the present technology relates to a popular fishing technique that is commonly referred to as “ jug ” fishing . jug fishing derives its name from the fact that empty plastic bottles or jugs are used as floats from which a fishing line extends into the water . the line attached to the float is attached to a weight at the end and hooks are positioned between the weight and the float . when a fish strikes a hook on the line , the movement of the jug provides an easy indication of a strike with the handle being visible above water . the handle makes the jug much easier to see , hold on to , retrieve from the water , spool the line , and stack for storage without tangling , sliding , or taking up space . a hard plastic coating may be applied to the foam to extend the life of the foam substantially . in some embodiments , the present technology is directed to a fishing device or assembly . in accordance with the technology , a float takes the form of a plurality of flat octagonal shaped members that are each constructed of buoyant foam and a handle made of plastic tubular section of material . the flat octagonal members are made into two different sizes : two larger members and two smaller members . they are stacked in a desired order over the handle to create a groove that receives fishing line when wound around the float . the handle is made of two different size pipes cut into equal size lengths allowing for handles to nest with one another for stacking of a plurality of jugs . the handle portions are secured together with fasteners leaving a large base and smaller top attached together . the handle is located in the center of the octagonal members and provides a solid grip for retrieving the jug from the water , this will allow for spooling of the line around the float much easier . a lower portion of the jug is flat with the addition of two flat cable clips ( or other securement members ) on opposing sides to provide catches for the line to be set at any depth . the handle is used as a strike indicator by placing the handle face down in the water while the flat side is facing up showing the flat cable clips allowing the line to hang over the side into the water . once a fish strikes , the jug will flip over showing the handle side up for an easy retrieval and strike indication . referring to fig1 a , a fishing assembly 100 of the present technology is shown as comprising a buoyant body 105 ( e . g ., float ). the buoyant body 105 is constructed from any suitable buoyant material such as foam . in some embodiments , the buoyant body 105 is covered with a protective outer coating that prevents degradation of the foam due to exposure of the foam to the elements , as well as damage caused by ordinary use of the fishing assembly 100 . the coating applied to the buoyant body 105 is reflective or colored with a conspicuous or highly visible color such as orange . coloring of the buoyant body 105 will function to make the buoyant body 105 highly visible against natural backgrounds such as water , brush , and the like . in one embodiment , the buoyant body 105 comprises a first buoyant section 110 and a second buoyant section 115 . in some embodiments , the first buoyant section and the second buoyant sections are shaped and sized similarly to one another . for example , the first buoyant section 110 and the second buoyant section 115 can have a substantially octagonal shape . it will be appreciated that the buoyant sections can have differing shapes relative to one another . it will also be appreciated that the buoyant sections can have shapes other than octagonal such as square , triangular , rectangular , irregular , or otherwise polygonal . according to some embodiments , the first buoyant section 110 and the second buoyant section 115 are spaced apart from one another to form a groove 120 that acts as a spool that receives fishing line 125 therein . in some embodiments , the groove 120 is octagonal in shape ( see fig1 b ). in another embodiment , the groove 120 has a sidewall 120 a ( fig1 c ) that is rounded . the polygonal shape of the first buoyant section 110 and the second buoyant section 115 create contacting edges that releaseably receive a hook , which is coupled to the fishing line 125 . the first buoyant section 110 can have contacting edges 190 and the second buoyant section 115 can also have contacting edges 195 . a hook 197 is illustrated as being inserted into one of the contacting edges 190 of the first buoyant section 110 . in some embodiments , the material selected for the first buoyant section 110 and the second buoyant section 115 allows for hooks to be releaseably associated with a contact edge and removed from the contacting edge without tearing or gouging sections from the contacting edge . in some embodiments , the first buoyant section 110 comprises a notch 110 a that receives and retains a weight 155 . the weight 155 is coupled to the fishing line 125 . the weight 155 functions to ensure placing of the fishing assembly 100 in a deployed or pre - strike position , where a first end of a handle of the assembly is visible when the fishing assembly 100 floats on water 160 ( see fig1 c ). in one embodiment , the notch 110 a is covered with a protective cover 165 that prevents the weight 155 from disassociating with ( e . g ., being removed from ) the notch 110 a . the fishing assembly 100 also comprises a tubular handle 125 that comprises a first end 130 and a second end 135 ( fig1 c ). in one embodiment , the first end 130 extends normally to an upper surface 140 of the first buoyant section 110 . in one embodiment , the first end 130 is a cylinder that has a first diameter d1 . in some embodiments , the first end 130 is inserted into an aperture 145 ( fig1 b ) that extends through the buoyant body 105 . the first end 130 is secured inside the aperture 145 by an adhesive or other fastening means . the second end 135 ( fig1 c ) extends normally from a lower surface 150 of the second buoyant section 115 . the second end 135 may also extend in linear alignment with a handle axis a that extends through a center point p of the first end 130 . in some embodiments , the second end 135 comprises a second diameter d2 ( fig1 d ). the second diameter d2 of the second end 135 is larger than the first diameter d1 of the first end 130 so as to allow a first end of one fishing assembly to be inserted into the second end of a second fishing assembly ( see fig2 ), allowing two or more fishing assemblies to be placed in a stacked configuration . in one embodiment , the second end 135 is provided with two substantially t - shaped grooves 170 and 175 . these grooves 170 and 175 are positioned on opposing sides of the second end 135 . the grooves 170 and 175 function to provide a catch . a user can wind a portion of the fishing line 125 through the grooves 170 and 175 to select an operational depth 180 ( fig1 c ) for the fishing assembly 100 . in some embodiments , the operational depth 180 is a distance measured from approximately the second end 135 to the weight 155 , when the fishing assembly 100 is deployed into the water 160 . according to some embodiments , the second end 135 extends through both the first buoyant section 110 and the second buoyant section 115 such that a portion 185 of the second end 135 extends from the upper surface 140 of the first buoyant section 110 to form a collar . the first end 130 is inserted within and secured inside the collar . in some embodiments , the first end 130 and the second end 135 are formed as an integrated or monolithic member , referred to generally as a tubular handle . it will be understood that the first and second ends 130 and 135 can have shapes other than cylindrical , such as square , hexagonal , triangular , or another shape so long as a first end 130 of a first fishing assembly is sized for insertion into a second end of a second fishing assembly so that the first and second fishing assemblies can be placed in stacked ( e . g ., mating ) configuration . in operation , the fishing line 125 is connected to the first end 130 proximate the collar of the second end 135 , where the first end 130 meets the upper surface 140 of the first buoyant section 110 . the fishing line 125 is looped around the groove 120 . hooks , such as hook 197 extend from the fishing line 125 . as the fishing line 125 is looped around the groove 120 , hooks are secured to either the contacting edges 190 of the first buoyant section 110 or the contacting edges 195 of the second buoyant section 115 . while only two contacting edges 190 and two contacting edges 195 are show in fig1 a , it will be understood that each edge of the octagonal first and second buoyant sections 110 and 115 are contacting edges . the plurality of hooks is located at a different position along the fishing line 125 . as the fishing line 125 is spooled into the groove 120 and a hook is encountered , the hook is placed into one of the contacting edges . referring back to fig1 a , once the fishing line 125 is spooled completely into the groove 120 , the weight 155 is placed into the notch 110 a of the first buoyant section 110 . to deploy the fishing assembly 100 in the water 160 , the weight 155 is removed from the notch 110 a and placed into the water 160 . the fishing line 125 is unspooled from the groove 120 , which requires removal of the hooks from the contacting edges as the fishing line 125 is unspooled . for example , when the weight 155 contacts a bottom surface 160 a ( e . g ., such as a bottom of a lake or other body of water ), unspooling of the fishing line 125 is terminated and the fishing line 125 is wrapped into the two substantially t - shaped grooves 170 and 175 of the second end 135 to define the operational depth 180 . when a fish is caught on one of the hooks , the force of the fish pulling on the fishing assembly 100 will , in some instances , cause the fishing device 100 to flip over to a flagged position , illustrated in fig1 c . fig1 e illustrates a fishing assembly 100 in an un - flagged position . if the operational depth 180 is less than a length of the fishing line 125 , the fishing assembly 100 will float on the water 160 in a pre - strike ( e . g ., unflagged ) position . in another example , if the depth of the water 160 is greater than the length of the fishing line 125 , the fishing assembly 100 will float on the water in the flagged position , regardless of whether a fish has been caught on one of the hooks or not . fig2 illustrates a pair of fishing assemblies disposed in a stacked configuration . a first fishing assembly 200 is constructed similarly to the fishing assembly 100 of fig1 a - e , described in greater detail supra . the second fishing assembly 205 is substantially identical in construction to the first fishing assembly 200 . the second fishing assembly 205 is stacked onto the first fishing assembly 200 such that a second end 210 of a handle 210 a of the second fishing assembly 205 is mated with the first handle 215 of the first fishing assembly 200 . the first handle 215 of the first fishing assembly 200 is inserted within the second end 210 of the second fishing assembly 205 . additional fishing assemblies can be stacked with and below the first fishing assembly 200 or stacked on top of the second fishing assembly 205 . referring now back to fig3 , which illustrates a fishing assembly 300 that is constructed similarly to the fishing assembly 100 of fig1 a - e , with the exception that the contacting edges 190 of the first buoyant section 110 are provided with a plurality of slits 305 . each of the plurality of slits 305 is configured to receive either the fishing line 125 or a hook 197 therein . for example , a final section of the fishing line 125 can be threaded through one of the slits 305 before the weight 155 is placed into the notch 110 a . while various embodiments have been described above , it should be understood that they have been presented by way of example only , and not limitation . the descriptions are not intended to limit the scope of the invention to the particular forms set forth herein . to the contrary , the present descriptions are intended to cover such alternatives , modifications , and equivalents as may be included within the spirit and scope of the invention as defined by the appended claims and otherwise appreciated by one of ordinary skill in the art . thus , the breadth and scope of a preferred embodiment should not be limited by any of the above - described exemplary embodiments .
embodiments of the present technology relate to stackable fishing assemblies . in on embodiment , a fishing assembly includes a first buoyant section , a second buoyant section that is spaced apart from the first buoyant section to form a groove that is configured to spool fishing line , and a tubular handle extending from the first and second buoyant sections , the tubular handle having a first end and a second end , wherein the second end is sized to mate with a second tubular handle of a second fishing assembly that is constructed substantial similar to the fishing assembly .