Abstract: The present invention relates to a drop dispenser (1), comprising: —a container part (1B) with an interior volume adapted to be partially filled with a liquid phase (2) and a gaseous phase (3) filling the remainder of the interior volume at ambient pressure, the container part (1B) having a displaceable section (1C), and —a dropper part (1A) in physical connection and in fluid communication with the interior volume of the container part (1B), comprising an outflow channel (5), connecting the interior volume of the container part (1B) to the environment; wherein the outflow channel (5) comprises —a first section (5a) having a proximal end (5ap) and a distal end (5ad), each end having the same or different inner diameter selected independently from each other in the range of 0.09 to 0.19 mm; and —a second section (5b) having a proximal end (5bp) and a distal end (5bd); the proximal end (5bp) having an inner diameter in the range of 1 to 3 mm; the distal end (5bd) having an inner diameter in the range of 0.

Abstract: The present invention relates to a method for topical administration of ophthalmic compositions in a dropwise manner, preferably for topical administration of ophthalmic compositions comprising semifluorinated alkanes (SFAs). Further, the present invention relates to the use of said methods in the prevention or treatment of ocular diseases or disorders or any symptoms or conditions associated therewith. In a further aspect, the present invention relates to a kit comprising a drop dispenser at least partially filled with a liquid composition for the use in such a method and directions for use of said drop dispenser.

Abstract: The present invention relates to a method for topical administration of ophthalmic compositions in a dropwise manner, preferably for topical administration of ophthalmic compositions comprising semifluorinated alkanes (SFAs). Further, the present invention relates to the use of said methods in the prevention or treatment of ocular diseases or disorders or any symptoms or conditions associated therewith. In a further aspect, the present invention relates to a kit comprising a drop dispenser at least partially filled with a liquid composition for the use in such a method and directions for use of said drop dispenser.

Abstract: In one embodiment, an ammonium removal system can comprise: a solids removal tank; a multivalent cation remover disposed downstream of the solids removal tank and capable of removing a multivalent cation from a stream to form a treated stream; a base source capable of sufficiently increasing a pH of the treated stream to convert greater than or equal to about 50 wt % of ammonium in the stream to ammonia; an ammonia removal tank capable of separating the ammonia from the treated stream; and an ammonia recovery device.

Abstract: In one embodiment, an ammonium removal method can comprise: removing a multivalent cation from a stream comprising ammonium to form a treated stream; converting the ammonium in the stream to ammonia by increasing the pH of the stream; and separating the ammonia from the treated stream to form a separated stream and gaseous ammonia. In another embodiment, an ammonium removal method can comprise: a multivalent cation from a stream comprising ammonium to form a treated stream comprising a total of less than or equal to about 50 ppm by weight of multivalent cations; increasing the pH of the stream to a conversion pH; converting the ammonium to ammonia; and separating the ammonia from the treated stream to form a separated stream and gaseous ammonia.

Abstract: Insulating fabric having a knitted base fabric incorporating air-entrapping cells on one or both sides. The base fabric is knit from a bulk acrylic yarn, preferably high bulk acrylic yarn, and a combination polyester and cotton yarn, the yarns being knitted separately in selected fabric courses. The inner face of the fabric is formed of the bulk acrylic yarn, to provide a soft, warm and comfortable interior surface when worn. The outer face of the fabric is formed of the polyester/cotton yarn, which provides a knitted framework for anchoring and stabilizing the high bulk yarn in the fabric. Following knitting, the fabric is subjected to a series of finishing operations which include scouring, padding, drying and calendering. Preferably, the inner acrylic surface of the fabric is napped prior to calendering. As the result of repeated washings, the insulating fabric of the invention increases in thickness to enhance its heat insulating capability and provide increased warmth.

Abstract: Insulating fabric having a knitted base fabric incorporating air-entrapping cells on one or both sides. The base fabric is knit from a bulk acrylic yarn, preferably high bulk acrylic yarn, and a combination polyester and cotton yarn, the yarns being knitted separately in selected fabric courses. The inner face of the fabric is formed of the bulk acrylic yarn, to provide a soft, warm and comfortable interior surface when worn. The outer face of the fabric is formed of the polyester/cotton yarn, which provides a knitted framework for anchoring and stabilizing the high bulk yarn in the fabric. Following knitting, the fabric is subjected to a series of finishing operations which include scouring, padding, drying and calendering. Preferably, the inner acrylic surface of the fabric is napped prior to calendering. As the result of repeated washings, the insulating fabric of the invention increases in thickness to enhance its heat insulating capability and provide increased warmth.

Abstract: Insulating fabric having a knitted base fabric incorporating air-entrapping cells on one or both sides. The base fabric is knit from a high bulk acrylic yarn and a combination polyester and cotton yarn, the yarns being knitted separately in selected fabric courses. The inner face of the fabric is formed of the high bulk yarn, to provide a soft, warm and comfortable interior surface when worn. The outer face of the fabric is formed of the polyester/cotton yarn, which provides a knitted framework for anchoring and stabilizing the high bulk yarn in the fabric. Following knitting, the fabric is subjected to a series of finishing operations which include scouring, padding, drying, napping and calendering. As the result of repeated washings, the insulating fabric of the invention increases in thickness to enhance its heat insulating capability and provide increased warmth.