Abstract: A cutter die has an upper body and a lower body having first and second cutting blades which encapsulate a rope. A first blade holder retains the upper body and a second blade holder retains the lower body. The first blade holder has an edge for supporting the wire rope and the second blade holder has an edge for supporting the wire rope. The first cutting blade and the second cutting blade can have cutting edges which are cantered and offset. A cutter tool has a first cutting blade and first retainer; a second cutting blade and a second retainer; and a cutting jaw assembly. The first and second cutting blades and said first and second retainers are secured to first and second jaws of jaw assembly and positive stops are formed on the first and second jaws.

Abstract: A cutter die has an upper body and a lower body having first and second cutting blades which encapsulate a rope. A first blade holder retains the upper body and a second blade holder retains the lower body. The first blade holder has an edge for supporting the wire rope and the second blade holder has an edge for supporting the wire rope. The first cutting blade and the second cutting blade can have cutting edges which are cantered and offset.

Abstract: A compound wire rope cutter has a first handle and a second handle; a first lever and a second lever; and a first cutting jaw and a second cutting jaw. The first cutting jaw is formed at a distal end of the first lever. A second cutting jaw is formed at a distal end of the second lever. A first pivot pivotally connects the first handle and the second handle. A second pivot pivotally connects the first lever to the first handle. A third pivot pivotally connects the second lever to the second handle. A fourth pivot pivotally connects the first lever to the second lever. A first mechanical advantage is defined as a pivot lever length divided by a pivot jaw length, and a second mechanical advantage is defined as a handle length divided by a pivot handle length. A compound mechanical advantage is obtained by multiplying the first and second mechanical advantages together.

Abstract: A plier type stripper tool is provide for stripping sheathed cable of the type having a three spaced insulated power conducting wires, a ground wire disposed among the insulated wires and a sheath surrounding the wires. In one embodiment, the stripper tool includes a pair of levers having jaw, boss and handle portions. The stripper tool may further include a pivot joining the boss portions to enable relative movement of the levers about the pivot between open and closed portions. The jaw portions each have blade sections for coactively circumferentially cutting a cable sheath when the levers are moved from the open to the closed position.

Abstract: A plier type stripper tool is provide for stripping sheathed cable of the type having a three spaced insulated power conducting wires, a ground wire disposed among the insulated wires and a sheath surrounding the wires. In one embodiment, the stripper tool includes a pair of levers having jaw, boss and handle portions. The stripper tool may further include a pivot joining the boss portions to enable relative movement of the levers about the pivot between open and closed portions. The jaw portions each have blade sections for coactively circumferentially cutting a cable sheath when the levers are moved from the open to the closed position.

Abstract: A cable support system includes a plurality of first components (12) and a plurality of second components (14). Each first component (12) has a hinge edge (16), a tightening region (18) disposed on an opposite side from the hinge edge (16), a cable channel (20) arranged between the hinge edge (16) and the tightening region (18), and an interconnecting structure (22). Each second component (14) has a hinge edge (24), a tightening region (26) disposed on an opposite side from the hinge edge (24), and a cable channel (28) arranged between the hinge edge (24) and the tightening region (26). A first cable support device (10) is constructable by hingeably combining selected first and second components (12, 14) via the hinge edges (16, 24). A second cable support device (100) is constructable by hingeably combining selected two second components (14) via the hinge edges (24).

Abstract: A cable closure is provided which adapted to accommodate different size cables and different splices. The closure includes end plates designed to receive various size cables without requiring modification during field use. The end plates are interchangeable with stainless steel and injection molded closure shells. A sealant is provided which allows multiple re-entries into closure shell. Bolts are assembled on the exterior of the closure shell to eliminate potential misalignments between the bolts and closure shell holes. Washers are used within the end plates to seal holes not used for storing cables. A cutter is provided which cuts the washers in one 360° rotation thus eliminating weak points in the washer due to multiple cuts. Alternately a plug is provided for the end plate holes which are adaptable to several size holes to reduce the number of plugs required.

Abstract: A cable closure is provided which adapted to accommodate different size cables and different splices. The closure includes end plates designed to receive various size cables without requiring modification during field use. The end plates are interchangeable with stainless steel and injection molded closure shells. A sealant is provided which allows multiple re-entries into closure shell. Bolts are assembled on the exterior of the closure shell to eliminate potential misalignments between the bolts and closure shell holes. Washers are used within the end plates to seal holes not used for storing cables. A cutter is provided which cuts the washers in one 360° rotation thus eliminating weak points in the washer due to multiple cuts. Alternately a plug is provided for the end plate holes which are adaptable to several size holes to reduce the number of plugs required.

Abstract: A cable support system includes a plurality of first components (12) and a plurality of second components (14). Each first component (12) has a hinge edge (16), a tightening region (18) disposed on an opposite side from the hinge edge (16), a cable channel (20) arranged between the hinge edge (16) and the tightening region (18), and an interconnecting structure (22). Each second component (14) has a hinge edge (24), a tightening region (26) disposed on an opposite side from the hinge edge (24), and a cable channel (28) arranged between the hinge edge (24) and the tightening region (26). A first cable support device (10) is constructable by hingeably combining selected first and second components (12, 14) via the hinge edges (16, 24). A second cable support device (100) is constructable by hingeably combining selected two second components (14) via the hinge edges (24).

Abstract: A cable clamp (10) includes two interchangeable half-portions (14, 16). Each half-portion (14, 16) includes an outer side, an inner side including a cable receiving region (18, 20), a hinge region (30, 32) arranged below the cable receiving region (18, 20), and a suspending region (70) arranged above the cable receiving region (18, 20). The suspending region (70) is adapted to receive an associated support element (72). The two half-portions (14, 16) are adapted to cooperatively form a unitary cable clamp body having a cable channel (22) defined by the two cable receiving regions (18, 20) and a hinge (36) including the two hinge regions (30, 32). A tightener (54) is arranged above the cable channel (22) for drawing the half-portions (14, 16) together about the hinge (36) to clamp an associated cable (12) within the cable channel (22).

Abstract: A cable clamp (10) includes two interchangeable half-portions (14, 16). Each half-portion (14, 16) includes an outer side, an inner side including a cable receiving region (18, 20), a hinge region (30, 32) arranged below the cable receiving region (18, 20), and a suspending region (70) arranged above the cable receiving region (18, 20). The suspending region (70) is adapted to receive an associated support element (72). The two half-portions (14, 16) are adapted to cooperatively form a unitary cable clamp body having a cable channel (22) defined by the two cable receiving regions (18, 20) and a hinge (36) including the two hinge regions (30, 32). A tightener (54) is arranged above the cable channel (22) for drawing the half-portions (14, 16) together about the hinge (36) to clamp an associated cable (12) within the cable channel (22).

Abstract: A cable closure is provided which adapted to accommodate different size cables and different splices. The closure includes end plates designed to receive various size cables without requiring modification during field use. The end plates are interchangeable with stainless steel and injection molded closure shells. A sealant is provided which allows multiple re-entries into closure shell. Bolts are assembled on the exterior of the closure shell to eliminate potential misalignments between the bolts and closure shell holes. Washers are used within the end plates to seal holes not used for storing cables. A cutter is provided which cuts the washers in one 360° rotation thus eliminating weak points in the washer due to multiple cuts. Alternately a plug is provided for the end plate holes which are adaptable to several size holes to reduce the number of plugs required.

Abstract: A generally dish-shaped or conical-like head member with clips for securely engaging a typical wire grid used in cushions, seats, and bedding products is disclosed, as well as a similar member using cooperating lobe and trough pairs to hold a grid wire therebetween to fix a spring device in place.

Abstract: A foot member is disclosed for use in attaching a spring device to a rail for cushions, seats, or foundations for a bedding product. The foot member can straddle and snap into a frame rail, or be stapled or otherwise affixed to a frame rail.

Abstract: A pneumatic and load-supporting spring device for use in bedding, cushions and the like. The disclosed embodiments have tubular telescoping members that are biased apart by either an elastomer located in the overlapping region, or a helical spring located within the pneumatic cylinder formed by the tubes. A conical or dish-shaped head element with clips for securely engaging a typical wire grid found in many bedding products is also disclosed, as well as a dish-shaped head element using cooperating lobe and trough pairs to hold a grid wire therebetween to fix a spring device in place. A foot element is also disclosed for use in attaching a spring device on the base frame of a typical bedding product. The foot element can straddle and snap into a metal frame rail, or be stapled to a frame rail.

Abstract: A disc drive isolation system including a disc drive isolation module is disclosed. The isolation module is disposed in the enclosure and has an outer body and an inner body supported within the outer body with the disc drive mounted within the inner body. The mounting of the inner body within the outer body sequesters the disc drive against vibration and shock applied to the outer body. This arrangement enables almost any disc drive to be operated in an industrial environment independent of the shock and vibration characteristics of the environment.

Abstract: A disc drive isolation system including an environment control enclosure and a disc drive isolation module is disclosed. A thermo-electric heat pump is mounted to the enclosure for cooling the interior of the enclosure and a fan circulates air within the enclosure. A humidity sensor controls the heat pump and the fan in response to the sensed humidity of the interior air. First and second temperature sensors control the heat pump andthe disc drive, respectively. The isolation module is disposed in the enclosure and has an outer body and an inner body supported within the outer body with the disc drive mounted within the inner body. The mounting of the inner body within the outer body sequesters the disc drive against vibration and shock applied to the outer body. This arrangement enables almost any disc drive to be operated in an industrial environment independent of the temperature, humidity, cleanliness, shock and vibration characteristics of the environment.