Abstract: An approach is provided for generating red mercury (II) sulfide from elemental mercury. Elemental mercury is combined with sulfur and heated until vaporized. At least a portion of the elemental mercury reacts with the vaporized sulfur to form the mercury (II) sulfide. Un-reacted elemental mercury is drawn off and condensed by a condenser.

Abstract: An approach is provided for generating red mercury (II) sulfide from elemental mercury. Elemental mercury is combined with sulfur and heated until vaporized. At least a portion of the elemental mercury reacts with the vaporized sulfur to form the mercury (II) sulfide. Un-reacted elemental mercury is drawn off and condensed by a condenser.

Abstract: An apparatus is provided for generating mercury (II) sulfide from elemental mercury. Elemental mercury is injected into a heated and sealed reaction vessel containing vaporized sulfur. The elemental mercury reacts with at least a portion of the vaporized sulfur to form the mercury (II) sulfide within the reaction vessel. The formed mercury (II) sulfide is then unloaded from the reaction vessel.

Abstract: An apparatus is provided for generating mercury (II) sulfide from elemental mercury. Elemental mercury is injected into a heated and sealed reaction vessel containing vaporized sulfur. The elemental mercury reacts with at least a portion of the vaporized sulfur to form the mercury (II) sulfide within the reaction vessel. The formed mercury (II) sulfide is then unloaded from the reaction vessel.

Abstract: An approach is provided for generating mercury (II) sulfide from elemental mercury. Elemental mercury is injected into a reaction vessel containing vaporized sulfur. The elemental mercury reacts with at least a portion of the vaporized sulfur to form the mercury (II) sulfide.

Abstract: An approach is provided for generating mercury (II) sulfide from elemental mercury. Elemental mercury is injected into a reaction vessel containing vaporized sulfur. The elemental mercury reacts with at least a portion of the vaporized sulfur to form the mercury (II) sulfide.

Abstract: Packaging for shipping spent fluorescent tubes includes an external paperboard box lined with a plastic bag that encloses a pair of end pads positioned on opposite ends of an array of sleeves. The sleeves form discrete cells in which a spent fluorescent tube can be inserted for shipping. The end pads include foam that is pressed into the ends of the sleeves when the box is shut and confine the tubes to the sleeves in the event of breakage. The foam protects the plastic bag liner by accommodating electrical pins of the lamps and also clamps the lamps in relatively fixed positions while functioning as a shock absorber. The plastic bag is tied closed for shipping so that any mercury which issues from a broken lamp is largely confined to the bag. The packaging better retains mercury for disposition by a recycler, as opposed to release into the environment, and is arranged to serve the convenience of the user for encouraging recycling of fluorescent tubes.