the following detailed description is merely exemplary in nature and is not intended to limit the described embodiments or the application and uses of the described embodiments . as used herein , the word “ exemplary ” or “ illustrative ” means “ serving as an example , instance , or illustration .” any implementation described herein as “ exemplary ” or “ illustrative ” is not necessarily to be construed as preferred or advantageous over other implementations . all of the implementations described below are exemplary implementations provided to enable persons skilled in the art to make or use the embodiments of the disclosure and are not intended to limit the scope of the disclosure , which is defined by the claims . for purposes of description herein , the terms “ upper ,” “ lower ,” “ left ,” “ rear ,” “ right ,” “ front ,” “ vertical ,” “ horizontal ,” and derivatives thereof shall relate to the invention as oriented in fig1 . furthermore , there is no intention to be bound by any expressed or implied theory presented in the preceding technical field , background , brief summary or the following detailed description . it is also to be understood that the specific devices and processes illustrated in the attached drawings , and described in the following specification , are simply exemplary embodiments of the inventive concepts defined in the appended claims . hence , specific dimensions and other physical characteristics relating to the embodiments disclosed herein are not to be considered as limiting , unless the claims expressly state otherwise . at the outset , it should be clearly understood that like reference numerals are intended to identify the same structural elements , portions , or surfaces consistently throughout the several drawing figures , as may be further described or explained by the entire written specification of which this detailed description is an integral part . the drawings are intended to be read together with the specification and are to be construed as a portion of the entire “ written description ” of this invention as required by 35 u . s . c . § 112 . in one embodiment of the present invention presented in fig1 - 7 , an apparatus 100 and method 200 selectively distributes air flow through a cooler 102 to maintain freshness , crispness , and coolness for a garnish ( not shown ) stored in the cooler 102 . the apparatus 100 and method 200 regulates distribution of the air flow between an upper region 106 and a lower region 108 of a cooler cavity 104 to maintain a predetermined temperature and atmosphere for the garnish . the directional movement of the air flow is dependent on whether a cooler lid 118 is open or closed relative to the cooler 102 . specifically , the apparatus 100 and method 200 selectively circulates the air flow above and below the garnish when the cooler lid 118 is closed , and circulates fresh air flow below the garnish when the cooler lid 118 is open . as referenced in fig1 , an apparatus 100 comprises a container 110 and a vent 112 that coordinate air flow communication within a cooler cavity 104 . in one embodiment , the cooler 102 may include a horizontal cooler that maintains a temperature of about 40 ° fahrenheit , which is efficacious for storing and preserving garnishes for long durations . in another embodiment , the cooler 102 generates air flow , in the form of cold air , with a cooling mechanism 124 , such as a peltier thermoelectric module . however in other embodiments , any refrigerant known in the art may be used to generate the cool air . a fan 122 blows the cool air to generate the air flow . fig2 illustrates the cooling mechanism 124 resides in the lower region 108 such that the genesis of the air flow is in the lower region 108 . a fan 122 maintains a fresh circulation of the air flow in a cooler cavity 104 . the fan 122 , working in conjunction with the peltier thermoelectric module , circulates the air flow from the lower region 108 , beneath the container 110 , to the upper region 106 for engagement with the garnish . in one alternative embodiment , a heat sink serves to dissipate heat into the environment for furthering the cooling affect in the cooler cavity 104 . fig3 illustrates the container 110 . the container 110 is configured to position inside the cooler cavity 104 while maintaining the garnish for display and distribution . the container 110 may include an elongated , compartmentalized garnish container configured to contain a plurality of garnishes . the container 110 extends along a longitudinal axis of the upper region 106 of the cooler cavity 104 . in one embodiment , the container 110 sets proximally to an upper edge of the upper region 106 , such that a greater volume in the cooler cavity 104 exists in the lower region 108 . in some embodiments , each compartment in the container 110 can have a curved cavity sufficiently sized and dimensioned to contain the garnishes . the garnishes may include , without limitation , lemons , parsley , mint leaves , olives , cherries , and other fruits and vegetables that are generally cut into portions and used to provide flavor and decorations to drinks in the food and beverage industry . in some embodiments , the vent 112 is arranged adjacently to the container 110 . the vent 112 is positioned parallel and adjacent to the container 110 . in one embodiment , the vent 112 and the container 110 abut each other , forming a restrictive barrier between the lower region 108 and the upper region 106 of the cooler cavity 104 . however , the vent 112 can also be pivotally deployed through manipulation of the cooler lid 118 to enable passage of the air flow between the upper and lower regions 106 , 108 . the vent 112 comprises a generally elongated , planar shape that is disposed to extend along the longitudinal axis of the upper region 106 . fig4 illustrates the cooler lid 118 closed and the vent 112 in the open position 126 . the air flow can circulate both above and below the container 110 while the cooler lid 118 is closed , such as for overnight storage . turning now to fig5 , a fulcrum 114 extends from the vent 112 . the fulcrum 114 enables the vent 112 to pivotally deploy between an open position 126 and a closed position 128 as force is applied to one end of the vent 112 . the open position 126 enables the passage of air flow communication between the lower region 108 and the upper region 106 in the cooler cavity 104 ( fig4 ). the closed position 128 restricts air flow communication between the lower region 108 and an upper region 106 in the cooler cavity 104 ( fig2 ). the vent 112 abuts against the container 110 while in the closed position 128 , such that the air flow is restricted between the lower region 108 and the upper region 106 . in one alternative embodiment , the vent 112 could move between the open and closed positions 126 , 128 through other mechanisms , including an electric motor that slides the vent 112 between the open and closed positions 126 , 128 , rather than tilting . as referenced in fig5 , the cooler lid 118 closes in relation to the cooler 102 to force the vent 112 to the open position 126 . fig2 also shows how the cooler lid 118 opens in relation to the cooler 102 to release the vent 112 to the closed position 128 . in some embodiments , the cooler lid 118 comprises a hinge end 120 . the hinge end 120 is proximal to the cooler 102 while the cooler lid 118 is opened , and engages one end of the vent 112 while closed in relation to the cooler 102 . this forcible engagement causes the vent 112 to pivot on the fulcrum 114 and thus , deploy to the open position 126 . in this manner , the garnish can be maintained at a desired temperature and humidity overnight in the cooler 102 without requiring transfer to a secondary cooler . the garnish is thus , stored at a cool temperature with a fresh air flow engaging the garnish overnight during storage . the integrity and quality of the garnish is also enhanced through selective regulation of the air flow over the garnish . turning now to fig6 a , a cooler bracket 116 is arranged around a periphery of the upper region 106 . the cooler bracket 116 can include a planar trim that contours the inner periphery of the upper region 106 . the cooler bracket 116 may be integrated into the cooler 102 , or may detachably move between different coolers as a retrofitted component . the cooler bracket 116 forms a stable base of support for vent 112 to rest and move between the open and closed positions 126 , 128 . in some embodiments , the cooler bracket 116 may include an inner perimeter having a pair of oppositely spaced slots . the vent 112 may have coordinating tabs that fit into the slots , such that the vent 112 can tilt as needed relative to the cooler bracket 116 . in one embodiment , the vent 112 tilts at an angle to the cooler bracket 116 while in the open position 126 , as referenced in fig6 b . in another embodiment , the vent 112 remains flush against the cooler bracket 116 while in the closed position 128 , as referenced in fig6 c . additionally , the cooler bracket 116 may be fabricated from an insulated material , such as foam , rubber , or wood , to help retain cool air within the cooler cavity 104 . in one embodiment , the cooler bracket 116 is a ½ ″ styrofoam ™ piece configured to fit around the periphery of a rectangular cooler . fig7 illustrates a flowchart diagram of an exemplary method 200 for regulating air flow to a garnish in a cooler 102 . the method 200 is effective for maintaining freshness , crispness , and coolness to a garnish that is stored inside a cooler 102 . the method 200 enables the directional regulation of air flow above and below the garnish , while keeping a desired temperature and atmosphere for the garnish inside the cooler 102 . the directional movement of the air flow over the garnish is regulated by the vent 112 , which moves between the open position 126 and the closed position 128 . the vent 112 position is dependent on whether a cooler lid 118 is open or closed . in this manner , the method 200 selectively circulates fresh air flow above and below the garnish when the cooler lid 118 is closed , and circulates fresh air flow below the garnish when the cooler lid 118 is open . the method 200 may include an initial step 202 of generating air flow from a lower region 108 to an upper region 106 of a cooler cavity 104 . a cooling mechanism 124 resides in the lower region 108 such that the genesis of the air flow is in the lower region 108 . a fan 122 maintains a fresh circulation of the air flow in a cooler cavity 104 . the fan 122 , working in conjunction with the cooling mechanism 124 , circulates the air flow from the lower region 108 , beneath the container 110 , to the upper region 106 for engagement with the garnish . the method 200 may further comprise a step 204 of arranging a cooler bracket 116 around a periphery of the upper region 106 . the cooler bracket 116 can include a planar trim that contours the inner periphery of the upper region 106 . the cooler bracket 116 forms a stable base of support for vent 112 to rest and move between the open and closed positions 126 , 128 . a step 206 includes resting a container 110 containing the garnish over a portion of the cooler bracket 116 . the container 110 is configured to position inside the cooler cavity 104 while maintaining the garnish for display and distribution . the container 110 may include an elongated , compartmentalized garnish container configured to contain a plurality of garnishes . the container 110 extends along a longitudinal axis of the upper region 106 of the cooler cavity 104 . in some embodiments , a step 208 comprises resting a vent 112 over a portion of the cooler bracket 116 , and adjacently to the container 110 , the vent 112 pivotally deployable between an open position 126 and a closed position 128 . the vent 112 is arranged adjacently to the container 110 . the vent 112 is positioned parallel and adjacent to the container 110 . in one embodiment , the vent 112 and the container 110 abut each other , forming a restrictive barrier between the lower region 108 and the upper region 106 of the cooler cavity 104 . however , the vent 112 can also be pivotally deployed through manipulation of the cooler lid 118 to enable passage of the air flow between the upper and lower regions 106 , 108 . a step 210 includes closing a cooler lid 118 relative to the cooler 102 to force the vent 112 to the open position 126 . a fulcrum 114 extends from the vent 112 . the fulcrum 114 enables the vent 112 to pivotally deploy between an open position 126 and a closed position 128 as force is applied to one end of the vent 112 . the open position 126 enables the passage of air flow communication between the lower region 108 and the upper region 106 in the cooler cavity 104 ( fig4 ). the closed position 128 restricts air flow communication between the lower region 108 and an upper region 106 in the cooler cavity 104 ( fig2 ). the hinge end 120 of the cooler lid 118 is proximal to the cooler 102 while the cooler lid 118 is opened , and engages one end of the vent 112 while closed in relation to the cooler 102 . this forcible engagement causes the vent 112 to pivot on the fulcrum 114 and thus , deploy to the open position 126 . in some embodiments , a step 212 may include guiding the air flow from the lower region 108 to the upper region 106 to engage the garnish . through constant exposure to fresh air , the garnish can be maintained at a desired temperature and humidity overnight in the cooler 102 without requiring transfer to a secondary cooler . the garnish is thus , stored at a cool temperature with a fresh air flow engaging the garnish overnight during storage . the integrity and quality of the garnish is also enhanced through selective regulation of the air flow over the garnish . a step 214 comprises opening the cooler lid 118 relative to the cooler 102 to release the vent 112 to the closed position 128 . the closed position 128 restricts air flow communication between the lower region 108 and an upper region 106 in the cooler cavity 104 . the vent 112 abuts against the container 110 while in the closed position 128 , such that the air flow is restricted between the lower region 108 and the upper region 106 . a final step 216 includes restricting the air flow from between the lower region 108 to the upper region 106 . the cooler lid 118 is open in this case , such that the ambient air provides fresh circulation for the garnish . since many modifications , variations , and changes in detail can be made to the described preferred embodiments of the invention , it is intended that all matters in the foregoing description and shown in the accompanying drawings be interpreted as illustrative and not in a limiting sense . thus , the scope of the invention should be determined by the appended claims and their legal equivalence .