as required , detailed embodiments of the present invention are disclosed herein ; however , it is to be understood that the disclosed embodiments are merely exemplary of the invention that may be embodied in various and alternative forms . the figures are not necessarily to scale ; some features may be exaggerated or minimized to show details of particular components . therefore , specific structural and functional details disclosed herein are not to be interpreted as limiting , but merely as a representative basis for teaching one skilled in the art to variously employ the present invention . a comfort , posture and wellness seating system for vehicle seat assemblies provides a visual interface with adjustment hardware organically or inorganically . the system may be employed to properly configure any new or existing seating system . the system can also address specific comfort , posture or preferences , such as thoracic support . the seating system objectifies comfort data and biomechanics knowledge to make the data transferable . the seating system connects biomechanical optimization to measurable engineering data to make a complete comfort , posture and wellness seating system . the comfort , posture and wellness seating system integrates anthropometry , bio - mechanics , and historical seating comfort data . the seating system can be employed in original equipment for vehicles or in aftermarket products . applicable markets include automotive , mass transit , airlines , etc ., as well as non - vehicular seating such as office , home , commercial , and public venue seating . referring now to fig1 , a flowchart of a method for determining various adjustment positions of a vehicle seat assembly for various users is illustrated , according to an embodiment . data collection may occur at block 20 . the data collection 20 may include expert positioning of occupants for optimal comfort , posture and / or wellness by a doctor or chiropractor . the data collection 20 can be used at specific sites on an ongoing basis if required . the expert input provides a high level of expert comfort , posture and personalized fitting . the data 22 may be based on anthropometry , body pressure distribution ( bpd ), status of actuators ( such as pressure of inflatable air bladders , status of valves or the like ), or other data that provides a comfort , posture and biomechanically optimized position of an adjustable vehicle seat assembly . the data is collected in a knowledge base 24 or table for setting adjustments based on categories of data . the knowledge base 24 may be compiled from the expert positioned data 20 and the occupant specific data 22 . the setting adjustments from the knowledge base 24 are utilized for pre - set options 26 in a vehicle seat assembly 28 . the setting adjustments 24 can be customized by a user at a controller or display 30 . referring to fig2 , input data 20 , 22 can be plotted versus adjustment settings 20 , 24 for high level categorization . the settings 20 , 24 can be categorized by topology clustering for setting the pre - set options 26 . various setting options 26 may be provided for various types of driving . for example a touring setting may provide per package settings and basic comfort , posture and biomechanically optimized seating position recommendations . the touring setting may also provide optimal visibility , use of features and controls , and the like . a performance setting may be provided for active drivers to provide a more erect position with firmer seating . additionally , a luxury setting may be more reclined with softer seating . fig3 illustrates the vehicle seat assembly 28 with a cover removed . the seat assembly 28 includes a seat cushion 32 adapted to be mounted for motor - driven adjustable translation in a fore and aft direction and in an up and down direction of a vehicle . the seat assembly 28 includes a seat back 34 pivotally connected to the seat cushion 32 to extend generally upright relative to the seat cushion 32 for motor - driven pivotal adjustment relative to the seat cushion 32 . a head restraint ( not shown ) is mounted for motor - driven adjustable translation to the seat back 34 . at least one compressor 36 provides a source of air to the seat assembly 28 . a plurality of valves 38 receive the compressed air and are controlled by a controller 39 for regulating compressed air into and out of the seat assembly 28 . the seat cushion 32 includes a forward left air bladder 40 , a forward right air bladder 42 , a rear left air bladder 44 , a rear right air bladder 46 , a left side bolster air bladder 48 , and a right side bolster air bladder 50 . the seatback 34 includes a plurality of lumbar air bladders 52 , a plurality of thoracic air bladders 54 , a left side bolster air bladder 56 , and a right side bolster air bladder 58 . the valves 38 may be provided as a common valve bank that is housed in the seat back 34 or under the seat cushion 32 ; or the valves 38 may each be provided on each of the air bladders 40 , 42 , 44 , 46 , 48 , 50 , 52 , 54 , 56 , 58 . the compressor 36 may be provided in the seat back 34 , the seat cushion 32 or concealed within the vehicle body . the controller 39 may be provided in a module under the seat cushion 32 , and may be a multifunction controller that also controls other functions in the vehicle . it is believed that supporting the thoracic region of the spine can reduce forces and support as much as one - third of the upper body mass . by increasing support of the upper body mass , loads are reduced on the muscles , ligaments , and spine and pelvic regions . decreased load reduces fatigue on these areas of the body . the thoracic air bladders 54 are adjustable to provide the right degree of support in the correct location necessary to reduce such loading . the controller 39 receives the adjustment settings 24 from pre - set data 26 or from customized data 30 . the data may be input from an interface that is provided in the vehicle . the interface may be integrated into the vehicle , such as an instrument panel display that is in suitable wired or wireless communication with the controller 39 . the interface may be remote , such as a personal digital assistant ( pda ) including phones , tablets and the like . the interface may be provided as a smart phone application , wherein users enter relevant information about themselves . the smart phone interface may not require on - site expertise or seat properties . the remote interface permits a user to transport settings to each vehicle , such as personal passenger vehicles , airline seating , rental cars , and the like . fig4 - 12 illustrate display images from an interface , such as a tablet . fig4 illustrates a welcome screen wherein a data collection process is initiated . fig5 illustrates a screen wherein a user name is input to identify the user . fig6 illustrates another input screen wherein biometric and personal health data , such as wellness and activity level , is collected . this data is utilized to adjust the seat to the pre - set options 26 , based on prior - collected data 22 in knowledge base 24 . each of the air bladders 40 , 42 , 44 , 46 , 48 , 50 , 52 , 54 , 56 , 58 may include a pressure sensor to detect air pressure in the respective bladder 40 , 42 , 44 , 46 , 48 , 50 , 52 , 54 , 56 , 58 . any pressure sensor is contemplated , such as a pneumatic pressure sensor at the outlet valve of each respective air bladder 40 , 42 , 44 , 46 , 48 , 50 , 52 , 54 , 56 , 58 . pressure can also be sensed by contact pressure sensors disposed in front of or behind some or all of the respective air bladders , including on a front or rear surface thereof . the contact pressure sensors may include pressure - sensing mats , such as those available by tekscan ®, inc . of 307 west first street . south boston , mass . 02127 - 1309 , usa . fig7 illustrates a depiction of the vehicle seat assembly 28 with zones ranging in color to depict a distribution of pressure upon the seat . this visualization may assist an occupant in positioning upon the seat assembly 28 with live visual feedback . if manual adjustment is selected , fig8 requests the occupant to select a zone of the seat for adjustment . once a zone is selected , such as thoracic in fig9 or lumbar in fig1 , incremental adjustment of each air bladder 52 by the occupant is permitted . referring again to fig7 , a dynamic comfort , posture and biomechanically optimized option is offered . selection of the dynamic comfort option measures the pressure in the sensors at fig1 , and displays a live view as in fig1 . the controller 39 compares the sensor values , and if the controller 39 determines that the occupant is not seated evenly , the controller 39 balances the air pressure in opposing air bladders to balance the occupant seating position . fig1 depicts a flowchart for a method for adjusting the seat assembly 28 according to an embodiment . at block 60 the user comfort fit survey is completed . this process may be performed in an application on a pda , tablet or smartphone , or in a controller in the vehicle . at block 62 , real time user data is sent to a gateway module , or controller 39 . in block 64 , the seat assembly 28 is positioned , and the air bladder values are adjusted . at block 66 , the gateway module receives an occupant weight distribution from the air bladder pressure sensors . at block 68 live values are adjusted , such as a percentage of bladder fullness . at block 70 , the values are sent to the interface application , and the range of values is assigned a range of colors . in block 72 , a live view is displayed , as in fig1 . steps 66 and 68 are repeated for dynamically adjusting the seat assembly 28 to the occupant &# 39 ; s position . steps 66 , 70 and 72 are repeated incrementally to provide the live view of the pressure distribution . fig1 depicts a flowchart for a method for adjusting the seat assembly 28 according to another embodiment . at block 74 a welcome screen initiates a data collection process . at block 76 a user name is input to identify the user . at block 78 another input screen includes a questionnaire wherein biometric and ergonomic data and activity level is collected . this data is utilized to adjust the seat at block 80 to the pre - set options 26 , based on prior - collected data 22 in knowledge base 24 . at block 82 , a depiction of the vehicle seat assembly 28 is provided with zones ranging in color to depict a distribution of pressure upon the seat assembly 28 . if manual adjustment is selected at block 84 , the occupant can select a zone of the seat for adjustment , such as thoracic 86 , back bolster 88 , lumbar 90 and cushion bolster 92 . once manual adjustment is completed , the live view body pressure distribution ( bpd ) screen 82 is updated . if a dynamic mode is selected at block 84 , then the adjustments and live view are updated based on the measurements from the pressure sensors and the biometric data . while various embodiments are described above , it is not intended that these embodiments describe all possible forms of the invention . rather , the words used in the specification are words of description rather than limitation , and it is understood that various changes may be made without departing from the spirit and scope of the invention . additionally , the features of various implementing embodiments may be combined to form further embodiments of the invention .