Abstract: Cosmetic compact having a base including a bottom and a first wall. The first wall extending from the bottom and forming an opening configured to receive a plurality of cosmetic containers. A second wall and a third wall extending from the bottom and spaced apart from one another and forming cosmetic container restraining sidewalls configured to restrain the plurality of cosmetic containers when the bottom is inverted. A lid operably coupled to base and configured to transition between a closed position and an open position in which cosmetics in the base are exposed for use.

Abstract: A retractable cosmetic pencil including a barrel, godet, lower threaded portion and an end cap is disclosed. The godet can be configured to move longitudinally within the barrel. The lower threaded portion can be configured to be coupled to the godet. The end cap can be configured to be coupled to the lower threaded portion. An injection receiving opening can formed in the closed end of the end cap, wherein the injection receiving opening is configured to receive an injection nozzle such that the retractable cosmetic pencil can be backfilled when the godet is in a retracted position relative to the lower threaded portion.

Abstract: A cosmetics container includes a shelf portion with a cosmetic material retention area which is configured to receive a cosmetic material. The container can include a base portion which can include a shelf portion-receiving section. The container can have a top portion which includes a base portion-receiving section, whereby the top portion can releasably engage with the base portion or the shelf portion or both. The top portion can form a transverse line along a portion of an exterior of the container when the container is in an assembled configuration. The transverse line can form a plane which bisecting the container. The base portion can have a truncated region with a substantially flat area. The substantially flat area can form an angle with the bisecting plane when the container is in the assembled configuration.

Abstract: A cosmetics container includes a shelf portion with a cosmetic material retention area which is configured to receive a cosmetic material. The container can include a base portion which can include a shelf portion-receiving section. The container can have a top portion which includes a base portion-receiving section, whereby the top portion can releasably engage with the base portion or the shelf portion or both. The top portion can form a transverse line along a portion of an exterior of the container when the container is in an assembled configuration. The transverse line can form a plane which bisecting the container. The base portion can have a truncated region with a substantially flat area. The substantially flat area can form an angle with the bisecting plane when the container is in the assembled configuration.

Abstract: A retractable cosmetic pencil including a barrel, godet, lower threaded portion and an end cap is disclosed. The godet can be configured to move longitudinally within the barrel. The lower threaded portion can be configured to be coupled to the godet. The end cap can be configured to be coupled to the lower threaded portion. An injection receiving opening can formed in the closed end of the end cap, wherein the injection receiving opening is configured to receive an injection nozzle such that the retractable cosmetic pencil can be backfilled when the godet is in a retracted position relative to the lower threaded portion.

Abstract: Amorphous Fe100-a-bPaMb foil, preferably in the form of a free-standing foil, process for its production by electrodeposition or electroforming of an aqueous plating solution, and its uses as a constitutive element of a transformer, generator, motor, pulse applications and magnetic shieldings. “a” is a real number ranging from 13 to 24, b is a real number ranging from 0 to 4, and M is at least one transition element other than Fe. The amorphous Fe100-a-bPaMb foil has the properties of being amorphous as established by the X-ray diffraction method, an average thickness greater than 20 micrometers, a tensile strength in the range of 200-1100 MPa, an electrical resistivity of over 120 ??cm, and at least one of a high saturation induction (Bs) greater than 1.4 T, a coercive field (Hc) of less than 40 A/m, a loss (W60), at power frequencies (60 Hz), and for a peak induction of at least 1.35 T, of less than 0.65 W/kg, and a relative magnetic permeability (B/?0H) greater than 10000, for low values of ?0H.

Abstract: Amorphous Fe100-a-bPaMb foil, preferably in the form of a free-standing foil, process for its production by electrodeposition or electroforming of an aqueous plating solution, and its uses as a constitutive element of a transformer, generator, motor, pulse applications and magnetic shieldings. “a” is a real number ranging from 13 to 24, b is a real number ranging from 0 to 4, and M is at least one transition element other than Fe. The amorphous Fe100-a-bPaMb foil has the properties of being amorphous as established by the X-ray diffraction method, an average thickness greater than 20 micrometers, a tensile strength in the range of 200-1100 MPa, an electrical resistivity of over 120 ??cm, and at least one of a high saturation induction (Bs) greater than 1.4 T, a coercive field (Hc) of less than 40 A/m, a loss (W60), at power frequencies (60 Hz), and for a peak induction of at least 1.35 T, of less than 0.

Abstract: A cryogenic current limiting fuse is disclosed together with a method of manufacturing a cryogenic current limiting fuse, the cryogenic current limiting fuse comprising a first cryogenic composite and a second cryogenic composite wherein at least one of the first and the second cryogenic composites has a non-linear and increasing resistivity with respect to at least one of temperature and current.

Abstract: A cryogenic current limiting fuse is disclosed together with a method of manufacturing a cryogenic current limiting fuse, the cryogenic current limiting fuse comprising a first cryogenic composite and a second cryogenic composite wherein at least one of the first and the second cryogenic composites has a non-linear and increasing resistivity with respect to at least one of temperature and current.

Abstract: A melt-texturing method for producing high transition temperature superconducting ceramic elements of given length, such as wires of Y Ba.sub.2 Cu.sub.3 O.sub.7-.delta., which method is much faster and efficient than the existing ones. In this method, an element made of grains of superconducting ceramic precursor material is subjected to zone melting at a number of different locations equally spaced apart along its length. This multi-zone-melting is carried out at the same time, under the same temperature and speed conditions and in the same direction so as to form a same number of similarly textured zones along the length of the element, which zones grow up while the method progresses until they merge. This method makes it possible to multiply the present rate of production known to be very low, by a number of the same order of magnitude as the number of different locations where zone melting is carried out.

Abstract: An alloy having a low reactivity towards certain high temperature superconducting materials at temperatures up to about 10.degree. C. lower than the melting point of the alloy. The alloy is a ternary silver-based alloy consisting, by weight, of 0.5-9% palladium, 20-40% gold, balance silver. Using the alloy and a superconducting material of the type R-Ba-Cu-O, where R is yttrium or a rare earth element, composite conductors can be formed at temperatures equal or higher than the temperature of peritectic decomposition of the superconductor. The alloy may also be used as a buffer layer or cladding material on substrates having unacceptably high reactivity towards the superconducting material.

Abstract: A multifilament superconducting strand for use at industrial frequencies and made from an initial billet comprising a superconducting core niobium-titanium alloy surrounded by an anti-diffusion barrier layer which is in turn surrounded by a copper based matrix material, with the strand being made from the billet by successive stages of extrusion, wire-drawing, and assembly, wherein the strand includes 5.times.10.sup.5 to 5.times.10.sup.6 filaments each constituted by the superconducting core reduced to a diameter in the range 50 nm to 150 nm, the filaments being separated from one another by a distance lying in the range 30 nm to 100 nm, which distance is occupied by the anti-diffusion layer and the matrix material. The matrix material contains in excess of 8% manganese when the anti-diffusion layer is made of niobium, or alternatively, the anti-diffusion layer may be of an iron-containing alloy with the matrix containing copper and nickel.