Abstract: Systems and methods for detecting data storage drive failures are described. In an illustrative, non-limiting embodiment, an Information Handling System (IHS) may include: a processor; and a memory coupled to the processor, where the memory includes program instructions store thereon that, upon execution by the processor, cause the IHS to: obtain data attributes of a data storage drive within a system of data storage drives; generate, based at least in part on the data attributes of the data storage drive, engineered features related to the system of data storage drives; and generate, using a trained artificial intelligence or machine learning model, and based at least in part on the engineered features, a probability of failure for the data storage drive.

Abstract: A method for collaborative ideation is provided. The method uses a plurality of network-connected processor-based devices operated by collaborates separated into teams. The devices have display screens, and the method involves providing thereon: an idea creation graphical user interface (GUI) allowing collaborators to individually describe ideas; an idea enrichment GUI allowing collaborators to add or modify facets of the individual ideas; a facet evaluation GUI allowing collaborators to vote on a pertinence of each of the facets of an idea; and an idea selection GUI allowing the collaborators to select at least one final idea. A system for providing a collaborative ideation platform and a non-transient computer readable medium for providing the ideation platform on a computer are also provided.

Abstract: A method and a device (10) for reorganizing the fibers of a matrix in a living tissue sheet (S) by inducing controlled mechanical constraints in the living tissue (S) sheet thus causing the fibers of the matrix to be aligned parallel to the strain orientation. The sheet (S) is held in a stretched state until the fibers set in place.

Abstract: A method for preparing a human or animal tissue by applying a compressive force to a stack of sheets of living tissue thereby inducing adjacent layers to fuse or adhere to each other. The force is applied in direction normal to the surface of the tissue. A multi-layer tissue produced by the method described above can also possess at least two different types of sheets and/or consist essentially of between two and twelve sheets of living tissue. The method can also be used to prepare a planar tissue that can further be incorporated in a multi-layer tissue construct. The methods and tissues described herein are useful for the preparation of engineered tissues.

Abstract: The present invention relates a method for isolating four cell types from a single umbilical cord as pure cultures. These cell lines (epithelial cells, fibroblasts, smooth muscle cells and endothelial cells) can be characterised and utilised in experimental models and for therapeutic purposes. Particularly, the umbilical cells isolated herein are used to form a tissue replacement or engineered living composition. Also, the isolated umbilical cells of the invention may have the potential of progenitor cells.

Abstract: The present invention relates to a method of assembling a single living tissue sheet formed of different cell populations. According to this invention at least two cell populations composing at least two living tissue sheets can be assembled into a single continuous tissue construct The cells of this construct can also be autologous or heterologous depending on the needs and the type of implant to be transferred in a recipient patient.

Abstract: The present invention relates to connective tissue substitute implant and method of preparation thereof. The implant is essentially composed of two bone anchors joined at the proximal ends by matrix layers and/or filaments coated by supplementary biocompatible matrix coating layer which can contain living stem cells isolated from injured connective tissue.

Abstract: The present invention relates a method for isolating four cell types from a single umbilical cord as pure cultures. These cell lines (epithelial cells, fibroblasts, smooth muscle cells and endothelial cells) can be characterised and utilised in experimental models and for therapeutic purposes. Particularly, the umbilical cells isolated herein are used to form a tissue replacement or engineered living composition. Also, the isolated umbilical cells of the invention may have the potential of progenitor cells.

Abstract: A method for preparing a human or animal tissue by applying a compressive force to a stack of sheets of living tissue thereby inducing adjacent layers to fuse or adhere to each other. The force is applied in direction normal to the surface of the tissue. A multi-layer tissue produced by the method decribed above can also possess at least two different types of sheets and/or consist essentially of between two and twelve sheets of living tissue. The method can also be used to prepare a planar tissue that can further be incorporated in a multi-layer tissue construct. The methods and tissues described herein are useful for the preparation of engineered tissues.

Abstract: The present invention relates to a method of assembling a single living tissue sheet formed of different cell populations. According to this invention at least two cell populations composing at least two living tissue sheets can be assembled into a single continuous tissue construct. The cells of this construct can also be autologous or heterologous depending on the needs and the type of implant to be transferred in a recipient patient.

Abstract: The present invention relates two new methods of improving the functionality of human or animal tissues by physically or biochemically treating the tissue prior to submitting it to different tests or before grafting it to a recipientpatient. Such a treated tissue is therefore rendered having a greater capability to resist to mechanical stress or shows a higher contractility.

Abstract: A method and a device (10) for reorganizing the fibers of a matrix in a living tissue sheet (S) by inducing controlled mechanical constraints in the living tissue (S) sheet thus causing the fibers of the matrix to be aligned parallel to the strain orientation. The sheet (S) is held in a stretched state until the fibers set in place.

Abstract: The tissue-engineered heart valve of the present invention is comprised of elements, such as leaflets, formed from self-supporting human engineered tissue. Such self-supporting tissue is comprised of living biological cells and extracellular matrix without the presence of nonviable scaffolding structures. Thus, the tissue-engineered heart valve of the present invention consists of totally living human tissue which could theoretically function like a native biological structure with the potential to grow, to repair and to remodel.