Abstract: Ethylene-based polymers having a density from 0.94 to 0.96 g/cm3, a Mn from 5,000 to 14,000 g/mol, a ratio of Mw/Mn from 18 to 40, and at least one of a PENT value at 2.4 MPa of at least 11,500 hr and/or a W90 from 7.5 to 15 wt. % are disclosed. Additional ethylene polymers can have the same density, Mn, and Mw/Mn values, as well as a relaxation time from 0.5 to 3.5 sec, a CY-a parameter from 0.48 to 0.68, a HLMI from 5 to 11 g/10 min, a viscosity at HLMI from 3,000 to 7,500 Pa-sec, and a higher molecular weight component (HMW) and a lower molecular weight (LMW) component, in which a ratio of the number of SCBs at Mp of the HMW component to the number of SCBs at Mp of the LMW component is from 3.5 to 8.

Abstract: A bimodal polymer composition comprising a lower molecular weight homopolymer and a higher molecular weight copolymer wherein the bimodal polymer composition has a density of from about 0.930 gram per cubic centimeter (g/cc) to about 0.970 g/cc, a ratio of high load melt index:melt index of from about 10 to about 150 and an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561. A chromium-catalyzed polymer composition comprising (i) a lower molecular weight homopolymer and (ii) a higher molecular weight copolymer, wherein the bimodal polymer composition has an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561.

Abstract: A bimodal polymer composition comprising a lower molecular weight homopolymer and a higher molecular weight copolymer wherein the bimodal polymer composition has a density of from about 0.930 gram per cubic centimeter (g/cc) to about 0.970 g/cc, a ratio of high load melt index:melt index of from about 10 to about 150 and an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561. A chromium-catalyzed polymer composition comprising (i) a lower molecular weight homopolymer and (ii) a higher molecular weight copolymer, wherein the bimodal polymer composition has an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561.

Abstract: A bimodal polymer composition comprising a lower molecular weight homopolymer and a higher molecular weight copolymer wherein the bimodal polymer composition has a density of from about 0.930 gram per cubic centimeter (g/cc) to about 0.970 g/cc, a ratio of high load melt index:melt index of from about 10 to about 150 and an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561. A chromium-catalyzed polymer composition comprising (i) a lower molecular weight homopolymer and (ii) a higher molecular weight copolymer, wherein the bimodal polymer composition has an Environmental Stress Crack Resistance (ESCR) of from about 25 hours to about 300 hours when measured in accordance with ASTM D1693 or ASTM D2561.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: The present invention possesses new, useful, and unique characteristics, including a retracted and deep cut collar, extra short and form fitting sleeves, and form fitting material, which allow it to be completely hidden under nearly any top worn over it. Therefore, the wearer of the present invention is able to enjoy the benefits of wearing an undergarment while at the same time concealing the fact that one is being worn at all.

Abstract: A means of suspending items within a transportable container, such as an environmental enclosure like a common “cooler” or “ice-chest”. Inside the container, items are supported by resting on top of a shelf or platform that may be rigid, semi-rigid, inflatable, pleated, telescoping, floating, cushioned, or flexible. The shelf may be supported by straps that may exit the container and are fastened to, or encircle, the interior and/or exterior of the container. The mechanism for attachment to the outside of the container may be a simple loop over an external anchor point affixed to the outside of the container, or a latch or latches, or a magnetic device, or a continuous loop or loops that encircle the container such that no external anchor is required.

Abstract: A process comprising contacting a reaction product composition comprising a poly(arylene sulfide) composition and a polar organic compound, wherein the polar organic compound comprises greater than or equal to about 1 wt. % thiophenol, with a C4-C30 ?,?-unsaturated ketone, a C4-C30 ?,?-unsaturated ester, a C4-C30 ?,?-unsaturated amide, or any combination thereof, wherein after the contacting, the polar organic compound comprises less than about 1 wt. % thiophenol. A process comprising contacting a composition comprising a polar organic compound and greater than or equal to about 1 wt. % thiophenol with a C4-C30 ?,?-unsaturated ketone, a C4-C30 ?,?-unsaturated ester, a C4-C30 ?,?-unsaturated amide, or any combination thereof, to form a composition comprising the polar organic compound and less than about 1 wt. % thiophenol.

Abstract: A poly(arylene sulfide) polymer composition comprising a neat poly(arylene sulfide) polymer and a cyclic oligomer nucleating agent, wherein the cyclic oligomer nucleating agent is contacted with the neat poly(arylene sulfide) polymer in an amount of from about 0.25 wt. % to about 1 wt. % cyclic oligomer nucleating agent, based on the total weight of the poly(arylene sulfide) polymer composition, and wherein the poly(arylene sulfide) polymer composition is characterized by a melt crystallization temperature (Tmc) that is greater by at least about 5° C. than a Tmc of the neat poly(arylene sulfide) polymer.

Abstract: A process for producing a poly(arylene sulfide) polymer comprising (a) polymerizing reactants in a reaction vessel to produce a poly(arylene sulfide) reaction mixture, (b) processing at least a portion of the poly(arylene sulfide) reaction mixture to obtain a poly(arylene sulfide) reaction mixture downstream product, and (c) contacting a by-product treatment additive with at least a portion of the poly(arylene sulfide) reaction mixture and/or downstream product thereof, and (d) processing at least a portion of the poly(arylene sulfide) reaction mixture downstream product to yield salt solids particulates, wherein the by-product treatment additive reduces agglomeration of the salt solids particulates.

Abstract: A process for producing a poly(arylene sulfide) polymer comprising (a) polymerizing reactants in a reaction vessel to produce a poly(arylene sulfide) reaction mixture, (b) processing at least a portion of the poly(arylene sulfide) reaction mixture to obtain a poly(arylene sulfide) reaction mixture downstream product, and (c) contacting a reactive aryl halide with at least a portion of the poly(arylene sulfide) reaction mixture and/or downstream product thereof, wherein before and/or after the contacting, the poly(arylene sulfide) reaction mixture and/or downstream product thereof comprise less than about 0.025 wt. % thiophenol, based on the total weight of the poly(arylene sulfide) reaction mixture and/or downstream product thereof.

Abstract: A process comprising contacting a reaction product composition comprising a poly(arylene sulfide) composition and a polar organic compound, wherein the polar organic compound comprises greater than or equal to about 1 wt. % thiophenol, with a C4-C30 ?,?-unsaturated ketone, a C4-C30 ?,?-unsaturated ester, a C4-C30 ?,?-unsaturated amide, or any combination thereof, wherein after the contacting, the polar organic compound comprises less than about 1 wt. % thiophenol. A process comprising contacting a composition comprising a polar organic compound and greater than or equal to about 1 wt. % thiophenol with a C4-C30 ?,?-unsaturated ketone, a C4-C30 ?,?-unsaturated ester, a C4-C30 ?,?-unsaturated amide, or any combination thereof, to form a composition comprising the polar organic compound and less than about 1 wt. % thiophenol.

Abstract: Disclosed herein is a process for preparing cured arylene sulfide polymers. A first curing vessel comprising a first agitator is used to cure a poly(arylene sulfide) compacted powder. The curing proceeds until the compacted powder reaches a melt flow rate within a target range. When the melt flow rate of the compacted powder first reaches the target range, the power consumption of the first agitator is determined. A second curing vessel comprising a second agitator is charged with a second quantity of the compacted poly(arylene sulfide) powder. The second quantity of compacted powder is cured in the second vessel until the power consumption of the second agitator reaches the value at which the melt flow rate in the first curing vessel first reached the target range.

Abstract: A composition and application are presented for a polyphenylene sulfide (PPS) based blend. The PPS-based blend may comprise about 40 to 95% by weight of a PPS resin and about 5 to 60% by weight of an olefinic copolymer and an elastomer. The PPS-based blend has improved impact resistance, elongation at break and flexibility compared to PPS and may be used in the construction of articles where these properties are desired in addition to properties typically associated with PPS. The PPS-based blend may be incorporated as a terminal layer in a multi-layer material which may be used in the formation of articles of manufacture, including the individual pieces of a multi-piece article. When assembled such that the PPS-based layers are joined, the resulting PPS-based article may possess vapor and liquid impermeability throughout, including at the junctions of the respective constituent pieces.

Abstract: Disclosed herein is a process for preparing cured arylene sulfide polymers. A first curing vessel comprising a first agitator is used to cure a poly(arylene sulfide) compacted powder. The curing proceeds until the compacted powder reaches a melt flow rate within a target range. When the melt flow rate of the compacted powder first reaches the target range, the power consumption of the first agitator is determined. A second curing vessel comprising a second agitator is charged with a second quantity of the compacted poly(arylene sulfide) powder. The second quantity of compacted powder is cured in the second vessel until the power consumption of the second agitator reaches the value at which the melt flow rate in the first curing vessel first reached the target range.