Abstract: A recyclable multilayer synthetic foam container that does not wick, for direct and non-direct food contact and aseptic packaging application is disclosed. In one aspect, a container comprises a pre-creased and/or folded multilayer synthetic foam sheet comprising at least one foam layer, that can be hermetically sealed along the edges, wherein the synthetic board sheet is a recyclable material that does not wick. In another aspect, the product has a bending stiffness value greater than 17 in Taber stiffness unit configuration according to TAPPI/ANSI T 489 om-15. In some embodiments, the product can have an oxygen transmission rate of less than 20 cc/m2/24 hr, according to ASTM D3985. In some embodiments, the product can have a water vapor transmission rate of less than 10 gr/m2/24 hr, according to ASTM E398-13.

Abstract: A recyclable multilayer synthetic foam container that does not wick, for direct and non-direct food contact and aseptic packaging application is disclosed. In one aspect, a container comprises a pre-creased and/or folded multilayer synthetic foam sheet comprising at least one foam layer, that can be hermetically sealed along the edges, wherein the synthetic board sheet is a recyclable material that does not wick. In another aspect, the product has a bending stiffness value greater than 17 in Taber stiffness unit configuration according to TAPPI/ANSI T 489 om-15. In some embodiments, the product can have an oxygen transmission rate of less than 20 cc/m2/24 hr, according to ASTM D3985. In some embodiments, the product can have a water vapor transmission rate of less than 10 gr/m2/24 hr, according to ASTM E398-13.

Abstract: A recyclable multilayer synthetic foam container that does not wick, for direct and non-direct food contact and aseptic packaging application is disclosed. In one aspect, a container comprises a pre-creased and/or folded multilayer synthetic foam sheet comprising at least one foam layer, that can be hermetically sealed along the edges, wherein the synthetic board sheet is a recyclable material that does not wick. In another aspect, the product has a bending stiffness value greater than 17 in Taber stiffness unit configuration according to TAPPI/ANSI T 489 om-15. In some embodiments, the product can have an oxygen transmission rate of less than 20 cc/m2/24 hr, according to ASTM D3985. In some embodiments, the product can have a water vapor transmission rate of less than 10 gr/m2/24 hr, according to ASTM E398-13.

Abstract: The present invention relates to methods of modulating mammalian stem cell and progenitor cell differentiation. The methods of the invention can be employed to regulate and control the differentiation and maturation of mammalian, particularly human stem cells along specific cell and tissue lineages. The methods of the invention relate to the use of certain small organic molecules to modulate the differentiation of stem or progenitor cell populations along specific cell and tissue lineages, and in particular, to the differentiation of embryonic-like stem cells originating from a postpartum placenta or for the differentiation of early progenitor cells to a granulocytic lineage. Finally, the invention relates to the use of such differentiated stem or progenitor cells in transplantation and other medical treatments.

Abstract: A method of manufacturing a padded part is provided. The padded part is primarily for use in an item of wear that may be a load-bearing harness or belt. The method includes the steps of providing a first sheet of a flexible material on one side of which is located at least one fastener. A second sheet of flexible material is provided and a layered assembly is created including, in order, the first sheet of material such that said one side of the first sheet is outermost, apiece of mouldable padding, and the second sheet of flexible material. Hot melt adhesive layers are provided between the padding and the sheets of flexible material. The layered assembly is moulded in a press after or during heating of the layered assembly thereby simultaneously bonding the layers of the assembly together and moulding the layered assembly into a predetermined shape.

Abstract: A method of manufacturing a flexible, impact-resistant material (1) comprises the steps of providing a sheet of a closed-cell foam material (20) and cutting the sheet (20) into a plurality of spaced elements (2). These elements (2) are substantially separated except for connecting portions (7) that connect the elements to neighboring elements such that the elements (2) are joined to define a lattice (6). A first flexible substrate (3; 25) is bonded to one face of the lattice. The connecting portions (7) that connect the elements (2) to neighboring elements are then removed, either with or without removing those portions of the substrate (3) bonded to the connecting portions (7), for example by punching, cutting or laser ablation. A second flexible substrate (27) may be bonded to the opposite face of the lattice either before or after removal of the connecting portions.

Abstract: A method of manufacturing a flexible, impact-resistant material comprises the steps of providing a sheet of a closed-cell foam material and cutting the sheet into a plurality of spaced elements. These elements are substantially separated except for connecting portions that connect the elements to neighbouring elements such that the elements are joined to define a lattice. A first flexible substrate is bonded to one face of the lattice. The connecting portions that connect the elements to neighbouring elements are then removed, either with or without removing those portions of the substrate bonded to the connecting portions, for example by punching, cutting or laser ablation. A second flexible substrate may be bonded to the opposite face of the lattice either before or after removal of the connecting portions.

Abstract: A method of manufacturing a flexible, impact-resistant material includes the steps of providing a sheet of a closed-cell foam material and cutting the sheet into at least two tessellating patterns, preferably by a cutter. The tessellating patterns are then differentially moved relative to one another such that the surface of one of the tessellating patterns stands proud of the surface of the other tessellating patterns. A first, flexible layer of material is then bonded to the surface of the tessellating pattern standing proud of the rest. Preferably, a block arrangement is located in the cutter that causes the tessellating patterns to move relative to one another after the sheet of foam material has been cut.

Abstract: A flexible, impact-resistant laminate includes a first layer of a flexible material and a second, impact-resistant layer. The impact-resistant layer has an impact-resistant material interposed between regions of a closed-cell foam that is bonded to the first layer. The impact-resistance material includes an elastomeric material or, if a third layer of a flexible material is bonded to the closed-cell foam, there is a packing with tightly packed beads or particles. A method of manufacturing such a laminate includes providing a first, flexible layer; bonding regions of a closed-cell foam to an inner side of the first layer; and introducing an impact-resistant material into spaces defined between regions of the closed-cell foam to form a second, impact resistant layer. An inner side of the third layer of a flexible material may be bonded to the closed-cell foam on the other side.

Abstract: A flexible protective padding material is described and comprises an array of resilient multilayered elements or blocks which have generally planar top and bottom surfaces and each of which have at least two layers which include a first layer bonded to an outer second layer. The total compressibility of each element with the at least two layers, the spacing between the elements and the total thickness of the elements provides the elements with the ability to compress such that at least one side wall of each of adjacent elements move together and touch each other to provide a joined outer surface of elements which dissipates a blow to the protective padding.

Abstract: Substituted 2-(2,6-dioxopiperidin-3-yl)phthalimides and 1-oxo-2-(2,6-dioxopiperidin-3-yl)isoindolines are disclosed. The compounds are useful, for example, in reducing the levels of TNF? in a mammal.

Abstract: Substituted 2-(2,6-dioxopiperidin-3-yl)phthalimides and 1-oxo-2-(2,6-dioxopiperidin-3-yl)isoindolines are disclosed. The compounds are useful, for example, in reducing the levels of TNF? in a mammal.

Abstract: Substituted 2-(2,6-dioxopiperidin-3-yl)phthalimides and 1-oxo-2-(2,6-dioxopiperidin-3-yl)isoindolines are disclosed. The compounds are useful, for example, in reducing the levels of TNF? in a mammal.

Abstract: A method of manufacturing a cylindrical glass optical waveguide preform having a low water content centerline region, for use in the manufacture of optical waveguide fiber, is disclosed. The centerline region of the glass optical waveguide preform has a water content sufficiently low such that an optical waveguide fiber producible from the glass optical waveguide preform of the present invention exhibits an optical attenuation of less than about 0.35 dB/km, and preferably less than about 0.31 dB/km, at a measured wavelength of 1380 nm. Method of manufacture of a porous core mandrel used in the manufacture of such a glass optical waveguide preform is also disclosed.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.

Abstract: A flexible material includes a plurality of separate resilient elements joined to a flexible, resiliently stretchable substrate. Such a material is suitable for providing protective war for human and animal bodies. Preferably, the elements includes a foam material such as a closed cell polyethylene foam and the substrate includes a knitted fabric. In an advantageous embodiment, a second flexible substrate is bonded over the elements to sandwich them between the two layers of substrate.