mhurhangee/ep-ind-claims huggingface dataset:
Stove having: - a combustion chamber and upper and lower chambers (3, 4) arranged on either side of the combustion chamber; - a frame; - a burner designed to produce a flame in the combustion chamber; - supply means, arranged in the lower chamber, for supplying the burner with fuel, preferably wood pellets; - first, second and third upper compartments (30, 31, 32) arranged in the upper chamber and intended to receive combustion air, combustion fumes and convection air, respectively; - feed means designed to feed the combustion air into the first upper compartment; - evacuation means designed to evacuate the combustion fumes from the upper chamber; characterized in that: - the frame comprises a first pair of uprights and a second pair of uprights extending around the combustion chamber and around the upper and lower chambers (3, 4); in that - a first cavity is formed inside each upright of the first pair of uprights; the first cavity having a first end communicating with the first upper compartment, and a second end communicating with the burner; and in that - a second cavity is formed inside each upright of the second pair of uprights; the second cavity having a first end communicating with the lower chamber, and a second end communicating with the second upper compartment or with the third upper compartment. - a combustion chamber and upper and lower chambers (3, 4) arranged on either side of the combustion chamber; - a frame; - a burner designed to produce a flame in the combustion chamber; - supply means, arranged in the lower chamber, for supplying the burner with fuel, preferably wood pellets; - first, second and third upper compartments (30, 31, 32) arranged in the upper chamber and intended to receive combustion air, combustion fumes and convection air, respectively; - feed means designed to feed the combustion air into the first upper compartment; - evacuation means designed to evacuate the combustion fumes from the upper chamber; - the frame comprises a first pair of uprights and a second pair of uprights extending around the combustion chamber and around the upper and lower chambers (3, 4); - a first cavity is formed inside each upright of the first pair of uprights; the first cavity having a first end communicating with the first upper compartment, and a second end communicating with the burner; - a second cavity is formed inside each upright of the second pair of uprights; the second cavity having a first end communicating with the lower chamber, and a second end communicating with the second upper compartment or with the third upper compartment.
Heat exchanger comprising: - an exchange bundle; - a bundle shell substantially defining a hollow parallelepiped, one face of which is open so that the four adjacent faces (32a-32d) form an end edge bordered on the outer surface of the shell by a coupling boundary allowing a collector flange to be accommodated that comprises a portion of generally cylindrical shape, the inner surface of which matches that of the coupling boundary, and has rounded corners, the bundle shell being produced at least as two shell parts (34a-34d); characterized in that the coupling boundary has rounded corners, with the shell parts (34a-34d) being arranged so that, in the vicinity of the coupling boundary, the outer surface of one part substantially extends the outer surface of the other part, the surfaces of the two parts being at the same level in the vicinity of the connection between two shell parts. - an exchange bundle; - a bundle shell substantially defining a hollow parallelepiped, one face of which is open so that the four adjacent faces (32a-32d) form an end edge bordered on the outer surface of the shell by a coupling boundary allowing a collector flange to be accommodated that comprises a portion of generally cylindrical shape, the inner surface of which matches that of the coupling boundary, and has rounded corners, the bundle shell being produced at least as two shell parts (34a-34d);
A method of extracting viral particles of a recombinant adeno-associated virus or an adenovirus (AdV) from a sample comprising cells enclosing the viral particles, comprising: lysing the cells by the addition of an alkaline lysis solution, comprising a detergent and one or more reagents, to the sample such that the sample comprises 0.1% to 1% of the detergent and has a pH of 9.0 to 11.5 for AAV, or 9.0 to 10.5 for AdV, wherein the detergent is selected from the group consisting of deoxycholate, octyl thioglucoside, octyl glucoside, dodecyl maltoside, alkyl Sulfates, Polysorbate 20 (Tween-20), Tergitol-type NP-40 and the combinations thereof, and wherein the one or more reagents is selected from the group consisting of N-cyclohexyl-3-aminopropanesulfonic acid (CAPS), glycine/sodium, glycine/potassium, sodium carbonate, potassium carbonate, sodium phosphate, potassium-phosphate and combinations thereof; precipitating host cell proteins released from the lysed cells by (a) adding a salting solution to the sample such that the sample comprises 0.5 M to 2.0 M of a salt and has a pH of 4.0 to 7.0, wherein the salt is selected from the group consisting of sodium acetate, potassium acetate, sodium phosphate and combinations thereof and (b) removing the precipitated host cell proteins to obtain a supernatant comprising the viral particles; precipitating the viral particles from the supernatant with a precipitation solution, wherein upon addition of the precipitation solution to the sample, the sample comprises 5% to 12% of a polyethylene glycol; and further purifying the precipitated viral particles with chromatography. lysing the cells by the addition of an alkaline lysis solution, comprising a detergent and one or more reagents, to the sample such that the sample comprises 0.1% to 1% of the detergent and has a pH of 9.0 to 11.5 for AAV, or 9.0 to 10.5 for AdV, wherein the detergent is selected from the group consisting of deoxycholate, octyl thioglucoside, octyl glucoside, dodecyl maltoside, alkyl Sulfates, Polysorbate 20 (Tween-20), Tergitol-type NP-40 and the combinations thereof, and wherein the one or more reagents is selected from the group consisting of N-cyclohexyl-3-aminopropanesulfonic acid (CAPS), glycine/sodium, glycine/potassium, sodium carbonate, potassium carbonate, sodium phosphate, potassium-phosphate and combinations thereof; precipitating host cell proteins released from the lysed cells by (a) adding a salting solution to the sample such that the sample comprises 0.5 M to 2.0 M of a salt and has a pH of 4.0 to 7.0, wherein the salt is selected from the group consisting of sodium acetate, potassium acetate, sodium phosphate and combinations thereof and (b) removing the precipitated host cell proteins to obtain a supernatant comprising the viral particles; precipitating the viral particles from the supernatant with a precipitation solution, wherein upon addition of the precipitation solution to the sample, the sample comprises 5% to 12% of a polyethylene glycol; and further purifying the precipitated viral particles with chromatography.
A control device of an internal combustion engine provided with a fuel injector which injects fuel to the inside of an intake port and an exhaust variable valve timing mechanism able to change a valve timing of an exhaust valve, when conditions for executing early exhaust valve closing control stand, the control device executing early exhaust valve closing control which advances a closing timing and an opening timing of the exhaust valve so as to make combustion gas in a combustion chamber flow back into the intake port when an intake valve opens, characterized in that the control device is further provided with a torque detecting means for detecting an output torque which is output by an engine body and, wherein at the time of a deceleration operation of the internal combustion engine, even when the condition for executing early exhaust valve closing control stands, execution of the early exhaust valve closing control is prohibited when it is predicted that the output torque which is detected by said torque detecting means will become smaller than a limit torque.
Method for manufacturing shrink-wrap packaging for a set of containers, comprising the steps of: - rolling out a shrink-wrap film onto a conveyor belt, - positioning said containers onto said conveyor belt, arranged parallel to one another, - wrapping said containers by means of said shrink-wrap film, thereby forming a shrink-wrap film coating around said containers, and - heat shrinking said shrink-wrap film in order to hold said containers securely against each other, - a step of incision according to a trajectory corresponding to an incision line comprising a series of perforations forming at least one partially detachable section arranged for extracting, in a direction substantially directed from the lower section of the container to the upper section, at least one container, said partially detachable packaging section being of a size greater than or equal to the section of said at least one container to be extracted, said step of incision being a step of incision of at least one partially detachable section located on the periphery of a first zone situated at the opening of the containers, characterised in that the method further comprises a step for printing a pattern onto said film, and in that said step of incision and said step of printing said pattern are carried out before said rolling out of the shrink-wrap film. - rolling out a shrink-wrap film onto a conveyor belt, - positioning said containers onto said conveyor belt, arranged parallel to one another, - wrapping said containers by means of said shrink-wrap film, thereby forming a shrink-wrap film coating around said containers, and - heat shrinking said shrink-wrap film in order to hold said containers securely against each other, - a step of incision according to a trajectory corresponding to an incision line comprising a series of perforations forming at least one partially detachable section arranged for extracting, in a direction substantially directed from the lower section of the container to the upper section, at least one container, said partially detachable packaging section being of a size greater than or equal to the section of said at least one container to be extracted, said step of incision being a step of incision of at least one partially detachable section located on the periphery of a first zone situated at the opening of the containers,
Thermal storage for a walk-in cold room comprising a plurality of storage cells (12a-e), in which a storage medium is accommodated, wherein a first cooling line in which a first coolant can be supplied for cooling the storage medium is routed in the storage cells (12a-e), wherein the first cooling lines are connected to a device for selectively supplying the first coolant to the storage cells (12a-e), and a second cooling line is accommodated in the storage cells (12a-e), wherein the second cooling lines are connected via a further device, and a controller is provided, by means of which the storage cells (12a-e) and the storage medium accommodated therein can be cooled by supplying the first coolant via the first cooling lines and the device and a second coolant can be supplied via the second cooling lines and the further device from at least one of the storage cells (12a-e), wherein the storage media accommodated in the storage cells (12a-e) comprise different phase change temperatures, wherein temperature measuring devices which transmit at least the temperature of the storage medium to the controller are arranged in or on the individual storage cells (12a-e).
A method for sealing a tube having a smooth surface against an object to be inserted into the tube by means of an ear clamp, the ear clamp having a clamping band in which ear-like tightening means having two outward extending legs interconnected by a web is formed, wherein the tightening means is pre-deformed, in the course of manufacturing the clamp prior to being mounted on the tube, in such a manner that the ear clamp fits on the tube free of play, during installation the clamp is moved to the desired position on the tube, and the clamp is tightened by further deformation of the tightening means until the desired clamping pressure is obtained.
A system for joining buttress to the main tower shaft of a wind generator, wherein the main shaft comprises a joining ring and the joining system comprises: - at least one fastening structure located on the joining ring, to receive and fasten at least one buttress; characterized in that the fastening structure comprises: - a closed curved structure; and, - a central cross beam; - further characterized in that: each buttress comprises an end, which in turn comprises a central web and a wing; wherein the fastening structure is integrated in the joining ring, and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring. - at least one fastening structure located on the joining ring, to receive and fasten at least one buttress; characterized in that the fastening structure comprises: - a closed curved structure; and, - a central cross beam; - a closed curved structure; and, - a central cross beam; - further characterized in that: each buttress comprises an end, which in turn comprises a central web and a wing; wherein the fastening structure is integrated in the joining ring, and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring. each buttress comprises an end, which in turn comprises a central web and a wing; wherein the fastening structure is integrated in the joining ring, and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring.
Apparatus for inhibiting function of renal nerves in a patient's kidney, said apparatus comprising: a shaft adapted to be introduced into an interior of the kidney; and an effector on the shaft adapted to exchange energy from the interior of the kidney through a wall of the renal pelvis to the renal nerves within the wall of the renal pelvis and surrounding the renal blood vessels in the kidney, wherein the effector comprises an expandable member which can be expanded within the kidney to engage an interior wall of the renal pelvis, further wherein the effector comprises RF electrodes configured to direct the delivered energy to maintain the temperature of the papillae and the pyramids below 45°C. a shaft adapted to be introduced into an interior of the kidney; and an effector on the shaft adapted to exchange energy from the interior of the kidney through a wall of the renal pelvis to the renal nerves within the wall of the renal pelvis and surrounding the renal blood vessels in the kidney, wherein the effector comprises an expandable member which can be expanded within the kidney to engage an interior wall of the renal pelvis, further wherein the effector comprises RF electrodes configured to direct the delivered energy to maintain the temperature of the papillae and the pyramids below 45°C.
A method for configuring a controlling device to command functional operations of at least one controllable appliance (12, 14, 54, 16, 56, 58), comprising the steps of: receiving at the controlling device from the at least one controllable appliance (12, 14, 54, 16, 56, 58), via a first communication channel, data indicative of an identity of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and a listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58); using the data indicative of the identity of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and the listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58) to configure the controlling device by selecting those commands from the listing of controllable functions that are appropriate for commanding functional operations of the at least one controllable appliance listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and mapping those commands to one or more command keys of the controlling device whereby, in response to activation of one or more of said command keys of the controlling device, the controlling device will be caused to transmit to the at least one controllable device (12, 14, 54, 16, 56, 58), via a second communication channel, those commands selected from the listing of controllable functions that are appropriate for commanding functional operations of the at least one controllable appliance (12, 14, 54, 16, 56, 58). receiving at the controlling device from the at least one controllable appliance (12, 14, 54, 16, 56, 58), via a first communication channel, data indicative of an identity of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and a listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58); using the data indicative of the identity of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and the listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58) to configure the controlling device by selecting those commands from the listing of controllable functions that are appropriate for commanding functional operations of the at least one controllable appliance listing of controllable functions of the at least one controllable appliance (12, 14, 54, 16, 56, 58) and mapping those commands to one or more command keys of the controlling device whereby, in response to activation of one or more of said command keys of the controlling device, the controlling device will be caused to transmit to the at least one controllable device (12, 14, 54, 16, 56, 58), via a second communication channel, those commands selected from the listing of controllable functions that are appropriate for commanding functional operations of the at least one controllable appliance (12, 14, 54, 16, 56, 58).
An information exchange device, comprising: a structural mounting component (120, 150) that is non-fixedly attached to an outer surface of a rotatable customer replaceable unit (110, 140) for use in a device, a structure of the rotatable customer replaceable unit limiting axial movement of the structural mounting component (120, 150) along a body of the rotatable customer replaceable unit (110, 140), and the structural mounting component (120, 150) being free to rotate independent of a rotation of the rotatable customer replaceable unit (110, 140), the structural mounting component (120, 150) comprising a circumferential, ring-shaped band formed of a flexible material; a structural projection component (125,155) that is at least one of formed on or attached to the structural mounting component (120, 150) and that projects in a direction away from the outer surface of the rotatable customer replaceable unit (110, 140), tangent to the ring-shaped band, the structural projection component (125,155) being configured to cooperate with a fixed structure in the device to arrest rotation of the structural mounting component (120, 150) while leaving the customer replaceable unit (110, 140) free to continue to rotate in operation in the device; and an electronically-readable monitoring module mounted to the structural mounting component (120, 150) that establishes data communication with a reader unit in the device when the rotatable customer replaceable unit (110, 140) is installed in the device for use. a structural mounting component (120, 150) that is non-fixedly attached to an outer surface of a rotatable customer replaceable unit (110, 140) for use in a device, a structure of the rotatable customer replaceable unit limiting axial movement of the structural mounting component (120, 150) along a body of the rotatable customer replaceable unit (110, 140), and the structural mounting component (120, 150) being free to rotate independent of a rotation of the rotatable customer replaceable unit (110, 140), the structural mounting component (120, 150) comprising a circumferential, ring-shaped band formed of a flexible material; a structural projection component (125,155) that is at least one of formed on or attached to the structural mounting component (120, 150) and that projects in a direction away from the outer surface of the rotatable customer replaceable unit (110, 140), tangent to the ring-shaped band, the structural projection component (125,155) being configured to cooperate with a fixed structure in the device to arrest rotation of the structural mounting component (120, 150) while leaving the customer replaceable unit (110, 140) free to continue to rotate in operation in the device; and an electronically-readable monitoring module mounted to the structural mounting component (120, 150) that establishes data communication with a reader unit in the device when the rotatable customer replaceable unit (110, 140) is installed in the device for use.
A selectively hydrogenated, semi-crystalline block copolymer comprising at least one A block and at least one B block wherein the A block is a hydrogenated block of polymerized 1,3-butadiene having a vinyl content of 20% or less and having a peak true molecular weight (Mp) of greater than 15 kg/mol to 80 kg/mol, measured according to ASTM D5296, and the B block is a copolymer block of conjugated diene and mono vinyl aromatic monomer units, wherein the B block is a controlled distribution copolymer block of conjugated diene and mono vinyl aromatic monomer units wherein i. the polymerized conjugated diene monomer units are hydrogenated to a level of 90 mol% or greater and between 0 and 10 mol% of the aromatic double bonds present in the polymerized mono vinyl aromatic monomer units are hydrogenated; ii. the amount of polymerized mono vinyl aromatic is between 10 wt% and 55 wt.%; and iii. the mono vinyl aromatic blockiness is less than 40%, wherein the mono vinyl aromatic blockiness is measured as disclosed in the description. i. the polymerized conjugated diene monomer units are hydrogenated to a level of 90 mol% or greater and between 0 and 10 mol% of the aromatic double bonds present in the polymerized mono vinyl aromatic monomer units are hydrogenated; ii. the amount of polymerized mono vinyl aromatic is between 10 wt% and 55 wt.%; and iii. the mono vinyl aromatic blockiness is less than 40%, wherein the mono vinyl aromatic blockiness is measured as disclosed in the description.