Abstract: The use of long-chain alkenones to impart desired characteristics in personal care compositions for topical applications is described. The preparation of mixtures long-chain alkenones and synthetic derivatives thereof is presented. Examples of compositions include abrasive soaps, with alkenones serving as natural exfoliating agents. Alkenones and their derivatives can serve as emollients, occlusive agents, stabailizing agents, binding agents, thickening agents, surfactants, and antimicrobials.

Abstract: The use of long-chain alkenones to impart desired characteristics in personal care compositions for topical applications is described. The preparation of mixtures long-chain alkenones and synthetic derivatives thereof is presented. Examples of compositions include abrasive soaps, with alkenones serving as natural exfoliating agents. Alkenones and their derivatives can serve as emollients, occlusive agents, encapsulating agents, stabilizing agents, binding agents, thickening agents, surfactants, and antimicrobials.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: The use of long-chain alkenones to impart desired characteristics in personal care compositions for topical applications is described. The preparation of mixtures long-chain alkenones and synthetic derivatives thereof is presented. Examples of compositions include abrasive soaps, with alkenones serving as natural exfoliating agents. Alkenones and their derivatives can serve as emollients, occlusive agents, encapsulating agents, stabilizing agents, binding agents, thickening agents, surfactants, and antimicrobials.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: The use of long-chain alkenones to impart desired characteristics in personal care compositions for topical applications is described. The preparation of mixtures long-chain alkenones and synthetic derivatives thereof is presented. Examples of compositions include abrasive soaps, with alkenones serving as natural exfoliating agents. Alkenones and their derivatives can serve as emollients, occlusive agents, encapsulating agents, stabilizing agents, binding agents, thickening agents, surfactants, and antimicrobials.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: The use of long-chain alkenones to impart desired characteristics in personal care compositions for topical applications is described. The preparation of mixtures long-chain alkenones and synthetic derivatives thereof is presented. Examples of compositions include abrasive soaps, with alkenones serving as natural exfoliating agents. Alkenones and their derivatives can serve as emollients, occlusive agents, encapsulating agents, stabilizing agents, binding agents, thickening agents, surfactants, and anti-microbials.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: In certain aspects, the disclosure provides methods for producing polymers from alkenone-producing algae, such as algae species of the Isochrysis family.

Abstract: A method comprising a series of selective extraction techniques for the parallel production of biodiesel and isolation of several valuable co-products including an alkenone hydrocarbon mixture of the kerosene/jet fuel range (primarily C10-, C12-, and C17-hydrocarbons) and fucoxanthin, a high-valued carotenoid, from the marine alkenone-producing microalgae Isochrysis.

Abstract: A process, and related structure, uses conventional palletized compositions to form the elements of a non-textile fabric by coining a single pellet or briquette of a polymer into an individual element in a single forming step. The steps of the process generally include: a) positioning a pellet in or adjacent to a mold cavity, and b) forcing the pellet into contact with the mold surfaces of the mold cavity to plastically deform the pellet to the shape of the mold cavity. The forcing step preferably uses an energy and speed where the pellet superplastically deforms to substantially fill the mold cavity. This process is repeated with the elements being formed in the appropriate order to form a non-textile fabric. The elements thus formed can have a variety of shapes, and can form base units for the formation of the non-textile fabric of two, three or more elements.

Abstract: Flexlock non-textile fabrics use intimately linked elements that are formed from formable, preferably solid phase forgeable materials into generally triangular shapes with hinging connection features along edges of a generally triangular overall shape. These hinging connection portions permit other elements to rotate about axes that intersect at intersections. Buttressing portions are located near these intersections and include cylindrical or conical shapes that abut the buttressing portions of adjacent formed elements. This abutting can occur even when adjacent elements are rotated or twisted out of a common plane. Connection portions include direct formed engagements with knuckles of the other elements. These connection portions and the engaged knuckles can include headed pintles, axles, or oppositely facing conical protrusions, and may be configured to permit the non-textile fabric to bend on itself within its own thickness without undue strain on the connection features.

Abstract: Flexlock non-textile fabrics use intimately linked elements that are formed from formable, preferably solid phase forgeable materials into generally triangular shapes with hinging connection features along edges of a generally triangular overall shape. These hinging connection portions permit other elements to rotate about axes that intersect at intersections. Buttressing portions are located near these intersections and include cylindrical or conical shapes that abut the buttressing portions of adjacent formed elements. This abutting can occur even when adjacent elements are rotated or twisted out of a common plane. Connection portions include direct formed engagements with knuckles of the other elements. These connection portions and the engaged knuckles can include headed pintles, axles, or oppositely facing conical protrusions, and may be configured to permit the non-textile fabric to bend on itself within its own thickness without undue strain on the connection features.

Abstract: Flexlock non-textile fabrics use intimately linked elements that are formed from formable, preferably solid phase forgeable materials into generally triangular shapes with hinging connection features along edges of a generally triangular overall shape. These hinging connection portions permit other elements to rotate about axes that intersect at intersections. Buttressing portions are located near these intersections and include cylindrical or conical shapes that abut the buttressing portions of adjacent formed elements. This abutting can occur even when adjacent elements are rotated or twisted out of a common plane. Connection portions include direct formed engagements with knuckles of the other elements. These connection portions and the engaged knuckles can include headed pintles, axles, or oppositely facing conical protrusions, and may be configured to permit the non-textile fabric to bend on itself within its own thickness without undue strain on the connection features.

Abstract: A process, and related structure, uses conventional palletized compositions to form the elements of a non-textile fabric by coining a single pellet or briquette of a polymer into an individual element in a single forming step. The steps of the process generally include: a) positioning a pellet in or adjacent to a mold cavity, and b) forcing the pellet into contact with the mold surfaces of the mold cavity to plastically deform the pellet to the shape of the mold cavity. The forcing step preferably uses an energy and speed where the pellet superplastically deforms to substantially fill the mold cavity. This process is repeated with the elements being formed in the appropriate order to form a non-textile fabric. The elements thus formed can have a variety of shapes, and can form base units for the formation of the non-textile fabric of two, three or more elements.

Abstract: A process, and related structure, uses conventional pelletized compositions to form the elements of a non-textile fabric by coining a single pellet or briquette of a polymer into an individual element in a single forming step. The steps of the process generally include: a) positioning a pellet in or adjacent to a mold cavity, and b) forcing the pellet into contact with the mold surfaces of the mold cavity to plastically deform the pellet to the shape of the mold cavity. The forcing step preferably uses an energy and speed where the pellet superplastically deforms to substantially fill the mold cavity. This process is repeated with the elements being formed in the appropriate order to form a non-textile fabric. The elements thus formed can have a variety of shapes, and can form base units for the formation of the non-textile fabric of two, three or more elements.

Abstract: Flexlock non-textile fabrics use intimately linked elements that are formed from formable, preferably solid phase forgeable materials into generally triangular shapes with hinging connection features along edges of a generally triangular overall shape. These hinging connection portions permit other elements to rotate about axes that intersect at intersections. Buttressing portions are located near these intersections and include cylindrical or conical shapes that abut the buttressing portions of adjacent formed elements. This abutting can occur even when adjacent elements are rotated or twisted out of a common plane. Connection portions include direct formed engagements with knuckles of the other elements. These connection portions and the engaged knuckles can include headed pintles, axles, or oppositely facing conical protrusions, and may be configured to permit the non-textile fabric to bend on itself within its own thickness without undue strain on the connection features.

Abstract: Flexlock non-textile fabrics use intimately linked elements that are formed from formable, preferably solid phase forgeable materials into generally triangular shapes with hinging connection features along edges of a generally triangular overall shape. These hinging connection portions permit other elements to rotate about axes that intersect at intersections. Buttressing portions are located near these intersections and include cylindrical or conical shapes that abut the buttressing portions of adjacent formed elements. This abutting can occur even when adjacent elements are rotated or twisted out of a common plane. Connection portions include direct formed engagements with knuckles of the other elements. These connection portions and the engaged knuckles can include headed pintles, axles, or oppositely facing conical protrusions, and may be configured to permit the non-textile fabric to bend on itself within its own thickness without undue strain on the connection features.