Abstract: The invention relates to a cable assembly. Specifically, the cable assembly includes a segment having a first cable and a second cable. The first cable defines an inner channel. The second has a non-circular cross-sectional shape and is slidably disposed in the inner channel. The non-circular cross-sectional shape of the second cable may improve the frictional coefficient between the first cable and the second cable.

Abstract: The invention relates to a cable assembly. Specifically, the cable assembly includes a segment having a first cable and a second cable. The first cable defines an inner channel. The second has a non-circular cross-sectional shape and is slidably disposed in the inner channel. The non-circular cross-sectional shape of the second cable may improve the frictional coefficient between the first cable and the second cable.

Abstract: A push-pull cable having an inner member, an outer member surrounding and integral to the inner member and having an outer surface, and a sheath having an inner surface, wherein the inner surface is serrated. A push-pull cable including an inner member having an outside diameter of 360 degrees of frictional engagement surface and an outer member having an inside diameter of less than 360 degrees of frictional engagement surface, wherein the inner member outside diameter is frictionally engaged with the outer member inside diameter.

Abstract: An insert and a tailgate cable assembly incorporating the same. The tailgate cable assembly is a cable having eyelet connectors at each end and which is used to secure the sidewall of a vehicle to a rotatable tailgate. Fasteners extending from the sidewall and tailgate are received through apertures in the eyelets. At least one of the eyelets incorporates a removable insert that is rotatable between a first position, where the fastener may be either inserted or withdrawn from the eyelet, and a second position where the insert locks the fastener within the aperture in the eyelet. The insert is a “C”-shaped member that interlocks with the eyelet's interior peripheral surface surrounding a portion of the aperture.

Abstract: A test instrument for an electrochemical cell generates a current which counteracts the cell current so that it is briefly reduced to zero thereby allowing the electrode potential or cell potential to be measured free from the IR or ohmic polarization loss. A sample and hold circuit is enabled shortly after the current is interrupted to sense the voltage level of the electrode or electrochemical cell which has only experienced the voltage change due to the IR polarization losses. When cell current is restored, the IR corrected potential stored in the sample and hold circuit is compared to the control potential, and the difference between the two causes automatic adjustment of the average cell current such that the IR corrected potential of the cell is maintained despite any changes in IR polarization.