiator; a non-aqueous solvent; a lithium salt; and an oligomer represented by the following Formula 1-3: wherein m is an integer of 1 to 200 measured as described is the description, and n is an integer of 5 to 3000 measured as described is the description. a polymerization initiator; a non-aqueous solvent; a lithium salt; and an oligomer represented by the following Formula 1-3: wherein m is an integer of 1 to 200 measured as described is the description, and n is an integer of 5 to 3000 measured as described is the description.
A turbojet fan blade having a root , a tip , a leading edge , and a trailing edge , the blade being characterized in that : • the leading edge presents a steep angle greater than or equal to +28° in a portion of the blade that is situated at a radial height lying in the range 60% to 90% of the total radial height of the blade measured from its root towards its tip; • the leading-edge sweep angle presents a difference (δ1) of less than 10° between a minimum sweep angle measured at a radial height (H min ) of minimum sweep angle situated in the portion of the blade lying in the range 15% to 45% of the radial height of the blade, and a sweep angle measured at a radial height (H min+10 ) that is 10% greater than said radial height of minimum sweep angle; the leading edge sweep angle is initially positive in a portion of the blade that is situated at a radial height lying in the range of 0% to 15% of the total radial height of the blade, it becomes negative up to a radial height of 45%, and then becomes positive again from that point. • the leading edge presents a steep angle greater than or equal to +28° in a portion of the blade that is situated at a radial height lying in the range 60% to 90% of the total radial height of the blade measured from its root towards its tip; • the leading-edge sweep angle presents a difference (δ1) of less than 10° between a minimum sweep angle measured at a radial height (H min ) of minimum sweep angle situated in the portion of the blade lying in the range 15% to 45% of the radial height of the blade, and a sweep angle measured at a radial height (H min+10 ) that is 10% greater than said radial height of minimum sweep angle;
A bus bar system for loads , in particular for lamps, having a support bar , and a current conducting profile arranged inside the support bar , which has wires or lines , which extend in the longitudinal direction of the support bar and can be contacted by the loads , for the power supply and/or transmission of control signals, wherein the support bar is formed toward a first side (u) in such a manner that the arranging of the loads is made possible, wherein a portion (6.2) of the wires or lines of the current conducting profile for a further load can be contacted from a second side (o) of the support bar facing away from the first side ( u ), wherein the support bar has a cross section, which has a first opening on the first side ( u ), wherein the support bar has a U-shaped cross section at least in first approximation, wherein the support bar is furthermore formed towards the first side (u) in such a manner that the contacting of the wires or lines of the current conducting profile is made possible by the loads , characterized in that the support bar has several second openings on the second side (o), wherein the wires or lines of the current conducting profile - relative to the first side (u) - are arranged at different ranges of height within the support bar .
A heat sink comprising: a plurality of load points ; and a plurality of load cells each configured to attach to a respective attachment point on a component and to create a load between the respective attachment point and a respective one of the load points characterised in that at least one load cell among the plurality of load cells is configured to have a different maximum load than another load cell among the plurality of load cells. a plurality of load points ; and a plurality of load cells each configured to attach to a respective attachment point on a component and to create a load between the respective attachment point and a respective one of the load points characterised in that at least one load cell among the plurality of load cells is configured to have a different maximum load than another load cell among the plurality of load cells.
A coated cutting tool comprising a substrate coated with a multi-layered wear resistant coating comprising a layer of α-Al 2 O 3 and a layer of titanium carbonitride Ti x C y N 1-y , with 0.85 ≤ x ≤ 1.3, preferably 1.1 ≤ x ≤ 1.3, and 0.4 ≤ y ≤ 0.85, deposited on the α-Al 2 O 3 layer, wherein the Ti x C y N 1-y exhibits a texture coefficient TC(hkl), as measured by X-ray diffraction as defined in the description using CuKα radiation and θ-2θ scan, the TC(hkl) being defined according to Harris formula: TC hkl = I hkl I 0 hkl 1 n ∑ n = 1 n I hkl I 0 hkl − 1 , wherein I(hkl) is the measured intensity (integrated area) of the (hkl) reflection; I 0 (hkl) is standard intensity of the standard powder diffraction data according to JCPDS card no. 42-1489; n is the number of reflections used in the calculation, and where the (hkl) reflections used are (1 1 1), (2 0 0), (2 2 0), (3 1 1), (3 3 1), (4 2 0) and ; and wherein TC(1 1 1) ≥ 3. I(hkl) is the measured intensity (integrated area) of the (hkl) reflection; I 0 (hkl) is standard intensity of the standard powder diffraction data according to JCPDS card no. 42-1489; n is the number of reflections used in the calculation, and where the (hkl) reflections used are (1 1 1), (2 0 0), (2 2 0), (3 1 1), (3 3 1), (4 2 0) and ; and
A method implemented in an embedded computing environment of a programmable logic controller in a control-layer of an industrial automation system, for diagnostic reasoning of faults and events within the industrial automation system, the method comprising: receiving or retrieving sensor data from a plurality of sensors associated with the industrial automation system; constructing a hierarchical failure model of the industrial automation system using (i) the sensor data, (ii) a library of statistical models comprising event and abnormality detectors detecting event and normality variables and (iii) directed graphical models for evidential reasoning with uncertainty, the directed graphical models defining relationships between a plurality of diagnostic variables and industrial automation system failure status information, the failure model being structured using a hierarchy of fault classes and subclasses, wherein the failure model comprises the plurality of diagnostic variables related to the industrial automation system and their relationships; and performing, by a dynamic belief network , probabilistic reasoning for diagnostic analytics on the industrial automation system using propagation of uncertainties in the hierarchical failure model to derive knowledge related to potential or actual industrial automation system failures; wherein the derived knowledge related to potential or actual system failures comprises a list of industrial automation system components ranked according to likelihood of causing the potential or actual industrial automation system failures. receiving or retrieving sensor data from a plurality of sensors associated with the industrial automation system; constructing a hierarchical failure model of the industrial automation system using (i) the sensor data, (ii) a library of statistical models comprising event and abnormality detectors detecting event and normality variables and (iii) directed graphical models for evidential reasoning with uncertainty, the directed graphical models defining relationships between a plurality of diagnostic variables and industrial automation system failure status information, the failure model being structured using a hierarchy of fault classes and subclasses, wherein the failure model comprises the plurality of diagnostic variables related to the industrial automation system and their relationships; and performing, by a dynamic belief network , probabilistic reasoning for diagnostic analytics on the industrial automation system using propagation of uncertainties in the hierarchical failure model to derive knowledge related to potential or actual industrial automation system failures; wherein the derived knowledge related to potential or actual system failures comprises a list of industrial automation system components ranked according to likelihood of causing the potential or actual industrial automation system failures.
A method of performing a non-isothermal nucleic acid amplification reaction, the method comprising the steps of: (a) mixing a target sequence with one or more complementary single stranded primers in conditions which permit a hybridisation event in which the primers hybridise to the target, which hybridisation event, directly or indirectly, leads to the formation of a duplex structure comprising two nicking sites disposed at or near opposite ends of the duplex; and performing an amplification process by; (b) causing a nick at each of said nicking sites in the strands of the duplex; (c) using a polymerase to extend the nicked strands so as to form newly synthesised nucleic acid, which extension with the polymerase recreates nicking sites; (d) repeating steps (b) and (c) as desired so as to cause the production of multiple copies of the newly synthesised nucleic acid; characterised in that the temperature at which the method is performed is non-isothermal, and subject to a reduction of at least 2°C during the amplification process of steps (b)-(d), and wherein the temperature of the reaction does not return to a predetermined temperature. (a) mixing a target sequence with one or more complementary single stranded primers in conditions which permit a hybridisation event in which the primers hybridise to the target, which hybridisation event, directly or indirectly, leads to the formation of a duplex structure comprising two nicking sites disposed at or near opposite ends of the duplex; and performing an amplification process by; (b) causing a nick at each of said nicking sites in the strands of the duplex; (c) using a polymerase to extend the nicked strands so as to form newly synthesised nucleic acid, which extension with the polymerase recreates nicking sites; (d) repeating steps (b) and (c) as desired so as to cause the production of multiple copies of the newly synthesised nucleic acid;
A sterilization cover for a containment or crossing body for a fluid to be sterilized, comprising first hermetic connection means designed to engage with a coupling portion formed on said containment or crossing body and extended around an access mouth of the containment or crossing body , characterized in that said sterilization cover comprises a first element of the cover which forms said first hermetic connection means and at least one crossing opening , and at least one second element which comprises an elongated containment body that is extended along a longitudinal direction of extension and is designed to be coupled stably and hermetically to said first element so that said elongated containment body passes through said at least one crossing opening , said elongated containment body accommodating, at a first end portion designed to be arranged within said containment or crossing body , a device for emitting rays of a frequency of light in the visible and/or non-visible spectrum, for example UV or IR, said elongated containment body furthermore accommodating a control and actuation card and power supply means of said emission device , said elongated containment body having a second end portion arranged on the opposite side of said crossing opening with respect to said first end portion , second connection means between said first element and said second element being provided and being adapted to allow the stable locking of said second element on said first element , said elongated containment body comprising an annular flange , said first element forming an annular abutment body that is extended around said opening , said second connection means comprising means for the hermetic fastening of said annular flange in abutment against said annular abutment body, said hermetic fastening means comprising a bayonet coupling or a screw-and-nut coupling between a fastening body provided with a portion for engagement with said second element and a free edge for abutment with said annular abutment body of said first element on the surface that is opposite the one abutted against said annular flange in order to allow mutual approach and spacing between said annular flange and said annular abutment body.
A vehicle display device comprising: an image acquisition unit configured to acquire an image around a vehicle ; a distance acquisition unit configured to acquire a first distance between a first object included in the image acquired by the image acquisition unit and a second object ; an image processing unit configured to determine whether the second object is located beneath the first object included in the image acquired by the image acquisition unit , in accordance with the first distance acquired by the distance acquisition unit , and configured to delete the second object from the image when the second object is determined to be located beneath the first object so as to delete the second object located beneath the first object when the vehicle and the second object are relatively positioned such that the second object would be hidden by the first object when viewed from above in an actual situation but is not hidden by the first object in the image acquired in the image acquisition unit ; a viewpoint transformation processing unit configured to subject the image thus processed to viewpoint transformation to produce a bird's-eye image as viewed from above the vehicle ; and a display control unit configured to cause a display unit to display the bird's-eye image produced in the viewpoint transformation processing unit , wherein the first object is another vehicle , and the second object is a lot drawn or placed on the ground. an image acquisition unit configured to acquire an image around a vehicle ; a distance acquisition unit configured to acquire a first distance between a first object included in the image acquired by the image acquisition unit and a second object ; an image processing unit configured to determine whether the second object is located beneath the first object included in the image acquired by the image acquisition unit , in accordance with the first distance acquired by the distance acquisition unit , and configured to delete the second object from the image when the second object is determined to be located beneath the first object so as to delete the second object located beneath the first object when the vehicle and the second object are relatively positioned such that the second object would be hidden by the first object when viewed from above in an actual situation but is not hidden by the first object in the image acquired in the image acquisition unit ; a viewpoint transformation processing unit configured to subject the image thus processed to viewpoint transformation to produce a bird's-eye image as viewed from above the vehicle ; and a display control unit configured to cause a display unit to display the bird's-eye image produced in the viewpoint transformation processing unit , wherein the first object is another vehicle , and the second object is a lot drawn or placed on the ground.
An apparatus comprising: a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, the heater comprising a first heating cylinder configured to heat a first region of smokeable material located within the first heating cylinder and a second heating cylinder configured to heat a second region of smokeable material located within the second heating cylinder, the first heating cylinder and the second heating cylinder being axially aligned; and a smokeable material heating chamber , defined by the first heating cylinder and the second heating cylinder, configured to receive smokable material, wherein the first heating cylinder and the second heating cylinder are configured to be activated sequentially to independently heat the first region of the smokeable material and the second region of smokeable material. a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, the heater comprising a first heating cylinder configured to heat a first region of smokeable material located within the first heating cylinder and a second heating cylinder configured to heat a second region of smokeable material located within the second heating cylinder, the first heating cylinder and the second heating cylinder being axially aligned; and a smokeable material heating chamber , defined by the first heating cylinder and the second heating cylinder, configured to receive smokable material, wherein the first heating cylinder and the second heating cylinder are configured to be activated sequentially to independently heat the first region of the smokeable material and the second region of smokeable material.
A mounting device comprising: a mounting head having multiple pickup members configured to pick up components (P1, Pa); a mounting control section which is configured to cause a second component (Pa) to be picked up later, when a first component (P1), being held by the mounting head at a predetermined height (H1), and the second component (Pa), being held by the mounting head at a lowered position (H2) lower than the predetermined height (H1), are picked up with the mounting head ; while to cause the second component (Pa) to be released earlier, when the mounting head , having picked up the first component (P1) and the second component (Pa), releases the components (P1, Pa), characterized in that the mounting head is a rotary head having a cylindrical portion that is configured to rotate on an axis (R) with the pickup members being attached to the circumference of the cylindrical portion , and is configured to pick up and release components (P1, Pa) while the cylindrical portion is rotated; and the mounting control section is configured not to rotate the cylindrical portion after picking up the second component (Pa) but to rotate the cylindrical portion after releasing the second component (Pa). a mounting head having multiple pickup members configured to pick up components (P1, Pa); a mounting control section which is configured to cause a second component (Pa) to be picked up later, when a first component (P1), being held by the mounting head at a predetermined height (H1), and the second component (Pa), being held by the mounting head at a lowered position (H2) lower than the predetermined height (H1), are picked up with the mounting head ; while to cause the second component (Pa) to be released earlier, when the mounting head , having picked up the first component (P1) and the second component (Pa), releases the components (P1, Pa), characterized in that the mounting head is a rotary head having a cylindrical portion that is configured to rotate on an axis (R) with the pickup members being attached to the circumference of the cylindrical portion , and is configured to pick up and release components (P1, Pa) while the cylindrical portion is rotated; and the mounting control section is configured not to rotate the cylindrical portion after picking up the second component (Pa) but to rotate the cylindrical portion after releasing the second component (Pa).