A surgical joint replacement kit including a first joint replacement component and a surgical sealant. The first joint replacement component is capable of being implanted to replace a joint between a first bone and a second bone. The first bone is cut in conjunction with implanting the first joint replacement component. Cutting the first bone causes a bodily fluid to flow from the first bone. The surgical sealant includes an electrospun dextran base and an effective amount of at least one of fibrinogen and thrombin. The at least one of fibrinogen and thrombin is applied to the electrospun dextran base to form the surgical sealant. The surgical sealant is capable of staunching the flow of the bodily fluid from the first bone.

Provided herein are novel methods and compositions utilizing adipose tissue-derived stromal stem cells for treating fistulae.

The present invention relates to new plasma or new platelet-rich plasma preparations, new cell dissociation methods, new cell associations or compositions, a method of preparation thereof, a use thereof, devices for the preparation thereof and preparations containing such a platelet-rich plasma preparation and cell associations or compositions. Specifically, the invention provides plasma or platelet-rich plasma alone or in cell composition preparations for use in tissue regeneration and bone regeneration and pain reduction.

A flowable hemostatic gel composition is provided for use at a site of a defect within a biological tissue. The flowable hemostatic gel composition includes a flowable gel solution that includes a biopolymer dissolved in a first solvent. The biopolymer is configured to cross-link with red blood cells at the site to facilitate clot formation at the site. The flowable hemostatic gel composition also includes at least one additional active agent.

The current disclosure provides compositions and methods for wound closure. The disclosure provides an device comprising: a) a material with a surface comprising a modified fibrinogen or a modified fibrin, wherein the modified fibrinogen or modified fibrin is more resistant to fibrinolysis than an unmodified fibrinogen or an unmodified fibrin, respectively; and b) one or more dispersible fibrinolysis inhibitors in contact with the surface comprising a plasmin inhibitor; and c) optionally, a thrombin agent or platelets.

Provided herein is a single component sealant formulation (e.g. in a liquid form), methods for its preparation, and use. The formulation includes fibrinogen; vitamin K-dependent clotting zymogens comprising at least Factor II (FII) and Factor X (FX).

Provided is a method of forming a fibrinogen hydrogel composition, the method including providing a fibrinogen hydrogel or precursor thereof, comprising fibrinogen hydrogel forming salt. The fibrinogen hydrogel forming salt concentration is greater than or equal to the threshold concentration to form a fibrinogen hydrogel. The method further includes denaturing the fibrinogen hydrogel such as by heating. The method optionally further includes combining the fibrinogen hydrogel with a carrier material. When present, the concentration of the carrier material typically ranges from 0.1 to about 50 wt.-%. The method further includes reducing the salt concentration below the threshold concentration to form a fibrinogen hydrogel.

Provided herein are novel methods and compositions utilizing adipose tissue-derived stromal stem cells for treating fistulae.

Disclosed are solid and frozen haemostatic materials having a rod shape and suitable applicators and plungers for application of such dressings to wounded tissue wherein said dressings consisting essentially of a fibrinogen component and a fibrinogen activator. Also disclosed are methods of treating internal wounded tissue in a mammal by applying one or more of these haemostatic materials and dressings, particularly for the treatment of injured tissue via endoscopic or minimally-invasive surgical techniques.

The subject matter of the present disclosure generally relates to a method and system for providing a bi-directional neural interface having an electrode configured to be positioned on a nerve; a substrate holding the electrode; a biocompatible insulator configured to electrically isolate the electrode when the electrode is positioned on the nerve, wherein the biocompatible insulator is formed in place about the electrode; and a pulse generator configured to deliver energy pulses to the electrode.