Abstract: An improved nuclear shielding material based on a resistant organic matrix that is flexible or resilient after room temperature polymerization, and sufficiently fluid before polymerization so as to effectively fill voids in radiation containment structures. The material can be formulated to undergo pyrolysis and transform into a strong ceramic material. Along with the organic matrix the material contains a primary radiation shielding component such as tungsten carbide powder. Additional optional components include: a neutron absorbing/gamma blocking compound such as boron carbide powder, a heat conducting material such as diamond powder, a high temperature resistant compound such as silicon dioxide powder, a second neutron blocking compound which also imparts electrical conductivity, namely barium sulfate powder, and a hydrogen gas surpassing component which readily absorbs hydrogen such as sponge palladium. Refractory materials and rare earth oxides can be included to favor effective ceramic transition.

Abstract: An improved nuclear shielding material that is flexible so as to effectively fill voids in radiation containment structures. Under very high temperatures the material is designed to undergo pyrolysis and transform into a strong ceramic material. The material contains a number of components, the first of which is a polymeric elastomer matrix such as a two part self-polymerizing system like RTF silicone rubber. Additional components include: a compound to shield gamma radiation like tungsten carbide powder, a neutron absorbing/gamma blocking compound such as boron carbide powder, a heat conducting material such as diamond powder, a high temperature resistant compound such as silicon dioxide powder, a second neutron absorbing compound which also imparts electrical conductivity, namely barium sulfate powder, and a hydrogen gas surpassing component which readily absorbs hydrogen such as sponge palladium.

Abstract: An improved nuclear shielding material that is flexible so as to effectively fill voids in radiation containment structures. Under very high temperatures the material is designed to undergo pyrolysis and transform into a strong ceramic material. The material contains a number of components, the first of which is a polymeric elastomer matrix such as a two part self-polymerizing system like RTF silicone rubber. Additional components include: a compound to shield gamma radiation like tungsten carbide powder, a neutron absorbing/gamma blocking compound such as boron carbide powder, a heat conducting material such as diamond powder, a high temperature resistant compound such as silicon dioxide powder, a second neutron absorbing compound which also imparts electrical conductivity, namely barium sulfate powder, and a hydrogen gas surpassing component which readily absorbs hydrogen such as sponge palladium.

Abstract: A gas spring for a steerable vehicle wheel includes bellows that are supported at one end on a roll-off surface on a wheel carrier, a suspension element, or a part connected therewith, and are fastened at another end on a spring can. The spring can has an inlet opening to which a pressure hose or a pipe is connected. The pressure hose or pipe is arranged in a loop at least in an area above the bottom of the spring can and, during rotating movements of the spring can, is elastically deformed at least in that area.

Abstract: The present invention is a shielding material that resists both nuclear radiation and high temperatures and is especially suited to encasing radioactive waster materials to immobilize them. The material is a mixture comprised of two or more organic polymers in which included fillers are cross-linked within the phenylic side chains of the polymers and copolymers. Other fillers provide radioactive shielding and may be merely included within the cross-linked matrix. The material contains a tough matrix with embedded particles of radiation shielding substances and thermoconductive materials with an overall ceramic-like or ceramometallic properties. The material is thermosetting and can present an extremely hard material—e.g., 20,000 p.s.i. shear strength. The material is comprised of a mixture of vulcanized rubber and/or rubber-like polymers, various radiation shielding inclusions, polyimide resin and phenolformaldehyde resin.

Abstract: Stanchions are supported vertically aligned and each carries a vertically adjustable clamp which carries two rollers which support the weight of a rotisserie spit. One clamp has a bracket which supports a clockwork motor. The motor is connected to the spit by a universal joint to compensate for non-parallel alignment of stanchions or non-level clamps. The motor has a rotatable first spool having a winding key, a pawl to permit winding, a shaft connected to the universal joint, and the first gear of a train. A second spool is rotatably mounted in the motor. A constant torque Negator spring is fixed to the first spool and is unwound therefrom onto the second spool. At the end of the train is a pinion having triangular teeth. A reciprocable escapement plate is driven by the end pinion to control the first spool shaft for constant speed, constant torque rotation of the spit.