Role of Scalar Bosons: Scalar bosons play a crucial role in determining the mass of composite leptons and quarks. Their "combinatorial values" and whether they involve "flavored" or "non-flavored" components influence whether they act as mass increasing or decreasing factors.
Combinatorial Value and Mass Factors: The algebraic product of the combinatorial values of the constituent particles (generic particle and scalar boson) is critical. A positive product (negative x negative or positive x positive) generally leads to a mass increase, while a negative product (positive x negative or negative x positive) leads to a mass decrease.
Comparison to the Standard Model: The mass values predicted by this schema are comparable to what is predicted by the standard model, so this framework may provide a potential underlying explanation for observed particle masses.
Mass Factors within Generations: For leptons, a consistent mass factor of approximately 160,000 electron units, comparable to the mass of the W boson (the weak interaction particle), is observed to separate charged and uncharged leptons within each generation. Electromagnetic Influence: The "boson plus" is noted to have an "electromagnetic factor" that can convert a generic d-quark to a generic u-quark, impacting the subsequent mass calculation.
Quarks:
Top Quark Mass: Composed of a "generic dquark" (200 electron units) and a "scalar boson plus." Due to the total combinatorial value being three, the boson carries a mass factor of 200, further multiplied by 2,000 due to the electromagnetic conversion of the generic d to a generic u, resulting in a mass of "400,000 electron units."
Bottom Quark Mass: Composed of a "generic D" (200 electron units) and a "boson zero." With a total combinatorial value of three, the boson has a mass factor of two, and further interaction with a boson zero carrying a combinatorial value of 20 yields a bottom quark mass of "8,000 electron units."
Charm Quark Mass: Derived from a "generic D" converted to a "generic U" (2,000 electron units) through an electromagnetic interaction with a "boson Plus." The presence of a flavored component associated with this boson defines it as a charm quark with a mass of "2,000 electron units."
Strange Quark Mass: A "generic deark" (200 electron units) with a "boson zero that is flavored." Since the total combinatorial value is one, the boson does not affect the mass, resulting in a strange quark mass of "200 electron units."
Down Quark Mass: Composed of a "generic uquarik" (2,000 electron units) and a "boson minus" with a combinatorial value of -2, leading to a mass decrease of 200 electron units and a down quark mass of "10 electron units."
Up Quark Mass: Derived from a "generic dquark" (200 electron units) and a "boson zero" which divides by a mass factor of 20, resulting in 10 electron units. Another configuration involves a "boson plus" converting a d-quark to a u-quark and dividing by two, followed by a "boson zero" dividing by 20, resulting in an up quark mass of "five electron unit."

Leptons:
Tau Lepton Mass: The tau lepton is proposed to be composed of a "generic neutrino" (with an initial mass of 0.00125 of an electron unit) and a "boson minus." The interaction of their combinatorial values leads to a mass increase, resulting in a predicted tau mass of "4,000 lepton units."
Tau Neutrino Mass: The tau neutrino is composed of a "muon neutrino" (also starting at 0.00125 of an electron  units) and a "boson zero," resulting in a mass of "2500s of electron or an electron unit."
Mass Factor Between Tau Lepton and Tau Neutrino: The mass factor between the charged and uncharged tau leptons is predicted to be "160,000 electron units," comparable to the W boson mass.
Muon Mass: The muon is formed from a "generic neutrino" (0.00125 of an electron  units) and a "boson minus" with a "combinatorial value of zero," resulting in a mass of "200 electron units."
Muon Neutrino Mass: Similar to the initial generic neutrino mass, the muon neutrino is stated to have a mass of "0.00125 of an electron  unit."
Electron Mass: The electron is derived from a "generic electron" (equivalent to the muon with 200 electron units) and a scalar boson with a compositional value of two, leading to a mass reduction to "one" electron unit.
Electron Neutrino Mass: Starting with a "generic electron" (200 electron units) and involving a "scalar boson plus" that inverts it to a neutrino and provides a division, the electron neutrino mass is predicted to be "625 millionth of an electron vote." This value is noted to be the reciprocal of the 160,000 electron unit mass factor.

This work describes a theoretical framework where the masses of leptons and quarks are determined by their fundamental composition of generic particles and scalar bosons with specific combinatorial values. The interactions and combinatorial products of these components dictate mass factors that modify an initial "mass."It describes a structured way to understand the mass hierarchy within and between generations of fundamental particles, with predicted mass values consistent with the Standard Model. The concept of "flavored" and "non-flavored" components and their role in determining particle identity and mass modification is a key aspect of this framework. Further research is needed to fully understand the nature of these "generic" and "flavored" rishon-like components and the detailed mechanisms governing their interactions and combinatorial values.