Aspects of the disclosure relate to bioreactors for maintaining biological objects (e.g., organ or engineered tissues) under culture conditions. In some embodiments, bioreactors and cover assemblies are provided that comprise a support base for supporting a biological object. In some embodiments, bioreactors and cover assemblies are provided that comprise a movable support base configured such that a user can manipulate its position and thus the relative position of the biological object.

The invention relates to cassettes for culturing cells. The invention also relates to analytical and preparative incubators for housing the cassettes. The invention also relates to methods of using the cassettes, for example, to culture cells wherein the processes of feeding and passaging cells are automated.

The invention provides articles of manufacture comprising biocompatible nanostructures comprising nanotubes and nanopores for, e.g., organ, tissue and/or cell growth, e.g., for bone, kidney or liver growth, and uses thereof, e.g., for in vitro testing, in vivo implants, including their use in making and using artificial organs, and related therapeutics. The invention provides lock-in nanostructures comprising a plurality of nanopores or nanotubes, wherein the nanopore or nanotube entrance has a smaller diameter or size than the rest (the interior) of the nanopore or nanotube. The invention also provides dual structured biomaterial comprising micro- or macro-pores and nanopores. The invention provides biomaterials having a surface comprising a plurality of enlarged diameter nanopores and/or nanotubes.

The present invention relates to a method of using cells to produce a substance, and involves applying the cells to a polyimide porous film, culturing the cells and producing the substance by means of the cells.

The present disclosure relates to bioactive hydrogels derived from human blood plasma. More particularly, the disclosure relates to multifunctional materials for cell encapsulation, cell culture platforms, medical treatment apparatus and methods, more particularly, hydrogels derived from human blood components and technologies for use of such materials in research, biomedical treatment, biotech and pharmaceutical industry. The disclosure further relates to 3D printable scaffolds, sponges, foams, fibers, particles, capsules, membranes and injectable systems comprising said hydrogel. Additionally, this disclosure allows for the controlled placement of biologically active components that may be delivered by the hydrogel compositions.

A culture container for culturing lymphocytes includes an immobilized surface and a non-immobilized surface, wherein the culture container is formed of a gas permeable film, the immobilized surface and the non-immobilized surface are container inner surfaces facing each other, and anti-CD3 antibodies are immobilized in the immobilized surface at a concentration of 10 to 300 ng/cm.sup.2.

An apparatus for culturing suspended photosynthetic organisms, specifically a flowing thin film photobioreactor, wherein the flowing thin film photobioreactor comprises a light source and a trickle-film insert comprising screen material.

A device for aseptically obtaining a physical sample of an adherent cell culture substrate from an adherent cell culture bioreactor. This enables the operator to directly evaluate e.g., cell density/confluence on the substrate without contaminating the cell culture.

Ex-vivo culture systems are provided. Accordingly there is provided a culture system comprising a culture medium and a precision-cut tissue slice placed on a tissue culture insert, wherein the precision-cut tissue slice is maintained in a highly oxygenated atmosphere containing at least 50% oxygen and wherein said culture is rotationally agitated facilitating intermittent submersion of the tissue slice in the culture medium. Also provided are methods of culturing a tissue and methods of using the culture system for selecting a drug for the treatment of a disease.

An assembly and method to precisely and concurrently control the concentration, release, and depletion of chemical and biochemical species in localized regions in a three-dimensional volume of material using spatially patterned light. The system includes a container for holding a material comprising photo-responsive substance; the container is mounted to a motorized rotation stage that rotates the container along the z-axis at a predetermined rate; and a projector configured to project radiations at predefined wavelengths along an r-axis into the container while the container is rotating, wherein the radiations from multiple angles intersect to form localized photoreactive regions within a volume of the material.