Math Research

Math Research Link to heading

A list of topics in mathematics that I have researched to some degree OR wish to research. Mind the aspirational tone

Topics Link to heading

  • Convolution with $e^{-x^2}$ as a cursor
  • Convolution $\int{e^{-x^2}f(x)(g(x-t))}dt$ as incremental application of function f(x) onto g(x) substrate
  • Cartesian plane as a binary switch board on some field
  • Unit Circle Projection
  • Developing programming primitives from real analysis operands
  • Solving collatz conjecture using operator theory
  • Having a function reference itself
  • Develop an operator that can iterate a number an indefinite number of times
  • Integral transform for length of orbits of collatz conjecture
  • Modified collatz conjecture that adds collatz(1) = 0 and collatz(0) = 0
  • Deconstructing a function by dot product of its derivative to other function
  • Scanning line across a function with dot product
  • Multiplying by x as inbuing of curvature
  • All single-term polynomials have complete curvature of 2
  • Curvature as a measure of information
  • Curvature as a program to steer function
  • A torus that culminates at a pinched point at one side
  • Algebra as a crude mechanic process
  • Algebraic expressions as a sequence of associative function compositions
  • Integral transforms extract and count properties of functions
  • Fractional application of a function
  • Treating [0,1] as a torus
  • Sinify a function
  • Curve-filling (space filling) curve
  • An equation as a manipulatable algebraic object
  • Compressed executable that is semantically equivalent to uncompressed
  • An expression as a program
  • Normalizing a program to a mathematical expression
  • All math fields should have some way of uniquely mappings their idiosyncratic algebraic objects back to integers
  • Curves are an infinite series of linear terms
  • The more curvy, the more linear terms is needed to duplicated it
  • e is the function number(?)
  • e is a self-referential number(?)
  • Inside a sum is a more expressive language
  • Function that spits out number of rounds needed for a space curve to hit a random (a,b) in R^2
  • Nested operations maximize the expressiveness of the syntax
  • Generalized unit measure - allows you to measure anything measurable relatively
  • Rigorous formalism for how mapping Reals (and reals subsets) to Reals functions - for example that just take a line and stretch it
  • f[x]+f’[x] I
  • f[x]+ ArcCurvature[{x,f[x]},x] I
  • x ^2 == c; algebraic diff between sqrt and div by x
  • integration as picking random algorithm to add up area
  • all integrations can be set from a to b to 0 to 1
  • there is a direct line ( no need for Euler-Lagrange optimization) in a set if the geometry of the boundary is a convex hull on the interior set
  • does homeomorphism always imply homeomorphism between boundaries?
  • Does Euler-Lagrange equation map to an easier problem and then solve it?
  • What is the manual analog of calculus of variation?
  • Discrete/Continuous invariant calculus
  • Using the Laplacian operator to incrementally/analytically convert any function to another in a continuous manner
  • using complex numbers to model curvature
  • Representing $R^2$ as a matrix centered around the origin with infinite rows and columns
  • Representing a curve on $R^2$ using a field of boolean values
  • Representing a curve as a $R^2$ matrix of 1s and 0s where the 1s are the position of points of the curve
  • Multiplying two $R^2$ matrix curves to find intersection points
  • Extending the dimensions of a row as a operation by adding or subtracting new rows or columns with 0s
  • For every class of functions (harmonics, elliptic, polynomials), there is a function involving the exponent of e that can emulate it to some degree
  • Nested riemann sum: While taking a riemann sum, use another riemann to calculate the error of the raw sum
  • Using the Dirac Delta function as a zero-detector. Feed it a formula that = 0. Integrate it dirac delta function; then what results is a step function that takes a step function that takes a step at every 0
  • Creating a relativized version of $R^2$ where the identity curve , $f(x)=x$, is equivalent to another function like $x^2$ or $sin(x)$
  • Understanding the derivative of a function in reference to another function
  • Function semantics that comphrensively handles recursive call bombs
  • Extracting range from integral and creating a dedicated “iterator” object (similar to programming)
  • Exp[x]== x^(x/Log[x])
  • Measure using number of open problems as relative health of mathematic formalisms
  • Analytic formalisms for function application to incrementally apply and compose functions
  • Tool must contain a commensurate amount of infinity as the problem
  • Duality between structure and dynamics. Structure can be interpreted as dynamics if you re-interpret one of the dimensions of structure as a time
  • Destructuring a real curve into holomorphic function. Re[f(x)] is scaling and Im[f(x)] is rotation
  • Creating a general functional iterator that takes a function and composes itself once. This general functional iterator can be easily composed
  • Symbol fatigue and math anxiety
  • Holomorphic functional calculus for iterated real functions of one variable
  • Formally overloading functions to accept points, lines, surfaces, etc.
  • Destructuring function application into eucleaean operations
  • General Integral transform for destructuring constructed algebraic objects
  • Localizing euclidean operations
  • Computing analytical and continuous version of function application
  • Using infinitary methods to surmount cryptographic techniques
  • Creating an alternative to cartesian coordinate system using dot product and function/vector. Its similar to polar but has two 0s and a 1 and -1
  • Outline of a proof for collatz that mentions random iteration across evens eventually resolves to 1
  • Normal form of an expression as the “compressed” symbolic version of un-normalizable variants
  • When does linear homotopy allow homeomorphism?
  • Linear homotopy as a fractional function application
  • Using ambience space to exogenously study the connectedness and holes of a topological space
  • Distinguishing between homology and connectedness
  • Treating all topological spaces as compact. Non-connected segments are considered addendum aggregate spaces nominally considered together
  • Mapping neighborhoods onto a chart then onto a topological space then tracking neighborhoods across homeomorphism
  • Neighborhoods preserved in turbulent flows
  • Measuring turbulence using measure of Euclidean operations
  • Nesting euclidean plane and operations into domain specific spaces
  • Linear homotopy as a semigroup of bounded linear operators
  • An infinite set contains itself in the same way a recursive function contains itself
  • Process oriented function semantics to represent recursive functions
  • Process theory and the intractability of its formalisms introduce
  • Dichotomy between intractable but computable formalisms vs non-computable but tractable formalisms
  • All curves correspond to a straight line in respective space
  • Using operator theory to study dynamics of genome state and genetic mutation
  • Using operator theory to study any arbitrary state space and dynamics thereof
  • Representing a matrix as a infinite matrix with 0s being filled in around the matrix
  • Zero-matrix (all slots are 0) algebraic closure
  • Computing intersections by: create a $R^2$ matrix for points for each curve (1 for point, 0 elsewhere), multiply both matrices, somehow zoom in on non-zero points
  • Addition as disjoint, additive semantics
  • UI 2D user artifacts as wishlist for mathematical tools
  • Scrolling on a subset of R^2
  • Scroll.fx function that can scroll a subset of R^2 like a scrollbar can
  • Encoding order-related information in object to achieve commutativity
  • Multiplicative properties as local properties and additive properties as global properties
  • Taxonomy of useful math functions
  • Deterministic formalism for random phenomena
  • Achieving convergence of quantum mechanics and general relativity
  • DeMorgan laws as percolation of global and local properties