The belief in a universal, independent standard for altruism, morality, and right and wrong is deeply ingrained in societal norms. However, when scrutinized through the lens of dynamic genetic fitness, these concepts reveal their inherent complexities. The idea of group selection suggests that a group rich in altruists may have a survival advantage over a group mainly composed of selfish organisms. Yet, even within such groups, altruists find themselves at a disadvantage compared to their selfish counterparts. This paradox challenges the straightforward interpretation of altruism and suggests that the concept is not as simple as it seems.

Crucially, the application of genetic fitness extends to all levels of gene pools, from our own offsprings to species-level offspring. This perspective reframes altruism and the notions of right and wrong as not merely moral or ethical choices but as strategies for optimizing genetic fitness across varying contexts. In this light, what is often considered 'altruistic' or 'right' may be better understood as actions that contribute to the genetic fitness of a group or species, rather than individual moral virtues.

Environmental factors also significantly shape our understanding of genetic fitness. In certain bird species, for example, some individuals stay near nesting sites to assist in rearing related offspring. This behavior is influenced by various factors such as food availability, mate attraction, and predation. Similarly, our moral and ethical choices are not made in isolation; they are molded by our immediate environment, societal norms, and the gene pool under consideration.

As we venture into new frontiers like deep space exploration and potential coexistence with other intelligent species, our understanding of genetic fitness will need to evolve. The ethical and moral frameworks we have built may not be applicable in these new contexts, especially when the gene pool extends beyond our own species. This raises questions about how we will navigate ethical dilemmas in the future.

The choices we make are deeply rooted in our genetic predispositions and environmental influences. For example, the choice to save one's own child over a stranger's, even when the latter is healthier, is not merely a moral dilemma but a complex interplay of genetic fitness, emotional bonds, and societal expectations.

As technology advances, particularly in the field of artificial intelligence, the concept of genetic fitness takes on new dimensions. If AI entities were to possess a form of 'digital genetic fitness,' how would that influence their ethical and moral decisions? Would they align with human perspectives, or would they form an entirely new ethical framework based on their programming and experiences?

Given the dynamic nature of genetic fitness, there is a pressing need for a more flexible ethical framework that can adapt to different levels of gene pools and environmental contexts. Traditional ethical theories, such as utilitarianism or deontological ethics, may not suffice in explaining or guiding behavior when genetic fitness is considered at various scales.

This dynamism has far-reaching implications for society at large. Policies, laws, and social norms often reflect a static understanding of morality and altruism. However, these concepts are far more fluid and context-dependent, raising questions about the effectiveness and fairness of our current social structures.

Education plays a crucial role in shaping our understanding of morality and altruism. However, current educational systems rarely delve into the complexities of these concepts, especially in the context of genetic fitness. Incorporating this perspective into educational curricula could foster a more nuanced understanding of ethics and morality, better preparing future generations for the ethical dilemmas they may face.

As technology continues to advance, we are likely to encounter ethical dilemmas that our current understanding of morality and altruism is ill-equipped to handle. For example, gene editing technologies like CRISPR could allow us to manipulate genetic fitness directly. What ethical frameworks will guide us in making responsible choices in such scenarios?

In conclusion, the concept of genetic fitness is dynamic and extends to all levels of gene pools, inherently influencing our understanding of altruism, morality, and the concept of right and wrong. As we continue to expand our horizons, both literally and metaphorically, it becomes imperative to reevaluate these higher concepts in the light of our evolving understanding of genetic fitness. Only then can we hope to navigate the complex landscape that lies ahead, whether it involves ethical dilemmas on Earth or potential moral quandaries in outer space.