Abstract: The present invention is a label system and method for label alignment and placement on a container. The label system includes a first label or a container whereby the first label includes alignment symbology and a second label having an alignment area corresponding to the alignment symbology of the first label. The second label is positioned on the container whereby the alignment area of the second label is aligned with the alignment symbology of the first label. The method for label alignment and placement comprises the steps of (i) providing a container with identification information and a label bearing area; (ii) scanning the identification information; (iii) processing the identification information; (iv) printing indicia on a label at a position defined by the identification information; and (v) placing the label on the container with the indicia positioned at the desired predetermined location.

Abstract: A system for attaching, positioning and repositioning accessories and/or devices to vertical or horizontal surfaces such that the attached accessories or devices can be positioned and repositioned as desired. The system is comprised of a system base which interlocks with accessory mounts, which in turn engage and secure the fittings of accessories or devices. The system allows the accessories or devices retained in the mounts to be fixed along the base at a desired location and released and moved to another position along the base as desired. Further the system allows the accessories to be removed from the mounts and replaced as needed.

Abstract: The present invention is a label system and method for label alignment and placement on a container. The label system includes a first label or a container whereby the first label includes alignment symbology and a second label having an alignment area corresponding to the alignment symbology of the first label. The second label is positioned on the container whereby the alignment area of the second label is aligned with the alignment symbology of the first label. The method for label alignment and placement comprises the steps of (i) providing a container with identification information and a label bearing area; (ii) scanning the identification information; (iii) processing the identification information; (iv) printing indicia on a label at a position defined by the identification information; and (v) placing the label on the container with the indicia positioned at the desired predetermined location.

Abstract: The present invention is a label system and method for label alignment and placement on a container. The label system includes a first label or a container whereby the first label includes alignment symbology and a second label having an alignment area corresponding to the alignment symbology of the first label. The second label is positioned on the container whereby the alignment area of the second label is aligned with the alignment symbology of the first label. The method for label alignment and placement comprises the steps of (i) providing a container with identification information and a label bearing area; (ii) scanning the identification information; (iii) processing the identification information; (iv) printing indicia on a label at a position defined by the identification information; and (v) placing the label on the container with the indicia positioned at the desired predetermined location.

Abstract: The present invention is a label system and method for label alignment and placement on a container. The label system includes a first label or a container whereby the first label includes alignment symbology and a second label having an alignment area corresponding to the alignment symbology of the first label. The second label is positioned on the container whereby the alignment area of the second label is aligned with the alignment symbology of the first label. The method for label alignment and placement comprises the steps of (i) providing a container with identification information and a label bearing area; (ii) scanning the identification information; (iii) processing the identification information; (iv) printing indicia on a label at a position defined by the identification information; and (v) placing the label on the container with the indicia positioned at the desired predetermined location.

Abstract: The present invention is a label system and method for label alignment and placement on a container. The label system includes a first label or a container whereby the first label includes alignment symbology and a second label having an alignment area corresponding to the alignment symbology of the first label. The second label is positioned on the container whereby the alignment area of the second label is aligned with the alignment symbology of the first label. The method for label alignment and placement comprises the steps of (i) providing a container with identification information and a label bearing area; (ii) scanning the identification information; (iii) processing the identification information; (iv) printing indicia on a label at a position defined by the identification information; and (v) placing the label on the container with the indicia positioned at the desired predetermined location.

Abstract: An arrangement of a plurality of individual gas expansion marine sources, wherein the positive waves of the primary shocks are additive in effect, the negative waves of the primary shocks are additive in effect to cause blow-out so that the reflections are relatively small or ghost-free with respect to the positive, and wherein the positive and negative waves of the after-shock occurrences do not enhance one another.

Abstract: High resolution, high penetration marine seismic stratigraphic system wherein a slanted cable comprising spaced-apart hydrophone arrays gather seismic reflections so that the corresponding primary and ghost reflections from a common interface gradually are spaced apart. The primary reflections are time aligned and stacked. The ghost reflections are phase reversed, time shifted and time aligned to coincide with the time aligned primary stack and then stacked to give a combined primary and ghost stack, which effectively includes almost twice the information as from the primary stack alone. No inverse notch filters are needed to correct for the ghost phenomenon. Focused noise out of the vertical plane is also virtually eliminated.