Abstract: An absorbent article includes a body side liner, a back sheet, an absorbent body positioned between the body side liner and the back sheet, and a body conforming structure positioned in direct facing relation with the body side liner. The body conforming structure length is at least 50% the absorbent body length and is aligned with a longitudinal centerline of the absorbent article. The median anterior portion width of the body conforming structure is greater than the median central portion width of the body conforming structure which is greater than the median posterior portion width of the body conforming structure. The anterior portion includes a well, the central portion includes a channel, and the posterior portion includes a taper. The well transitions into the channel via a first convex transition and a concave transition. The channel transitions into the taper via a second convex transition.

Abstract: A method for retrofitting an existing EMD 567/645 two-cycle diesel engine to reduce exhaust emissions includes the steps of removing mechanical fuel injectors and associated components and installing of electronic unit fuel injectors and associated components. Also disclosed is a kit for retrofitting an existing EMD 567/645 two-cycle diesel engine to reduce exhaust emissions.

Abstract: An absorbent article for preventing leakage of a liquid insult includes an outer cover, a liner, and an absorbent assembly disposed therebetween, the liner having a body-facing surface; an active barrier disposed between the liner and the outer cover, wherein the active barrier is in fluid communication with the absorbent assembly, and wherein the active barrier is adapted to change dimensions when wetted; and a barrier highlight disposed to overlie the active barrier, wherein the barrier highlight is in fluid communication with the absorbent assembly or the active barrier, and wherein the barrier highlight is configured to change appearance when wetted.

Abstract: Disclosed herein are electrochemical fabrication platforms for making structures, arrays of structures and functional devices having selected nanosized and/or microsized physical dimensions, shapes and spatial orientations. Methods, systems and system components use an electrochemical stamping tool such as solid state polymeric electrolytes for generating patterns of relief and/or recessed features exhibiting excellent reproducibility, pattern fidelity and resolution on surfaces of solid state ionic conductors and in metal. Electrochemical stamping tools are capable high throughput patterning of large substrate areas, are compatible with commercially attractive manufacturing pathways to access a range of functional systems and devices including nano- and micro-electromechanical systems, sensors, energy storage devices, metal masks for printing, interconnects, and integrated electronic circuits.

Abstract: A method for retrofitting an existing EMD 567/645 two-cycle diesel engine to reduce exhaust emissions includes the steps of removing mechanical fuel injectors and associated components and installing of electronic unit fuel injectors and associated components. Also disclosed is a kit for retrofitting an existing EMD 567/645 two-cycle diesel engine to reduce exhaust emissions.

Abstract: Disclosed herein are electrochemical fabrication platforms for making structures, arrays of structures and functional devices having selected nanosized and/or microsized physical dimensions, shapes and spatial orientations. Methods, systems and system components use an electrochemical stamping tool such as solid state polymeric electrolytes for generating patterns of relief and/or recessed features exhibiting excellent reproducibility, pattern fidelity and resolution on surfaces of solid state ionic conductors and in metal. Electrochemical stamping tools are capable high throughput patterning of large substrate areas, are compatible with commercially attractive manufacturing pathways to access a range of functional systems and devices including nano- and micro-electromechanical systems, sensors, energy storage devices, metal masks for printing, interconnects, and integrated electronic circuits.

Abstract: A disk drive has a frame for receiving and retaining a disk cartridge which includes a disk therein, such disk being rotatable about a first axis perpendicular to the frame and cartridge. An actuator is mounted to the frame and is movable a first lesser amount from a first position to a second position and a second greater amount from the first position to a third position. A retract/eject lever is also mounted to the frame, is rotatable on an axis parallel to the first axis by the actuator, and is biased to a resting position. The actuator upon being moved to the second position rotates the retract/eject lever into a head-retracting position. The actuator upon being moved to the third position rotates the retract/eject lever to the head-retracting position and then to a cartridge-ejecting position. A head assembly is mounted to the frame and is movable toward and away from the retained disk cartridge and the disk therein for reading data from/writing data to such disk.

Abstract: A disk drive has a frame for receiving and retaining a disk cartridge which includes a disk therein, such disk being rotatable about a first axis perpendicular to the frame and cartridge. An actuator is mounted to the frame and is movable a first lesser amount from a first position to a second position and a second greater amount from the first position to a third position. A retract/eject lever is also mounted to the frame, is rotatable on an axis parallel to the first axis by the actuator, and is biased to a resting position. The actuator upon being moved to the second position rotates the retract/eject lever into a head-retracting position. The actuator upon being moved to the third position rotates the retract/eject lever to the head-retracting position and then to a cartridge-ejecting position. A head assembly is mounted to the frame and is movable toward and away from the retained disk cartridge and the disk therein for reading data from/writing data to such disk.

Abstract: A pretreatment method for use in manufacturing an improved optical component comprises (i) providing a polymeric optical substrate; and (ii) exposing the polymeric optical substrate to electromagnetic energy having a wavelength of about 30 nm to about 350 nm. The exposure of the polymeric optical substrate to the electromagnetic energy substantially improves adhesion between the substrate and an optical coating deposited onto the substrate following pretreatment. The invention addresses the significant need for coated plastic optics by providing a method to achieve reliable adhesion of optical coatings placed on polymeric optical substrates. Specifically, this invention enables improved adhesion for even highly curved or shaped parts which have been historically more difficult to coat. The pretreatment method is particularly useful for molded substrates such as molded polymethylmethacrylate.

Abstract: The present invention involves in situ laser patterning of thin-film layers during sequential deposition of the different layers. The layers may be applied using any known method of film deposition. The method of the present invention involves laser ablation to remove unwanted portions of the coating layers, including color filter materials, that have been sequentially deposited onto substantially the entire surface of a substrate. By controlling the depth of the laser ablation removal of the deposited films, it is possible to remove any portion of a film or layers of films or coatings that have been sequentially coated onto the surface of the substrate and to thereby control the depth and location of color filter materials coated upon the substrate. This patterning process can be employed in conjunction with any film deposition technique known in the art, including vacuum, wet chemical or dry processing deposition techniques, but is preferred with vacuum deposition.

Abstract: The present invention is directed to methods and apparatus for depositing optical thin film coatings simultaneously onto both sides of at least one substrate in a dual-frequency plasma-enhanced chemical vapor deposition vacuum reaction chamber utilizing microwave and radio frequency energies. The substrate can be a continuous substrate, such as a flexible polymer web, or it can be one or more discrete substrates, such as rigid plastic, glass, or glass/polymer composite substrates. The substrate can be processed in a stationary or an in-line processing mode. In addition, the coatings deposited simultaneously onto both sides of the substrate can be identical, i.e. symmetrical, or different, i.e., non-symmetrical. The plasma attributes and reaction conditions on either side of the substrate can be independently controlled to provide either identical or different coating compositions and properties on the two sides of the substrate.