in the following figures like reference numerals are used to identify identical components in the various views and embodiments . the following example is meant to be illustrative of preferred embodiments for the invention . however , those skilled in the art will recognize various additional alternative embodiments . referring to fig1 - 4 , a vibration dampener system 10 of the invention has a first tier 12 , a second tier 14 and a third tier 16 . the first tier 12 is coupled to the second tier 14 at three locations , including a first connection 18 , a second connection 20 and a third connection 22 . the third tier 16 is coupled to the second tier 14 at three locations including a fourth connection 24 , a fifth connection 26 , and a sixth connection 28 . the first tier 12 has three sets of flanges 30 interconnecting with a set of second tier flanges 32 . third tier 16 is interconnected with the second tier 14 through a second set of second tier flanges 32 a interconnected with a set of third tier flanges 34 . each coupling between the first tier 12 , second tier 14 , and third tier 16 includes a dampening element 36 for isolating and dampening vibration within the vibration dampener system 10 . the dampening elements 36 include an opening 38 for receiving a rod 40 passing through each of the flanges and the dampening element 36 . the dampening element 36 includes end portions 42 and a middle indentation 44 for interconnecting with an opening in one of the flanges . the dampening element 36 is made from a material suitable for dampening vibrations , such as a rubber , plastic , polyurethane or other material known to those skilled in the art . commercially available products include tear - resistant light duty vibration - damping mounts by mcmaster - carr . but , other suitable dampeners are appropriate . this includes : a lead lag damper manufactured by lord corporation ; an inertial dampener ; a magneto rheological dampener , a spring - based dampener ; and combinations of any of the above - identified vibration dampening agents or modifications thereof known to those skilled in the art . this may also include systems know to those skilled in the art for adjusting the dampeners such as for adjusting the magneto rheological dampener or other active dampener type . in addition , the dampening element 36 may be an amalgamation of materials having differing durometer ratings . thus , the dampening elements are adaptable to reduce vibration of differing degrees . vibration detection pickup elements known to those skilled in the art may be used that are attached about the connections and / or the individual dampening elements for the purpose of evaluating the vibration effectiveness of the system . the first tier 12 , second tier 14 and third tier 16 are made out of a rigid material such as metal , including steel , suitable for withstanding the forces existing in the environment , where the vibration dampener system 10 is being deployed . other materials of adequately rigidity for transferring vibrations to the isolators are suitable . advantageously , the thickness , size and dimensions of the tiers , flanges , rods , and dampening elements can all be scaled up or down in a manner suitable for a particular application where vibration dampening is desirable . common to the various applications and dimensions of the vibration dampener system components is tiers interdisposed with dampening elements as illustrated having at least three elements per tier where each element is generally directed toward an axis 33 perpendicular to a plane common to each of the tiers . this arrangement creates a complex of phase shifting and redirection of vibration back onto the dampening elements in a continuous manner . the flanges can be welded on to the tiers or otherwise suitably connected . alternatively , the flanges may be stamped out of the tier and bent into position for interconnection with another tier . the vibration dampener system 10 is connected on a first side 46 to a vibration emitting source , or another component downstream from the vibration emitting source , and on a second side 48 to an area where vibration is not desirable , such as a control handle or other structure where it is desirable to reduce vibration . this includes but is not limited to tools , equipment or machinery such as : laundry equipment ; air conditioners ; pressure washers ; landscaping equipment ; hand tools ; snow blowers ; lawnmowers ; hvac equipment ; part handling vibrators ; construction equipment ; weapon systems ; cement mixers ; kitchen appliances ; oil well drillers ; vehicles including aircraft , motor vehicles and boats ; engine or motor mounts ; and other devices . further , the vibration dampener system 10 can be used individually in order to dampen vibrations or with additional tiers having a similar interconnection thus extending the vibration dampening effect through a wider area of interconnected tiers having multiple dampening elements . each individual vibration dampener system is referred to herein as a “ pod .” one or more pods can be used to dampen vibration . for example , several pods can be used in proximity to enhance vibration dampening over a wider area or pods may be interconnected to extend vibration dampening . as an example , more than one vibration dampener system 10 such as illustrated in fig1 and 5 can be connected in series to increase vibration dampening . thus , the vibration dampener system 10 is suitable for a wide range of applications and uses . it could , for example , be miniaturized to less than two centimeters ( or even smaller ) and used to reduce vibration when implemented between an instrument panel and an interior structure of a vehicle such as an aircraft . alternatively , the vibration dampener system 10 can be scaled to a meter or more in diameter and include ten or more dampening elements at each tier for reducing vibration in the use of heavy machinery . now referring to fig5 is a second embodiment of a vibration dampener system 100 . in the second embodiment , the vibration dampener system 100 has a first tier 12 a and a second tier 14 a that are interconnected by a first connection 18 a , a second connection 20 a , and a third connection 22 a . flanges 30 a are disposed circumferentially about the axis 33 central to the tiers . second tier flanges 32 b are disposed around the second tier 14 a in connection . second tier flanges 32 b are disposed around the second tier 14 a in connection with the first tier 12 a flanges 30 a . each connection between the first tier 12 a and second tier 14 a includes a dampening element 36 for dampening vibration within the vibration dampener system 100 . this embodiment of a vibration dampener system may also be scaled to a size appropriate for its vibration dampening application . it may also be integrated with the vibration dampener system disclosed in relation to fig1 . common to the various applications and dimensions of the vibration dampener system components is tiers interdisposed with dampening elements as illustrated having at least three elements per tier where each element is generally directed toward an axis 33 perpendicular to a plane common to each of the tiers . referring to fig6 is an embodiment of the vibration dampener system 150 incorporated into equipment 152 . the equipment 152 , in this instance , a soil compactor , includes an engine 154 for oscillating a vibrator 156 ( hidden ) that is connected to a vibrating element 158 , in this instance a soil compactor plate . a handle 160 is separated from the vibrating equipment 152 through the vibration dampener system 150 . the handle 160 is also connected to a roller 162 for contacting with the ground . the vibration dampener system 150 includes two pods of the first embodiment of the vibration dampener system 10 on each side of a central connection 164 . in operation , the engine 154 on the equipment 152 is started , causing the vibrator 156 to oscillate the vibrating element 158 . advantageously , the vibration dampening system 150 dramatically reduces the amount of vibration to an operator holding the handle 160 . as a further advantage and benefit of the vibration dampener system is an increased ability to move the equipment 152 while in operation . not only does the user of the equipment have a reduced risk of injury , the equipment is better controlled during its operation . similarly , the vibration dampening system of the invention can be used in a wide range of applications including manual operation of equipment having a vibrating source . although the equipment 152 is shown with an engine 154 , it could be adapted to use an electric powered motor as known to those skilled in the art including the use of power storage units such as batteries to power the motor . advantageously , the vibration dampening system can be used between the batteries and the vibrating portion of the equipment 152 thus reducing wear on the batteries and promoting better longevity of the batteries . further , the equipment 152 could include a power driving system known to those skilled in the art . the power driving system could also advantageously be coupled to the vibrating portion of the equipment 152 with the vibration dampening system . further , the equipment 152 could include a control system known to those skilled in the art for allowing for remote operation of the equipment 152 . the control system could also be separated from the vibrating portion of the equipment 152 with use of the vibration dampening system . referring now to fig7 is another embodiment of the vibration dampener system 170 in connection with the use of floor cleaning equipment 172 . the floor cleaning equipment 172 includes a motor 174 connected to an oscillator ( hidden ) which is connected to an oscillating plate 176 used for cleaning a floor surface . the vibration dampener system 170 includes a first ring 178 connected to a second ring 180 with dampening elements 36 disposed therebetween as discussed in relation to the second embodiment of the vibration dampener system 100 . in this embodiment , the vibration dampener system 170 includes three connection points 182 ( not all three are visible ) for connecting the vibration dampener 170 to the floor cleaning equipment 172 . this includes additional dampening elements 184 for reducing vibration at the point of connection between the vibration dampener system 170 and the floor cleaning equipment 172 . the floor cleaning equipment handle 186 is connected at a first point 188 and second point ( not visible ) of the floor cleaning equipment 172 and is thus isolated from the vibrating portion of the equipment . the floor polishing equipment handle 186 is also connected to wheels 192 , in this case , casters . thus , in operation , the operator of the floor cleaning equipment 172 experiences dramatically reduced vibration to his hands and arms . further , the operator of this equipment has significant improved control over its movement when in operation , including movement in a lateral direction . referring briefly to fig8 , the floor cleaning equipment 172 is shown with the handle 186 rotated to a locked position with pin 194 through openings 196 . thus , the floor cleaning equipment 172 is advantageously placed into a position allowing for easy transportation when not in use . this embodiment demonstrates another variation on attaching a vibration dampening system of the invention to equipment in a manner that will significantly reduce vibration and allow for better operation of the equipment . the same type of embodiment may be widely used in various forms and on many types of equipment to advantageously allow for better vibration reduction and control of the equipment . now referring to fig9 , an embodiment of the vibration dampening system 200 is seen in use on a hand held tool 202 , in this case , a palm sander . this embodiment of the vibration dampening system is of the type disclosed in relation to fig5 . the vibration dampener system 200 in this embodiment is between a handle portion 204 and the hand held tool 202 , itself . in this embodiment , the user is isolated from vibration emitting from the hand held tool . as an alternative , incorporation of the vibration dampening system into a hand held tool or other application , more than one pod can be disposed between a handle and the tool itself . referring now to fig1 , the vibration dampening system of the invention 300 , including its various embodiments already disclosed , is illustrated in relation to other components of machinery or equipment as previously identified , thus showing alternative arrangements for inclusion of the vibration dampening system 300 . in fig1 , the vibration dampening system is between a handle grip element 302 and a handle 304 which is connected to a vibrating element 306 which in turn is connected to a structural element 308 . now referring to fig1 , the vibration dampening system 300 is between the handle 304 and the vibrating element 306 with the vibrating element 306 connected to the structural element 308 . referring to fig1 , the vibration dampening system 300 is between the vibrating element 306 and the structural element 308 which in turn is connected to a handle 304 . referring to fig1 , the vibration dampening system 300 is between the vibrating element 306 and the structural element 308 , which in turn is connected to a handle 304 . referring to fig1 , the vibration dampening system 300 is between a handle grip element 302 and an isolated handle attachment 310 which is connected to a vibrating element 306 which in turn is connected to the structural element 308 . referring to fig1 , the vibration dampening system 300 is positioned on two sides of the structural element 308 , including between the structural element 308 and an isolated handle 310 on one side , and between the structural element 308 and the vibrating element 306 on the other side . referring to fig1 and 17 , another embodiment of the vibration dampener system has a first tier 12 b and a second tier 14 b that are interconnected by a first connection 18 b , a second connection 20 b , and a third connection 22 b . centered between the first connection 18 b , second connection 20 b , and third connection 22 b is a bearing assembly 402 coupled to an open tube 404 . the bearing assembly 402 is of the type generally known to those skilled in the art including , but not limited to , a plain bearing , sleeve bearing , rifle bearing , and flexible bearing . this coupling to both the tier and the open tube 404 provides for vibration control of a rotating tube or alternatively , a rotating shaft . for example , this has application in oil drilling . in this embodiment , the connections and related dampening elements are circumferentially disposed around the central axis 33 such that lines perpendicular to the axis of each rod 40 are directed generally towards the central axis 33 . this orientation is adapted particularly for reducing rotational vibration such as may occur in the instance of a tube such as an oil well drilling tube is rotating inside a well being drilled , but may also be used for other applications . now referring to fig1 - 20 , another embodiment of the vibration dampener system 450 includes a first tier 12 c and second tier 14 c interconnected by a first connection 18 c , a second connection 20 c , and a third connection 22 c . in this embodiment , lines passing through each of the connectors are parallel to the central axis 33 and equally spaced circumferentially around the central axis . it should be appreciated that the differing orientations of the connectors and related dampening elements may be combined on one or more tiers to account for supporting a load in addition to dampening vibrations . in each embodiment , at least three connections and related dampening elements have a relation to the central axis that provides for capturing and refocusing vibrations in a manner that provides for high efficiency in dampening the vibrations . now referring to fig2 - 29 is another alternative embodiment of a vibration dampener system 500 , embodied in a palm sander . in this embodiment , a first tier 502 is interconnected with a second tier 504 and also interconnected with a two - piece third tier 506 . the first tier 502 includes connectors 508 to an outer housing 510 . the first tier connectors 512 are interconnected with first tier connectors 514 . first tier connectors are also connected with third tier connectors 516 which are all disposed in a lower housing 520 . the various connectors are inter - disposed with dampening elements 522 for dampening vibrations . in this embodiment , it is demonstrated that the tiers while directing the connectors towards the central axis 33 can include tiers of different shapes and including a tier having more than one supporting member . as illustrated , this embodiment is suitable for use with a hand tool such as a palm sander , but is also adaptable to other uses as explained herein . the above disclosures may also include a monitoring system for a series of vibration structures isolated from one to the next . vibration measuring sensor elements can be attached throughout the isolators and structures . the sensors are either wired or wirelessly attached to a display element . the display element may have as an element the ability to alert the operator of system failure . thus , the vibration dampening system of the invention , including its various embodiments , provides a strong , stable , cost effective and scalable means of addressing the negative consequences of vibration . while particular embodiments of the invention have been shown and described , numerous variations and alternative embodiments will occur to those skilled in the art . accordingly , it is intended that the invention be limited only in terms of the appended claims .
a vibration reducing interface which uses interconnected layers of three or more concentrically arranged isolators to reduce vibrations in tools , vehicles , machines , weapons and anything else which uses pumps , compressors , engines , motors , spinning elements , out of balance loads or inconsistent , variable loading . the vibration reducing interface provides for tiering arranged isolators for reducing varying degrees and directions of vibration . the vibration reducing interface reduces vibration and its related negative affects including injury , damage and reduced control in relation to use of tools , vehicles , machines , weapons and other equipment .