Abstract: Device for scrubbing a metal wire, including means for feeding and running the wire (F), at least two pairs of rotary brushes (21, 22) having a radius r, the axes of which are substantially mutually parallel and perpendicular to the direction in which the wire runs, application means, suitable for contacting the brushes with the wire via the circumferences thereof in order to exert a given pressure on the wire (F) while the device is operating, and means (31, 32) of adjusting the tension of the wire are provided directly upstream and downstream of the assembly of brushes.

Abstract: A tire intended to be mounted on a drop-center rim with a flange height G and a radius of curvature R1 has first and second beads each having an annular reinforcing structure having a radially innermost point, the radial distance between the radially innermost point and the mounting rim being A, and a carcass reinforcement anchored in the two beads by being turned back around the annular reinforcing structure forming, within each bead, a main strand and a turned-back strand, in which the thicknesses EB1 of the first bead and EB2 of the second bead are the distance separating (i) the point on the main strand that is at a distance R from the radially innermost point, where R=G+(R1)/2?A, and (ii) the point on the exterior surface of the bead that is at the distance R from the radially innermost point, and in which |EB1?EB2|?1 mm.

Abstract: The problem addressed by the present invention is to provide a high heat-resistant phthalocyanine. The phthalocyanine is separated by mixing a phthalocyanine separation solvent and a phthalocyanine solution wherein a phthalocyanine starting material is dissolved in a solvent. The phthalocyanine is wherein having high heat resistance, the decomposition temperature of the separated phthalocyanine being at least 10° C. higher than the decomposition temperature of the phthalocyanine starting material. Also, the phthalocyanine solution may be the result of dissolving at least two types of phthalocyanine starting material in the solvent, the separated phthalocyanine being wherein containing a solid solvent of the at least two types of phthalocyanine starting material and by the decomposition temperature of the separated phthalocyanine being at least 10° C.

Abstract: The disclosure relates to a molding element of a mold for molding and vulcanizing a tire tread, this tread comprising a tread surface intended to come into contact with the ground when the said tire is running. The molding element includes a rib for molding a groove in the tire tread, the rib being a rounded end.

Abstract: The present invention includes a method for testing a tire on a tire testing surface, the method comprising the steps of: providing a tire testing surface arranged along a tire testing device; providing a tire having a radially outer annular side comprising a road-engaging surface; engaging forcefully the tire against the tire testing surface, whereby the forceful engagement generates a tire footprint comprising an area of contact between the road-engaging surface of the tire and the tire testing surface; rotating the tire and along the tire testing surface while engaged according to the prior step; and, applying a particulate material along the footprint, the particulate material comprising kaolinite. In other embodiments, particulate material similar to kaolin or kaolinite is employed by such methods in lieu of kaolin or kaolinite.

Abstract: A female contact intended to receive a male contact, the female contact including a base and at least one side wall having a free edge defining an open end, the side wall being connected to the base and including an inner wall, wherein: the female contact includes a helical spring made of an electrically conductive material disposed between the base and the open end; part of the inner wall and the base are made of an electrically conductive material; and the inner wall of the female contact and/or the spring assure/assures electrical contact with a male contact in the position of use.

Abstract: Method for manufacturing a polyurethane foam by microcasting based on MDI (diphenylmethane diisocyanate) and on a polyol with a high ethylene oxide content, having an ethylene oxide content of greater than 50%, in which the following are mixed, under pressure, to form a foaming liquid precursor of polyurethane foam: a first reactive liquid, referred to as liquid A, comprising on the one hand a urethane prepolymer based on a first portion of the MDI and on a first portion of said polyol, and on the other hand the second portion of the MDI in the free state, said prepolymer being dissolved in this second portion of MDI in the free state; with a second reactive liquid, referred to as liquid B, comprising the second portion of said polyol and water as foaming agent, characterized in that the amount of said polyol in the liquid B represents between 25% and 75% by weight of the total of said polyol; this method is advantageously used for casting a polyurethane foam into the cavity of a tyre casing.

Abstract: Tyre comprising an inner liner facing an internal cavity of the tyre, an adhesive layer positioned on the inner liner and a strip of noise-damping foam attached to the inner liner by the adhesive layer, characterized in that the adhesive layer is based on a silanized polyether.

Abstract: The subject invention includes methods and apparatus for joining treads. Such methods include the step of providing a first tread portion and a second tread portion for forming a joined tread, each tread portion comprising a section of tire tread extending lengthwise from a terminal end. Additional steps include providing a first fixture configured to retain the first tread portion and a second fixture configured to retain the second tread portion and securing the first tread portion into the first fixture and securing the second tread portion into the second fixture, each of the first and second fixtures being arranged within the first and second fixtures such that the terminal end of each tread portion is in communication with a joining side of each fixture. The methods further include directing the terminal ends towards each other and into forceful engagement with an elastomeric joining material arranged between the terminal ends.

Abstract: A method of obtaining high clamp force accuracy at a threaded joint mounting process by a power tool includes: registering, during a certain interval of the mounting process, tightening and loosening torques applied on the joint, rotational movement of an output shaft relative to a housing, and housing angular displacements about a rotation axis and in relation to an immobile point; calculating output shaft true rotational movements by comparing its rotational movements relative to the housing with the registered housing angular displacements; comparing the applied tightening and loosening torques during the certain interval to determine a clamp force related tightening torque; relating the determined tightening torque to the calculated output shaft rotational movements to determine a clamp force coefficient of the threaded joint; and completing the mounting process by tightening the joint to a target clamp force level by applying a determined clamp force coefficient based torque.

Abstract: A tire work stand comprises a frame for supporting the work stand on a ground surface and for attaching a set of components to the tire work stand. A plurality of rollers is attached to the frame to support a tire above the ground surface and to permit rotation of a tire during inspection of the tire. A ramp is configured to have a first ramp end capable of extending from the ground surface and a second ramp end extending to a position proximal to the frame. A bridge is configured to have a first bridge end extending from the second ramp end and a second bridge end extending to a position proximal to a surface of at least one of the rollers, wherein the bridge acts to inhibit rotation of the roller during loading of the tire and further permits rotation of the tire after the tire has been loaded on the tire work stand.