# Expanded Form Quadratic Equation 5 Latest Tips You Can Learn When Attending Expanded Form Quadratic Equation

In the aboriginal footfall we break the three-dimensional basic Eq. (16) to account the cast elements of the addition alternation Vk(p, p′, x′) from the nonrelativistic alternation Vnr(p, p′, x′) by an accepted scheme. The abundance starts with an antecedent assumption ({V}_{k}^{(0)}(p,p{rm{^{prime} }},x{rm{^{prime} }})=displaystyle frac{4m,{V}_{nr}(p,p{rm{^{prime} }},x{rm{^{prime} }})}{{omega }_{k}(p) {omega }_{k}(p{rm{^{prime} }})}) and again connected to ability a aggregation in the cast elements of the addition abeyant with a about absurdity of 10−6 at anniversary set of credibility (p, p′, x′). In Table 1 we appearance an archetype of the aggregation of the cast elements of the addition abeyant Vk(p, p′, x′) as a action of the abundance cardinal affected for three altered ethics of the Jacobi drive k = 1,5,10 fm−1 for the Malfliet-Tjon-V (MT-V) bald abeyant in the anchored credibility (p = 1.05 fm−1, p′ = 2.60 fm−1, x′ = 0.50). As one can see for beyond ethics of the Jacobi drive k the aggregation is accomplished faster. The abstracts of Table 1 are additionally illustrated in Fig. 1. In Fig. 2 the cast elements of the nonrelativistic and the addition interactions and additionally the aberration amid them are shown.

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The aggregation of the cast elements of the addition abeyant Vk(p, p′, x′) as a action of the abundance cardinal affected for the MT-V bald abeyant in the anchored credibility (p = 1.05 fm−1, p′ = 2.60 fm−1, x′ = 0.50) with k = 1, 5, 10 fm−1. The larboard endpoint of anniversary artifice is the amount of the nonrelativistic MT-V abeyant Vnr(p, p′, x′) = 1.1579249 ⋅ 10−2 MeVfm3.

The cast elements of the nonrelativistic (a,d), the addition (b,e) 2B potentials and their differences (c,f) affected with the MT-V potential. They are apparent as a action of the 2B about momenta p and p′ for the bend (x^{prime} =frac{sqrt{2}}{2}) (upper panel) and as a action of the 2B about momenta p = p′ and the bend amid them x′ (lower panel). The addition abeyant is acquired with k = 1 fm−1.

By accepting the cast elements of the addition interactions Vk(p, p′, x′) we break the Lippmann-Schwinger basic Eq. (11) to account the off-shell addition t–matrices ({T}_{k}(p,p^{prime} ,x^{prime} ;varepsilon )) and again symmetrize it on the bend capricious to get ({T}_{k}^{sym}(p,p^{prime} ,x^{prime} ;varepsilon )). In Fig. 3 we appearance the angular dependencies of the symmetrized 2B addition t–matrices for energies ε = −10, −50, −200 MeV acquired for k = 1 fm−1 and compared with the agnate nonrelativistic t–matrices. As we apprehend for college energies the aberration amid the addition and the nonrelativistic t–matrices is added visible.

The angular annex of the symmetrized addition 2B t–matrix ({T}_{k}^{sym}({p}_{0},{p}_{0},x,varepsilon )) affected for k = 1 fm−1 and energies ε = −10, −50, −200 MeV, with ({p}_{0}=sqrt{mcdot |varepsilon |}). The design symbols announce the agnate nonrelativistic t–matrices. The ascribe addition abeyant is acquired from the MT-V potential.

For the abacus of relativistic furnishings in the 3B bounden energy, we break the three-dimensional basic Eq. (12). To this aim, for discretization of connected drive and bend variables, we use Gauss-Legendre quadrature. For bend variables, a beeline mapping, and for Jacobi momenta, a hyperbolic-linear mapping is used. The drive cutoffs acclimated for Jacobi momenta p and k are 60 fm−1 and 20 fm−1, correspondingly. In Table 2, we present our after after-effects for the relativistic 3B bounden activity as a action of the cardinal of cobweb credibility for the Jacobi momenta p and k. For discretization of arctic and azimuthal angles, we use 40 cobweb points. The acceding acreage of the Faddeev basic on the bend x, i.e. ψ(p, k, x) = ψ(p, k, −x), is active to save anamnesis and computational time in analytic Eq. (12). As one can see, the relativistic 3B bounden activity for the MT-V abeyant converges to −7.5852 MeV.

In Table 3, we present the addition of altered relativistic corrections to the 3B bounden energy. While the Faddeev calculations advance to the nonrelativistic 3B bounden activity of −7.7380 MeV, the addition of altered relativistic corrections in the 3B bounden activity is as

the Jacobian action N decreases the 3B bounden activity with about 0.06 MeV,

the about-face accessory C increases the 3B bounden activity with about 0.05 MeV,

the relativistic 3B chargeless propagator G0 increases the 3B bounden activity with about 0.18 MeV,

the relativistic 2B t–matrices decreases the 3B bounden activity with about 0.28 MeV.

So, two of the relativistic corrections, N and 2B t–matrices, abatement the 3B bounden energies, and the added two terms, C and G0, access the 3B bounden energy. When we administer all the corrections together, we access a relativistic 3B activity of −7.5852 MeV, which indicates a abridgement of about −0.15 MeV or a allotment aberration of 2%.

By analytic the three-dimensional basic Eq. (12) and accepting the 3B bounden activity and the Faddeev basic ψ(p, k, x) one can account the 3B beachcomber action Ψ(p, k, x) by abacus up the Faddeev apparatus in three altered 3B clusters. The capacity of the abacus are addressed in ref. 44 and actuality we briefly represent the absolute anatomy of the 3B beachcomber action as

\$\$Psi (p,k,x)=mathop{sum }limits_{i=1}^{3},{psi }_{i}(p,k,x),\$\$

(17)

where the Faddeev apparatus ψ1, ψ2, ψ3, agnate to the 3B clusters (23, 1), (31, 2), (12, 3), are accustomed by

\$\$begin{array}{ccc}{psi }_{1}(p,k,x) & = & psi (p,k,x), {psi }_{2}(p,k,x) & = & displaystyle frac{{mathscr{N}}({{bf{k}}}_{2},{{bf{k}}}_{3})}{{mathscr{N}}({bf{k}},{{bf{k}}}_{3})}psi ({p}_{2},{k}_{2},{x}_{2}), {psi }_{3}(p,k,x) & = & displaystyle frac{{mathscr{N}}({{bf{k}}}_{2},{{bf{k}}}_{3})}{{mathscr{N}}({bf{k}},{{bf{k}}}_{2})}psi ({p}_{3},{k}_{3},{x}_{3}).end{array}\$\$

(18)

The Jacobian action ({mathscr{N}}) is authentic in Eq. (8) and the confused drive arguments p2, k2, p3, k3 and the bend variables x2, x3 are authentic as

\$\$begin{array}{ccc}{p}_{2} & = & |{xi }_{p}{bf{p}} {xi }_{k}{bf{k}}|=sqrt{{xi }_{p}^{2},{p}^{2} {xi }_{k}^{2},{k}^{2} 2{xi }_{p},{xi }_{k},p,k,x}, {k}_{2} & = & |{bf{p}} alpha {bf{k}}|=sqrt{{p}^{2} {alpha }^{2}{k}^{2} 2,alpha ,p,k,x}, {x}_{2} & equiv & {hat{{bf{p}}}}_{2}cdot {hat{{bf{k}}}}_{2}=displaystyle frac{{xi }_{p},{p}^{2} alpha ,{xi }_{k},{k}^{2} (alpha ,{xi }_{p} {xi }_{k})p,k,x}{{p}_{2},{k}_{2}}, {p}_{3} & = & |{gamma }_{p}{bf{p}} {gamma }_{k}{bf{k}}|=sqrt{{gamma }_{p}^{2},{p}^{2} {gamma }_{k}^{2},{k}^{2} 2,{gamma }_{p},{gamma }_{k},p,k,x}, {k}_{3} & = & |-{bf{p}}-beta {bf{k}}|=sqrt{{p}^{2} {beta }^{2}{k}^{2} 2,beta ,p,k,x}, {x}_{3} & equiv & {hat{{bf{p}}}}_{3}cdot {hat{{bf{k}}}}_{3}=-displaystyle frac{{gamma }_{p},{p}^{2} beta ,{gamma }_{k},{k}^{2} (beta ,{gamma }_{p} {gamma }_{k})p,k,x}{{p}_{3},{k}_{3}},end{array}\$\$

(19)

where

\$\$begin{array}{ccc}alpha & = & displaystyle frac{1}{omega (p)}(displaystyle frac{pkx}{omega (p) sqrt{omega {(p)}^{2} {k}^{2}}}-frac{1}{2}omega (p)), beta & = & 1 alpha , {gamma }_{p} & = & displaystyle frac{(displaystyle frac{pkx beta {k}^{2}}{sqrt{{{textstyle (}Omega ({k}_{1}) Omega ({k}_{2}){textstyle )}}^{2}-{k}_{3}^{2}} Omega ({k}_{1}) Omega ({k}_{2})}-Omega ({k}_{1}))}{sqrt{{{textstyle (}Omega ({k}_{1}) Omega ({k}_{2}){textstyle )}}^{2}-{k}_{3}^{2}}}, {gamma }_{k} & = & 1 {gamma }_{p}beta , {xi }_{p} & = & -1 displaystyle frac{(displaystyle frac{-{p}^{2}-alpha beta {k}^{2}-(alpha beta )pkx}{sqrt{{{textstyle (}Omega ({k}_{1}) Omega ({k}_{3}){textstyle )}}^{2}-{k}_{2}^{2}} Omega ({k}_{1}) Omega ({k}_{3})} Omega ({k}_{3}))}{sqrt{{{textstyle (}Omega ({k}_{1}) Omega ({k}_{3}){textstyle )}}^{2}-{k}_{2}^{2}}}, {xi }_{k} & = & alpha ({xi }_{p} 1)-beta .end{array}\$\$

(20)

The 3B beachcomber action is normalized as

\$\$langle Psi |Psi rangle =mathop{sum }limits_{i,j=1}^{3},langle {psi }_{i}|{psi }_{j}rangle =8{pi }^{2}{int }_{0}^{infty },dp,{p}^{2}{int }_{0}^{infty },dk,{k}^{2}{int }_{-1}^{ 1},dx,{Psi }^{2}(p,k,x)=1,\$\$

(21)

and the normalization of the Faddeev apparatus is called as

\$\$|{psi }_{i}rangle =frac{|{psi }_{i}rangle }{{sum }_{j=1}^{3},langle {psi }_{j}|Psi rangle },i=1,2,3.\$\$

(22)

To abstraction the addition of altered Faddeev apparatus in the normalization of the 3B beachcomber function, we appearance the close artefact of the Faddeev components, i.e. 〈ψi|ψj〉, in Table 4. The affected Faddeev apparatus authentic in Eq. (22) amuse the normalization of the 3B beachcomber action accustomed in Eq. (21) with an absurdity of the adjustment of 10−12. While three Faddeev apparatus authentic in Eq. (18) accept absolutely altered drive dependence, they are all normalized to about the aforementioned value, i.e. 〈ψi|ψi〉 = 0.12658. Moreover, the close articles of the nonidentical Faddeev apparatus leads to the aforementioned amount of 〈ψi|ψj〉 = 0.10338. Our after assay confirms the normalization action of the 3B beachcomber action 〈Ψ|Ψ〉 = 3〈ψ|ψ〉 3〈ψ|P|ψ〉 = 1 with an accurateness of at atomic bristles cogent digits.

As a analysis for the after accurateness of our calculations, we account the apprehension amount of the 3B accumulation abettor 〈Ψ|M|Ψ〉 and analyze it with the 3B bounden activity acquired from the band-aid of the basic Eq. (12). By because the analogue of the 3B accumulation abettor M in Eq. (1), the apprehension amount of 〈M〉 can be acquired as

\$\$langle Psi |M|Psi rangle =langle Psi |{M}_{0}|Psi rangle langle Psi |sum _{i < j},{V}_{k}^{ij}|Psi rangle ,\$\$

(23)

where the apprehension ethics of the free-body accumulation abettor and the addition abeyant are accustomed by

\$\$langle Psi |{M}_{0}|Psi rangle =8{pi }^{2}{int }_{0}^{{rm{infty }}},dp,{p}^{2}{int }_{0}^{{rm{infty }}},dk,{k}^{2}(Omega (k) sqrt{{omega }^{2}(p) {k}^{2}}){int }_{-1}^{1},dx,{Psi }^{2}(p,k,x),\$\$

(24)

\$\$begin{array}{rcl}langle Psi |sum _{i < j},{V}_{k}^{ij}|Psi rangle & equiv & 3langle Psi |{V}_{k}|Psi rangle & = & 3cdot 8{pi }^{2}{int }_{0}^{infty },dp,{p}^{2}{int }_{0}^{infty },dk,{k}^{2}{int }_{0}^{infty },dp^{prime} ,{p^{prime} }^{2}{int }_{-1}^{1},dx{int }_{-1}^{1},dx^{prime} & & times ,Psi (p,k,x),{v}_{k}(p,p^{prime} ,x,x^{prime} ),Psi (p^{prime} ,k,x^{prime} ),end{array}\$\$

(25)

where vk(p, p′, x, x′) is the aftereffect of the azimuthal bend affiliation on the cast elements of the addition abeyant authentic as

\$\${v}_{k}(p,p^{prime} ,x,x^{prime} )={int }_{0}^{2pi },dphi ,{V}_{k}(p,p^{prime} ,y=xx^{prime} sqrt{1-{x}^{2}},sqrt{1-{x^{prime} }^{2}},cos ,phi ).\$\$

(26)

In Table 5, we present our after after-effects for the apprehension amount of the 3B accumulation abettor compared with the relativistic 3B bounden energy. We additionally appearance our after-effects for the apprehension amount of the nonrelativistic 3B Hamiltonian and the nonrelativistic 3B bounden energy. As one can see the apprehension amount of free-body accumulation abettor is 〈M0〉 = 3m 28.3876 MeV, while the apprehension amount of the addition abeyant is 〈Vk〉 = −35.9716 MeV which leads to the apprehension amount of the 3B accumulation abettor of 〈M〉 = 3m − 7.5840 MeV. The aberration amid the relativistic 3B bounden energy, acquired from three-dimensional Faddeev basic Eq. (12), and the apprehension amount of the 3B accumulation operator, acquired from Eq. (23), is about 0.0012 MeV. Our after after-effects for the nonrelativistic band-aid of the three-dimensional Faddeev basic blueprint leads to the bounden activity of ({E}_{nr}^{3B}=-,7.7380,{rm{MeV}}) and the nonrelativistic apprehension amount of 〈H〉 = −7.7384 MeV with a aberration of 0.0004 MeV. As one can see for both relativistic and nonrelativistic calculations, the affected 3B bounden activity is in accomplished acceding with the apprehension amount of the 3B Hamiltonian.

In Table 6 we present the addition of altered Faddeev apparatus in the apprehension amount of the 3B accumulation abettor 〈ψi|M|ψj〉 − 3m. To this aim the apprehension ethics of the free-body accumulation abettor 〈ψi|M0|ψj〉 − 3m and the addition alternation 〈ψi|Vk|ψj〉 are affected for altered Faddeev components. As one can see (mathop{sum }limits_{i,j=1}^{3},langle {psi }_{i}|{M}_{0}|{psi }_{j}rangle )(-3m=28.3876,{rm{MeV}}), (mathop{sum }limits_{i,j=1}^{3},langle {psi }_{i}|{V}_{k}|{psi }_{j}rangle =-,35.9716,{rm{MeV}}), and (mathop{sum }limits_{i,j=1}^{3},langle {psi }_{i}|M|{psi }_{j}rangle -3m=-,7.5840,{rm{MeV}}).

Expanded Form Quadratic Equation 5 Latest Tips You Can Learn When Attending Expanded Form Quadratic Equation – expanded form quadratic equation
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