context_before stringlengths 0 199 | equation stringlengths 5 80 | context_after stringlengths 0 249 | spoken_English stringlengths 0 119 |
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and | $ \left\ { \hat { h } _2 ( k ) \right\ } _ { k\in\Z } $ | are two linearly independent eigenfunctions of | Left brace, hat h sub 2 open parenthesis k close parenthesis, right brace, sub k in Z. |
then it computes | $ \bar r [ 0 : c\log ( n ) -1 ] $ | from this advice in time | r bar of open square bracket zero colon c log open parenthesis n close parenthesis minus one close square bracket. |
block is a diagonal matrix of length | $ p $ | for | p |
the dynamical decomposition is a diagnostic tool to measure the SST-driven component of | $ Q $ | and consequently , establish how patterns of SST variability affect atmospheric circulation . | Q |
with values of | $ V_0 $ | compatible with the observed scalar power spectrum | V sub zero |
$ \mathcal { H } $ | is a finite-dimensional Hilbert space with some basis | H: None | |
and common distribution | $ H $ | , independent of | H |
The broadband flux values were extinction corrected using the A | $ _V $ | value given by | V |
we can extend the alternating form on | $ C $ | to an alternating form on | C |
does not divide over | $ C $ | . | C |
$ ^\textrm { \scriptsize 110 } $ | , | One hundred ten. | |
and | $ b $ | , such that | b |
and | $ w $ | , | w |
The general idea is to use the analogy to finite-size scaling in statistical mechanics : In a system with length | $ L $ | an order parameter | L |
depending on whether the underlying model is | $ M $ | or | M |
This deviation attains a maximum at | $ \Delta\gamma \approx \Delta\gamma_c $ | for all | Delta gamma approximately delta gamma sub c. |
Suppose that | $ \rho $ | is an | rho. |
$ u^n $ | has no zero components with indices in | u raised to the power of n. | |
Note that | $ \mathbf { d } $ | has the same functional form as | d bold. |
-flag | $ \flag { V_1\subset V_2\subset \cdots\subset V_ { n } \subset V_ { n+1 } } $ | represents | Flag V sub 1 subset V sub 2 subset dot dot dot subset V sub n subset V sub n plus 1 |
In terms of | $ A_t $ | , that is | A at t. |
agrees with | $ \iota ( W ) $ | defined in | iota of W |
since the maps | $ \rho_ { m , n } $ | are all c.p.c . , and so by | rho sub m comma n |
implies that for any | $ i=0 , \cdots , d $ | , the matrix sequence | i equals zero, dot dot dot, d. |
Let | $ \MM_\ZZ $ | be the subring of | M sub Z Z. |
near | $ \ell = 0 $ | . Using | ell equals zero. |
Given a subset | $ J $ | , and rounded flows | J |
and | $ \lambda=4g $ | , Fig . | lambda equals four g. |
mediated by effective insertions of the | $ g_8 $ | vertex : The total amplitude | g sub 8. |
The disks of radius | $ \tfrac12 $ | centered in the points corresponding to | One-half. |
From now on we will write | $ \br { \mc { C } } ( \Delta ) $ | for | br of m c C of Delta |
by successively passing to subsequences of | $ A_k $ | and using a diagonal sequence argument , the last property can be strengthened to hold with | A sub k. |
in terms of the ordinary partial derivative of | $ L $ | with respect to the inertial time derivative | L |
and | $ k ' = |A| $ | . Now relabel | The derivative of k with respect to time equals the magnitude of A. |
: The argument of | $ \tan $ | in the second line of | tangent. |
for some effective Weil divisor | $ E\geq ( p^e-1 ) \Delta^- $ | . Indeed , working locally and letting | E greater than or equal to the quantity p to the power of e minus 1, multiplied by Delta to the power of negative. |
and | $ r $ | are the radial distances in the retinal and original images , respectively , | r |
and is rooted at | $ k $ | . The second component | k |
it means that implementing | $ B=B_1 C B_2 $ | , or implementing instead | B equals B sub 1 C B sub 2. |
$ A $ | open and dense in | A | |
there is an integer | $ d $ | such that | d |
chronological ages of | $ m $ | subjects . | m |
of | $ x ( t ) $ | , which , for the process | x of t. |
it is observed at the beginning of phase 2 and more generally before the infected population is too close to | $ N $ | . For more quantitative results on this point for the SIR model , we refer to Proposition 5.1 of | N |
& | $ 1.0 $ | & | One point zero. |
and provides an information of the environment deemed to be a random source providing instances which may match with the reference | $ R $ | . This formulation captures ergodicity in terms of normalized counting , giving a measure of | R |
& | $ 0.29 $ | & | 0.29: Zero point two nine. |
is the unique diameter of | $ K_u $ | . We claim that | K sub u. |
from the derivatives of | $ H $ | : | H |
be the vertices of | $ G $ | . Suppose that | G |
to uniquely determine the ejecta opacity on the basis of the input | $ Y_e $ | . | Y sub e. |
for | $ m=120 $ | orbitals and | m equals 120 |
is a rational number and is 0 if | $ x $ | is irrational | x |
This is because a higher MUI is experienced as | $ U $ | increases . More specifically , it can be observed that the four-user system equipped with | U |
the set of strongly continuous bounded | $ \mathcal { B } ( \rmL^p , \rmL^q ) $ | -valued functions in the interval | B of L raised to the power of p, L raised to the power of q. |
the SFR -- | $ M_ { \rm HI } $ | correlation that has been modelled for the continuum catalogue shown in Fig . | M sub HI |
up to entries | $ i $ | ) is | i |
independently on both | $ a $ | and | a |
And integral representation for | $ \sum_ { k=0 } ^ { n } \binom { n } { k } x^ { \overline { k } } $ | : | The sum from k equals 0 to n of the binomial coefficient n choose k times x to the power of k. |
$ we arrive at $ | We arrive at None. | ||
the positive character of both | $ EoS $ | components , | Ee oh S |
we can replace the | $ \liminf $ | on the left-hand side with | limit inferior. |
are more significant than in | $ y $ | . The implications of these findings for future observations are that determining the membership of a UDG in the NGC1052 group within the sequence of DMDGs is a challenging task | y |
beginning at timestamp | $ i $ | , it can be decomposed into components of seasonality | i |
and every element | $ a \in A $ | , the set | a belongs to A |
Assign the indeterminant | $ z $ | to the first equation and the indeterminants | z |
with minimal | $ \|\cdot\|_Y $ | norm . In other words : | norm of x, subscript Y. |
including the commonly-used | $ L^2 $ | norm , the Sobolev norms | L squared. |
delivers a message | $ m $ | from | m |
is independent of | $ m $ | and hence also applies to the case of the ` original ' multi-copy estimators | m |
we show that a stable hypersurface with a | $ T^2 $ | -invariant integrable region is isotopic to a | T squared. |
The colored lines represent isochrones for brown dwarfs at ages | $ 0.1 $ | , | 0.1: None |
simple zeroes | $ z_1 , z_2 , z_3 $ | and that | z sub 1, z sub 2, z sub 3 |
where | $ d_ { l } $ | and | dee sub ell. |
Due to the | $ Z_2 $ | -odd nature , | Z sub 2. |
0438 & 34270 | $ \pm $ | 592 & 5.77 | Plus or minus. |
-map | $ \psi : P\to Q $ | between | Psi colon P arrow Q |
rather than | $ L^2 $ | inevitably conjugates the potential by | L squared. |
so that | $ Z=X-U_0 $ | is a closed analytic subset of codimension | Z equals X minus U sub zero. |
the SM-like Higgs field is a linear combination of | $ \phi^0_ { 1,2 } $ | and , instead of a factor of | phi superscript zero subscript one comma two |
we express our metrics as a bipartite matching between | $ \mathbf { G } $ | and | G |
& | $ M_B $ | & | M sub B. |
we inherently enforce a KL-constraint on the optimal policy | $ \pi^ * $ | and the behavior policy | pi star. |
in | $ A_i $ | . Moreover , the sets | A sub i. |
we can check that we have a homomorphism in | $ \End_ { \widetilde { A } [ 1/p ] } ( \prod_i V_i^0 ) $ | , where it follows from the fact that | End of the tilde A, indexed by 1 over p, acting on the product over i of V sub i superscript 0. |
was observed to scale as | $ ( n-\delta ) ^ { 3.5 ( 3 ) } $ | (n minus delta) to the power of 3.5 times 3 | |
we study the immediate herding events | $ \bar a=h $ | and | a bar equals h. |
Let | $ \overline { L } \subset \overline { Q } _0 $ | be the set of loops of the quiver | L bar is a subset of Q bar sub zero. |
and every vertex | $ x\in V ( G ) $ | it holds that | x belongs to V of G. |
$ l^\alpha $ | generated by this procedure form the Mori cone of the ambient variety which may be different from the Mori cone of the Calabi-Yau hypersurface . To determine the Mori cone | l to the power of alpha | |
of class | $ C^2 $ | satisfying | C squared. |
under | $ \Delta ( 27 ) $ | . In the case of | Delta 27. |
we collect the first few batches of data frames into | $ \mathcal { B } $ | to initialize | bee |
be the von Mangoldt arithmetical function and | $ w ( t ) $ | be a real valued function defined for | w of t |
in the GH-subtracted spectra at | $ kd_i \leq 10^ { -3 } $ | . Also displayed in Figure~ | K times d sub i is less than or equal to 10 to the power of negative 3. |
This holds for | $ a\ge 100 $ | , proving the result . | a greater than or equal to 100 |
If | $ k $ | is odd , then | k |
$ [ x_1 , x_2 ] $ | ? If the interval is too wide , | The interval from x sub 1 to x sub 2. | |
through a hook | $ \pi ' $ | , and | pi prime. |
A | $ k $ | -algebraic torus | k |
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