Engineering Mathematics 2 Notes: Advanced Calculus & Equations Guide, Exams of Engineering Mathematics

These Engineering Mathematics 2 notes provide a structured overview of more advanced mathematical concepts used in engineering. The document covers topics such as advanced calculus techniques, differential equations, and applied problem-solving methods. Designed to build on foundational knowledge, these notes simplify complex concepts and support deeper understanding. Ideal for exam preparation, coursework, and improving mathematical accuracy and confidence. engineering math 2, advanced calculus engineering, differential equations notes, applied mathematics, engineering math revision, math for engineers, exam prep engineering, engineering notes

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113. Cell with external resistan < V+ (E,7)) Netemf =E Net resistance around \oop = R+F nae, Le NTs Va 2 ~J RAF Termina\ voltage = PD acress ext resistance R V4 -V. = Vr s ER R+0 % For max power in ext . resisfance Extenal resistance CR) = Internal resistance (*) 14. Electxic $ield between the plates of a charged copacitor —E= , Ve petenhal or PD Air capacitor : a “} . separation = & Eo %. Field produced by individual plates = SZ 2Eo Vv Dielechic capacitor : Es Ear Oe E = air -. Kes K Scanned with CamScanner IIL. Bullet sticks to pendulum block Pp conseavation (M+m)V = mu * mu “Ss, Ve NA, Mm - “* f BS, M+ u as Then E conseyvalion —? h 2 22COCOte —) id pe A Ks Nv ” M ~ 29 2 As tt. mu ~ 23 (i or us M+m [zgn If u given, h will be asked CfA ou ,unu " Inelastic collision (don't use idivect energy lenin a + mut = (M4n)gh x WRONG APPROACH 2 112. Psoperties of EM waves phase clifference behween oscillations of —? a? E’ond B =0 Angle behween planes of oscillations oF EB’ and B° = T aad = 90° 2 Magnitude ratio = =¢ Direction of propagation along E xB. ~- Poynting vector S$’ = E XB Ke eee ee Scanned with CamScanner 106. Average Translatationa\ Kinehc energy For all molecules (meno, dra, poly) - (KE) ans = 3 id 3 translatrenal deg of freed for ay) Tétod KEY/Ant Total KE differs due t additional rotational modes (KE soto) = LAT — (rene) 22r0 rotatrenal CKE ) pra 2 kT (dia) 2 rotational (KE ) pat = ET (pely) 3 retahonal 10F. Order (A orf) of Elechomagnehc Waves s vony useful 2 excellent Quy . 4 Ravi Mohan i \ ‘ in Visible UV X-ray Y- ray o Micro decreasing wavelongin(a) nw we Mm om -—“— “NS log. Excess pressure = Pinside - Poutside = Parcess FoR DROP BUBBLE Cone effectve surJate) (Two effechve surface) = 2T smaller tT} Pens = ST Pexcss = eT = greater 0; o AT Pin = p+ 20 Pesess PT" SS (same for alr bubble in walker) Scanned with CamScanner 106. Average Tyanslatationa\ Kinetic energy For all molecules (meno, dia, poly) a (KE) vans = 3xX%zkT 3 translatyeno\ deg of fee Teta KE“ /Ant (3 translatteno\ deg of freed for a) Total KE differs due te additional rotational modes CKE )tota = 2kT (meno) 200 rotatrmal (KE) pra = KT (KE )ptar = S&T (dia) 2 rotational (pely) 3 retahonas \oF. order (A orf) ot Electomagnehe Waves guy j fs yeny useful 2 excellent Ravi Mohan t 7 : ‘ 3 X-ray Y-9ray Ri . . in Visible UV decreasing wavelangin(a) rr“ jog. Excess pressure = Pinside - Poulside = Paxcess FoR DROP BUBBLE (Two efechve surface) ar Cone effective suriae) = 2T smollert] Panes = Pexcess 7 Gecher ma 7 Pin = P+ 20 Penessf i" = as (same for alrbubbie in water) Scanned with CamScanner lol. Man ina lift CApparent weight) Wop = M(9+@) = Mg ('+2) = Wee (I+ 2) 4 a upward, 4 = 94a Wap = M(9-Q) , Qep = 9-2 = Mg (1-2) = Wa ('-2) d Q downwards = = Foy a=0 , lift may be moving ae Sen SE | up of down but with vec ) ¥Note: moving upwards with decreasing speed means Q down, %F=9-a moving tlownwards lth decreasing spc) means @ UP, Je = O+a ——— — ' = 4: j Block freed from the 102. Block colliding spring is of compressed nm , sparing vim} gints Fkxe ray n gm 2 belfry] — aX Xe | ennai 103. Emissive power of a black bedy Eat’ Es . Ley Temp must ue) E, Tt in kelvin 4 To moke emissive power double , temp should be increased to 2/4 times 2"4 - (\z)"* = Vv =dra = 1:19 thnes Scanned with CamScanner NORMAL CONSTRAINT when two rigid susfaces in contact they can have relaive métion along the surface but not along the normal ( They do not jump or penebate wrt each ojher) At any instant for two points in céntact yelative displacemen} (Xre) velocity CVret) and atceleralion (@rei) along (hormal)to the sursaces of contact must be zero Approach: B, and Bz Are two bodies in contact Pi and Pz be hwe pojnts in contact Ve and Vz be the velocities of Prand P: resolve components along Nowal and e@ equate then (Mi) ns = (Vi) same Opproach for @ displacement (x) and eaueleraion (a) Scanned with CamScanner Question : The arrangement shown x *% “Bx lying on a horizontal plane a= Unigorm transverse magnetic * a 7 Z field GB is Applied. the slider v, { (m,&) is projected towards , - —*---- rignt with velocity Ve. Find i's velocity as @ funcHon of time and alse plof solubon : v be the Instantaneous velocity tv em - phy, cuvent I = otv f £ 4 ra ® Opposing magnetic force on the a |v Slider = TSB ; Tis . = BYY q retardation = =m = “mE Fm yetardation b= - IV, BL v a mR dv _ _ Br at Vv mR Vv : t > . - imits dv _- pte at Integrating within limi J wy Lea Vv a,* t . = -S4 [t). [invIy. — ced _ox's Inv -- s8.t pVewe ™ Vo mR ea velocity 's exponentially i failing function f7om inl- _ tal value Ve — t— i Scanned with CamScanner @ oblique force to a block at rest over rough horyi2ontal surface POO FGD: Finding No: Apply vertical equilibrium (equilibrium normal fo surface) No+Fsiné =mg => No =(mg -Fsiné) Finding limiting friction: fe = BsNo =}s (m9 -Fsin@) check condition for sliding - Block will slide if (Net driving force along the surface) > limiting friction Have: cepse > Hs (M9- Fsiné) > Hsmg - HsF sine F (Cas6 +Hs5in 6) 7 #smg @ For siding F 7 ( Msg ) Cos8 +HsSin& Scanned with CamScanner Bob at momentary rest (at the extreme position) [ T= mgcos Bo | + Dont apply horizontal and vertical equilibrium = Net force towards \ centre (Cc) T-mgcose = centzipetal force (mv) : T= Mgcos6 + os Scanned with CamScanner Equilibrium of simple pendulum Bob (Suspended object) attached to stzing Petmanently at rest % Apply equilibzjium in any directions like Horizontal / veztical radial (along tength) FGD of the bob % | Tceose Fy = Tsing ‘So Fu 1 tone = Fu Fy Fy squaring and adding =p T= (Firth o@ Radial equilibrium + no! T=Fusino+Fycose | get 6 FY YY eycose + Fusing For swinging pendulum / momentary rest at extreme position ONLY RADIAL EQUILIBRIUM Scanned with CamScanner LONGITUDINAL CONSTRAINT For (1) Linear rigid object ail) string under tension Relative displacement (Xr) 5 Velocity (Vre) and acceleration (Arai) along the lengin (longitudinal) is 2eYo @ Approach : resolve X,V ora of the end points along tne length and equate them @ Example : vi Velocity Of end points of ' Q@ rigid rod is as Snown = = Te relate Vi and Vz V2 Solution: M (Va)u = Vv: cos, --— 6 li Ly, =<" (Vida = V1 C056) Vz equate longitudinal components V, COSO1 = V2 COS Oz @ Exomple: Find velocity of the block at the Instant shown & solution : iM p 8 @ 7 $ co? - Vv Ae, Wg quating velocities along k the length Vw aveloclty of loc v Vpcose = V Vo = case Scanned with CamScanner ~ Question : 2 a] —P A and 8 aye two vectors at an angle |20° such that resultant of these vectors ts per- -pendicular to the smaller vector Z and has magnitude 'O unit. Find the magnitudes of R and B » Solution: The owangements of vectors is similar to RIVER- BOAT problem, crossing the river in or along shortest path (where Vp and Vs gives vesultant Vp which mustbe absolutely transverse) —— BC0s30* =R ---(1) BSIN3BO' =A ---(2) BC0s30° 1 Given R=10 Cresultant) From (4) : ; 8.3 =10 BSIn3o° | A 20 (hullifies A’) ° iNZ0°=A From (2) ° ape = 2 ak (2 =D A= 2 a 2 Scanned with CamScanner CASE-2 .- ' Vw >Ve_ conceptual question —? In such case component Of Vp can never nullify Vw —o Approach +o find direction of Va to have shortest route. # Z. 4 P 4 - oe oi 2 = % yemembe? : Vw ! Daift or disp | } along longitudina | ; ero can not be 2 \ : J » ” ae | . Draw Vw along —~t}- inal / flow 4 or seagoe point of Yu as centre construct radius circle @ t to ine circle from the tail of Dyaw fangen : eer —? wet the direction of Ve (by J NY the centre to the point of tangent to the cl Scanned with CamScanner No observer at rest Cinertial frame) We: what do you observe ? ~» obsexver : The block is at rest We: what are the forces ? there are two fortes. Real forces pull of earth or weight, MQ verhcally downwards and support of the table surface , normal reacHon Ne vertically upwards -wWe: what Is your conclusion 2 » observer . obserwer: 1 find the block is at rest its acceleration Is 2e7r0> net force on the block IS 2e7ro as weight MQ downwards and normal reachon No upwards nullify €ach other ——D Fexrr =O =D A420 Newton's law Is valid Scanned with CamScanner