A long fiber resorbable thermoplastic process of making a composition comprising: a) a resorbable matrix comprising of polycaprolactone; b) one or more reinforcing fiber(s) impregnated into the resorbable matrix; wherein the reinforced fiber(s) comprise poly(vinyl alcohol) or polyglycolide and wherein the melting temperature of the resorbable matrix is lower than that of the fiber(s) and wherein the resorbable matrix has an inherent viscosity of not more than 2 dL/g and wherein the resorbable matrix and the reinforcing fiber(s) optionally contain additives, wherein the process comprises impregnating the materials in the reinforcing phase into the resorbable matrix phase by: a. melting the resorbable matrix phase using common methods such as extruder, reactor, or melt pump; b. routing the melted resorbable matrix phase into a die; c. routing the melted resorbable matrix phase inside the die to a flat strip area; d. feeding fiber bundles into the flat strip area where the bundles are incorporated into the melted resorbable matrix phase; e. pulling the fiber bundles and the melted resorbable matrix phase through the die over high-pressure zones indie the die, such as narrow sections or rollers; f. forcing the melted resorbable matrix phase into the fiber bundles by wetting the fiber bundles, thereby forming a pre-impregnated material coming out of the die; and g. collecting the pre-impregnated material that is formed into a flat strand or a circular strand; and h. optionally pelletizing the material for injection molding. a) a resorbable matrix comprising of polycaprolactone; b) one or more reinforcing fiber(s) impregnated into the resorbable matrix; wherein the reinforced fiber(s) comprise poly(vinyl alcohol) or polyglycolide and wherein the melting temperature of the resorbable matrix is lower than that of the fiber(s) and wherein the resorbable matrix has an inherent viscosity of not more than 2 dL/g and wherein the resorbable matrix and the reinforcing fiber(s) optionally contain additives, wherein the process comprises impregnating the materials in the reinforcing phase into the resorbable matrix phase by: a. melting the resorbable matrix phase using common methods such as extruder, reactor, or melt pump; b. routing the melted resorbable matrix phase into a die; c. routing the melted resorbable matrix phase inside the die to a flat strip area; d. feeding fiber bundles into the flat strip area where the bundles are incorporated into the melted resorbable matrix phase; e. pulling the fiber bundles and the melted resorbable matrix phase through the die over high-pressure zones indie the die, such as narrow sections or rollers; f. forcing the melted resorbable matrix phase into the fiber bundles by wetting the fiber bundles, thereby forming a pre-impregnated material coming out of the die; and g. collecting the pre-impregnated material that is formed into a flat strand or a circular strand; and h. optionally pelletizing the material for injection molding. a. melting the resorbable matrix phase using common methods such as extruder, reactor, or melt pump; b. routing the melted resorbable matrix phase into a die; c. routing the melted resorbable matrix phase inside the die to a flat strip area; d. feeding fiber bundles into the flat strip area where the bundles are incorporated into the melted resorbable matrix phase; e. pulling the fiber bundles and the melted resorbable matrix phase through the die over high-pressure zones indie the die, such as narrow sections or rollers; f. forcing the melted resorbable matrix phase into the fiber bundles by wetting the fiber bundles, thereby forming a pre-impregnated material coming out of the die; and g. collecting the pre-impregnated material that is formed into a flat strand or a circular strand; and h. optionally pelletizing the material for injection molding.