mhurhangee/ep-ind-claims huggingface dataset:
Load compensation device (201, 301, 501, 601, 701, 901) comprising: - an assisted joint (3; 302) configured to be constrained to a support structure (102, 104; 303; 702, 704); - a main rod comprising a proximal end connected to said assisted joint (3; 302), and further comprising a distal end configured to be stressed by an applied load; - an auxiliary rod comprising a first end and a second end, said first end being hinged on said main rod for rotating said auxiliary rod with respect to said main rod, said second end being movable on a plane on which said applied load lies; - an elastic element (310, 910) configured to provide an elastic force which acts between said second end of said auxiliary rod and said distal end of said main rod; Characterised in that, it further comprises: - a regulation system (313; 613) configured to modify a distance between said second end of said auxiliary rod and said assisted joint (3; 302), so as to vary a preloading of said elastic element (310, 910); wherein said elastic element (310, 910) is configured to provide said elastic force based on a kinematic configuration of said load compensation device (201, 301, 501, 601, 701, 901), so as to compensate said applied load in a component thereof which is transverse to said main rod. - an assisted joint (3; 302) configured to be constrained to a support structure (102, 104; 303; 702, 704); - a main rod comprising a proximal end connected to said assisted joint (3; 302), and further comprising a distal end configured to be stressed by an applied load; - an auxiliary rod comprising a first end and a second end, said first end being hinged on said main rod for rotating said auxiliary rod with respect to said main rod, said second end being movable on a plane on which said applied load lies; - an elastic element (310, 910) configured to provide an elastic force which acts between said second end of said auxiliary rod and said distal end of said main rod; - a regulation system (313; 613) configured to modify a distance between said second end of said auxiliary rod and said assisted joint (3; 302), so as to vary a preloading of said elastic element (310, 910);
A system for cannabis stem harvesting configured to specifically separate the leaves and buds from the stem comprising: a frame member; a die member coupled to the frame member; a first rotating cylindrical member coupled to the frame member substantially adjacent to the die member including a first circumferential surface disposed between two ends; a second rotating member coupled to the frame member substantially adjacent to the die member including a second circumferential surface disposed between two ends; the system being characterized in that the die member includes a plurality of orifices disposed within a plate; and in that the two rotating members are oriented and supported by the frame member in a substantially vertical configuration defining a pinch region therebetween as a region across which the first and second circumferential surfaces (662, 682) are in the closest proximity to one another; a rotation system including a motor and power source coupled to the frame member and at least one of the first and second rotating members; and wherein the coupling between the die member and the frame member includes disposing the plurality of orifices within 0.1524 meters (six inches) of the pinch region. a frame member; a die member coupled to the frame member; a first rotating cylindrical member coupled to the frame member substantially adjacent to the die member including a first circumferential surface disposed between two ends; a second rotating member coupled to the frame member substantially adjacent to the die member including a second circumferential surface disposed between two ends; the system being characterized in that the die member includes a plurality of orifices disposed within a plate; and in that the two rotating members are oriented and supported by the frame member in a substantially vertical configuration defining a pinch region therebetween as a region across which the first and second circumferential surfaces (662, 682) are in the closest proximity to one another; a rotation system including a motor and power source coupled to the frame member and at least one of the first and second rotating members; and wherein the coupling between the die member and the frame member includes disposing the plurality of orifices within 0.1524 meters (six inches) of the pinch region.
A method for treating a filter for filtering particulate matter from exhaust gas, the method comprising the steps of: a) containing a dry powder in a reservoir; b) locating a filter in a filter holder, the filter comprising a porous substrate having an inlet face and an outlet face, the inlet face and the outlet face being separated by a porous structure; c) establishing a primary gas flow through the porous structure of the filter by applying a pressure reduction to the outlet face of the filter; d) transferring the dry powder from the reservoir to a spray device located upstream of the inlet face of the filter; e) spraying the dry powder, using the spray device, towards the inlet face of the filter such that the dry powder is entrained in the primary gas flow and passes through the inlet face of the filter to contact the porous structure; and f) monitoring a back pressure of the filter during at least step e) and stopping the spraying of the dry powder towards the inlet face of the filter when: p BP ≥ p target − p offset where, p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure. a) containing a dry powder in a reservoir; b) locating a filter in a filter holder, the filter comprising a porous substrate having an inlet face and an outlet face, the inlet face and the outlet face being separated by a porous structure; c) establishing a primary gas flow through the porous structure of the filter by applying a pressure reduction to the outlet face of the filter; d) transferring the dry powder from the reservoir to a spray device located upstream of the inlet face of the filter; e) spraying the dry powder, using the spray device, towards the inlet face of the filter such that the dry powder is entrained in the primary gas flow and passes through the inlet face of the filter to contact the porous structure; and f) monitoring a back pressure of the filter during at least step e) and stopping the spraying of the dry powder towards the inlet face of the filter when: p BP ≥ p target − p offset where, p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure. p BP is the back pressure of the filter; p target is a pre-determined target back pressure for the filter; and p offset is a pre-chosen offset pressure.
A method for increasing the read range of an electronic communication module within a tire, the method comprising: providing a tire comprising a tread, one or more belts, a carcass with body ply or plies, two beads, and an electronic communication module comprising a radio device; and characterised by applying strain to the tire without abrading the tread, wherein applying strain to the tire is selected from at least one of the following: (a) mounting and unmounting the tire, (b) applying external force to the tire at a location surrounding the electronic communication module, or (c) laterally deflecting the tire, wherein applying strain results in an increase in the read range distance of at least 20%. providing a tire comprising a tread, one or more belts, a carcass with body ply or plies, two beads, and an electronic communication module comprising a radio device; and characterised by applying strain to the tire without abrading the tread, wherein applying strain to the tire is selected from at least one of the following: (a) mounting and unmounting the tire, (b) applying external force to the tire at a location surrounding the electronic communication module, or (c) laterally deflecting the tire,
A piston crank mechanism of an internal combustion engine, comprising: - an upper link whose one end is connected to a piston through a piston pin; - a lower link which is connected to the other end of the upper link through an upper pin and also is connected to a crank pin of a crank shaft; - a control link whose one end is rockably supported at an engine body side and whose other end is connected to the lower link through a control pin, wherein both end portions of the upper pin are supported at a pair of upper-pin pin boss portions formed at one end of the lower link and having a bifurcated shape, and an upper link side pin boss portion of an end portion of the upper link is connected to a middle portion of the upper pin, - an oil supply hole (19, 20) formed so as to open between the pair of upper-pin pin boss portions of the lower link and supplying lubricating oil, which is supplied from the crank pin, toward the upper pin; - an oil storing portion provided at the lower link between the pair of upper-pin pin boss portions so that a bottom side of the upper link side pin boss portion partly sinks in and thus touches the lubricating oil that fills the oil storing portion; and - an oil groove recessed on an end surface of the upper link side pin boss portion from an outer circumferential surface to an inner circumferential bearing hole of the upper link side pin boss portion. - an upper link whose one end is connected to a piston through a piston pin; - a lower link which is connected to the other end of the upper link through an upper pin and also is connected to a crank pin of a crank shaft; - a control link whose one end is rockably supported at an engine body side and whose other end is connected to the lower link through a control pin, - an oil supply hole (19, 20) formed so as to open between the pair of upper-pin pin boss portions of the lower link and supplying lubricating oil, which is supplied from the crank pin, toward the upper pin; - an oil storing portion provided at the lower link between the pair of upper-pin pin boss portions so that a bottom side of the upper link side pin boss portion partly sinks in and thus touches the lubricating oil that fills the oil storing portion; and - an oil groove recessed on an end surface of the upper link side pin boss portion from an outer circumferential surface to an inner circumferential bearing hole of the upper link side pin boss portion.
Apparatus for rocking baby strollers or other devices for babies comprising wheels, comprising a motor with a motor shaft, a drive for directly causing the rocking movement of the stroller based on the rotation of the motor shaft, and a mechanism which is attached to the motor shaft and the drive for transmitting the rotation of the motor shaft to said drive in the form of rocking movement, the drive being suitable for being coupled to a stroller wheel and comprising two facing arms (20, 21) for holding the wheel between them, both arms (20, 21) being movable to move closer to or farther from one another in a direction of movement, for being adapted to the different thicknesses of the wheel, characterized in that the apparatus further comprises a device, by way of a limit switch, and a control unit communicated with the device and the motor, the device being configured for indicating to the control unit that the motor shaft is in a stop position, the control unit being configured for causing the stop of the motor when it detects that the motor shaft is in the stop position, once said stop has been ordered.
A toothbrush comprising: (a) a handle; (b) a head; (c) bristles positioned on the head; (d) a neck joining the handle to the head; and a piezochromic polymer effective to emit an optical signal indicative of brushing force, wherein the piezochromic polymer comprises an electrocyclic ring-opening mechanophore; wherein at least one of the handle, the head, the bristles and the neck comprises the piezochromic polymer; and characterized in that at least a bristle-contacting surface of the head comprises the piezochromic polymer, and the bristles are transparent or translucent such that a color of the bristle-contacting surface of the head is visible. (a) a handle; (b) a head; (c) bristles positioned on the head; (d) a neck joining the handle to the head; and
A test chamber for conditioning air, the test chamber comprising a temperature-insulated test space sealable against an environment for receiving test material, a temperature ranging from -20 °C to +100 °C, preferably from -60 °C to +180 °C, particularly preferably from -80 °C to +300 °C, being able to be produced within the test space, the illumination module being disposed at least partially in the test space and the test space being able to be illuminated by the illumination module, which comprises an illuminant and a socket, characterized in that the illumination module comprises a wall duct made of a tube and another tube or flange and a light conducting device, the other tube or the flange being connected to the tube and being designed in the manner of a telescope guide on the tube so as to be moveable, the wall duct being disposed in a wall surrounding the test space whereby the wall duct extends from an inner side to an outer side of the wall, the light conducting device having a light exit area and a light entry area and being disposed within the wall duct whereby it extends from an inner end to an outer end of the wall duct, the socket being disposed at the outer end and positioning the illuminant at the light entry area, the light exit area being disposed at the inner end, a gap being formed between the wall duct and the light conducting device, the illumination module comprising a sealing device designed in the manner of a plug which is inserted in the wall duct at the inner end, the light conducting device being inserted in such a manner in the plug via a bore that the light conducting device passes through the sealing device and the sealing device seals the light conducting device at the wall duct.
An integrated nuclear reactor system including a double containment structure using liquid nitrogen, comprising: a reactor vessel; a reactor core positioned in the reactor vessel; a steam generator located in the reactor vessel and above the reactor core; a first containment vessel surrounding the reactor vessel with a first space interposed therebetween; a second containment vessel surrounding the first containment vessel with a second space interposed therebetween; and a liquid nitrogen supply unit for supplying liquid nitrogen to the second space. a reactor vessel; a reactor core positioned in the reactor vessel; a steam generator located in the reactor vessel and above the reactor core; a first containment vessel surrounding the reactor vessel with a first space interposed therebetween; a second containment vessel surrounding the first containment vessel with a second space interposed therebetween; and a liquid nitrogen supply unit for supplying liquid nitrogen to the second space.
A device, for use in multicarrier communication, comprising, a receiver, which is configured to receive assignment information indicating resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, allocated to the device according to one of a plurality of resource allocations including: a resource allocation allocating Distributed Virtual Resource Blocks, DVRBs, where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks, PRBs, with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group, RBG, size defined as a number of one or more consecutive resource blocks forming one RBG in a given system bandwidth; and a resource allocation allocating one or more RBGs; and circuitry, which is configured to decode data based on the assignment information. a receiver, which is configured to receive assignment information indicating resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, allocated to the device according to one of a plurality of resource allocations including: a resource allocation allocating Distributed Virtual Resource Blocks, DVRBs, where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks, PRBs, with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group, RBG, size defined as a number of one or more consecutive resource blocks forming one RBG in a given system bandwidth; and a resource allocation allocating one or more RBGs; and a resource allocation allocating Distributed Virtual Resource Blocks, DVRBs, where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks, PRBs, with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group, RBG, size defined as a number of one or more consecutive resource blocks forming one RBG in a given system bandwidth; and a resource allocation allocating one or more RBGs; and circuitry, which is configured to decode data based on the assignment information.
A method for transmitting a User Equipment, UE, (750, 760, 900) specific reference signal sequence at a base station (710, 720, 730) in a wireless communication system, the method comprising: generating the UE specific reference signal sequence based on a pseudo-random sequence ( c ( n)); and transmitting the UE specific reference signal sequence to a UE, wherein the pseudo-random sequence is defined by following equation 1, c n = x 1 n + N C + x 2 n + N C mod 2 x 1 n + 31 = x 1 n + 3 + x 1 n mod 2 x 2 n + 31 = x 2 n + 3 + x 2 n + 2 + x 2 n + 1 + x 2 n mod 2 wherein N C = 1600 and a first m-sequence ( x 1 ( n)) is initialized with x 1 = 1,x 1 ( n) = 0, n = 1,2,...,30, wherein a second m-sequence ( x 2 ( n)) is initialized with k + ⌊ n s / 2 ⌋ + 1 ⋅ 2 n ID + 1 ⋅ 2 16, wherein n s is a slot number within a radio frame, k includes a scrambling identity of the UE specific reference signal sequence (N DRS) and a parameter according to a multiplexing scheme of the UE specific reference signal sequence n RNTI, wherein nRNTI is 0 if the multiplexing scheme is Frequency Division Multiplexing, FDM, for a single-cell multi-user multi input multi output, MIMO, mode transmission, and n ID is an identity configured based on a MIMO transmission mode, and wherein the scrambling identity (N DRS) is transmitted to the UE through a Physical Downlink Control Channel, PDCCH and information on the scrambling identity (N DRS) is included in a Downlink Control Information, DCI, format 2B associated with a Physical Downlink Shared Channel, PDSCH. generating the UE specific reference signal sequence based on a pseudo-random sequence ( c ( n)); and transmitting the UE specific reference signal sequence to a UE, wherein the pseudo-random sequence is defined by following equation 1, c n = x 1 n + N C + x 2 n + N C mod 2 x 1 n + 31 = x 1 n + 3 + x 1 n mod 2 x 2 n + 31 = x 2 n + 3 + x 2 n + 2 + x 2 n + 1 + x 2 n mod 2 wherein N C = 1600 and a first m-sequence ( x 1 ( n)) is initialized with x 1 = 1,x 1 ( n) = 0, n = 1,2,...,30, wherein a second m-sequence ( x 2 ( n)) is initialized with k + ⌊ n s / 2 ⌋ + 1 ⋅ 2 n ID + 1 ⋅ 2 16, wherein n s is a slot number within a radio frame, k includes a scrambling identity of the UE specific reference signal sequence (N DRS) and a parameter according to a multiplexing scheme of the UE specific reference signal sequence n RNTI, wherein nRNTI is 0 if the multiplexing scheme is Frequency Division Multiplexing, FDM, for a single-cell multi-user multi input multi output, MIMO, mode transmission, and n ID is an identity configured based on a MIMO transmission mode, and wherein the scrambling identity (N DRS) is transmitted to the UE through a Physical Downlink Control Channel, PDCCH and information on the scrambling identity (N DRS) is included in a Downlink Control Information, DCI, format 2B associated with a Physical Downlink Shared Channel, PDSCH.
A device for treating water to be purified, more specifically fresh water, salt water, or brackish water, in particular for the purpose of desalinating water to be purified, said device having at least two filtering units and a reverse osmosis unit, wherein the reverse osmosis unit is placed centrally between the two filtering units and the filtering units are flange-mounted on either side of the reverse osmosis unit in a mirror-inverted manner, wherein the water to be purified or the water that has been filtered by another filter passes, in the flow direction, through a first filtering unit which serves for producing filtered water, wherein the filtered water may be separated into concentrated water and ultrapure water by means of the reverse osmosis unit, characterised in that the concentrated water passes, in a backward direction, through the mirror-symmetrically disposed second filtering unit which is arranged downstream of the reverse osmosis unit when considered in the flow direction, and in that the flow direction in the reverse osmosis unit and in the filtering units may be inverted, such that the second filtering unit is charged by a filtering of the water to be purified and the first filtering unit is flushed clear.
A method of controlling a field device in a control system, the method comprising: providing a memory device including at least one proscribed period; monitoring the field device; detecting an occurrence of a diagnostic event associated with the field device; formulating a diagnostic check of the field device in response to the occurrence of the diagnostic event; determining whether execution of the diagnostic check will occur during the at least one proscribed period; executing the diagnostic check if the diagnostic check will not occur during the at least one proscribed period; and rescheduling execution of the diagnostic check if the diagnostic check will occur during the at least one proscribed period. providing a memory device including at least one proscribed period; monitoring the field device; detecting an occurrence of a diagnostic event associated with the field device; formulating a diagnostic check of the field device in response to the occurrence of the diagnostic event; determining whether execution of the diagnostic check will occur during the at least one proscribed period; executing the diagnostic check if the diagnostic check will not occur during the at least one proscribed period; and rescheduling execution of the diagnostic check if the diagnostic check will occur during the at least one proscribed period.