mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for determining a sail plan for a towed-array marine seismic survey, comprising: dividing a survey area into a regular grid of tiles, the size of a tile being equal to a sub-surface swath width determined by the number of streamer cables in the array and a separation distance between the streamer cables; and identifying a subset of the tiles as nodes around which continuously curved sail lines are defined, the nodes defining a regular pattern, by positioning within the tiles: a first subpattern of nodes; and a second subpattern of nodes offset from the first subpattern; wherein the nodes in the first subpattern are spaced apart by a first regular increment in x and by a second regular increment in y; wherein the nodes in the second subpattern are spaced apart by the first regular increment in x and by the second regular increment in y; and wherein respective nodes in the second subpattern of nodes are offset from respective nodes in the first subpattern of nodes by a third increment in x and by a fourth increment in y, the third increment being a fractional amount of the first increment and the fourth increment being a fractional amount of the second increment. dividing a survey area into a regular grid of tiles, the size of a tile being equal to a sub-surface swath width determined by the number of streamer cables in the array and a separation distance between the streamer cables; and identifying a subset of the tiles as nodes around which continuously curved sail lines are defined, the nodes defining a regular pattern, by positioning within the tiles: a first subpattern of nodes; and a second subpattern of nodes offset from the first subpattern; wherein the nodes in the first subpattern are spaced apart by a first regular increment in x and by a second regular increment in y; wherein the nodes in the second subpattern are spaced apart by the first regular increment in x and by the second regular increment in y; and wherein respective nodes in the second subpattern of nodes are offset from respective nodes in the first subpattern of nodes by a third increment in x and by a fourth increment in y, the third increment being a fractional amount of the first increment and the fourth increment being a fractional amount of the second increment. are defined, the nodes defining a regular pattern, by positioning within the tiles: a first subpattern of nodes; and a second subpattern of nodes offset from the first subpattern; a first subpattern of nodes; and a second subpattern of nodes offset from the first subpattern; wherein the nodes in the first subpattern are spaced apart by a first regular increment in x and by a second regular increment in y; wherein the nodes in the second subpattern are spaced apart by the first regular increment in x and by the second regular increment in y; and wherein respective nodes in the second subpattern of nodes are offset from respective nodes in the first subpattern of nodes by a third increment in x and by a fourth increment in y, the third increment being a fractional amount of the first increment and the fourth increment being a fractional amount of the second increment.
A heel patch for a heel of a shoe comprising a front patch surface adapted to the shape of the heel and a rear patch surface arranged in the initial stepping region, wherein at least the rear patch surface comprises rear profile grooves that are arranged parallel to one another and extend transversely to the walking direction, wherein the profile grooves have a groove depth of between 0.50 and 1.25 mm and a groove width of between 1.00 and 2.00 mm and are spaced apart from one another by between 1.00 and 2.00 mm and that the patch surface hardness is between 85 and 98° Shore A and/or between 35 and 45° Shore D, characterized in that the front patch surface has front profile grooves, whose groove width and/or groove distance is smaller than the groove width and/or groove distance of the rear profile grooves.
A composition comprising milnacipran, or a pharmaceutically acceptable salt thereof, for use in long-term treatment of fibromyalgia and its symptoms in a patient suffering from fibromyalgia, comprising a dose escalation regimen of: a) a first step of administering 12.5 mg milnacipran/day to the patient for 1 day, wherein the milnacipran is administered p.m.; and b) a second step of administering 25 mg milnacipran/day to the patient for 2 days, wherein 12.5 mg is administered a.m. and 12.5 mg is administered p.m.; and c) a third step of administering 50 mg milnacipran/day to the patient for 4 days, wherein 25 mg is administered a.m. and 25 mg is administered p.m.; and d) a fourth step of administering 100 mg milnacipran/day to the patient for 7 days, wherein 50 mg is administered a.m. and 50 mg is administered p.m.; and wherein 100 mg milnacipran is administered daily for at least three months following steps a) to d). a) a first step of administering 12.5 mg milnacipran/day to the patient for 1 day, wherein the milnacipran is administered p.m.; and b) a second step of administering 25 mg milnacipran/day to the patient for 2 days, wherein 12.5 mg is administered a.m. and 12.5 mg is administered p.m.; and c) a third step of administering 50 mg milnacipran/day to the patient for 4 days, wherein 25 mg is administered a.m. and 25 mg is administered p.m.; and d) a fourth step of administering 100 mg milnacipran/day to the patient for 7 days, wherein 50 mg is administered a.m. and 50 mg is administered p.m.; and
A method for improving security of secure socket layer, SSL, communication, the method comprising: determining, by a device intermediary to a plurality of agents and one or more servers, a configuration change associated with a virtual server executing on the device, the virtual server configured as a named entity of the device that at least one agent of the plurality of agents uses to access applications hosted on a server of the one or more servers; generating, by the device, responsive to determining the configuration change associated with the virtual server, a service fingerprint for the virtual server, the service fingerprint including a domain name service, DNS, alias for a virtual internet protocol, IP, address of the virtual server, a port number of the virtual server serving a secure socket layer, SSL, certificate of the virtual server, an IP address of the virtual server and the SSL certificate of the virtual server; transmitting, by the device, the generated service fingerprint to a web service to identify whether the device is under attack; and receiving, by the device from the web service, a notification that the device is under attack, responsive to the web service comparing the generated service fingerprint with data received by the web service from an agent and responsive to the web service determining that i) the SSL certificate does not match a second SSL certificate received from the agent that attempted to establish a secure connection with the virtual server, or ii) that the IP address of the virtual server does not match a second IP address received from the agent. determining, by a device intermediary to a plurality of agents and one or more servers, a configuration change associated with a virtual server executing on the device, the virtual server configured as a named entity of the device that at least one agent of the plurality of agents uses to access applications hosted on a server of the one or more servers; generating, by the device, responsive to determining the configuration change associated with the virtual server, a service fingerprint for the virtual server, the service fingerprint including a domain name service, DNS, alias for a virtual internet protocol, IP, address of the virtual server, a port number of the virtual server serving a secure socket layer, SSL, certificate of the virtual server, an IP address of the virtual server and the SSL certificate of the virtual server; transmitting, by the device, the generated service fingerprint to a web service to identify whether the device is under attack; and receiving, by the device from the web service, a notification that the device is under attack, responsive to the web service comparing the generated service fingerprint with data received by the web service from an agent and responsive to the web service determining that i) the SSL certificate does not match a second SSL certificate received from the agent that attempted to establish a secure connection with the virtual server, or ii) that the IP address of the virtual server does not match a second IP address received from the agent.
Method for manufacturing a nuclear fuel assembly comprising nuclear fuel rods arranged in a bundle and a skeleton supporting the fuel rods, the method comprising the steps of inserting fuel rods into the skeleton to obtain a fuel assembly and packaging the fuel assembly in view of transportation, the steps being performed in a same nuclear fuel assembly manufacturing plant, wherein the steps of inserting fuel rods and packaging the fuel assembly are operated in a fuel assembly manufacturing unit wherein the nuclear fuel assembly manufacturing plant comprises a fuel rod manufacturing unit side-by-side with the fuel assembly manufacturing unit such that fuel rods produced in the fuel rod manufacturing unit can be transferred directly from a fuel rod inspection area of the fuel rod manufacturing unit to the fuel rod insertion station of the fuel assembly manufacturing unit, characterized in that the fuel rod manufacturing unit and the fuel assembly manufacturing unit are placed side-by-side in a same building including four building modules, the four building modules including a first building module and a second building module housing the fuel manufacturing unit and a third building module and a fourth building module housing the fuel rod manufacturing unit, a welding station and the fuel rod inspection area of the fuel rod manufacturing unit being located in the third building module which is side-by-side with the second building module. wherein the steps of inserting fuel rods and packaging the fuel assembly are operated in a fuel assembly manufacturing unit wherein the nuclear fuel assembly manufacturing plant comprises a fuel rod manufacturing unit side-by-side with the fuel assembly manufacturing unit such that fuel rods produced in the fuel rod manufacturing unit can be transferred directly from a fuel rod inspection area of the fuel rod manufacturing unit to the fuel rod insertion station of the fuel assembly manufacturing unit, characterized in that the fuel rod manufacturing unit and the fuel assembly manufacturing unit are placed side-by-side in a same building including four building modules, the four building modules including a first building module and a second building module housing the fuel manufacturing unit and a third building module and a fourth building module housing the fuel rod manufacturing unit, a welding station and the fuel rod inspection area of the fuel rod manufacturing unit being located in the third building module which is side-by-side with the second building module.
A wiring circuit board having a base material having a through hole, an insulative resin layer laminated on the base material and having a conductive via formed therein, and a wiring group laminated on the insulative resin layer, comprising: a first inorganic adhesive layer formed in the through hole; a hollow through electrode formed by laminating a first conductive layer on the first inorganic adhesive layer; a filling resin formed by filling a mixture of a metallic powder and a resin material in the through electrode; and a second conductive layer covering upper and lower ends of the through electrode; wherein it further comprises: a second inorganic adhesive layer provided between the through electrode and the second conductive layer; and a first wiring group provided on the second inorganic adhesive layer and having a land and a wiring; wherein the first and second inorganic adhesive layers (4a, 4b) have a coefficient of thermal expansion higher than that of the base material; the insulative resin covering the first wiring group has a coefficient of thermal expansion which is higher than a coefficient of thermal expansion of a material forming each of the first conductive layer and the second conductive layer 5(b). a first inorganic adhesive layer formed in the through hole; a hollow through electrode formed by laminating a first conductive layer on the first inorganic adhesive layer; a filling resin formed by filling a mixture of a metallic powder and a resin material in the through electrode; and a second conductive layer covering upper and lower ends of the through electrode; wherein it further comprises: a second inorganic adhesive layer provided between the through electrode and the second conductive layer; and a first wiring group provided on the second inorganic adhesive layer and having a land and a wiring; wherein the first and second inorganic adhesive layers (4a, 4b) have a coefficient of thermal expansion higher than that of the base material; the insulative resin covering the first wiring group has a coefficient of thermal expansion which is higher than a coefficient of thermal expansion of a material forming each of the first conductive layer and the second conductive layer 5(b).
A copper-based sliding material comprising: a steel back metal layer; and a Cu alloy layer, characterized in that the Cu alloy layer consists of: 5% to 30% by mass of Bi; optionally 0.5% to 15% by mass of Sn; optionally at least one of elements selected from the group consisting of Ni, Fe, Ag, In, Mn and Mg in a total amount of 0.1% to 20% by mass; optionally 0.01% to 0.5% by mass of P; and the balance consisting of Cu and an unavoidable impurity, and in that Bi is dispersed as particles of a Bi phase in the Cu alloy layer, and the mass ratio of the particles having a particle size of 2 to 50 μm and a circularity of 0.1 to 0.7 is 30% or more in the entire Bi phase in the Cu alloy layer, wherein the circularity of the Bi phase particle is expressed by Expression 1 below Circularity = 4 × π × S / L 2 where π is the circle ratio, S is the area of the Bi phase (μm 2), and L is the circumferential length of the Bi phase (μm); wherein a composition image of a section in a circumferential direction of the bearing in an observation field is taken through 200 times power of an electron microscope, and an average particle size of the Bi phase particle is measured, the obtained composition image being analyzed using a general image analysis method and the area of each Bi phase particle being measured; and wherein a corresponding circle diameter is calculated from Expression 2 below to be used as a particle size of the Bi phase particle Corresponding Circle Diameter = √ 4 × S / π where π is the circle ratio, and S is the area of the Bi phase (μm 2).
A method of identifying the location of at least one tyre/wheel assembly mounted on a vehicle, comprising the steps: - noting that the vehicle is moving; - carrying out simultaneous measurements of the Earth's magnetic field using at least two coils (131, 132) which are integral with the wheel of said tyre/wheel assembly, and are fastened to a predetermined side of the wheel relative to the vehicle, the two coils being arranged such that the projections of the axes (141, 142) of the coils in a plane perpendicular to the axis of rotation of the tyre/wheel assembly are inclined relative to one another; - determining the phase difference of the measured signals; - determining the direction of movement of the vehicle (forwards or backwards); - determining, from the sign of the phase difference and the direction of movement of the vehicle, the side of the vehicle on which the tyre/wheel assembly is located. - noting that the vehicle is moving; - carrying out simultaneous measurements of the Earth's magnetic field using at least two coils (131, 132) which are integral with the wheel of said tyre/wheel assembly, and are fastened to a predetermined side of the wheel relative to the vehicle, the two coils being arranged such that the projections of the axes (141, 142) of the coils in a plane perpendicular to the axis of rotation of the tyre/wheel assembly are inclined relative to one another; - determining the phase difference of the measured signals; - determining the direction of movement of the vehicle (forwards or backwards); - determining, from the sign of the phase difference and the direction of movement of the vehicle, the side of the vehicle on which the tyre/wheel assembly is located.
A method implemented on a machine including one or more processors and one or more storage devices, comprising: obtaining a first image and a second image of a target of the object, the first image being generated by performing a first scan on the target using an X-ray scanner, the second image being generated by performing a second scan on the target using the X-ray scanner, an X-ray source of the X-ray scanner being positioned at a first scanning location in the first scan and at a second scanning location that is different from the first scanning location in the second scan, the target being located arbitrarily in an imaging view of the X-ray scanner associated with the first scan and the second scan; determining a first image target location in the first image and a second image target location in the second image, the first image target location including a point that represents a first region of interest or a center point of the first ROI, the second image target location including a point that represents a second ROI or a center point of the second ROI, the first ROI depicting the target in the first image, the second ROI depicting the target in the second image; determining a first segment connecting the first scanning location and the first image target location; and determining a second segment connecting the second scanning location and the second target location; characterised in designating an intersection of the first segment and the second segment as a target position of the target; and determining positioning information of the X-ray source of the X-ray scanner based on the target position. obtaining a first image and a second image of a target of the object, the first image being generated by performing a first scan on the target using an X-ray scanner, the second image being generated by performing a second scan on the target using the X-ray scanner, an X-ray source of the X-ray scanner being positioned at a first scanning location in the first scan and at a second scanning location that is different from the first scanning location in the second scan, the target being located arbitrarily in an imaging view of the X-ray scanner associated with the first scan and the second scan; determining a first image target location in the first image and a second image target location in the second image, the first image target location including a point that represents a first region of interest or a center point of the first ROI, the second image target location including a point that represents a second ROI or a center point of the second ROI, the first ROI depicting the target in the first image, the second ROI depicting the target in the second image; determining a first segment connecting the first scanning location and the first image target location; and determining a second segment connecting the second scanning location and the second target location; characterised in designating an intersection of the first segment and the second segment as a target position of the target; and determining positioning information of the X-ray source of the X-ray scanner based on the target position.
A device for preparing cottage cheese, including a container inside which is disposed a cheese strainer able to be displaced vertically in translation in the container between at least one upper draining position and one lower storage position, characterized in that the cheese strainer is able to pivot in the container, the container being equipped with at least one ramp cooperating with at least one follower member of the cheese strainer, the ramp and the follower member being arranged such that the rotation of the cheese strainer inside the container causes the vertical displacement of the cheese strainer with respect to the container, between at least one upper draining position and at least one lower storage position.
A method, comprising: receiving two transport blocks of information by a user equipment from a network element; setting (78, 80), according to a predetermined criterion, by the user equipment a power of a dual acknowledgement signal for acknowledging said two transport blocks, wherein said power has an offset relative to a base power of a single acknowledgement signal for acknowledging one transport block of information when received by said user equipment from said network element and the dual acknowledgement signal comprises an acknowledgement or negative acknowledgement indication for each of said two transport blocks; and transmitting said dual acknowledgement signal using said power by the user equipment to the network element. receiving two transport blocks of information by a user equipment from a network element; setting (78, 80), according to a predetermined criterion, by the user equipment a power of a dual acknowledgement signal for acknowledging said two transport blocks, wherein said power has an offset relative to a base power of a single acknowledgement signal for acknowledging one transport block of information when received by said user equipment from said network element and the dual acknowledgement signal comprises an acknowledgement or negative acknowledgement indication for each of said two transport blocks; and transmitting said dual acknowledgement signal using said power by the user equipment to the network element.