Mccue Corporation

Reynolds Consumer Products Inc.

Pactiv Corporation

Brent L Hild

David S McCue

Teodoro A Mesa

Thomas C Fitch

Daniel B Ballou

William P Belias

Steven Floyd Nielsen

Adam P Stevens

Genesis J McDermott

Timothy David Stratford

James F McKeever

Sandra K Jauron

Cast-film process for making a fiber-reinforced film is disclosed. The process includes providing at least a first thermoplastic resin, melting the at least first thermoplastic resin, extruding the at least first thermoplastic resin through a first extension die to form a first thermoplastic film, providing at least a second thermoplastic resin, melting the at least second thermoplastic resin, extruding the at least second thermoplastic resin through a second extension die to form a second thermoplastic film, transporting the first and second thermoplastic films along respective casting rollers, and introducing a plurality of fibers between the first and second thermoplastic films so as to form a fiber-reinforced film having a thickness between about 0.2 mil to about 2.0 mils and having a first thermoplastic layer, a second thermoplastic layer, and a plurality of fibers dispersed therebetween. Cast-film process for making a fiber-reinforced bag is also disclosed.

Fiber-reinforced film processes and films

A blown-film process for making a fiber-reinforced film comprises providing and melting at least one thermoplastic resin. The at least one thermoplastic resin is extruded through an extension die to form a film bubble. A plurality of fibers is introduced inside of the film bubble. The fibers are distributed inside of the film bubble. The film bubble is collapsed after introducing the plurality of fibers so as to form a fiber-reinforced film. The fiber-reinforced film has a first thermoplastic layer, a second thermoplastic layer, and a plurality of fibers dispersed therebetween. The film may be formed in a bag.

A freestanding storage station includes a pair of spaced-apart, generally parallel side members and a roof that is supported by the side members. Each side member includes a cross bar, and at least one saddle-shaped, hollow ballast-receiving member that straddles the cross bar and rests on the ground. When filled with ballast, the ballast-receiving members serve to stabilize the storage station relative to the ground and enable the storage station to resist movement due to environmental winds or collision. The ballast-receiving members include a first ballast-receiving portion and a second ballast-receiving portion, and the ballast member straddles the cross bar such that the first ballast-receiving portion resides on an interior-facing side of the cross bar and the second ballast-receiving portion resides on an exterior-facing side of the cross bar.

Ballasted cart storage station

Cart storage station

A bollard assembly includes a bollard, and a load transfer member disposed in the bollard, and a shock absorber disposed within the load transfer member. A fastener extends through the load transfer member and shock absorber, and secures the bollard, load transfer member and shock absorber to a ground surface. The load transfer member adjoins the bollard so as to be disposed between the shock absorber and the bollard, and the load transfer member is configured so that when an impact force is applied to the bollard, the force is transferred from the bollard to the shock absorber via the load transfer member. The deflection is absorbed by the shock absorber so that the anchor remains undeformed and the ground remains undamaged. Moreover, due to the resilience of the shock absorber, the bollard and load transfer member are returned to a normal, upright orientation upon withdrawal of the impact load.

Impact-absorbing anchoring assembly for protective barrier

A bollard assembly is disclosed that includes an elongate hollow bollard having opposed first and second ends, a sidewall extending between the first and second ends, and through hole formed in the side wall. The assembly also includes a sleeve configured to receive and support a lower portion of the bollard, and a hollow cylindrical insert disposed within the lower end of the bollard. A pin protrudes outward from the insert sidewall, extends through the bollard through hole and engages the sleeve, whereby the assembly is retained in an assembled configuration. The bollard includes a prescribed breakaway line along which an upper portion of the bollard can be separated from the lower portion upon sufficient impact. Once the upper portion is broken away, the insert permits the lower portion of the bollard to be removed from the sleeve and replaced with a replacement bollard.

Bollard assembly

Cart corral

Bollard

A plate-mounted bollard which includes an internal impact absorption mechanism that enables the bollard to absorb impact forces greater than conventional plate-mounted bollards. The bollard makes use of a force transfer process that shifts impact forces to areas better able to resiliently absorb the impact without causing damage to the bollard, the impact absorption mechanism, or the ground in which the bollard is installed. The impact absorption mechanism consists of an internal resilient core rod mounted at its proximal end to a base plate which is fixed to the ground. Impact forces are then transferred through an outer shell to the distal or upper end of the internal resilient core. With energy from the impact force being distributed along the maximum length of the resilient core rod, the rod flexes and the full length of the rod is utilized to absorb the impact energy.

Bollard having an impact absorption mechanism

A rigid corner guard protects a corner of a structure from collisions with objects. The corner guard includes a rigid body having a base, an upper end, and a wall extending between the base and the upper end that is configured to surround the corner of the structure. The corner guard also includes a leg structure secured to the rigid body including at least two leg portions adapted to support the rigid body of the corner guard. The separation between the at least two leg portions is at a predetermined distance. The corner guard further includes an adjustment mechanism coupled to the rigid body. The adjustment mechanism is configured to apply a force to the rigid body to flex the rigid body to adjust the predetermined distance for installation of the at least two leg portions. The corner guard is constructed of material with sufficient strength and toughness to withstand collisions with heavier industrial type equipment.

Adjustable rigid corner guard

An adjustable bollard is formed of a rigid post body to absorb impact forces. At least two leg portions support the rigid post body. The distance dimension between the leg portions is adjustable to enable minor variations in the placement of the mounting holes into which the leg portions fit to install the bollard in the ground or floor.

Adjustable bollard

An adjustable bollard protects structures from collisions with objects and limits access to particular areas. The bollard includes a rigid post body and a leg structure secured to the rigid body. The leg structure includes at least two leg portions adapted to support the rigid post body, where the two leg portions are separated by a predetermined distance. The bollard further includes an adjustment mechanism coupled to the rigid body, the two leg portions, or both. The adjustment mechanism is configured to apply a force to the rigid post body to flex the rigid body to adjust the predetermined distance for installation of the at least two leg portions. The bollard is constructed of material with sufficient strength and toughness to withstand collisions with heavier industrial type equipment.

Growing community of inventors

Belmont, MA, United States of America

Brent L Hild