Abstract: The present invention relates to a coating, a substrate, a method for coating a body and a method for producing the body substrate, such as a dental or a bone implant. The coating has a high degree of mechanical stability and comprises elements, such as Sr based compounds, which optimize the tissue response to the implanted body thus stimulating healing, bone or tissue growth in the vicinity of the implant. An implant coated with this coating has the ability of sustained release of strontium in a non-toxic concentration of strontium in the vicinity of the implant.

Abstract: The present invention relates to a method for producing non-fouling surfaces and products having such a surface. Especially, the present invention relates to a product comprising a bulk part and a surface region; wherein a first surface region coating is coated on at least a first part of said surface region; said first surface region coating comprising a polyionic co-polymer consisting of a polyionic backbone polymer and non-ionic hydrophilic side chain polymers; wherein the molecular spacing parameter, L/2Rg, of said first surface region coating is less than 0.26.

Abstract: The present invention relates to a coating, a substrate, a method for coating a body and a method for producing the body substrate, such as a dental or a bone implant. The coating has a high degree of mechanical stability and comprises elements, such as Sr based compounds, which optimize the tissue response to the implanted body thus stimulating healing, bone or tissue growth in the vicinity of the implant. An implant coated with this coating has the ability of sustained release of strontium in a non-toxic concentration of strontium in the vicinity of the implant.

Abstract: A device for biological purposes such as cell culturing, enzymatic reactions or filtering of fluid has a body with first and second surfaces. The body is delimited by a rim and an aperture in the center of the body. The aperture is covered at the first and second surface by first and second plates. The first and/or second plate has an inlet orifice allowing liquid medium into the aperture. Rotating means are arranged in the aperture between the first and second plate. At least one recessed portion is a cavity in the rim of the body having a first outlet orifice allowing the liquid medium to flow out of the body. At least one outlet channel connects the circular aperture with the recessed portion. Liquid is pumped into the aperture of the device and pumped through at least one outlet channel.

Abstract: A biocompatible material, wherein at least a part of a surface of the biocompatible material is characterized by a micro or nano-meter scale topographical structure comprising a plurality of features where the structure is selected to promote the growth of undifferentiated pluripotent stem cells or serve to promote the uniform differentiated growth of stem cells. Furthermore, a biocompatible material is provided having a surface structure and composition that affects a cellular function, in particular cellular functions related to gene induction, cell differentiation and the formation of bone tissue in vivo and ex-vivo.

Abstract: A device for biological purposes such as cell culturing, enzymatic reactions or filtering of fluid has a body with first and second surfaces. The body is delimited by a rim and an aperture in the center of the body. The aperture is covered at the first and second surface by first and second plates. The first and/or second plate has an inlet orifice allowing liquid medium into the aperture. Rotating means are arranged in the aperture between the first and second plate. At least one recessed portion is a cavity in the rim of the body having a first outlet orifice allowing the liquid medium to flow out of the body. At least one outlet channel connects the circular aperture with the recessed portion. Liquid is pumped into the aperture of the device and pumped through at least one outlet channel.

Abstract: A biocompatible material, wherein at least a part of a surface of the biocompatible material is characterized by a micro or nano-meter scale topographical structure comprising a plurality of features where the structure is selected to promote the growth of undifferentiated pluripotent stem cells or serve to promote the uniform differentiated growth of stem cells. Furthermore, a biocompatible material is provided having a surface structure and composition that affects a cellular function, in particular cellular functions related to gene induction, cell differentiation and the formation of bone tissue in vivo and ex-vivo.

Abstract: A biosurface structure array (BSSA) comprising a plurality of tester areas whereby each area has a surface topology whose features are defined on a micro- or nanometer scale. The BBSA of the invention may further comprise adsorbed compounds to one or more of the tester fields, e.g. active biological compounds or polymers.

Abstract: A biocompatible material, wherein at least a part of a surface of the biocompatible material is characterized by a micro or nano-meter scale topographical structure comprising a plurality of features where the structure is selected to promote a predetermined cell function in vivo or ex vivo in cell or tissue culture.

Abstract: A safety device for a projectile, adapted to make a barrier between an ignition charge in the forward end of the projectile and one or more incendiary and/or explosive charges situated behind the ignition charge. The device comprises two discs having concentric apertures therethrough, situated behind the ignition charge. A plug constituting the barrier is situated in the aperture in the foremost disc, and a split ring which is held together by a spring supports the plug, the split ring being supported by the rearmost disc. The plug comprises at least one portion adapted to seal the aperture in the foremost disc when being exposed to pressure developed by firing of the ignition charge prior to arming of the projectile. Arming takes place only when the projectile reaches a rotational velocity sufficient to open the split ring because of the centrifugal forces, whereby these forces exceed the resistance of the spring.