in preferred embodiments of the present invention , the following textile webs , which have a high standing fiber portion can be used . the names used to describe the following materials are generally used in german technical journals to refer to same , and may under certain circumstances be trademarks of the respective manufacturers : a ) dilourized needle punched nonwoven material : in this case , the top or standing side , which is generally made to be facing the covering material , consists of pile fibers which , in a velour - type manner , project vertically from the needle punched nonwoven material . the bottom side of this material is formed by a flat random fiber layer of a medium fiber bonding . the thickness of the pile fiber layer measures approximately 2 to 6 mm , and the portion of vertically arranged pile fibers with respect to overall fibers of the dilourized needle punched nonwoven material is 15 to 40 %. based on a voluminous , transversely oriented nonwoven fiber , this nonwoven fiber is first mechanically bonded by punching it through the bottom material with a barbed needle . then , fiber portions are punched out of the bottom material toward one side by punching through with special needles resulting in a structure on the corresponding side of vertical pile fibers . b ) dilourized nonwoven sewn knit - type material , also known as mali nonwoven : a voluminous nonwoven material with a top or standing side consisting of vertically projecting pile fibers and a bottom side consisting for the most part of fiber loops , wherein the thickness of the pile fiber layer may be 1 to 5 mm and the pile fiber portion may be approximately 10 to 50 %. in this case , the basis is also a transversely oriented nonwoven fiber , wherein portions of the nonwoven fibers are first shaped into fiber loops . then other portions of the nonwoven fibers are pushed out through the material by punching with special needles and a vertical fiber pile is formed on the corresponding side of the nonwoven material . c ) kunit nonwoven knit - type material : a voluminous nonwoven material whose top or standing side consists of vertical pile fiber folds and whose bottom side consists entirely of fiber loops . generally , the thickness is between 2 and 14 mm . the portion of vertically arranged fibers with respect to the total number of fibers is about 30 to 80 %. the manufacturing of kunit nonwoven knit - type structures is based on thin , longitudinally oriented fibrous pile which are first pleated in a winding manner and wherein the thus formed pile folds are then horizontally compressed . this structure is stabilized in that fiber loops , which are integrated into the nonwoven material in a surface covering manner , are formed from the dense family of pile front folds of one side and are intertwined . d ) multiknit nonwoven material : a voluminous nonwoven material whose top or standing side and bottom side consist completely of fiber loops . the fiber layer formed between the fiber loop surfaces contains predominantly vertically orientated fibers . suitable thicknesses are between 4 and 10 mm . the portion of fibers which are vertical relative to the total number of fibers is about 30 to 60 %. the basis of the manufacturing of this nonwoven knit structure is as described above for kunit nonwoven knit structures wherein fiber loops are formed from the fiber pile folds in a surface covering manner on both sides . e ) ksb nonwoven knit structure : a voluminous nonwoven material whose top or standing and bottom side consist completely of fiber loops wherein between both fiber loop surfaces , two fiber layers are provided which have a predominantly vertical fiber orientation and one fiber loop layer is provided which is situated in the center , arranged in a horizontal manner to act in a connecting manner . the producible thicknesses is 6 to 24 mm and the vertical fiber portion is approximately 20 to 50 % based on the total number of fibers . the starting material for this nonwoven knit structure is two layers of kunit nonwoven knit structures which are placed upon one another in a mirror - image manner with the two loop - free sides facing one another . the two layers are connected with one another by pulling fiber portions out of the mutually facing fiber pile fold rows of both layers and making them into fiber loops . f ) struto thermofusion nonwoven material : a voluminous nonwoven material which has a close sequence of parallel pile front folds arranged in lines on both exterior sides and in the center layer , consists of a plurality of sections of thin pile with a random fiber position which are vertically placed close to one another . the producible thicknesses is 10 to 40 mm and the vertical fiber portion is about 30 to 80 %. the manufacturing of the struto thermofusion nonwoven material is based on a longitudinally orientated pile fiber with a binding fiber portion . the thin fiber pile is pleated in a winding manner and the vertically placed standing pile folds are horizontally compressed . this structure is then stabilized in a furnace by means of the binding fibers , that is , by thermofusing . according to a preferred embodiment of the present invention , a portion of 5 to 30 % by weight , preferably of approximately 15 % by weight , of bi - component binding fibers are mixed into the nonwoven material . furthermore , the bi - component binding fibers preferably have a fiber titer ( thickness ) of approximately 10 dtex and a fiber length of an average of 60 mm . in another preferred embodiment , a portion of from 50 to 60 % by weight , preferably of approximately 55 % by weight , of pes ( polyester ) fibers with a fiber titer ( thickness ) of approximately 7 dtex and a fiber length of an average of 75 mm and a portion of from 25 to 35 % by weight , preferably of approximately 30 % by weight , of pes ( polyester ) fibers with a fiber titer ( thickness ) of approximately 11 dtex and a fiber length of an average of 60 mm are mixed into the nonwoven material . in another preferred embodiment , a fiber portion of fine fibers with a titer ( thickness ) of approximately 1 . 7 dtex and a portion of bi - component binding fibers with a fiber titer ( thickness ) of approximately 2 . 2 dtex are mixed into the nonwoven material . in another preferred embodiment , a portion of from 30 to 90 % by weight , preferably of approximately 60 % by weight , of reprocessed fibers , particularly reprocessed wool , is mixed into the nonwoven material . in another preferred embodiment , during the additional bonding , compressing , smoothing , calibrating and laminating , the exterior covering and the nonwoven material are compressed at a temperature of from 180 to 205 ° c ., preferably at approximately 195 ° c . in another preferred embodiment of the first process , during the additional bonding , compressing , smoothing , calibrating and laminating , the exterior covering and the nonwoven material are heated from the nonwoven side to a temperature of from 180 to 205 ° c ., preferably of approximately 195 ° c ., and are heated from the exterior covering side to a temperature of from 90 to 150 ° c ., preferably of approximately 140 ° c ., and are compressed in this condition . in another preferred embodiment , the uncalibrated nonwoven material which is prebonded only once and the exterior covering or the calibrated and additionally prebonded nonwoven material , which are placed between pairs of guide bands , which extend at a distance in a parallel and straight - line manner , are closed on both sides , and are partially heatable and partially coolable , are laminated with adhesive in a flat - bed laminating machine . in another preferred embodiment , a hot - melt type adhesive in the form of a surface - covering 7 × 7 matrix of fine adhesive points is applied to the surface to be laminated . in another preferred embodiment , the adhesive is placed in the form of a thin nonwoven consisting only of binding fibers on the one side and this binding fiber nonwoven material is applied between the surfaces to be glued together . in another preferred embodiment of the first process , the additional bonding , compressing , smoothing , calibrating and laminating of the nonwoven material and of the covering material takes place in partially fabricated blanks . in another preferred embodiment of the second process , the laminating - together of the calibrated and additionally bonded nonwoven material with the covering material is combined in a sequence which is uniform with respect to the machine used and the process with the manufacturing of the nonwoven material as well as the calibrating , smoothing and additional bonding of the nonwoven material . in a comparison of the present invention with a conventional covering material with similar functions and a laminated pur foam material layer and a rear - side knitted structure , a textile multi - layer composite produced according to the present invention was prepared wherein the supporting layer was formed of a kunit nonwoven knit materials . more specifically , two different kunit nonwoven knit materials were selected , whose data are contained in the following table as well as the comparative data of the conventional covering material made of pur foam material layer . the data illustrates that , as intended , the compared covering materials had very similar results with respect to their physical textile test values , because of the suitable selection of covering materials with purely textile structures . for this purpose , it was necessary to select kunit nonwoven materials with a slightly higher mass , that is , a slightly higher weight per unit of volume . for the comparison , a pur foam material layer with a volumetric weight of 40 kg / m 3 and a strain hardness of 4 . 3 kpa was used as well as a rear side knit structure of 55 g / mm 2 . in the two kunit samples , 55 % polyester ( pes ) fibers 7 dtex / 76 mm , 30 % pes ( polyester ) fibers 11 dtex / 60 mm and 15 % pes bi - component binding fibers 9 . 9 dtex / 60 mm were used . the unit dtex refers to the yarn count and is equal to 1 g / 10000 m . the uniform laminating and calibrating process according to the present invention was carried out at 195 ° c . the achieved test results are as follows : ______________________________________ specimen 1 with pur foam specimen 2 specimen 3 and knit with kunit a with kunit b______________________________________volumetric 60 70 80weight kg / m . sup . 3 ! strain hardness 4 . 6 3 . 6 6 . 0 kpa ! pressureelasticityratio %! a . sub . 30 - 5h 28 39 42a . sub . 30 - 5e3 96 93 92recuperativecapacity %! longitudinally 96 84 82transversely 93 90 88remainingdeformation %! dry 8 18 . 5 16 . 5wet 19 20 . 5 16 . 5burning testlongitudinally a a atransversely a a a______________________________________ in the case of the kunit nonwoven knit structure which is additionally bonded by thermofusing , the strain hardness can be controlled by the volumetric weight , that is , by the thickness . the kunit knit structure can be compressed approximately 12 % less and its recuperative capacity is slightly lower . in the case of the remaining deformation , the values for the dry specimen at 70 ° c . are slightly more favorable than for the pur foam , whereas , in the wet / hot condition corresponding to a warm humid sitting condition , there is no difference . with respect to the burning test ( smvss 302 ), the best values overall were achieved with the kunit pes ( polyester ) nonwoven material , without the addition of any flame proofing agents which are customarily added to covering materials made with pur foam . in summary , it may therefore be said that the structure with a base of kunit nonwoven knit material which is additionally bonded by thermofusion , is comparable with the covering materials with pur foam and a knitted rear side with respect to the physical textile values . if , in addition , the advantages of an improved sitting condition because of the exclusive use of fibers , a better resistance to hydrolysis of the pes ( polyester ) fibers in comparison to that of pur foam and a better recycling capacity because of a more homogeneous material structure of the multi - layer composite , are taken into account , a clear advantage is seen in favor of the textile multi - layer composite which can be produced according to the present invention , while the overall costs of the compared processes are the same . laminations are customary in which the nonwoven material is placed in the multi - layer composite in such a manner that the loop side or needle side of the nonwoven material forms the rear side of the multi - layer composite . this orientation of the nonwoven material has the advantage that the top material has a soft support , while the rear side does not shed as easily and has a knit - type appearance . a disadvantage in some cases is a certain sandwich - type stiffness of the multi - layer composite , which may result in undesirable wrinkling in narrow curvatures of the covering material . it may therefore be desirable depending on the individual case to laminate the nonwoven material with its loop side or needle side together with the top material so that the more open pile side forms the rear side of the multi - layer composite . this type of lamination has the advantage that the composite is less resistant to bending and forms fewer wrinkles in narrowly curved areas . as a result , the top material is also more effectively stiffened because the more stable side of the nonwoven material is laminated directly together with the top material . however , the disadvantage in this case is that the top material feels slightly stiffer and the rear side of the multi - layer composite may shed more easily . although the invention has been described and illustrated in detail , it is to be clearly understood that the same is by way of illustration and example , and is not to be taken by way of limitation . the spirit and scope of the present invention are to be limited only by the terms of the appended claims .