mhurhangee/ep-ind-claims huggingface dataset:
A subsurface safety valve control system downhole station for provision in downhole metallic structure of a well installation which comprises a subsurface safety valve having an open state allowing flow through the valve and a closed state obstructing flow through the valve, wherein the downhole station is arranged for picking up electrical signals from the downhole metallic structure to obtain valve control signals and for outputting control signals for controlling the subsurface safety valve in dependence on the signals picked up from the downhole metallic structure, wherein the downhole station comprises a hardware electronics channel for handling electrical signals picked up from the downhole metallic structure and the hardware electronics channel is arranged for detecting the presence and/or absence of hold valve open signals, and the downhole station is arranged to cause the subsurface safety valve to be held in the open state whilst expected hold valve open signals are received and is arranged to cause the subsurface safety valve to move to the closed state in the absence of expected hold valve open signals, characterised in that: the downhole station is arranged to detect, from the electrical signals picked up from the downhole metallic structure, auxiliary control signals which are distinct from the hold valve open signals. the downhole station comprises a hardware electronics channel for handling electrical signals picked up from the downhole metallic structure and the hardware electronics channel is arranged for detecting the presence and/or absence of hold valve open signals, and the downhole station is arranged to cause the subsurface safety valve to be held in the open state whilst expected hold valve open signals are received and is arranged to cause the subsurface safety valve to move to the closed state in the absence of expected hold valve open signals, characterised in that: the downhole station is arranged to detect, from the electrical signals picked up from the downhole metallic structure, auxiliary control signals which are distinct from the hold valve open signals.
A process for conversion of oxygenates to olefins, said process comprising: a) contacting within a reactor a feed stream comprising one or more oxygenates with a catalyst, wherein said reactor comprises at least two zones, a first zone wherein gas travels at a faster rate than a second zone wherein a gas travels at a slower rate; and b) inserting a purge gas comprising a quantity of inert gas into said second zone to increase circulation of any materials located in said second zone, wherein said inert gas is selected from the group consisting of a mixture of methane and hydrogen, nitrogen and mixtures thereof. a) contacting within a reactor a feed stream comprising one or more oxygenates with a catalyst, wherein said reactor comprises at least two zones, a first zone wherein gas travels at a faster rate than a second zone wherein a gas travels at a slower rate; and b) inserting a purge gas comprising a quantity of inert gas into said second zone to increase circulation of any materials located in said second zone, wherein said inert gas is selected from the group consisting of a mixture of methane and hydrogen, nitrogen and mixtures thereof.
A method of laying up a composite barrel on a mandrel, comprising: arranging first and second laminators (62, 64) respectively on opposite sides of the mandrel; rotating the mandrel to a first rotational position of the mandrel presenting first and second zones (86, 88) on the mandrel that are respectively within reach (76, 78) of the first and second laminators (62, 64); holding the mandrel stationary against rotation in the first rotational position; laying up plies of composite material on the mandrel in at least one of the first and second zones (86, 88) using the first and second laminators (62, 64) respectively while the mandrel is held stationary in the first rotational position thereof; rotating the mandrel to a second rotational position of the mandrel presenting third and fourth zones (90, 92) on the mandrel that are respectively within reach (76, 78) of each of the first and second laminators (62, 64); holding the mandrel stationary against rotation in the first rotational position; and laying up plies of composite material on at least one of the third and fourth zones (90, 92) on the mandrel using the first and second laminators (62, 64) respectively while the mandrel is held stationary in the second rotational position thereof; locating a reference feature on the mandrel while the mandrel is stationary in each of the at least first and second rotational positions (82, 84) thereof; and using the reference feature to lay up plies at desired locations on the mandrel. arranging first and second laminators (62, 64) respectively on opposite sides of the mandrel; rotating the mandrel to a first rotational position of the mandrel presenting first and second zones (86, 88) on the mandrel that are respectively within reach (76, 78) of the first and second laminators (62, 64); holding the mandrel stationary against rotation in the first rotational position; laying up plies of composite material on the mandrel in at least one of the first and second zones (86, 88) using the first and second laminators (62, 64) respectively while the mandrel is held stationary in the first rotational position thereof; rotating the mandrel to a second rotational position of the mandrel presenting third and fourth zones (90, 92) on the mandrel that are respectively within reach (76, 78) of each of the first and second laminators (62, 64); holding the mandrel stationary against rotation in the first rotational position; and laying up plies of composite material on at least one of the third and fourth zones (90, 92) on the mandrel using the first and second laminators (62, 64) respectively while the mandrel is held stationary in the second rotational position thereof; locating a reference feature on the mandrel while the mandrel is stationary in each of the at least first and second rotational positions (82, 84) thereof; and using the reference feature to lay up plies at desired locations on the mandrel.
A skinning device for removing skin from an animal carcass or carcass parts (401, 403) when conveyed by a conveyor means, comprising: • a frame, • a housing rotatably mounted on the frame using a rotation mechanism, • a motor driven tooth roll continuously rotable around an axis of rotation, • a support structure mounted on the housing encasing at least a portion of the tooth roll, • a cutting blade positioned between the support structure and the tooth roll in a fixed position in relation to the support structure, and • a sensing structure for sensing an incoming animal carcass or carcass parts, wherein the rotation mechanism is operably connected to the housing and adapted to execute, in response to a reaction from the sensing structure, a movement of the housing characterized in that said movement of the housing including rotational movement around an longitudinal axis of the tooth roll from a first angular position to a second angular position, the first angular position being a starting position where the tooth roll, during operation of the device, engages the skin of an incoming animal carcass or carcass part and pulls the skin towards the cutting blade when the tooth roll is continuously rotated around its axis of rotation, where subsequently the housing is moved from the first angular position towards the second angular position such that the animal carcass or carcass part is moved over the skinning device so that it at least partly rests on the device while being conveyed while the skin is being pulled between the support structure and the tooth roll causing simultaneous removal of the skin from the animal carcass or carcass part upon reaching the second angular position. • a frame, • a housing rotatably mounted on the frame using a rotation mechanism, • a motor driven tooth roll continuously rotable around an axis of rotation, • a support structure mounted on the housing encasing at least a portion of the tooth roll, • a cutting blade positioned between the support structure and the tooth roll in a fixed position in relation to the support structure, and • a sensing structure for sensing an incoming animal carcass or carcass parts,
A spark plug comprising: a center electrode; an insulator having an axial hole extending in an axial direction of said center electrode, holding said center electrode inside said axial hole; a metal shell surrounding said insulator to hold said insulator therein; a ground electrode including a first end portion bonded to said metal shell and a second end portion opposed to said center electrode; and a noble metal tip (90,91) bonded to at least one of a front-end portion of said center electrode and said second end portion of said ground electrode, wherein said noble metal tip comprises: from 5 to 40 wt% of Rh; from 1 to 20 wt% of at least one of Ir, Re and Ru; and 37 wt% or more of Pt; wherein said noble metal tip comprises 50 wt% or more of noble metals selected from a group consisting of Pt, Rh, Ir, Re and Ru; characterised in that said noble metal tip comprises from 0.2 to 3 wt% of Ni. a center electrode; an insulator having an axial hole extending in an axial direction of said center electrode, holding said center electrode inside said axial hole; a metal shell surrounding said insulator to hold said insulator therein; a ground electrode including a first end portion bonded to said metal shell and a second end portion opposed to said center electrode; and a noble metal tip (90,91) bonded to at least one of a front-end portion of said center electrode and said second end portion of said ground electrode, from 5 to 40 wt% of Rh; from 1 to 20 wt% of at least one of Ir, Re and Ru; and 37 wt% or more of Pt;
An interlock comprising - a locking element that can move in parallel with a locking direction, - and a drive (18, 20) comprising a transfer element for moving the locking element, which transfer element is coupled to a motor via a transmission for shifting in the longitudinal direction, wherein the transfer element is coupled to the locking element via a coupling such that the transfer element can move with the locking element in a first direction of movement and a second, opposite direction of movement, - wherein the coupling is spring-buffered under preload in both directions of movement such that, when the locking element is blocked, a movement of the transfer element in both directions of movement by a spring travel against a spring force is possible when the preload is overcome. - a locking element that can move in parallel with a locking direction, - and a drive (18, 20) comprising a transfer element for moving the locking element, which transfer element is coupled to a motor via a transmission for shifting in the longitudinal direction, wherein the transfer element is coupled to the locking element via a coupling such that the transfer element can move with the locking element in a first direction of movement and a second, opposite direction of movement, - wherein the coupling is spring-buffered under preload in both directions of movement such that, when the locking element is blocked, a movement of the transfer element in both directions of movement by a spring travel against a spring force is possible when the preload is overcome.
Method for improving the fertility of the soil comprising the following method steps: a) Harvesting wood in a forest by a harvesting unit to form an open area for growing plants, in particular trees; b) Shredding the harvested wood by a shredding unit; b1) Subjecting the shredded wood to a drying treatment by squeezing the shredded wood in a squeezing unit; c) Coking the shredded wood by a coking unit to form biochar; d) Inserting the biochar by an insertion unit into the soil of the open area formed in step a; wherein at least steps a - d are performed continuously within a mobile vehicle, the mobile vehicle comprising at least the harvesting unit, the shredding unit, the coking unit and the insertion unit. a) Harvesting wood in a forest by a harvesting unit to form an open area for growing plants, in particular trees; b) Shredding the harvested wood by a shredding unit; b1) Subjecting the shredded wood to a drying treatment by squeezing the shredded wood in a squeezing unit; c) Coking the shredded wood by a coking unit to form biochar; d) Inserting the biochar by an insertion unit into the soil of the open area formed in step a;
A composition comprising a) a human IL-12 protein comprising a first IL-12 subunit and a second IL-12 protein subunit; b) a protein comprising an EDB binding domain; and c) a linker between the IL-12 protein and the protein comprising the EDB binding domain wherein the composition comprises: • a p40 domain linked to a p35 domain by a first linker; • a first L19 VH domain linked to the p35 domain by a SAD linker; • a first L19 VL domain linked to the first L19 VH domain by a third linker; • a second L19 VH domain linked to the first L19 VL domain by a fourth linker; and • a second L19 VL domain linked to the second L19 VH domain by a fifth linker; and wherein the composition has a full length sequence according to SEQ ID NO: 16. a) a human IL-12 protein comprising a first IL-12 subunit and a second IL-12 protein subunit; b) a protein comprising an EDB binding domain; and c) a linker between the IL-12 protein and the protein comprising the EDB binding domain wherein the composition comprises: • a p40 domain linked to a p35 domain by a first linker; • a first L19 VH domain linked to the p35 domain by a SAD linker; • a first L19 VL domain linked to the first L19 VH domain by a third linker; • a second L19 VH domain linked to the first L19 VL domain by a fourth linker; and • a second L19 VL domain linked to the second L19 VH domain by a fifth linker; • a p40 domain linked to a p35 domain by a first linker; • a first L19 VH domain linked to the p35 domain by a SAD linker; • a first L19 VL domain linked to the first L19 VH domain by a third linker; • a second L19 VH domain linked to the first L19 VL domain by a fourth linker; and • a second L19 VL domain linked to the second L19 VH domain by a fifth linker; and wherein the composition has a full length sequence according to SEQ ID NO: 16.
A method for manufacturing absorbent articles, each of the absorbent articles comprising a chassis and an absorbent structure disposed on the chassis, the chassis having a front waist region, a back waist region, and a crotch region extending between the front waist region and the back waist region, the method comprising: folding each of the absorbent articles about a fold line generally bisecting the article such that the front and back waist regions (22,24) are positioned in facing relationship; simultaneously bonding and one of trimming and weakening the front and back waist regions (22,24) adjacent each opposing side edge of the article to form a pair of fin seams; characterized in that the pair of fin seams extend in a direction parallel to the direction of travel of said absorbent article during said step of simultaneously bonding and one of trimming and weakening the front and back waist regions (22,24). folding each of the absorbent articles about a fold line generally bisecting the article such that the front and back waist regions (22,24) are positioned in facing relationship; simultaneously bonding and one of trimming and weakening the front and back waist regions (22,24) adjacent each opposing side edge of the article to form a pair of fin seams; characterized in that the pair of fin seams extend in a direction parallel to the direction of travel of said absorbent article during said step of simultaneously bonding and one of trimming and weakening the front and back waist regions (22,24).
A system for use in a subterranean wellbore comprising: a drill bit on an end of a drill string and in selective fluid communication with pressurized fluid; a seal that is selectively deployed from the drill string into sealing engagement with an inner surface of the wellbore to define an enclosed space in a lower portion of the wellbore; characterized by: a fracturing port on the drill bit that is selectively opened and closed and that is in communication with the source of the pressurized fluid; and drilling fluid exit nozzle on the drill bit that is selectively opened and closed, wherein the source of the pressurized fluid comprises a first source of pressurized fluid, wherein the drilling fluid exit nozzle is in communication with a second source of pressurized fluid, and wherein pressurized fluid from the second source of pressurized fluid comprises drilling fluid. a drill bit on an end of a drill string and in selective fluid communication with pressurized fluid; a seal that is selectively deployed from the drill string into sealing engagement with an inner surface of the wellbore to define an enclosed space in a lower portion of the wellbore; characterized by: a fracturing port on the drill bit that is selectively opened and closed and that is in communication with the source of the pressurized fluid; and drilling fluid exit nozzle on the drill bit that is selectively opened and closed, wherein the source of the pressurized fluid comprises a first source of pressurized fluid, wherein the drilling fluid exit nozzle is in communication with a second source of pressurized fluid, and wherein pressurized fluid from the second source of pressurized fluid comprises drilling fluid. a fracturing port on the drill bit that is selectively opened and closed and that is in communication with the source of the pressurized fluid; and drilling fluid exit nozzle on the drill bit that is selectively opened and closed, wherein the source of the pressurized fluid comprises a first source of pressurized fluid, wherein the drilling fluid exit nozzle is in communication with a second source of pressurized fluid, and wherein pressurized fluid from the second source of pressurized fluid comprises drilling fluid.
A method of cooking using a cooking instrument (100, 200, 300), comprising: drawing alternating current, AC, power from an external power source substantially at a maximum power draw limit of the external power source; generating, from the drawn AC power, a maximum available power for a heating system (114, 700) of the cooking instrument (100, 200, 300) via a power component (706, 714A-B) of the cooking instrument, wherein the maximum available power for the heating system (114, 700) is less than or equal to the maximum power draw limit from the external power source; characterized in that the method comprises: heating directionally, from at least one side of a cooking chamber, each of two or more zones in the cooking chamber of the cooking instrument (100, 200, 300) in sequence using one or more heating elements of the heating system (114, 700) such that each step in the sequence utilizes the maximum available power for the heating system (114, 700) to each corresponding zone. drawing alternating current, AC, power from an external power source substantially at a maximum power draw limit of the external power source; generating, from the drawn AC power, a maximum available power for a heating system (114, 700) of the cooking instrument (100, 200, 300) via a power component (706, 714A-B) of the cooking instrument, wherein the maximum available power for the heating system (114, 700) is less than or equal to the maximum power draw limit from the external power source; characterized in that the method comprises: heating directionally, from at least one side of a cooking chamber, each of two or more zones in the cooking chamber of the cooking instrument (100, 200, 300) in sequence using one or more heating elements of the heating system (114, 700) such that each step in the sequence utilizes the maximum available power for the heating system (114, 700) to each corresponding zone.
Injection molding machine, comprising a machine bed on which a stationary tool plate is arranged, wherein furthermore a movable tool plate is arranged on the machine bed which is movable relatively to the first tool plate in a closing direction, wherein a plurality of holms are fixed at one of the tool plates which can be latched for applying of a tool closing force relatively to the other tool plate by means of locking means, wherein the locking means comprise: - at least one reception (6, 6', 6") in the end region of the holm, - an engagement element which has at least one projection (8, 8', 8") which can engage in the at least one reception (6, 6', 6") for fixing of the holm relatively to the tool plate which bears the engagement element, wherein the engagement element has at least two parts (7', 7"), wherein each part is rotatable supported around a pivot point (9, 10) and can carry out a rotation around an axis which is directed in closing direction, wherein the engagement element is arranged undisplacable in closing direction in one of the tool plates and wherein synchronisation means are provided by which the pivot movement of the parts (7', 7") of the engagement element around the axis can be synchronized, wherein the synchronization means comprise a circular ring shaped control element which can be rotated in circumferential direction by an actuator, wherein the parts (7', 7") of the engagement element are supported by means of a articulated bearing at the control element. - at least one reception (6, 6', 6") in the end region of the holm, - an engagement element which has at least one projection (8, 8', 8") which can engage in the at least one reception (6, 6', 6") for fixing of the holm relatively to the tool plate which bears the engagement element,
A pharmaceutical composition comprising naproxen, loratadine and pseudoephedrine wherein the naproxen, loratadine and pseudoephedrine are in a bi-layer tablet and wherein the naproxen and loratadine are in a first, immediate release layer of the bi-layer tablet and the pseudoephedrine is in a second, extended release layer of the bi-layer tablet.
A method for producing amorphous N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide, said method comprising: (a) heating a solid form of N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide at a temperature of at least 196°C; and (b) cooling the melted form of N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide and thus producing amorphous N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide. (a) heating a solid form of N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide at a temperature of at least 196°C; and (b) cooling the melted form of N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide and thus producing amorphous N-[(3aR,4R,4aR,5aS,6S,6aS)-3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide.