the principles of the invention will now be described , with respect to a sintering furnace 10 and a link belt 14 as illustrated in fig1 - 20 . advantageously and in accordance with various aspects of the invention , the link belt overcomes relatively high friction due to its roller configuration . in addition , as a result of the link belt in accordance with the invention having a relatively flat upper surface 142 ( comprising lateral surface 144 and longitudinal surfaces 146 ) and offset rollers 128 , larger parts are allowed to be placed on the belt . still further , the offset rollers allow for use in current furnaces which use friction drives . the belt uses rollers 128 which can be formed of ceramic material . the use of the ceramic precludes spot welding of the rollers 128 to the pins 132 . still further , the use of ceramic material for the rollers avoids the potential for “ stiction ” if the belt is stopped while under relatively high temperatures . the belt links can be constructed of iron - nickel super alloys or other suitable metal . this type of construction will maintain relatively high strength , while also maintaining relatively better ductility than a fully ceramic belt . the belt has a relatively lower initial cost of ownership than belts which consist of wire mesh systems , or which otherwise consist of fully ceramic systems . turning to fig1 , the drawing illustrates a sintering furnace system 10 . the furnace system 10 includes a sintering furnace 12 . it should be emphasized that link belts in accordance with the invention may be utilized with apparatus other than sintering furnaces . for background information , sintering consists of a method for making objects from powder , by heating the material ( heating below its melting point for solid state sintering ) until the particles adhere to each other . sintering is traditionally used for manufacture of ceramic objects , and also has uses in fields such as metallurgy . for providing the sintering functions associated with the furnace 12 , a link belt 14 is utilized to transport the items to be sintered through the relatively high temperature furnace 12 . the link belt 14 can take on any of a number of different configurations , and will move through the furnace 12 in the direction shown by the arrows 16 . the link belt 14 itself moves along a path determined by a series of system rollers 18 . the drive mechanism for the link belt 14 is provided by a conventional motor drive 20 which exerts forces on the link belt 14 between the motor drive 20 itself and the drive system roller 22 . as further shown in fig1 , items ( not shown ) which are to be subjected to the sintering process through the furnace 12 can be placed on the link belt 14 at the charge end 24 . once the sintering process is completed through the furnace 12 , the items which have been sintered can be removed at the discharge end 26 of the link belt 14 . the link belt 14 will now be described with respect to fig2 - 20 . as shown in fig2 , the link belt 14 can include a series of belt sections 102 . the belt sections 102 can be linked together in a manner which will be apparent from the subsequent description herein . with reference to fig2 , 3 , 4 and 6 - 13 , each of the belt sections 102 can include a series of alloy center links 104 , such as shown in the drawings . in the particular belt section 102 shown in fig2 , there are 8 center links 104 illustrated . with reference to fig6 , each of the center links 104 can include a horizontally disposed bottom section 106 . integral with the horizontal section 106 are a pair of opposing end sections or noses 108 . as shown in fig8 - 13 , the noses 108 include a first end section 110 and a second end section 112 . each of the noses 108 can include a downwardly directed arcuate section 114 . in fig6 , the first end section 110 includes an arcuate section 114 which curves inwardly toward the horizontal section 106 . correspondingly , the second end section 112 also includes a downwardly directed arcuate section 114 which curves inwardly toward the horizontal section 106 . in this manner , the end sections 108 oppose each other . as each of the arcuate sections depend downwardly , the sections form straight sections 140 . the straight sections 140 terminate in what can be characterized as working surfaces 142 . the working surfaces 142 act as the actual contact surfaces . these working surfaces 142 are particularly shown in fig3 , 4 and 7 . as particularly shown in fig7 , the working surfaces 142 include a pair of laterally extending surfaces 144 . integral with the lateral working surfaces 144 is a longitudinally extending working surface 146 . in addition to the foregoing , and as particularly shown in fig9 and 13 , the arcuate sections 114 and straight sections 140 , along with the bottom section 106 , form a pair of pin holes 148 . the pin holes 148 comprise apertures 116 which are utilized to receive pins as described in subsequent paragraphs herein . in addition to the pin holes 148 , each of the center links 144 also include a center post 150 . the center post 150 is utilized to provide rigidity and strength to the entirety of the center link 104 . with this particular configuration of the center link 104 in accordance with the invention , the link 104 is made relatively light weight by the structure of the link and portions of the structure which essentially comprise hollow interior . advantageously , and in accordance with certain aspects of the invention , the links 104 may be constructed of iron - nickel super alloys . such construction will maintain relatively high strength , while also maintaining and facilitating better ductility then may be obtained from a fully ceramic belt . also , it should be noted that a crown may now exist on the top plates . this avoids any requirement of a corrugated plate , while still using a friction drive . in addition to the alloy center links 104 , the belt section 102 also includes a series of alloy side links 120 . in the particular illustration of the belt section 102 shown in fig2 , there are two alloy side links 120 . however , it should be emphasized that additional side links 120 would exist on the side of the belt section 102 opposing the side on which the side links 120 are shown . the side links 120 will now be described with respect to fig1 - 20 . with reference thereto , each of the alloy side links 120 includes a vertically disposed central section 122 . at opposing ends of the central section 122 are a pair of end sections 124 . each of the end sections 124 has a arcuate - shaped end surface . formed horizontally through each of the end sections 124 is an aperture 126 . the alloy side links 120 are utilized to secure together the alloy center links 104 , and the apertures are utilized with alloy pins as described in subsequent paragraphs herein to secure the alloy center links and rollers together on a “ widthwise ” basis . each of the alloy side links 120 can also be constructed of iron - nickel super alloys , for maintaining strength and ductility . turning again to fig2 - 4 , each belt section 102 also includes a series of rollers 128 . advantageously , and in accordance with certain aspects of the invention , the belt section 102 essentially is formed of a flat upper surface ( through the surfaces 142 , 144 , 146 of the alloy center links 104 ) and the rollers 128 are “ offset ” relative to the belt center links of the section . such offset rollers 128 can be utilized with current furnaces having friction drives . as shown primarily in fig4 , each of the rollers 128 is of a cylindrical configuration and includes an aperture 130 ( fig2 ) extending horizontally therethrough . the rollers 128 may be formed of various materials . however , advantageously and in accordance with certain aspects of the invention , the rollers 128 maybe formed of ceramic materials . ceramic material has a relatively high thermal conductivity . these materials are used in a number of different types of applications where it is necessary to withstand relatively extreme temperatures . for example , ceramic is often used in disc brakes . in this regard , the use of ceramic for the rollers 128 will tend to avoid spot welding of the rollers 128 to the alloy pins . further , the rollers 128 will also avoid the potential for “ stiction ,” if the belt 14 for some reason has stopped while under temperature . in addition to the aforedescribed elements , the belt section 102 also includes a series of alloy pins 132 . the alloy pins 132 are particularly shown in fig4 and are of a cylindrical configuration . as shown primarily in fig2 , 3 and 4 , the pins 132 are utilized to secure together the rollers 128 , alloy side links 120 and alloy center links 104 . where the pins extend through to the side links 120 , pin connectors 134 can be utilized to secure the pins in an appropriate manner . as also shown in fig2 , 3 and 4 , the alloy pins 132 will extend through the apertures 130 , 126 and 116 . in accordance with the foregoing , the belt section 102 can be formed . it should be emphasized that the width of the belt section 102 can be adjusted as desired by adding or subtracting the individual elements of the belt sections 102 . it will be apparent to those skilled in the pertinent arts that other embodiments of link belts in accordance with the invention may be designed . that is , the principles of the invention are not limited to the specific embodiments described herein . accordingly , it will be apparent to those skilled in the art that modifications and other variations of the above - described illustrative embodiments of the invention may be effected without departing from the spirit and scope of the novel concepts of the invention .