Abstract: The present invention is directed to a system for generating a healthy energy vortex within a space through an earthing effect. The system may comprise a plurality of copper-clad earthing poles encompassing a perimeter of an area. Each earthing pole of the plurality of earthing poles may be completely submerged underground, may contact a plurality of healthy negative ions underground, and may not contact a separate structure. Each adjacent pair of earthing poles may be separated by a distance suitable for generating the healthy energy vortex through the earthing effect. Each earthing pole may further comprise a cap of grounding enhancement material and a wire connecting the earthing pole to adjacent earthing poles. The system may further comprise a plurality of magnet pairs disposed underground outside of the perimeter of the area encompassed by the plurality of earthing poles.

Abstract: The present invention is directed to the prevention of EMF wave damage to the cells of living creatures. The invention features a collar that may comprise a base strip comprising a webbing material and having two ends with a fastener disposed on each end. The fasteners may comprise Velcro, buckles, or any other medium that allows for the attachment of surfaces. The collar may further comprise a container holding a remediation material that converts chaotic EMF waves into non-damaging waves. The container may be disposed on a surface of the collar and covered by a label. The fasteners may connect in a way such that the base strip is formed into a non-twisting loop with the container and label disposed on an outward-facing surface of the loop.

Abstract: A bolt positioning system for securely positioning an anchor bolt prior to pouring concrete features a linear form. The system features a bolt having a first bolt end with threads. The system features a bracket having a base bracket component, a positioning bracket component, and a riser bracket component located between the base bracket component and the positioning bracket component. An end tab component is perpendicularly located on the base bracket component opposed to the positioning bracket component. A fastening aperture is located on the base bracket component. A rectangular positioning aperture is located on the positioning bracket component. The system features an insert located in the positioning aperture.

Abstract: A process and apparatus are provided for reducing microorganisms in a conductive medium using a low voltage pulsed electrical energy.

Abstract: A process and apparatus are provided for reducing microorganisms in a conductive medium using a low voltage pulsed electrical energy.

Abstract: The present invention relates to an illumination fiber optic (20) or an assembly including illumination fiber optics contained in a first polymeric layer (26) or in a channel and the first layer or channel including intumescent or other fire retardant material, and further contained within a second outer layer (28) or jacket made of a polymeric material which has the property of containing the combination sufficient to hinder the propagation of the fire and eventually extinguishing the flame. The fiber optic may be side light emitting, with the core, layer, channel and fire retardant materials being transparent or translucent, or may be end light emitting with the fiber optic being a layer core fiber optic and the outer layer being opaque.

Abstract: An optical fiber conduit (32) comprising an optical fiber core (22) surrounded by a cladding (24) with a reflective material or holder and/or reflector (34) attached adjacent to or in contact with the cladding (24) covered optical fiber core (22) along its longitudinal length and includes a plurality of illuminators (28-30) that are formed by uniform cuts (41) in the optical fiber core (22) emit reasonably even light perpendicularly along the length of the conduit (32) outwardly. The light pattern can be made to emit various beam patterns from very narrow to very wide by altering the shape of the optical fiber core (22). The cut optical fiber is embedded in a clear environmentally protective coating to protect the cuts (41) from dust and moisture and to maintain the alignment of the holder and/or reflector (34) with optical elements (106) and the optical fiber core (22).

Abstract: The present invention relates to a fiber optic conduit having a light diverting outer layer (22) that reflects and/or refracts ambient light directed towards the conduit. The fiber optic conduit includes a light transmitting core (24), cladded with a fluoropolymer cladding (26) and subsequently jacketed with a polymeric finish jacket (28). The light diverting layer (22) either inserted between the cladding (26) and the jacket (28) or surrounding the jacket (28) is included in the fiber optic conduit. The light diverting layer (22) preferably has the property of allowing light to be transmitted from the fiber optic surface out of the conduit in one direction and reflecting ambient light directed towards the conduit When reflecting ambient light, the fiber optic conduit appears in the form of chrome trim.

Abstract: A process and apparatus are provided for reducing microorganisms in a conductive medium using a low voltage pulsed electrical energy.

Abstract: An optical fiber conduit comprising an optical fiber core surrounded by a cladding with a reflective material or holder and/or reflector attached adjacent to or in contact with the cladding covered optical fiber core along its longitudinal length and includes a plurality of illuminators that are formed by uniform cuts in the optical fiber core to emit reasonably even light perpendicularly along the length of the conduit outwardly. The light pattern can be made to emit various beam patterns from very narrow to very wide by altering the shape of the optical fiber core and/or by the cuts. The cut optical fiber is embedded in a clear environmentally protective coating to protect the cuts from dust and moisture and to maintain the alignment of the holder and/or reflector with optical elements and the optical fiber core.

Abstract: The present invention relates to a linear light form, and its method of manufacture, having a light diverting outer layer that reflects and/or refracts ambient light directed towards the light form. The linear light form includes a light transmitting core, clad with a fluoropolymer cladding and subsequently jacketed with a polymeric finish jacket. A light diverting layer either inserted between the cladding and the jacket or surrounding the jacket is included in the linear light form. The light diverting layer preferably has the property of allowing light to be transmitted from the core out of the light form in one direction and reflecting ambient light directed towards the light form.

Abstract: An optical fiber conduit (32) comprising an optical fiber core (22) surrounded by a cladding (24) with a reflective material or holder and/or reflector (34) attached adjacent to or in contact with the cladding (24) covered optical fiber core (22) along its longitudinal length and includes a plurality of illuminators (28-30) that are formed by uniform cuts (41) in the optical fiber core (22) emit reasonably even light perpendicularly along the length of the conduit (32) outwardly. The light pattern can be made to emit various beam patterns from very narrow to very wide by altering the shape of the optical fiber core (22) and/or by the cuts (41). The cut optical fiber is embedded in a clear environmentally protective coating to protect the cuts (41) from dust and moisture and to maintain the alignment of the holder and/or reflector (34) with optical elements (106) and the optical fiber core (22).

Abstract: The present invention relates to a fiber optic conduit having a light diverting outer layer that reflects and/or refracts ambient light directed towards the conduit. The fiber optic conduit includes a light transmitting core, cladded with a fluoropolymer cladding and subsequently jacketed with a polymeric finish jacket. A light diverting layer either inserted between the cladding and the jacket or surrounding the jacket is included in the fiber optic conduit. The light diverting layer preferably has the property of allowing light to be transmitted from the fiber optic surface out of the conduit in one direction and reflecting ambient light directed towards the conduit. When reflecting ambient light, the fiber optic conduit appears in the form of chrome trim.

Abstract: A lighting system using piped light is provided for the cargo space of a truck. A light source mounted on the truck body is energized by the truck electrical system through a switch in the cab. Plural lighting fixtures are mounted to the roof of the truck body for illuminating the cargo space. Each lighting fixture receives light which is piped through a separate light guide from the source to the fixture. There are two sets of lighting fixtures each of which is disposed in a linear array extending along a line from the front to the rear of the truck body. The light guides for one set of lighting fixtures are all disposed in a first enclosure and the light guides for the other set of lighting fixtures are all disposed within a second enclosure. Certain sections of the enclosures are provided with a transparent lens and certain light guides within the enclosures emit side light through the lens.

Abstract: A lighting system using piped light is provided for the cargo space of a truck. A light source mounted on the truck body is energized by the truck electrical system through a switch in the cab. Plural lighting fixtures are mounted to the roof of the truck body for illuminating the cargo space. Each lighting fixture receives light which is piped through a separate light guide from the source to the fixture. There are two sets of lighting fixtures each of which is disposed in a linear array extending along a line from the front to the rear of the truck body. The light guides for one set of lighting fixtures are all disposed in a first enclosure and the light guides for the other set of lighting fixtures are all disposed within a second enclosure. Certain sections of the enclosures are provided with a transparent lens and certain light guides within the enclosures emit side light through the lens.

Abstract: A plastic light conduit of cross-linked polymer material having good light transmitting characteristics, without voids or noticeable bubbles, is disclosed. Also disclosed is a method of manufacture and an apparatus, involving progressive heating of reactive monomer mixture in a tube which is submerged in a progressive reactor utilizing cold oil to maintain a cold, non-reacting zone, and hot water to create a hot zone that causes reaction, while simultaneously carrying away the excess exothermic heat of reaction.

Abstract: A plastic light conduit of cross-linked polymer material having good light transmitting characteristics, without voids or noticeable bubbles, is disclosed. Also disclosed is a method of manufacture and an apparatus, involving progressive heating of reactive monomer mixture in a tube which is submerged in a progressive reactor utilizing cold oil to maintain a cold, non-reacting zone, and hot water to create a hot zone that causes reaction, while simultaneously carrying away the excess exothermic heat of reaction.

Abstract: The present invention is directed to a heat shrink clad core optical conduit and to an optical conduit having either a thermoplastic, thermoset or liquid, light transmitting core surrounded by, preferably a fluoropolymer cladding which is in turn surrounded by a tight-fitting, finish polymer jacket which may be either transparent or translucent, and is preferably made of a polyvinyl chloride, polycarbonate, acrylic or silicone material. Numerous fillers and inserts may be used in the finish jacket polymer and the finish jacket polymer may be formed into various shapes. Bondable jacket materials may be used. The preferred method of forming the manufacturing jacket around a heat shrinkable fluoropolymer cladding is by extruding a low extrusion temperature polymer over a heat shrink clad in its expanded form into which an increased interior pressure is maintained to prevent shrinkage during the extrusion process.

Abstract: A plastic light conduit of cross-linked polymer material having good light transmitting characteristics, without voids or noticeable bubbles, is disclosed. Also disclosed is a method of manufacture and an apparatus, involving progressive heating of reactive monomer mixture in a tube which is submerged in a progressive reactor utilizing cold oil to maintain a cold, non-reacting zone, and hot water to create a hot zone that causes reaction, while simultaneously carrying away the excess exothermic heat of reaction.

Abstract: The present invention is directed to a heat shrink clad core optical conduit and to an optical conduit having either a thermoplastic, thermoset or liquid, light transmitting core surrounded by, preferably a fluoropolymer cladding which is in turn surrounded by a tight-fitting, finish polymer jacket which may be either transparent or translucent, and is preferably made of a polyvinyl chloride, polycarbonate, acrylic or silicone material. Numerous fillers and inserts may be used in the finish jacket polymer and the finish jacket polymer may be formed into various shapes. Bondable jacket materials may be used. The preferred method of forming the manufacturing jacket around a heat shrinkable fluoropolymer cladding is by extruding a low extrusion temperature polymer over a heat shrink clad in its expanded form into which an increased interior pressure is maintained to prevent shrinkage during the extrusion process.