Abstract: This is the method of controlling the distribution of energy. Energy can be in the form of electrical power, mechanical, hydraulic, gases, shielding from frequencies, communications, computers, liquids, solar energy and the like. Any form of energy that needs to be controlled and distributed. Whatever the requirement for a specific contact, the power energy distribution system, as it rotates from one contact point to another, distributes the specific requirement of energy without imposing a total demand load.

Abstract: A method is provided for heating the surface of a material such as a floor, wall, roof, or countertop. The method comprises providing a laminated heater element, disposing the heater element at a predetermined depth in the material and energizing the element at prescribed intervals and temperatures which are effective to heat the surface of the material.

Abstract: A method is provided for heating the surface of a material such as a floor, wall, roof, or countertop. The method comprises providing a laminated heater element, disposing the heater element at a predetermined depth in the material and energizing the element at prescribed intervals and temperatures which are effective to heat the surface of the material.

Abstract: A method is provided for heating the surface of a tooling die. In the method, a heater element consisting of a fabric layer composed of conductive fibers is incorporated into the surface of a tooling die or mold. The heater element is attached to a power source, which energizes the element at prescribed intervals and temperatures to heat the surface of the tooling die.

Abstract: A method is provided for heating the surface of a material such as a floor, wall, roof, or countertop. The method comprises providing a laminated heater element, disposing the heater element at a predetermined depth in the material and energizing the element at prescribed intervals and temperatures which are effective to heat the surface of the material.

Abstract: A method is provided for heating the interior surface of a defined volume, such as the interior of a pipe or tank, to control the viscosity of a liquid contained within that volume. In the method, a laminated composite heater element, impermeable to water, is disposed on the surface of the receptacle, and is energized at prescribed intervals and temperatures effective to heat the interior surface of the volume.

Abstract: A method is provided for preventing biofouling on the surface of structures, such as docks, ships, oil drilling platforms, which come into contact with aquatic environments. In the method, a pre-formed panel heater element is provided to the surfaces of the structure which are for submerging into water. The heater element is disposed at a predetermined depth from the surface of the structure, and energized at prescribed intervals and temperature which are effective to kill and prevent settlement of larvae on the surface of the structure. The pre-formed panel heater element consists of an inner layer composed of a fabric of electrically conductive fibers encapsulated in fiberglass/resin; two outer fiberglass/resin layers disposed on opposing surfaces of and encapsulating said inner layer; and electrical leads connected to said conductive fibers and adapted to receive power from a power source.

Abstract: A method is provided for heating the surface of a material such as a floor, wall, roof, or countertop. The method comprises providing a laminated heater element, disposing the heater element at a predetermined depth in the material and energizing the element at prescribed intervals and temperatures which are effective to heat the surface of the material.

Abstract: A laminate coating comprising a durable outer ply which is resistant to abrasion and impermeable to water, bonded to and through a conductive layer of fibers and an integrally enveloping adhesive layer which is disposed on a vehicle component surface, such that the laminate coating upon curing is bonded to the vehicle component surface such as the surface of an aircraft part especially the fuselage, wing parts or tail section. The conductive layer is connected to a source of electrical energy and control means adapted to control the temperature of the coated surface of the aircraft part.

Abstract: A fire-retardant coating material includes a fluid intumescent material and conductive particles of various sizes dispersed or suspended therein for particular applications. The fluid intumescent material includes a foaming agent, a blowing agent gas source, a carbonific or charring agent, a film-forming binder, a solvent and, in some cases, a pigment or filler. The conductive particles are formed of a substrate and a conductive coating.

Abstract: A fire-retardant coating material includes a fluid intumescent material and refractory fibers of various sizes dispersed or suspended therein for particular applications. The fluid intumescent material includes a foaming agent, a blowing agent gas source, a carbonific or charring agent, a film-forming binder, a solvent and, in some cases, a pigment or filler. The refractory fibers consist of aluminum oxide, silicon dioxide, and one or more other metal oxides.

Abstract: A transaction security device comprising a booth of a material and construction capable of selective voluntary entry and involuntary personnel retention and incorporating a transaction interface; entrance means for said booth; a closure for said entrance means, and control means adapted to secure and unsecure at least said entrance means; and cooperating with said booth, disposed, therein, or indeed independent thereof, at least one secondary enclosure adapted to contain apparatus disposed upon at least one turntable within a housing module composed of an enclosure, portions of which are independently rotatable about said turntable and the devices disposed thereon; and means for access to the interior of said housing and with said transaction interface.

Abstract: A laminate of integrally bonded components includes at least two electrically conductive plies, at least one structural element, and at least one radiant heat reflective ply. Each structural element and each radiant heat reflective ply is separated from the electrically conductive plies. These plies are isolated from each other by an electrically insulating fibrous, refractory, ceramic ply disposed therebetween and bonded thereto by means of an adhesive ply. Two of the electrically conductive plies are connected in series with an electrical source and an alarm to provide an intrusion signal upon penetration of the laminate by a conductive tool.

Abstract: Transaction processing enclosures for containment of electronic data processing equipment, banking apparatus and the like incorporating a housing comprising a composite laminate composed of reflective, refractory and structural elements to provide an enclosure of unique structural integrity, and protection to the environment within and outside said enclosure against adverse factors such as impact and fire, and insulation against wide variations in temperature exterior to said enclosure while sustaining a stable environment within said enclosure.

Abstract: A transaction enclosure for housing electronic data processing equipment, documentation, valuable articles, banking pay-out and receiving apparatus and the like including a heat resistant housing, and an access and closure with various insulating layers and closure seals.

Abstract: A transaction processing enclosure for housing of electronic data processing equipment and the like, comprising a frame rack assembly formed of hollow conduit support members, arranged at spaced intervals to provide a unitary support structure adapted to receive and store electronic data processing equipment and the like; the hollow support members being interconnected to permit distribution of a fluid thereto with emission therefrom along the course of the hollow support members into the enclosure in combination with a turntable mounted to support the frame rack assembly and affect rotation thereof within said enclosure.

Abstract: Transaction processing enclosure for containment of electronic data processing equipment, banking apparatus, documentation, and the like including a housing that incorporates electrically conductive, structural, radiant heat reflective, fibrous, refractory, and ceramic insulating ply.

Abstract: A transaction security device comprising a booth of a material and construction capable of selective voluntary entry and involuntary personnel retention and incorporating a transaction interface; entrance means for said booth; a closure for said entrance means, and control means adapted to secure and unsecure at least said entrance means; and cooperating with said booth, disposed, therein, or indeed independent thereof, at least one secondary enclosure adapted to contain apparatus disposed upon at least one turntable within a housing module composed of an enclosure, portions of which are independently rotatable about said turntable and the devices disposed thereon; and means for access to the interior of said housing and with said transaction interface.

Abstract: A transaction processing enclosure for housing of electronic data processing equipment and the like, comprising a frame rack assembly formed of hollow conduit support members, arranged at spaced intervals to provide a unitary support structure adapted to receive and store electronic data processing equipment and the like; the hollow support members being interconnected to permit distribution of a fluid thereto with emission therefrom along the course of the hollow support members into the enclosure in combination with a turntable mounted to support the frame rack assembly and affect rotation thereof within said enclosure.

Abstract: Transaction processing enclosures for containment of electronic data processing equipment, banking apparatus and the like incorporating a housing comprising a composite laminate composed of reflective, refractory and structural elements to provide an enclosure of unique structural integrity, and protection to the environment within and outside said enclosure against adverse factors such as impact and fire, and insulation against wide variations in temperature exterior to said enclosure while sustaining a stable environment within said enclosure.