of ai, Vv A Tnesis Sutmitted to Tne Faculty of Mm I CHI GAL, AGRI CULT UhAL COLL # G W. ©. Dow RE. H. Walser Candidates for the Deper-- or Bach2aler of Seience 4, THESIS The follewirg books were used thro'out the work as reference, Ketchun's--Structural Fand Rook (S. H. B.) Wrights'--Desipgnire cf Draw-Srars hCLlitcer’seeRiret@ec Trecry of Engineering otructures, We are esvecially in’ebted to Frofecscr C. A. Melick for trie series of lectures he fave us in yrepuratior, for the loan of detail crawings, and for his sugrestions and helr during the progiess of the work. The Authors. 95505 TABLE OF CCNTENTS Pages List of Detail Drawings Outline Introduction Digcussion Tables Tabulation of weight of members Panel poirt Concentrations Live load continuous Stress (continuous bean theory) Live Load Simrle Span Stresses True dead 10a¢ continuous Stresses& Actual live loa¢ continuous Stresses True live load continuous Stresses 100047 panel Allowed unit compressive stresser Conbinetions of Stresses Unit change in length due to 1# load at Center Maximum Unit Stresses Plates Marker diagram Dead load cantilever stresses Stresses cue to 1000# uplift Left Reactions by continuous beam theory Stresses due to 1# load at center V1---T35 T36--T 37 T39 T40 T41 T42 T43 T44 T45 T45 T46 Pl P2 P3 p4 PS Typical Influence Lines Williot Deformation diagram Diagram skewing stresses P6=P7 P8 l. LIST OF DRAWINGS American Bridge Co. Order Nos. C9213 and C9216 Two 257'-0" Riveted draw spans. One span over Old River san Joaquin and Contra Costa Co. California. One span over Midcle River San Joaguin Co. California. SHEET INDEX Sheet Dl---Stresses Destorsions & Deflections & Mach. Stresses ~-=24x 36 D2-e-Diagram of structural steel to be assemciled in sliop with machinery---12x24 Bl---Masonry plans showing location of bearings---24x36 B2---Brection diagram for structural steel---24x}36 E3---Erection diagram of center machinery-Plan---24x36 E4.--Brection diagram of center mach. Longt«<. & Trans. sections 24x36 E5---Erection diagram End ani Center Wedges & End Latch ~ == 24x36 E6---EFrection diagram for shafting and operator's house ~-=24x36 Sheet 1---Top chord section U1-U3- - - - - 24x36 2---End Posts EPl - - - - - - 24x36 3---End Posts EP2 - - - - - - 24x36 4e--Portals and Sway bracing SBl-2-3-4 - - 24x36 5---Posts and diagonals U 2L2 en 10-S4-8-9 - - - - - G---Floor beams-End and Intermediate FB1-2-3 9---Bottom chord sections L2-L4 - 10---Center Posts and Sway Bracing SB5-6- U6-L6 - - - - - . ll---Bottom chord sections LO-L2 - -8-9- l2---Hangers, Stringers, & Bottom Laterals SLl- Ll-13 incl., UlL1, U5SL5, Rl-2-4— - l3---Machinery supports MS3-4-5-6-9 14---Mac.inery sunports MS1-2-7-5-12 15---Track az:d Pinions Girders T1-G4-P3 16---Center cross Girder G5 - - 17---Hand Railing HR1-2-3-4-5-6 - 18---Hani Railing HR7-8-9 - 19---Center Gussets an“? Brackets CGl, BKl-2 20---Str:ngers and Girders §11-290 incl. and Gi 21---Floor beans and Girders FB4-5, G2, MS10-11 22e--Botton cnord L4L6 - - - 10, 24x 36 24x 36 24x 36 ' n m4 Ly On § 8 8 8 8 8 8 58 ree ee eee ~~ A ee RS KH KH BH WwW Ww Ww Ww WY we Be wD oO W@W Ad dw AQ @®Q a 6 > ” lw On - 24x36 23---Balance Wieel Girder and Machinery supports G3, MS13-19 incl., P5-6 - - - C9214-Cl---Collar M20 ana Plate wasner N27 C9213-Cl---Pins & Recessed Nuts U5 & U6, PH29 C9213-C2---Rye Bars U5-U6 and Counters (none) C9213-C3---Anchor bolts swedged and wedged 116 C9213-C4---Anchor bolts - - - C9213-c5---Ring Fills RFl-2 - - C9213-c6---Field Rivets and volts C9213-c7---Field Rivets and bolts - 24x36 - 12x16 12x16 12x16 - 12x14 - 12x16 12x16 12x16 12x16 3. Ml---Center an¢d End wedres Cl-C2-C3 - - - - 12x30 M2---End Latch M2 and Counter weirht bars M3 - - 12x30 M3---Wor.is and worm wneels F1l-F2-C6 - - - «+ 12x30 M4=2--Oilbox C4 and center base C5 Eyeb:lts FD - 12x30 M5---Discs F3, 4, C7? nd uyper center casting Cl0- 12x30 M6---Worm wheel bearings C8, Cll and cap C9 =~ = 12x30 M7---Connecting Rods FO6-F§8 and Levers CB-Cl2 for end and center Lift - - - - - - - 12x30 MS---Bearings for Center and End Wedge Machinery Bl-2-3-4- - - ". - - - » -12x 30 M9---Connecting Rods F-7-9-10-11 - - - ~12x30 M10---Details cf Base & Girder Center Werge base C16 and guide C17 -= - - - - - - 12x30 Mll---Levers and Bearings C14-15-18-19 and B5-8 ~12x30 Ml2--eBeurings and couplings C2Q-23 incl. = - -12x30 M13---End wedge and Latch shaftineg S1-5 incl. - -12x30 N14---Center en? wedce & Latch, Pins and Rollers N3- 4-5-, 57-68-20 - - - - - - ~12x30 M15+--Pins an* Collars M6-7-9-10-11-12-22 - - 12x30 M16---Couplings ind Bearings for line shaft C42-43, C24-25-26 - - - “ ~ ~ ~12x30 M17---Shafts S9-13 incl. - - - - ~12x30 Mlf&---Rack and Pinion at Center C27-C28 - -~12x30 Ml9---Union bearing BY - - - - - 12x30 M20---Bearings for Ce:.ter Machinery B10-12-13 -12x 30 M21---Union bearings Bll - - - - -12x30 M22---Gears at center C29-30-31 - - -12x30 M23---Gears at Center C32-33-34-3¢6-39 - -12x30 - -12x30 M24---Shafts at center $14-15-16-17 4. M29s--Balarnce wheels and beerings C35-36-37 - - 12x30 M26---Shafts §18-19-21-22-23 - - - - 12x 30 M27---Phosphor-btronze waners MB-1@ inch - - 12x30 M28---Shime - - - - . - - 12x30 M29---Shims - - - - - - - 12x 30 M30-- Grease cups and oil cups - - - 12x30 M31l---Turned tolts - - - - - 12x30 M32---Cears and bearings (40-41, B14-15-16-8 “ 12x 30 M23---Brake wheel & capstan C44-45, M14 - - 12x30 M34---Rods and Levers - - - - - 12x30 M35---Handles, Knuckles, end Cotters - - 12x30 M36---Shaft couplings & levers (brakes) - - 12x30 M37---Snims~ - - - - - - - 12x30 M38---Turned bolts - - - - - - 12x30 M1lOl---Name plates - - - - - - 12x30 OUTLINE ANALYSIS OF DRAWBRIDGE. 1. Estimate dead weight of all structural steel. <. Bstimate value of top and bottom dead panel concentrations. 3. Diagram and tabulate dead load cantilever stresses. 4, Calculate left reaction for dead load continuous and cal- culate and tabulate stresses due to the uplift of 1000# at each end. 5. Combine stresses dead load cantilever and uplift of re- action for dead load continuous and tabulate as dead load contin- uous. 6. Calculate values of left reaction for live panel load of 1000# at each panel of bridge and plot influence line for Ro. 7+ Calculate ordinates for sll chord stresses. Live load continuous. 8. Calculate ordinates for all web stresses. Live load con- tinuous. 9. Plot influence lines for all chord and web si:esses. Live load continuous. 19. Using live panel loads calculate and tabulate maximum pose itive and negative live load continuous chord stresses. ll. Using live panel loads calculate and tabulate maximum pos- itive and negative live lcad continuous chord stresses. 12. Calculate and tabulate maximum, positive or negative chord Stresses, live load simple span. 13. Calculate and tabulate maximum, positive and negative web Stresses, live load simple span. 14. Calculate maximum uplift on left reaction. Live load ccne- tinuous, 656 15. Calculate and tabulate the len;ths and areas of all main members, and the unit stresses an? changes in len¢eth of all num- bers under action of a l# load at center pier with pier removed. 16. Draw Williot diagram for above loading. 17. Compute true left reacticns for 1-00# panel loads at each panel point of span and note corr-ecticn to approximate continuous beam method. 18. Correct dead and live load continuous s.resses for the above correcticn ir left reaction. 19. Tabulate the maximum combined stresses in all numbers note ing the case and panel points loaded with live load to produce same. Include in this table the actual unit stresses produced by above maximum stresses and the units allowed by specificaticn to- gether with the % by which the actual exceeds the allowed when such case occurs. ts INTRODUCTION In July 1915 the American Bridge Co. built two highway bridges, very similar in character, which were erected in Cali- fornia. They were both draw-bridges of the center pin bearing type and were built from the same set of plans. With the exceptign of the two center panels, both were of the parallel chord type con- taining nine panels each and were of 257'-0" span center to center of end bearings. The clear road way was 21'-0" and was paved with creosoted wood blocks resting on a double plank flooring. Both bridges were provided with end wedfes and center wedges to eliminate the pounding caused by the passage of trains and to care for the variable deflections of the free ends of the truss also end latchs to guide the structure to a proper alignment. The bridges were arranged so that they could be operated either vy power or by hand and the design of the machinery and machinery sup- ports was included in the plans. To use the American Bridge Co.'s designation for these bridges contract No. C9213 was built over Old River between San Joaquin and Contra Costa counties, Claifornia, while No. C9216 was built over Middle River in San Joaquin county, California. Since these bridges were different only in some of the detxuils the analysis of one was sufficient to cover toth. So No. C9213 was chosen to analyze. From the plans which were obtainable it was impossicle to find the specifications or loading used in the original design; so it was decided to use standard specifications (Milo Ketchum's speci- fications for highway bridges and his class B loading which are commo ily used vecause the floor system of this oridge is not materially different from triat of a simple span bridge, the floor system was omitted and the main truss memvers only were reviewed. DISCUSSION The bridge was analyzed for four conditions of loading, 1. Dead Load Cantilever, 2. Dead Load Continuous, 3. Live Load Continuous, and 4. Live Load Simple Span. Plate 1 is a marker diagran of the truss, and from it an idea may be had of the general form of the truss an-:].zed. Wnen the tLridge is swinging from the center pier, or when the end wedges are loose, or just touching without prodicing an uplift the truss members get a stress from the cantilever effect. The stresses s:re determined graphically by placing the true dead weight panel concentrations on the respective panel points and solving for the stress in the members by a stress diagram as shown on P2. These stresses were then scaled from the dingram and tab- ulate ?, on P2 also. When as is usually the case the end wedges are driven tight enough to bring the bridge to a bearing at three points the bridge acts somewhat as a continuous beam, and dead load continuous stress;:s are produced. The end wedges however must be driven just tisht enoug: to take out the deflection of the span when swinging. Dead load continuous stress’s may be considered to be made up of two parts, namely those produced by the weight of the bridge Supported at the center, and those produced by the wedge uplift at the ends, and considered as anchored at the center pier. Since the stresses jue to the weicnt of the bridge supported at the center, or dead load cantilevzr have already been considered, it only remains to find those due to the uplift of the reactions and combine with the cantilever to fet the dead loud continuous stresses. The stresses due to a 1000# uplift at the left reaction LQ. were found by a graphical solution, P3, and these stresses were multiplied by the summationa of the reactions due to the separate panel loads, found by the continuous beam theory. The final stresses obtained by ti: is m:thod were combined with the dead load cantilever stresses to fcrm the dead load continuous stresses. The live load continous stresses were calculated by the continuous beam theory first and corrected later by means of true reactions found by means of a Williot Diagram in connection with the theory of rigidity. The conti::uous beam theory consists of calculating the reaction at the right and left supports, produced by a 1000# load at each panel point successively. The stress produced in each member vy each separate reaction is then cale culated and the positive and negative results summed up giving a positive and negative force respectively in each member. As an aid in checking the accuracy of this work typical influence lines were drawn for the members of the truss and are shown in P6 & P7. The influence lines were not used in solving for stresses, the work being entirely analytical. The negative reactions or those produced at the left support by panel loads on the right half of the span were calculated by means of the formula Ro e “E (K-K3) in which Ro equals the neg- ative reaction, P equals the pane] load ef one pig (1000#) and K is the ratio of the distance of the panel point in question to the right support, to the length of the half span. In like man- ner the formular for positive reactions at the left support R, = $= (4-5K plus K3) was used. If the end and center wedges are driven just tight enough to make a food fit without producing an uplift at the supports, and ll. a train comes on the brid;,e, the loaded half of tue bride cts as a Bimple epan for live loail andlive lozi simile s:an stresses are produced. He chord stresses were computed aialytically .y means of the method of chori incruments, with each panel point loai equal to 49,000f. The web members were calculated by the method of maxi- mum shears. both positive and negative stresses were cum uted for each iemser and tabulated for euch me.iber under live load simple span. (Care 1V, T40). To these stresses impact was aided calcue- lated from Spec. 29, FP. 141, S. H. 5 . When a brid, e is built the weigtit of the bridve itself and the live load wiich cozes on Lt cnuses tue dbrid.e to sar or deflect from the horizontal. To provide for this deflection when designiny the bridze the amount and direction of movement of eich member must be known. This i@ ietermined by weans of the Williot Deformation Diagram. To construct this diagram it is first necessary to know the change in length of each member jue to -the loading for which the deflections are wanted. This change in length is comruted from the formula I z si in which I equals the chan.e in length, s equals the unit etress, 1 equals the len:th of the meme oer, and E equals the modulus of elasticity. Knowing the change in length of all members the dillinrd Ningram is constructed as explained in part 2=--Rodfs and Brides, vy tserriman ani Jacoby. In order to find the deflection of the ends of the truss 80 as to determine the amount of wedve movement to provide for, it is necessary to iIraw a Williot Diagram for dead load cantilever. The changes in length for this condition are Given in T45. Since the trusses are no. of a constant desth thrutout and the sectionil arrcras of tiie members are variable, the moment of deai load cantilever to form deai load continuous. The true live load continuous stresses were found by means of the Wiiliot Diagram ani the Theorem of Rigidity. The stresses in the members perviously found, by placing a 1000# load at each panel point in succession, wor tue continuous oeam theory, stresses were multiplied by the ratio of the Theorem of Rigidity reaction to its corresponding Continuous wean Theory reaction, viving the true stresses in the members. This was done simply to save the time which would have to have veen spent in calcul .ting the stresscs from the true reuictions in tiie usuril manner. hese stresses were multiplied vo, the 49 kip panel loau to produce the total true live loai continuous stresses. The impact was obtaine ed by the formula I = AO 300 = 18%. (speo. 36 page 141 S. H. Be) The impact was added to the live loai stresses to make the total live loai continuous stresses. VYhen a bridge is designed it must be made to stand the max- imum possible stress that can ever occur in the members, due to an assumed liberal loading to provide for future increase. To get this mazimum stress for : given member all the possible practe icable combinations of stresses were mi.e and the liar est positive and largest negative stress produced, by tiese combinations were “abulated. The combinations ‘pussivle to make are Case 1 dead load cantilever, Case 1 and 1V dead load cantilever and live load sim- ple s,an, Case 1 and 111 deai load cantilever and live load contine uous, Case 11 and 111 dead loai continuo s and live load continuous " Wuen the max positive and mix negative stresses were taoulated the actual unit stresses were Calculated. In the case of pure tene- Bion and compression the total stress was divided by the cross sectional area to get the unit stress. In the case of alternating 13. inertia of the whole section is not constant. Hence the Contin- uous Beam Tneory previously used in finding the live and dead load erid reactions w.s in error. To find the true value of the reactions proceed as follows : By the Theorem of Rigidity the center reaction for a load at any panel point is equal to the load times the ratio between the deflection at the given panel point and the deflection at the center, due to the same load placed at the center with the center peir removed. See Modern “ramed Structures Vol. 11. Johnson, Bryan, and Turneaure. A Williot Diagram was constructed to ortain the Jeflections due to a l# load at the center with the center pier removed. The deflections were scaled from this diagram and the center reuictions calculated for a 10CO# load at each panel point. The left reactions were then calculated by the formula Ry «# 500 (1 plus K) -Ry in which K is the ratio of the distance of the panel point in question from the center of the truss to the length of the half span, and R, is the center reaction just ottained. Since the sum of the three reactions must equal zero in each case, the righ. reactions Ryo were found by assigning to them such values that this result was obtain- ed. The next step in the analysis was to correct the live and dead load continuous stresses for the true reactions found. This was easily cone in the case of the dead load continuous stresses by multiplying the reaction produced by the 1 Kip load as obtained above by the actual dead panel load giving the total reaction in each case. The algebraic summation of these guve the true left reaction. The stresses obtained by a 1000# uplift were multiplied by this reaction and the resulting stresses were combine? wit? stresses, however, where the stress cnanges from tension to couprese” ion, or vica vers: during the passi.e cf the live load th s;:ece fications Tor design say that the member must ve design: : for the larger max stress plus one half the cross sectional area required for the max ctress of opposite sign. To find thea actual upit stress in this case, the following formula were ievised by Frofessor m@lick. When the positive max stress was tue larger 5,#T plus S a. A When the nc gative stress was the larger S, * &@ C plus iT. K. Where 2A S_, equals the unit tensile str:ss, Sg equals the unit compressor stress, T equals the max total p.sitive stress, C equals the mix total ne,ative stress, A equa ls the cross sectional area of the member, and K equals = allowed vy the specifications. The allowe- ed unit stresses were computed for the compressive stresses by the formula S = 16,000=70 1 where S equals the allowed unit «stress, r equals the least radiue of gyration, and 1 equals the lenz,th of the memver. Wherever the actual unit stress ws larger than the allowed, tiie per cent of excess was tabulated. It was found in the analysis that the chord memvers were quite badly overestressed, while the web members wre almost all on the safe side. This might ve ex laiied oy the fict th:t the loading and specifications uscd in the design were unknown. Ive idently they were not the specifications to use, or else there was some bad blunder in the design, or the results would check more closely with those which were obtained in the analysis, with specifications in common use. a Portal at ne at U5le ya te) TA ce Ae 1-14 Ae al aaa | kere iS TA eho) 5] ae (00.8 Mal rs GF.0 | v4 eA Ev) —.- .) S WS A: Vr hmes aaa yy? 3 ~ V4 ad ghee a the = a) SHEET */ 2) Sia FTF Ab Asg.| 70 fa No. Fes|\Mark| Description Lengthy sara ——~ aT pare oe CATO LT | Lad Fost EF 4 Me Re a dee 2) a) Z 20*% 27 -04| 255| F#Zo Vn VTE an Oe oe ee Fae Ae a 2370 | 2 |ea2| & sot % aa, A a Ci. | van 24, Se a ey me ae ae | mee ed ae Eee ee Card Ta | 2 |peZ| 4 20~ He eee iP ae, Vay ed 2 \062|\| Awv~% Van ee 45.3 Ae eed a Ete 2-7"| &S 44.0 ) 2 |\4az\| BuxF 3-23| /4/ com! | A aed a Fa ney a 448A | 4 | pd2\| #57«x4 ee de eC, EE Ha 4 |4e2z| AY 12x He 3'-2) 26 48.6 4 \fa2\ Fil 34* Ge Fae 4 = id 50.8 | 4 \fd2\| Fil 34*2 rs) eg cre | 4 \Pe2| Fill 3$~ % P| 67 rhe 4 |\gcz|L4~4*% |s-0d| #8 oad | 4 \pc2z| #/5* % eA a ia | 7% \y@2 | Lec. Gars 7 le A 2 aed 7.6 he | 332 Kevt Heads io 53.0 N 42 Z Sa eee ee Crea ches “ ee Ee Ta) cara i - oe \1 CP 2806.0| 2466.8| 5272.8| 2 \V05#¢56 WEIGHT OF MEMBE/S SHEET */ OWE, *3 een Cat, Description Teed bee : Weight = EB age a ee de BE En ae Lg \ ig] > Maa na ee a “rR é 4 |aa7\|L4*4«x% ee A cre 7 en rd ee col ee ee ad ee dt 2, ele 4 |pg/|@ 15~*% Mar 5 ee S| a) Fan Ye ee ee Mee? 4 oa 68 |ya/ Lac. Bers 24% %e\/-Z| FF eye x 4 Ly/2°@ 25% \36-5 25.0 /eZzh0 . Z Cov. @. 20% Yo \33°92) 2/./| Fos.0 Ni 2/8\| vk Heads “Yee ew apes “ 2 all PY Vy AE 252%0| 6CO¥9.Y| 3/38.7| 2 \E2Z7E0 WEIGHT OF MEMBEFS SHEET */ OT ied Bae ee) a ms p ie 1 We sg? CeCe re aaa ee Rc dd ald CO a end ae ST Sa fy) aa : 4 "ae, as ll SR EN RE ES fara aera / |pad| £/7* 2-4") /heo aes i yates. 22° /4| 4.9) 330.0 PDE al ie ek) ae ra 4 | pb4| A/5~ Be L'- 9"): SEF aA | Z TAT Lh. ee). de ed eS 2 2 LS" 9¢ He [eB fl 87] 1088 nod ee £84) 212 e/a Zz 5 x 98" % 7-08 87\ (224 en a A eA 4 a ee! 48 / |pad| & Ze* ens | aad a] a eae ee o ag! as a4 ae alk Se Ci | ra * 18 | Av Heads hog | 12.5% vid ol Dye Ae O5G 774.8) 7682| 7 \7702 oe aes a ; li aa a VE re ee | ee Lol 2) / Lor Gry S01 1449| 9372.0 2 Var, Les AL ee Py A ee r, PT Lee Oe | 8.7| 226.0 a Vs a ve £02 TAY enV ae, ee Va A A Yai ee el a AA mel ( |p| 7 75” Ve Vey Ark eR 72 Att Heads “foo Yael ri 72 s “ Driver" PN v] g 10078| 204, /2Z0/48\ / V2o48 la Bye PA A j 4 VET TXT Li ae ae A ia A oA va 27-64) B2| G¥o.0 Vy A, ek eA O-W&| /2.7 EAE 6 \prrrd| AA 16% % Vid AA UPA 6 |\fad| & 24*% Vie ae ra yi hee yo Lae, > tat r FP 7% rai ho# Z4 ghd a 4 24% % Phas el eee, g te : Bi ceca a A a gh me LL ae SHEET "/ | A faed ao Weight ? No.fts| MlarK\| Descriptr ae 2 alate 4 Call bisa se iyi ae ey al ad lll kl 2Q:egena/ LAYS) y (mye) 35-3"| 40.0| 28240 eae ee ae ens 4 eT fora Cee eee et ae A Ce 2 |\aak|432*3*% an A id ) 166% | & GFF ee ae yA x Ul " Pe ae eee (-4é| 7.9 a Ss Aa rk (Gos Sa 238 9 " Driven ‘Z er Va aed 2824.0| 702./| 3526.2) / \35H2 Fost UZLZ ri L/2'@ 204* \29'8 | 205| /220.0 4 |pg5| 2/2 We Via ed eed 8 latsf| L4x3* % 2'-24| 72 cd | 2 |p4s5| Au Ye |2"24| 7.7 awe 4 4 |ae5|L5«x3"*% /-6"| 82 24.6\8 Van, Ae TA A 20.7| O Ae Ae OA No) ee a i ad ieee) ee 4/8 RvA Heods “Soo é7.0 rhs ag TS ae hid he 32,3 VL 2 I) cd ae ae eA Sac Post YELG a Liz'@ 25" ap 2 ek a omen trl ae Ee Pe Ae 74 ced Ya oe -s 7 ae ‘ a i 224 \yeS | Zac. YP ge een et A ed 2242 saad ye ee es VET aan totem 7 Eee © |f-7"| 7243 FLA # |g0e5|L5*I* He ry a ee | 24.6|% a) Ruth Heads oy 43.7\"" Ta fl Z TA aed (4d a el eae! I 2 == /46.0| 4844 /9704\| 2 BME Post U4ALF Zz a A 27-@\| 350| 20G0.0 Fa PE ord Wa LX ee an hehe an ae 4 Vy ee Fh a rae 112 \yb5 | Lac. Bars 24% He a ea Co 4 \ors | 412% Ye Ey ead iat / | peS| 4% ed i Ad tad iaght Van Le OA ek ee 4 line i” = ——> Le ae a 6's) 22 dae , 3 WEIGHT OF MEMBEPS SHEET *2 L 24 pad : Werght * Pe No.tés\ ark) Descriptrar Length Ng aay ae = ip | Comper aa ate — Vad akc ae ‘ he 273 el tata t iced PPS 43,7\2 273 . “ Heads Re BAL % 20608\| F190 259/7\| 2 \5034 P VA PAR 4 mar wy Ls \95'4'| 25,0| /76b0 4 | pad| fe /(2%% ’ dae ~ FE Kaa 80 \yax|\ Lee. Bars 26% Ie| Uf | 33 x aan. 208 | vA Weads “eo SE ata ea . Ce ad Oca P PAR H Ve 7 A A LEA bik AITeE VA “3. : F 4 L/2"@ 20 Cede A a eva ee) re h4 hd a e Co a ae Va, ed aad 4 \pes | /2*% er Ae ed /84|\ Rvk Heads “boo Ys Ae 4 ed “" yf Yors | ¢7ee 2.0 $ ie err) a me ae Ae ae ocr | 3U4 | | FA VE Ue (2) © Re eh Meteo a Lt, oe 1'-74| /&3 old MN coed oat A i Coa /92\" Rut Heads * 3 ae ss) ir 7 : ae /2T 4 fale ets CE Wa Tk Be Acs a | ae LO Mma =) ae) SHEET */ DWwe, *6 Ag ee ed Aa Wergh? _ La ee Veet Ae Og od na VES NG ante et oe OA ee F £/2'@ 202" FAT Aes ji 20x The Peers an Le) 2 |pcG|4 /2* Yo 2*9"| /27 TIS 2 |\pal | #/2* He dt Ae ye) 2 |lpde | 2L12z*% a ee 22.3 2 aek|L4xaix% = [3-84 57 oe / \peé 104% Pie ed ceo} Vie ak ae aa e e /'-34| 59 Ven, 2 |\P56 |\FiU9E*Z Pe eed Ee | Va Le pl ae Ae NL A | 2 |pbe|\|#36* % hea od aaa 4 |pgi |\% 15*% deee dg /22,4\ 44 \ya/ |\Lac, Bars 24% He \0-UE| 33 VA aN 459 Ae Pe oy Mae) . ok 6 Driver “Yoo 6% 0 “Z806.3| 7370.4| FEFRT | 2 RF ae ta aA gee’, = iL J7x le MMe y * DOT IP Gx ~ “Fe ' - it Ya7 |Lac. lars ie Be ut ght doe) o Loa WALT 5 44S Ls ry Ver PAL or od " a Ua Lat TA A j EEL \/4- a4 Verem A ee aed ya 7 | Lec, Bars Atm deed WE) a “ Drivers '*o I Ton aa ar WATT Ve ia a oe lo ear ¥ ta i Heads “Yeo Driveri Y a 7 4 a lLatera/ A Ln Pare a Padre WZ van (PAE ak Cee We ca ~// 1243 \2% fCv 7 He 2 QAIS an ) ed a ‘| ° QOrwer Me | ee | | 137.3) 485 | | Ave Od ez ay. wy al: (2 @U2 21-4 | WS ro Pi yo Pre 164 4, Soe ne Ori VET An) WEIGHT OF MEMBE/?S SHEET *2 Dwe. *7 ae es Description Fe aad Ok salt tk eae No. Feg,\ Jo+a/ | FY. \Main Memb) Details Nii a (alec Iebhabie Raadwa adalat - tee i Z /2'@ TF: 2/-4| BLS 670.0 - ad Rvk Heads Driver \\* Yoo 4s\° ae 75\ 6745| 8& 53%. lated 12h.Z- ae) taal Ta ye sone S14 | Y Ett CER 22°43, GA5| 702.0 \, 702.0] 2 |/40#0 / Z (2 @34/z Vaya ae oe Lo) fy “ Tee ema Vie a ¥ rLeloe, yee 7OR7| 2 44 iN ‘ VAX « @ a ‘¢ Heads Aer Fy * VA) 7 7/59| 2 \I/. Rida] Tae 2) Y AOR Tt am 4 Pers cs ee 2 \ 48\ Rvikt Heads “Yeo Ar 678.0 VA) 7OR0| 2 \/406.0 rhe k Stringer If Uy L224 @Gor \2/-4'| 800) 1750.0 mee ioe 4A tele al 3 ars es od PAU a Ae el tae acd 32.3 ne Aa Le oe er A A 30.3) q VW lot a, ede at An We) a Beaty mn Gye a oe Cea | é5 " “ Driven as 73 oA | 77 oT ee la (ol Go aa La SG / Z 24'@ G0* 22-73| G0.0| /87/5.0 A al OA 2-9") 76.2 a nA el aie ae A ee By AVA ek te Vet A ad lA ay) 1 |\ga7|\Zex€*% Ve ad /6./ Van etd ae ee ak /'-53| 46.2 50, 6}, 2 |pc7| Lexz eet an ead ae Te evk Heads “Veco . a ° Jol : Driver i ——- ay S12 —————— — /8/5,0 Ma ee, 2059.5 f LP 4 ‘ O' — } af Walaa al ae Talat ial Ad taal) Ll aha 2 eae a en Be en Ad ad oles NA el No. fts.\ ark Va oa ead Te 4 aed En Posts EF 7a aa ao '-Ga 78 ix Fee te ta O-/0| $2 8.7 ee 2-6"| 26./ Lao 4 |g/|# 15~% 1-H ShF 62.6 Pan Oy ce ae ed Vas ee, rnd PAM ae ed RE Vie. Pa = LC/2" @ 25% \36-5) 25.0, /8ZKh0 . Fo Cov. &, 20* Ye Bee Fi aA VER \ 2/8\| Kv, Heads “Oe 35.0 } Yao) ee “ Drwvern “Zee m1 PEL LAA A 3 Perk ee a i WEIGHT OF MEMBEFS # Ze vt Heads ——————— ea Description cs taf —2ee/ ae ee late Le LZ. OXNF* % yn LTTE Me LTKGIER Me BR 20% Me JS x 784% Ge YM ~ me a es | Se tae a3 at ty ™ — > i a Ps a ian eLe a eae) . = a bd = i “" Qriven EA tl 2 VaR S247 4O4S ee i — —~—-——+ Fae ds Fe Le a | OL SS ne SHEET */ DWE, Ps ff No Avy. Sahat (682| 4 \//66.2 ae ia ee Le Pa re Le aD Le 4P /9* Ge fo. /o* Fe ye ee FO /B 2 va eee “ Orivett ~ N Pe lel el 372.0 ae 226.0 Pde A hd 1201,8\| / V2or8 AF fot td lm , LIG*GF" Ho LNG He fb /24 Yo fb Jo % y ae hier o Lac, Bars 2g" % fb 2544* Ye SEES a ae Vea 670.0 227 2 WA em Lata AMM Ae ae SHEET */ No.Fes| Mark) Descripty a 1 AW lial al Aledo Me Pole Ve YYe wh L457 J L 12'@ 40 35°3"| 40.0| 28240 yn Ye ee a le Rem eee ra ee) 2 |\aak|\232*3*% Aa an oe a ees eA 2 |\ab£| £2 3z*%9*F /=gt| 7.9 Ryt Heods . , * Driven “4%oo 2824.0 EEw Fost UZLZ ; L/2'@ 20 Fa pt a ESTO VB, eae O-g| (2.7 orsk| L 4x3 % 2'-2$| 72 PAS | BU* Ge Bears ieee Pyaar Le a Var an ee 4 X Fea ee Vd ae ad “ Te es ee ake, ed 4 RvA Heads Yoo a th a-tad oF. /220.0 ar la i a me as la 29-8 | 25.0| (486.00 Peer e Pees Ve a a a ee ne ears yee een et A od ied 12% Ve o-Np\ 12.7 NX Vin ede Vie Ae WA Se) le aes |\LI*I* He Vn te eed N Rut Heads Za 2 fe “ Qrivert”” Xlee = ae ay ee BHO Fost U4 LF v4 a A Va Bee) a Le 7 yd ae he 2-10) 72 / |pds | B 1op* %e Z-/0n Mel Ad CA ote hho Fe He 0-46, ss 4 |bts | 412% % Ne de a Pd ee et i Ae | PP nA Lae | ad en ee = Be Rie eee eee ee Lagi! mola | SHEET *Z | ead pues Js ; Wergh?t =) salon thine,” ie cai rw Lert We (J Mian Memtb\ Lt tai /s Complete aod by f | a SE S Teen ber | 5 be ) 273 ae TARE Al Vee 43.7 M1 . 273 a ay, Py ae, | 34/\" 20802\ F/49\ Z25G/7\ 2 51634 VAT) Ya Law ek he £). ye a cee Me a, La 4 |\Pad|\ fH 12*% 1'-f| 7559 aaa COR Om ea eS Bld ae) ce eae FT AM ata ee Rea Pa) 4 a" « Drivest als” o ' 1766.0\| G947\| 245977\ 2 YHE4 ALTE TAAL) rvs A EPA FA £/2"@ 20 95-9 | 205| /446.0 ev ele | ‘1o-9F| 8.9 aa G6 |yas | Loe. Sars Pr aes Ved | IF Rie iN 4 \pos | #12*% la ae had 184 | vk Heads “theo | . aes hed re ¢ yaa Ze Cam — /448.0\ 698 6| 2/46.6| 2 #262 a - Vaporral L3 U4 os Zz i ne (ed Cree) TY ee 4710 e CMU Le ae AS od 7@ | Yao | Lac, Bars2g* te \T'-Hé| 33 oral /92 Vdd, amd Lee ey, Ae y rh Ta ae ea y, ed st io er 2120.0) 6597.5) 27775| 2 so | | | her WEIGHT Of MEVIBEP § SHEET *7 A a Mark\ Description Wergh? VAN as oe B Wan Memt\ Details \Sezefer\ er Top| Chords UZ UGE | Z £12"@ 202" rae TT Y ya a 49% 926.6 2 |pceé| 4 /2* He gig" o-Ps 2 \pa/ 212% Yo Ve SLO 2 |pdé | 2 12*% “ape ya ae 2 abok|L4x32*% Card yaa a Ee) care ca 2 |\fae |\Frl 32%% ar Va Va PY a PE te Vers FE] Vi a ol | ae 2/8.4 2 |pbe|\#36*% Adee ra F442 |\. 4 |pai |\4% 15*% hart TE eA a ae Lac. Bars 24* Ie \l'-Ue V7. aa) ed De er eee Pak ad * Sas en aed 2 AD) TT ME eee ae : = | ah ae SHEET */ | Dwe.*7 | . | Werght re ee ee aes lad a4 AT a ie lad Tes Ade 7 = Trows| Mote See a 2 Topi|Lotera/ 7LZ\V/ |, . Tey Le ae Ame) TA / | p67| 24 Te ee U8 27 | ya7 | Lac, Bars 24*%\o0'-"| 2A 359.2) 'Q or An Le ia) 3 50 * ' Driven ‘FH wd 17) ke] oc Le Ba 7op, Lotera/ TLZ P EOE ede x4 eee / \pb7|B4% % ie ee ANS 27 |ya7 | Lac, Bars (ey ee ee S92 a 56 om a AIM 50 a “ Drivers '* Foo 6.2 77H) ay 2 A Ue Ce UY a 2 bs VA LOE tee Vee 2g ean de x ws j Lac. Bars2zx%| 0-U"| 24 ERAN 78 Rvt Heads “Yoo aS ve) “ " priven "Yoo 34 Mieorm a sete, i > aA rey FEIS| 2 | F750 YAY, Latera/ ee * aE ed be 59 |\ya7 | Lac, Bars ay ahaa aan Wie) Ryt Heads ‘Yee Pras fod ; a ae rad aad 330,0| 1/3/.5| F8.5\| 2 \7650 late, AEA Cyl ttaed ; ri ai ae os a ee Ad he a 3 A gio hed ag ts S ) - " Eee ee 7 ee he = Sama | lane, meat ey aiid fa V4 y Ti2"@wvd “\2r-4) 35) $700 be ey At Heads EP - al bbs | . a Taha d iat 7 i . / nd - | “ | a 7a A A | ee) ee eT; 2 Saran <= | WEIGHT OF MEMBE/SS SHEET aaa Dwe. *7 Mark’ Description \Length\Wat/ Weight ae roa FY. \Moin/Temb\| De ree taea Comets. Tros Ww ate fe Roadwa amit tae k Vara ae 2/-4| 3GL5| €70.0 : aie 7 rp Vg ae, 75\ @745| 8 [53%.0 thes Rvkt Heads Oriver Roadway SD. aa ak: a J -\|S@ Ui Z /2 CEN i a BLS\| 702.0 x 70Z2,0| Z |/40#40 Vy Fae MOLT E? Pee ee od Lo 3 A Rut Heads oP . id 3 708.0 ar 7OR7T| 2 \4Ale4 Prooedway Strider A/ te Y I /2'@ 3 Te FA en aX a @ yn Heads ET ae 7/5.0 4 W/59| Z \K6 Pigalle SY / RO aes Ps) ee \ ved Rut feads Ae) 7.0 a Lee A FORO, 2 \/406.0 Tree Kk Strittgex SF i TaZt#@Gor \2/-4\ G00 rae 3 lac7A|Z6*4*% eer ee 75.9 LAP ie aa ae ia i 1 |\e@67|L6x6*z% eer AA 50.3) o Vee a ed lan) ra eA ay Rvk Heads ee oa 65 “ Driven ar) ee Saad A je Lewd) 1736.0 WA LL) aan Ud ha Track STIG re weXe ee aaa VON hed 22- vee aia ee 2-9" Py VA Binh LGE*x6"*% aa L6x6*% ey i Vt Bal! aE vA daa Yioe ip. ye eA ated ea ee 3 a a La gh Mie ae a gel SHEET *3 el eel Avda tae dad RE i A Stringer carey) Vat ea LG6x6*% L.6*6*% PL GxGx«E adc ea) " QOriverz Sada eae 4 VA dada Tey Y alae CAL ae (re a f 2050.0| / \2050.0| SHEET */ WEICHT OF MEMBEFYS Vel al a aa — Pree, Ue ae Ee TA Ve daa Lesryp tiorr GTA! ( ps 3l Derails aa The lla eee Floor Learn Fa yA ate yd se 2 Va at e 28.7\ 1/2800 2 ye ae) 383 8540 2 | Zamé\ 12% % 204 45.9 8 |\Ada| FU 9*% Vere] ee ed 4 |\ta8\| Fill 9x% 23.0 138.0 4 |sc8| Z5xa4* % 10.4 100.4 ya tae dL tok ed TG a a al dali re TAA Van gle ed Ado a ye x (ae alta Ot ae ee PAO 160.8\% 284| vt Heads “Yoo Pea hand “ “ Driver : as REE, Vee LAA Fe A Wal (ol am — Lok LA law 2 Vat te 2G\ 976.0 Fa LG*6*% 2V.9| 9976.0 V, FE 30x % Ahr 2 ye ee 49s t,) on ft A Ae 3 Vo] Cine 2 |fea| « 7*% ad pe Ve Ak ee J43 oe 4 |\sosk| 25* g4*% ed ed 4 |\Ag8\F0H 34% Ve i 40.2\. ~ 4 |\4ba\| + 9x We ae 4 EAN 4 |sbek\ 26x34 % ee eRe AN 2 |258| AEX B cea 102.6\\ Rut. Heads oi a esa ” Vahl pre G6. 653,06 F267.6 EA va Va 1 ea) 4 val Se) ys 8 /0.0 re J Fe hel / \@aG|LGrxr4* % Ae 4 ae LS*G4g* ied vA 7 cA LA ee 4 40.2 4 \|/be u Gu Go wd a ie SHEET *¥2 Lad kg MMO [= ep ie) Laid ¥Fp ea orn bcd No. fe-s|Mark| Description \ength aft 1a Te IT TA eae re Xe = a Cy aa ae rte oP Paley ys. Se lark A y P 2 | a8 | # 16x %y Oder al We 4 aS 36/4.0 F8/,2) 4#Z2372| / \42372 WEVCH/T OF MEMBE FS SHEET */ ey Mad - e a a i Ee WO Awe od No.fts\ Mark\ Description Le 6 ah ll Fh eee cee ciel (alc od /Mentber- Bottorn Chord L2V.Z4 ca LEX3R* PA AA ere VW kn, eR ele 2 4'-8"| 473 Ii acre Va) AL dak A F-8"| 459 cea 2 | pf9| #13*4 ya eee Vira, / c?| & /2* % 4-S5"| 255 2.5" 1 \pa@9|# /2x % ie ey Vee VW A, pe oad OX Te A oe ea Kah EA 3/2\" Kuk Heads Yloo ‘ 6, 0 \\o, Sir z "Driven \* Foe SEL eT 1: cir, 2560.0| [386.0| 398,.0| 2 Lee WEIGHT OF (MIETIBERS Py en SHEET ~ / pwe. */0 | 4 Wei gl Wa. LTA age) ntl cack a Wa ea Fier i A A Na is E Is Bo 35" Poe me ee Pa YM eee 8 Tek 2 ‘-3| 72 rae 4 \ag/oy Ee Le ee Ae 7A na Te fat | eA xe) / \Pero| BR /ée /~3°\ 19.3 24.0 Mt 7 ppg? , i ne a4 Le) en o-u$\ 12.78 a Fan YY A al oe I ene Ce Vee TL) VRP Tee poe | 72 3.0 Pa a VO eee eee Cee a on ee 3-6 | 3/88 ae ac ne oe ies VA 2/0 | Lac.Bus £ete nee) eee Ui Pg /0 pA one Pa Ae ae ed PL (Sk CMG hoes) J 249.3 NS ier y aL eS ae % | a Vi) be 29 & driven Rut Has. 5-28 <3 Vee 70500 | /on.7 \ 509-7) / Ered Ps aT eeA yr ey ee LA Ae een ok J8.5 | ye Var] SLE co aan ag aki a Jo |¥ 4 A a dal p AS IRE ; RO 50-9 400.9| 4 |4007 72 a (ae eee Ase A a LA LEC ma Cm] FY We ak 2-24} 72 TS Pn en o- ar 3/9 aN ra eg Taek Pre Li a Ae Fae) ® hy | as (aa aS lo RS we XY id %& \Avt fds. dreven Fee 1.4 Soper asele | Omer AS) 51> ee Aen ’ | aor) Bracuig SB ey ae Bera “:7é\ 7.2 \ 870 ie WEIGHT OF MENIBERS SHEET */ 2) Sill Wea Description i, Wile — Anis He . Re Wedd $l ices Wace d ccee Voker 01-1 mee rx a Ok 4B 6*34*G 4f-2'\ 7 \ 1930.0 Pi 1 |4au\ & 20%% 3-94) 255 84.0 2 | aatt| 4 3473*% ae 1d PA) ne ee) eee ee a) A Ae en 2A no 3'-8%| 4463 le A 1 |pcu| & 14x % 2-62| /275 Pa 4 |abu| 4 4x4*%e Vans Ae ime z Pn Ae ee oe) ee | LE 204 Z2 |\fo\| FAH O-54| 425 A nA ae, ok ie aE) ad 1 |\aeu\Z 6ExB4XB /-64\ 147 a an ZA fe 35% Sei -3 ee Ae ee ok me) 44.5 Vn t/a ia Ved yn V Salen 0, ede rae) ey eee) 2 \|\arav| £ 1s @ 33* iW) 455.0 ene el A LA i Te / \pAn\ & 17*B VIE Rel Be) 1 \pku\| & 5x6 19-13 70.0 / \|portt| B /s* % EE) 39.0 ne ee 7 Ved 42.3 zs lye? | Lee.Bors 24* % Od aS 1 |pan| &12*4% re atid Cy mLa,. oe | ara nV eae eS age aM CS We ele > AW elders ‘ ie) a f wr ee == Y e 4 Ay pA Se in = lle Ae ne) Pe A € Z| ae ‘hds. drever i - 2) ay rac in P ££ i») Ne rs Lo s s 4, / A - eee vs / 3x Wt ; | | 4 \ Fr oe 4 ALA, ee 5)! | Sway fractg SB/0 4 Fe / Ix F _ Sl | SHEET */ | | WEIGHT OF MEMBERS | 214d ae 4 a2 3 ne or a 4 mT ee pres Ls WEIGHT OF METIBERS Mark | Descnption A SL Withhe VLG. IATA) Ccompesele | MOELTOCK YN . i ia 06 6S Y "| Frvt. fds. dreven as ee ae N ] [sata Lateral z LEE Le ae PP 12x 42 VC ee erie) N\-on7 f/ ateral ae a om Lateral R. 6x2 ¢ A eat ee oe Laeger Gb” Vi een Ls xox JZ 12x % Mae A PLZ &, VAC A ek ad (a Vvi Ads. driver Det Vat MA a Zz F pif F@x52e*~ ) la iin eA % 4 i / Mark Re ae De isn oh: TY L 4AAZE XS L aide a % Z bk x A _ Ads % oa yee Bee rd pA LTxXTxS weer ae Bere en & LSXIXE aad o® ves £00 Ads. driven oe Boe lak OT) ak i (A 42.0 oe Le aod 3 4 : ~ Vi not he ae a 34,0 R /1.4 ry) 2497\| 3387 ee eee roan Heads riven p - oot " annealed ees WEIGHT OF | | / a | AZachite Support ATS. Wabh/sF| £Z Ix * 5 pel3| BF*F Va) JE. 9 * 4% ow eee Kivi. Heads Drive Heads Oriven MEN Tid el) le Pa3\ 42 6* 78 Velo f2 9x 8 LBx*3*% facl3\ FB ox F4 A aA Wed a Ad ag Ft A Walon te 4 (4) Vea Liz @ 25% L6%4* % ZL 24X3*% Heads Ley 1 Heads Lrivett ' a WEIGHT OF MEMBESS ra : at ee gan Bee Lea Pag ha) id + “a pl ii Ee hhenaas IBC fre e | 20.5|\ 268.0 vd 16-2 318 / ye Cra 4 Tn Le o-6"| 6.38 eae Vana Cea eed 3.8 Pa eee i eB) 53.0 / | post) B 6rF Ea hans ree A SAA A dol Vat a d rood Van i4 Wee ea ee A (10° |\/7.2 ea 2 \aere Séx6xF eet edad Ee MY ig Pel AIS tee Se FO 'S/ VC 2 \aga |4 RSL es ee aU Lye) ey 9 lela Wa ee Very ane ie) ie IR a, ee a Ye: aac ee Er? 268.0 | 5/27 Pi 2 ae ae Vek. Aw s/he Aan 3 Z (2% 40* FTA (oT eae Vaan a a ee ee ae a4 4 \Qh4\L 64% ay A ed 2.2 RL \aQh{\Z 6xe-F 2-35\ /4.9 Pt en ae ae ey a ed eee VAN YUL A ae ee PEA g77 Va 1 ad Ae ae 2-54 | 289 TO 57 Prva. AAs ore Ps Ce Ae a ee Lad ee EA OF awe Vibha Vz L /0°@® £O Cet ae ee Munery Supports V775 8" & ae ee ‘e811 20°%| 7FO 7 Lee mA a la aoe Ea ee EY Sh a Le ee ee la are a ee eae av/9"?\ ZOrZ2+2 (-2F)\ 18.7 PVE Wa Pe te fs | FS ag 46." ria wu Complete IA Ae aD Pl SHEET Bits LA as A | “IP eee ee ee WEIGA/T OF MEMBEPS SHEET */ DRAW */5 . z Weeght RS ier Ce lal hat ae neal Cad Uc a ecg uct Chreular Frails VY / / Orcvfar 65 "rail eA ae ge Sn ee aed pate aA Fea x en 7 en aA e rp sm ee a A SS SS VaR a ae 5 /-7é ed Ci FERRO /69.2 6G3/.2 omen a Fat _Giyrder GF / Vol ae Le [2-10 \52.28\ E720 a es eRe 3 (2*/04| 10.9 | 268.0 2 Ags ree a a re oi Fae aa ea 9.8 Ven Aan Cacia es ee AP to 46.8 an AAA Cates /-6 | 6.38 eA G |pb/r | 2% a ad Fone ee} 50.5 fa de Wa ae /-6 | 765 FirO 9 \fers | 476% ea oe 32.0 Ae Aaa ire,’ aw ra Chae ore nT ee Le Va ee ed Ae le Ae ees cy ee 17 ee Vom) A ee oe eo eee) 9 ay Seva. pos La. (see) 6 Pan a da A Lac Zam 3z-0 mreT7-Ye We ee A ei) Payot ? FZ r i 2dDGx Pte ar ea era ny Fa Prvd. Ads. rs FP ras ys oe - 3 os pe se iste al —Fr0.0\ 7% ELT ae or emerine ae. = oe SEES be ie tail SY Y ta WEIGHT OF MEMBERS No. Pes| rork\ Descryplion ee vam ore} IP T4 + Fe “Zo B48+% Cov (P/b64 4 Cov B/ExF Yel Amora te fale | 47H. 72 x S eK SE P4r8 s 56/6) 2 Gx 5248 770, Ae aes ee fle \ fill 728 VLE fe ee FAL ease se la, aL A} ee ald oe ry aa 9 xZB4% fe\ RAZ Y PPivel Aas = a & bY ae J tia Weight | /77Q 4 STC er ya) Yala) aN) ab ee” mee Bo A Lao a ORR ered a a Wi ar is iN Rye ae 7 PvE Ads. asriven 3580.0 gol r-e-) 2720.0 SB RO-0 8/5 .0 G9I2.0 452.0 GF50.0 ef pe) F7G.0 200.0 SGF.O Vhol- a=) Vik eee) O99. BF. 5 432.0 2070 SAS 93.5 ee fre) 750: O Fola/ Abie oe iam ah J0/7.5 " el Ty, S/o #17 WEIGHT OF MEMBEFS DA AW ——— Wage . P , was Ae ay oe ‘eo Ae ae i , ~ Gia i400 7 Pl oad er Vale ee? et. ln shane a SS eS) eee tt) - Gana 2 EE 5 VT TET 2-44\ 45 | 28Z%0 y ie Tele fo-74#\ O85 yaa) Van aa Aho o-9 |/8.7 Ve ie) | i Va ee eee o-5 | 6-38 aS | 2 lac/7| 28x 28*7 2-9 | 4/ ror ee L |\pb/7 ) an o-5 | 3/88 me | / ab/74 Z ae Se o-9 | /&e&7 JG.0 en a eee el ees 79 Pan 9 al aL Pe A el a, amen WA ae rep 9-9 | 45 42.7 Va 4d aCe od oe re a La a4 A=) a/7 \ Zac. Bars. re lo ea} 5 ee 45.0 | 4 \'yb/7 | Lac. Bars ($x% |2-6§ | 0-996 a | 4 lYyes7| Lac. 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