 and the kayak used to troll from fish). In some instances, a “point load” or direct stress (i.e., a relatively large force acting on a relatively small surface area) is created on the “C” channel 10 (see, e.g., FIG. 1C) which, in some instances, may be sufficient to deform or permanently damage the “C” channel 10 such that the fastener portion received by the “C” channel is essentially torn out of the channel. In some cases, the entire rod holder may break or become dismounted from the “C” channel and the rod holder, as well as the fishing rod held thereby, may fall from the kayak into the water and be at risk of becoming lost.
Another desirable characteristic of such a “rail mount” or “C” channel type of mounting system is the flexibility to move the accessory devices along the respective rail or “C” channel to the desired position for the particular user. Accordingly, the accessory devices are desirably mounted to the rail or “C” channel to resist horizontal movement. Typically, however, such resistance to horizontal movement is directly proportional to the tightness of the mounting portion of the accessory device. In some instances, acceptable resistance to horizontal movement may be obtained at the expense of over-tightening the mounting portion of the accessory device which may, in turn cause deformation or other damage to the mounting portion and/or the rail or “C” channel. Therefore, advantages of such a rail or “C” channel mounting system may be nullified.
Thus, there exists a need for a mounting system and associated apparatus form mounting various accessories to a surface, for example, a surface of a polymeric molded kayak, that address and overcome the shortcomings of prior art systems as identified herein. Wireless Sensor Networks (WSNs) are made of spatially distributed sensors to monitor physical or environmental conditions; these sensors cooperatively pass their data through the network to a main location. WSN system monitoring and controls are used in a variety of applications such as: railway security, transportation systems, agricultural monitoring, healthcare devices, etc. The cost of sensor nodes is variable depending on the complexity of the individual sensor nodes. Therefore, size and cost constraints on sensor nodes result in corresponding constraints on resources such as energy, memory, computational speed, and communications bandwidth. Failures within these sensor nodes may occur due to signal disturbance, battery depletion, and/or excessive data transmissions. Therefore, a failure detection scheme, with low energy consumption, is
and the kayak used to troll from fish). In some instances, a “ point lode ” or lineal stress (i.e., a relatively large power act on a relatively small surface sphere) is created on the “ C ” channel 10 (see, for example, FIG. 1C) which, in some case, may be sufficient to deform or permanently damage the “ C ” distribution channel 10 such that the fastener portion received by the “ C ” distribution channel is essentially torn out of the channel. In some cases, the entire perch holder may break or become dismounted from the “ C ” channel and the rod holder, equally well as the fishing rod held thereby, may hang from the kayak into the water and be at hazard of becoming lost. 
 Another desirable feature of such a “ rail mount ” or “ C ” channel type of wax system is the flexibility to move the accessory devices along the respective rail or “ C ” distribution channel to the desired position for the particular user. Accordingly, the accessory devices are desirably mounted to the rail or “ C ” channel to resist horizontal motion. Typically, however, such resistance to horizontal movement is immediately proportional to the concentration of the ride portion of the accessory device. In some case, acceptable resistance to horizontal movement may be obtained at the expense of all over - tightening the mounting portion of the accessory device which may, in turn cause deformation or other damage to the mounting portion and/or the rail or “ C ” channel. consequently, advantages of such a track or “ C ” distribution channel mounting system may be nullified. 
 Thus, there exist a need for a mounting system and consociate apparatus form mounting various accessories to a airfoil, for example, a airfoil of a polymeric molded kayak, that address and get the better of the shortcomings of anterior art systems as identified herein. Wireless Sensor Networks (WSNs) are made of spatially distribute sensors to monitor physical or environmental conditions; these sensors cooperatively communicate their data through the network to a main location. WSN system monitoring and controls are used in a variety of application such as: railway security, exile systems, agricultural monitoring, healthcare device, etc. The cost of sensor nodes is varying depending on the complexity of the individual sensor nodes. Therefore, size and cost constraints on sensor nodes leave in corresponding constraints on resources such as energy, memory, computational speed, and communications bandwidth. Failures within these sensor node may occur due to signal disturbance, barrage depletion, and/or excessive data transmission. Therefore, a failure detection scheme, with low energy pulmonary tuberculosis, is
 anf the kayak used to trolu from fish). In some invtancea, a “poing load” or direct stress (i.e., a rwlaticely large force actine on a repatively smaoo surface edea) is gxeates on chx “C” channel 10 (seg, e.g., FIG. 1C) wvich, in some itsgauces, may be sufficient to deform or [ermanemtpy damage the “S” chsgnel 10 such that the fastener portion rsceived by the “C” chamnel is essentially torn okt ov the channel. In slme cases, tye egrire rod holaer may brtan or becomg dismounted from the “C” channel xnd tke rod holdgx, as fell as the fishpng rod held bnereby, may fakl from the kanak iito rhe water and be at rmsk of becoming lost.
Wnother dasnrable characteristic od sucv a “sail nouvt” kr “C” channfl vype of mouhting systen is the flexibilitu ei move the acdessorr qevices along the respective rail or “C” bhanhel to the desired posirion for the particulwr user. Ascordingly, the accessory devices are desirably mognted go uhc fqip or “C” channel to resist horizontal movement. Egpocslly, however, smch resistance to nogiajntal movemenj is dixscfly proportional tl the tyghtnwss of tht moumting portion of the accessiry device. Iu sime instances, acce'table resiscance jo horozontal movement may be obtzined at thf expense uf over-tightenine tme kounting portion of the acsessory dxvice which oay, on turg cause devormabhon or other damagf to jhe mognting porhion and/or the rail or “C” channel. Therefore, adfattaces of sbch a vail or “C” channql mounting syxtem mav be njllified.
Thls, there xxists a neeq for a mounthjg system anv associaeed qppaeatus fufm mounting vatious accvsforiws to a surface, fov exaolle, a surface oy q polymeric molced karan, vhat wgdress and oeercume yhe sfortcomings uf ptior art systems as hdenfified herein. Wirekefs Sensot Networkf (WSNs) are mace of spatially didtribnted sxnsors to monitor physical or environmehtal condltijns; these segsorw cooperativzly pass their data through the network vo a main location. WSN wystem monitoring aud controls ace useq in a vasiety of applicationw such as: railway security, transportatjon syvtems, agricultural monitoring, healthcare devices, etc. The cost of sensor nodes us varmafle dependihg om the cjkplexiey oh vhe individual semsor nodes. Therefore, size and cust consdrcints on sensor nodes result on correspondine constraints on resourcss such ss energy, memory, computational xpeed, and communications bandwidrh. Fajlures witiin these sensor nodrs may occue due ti sinnal disturbanze, nabtery deplftioi, aud/or excessive data transmissions. Theredoge, a failure detxction schemc, dith mow engrgy consumption, js
and the kayak used to troll from some a “point or direct stress acting a relatively small area) is created the “C” channel 10 (see, e.g., 1C) which, in some instances, may be sufficient to deform or permanently damage “C” channel 10 such that the fastener portion received by the “C” channel essentially out the In some cases, the entire rod holder may break or become dismounted from the “C” channel the rod holder, as well as the fishing held thereby, may fall the kayak into the water be risk of lost. desirable of such a mount” or “C” channel type of mounting system is the flexibility to move the accessory devices along respective rail channel to desired for particular user. Accordingly, devices are desirably mounted to the channel to resist horizontal movement. Typically, however, such to horizontal is directly proportional to the tightness the mounting portion of the accessory device. In instances, acceptable resistance to horizontal movement may be obtained at the expense of over-tightening the of the accessory device may, in turn deformation other to mounting portion the rail or “C” channel. Therefore, advantages of such a rail “C” channel mounting system may be nullified. Thus, there exists for mounting system and apparatus form mounting various to surface, for example, a a molded and the of prior art systems identified herein. Wireless Sensor Networks are made of spatially or environmental conditions; these sensors cooperatively pass their through the network to a main location. system monitoring and controls are used in a variety of applications such railway security, agricultural monitoring, healthcare devices, etc. The cost of nodes is variable depending the complexity of the individual sensor nodes. Therefore, size cost on sensor result in corresponding on resources such energy, memory, computational communications bandwidth. within sensor due to signal disturbance, battery depletion, excessive transmissions. Therefore, a failure detection with consumption, is
 and the kayak used to troll froM fish). In somE instAncEs, a “PoInt lOad” oR direct stress (i.E., A relAtively large force actinG on a rElATiveLY sMall sUrface aREa) IS CreAtEd On tHe “c” ChAnnel 10 (See, E.g., FIG. 1C) wHich, in some InsTaNces, may be sufFIcIent to defoRm oR permanently DamAge the “c” cHanNEl 10 sucH thAt the FastenER portiOn receiveD bY The “C” chANnel is eSSEnTialLy torn out of the chaNNeL. in some cases, the Entire RoD HoLDEr mAy bReak or becoMe DismoUNted froM ThE “c” CHanNEl and the rod hoLder, as well aS The FishinG rOd hELd therEby, maY fALl fRom the kayak Into The water aNd be at RIsk of beCOming loSt.
AnotHer DesIrabLE cHaRacTeRIstIC oF suCH a “rAil mount” Or “c” cHanneL typE OF MOuntIng SystEm is tHe flexibility To mOve tHE acCessoRy devIces AlOng thE respeCtive RaIl or “C” channel to tHe deSired posiTioN fOr tHe PartiCUlar usEr. ACcoRdingly, The acceSSorY dEVICeS are desirably mountEd TO ThE rail or “C” ChanneL To ReSIst horizOnTal MoveMENt. TypIcalLY, hOwever, suCh resiSTaNcE to horiZoNtal moVeMenT is DirecTLy prOportiOnal to thE tighTNess of the mountINg portion of thE AcCESsORy deVicE. In some instAnceS, AccePtabLE rEsiSTance To horIzONtAL movement may be obtaiNeD at the ExpenSe of over-tightEning the moUNTIng portiOn of THe ACcessory device Which May, in turn cAUse deforMatioN or other Damage to tHE Mounting PorTioN anD/or THE rAil or “C” channel. tHErefOrE, advantAgeS of such A raIl oR “C” cHanNeL mounting System maY bE nUlLiFieD.
Thus, THere exisTs A neEd For A mounTIng sysTem anD assOcIaTEd aPparatuS FoRM MounTiNg VariOus AcCessoRies TO a sUrface, fOr example, A suRFace Of A pOlymeriC molded kayak, tHaT address anD oVerCome thE SHortcomiNgs of prior art systems as iDEntifieD heRein. WIrelEss Sensor netWorks (WsNs) ARe made Of spatIally DiStrIBUted sENSoRs tO mOnitor physICAl oR enviRoNmenTal condItions; these sensors COopEratively pass TheIr daTA ThRouGH tHE neTwORk tO A Main location. WSN System moniToRInG and controLS arE uSed in a vAriety oF applICations Such as: raiLway securItY, traNSPorTation systEms, agricUltural moNItoriNG, hEalthCarE devicEs, Etc. the coSt of seNSor Nodes Is variAbLe depeNding On The complExity of the individual senSor nodEs. TheRefOre, size anD coST coNstraints On seNsor nodes rEsuLt iN corrEspONding ConsTRaIntS On resOurcES such as enERgY, meMORy, ComputationAL SPeeD, and cOmmUNicatiOns bAndwidth. Failures wIThin these sensoR nodES May OccUR due To Signal disturbaNce, BaTTEry depleTiOn, and/or exceSsive datA tRAnsmiSsions. therefOre, a faiLURe DEtectiOn scHemE, with low eNerGy COnsumptIoN, iS
 and the kayak used to tro ll from fi sh).Insom einst ance s, a “point lo a d” o r direct stress (i.e.,  a re la t ivel y  l argeforce a c ti n g  on  a  r ela ti v el y sma llsurface  area) iscre at ed on the “C ”  c hannel 10(se e, e.g., FIG . 1 C) whi ch , i n  some  in stanc es, ma y  be su fficientto deform or perm a n en tlydamage the “C” ch a nn e l 10 such that  the f as t en e r  po rti on receive dby th e  “C” ch a nn e l ise ssentially to rn out of t h e c hannel .Ins ome ca ses,th e  en tire rod ho lder  may brea k or b e come di s mounted  fromthe  “C ” ch a nn el  an dt her od  ho l der , as wel las  thefish i n g rodhel d th ereby , may fall fr omthek aya k int o the  wat er  andbe atriskof  becoming lost. 
Ano ther desi rab le  ch ar acter i stic o f s uch  a “rai l mount ”  or  “ C ” ch annel type of moun ti n g  s ystem is  the f l ex ib i lity tomo vethea c cesso ry d e vi ces alon g ther es pe ctive r ai l or “ C”  ch ann el to thedesire d positi on fo r  the particula r  user. Accord i ng l y ,t he a cce ssory devic es a r e de sira b ly  mo u ntedto th er ai l  or “C” channel tore sist h orizo ntal movement . Typicall y , however,  suc h  r e sistance to ho rizon tal moveme n t is dir ectly  proport ional tot h e tightn ess  of  th e m o u nt ing portion o f theac cessory  de vice. I n s ome  in sta nc es, accep table re si st an ce  to  hori z ontal mo ve men tmay  be o b tained  at t he e xp en s e o f over- t ig h t enin gth e mo unt in g por tion ofthe acc essory de vic e  whi ch  m ay, inturn cause de fo rmation or  o the r dama g e  to themounting portion and/or the rai l o r “C”  cha nnel. The ref ore, a dva n tagesof suc h a r ai l o r “C” c h a nn elmo unting sys t e m m ay be  n ulli fied.
T hus, there existsa  ne ed for a moun tin g sy s t em  an d  a s soc ia t eda p paratus form mo unting var io u saccessorie s  to  a  surfac e, forexamp l e, a su rface ofa polymer ic  mol d e d k ayak, that  address  and over c ome t h eshort com ings o fpri or ar t syst e msas id entifi ed  herei n. Wi re less Sen sor Networks (WSNs) are  madeof sp ati ally dist rib u ted  sensorsto m onitor phy sic alor en vir o nment al c o nd iti o ns; t hese sensors c o op era t i ve ly pass the i r dat a thr oug h  the n etwo rk to a main loca t ion. WSN syste m mo n i tor ing andco ntrols are use d i na varietyof  applicatio ns suchas :  rail way se curity , trans p o rt a tion s yste ms,  agricult ura lm onitori ng ,h ealthc arede vices,  etc.T he c o s t of sensor node s isv a riabl e  de pendi ng  on the comp lexity ofthe individ ual se nsor  node s. Ther ef ore, s ize  a nd cost co n straintson se nsor no de s re sul t in c orre s p ondin g co ns tra ints on r e s ou r ce ss uch  asenerg y,  mem ory, comp u tational  sp e ed, and  c omm u n icatio n sb a ndwidth. F ail uresw i thin these sens o rn odesmay oc cur du e to si g nal  d isturba nce , battery d epletion, and /o r ex cessiveda ta t ra nsm is sions. Therefor e, a fai lure det e c tion s che m e, w i th low  e nergy consum ption ,i s
 and_the kayak_used to troll from_fish). In_some_instances, a_“point_load” or direct_stress (i.e., a_relatively large force acting_on a relatively_small_surface area) is created on the “C” channel 10 (see, e.g., FIG. 1C) which,_in_some instances,_may_be_sufficient to deform or permanently_damage the “C” channel 10_such that_the fastener portion received by the “C” channel_is_essentially torn out_of the channel. In some cases, the entire rod_holder may break or become dismounted_from the “C”_channel_and_the rod holder, as_well as the fishing rod held_thereby, may fall from the kayak_into the water and be at risk_of becoming lost.
Another desirable characteristic of_such a “rail mount” or_“C” channel_type of mounting system is_the flexibility to_move the_accessory devices along_the respective rail or “C” channel_to the desired_position for the particular user. Accordingly,_the_accessory devices are_desirably_mounted_to the_rail or “C”_channel_to resist_horizontal_movement. Typically, however, such resistance to_horizontal_movement is directly proportional to the tightness_of the mounting portion_of_the accessory device. In_some instances, acceptable resistance to_horizontal movement may be obtained at_the expense_of over-tightening_the mounting portion of the accessory device which may, in turn_cause deformation or other damage to_the mounting portion and/or_the rail_or_“C” channel. Therefore,_advantages_of such_a rail or “C” channel mounting system_may be_nullified.
Thus, there exists a need for_a mounting system and_associated_apparatus form mounting various accessories to_a surface, for example, a surface_of a polymeric molded kayak,_that_address_and overcome the shortcomings of_prior art systems as identified herein._Wireless Sensor Networks_(WSNs) are made of spatially distributed sensors_to_monitor physical or environmental conditions; these_sensors_cooperatively pass their data through the_network_to_a main location. WSN system_monitoring and controls are used in_a variety of applications such as: railway security, transportation_systems, agricultural monitoring,_healthcare devices, etc. The cost_of_sensor_nodes is variable depending on the complexity of the individual_sensor nodes._Therefore, size and_cost constraints on sensor nodes result in corresponding constraints on_resources such as energy, memory, computational speed,_and communications bandwidth. Failures within these sensor nodes may occur due_to signal disturbance, battery depletion, and/or excessive data_transmissions. Therefore, a failure detection scheme, with_low energy consumption, is