mhurhangee/ep-ind-claims huggingface dataset:
A baler with an open throat intake, wherein the open throat intake includes: a pickup for picking up crop material from the ground and supplying it to an inlet of the baler, wherein the pickup is wider than at least one side of the inlet; a lower roller downstream of the pickup and prior to the inlet and extending across the inlet; an upper roller prior to the inlet extending across the inlet and located above the lower roller; wherein at least the lower roller includes auger flighting (16A, 16B) on portions coinciding with an outward side of the pickup; wherein the lower and upper rollers are spaced apart to provide an opening prior to the inlet for crop material to pass through, and the lower and upper rollers are configured to rotate in contrary directions to draw material from the pickup toward the inlet; characterised by: at least one retainer plate, associated with at least the lower roller, mounted across the auger flighting (16A, 16B) of at least the lower roller; and wherein an edge of the at least one retainer plate is arranged approximately perpendicularly to the auger flighting of the lower roller to move material in an axial direction thereof. a pickup for picking up crop material from the ground and supplying it to an inlet of the baler, wherein the pickup is wider than at least one side of the inlet; a lower roller downstream of the pickup and prior to the inlet and extending across the inlet; an upper roller prior to the inlet extending across the inlet and located above the lower roller; wherein at least the lower roller includes auger flighting (16A, 16B) on portions coinciding with an outward side of the pickup; wherein the lower and upper rollers are spaced apart to provide an opening prior to the inlet for crop material to pass through, and the lower and upper rollers are configured to rotate in contrary directions to draw material from the pickup toward the inlet; characterised by: at least one retainer plate, associated with at least the lower roller, mounted across the auger flighting (16A, 16B) of at least the lower roller; and wherein an edge of the at least one retainer plate is arranged approximately perpendicularly to the auger flighting of the lower roller to move material in an axial direction thereof. at least one retainer plate, associated with at least the lower roller, mounted across the auger flighting (16A, 16B) of at least the lower roller; and wherein an edge of the at least one retainer plate is arranged approximately perpendicularly to the auger flighting of the lower roller to move material in an axial direction thereof.
Apparatus (1; 101; 201; 301) for wrapping a palletized load with a plastic film, the palletized load having a base and a top, comprising a platform (3; 203; 303) for supporting the palletized load, a wrapping head (4; 204; 304) for distributing the plastic film, which is wrapped, with a relative substantially rotating-translating motion, around the side walls of the palletized load, a pressing device (6; 106; 206; 306), provided with a rotating cover (61; 161; 261; 361) adapted to be laid, with a suitable laying strength, on the top during the wrapping of the palletized load, characterised in that it comprises actuating means (12, 17; 112, 117; 252; 352) to modify the angular position of the cover (61; 161; 261; 361) with respect to the angular position of the platform (3; 203; 303), based on vertical displacements of the wrapping head (4; 204; 304) between the base and the top of the load.
A method for transmitting system information for the Narrowband Internet of Things, NB-IoT, carried out by a wireless communication node, comprising: configuring K transmission windows within a scheduling window, wherein each of the K transmission windows comprises a plurality of subframes; determining L transmission windows from the K transmission windows; determining Q subframes from the L transmission windows; and using the Q subframes to broadcast a first system information broadcast, SIB1, message, wherein L is an integer greater than 0 and less than or equal to K, and K and Q are each integers greater than 1; characterized in that when operating under a non-in-band mode, a size of the scheduling window does not exceed the size of a scheduling window when operating under an in-band mode, and a size of the transmission window does not exceed the size of a transmission window when operating under an in-band mode. configuring K transmission windows within a scheduling window, wherein each of the K transmission windows comprises a plurality of subframes; determining L transmission windows from the K transmission windows; determining Q subframes from the L transmission windows; and using the Q subframes to broadcast a first system information broadcast, SIB1, message, wherein L is an integer greater than 0 and less than or equal to K, and K and Q are each integers greater than 1; characterized in that when operating under a non-in-band mode, a size of the scheduling window does not exceed the size of a scheduling window when operating under an in-band mode, and a size of the transmission window does not exceed the size of a transmission window when operating under an in-band mode.
A rotor assembly for an axial magnetic bearing comprising: - a shaft portion, and - a disc attached to the shaft portion and suitable for operating as a part of an axial magnetic bearing, the disc comprising an aperture for the shaft portion, characterized in that: - the disc comprises a conical surface on a portion reaching radially from the aperture of the disc a distance away from the aperture of the disc, and - the rotor assembly further comprises a fastening mechanism comprising an aperture for the shaft portion so that the fastening mechanism comprises a conical surface matching the conical surface of the disc and being free from mechanical contacts with the shaft portion, and - the fastening mechanism and the shaft portion are shaped to enable the fastening mechanism to be tightened axially against the conical surface of the disc so as to arrange the conical surface of the fastening mechanism to press the conical surface of the disc towards a center line of the shaft portion, the fastening mechanism directing axial force to the shaft when being tightened axially against the conical surface of the disc. - a shaft portion, and - a disc attached to the shaft portion and suitable for operating as a part of an axial magnetic bearing, the disc comprising an aperture for the shaft portion, - the disc comprises a conical surface on a portion reaching radially from the aperture of the disc a distance away from the aperture of the disc, and - the rotor assembly further comprises a fastening mechanism comprising an aperture for the shaft portion so that the fastening mechanism comprises a conical surface matching the conical surface of the disc and being free from mechanical contacts with the shaft portion, and - the fastening mechanism and the shaft portion are shaped to enable the fastening mechanism to be tightened axially against the conical surface of the disc so as to arrange the conical surface of the fastening mechanism to press the conical surface of the disc towards a center line of the shaft portion, the fastening mechanism directing axial force to the shaft when being tightened axially against the conical surface of the disc.
Use of an aqueous colorant preparation for colouring of thermoplastic polymers, wherein the aqueous colorant preparation comprises a) 1% by weight to 49% by weight of dispersing additive with a mass loss of the pure dispersing additive in dried form of not more than 15% by weight, preferably 0.1 to 10% by weight, more preferably 0.5 to 7% by weight, even more preferably 0.5 to 5% by weight and especially preferably 1 to 4% by weight in isothermal thermogravimetric analysis at 260°C for 60 min, b) 0.5% by weight to 50% by weight of an organic soluble dye and c) 0% by weight to 50% by weight of assistants, and d) 0% by weight to 98.5% by weight of water, preferably demineralized water, where the portions by weight of components a) to d) add up to 100% by weight; and • a high molecular weight copolymer comprising at least maleic anhydride, styrene and an amino polyether as monomer units; or • a copolymer of methacrylic acid with hydrophobic methacrylate; or • copolymers of polyethers, preferably ethylene oxide, propylene oxide and/or butylene oxide, and styrene oxide is used as dispersing additive, wherein the organic soluble dye is an anthrapyrimidine, quinophthalone, perinone or monoazo dye, and the mass loss of the pure dispersing additive is determined in dried form by means of a thermobalance with a heating rate of 5 K/min up to 260°C and subsequent isothermal analysis at 260°C for 60 min, wherein the dispersing additive is not conditioned prior to the measurement but is dried to constant mass in a drying oven; and the determination of the mass loss of a bead polymer is conducted on the solid bead polymer. a) 1% by weight to 49% by weight of dispersing additive with a mass loss of the pure dispersing additive in dried form of not more than 15% by weight, preferably 0.1 to 10% by weight, more preferably 0.5 to 7% by weight, even more preferably 0.5 to 5% by weight and especially preferably 1 to 4% by weight in isothermal thermogravimetric analysis at 260°C for 60 min, b) 0.5% by weight to 50% by weight of an organic soluble dye and c) 0% by weight to 50% by weight of assistants, and d) 0% by weight to 98.5% by weight of water, preferably demineralized water, where the portions by weight of components a) to d) add up to 100% by weight; and • a high molecular weight copolymer comprising at least maleic anhydride, styrene and an amino polyether as monomer units; or • a copolymer of methacrylic acid with hydrophobic methacrylate; or • copolymers of polyethers, preferably ethylene oxide, propylene oxide and/or butylene oxide, and styrene oxide • a high molecular weight copolymer comprising at least maleic anhydride, styrene and an amino polyether as monomer units; or • a copolymer of methacrylic acid with hydrophobic methacrylate; or • copolymers of polyethers, preferably ethylene oxide, propylene oxide and/or butylene oxide, and styrene oxide
An edging method comprising changing an incident angle (θ) of a slab with respect to a pair of edging means that are disposed on a conveyance line of the slab and that edge the slab based on information relating to the slab acquired at at least one of prior to edging or after edging, wherein: the information includes (i) a temperature distribution across a width direction of the slab prior to edging, or (ii) a camber of the slab after edging, or (iii) a slab thickness variation across a width direction of the slab at at least one of prior to edging or after edging, or (iv) a variation between coefficients of friction of both lateral faces in a width direction of the slab with respect to the edging means prior to edging; and the incident angle (θ) of the slab is changed according to the temperature distribution, the camber of the slab, the slab thickness variation, or the variation between the coefficients of friction. the information includes (i) a temperature distribution across a width direction of the slab prior to edging, or (ii) a camber of the slab after edging, or (iii) a slab thickness variation across a width direction of the slab at at least one of prior to edging or after edging, or (iv) a variation between coefficients of friction of both lateral faces in a width direction of the slab with respect to the edging means prior to edging; and (i) a temperature distribution across a width direction of the slab prior to edging, or (ii) a camber of the slab after edging, or (iii) a slab thickness variation across a width direction of the slab at at least one of prior to edging or after edging, or (iv) a variation between coefficients of friction of both lateral faces in a width direction of the slab with respect to the edging means prior to edging; and the incident angle (θ) of the slab is changed according to the temperature distribution, the camber of the slab, the slab thickness variation, or the variation between the coefficients of friction.
Device for identifying and tracking an object which is transported between an originating location and a destination location, the device having at least one camera and being configured to identify the object using the at least one camera and to track the transport of the object from the originating location as far as the destination location without gaps, characterized in that an analysis region in which an identification of the object can take place is settable for at least one of the cameras; and in that the device is furthermore configured, by way of the result of a gesture recognition that recognizes one or more specific body parts of a person, to delimit the analysis region to the region of the recognized gesture for the at least one camera, the identification of the object being initiated by the gesture recognition. the device having at least one camera and being configured to identify the object using the at least one camera and to track the transport of the object from the originating location as far as the destination location without gaps, characterized in that an analysis region in which an identification of the object can take place is settable for at least one of the cameras; and in that the device is furthermore configured, by way of the result of a gesture recognition that recognizes one or more specific body parts of a person, to delimit the analysis region to the region of the recognized gesture for the at least one camera, the identification of the object being initiated by the gesture recognition.
An aerodynamic control device, comprising: a body defining a control surface; at least one pneumatic motor carried by the body, the at least one pneumatic motor comprising a general U-shaped, sealed chamber, and at least one port configured to provide access into/out of the sealed chamber, wherein the at least one pneumatic motor is positioned with respect to the control surface such that pressurizing the sealed chamber via the port results in a change in configuration of at least a portion of the control surface, characterized in that the at least one pneumatic motor includes three or more pneumatic motors, and in that the body defines a cavity configured to house the three or more pneumatic motors in a side-by-side configuration. a body defining a control surface; at least one pneumatic motor carried by the body, the at least one pneumatic motor comprising a general U-shaped, sealed chamber, and at least one port configured to provide access into/out of the sealed chamber, wherein the at least one pneumatic motor is positioned with respect to the control surface such that pressurizing the sealed chamber via the port results in a change in configuration of at least a portion of the control surface,
A system for transferring data from a wireless network of a vehicle, with a first station for covering a first wireless network secured by encryption, a second station for covering a second wireless network and a mobile device for connecting to the wireless networks (21, 24), wherein the first station is provided in the vehicle, wherein access data for the connection to the two wireless networks (21, 24) are contained in the mobile device, and wherein the vehicle contains data which are transmitted from the first station to the mobile device and from there to the second station, characterized in that the mobile device detects the second station with the wireless network and only then are the data transmitted from the vehicle via the first station to the mobile device and from there to the second station.
Device for electrically heating a flow of air circulating inside a motor vehicle heating, ventilation and/or air conditioning installation, comprising: - a heating unit through which the flow of air passes and comprising at least one heating element comprising a first end and a second end, - a control module controlling operation of the heating element, the said module being housed inside a housing, and - connecting means for mechanical connection between the heating element and the housing, characterized in that the said connecting means are interposed only between the first end of the heating element and the housing, these connecting elements covering the first end of the heating element. - a heating unit through which the flow of air passes and comprising at least one heating element comprising a first end and a second end, - a control module controlling operation of the heating element, the said module being housed inside a housing, and - connecting means for mechanical connection between the heating element and the housing, characterized in that the said connecting means are interposed only between the first end of the heating element and the housing, these connecting elements covering the first end of the heating element.
A gauge hanger for deployment in a wellbore using a setting tool, the gauge hanger comprising: a switchable magnet (32, 34) for attaching the gauge hanger to a wellbore wall; and a coupling assembly for coupling the gauge hanger to the setting tool; wherein the switchable magnet (32, 34) and the coupling assembly are arranged to be actuated by a common actuator. a switchable magnet (32, 34) for attaching the gauge hanger to a wellbore wall; and a coupling assembly for coupling the gauge hanger to the setting tool; wherein the switchable magnet (32, 34) and the coupling assembly are arranged to be actuated by a common actuator.
A hand-held powered hammer comprising: a hammer housing; a spindle rotatably mounted within the housing; a hammering mechanism (24, 28, 32) for generating repeated impacts on a tool or bit mounted at the forward end of the spindle; a spindle lock arrangement, comprising at least one spindle lock tooth, which arrangement is mounted within the housing; and a set of teeth arranged for rotation with the spindle; wherein the hammer has at least two modes including a first mode in which the spindle is rotatable within the housing and a second mode in which the set of teeth engage the spindle lock tooth or teeth so as to lock the spindle against rotation within the housing; characterised in that the spindle lock arrangement comprises a resilient synchronising element (72, 74, 92) positioned to engage the set of teeth before the spindle lock tooth or teeth engage the set of teeth on movement from the first mode to the second mode so as to bring the set of teeth into meshing alignment with spindle lock tooth or teeth. a hammer housing; a spindle rotatably mounted within the housing; a hammering mechanism (24, 28, 32) for generating repeated impacts on a tool or bit mounted at the forward end of the spindle; a spindle lock arrangement, comprising at least one spindle lock tooth, which arrangement is mounted within the housing; and a set of teeth arranged for rotation with the spindle;
A method for identifying discrepancies in digital map data, comprising: selecting one or more candidate locations as a subset of locations within positional data relating to the movement of a plurality of devices with respect to time in an area (110,120); allocating each of the candidate locations to one or more predetermined categories based upon a distribution of travel directions of the devices at each candidate location; and comparing the candidate locations against a database of map data and identifying locations of possible discrepancies in the digital map data based upon the category of each candidate location (150,160); characterised in that the method further comprises: determining the distribution of travel directions as a directional histogram, wherein the allocating is based upon the directional histogram. selecting one or more candidate locations as a subset of locations within positional data relating to the movement of a plurality of devices with respect to time in an area (110,120); allocating each of the candidate locations to one or more predetermined categories based upon a distribution of travel directions of the devices at each candidate location; and comparing the candidate locations against a database of map data and identifying locations of possible discrepancies in the digital map data based upon the category of each candidate location (150,160); characterised in that the method further comprises: determining the distribution of travel directions as a directional histogram, wherein the allocating is based upon the directional histogram.
Pressure-sensitive adhesive strip which is redetachable without residue or destruction by extensive stretching substantially within the bond plane, comprising a carrier layer with layers of adhesive applied on both sides, the layers of adhesive each consisting of a pressure-sensitive adhesive which is constructed on the basis of vinylaromatic block copolymers and tackifying resins, with selection to an extent of at least 75% by weight (based on the total resin content) of a resin having a DACP (diacetone alcohol cloud point) of greater than -20°C, preferably greater than 0°C, determined as per test method "DACP" in the description, and a softening temperature (ring & ball according to ASTM E28) of not less than 70°C, preferably not less than 100°C, where the pressure-sensitive adhesive has been foamed, the foaming having been brought about by expanded microballoons, and where the carrier layer is based on polyurethane and has an elongation at break of at least 100%, determined as per test method "Elongation at break" in the description.
Openwork prosthetic knit made from a single piece based on at least a first yarn made of biocompatible polymer material that defines a first face and a second face that are opposite one another and on a second biocompatible yarn that generates barbs that protrude outwards from at least said first face, said first face comprising at least one zone in which it is provided with said barbs and at least one zone in which it is free of such barbs, said second yarn being a heat-fusible monofilament yarn, characterized in that said first yarns have a melting point strictly above that of said second yarn, and the barb-free zone comprises melted barbs no longer protruding outward from the first face of the knit.
A method for making an insert, comprising the steps of: a. extruding a thermoplastic material to form a first column structure having a first profile; b. extruding a thermoplastic material to form a second column having a second profile that is different from the first profile; c. connecting the first column structure to the second column structure with a connector device so that the connector device is shaped to receive the first profile of the first column structure and the second profile of the second column structure, d. locating the insert into a cavity of an automotive vehicle for structurally reinforcing the cavity, characterized in, that the activatable material is located onto at least one internal wall of the one or more column structures. a. extruding a thermoplastic material to form a first column structure having a first profile; b. extruding a thermoplastic material to form a second column having a second profile that is different from the first profile; c. connecting the first column structure to the second column structure with a connector device so that the connector device is shaped to receive the first profile of the first column structure and the second profile of the second column structure, d. locating the insert into a cavity of an automotive vehicle for structurally reinforcing the cavity,