Abstract: A charging inlet assembly includes a housing extending between a front and a rear. The housing has a DC section including DC terminal channels that are configured to receive DC terminals. The housing has an AC section including an AC module chamber. The DC section is configured for mating with a DC charging connector at the front. The AC section is configured for mating with an AC charging connector at the front. The charging inlet assembly includes an AC charging module removably received in the AC module chamber. The AC charging module includes an AC insert extending between an insert front and an insert rear. The AC insert includes AC terminal channels between the insert front and the insert rear. The AC charging module include AC terminals received in the AC terminal channels. The AC terminals are terminated to ends of AC cables extending from the insert rear. The AC terminals and the AC cables are removable from the housing with the AC insert.

Abstract: A charging inlet assembly for an electric vehicle includes a charging inlet housing having a chamber at the rear and a power connector at a front for receiving a charging connector. The power connector includes terminal channels. The charging inlet assembly includes charging terminals each having a mating pin and a terminating end. The charging inlet assembly includes a terminal position assurance device coupled to the charging inlet housing having a terminal locating plate located in the chamber to interface with the terminating ends of the charging terminals. The terminal position assurance device includes an actuator at an exterior of the charging inlet housing to operate the terminal position assurance device from the exterior of the charging inlet housing.

Abstract: The present invention relates to methods and systems for culturing and purifying target substance(s), such as selected proteins, viruses, pathogenic bacteria, antibodies, antigens, clotting factors, glycoproteins, and hormones, from source liquids wherein the culturing and purification is effected in an integrated system including a bioreactor and at least one separation unit that functions under the control of a single operating system and provides for disposable components.

Abstract: A filtration device and method for removing pollutants from fluid such as storm-water. The filtration device has a chamber including a series of pivotal filtration assemblies each including a weir and filter. The filters are selected and positioned for sequentially filtering larger then smaller pollutant particles from the water flowing through the device. The weirs are configured and positioned for sequentially permitting water overflow of (and thereby taking off-line) the smaller-particle size filters then the larger-particle size filters from the water flowing through the device. And the filtration assemblies are pivotally mounted to the chamber walls and configured so that, when one of the filters becomes clogged, the water pressure against it causes that filter assembly to pivot into a bypass position permitting water to flow under it.

Abstract: A chamber having an inlet for receiving polluted storm-water runoff and an outlet for the storm water to flow out. Within the chamber are a screen, one or more baffles, a collection reservoir, and a pivotal filter. The screen is elevated for separating and suspending miscellaneous debris such as vegetative matter, paper, and plastic. The baffles increase storm-water residence time to encourage settling of particulate matter such as sand and grit. The collection reservoir has an adjustable weir for skimming off floating matter such as motor oil, other hydrocarbons, and detergents. And the pivotal filter catches clay during typical storm flows and pivots out of the way during higher flows. In addition, a method for maintaining the pollution trap includes removing the screen for cleaning, suctioning out the particulate matter and oil, and replacing the pivotal filter member.

Abstract: A photosensing array and a method of making the same wherein the array includes a semiconductor substrate having collecting regions and recrystallized regions. Each collecting region is operatively associated with a photosensing element. Adjacent collecting regions are separated by a recrystallized region. The recrystallized regions are formed by thermally migrating doping metal into the semiconductor substrate using thermal zone gradient melting. With respect to the collecting regions, the recrystallized regions have a relative conductivity level or a conductivity type such that the recrystallized regions have the property of impeding photogenerated carrier migration from one collecting region to an adjacent collecting region. Preferably, the doping metal is one having a high absorption coefficient to block passage of photons between adjacent collecting regions.