Abstract:
A steel-cleated, all terrain tire has cleats that dynamically engage with changing road conditions, across slick ice and bridges, and while turning, breaking and accelerating on steep terrain. The tire design can provide stability and an enormous safety benefit in dangerous conditions, on demand, without the driver's intervention. The tire design can be used for military vehicles and aircraft, commercial jets, turboprop aircraft, heavy equipment, commercial diesel trucks, helicopters, law enforcement vehicles, fire and rescue vehicles, school buses, government vehicles, sport cars, and the like. The tire design include spring loaded cleats that can are spaced about and extend outward from the tire's surface. The spring load may be strong enough to permit the cleat to penetrate ice and the like, while not damaging asphalt or concrete roadways.
Abstract:
The invention relates to a studded air-filled vehicle tire having a rolling direction and comprising a rubber tread with pattern blocks and grooves that separate said blocks. In said tread, there are arranged premade stud holes and in at least part of said stud holes, there are anti-slip studs, having hard cermet pieces of that have a substantially quadrangular shape with diagonal dimensions At least part of the anti-slip studs arranged in the stud holes are orientated so that one of said diagonal dimensions of the hard cermet piece is located in the rolling direction or forms an angle, not larger than the toe-out angle, with respect to the rolling direction.
Abstract:
A steel-cleated, all terrain tire has cleats that dynamically engage with changing road conditions, across slick ice and bridges, and while turning, breaking and accelerating on steep terrain. The tire design can provide stability and an enormous safety benefit in dangerous conditions, on demand, without the driver's intervention. The tire design can be used for military vehicles and aircraft, commercial jets, turboprop aircraft, heavy equipment, commercial diesel trucks, helicopters, law enforcement vehicles, fire and rescue vehicles, school buses, government vehicles, sport cars, and the like. The tire design include spring loaded cleats that can are spaced about and extend outward from the tire's surface. The spring load may be strong enough to permit the cleat to penetrate ice and the like, while not damaging asphalt or concrete roadways.
Abstract:
A method for installing a stud in a tyre. The method includes identifying a stud hole for the stud in the tyre; imaging the vicinity of at least the stud hole, whereby information is received about the pattern in the vicinity of the stud hole, and using the received information to determine [i] the stud type suitable for the stud suitable in the stud hole and/or [ii] the suitable stud orientation of the stud suitable in the stud hole. The method includes providing a stud and installing it in a stud hole. The stud type of the stud is the same as the suitable stud type of a stud suitable in the stud hole; and/or the stud is installed in the stud hole in such a way that the main direction of the stud is parallel with the suitable stud orientation. Further a tyre studded by the method.
Abstract:
A stud pin fitted into a tread portion of a pneumatic tire comprises a buried base portion extending in a direction, the buried base portion securing the stud pin in the tread portion by being pressed by a side surface of the stud pin installation hole upon the stud pin being embedded in the stud pin installation hole, and a tip portion connected to an end portion of the buried base portion in the extending direction, the tip portion protruding past the tread portion and coming into contact with a road surface upon the buried base portion being embedded in the stud pin installation hole. A connection portion of the tip portion with the buried base portion has a cross-sectional area in a plane orthogonal to the extending direction of the buried base portion greater than an area of the tip end surface.
Abstract:
A tire with removable studs for allowing tires to be used year round. The tire with removable studs includes a tire member having an exterior circumferential surface and further having a plurality of boss members being spacedly and integrally disposed upon the exterior circumferential surface; and further includes a plurality of stud-fastening members being securely disposed in the tire member; and also includes a plurality of stud members being removably disposed in the stud-fastening members and extended from the tire member for gripping a road surface.
Abstract:
A traction device including a bit having a penetrating surface for penetrating a riding surface. The penetrating surface defines the cross sectional area of the bit and includes a plurality of facets wherein each facet intersects a common vertex. In a second embodiment, the penetrating surface defines an oval cross section transverse to the direction of penetration into a riding surface, wherein the circumference of the cross section increases as the distance from the tip increases.
Abstract:
Segmented tires employ segments featuring cooperating recesses and protrusions at opposing sides thereof for mating of the segments with one another in the assembled tire body. Cleated tires with embedded cleats of greater rigidity than the tire body material provide improved traction in muddy or other slippery conditions while the compressible tire body smooths out the ride harshness of the tire. Mounting elements are also embedded within the segments of the tire body for secure mounting and reliable retention of the segments.
Abstract:
A studded tire includes stud pins embedded in a road contact surface of a tread portion 1; the rubber composition forming the tread portion containing at least one of natural rubber, styrene-butadiene rubber, and butadiene rubber, from 5 to 50 parts by weight of carbon black and from 5 to 70 parts by weight of silica per 100 parts by weight of the diene rubber; a nitrogen adsorption specific surface area of the carbon black being from 50 to 120 m2/g; a CTAB specific surface area of the silica being from 80 to 190 m2/g; a rubber hardness of the rubber composition being not greater than 60; and a product of a stress at the time of 400% elongation and a bottom surface area of a flange portion on a bottom side of the stud pins being not less than 400 MPa·mm2 and not greater than 850 MPa·mm2.
Abstract:
A bolt assembly provides a reciprocating bolt. The bolt assembly includes a bolt assembly body, a cap affixed to the bolt assembly body, and a base affixed to the bolt assembly body opposite the cap, wherein the bolt assembly body includes a bolt carrier having a cap end disposed proximally to the cap and a bolt receiving end disposed distally from the cap. The bolt assembly also includes a biasing mechanism biasing the bolt carrier in a retracted position relative to the bolt assembly, and an extension actuator including a diaphragm having a center portion disposed between the cap and the bolt assembly body, the center portion of the diaphragm being deflectable to enable the biasing of the bolt carrier in the retracted position, the center portion of the diaphragm being oppositely deflectable to apply an actuation force to the cap end of the bolt carrier so as to move the bolt carrier from the retracted position to an extended position relative to the bolt assembly.