mhurhangee/ep-ind-claims huggingface dataset:
A pallet for the support and transport of a non-vulcanised tyre, including: - a base element for the resting of said pallet on the floor; - a seat obtained on said base element adapted to house said tyre; - a support element comprising a portion made of flexible sheet material suitable adapted to define a support surface for said tyre; characterised in that: - said support element is reversibly housed in said seat, - said seat comprising first connection means, - said support element comprising second connection means (210, 211) adapted to engage reversibly with said first connection means to fix said portion made of flexible sheet material, wherein said flexible sheet material of said portion has non-stick properties with respect to the surface of said non-vulcanized tyre. - a base element for the resting of said pallet on the floor; - a seat obtained on said base element adapted to house said tyre; - a support element comprising a portion made of flexible sheet material suitable adapted to define a support surface for said tyre; - said support element is reversibly housed in said seat, - said seat comprising first connection means, - said support element comprising second connection means (210, 211) adapted to engage reversibly with said first connection means to fix said portion made of flexible sheet material, wherein said flexible sheet material of said portion has non-stick properties with respect to the surface of said non-vulcanized tyre.
An extended nip roll capable of forming a press nip with a counter roll, which press nip has an extension in a machine direction when the extended nip roll cooperates with the counter roll, the extended nip roll comprising: a flexible jacket with an interior surface and an exterior surface; a press body arranged inside the flexible jacket, the press body being elastically deformable and having a top side that faces the interior surface of the flexible jacket, a part of the top side being a working surface which is the part of the top side that acts against the counter roll to form a press nip when the extended nip roll cooperates with the counter roll to form a press nip, the top side of the press body being beveled in such a way that, in the machine direction, the working surface of the top side has a downstream end which, in the machine direction, is followed by an exit side surface that diverges from the interior surface of the flexible jacket, the press body further having at least a first and a second internal pressure chamber (18, 19) which internal pressure chambers (18, 19) can be pressurized such that the press body expands, the first internal pressure chamber having an extension in the machine direction that does not extend beyond the working surface and the second internal pressure chamber being located downstream of the first internal pressure chamber and having an extension in the machine direction beyond the downstream end of the working surface; a support for the press body which support provides support to sides of the press body but allows the press body to expand in a direction towards the interior surface of the flexible jacket, wherein the second internal pressure chamber has such an extension in the machine direction that more than 30% of the extension extends beyond the downstream end of the working surface and in that the working surface and the exit side surface are made of a material that has a higher shore A hardness than the material in the rest of the press body.
A production method for on-line improving precipitation strengthening effect of Ti microalloyed hot-rolled high-strength steel, comprising: casting a molten steel with microalloying element Ti added to obtain an ingot; heating the ingot at a temperature of ≥1200°C and a soaking time of ≥60 minutes; after heating the ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil, wherein the rough rolling is performed at a temperature of 1000-1200 ° C, wherein 3-8 passes of reciprocating rolling are performed, and a cumulative deformation is ≥50%, and wherein the finish rolling is performed with 6-7 passes of continuous rolling, wherein a cumulative deformation is ≥80%, and a final rolling temperature is 800-900 °C; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of on-line insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the microalloying element Ti has a content of 0.03-0.1 0wt-%; the coiling is performed at a temperature of 500 - 700 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the on-line insulating time is ≥60 minutes; and wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure. casting a molten steel with microalloying element Ti added to obtain an ingot; heating the ingot at a temperature of ≥1200°C and a soaking time of ≥60 minutes; after heating the ingot, subjecting it to rough rolling, finish rolling, laminar cooling and coiling to obtain a hot-rolled coil, wherein the rough rolling is performed at a temperature of 1000-1200 ° C, wherein 3-8 passes of reciprocating rolling are performed, and a cumulative deformation is ≥50%, and wherein the finish rolling is performed with 6-7 passes of continuous rolling, wherein a cumulative deformation is ≥80%, and a final rolling temperature is 800-900 °C; after unloading the coil, covering the coil on-line with an insulating enclosure and moving it into a steel coil warehouse along with a transport chain; after a specified period of on-line insulating time, removing the coil from the insulating enclosure, and cooling it to room temperature in air, wherein the microalloying element Ti has a content of 0.03-0.1 0wt-%; the coiling is performed at a temperature of 500 - 700 °C; said covering on-line with an insulating enclosure means each hot-rolled coil is individually covered with an independent, closed insulating enclosure unit within 60 minutes after unloading; the on-line insulating time is ≥60 minutes; and wherein the steel coil is cooled at a cooling rate of ≤15 °C/hour in the insulating enclosure.
A method of wireless communication performed by a user equipment, comprising: receiving an information block from a first base station, the first base station being in a dormant state, while camped on a second base station, the information block comprising an indication of a random access configuration for performing at least a part of a random access procedure; determining to reselect to the first base station from the second base station; receiving system information during the random access procedure, wherein the system information is received in a random access response from the first base station; and performing at least a part of a random access procedure with the first base station based on the random access configuration indicated by the indication that is included in the information block from the first base station to reselect from the second base station to the first base station, the system information indicating a second random access configuration for performing a remaining part of the random access procedure. receiving an information block from a first base station, the first base station being in a dormant state, while camped on a second base station, the information block comprising an indication of a random access configuration for performing at least a part of a random access procedure; determining to reselect to the first base station from the second base station;
Unroller-spreader intended to either spread a cylindrical (Bo) or parallelepipedal (Bp) fodder bale to form a bed or, in the case of a cylindrical bale (Bo), to unroll it on the ground, in feed troughs or to serve to feed animals, such as cattle, the unroller-spreader comprising: - a spreading member, - a bearing means intended to receive a bale (Bo, Bp), - a means for driving the bale (Bo, Bp) that is designed to move it in the direction of the spreading member so that it can be shredded by said spreading member in operation, characterized in that the drive means is provided with movement means designed to move the bale (Bo, Bp) in two opposite directions (F1, F5), one towards the spreading member in order to spread said bale and the other, away from the spreading member, in order to unroll it, the unroller-spreader including a means for retaining the bale (Bo) that prevents it from being unloaded while it is being unrolled. - a spreading member, - a bearing means intended to receive a bale (Bo, Bp), - a means for driving the bale (Bo, Bp) that is designed to move it in the direction of the spreading member so that it can be shredded by said spreading member in operation,
A laparoscopic device comprising: a handle; a shaft extending distally from the handle, the shaft defining a longitudinal axis; a flexible member slidably disposed within the shaft and movable relative thereto between a retracted position and an extended position; and a sensor supported by the flexible member, wherein the flexible member is a flexible circuit and the flexible member is configured to flex, when in the extended position, upon application of pressure thereto to limit an amount of pressure applied by laparoscopic device. a handle; a shaft extending distally from the handle, the shaft defining a longitudinal axis; a flexible member slidably disposed within the shaft and movable relative thereto between a retracted position and an extended position; and a sensor supported by the flexible member, wherein the flexible member is a flexible circuit and the flexible member is configured to flex, when in the extended position, upon application of pressure thereto to limit an amount of pressure applied by laparoscopic device.
A neural interface comprising: at least one C-ring portion (904, 906, 908) for applying a radial pressure in a range of 1 mmHg to 30 mmHg to a target tissue arranged within the C-ring portion (904, 906, 908) and comprising at least one electrode arranged on the at least one C-ring portion (904, 906, 908); a lead body comprising a conductor connectable to an implantable pulse generator, wherein the at least one electrode is electrically coupled to the conductor; at least one anchoring tab coupled to the lead body; characterised in that the at least one anchoring tab comprises a mesh. at least one C-ring portion (904, 906, 908) for applying a radial pressure in a range of 1 mmHg to 30 mmHg to a target tissue arranged within the C-ring portion (904, 906, 908) and comprising at least one electrode arranged on the at least one C-ring portion (904, 906, 908); a lead body comprising a conductor connectable to an implantable pulse generator, wherein the at least one electrode is electrically coupled to the conductor; at least one anchoring tab coupled to the lead body; characterised in that the at least one anchoring tab comprises a mesh.
A method for synchronizing frequency and/or timing in a wireless network, comprising: receiving at a femto node one or more signals from one or more anchor sources; determining that at least one of the one or more signals is received at least at a threshold signal quality; determining whether a difference in a local frequency and/or a local timing is within a threshold difference to respective one of a signal frequency and/or a signal timing determined based on the at least one of the one or more signals; and advertising an anchor status indicating the femto node is an anchor source for synchronizing frequency and/or timing where the difference is within the threshold difference. receiving at a femto node one or more signals from one or more anchor sources; determining that at least one of the one or more signals is received at least at a threshold signal quality; determining whether a difference in a local frequency and/or a local timing is within a threshold difference to respective one of a signal frequency and/or a signal timing determined based on the at least one of the one or more signals; and advertising an anchor status indicating the femto node is an anchor source for synchronizing frequency and/or timing where the difference is within the threshold difference.
Pay-out dispenser equipped with a web-lifting device and allowing the unwinding of a web intended to supply a machine or a production line, the said pay-out dispenser comprising a first reel of a first web and a second reel of a second reserve or standby web and a frame supporting the said reels aligned one behind the other substantially in the same unwinding plane while allowing a space for the passage of the said webs below the said reels, the said pay-out dispenser allowing the connection of the second web with the first web running out at a connection point situated higher than the said passage space and to the rear of the pay-out dispenser on the side of the second reel opposite the side thereof facing the first reel, which pay-out dispenser is characterized in that the lifting device comprises drive means (6, 7), blocking means (8a; 8b), means (8b; 9) for actuating the said drive means, and a lifting spindle extending transversely to the said webs (2, 4) and being able to be moved by the said drive means, in the state of their actuation, so as to carry out an upward travel capable of bringing the first web, by suitable contact of the said spindle with the latter, from a low position situated beneath the said reels, preferably below the second reel, to a high position, corresponding to the connection point, with retention, by virtue of the said blocking means, in the latter position.
A soft-field tomography measurement system comprising: a plurality of transducers configured for positioning proximate a surface of an object, wherein the plurality of transducers correspond to a plurality of channels; an excitation driver coupled to the plurality of channels and configured to generate excitation signals for the plurality of transducers; a single reference excitation source from which excitations are generated; one or more derived excitation sources, wherein one or more of the derived excitation sources derive excitations from the single reference excitation source and the derived excitations are applied to each of the plurality of channels; a response detector configured to measure a response at each of the plurality of transducers; and a reduced bit digitizer in each of the plurality of channels having fewer bits than the number of bits of the single reference excitation source and being configured to digitize a measured response difference between the measured response at one or more of the transducers and at least one of an excitation of the single reference excitation source or an excitation derived from the single reference excitation source or a separate reference. a plurality of transducers configured for positioning proximate a surface of an object, wherein the plurality of transducers correspond to a plurality of channels; an excitation driver coupled to the plurality of channels and configured to generate excitation signals for the plurality of transducers; a single reference excitation source from which excitations are generated; one or more derived excitation sources, wherein one or more of the derived excitation sources derive excitations from the single reference excitation source and the derived excitations are applied to each of the plurality of channels; a response detector configured to measure a response at each of the plurality of transducers; and a reduced bit digitizer in each of the plurality of channels having fewer bits than the number of bits of the single reference excitation source and being configured to digitize a measured response difference between the measured response at one or more of the transducers and at least one of an excitation of the single reference excitation source or an excitation derived from the single reference excitation source or a separate reference.
A method for monitoring and diagnosing a reservoir that comprises: collecting measured near-wellbore data representative of conditions at or near a plurality of wells within the reservoir and storing the measured near-wellbore data in one or more databases; presenting graphically to a user simulated interwell data generated by a reservoir simulation based at least in part on the measured near-wellbore data; overlaying graphically at least some of the measured near-wellbore data over the simulated interwell data; presenting graphically to the user one or more production indicators (270, 272, 274, 276) calculated based at least in part on the simulated interwell data; determining a deviation of at least one production indicator (270, 272, 274, 276) from a reference value; and identifying and presenting to the user a recommended action applicable to one or more of the plurality of wells (240, 242) to correct the deviation, if said deviation exceeds a threshold value, wherein the simulated interwell data includes data near and at a distance from the plurality of wells (240, 242). collecting measured near-wellbore data representative of conditions at or near a plurality of wells within the reservoir and storing the measured near-wellbore data in one or more databases; presenting graphically to a user simulated interwell data generated by a reservoir simulation based at least in part on the measured near-wellbore data; overlaying graphically at least some of the measured near-wellbore data over the simulated interwell data; presenting graphically to the user one or more production indicators (270, 272, 274, 276) calculated based at least in part on the simulated interwell data; determining a deviation of at least one production indicator (270, 272, 274, 276) from a reference value; and identifying and presenting to the user a recommended action applicable to one or more of the plurality of wells (240, 242) to correct the deviation, if said deviation exceeds a threshold value, wherein the simulated interwell data includes data near and at a distance from the plurality of wells (240, 242).
A method for producing a three-dimensionally deformed plate made of a wood fiber material, wherein a) a prefabricated flat original plate made of wood fiber material is subjected to steam, b) the plate is coated with a separating agent c) the plate is deformed in a molding station and d) the plate is hardened by cooling, wherein a wave shape with a wave height comprised between 6.5 and 50 mm is formed in the plate. a) a prefabricated flat original plate made of wood fiber material is subjected to steam, b) the plate is coated with a separating agent c) the plate is deformed in a molding station and d) the plate is hardened by cooling, wherein a wave shape with a wave height comprised between 6.5 and 50 mm is formed in the plate.
Use of an adhesive in particulate form for securing a facing to a main surface of a mineral wool blanket and wherein the use of the adhesive is a use to provide high peel strength whilst permitting the facing to conform to the surface of the mineral wool and retain desired flexibility when securing the facing to the main surface of a mineral wool blanket; and wherein the facing is secured by a method of manufacturing a mineral wool insulating product comprising a mineral wool blanket having a facing secured to one of its main surfaces, the method comprising securing an adhesive coated surface of the facing to one of the main surfaces of the mineral wool blanket by application of heat and pressure wherein the adhesive coated surface of the facing comprises an adhesive in particulate form; and in which the method comprises, sequentially: a) applying the adhesive in particulate form to a major surface of the facing; b) securing the adhesive in particulate form to the major surface of the facing by applying heat to provide the adhesive coated surface of the facing; c) the securing of the adhesive coated surface of the facing to the one of the main surfaces of the mineral wool blanket by application of heat and pressure. and wherein the facing is secured by a method of manufacturing a mineral wool insulating product comprising a mineral wool blanket having a facing secured to one of its main surfaces, the method comprising securing an adhesive coated surface of the facing to one of the main surfaces of the mineral wool blanket by application of heat and pressure wherein the adhesive coated surface of the facing comprises an adhesive in particulate form; and in which the method comprises, sequentially: a) applying the adhesive in particulate form to a major surface of the facing; b) securing the adhesive in particulate form to the major surface of the facing by applying heat to provide the adhesive coated surface of the facing; c) the securing of the adhesive coated surface of the facing to the one of the main surfaces of the mineral wool blanket by application of heat and pressure. a) applying the adhesive in particulate form to a major surface of the facing; b) securing the adhesive in particulate form to the major surface of the facing by applying heat to provide the adhesive coated surface of the facing; c) the securing of the adhesive coated surface of the facing to the one of the main surfaces of the mineral wool blanket by application of heat and pressure.
A service discovery method, wherein the method comprises: 1.1 sending, by a first device, to an access point a service discovery request in a format of a data frame having a frame header portion with addresses and a payload portion including at least a frame body part of a Wi-Fi Direct Service, WFDS, management frame and a packet type indicating the type of the management frame, wherein the service discovery request is used to query, from at least one second device connected to the access point, a service that the first device requests to query; and 1.2 receiving, by the first device, from the access point a service discovery response initially sent by the at least one second device, the service discovery response being in a format of a data frame having a frame header portion with addresses and a payload portion including at least a frame body part of a WFDS management frame and a packet type indicating the type of the management frame, wherein the service discovery response is a response of the at least one second device to the service discovery request. 1.1 sending, by a first device, to an access point a service discovery request in a format of a data frame having a frame header portion with addresses and a payload portion including at least a frame body part of a Wi-Fi Direct Service, WFDS, management frame and a packet type indicating the type of the management frame, wherein the service discovery request is used to query, from at least one second device connected to the access point, a service that the first device requests to query; and 1.2 receiving, by the first device, from the access point a service discovery response initially sent by the at least one second device, the service discovery response being in a format of a data frame having a frame header portion with addresses and a payload portion including at least a frame body part of a WFDS management frame and a packet type indicating the type of the management frame, wherein the service discovery response is a response of the at least one second device to the service discovery request.