This image is a popular medieval depiction of ladies who are hunting rabbits in a warren using cages and ferrets that was held by Queen Mary Psalter. (inserted from VIER PFOTEN International – gemeinnützige Privatstiftung. (n.d.). How the Rabbit was Domesticated. FOUR PAWS International - Animal Welfare Organisation. https://www.four-paws.org/our-stories/publications-guides/how-the-rabbit-was-domesticated#:~:text=The%20breeding%20of%20rabbits%20gained,build%2C%20coat%20colour%20and%20weight.)
The domestication of rabbits was a gradual process, starting with their use as a food source and fur source in the Roman period and evolving into their current role as pets.
Evidence suggests that humans and rabbits may have had an intensive relationship as early as the Roman period with the earliest written records of captive rabbits appearing around that time.
To the beginning-------------------
As we all know from the moment earth was created it was a big ball of dust; that began to form living things that naturally evolved from non-living stuff.
The scientific consensus is that life evolved over billions of years from simple chemical compounds and other non-living things.
The development of early life may have been powered by chemicals and energy from the Earth's interior in deep-sea hydrothermal vents.
Abiogenesis is the process by which organic molecules, such as nucleotides and amino acids, which are the building blocks of life, gradually arise.
The advent of self-replicating molecules, like RNA, was a crucial stage in the origin of life. Following its emergence, life underwent evolution and natural selection, giving rise to the wide variety of species that exist today.
The earliest evidence of life dates back to 3.8-3.5 bya, when simple, single-celled organisms without a membrane-bound nucleus or other organelles appeared.
Given that the oldest fossil evidence dates to approximately 3.7 billion years ago, it appears that simple microorganisms were the earliest lifeforms
The rise of cyanobacteria, which is a type of prokaryote capable of photosynthesis, that caused significant amounts of oxygen to be released into the atmosphere. This profound environmental change causes the oceans to "rust" and, eventually, the atmosphere to oxygenate, allowing for more complex life forms to emerge.
Eukaryotes appeared between 2.0-1.5 bya which represented a monumental leap in complexity. These cells were larger and had a nucleus that houses their genetic material as well as other membrane-bound organelles (such as mitochondria and chloroplasts, which are thought to have evolved from symbiotic prokaryotes). This cellular innovation enabled much greater internal organization and functional specialization.
From there the life cycle kept going to our first multicellular organisms, the Cambrian explosion, first vertebrates, first land plants and fungi, Tetrapods which are vertebrates with limbs, first reptiles, first mammals, then a restart of life on earth from the cretaceous Paleogene extinction event.
Picture came from CK-12 Foundation. (n.d.). CK-12 Foundation. https://flexbooks.ck12.org/cbook/ck-12-middle-school-life-science-2.0/section/4.12/primary/lesson/timeline-of-evolution-ms-ls/
IV. Growth of Rabbit Keeping and Fancy (18th Century - Present)
18th Century Onward: Domestic rabbits are introduced worldwide by humans, including to Australia, Chile, New Zealand, and North America.
19th Century (Victorian Era):
The emergence of animal fancy leads to rabbit fanciers sponsoring exhibitions and fairs in Western Europe and the United States. Breeds are created and modified specifically for exhibition, moving beyond solely utilitarian purposes (food, fur, wool).
Keeping rabbits as household pets becomes increasingly popular among the middle classes.
The first rabbit clubs are formed, with England establishing one in 1840.
In the United States, the "Belgian Hare Boom" begins in 1888 with the importation of Belgian Hares from England, leading to the founding of the American Belgian Hare Association (the first rabbit club in America) in 1910 (originally the National Pet Stock Association).
Domestic rabbits are also sometimes used in industrial tasks, such as "pit" or "underground" rabbits in mines.
Late 19th Century: Rabbits as house companions appear with increasing frequency, as documented in Beatrix Potter's diaries.
1970s: Rabbit show jumping (also known as rabbit hopping or rabbit agility) develops as a performance sport.
1980s: Publications like Marinell Harriman's House Rabbit Handbook: How to Live with an Urban Rabbit (1985) significantly promote the idea of the domestic rabbit as a house companion.
Today: There are over 300 recognized domestic rabbit breeds worldwide, showcasing immense phenotypic diversity in size, body conformation, fur type, coat color, and ear length, far exceeding their wild ancestors. Rabbit production continues globally for meat, fur, and as pets.
Key terms!!!
Before we talk about the genetics and variability let me explain some key words in simple terms.
Imagine you're baking a cake.
Genotype -> The hidden genetic instructions (the recipe).
Phenotype -> The visible characteristics (the baked cake).
Gene = The specific feature like chapters in the recipe book ('Fur Color').
Allele = The specific choice or variant for that feature like flavor ('Black Fur' or 'Brown Fur').
Every rabbit gets two copies of each 'chapter' (gene) – one flavor (allele) from its mom and another flavor (allele) from its dad. The combination of those two versions decides what the rabbit's fur color will actually be!
Genetics and variability
For the ones that don't know a Punnet square is a tool that is used to predict the possible genetic outcomes. In this case when two rabbits are bred. Each box shows the genotype (recipe) and the resulting coat color of a potential offspring. This table specifically represents the punnet square of the fur color gene (chapter in the recipe book) a rabbit can intake during development.
Domestic rabbit genetics involves the inheritance of particular genes and alleles (Flavors) that impact a variety of phenotypes (outcome) through patterns of dominant and recessive inheritance. Punnett squares like this one display and predict genetic variation in this example fur color, which is made possible via sexual reproduction.
--There are two genes that influence rabbit coat color in this example: B = Black, b = chocolate and E = allows color expression, e = reduces pigment expression. Each rabbit has two alleles (flavors) for each gene (which is one from each parent), forming combinations like: BbEE, bbEe, BbEe…and so on.
---This Punnett square shows how different combinations of the B and E alleles affect rabbit coat color. ‘B’ (black) is dominant over ‘b’ (chocolate), and ‘E’ allows the pigment to show, while ‘e’ lightens the color. The chart predicts outcomes like black, chocolate, or fawn based on inherited gene combinations. This chart shows how genetic combinations produce different phenotypes
B is dominant
b recessive
E allows full color expression
e reduce color expression but still shows
BbEE → Black
bbEe → Chocolate
Two recessive b alleles (bb) = chocolate.
E still allows the pigment to show. bbee → Fawn
Domestic Rabbits color
How do rabbits get all those amazing fur colors you may ask. Domestic rabbits come in so many different colors – black, white, brown, spotted, orange It's pretty incredible! Humans selected domestic rabbit fur color through a process called artificial selection, also known as selective breeding. This process began centuries ago and continues today, driven by various human interests.
Selective Breeding:
Choosing parents: When a rabbit with an interesting or attractive fur color appeared, humans would intentionally breed that rabbit with another rabbit that also possessed, or was likely to carry, the genes for that desirable color.
Controlling reproduction: By controlling which rabbits mated, they ensured that the offspring were more likely to inherit the desired fur color traits.
Reinforcing traits over generations: This process was repeated over many generations. Each time, individuals with the most pronounced or desired fur color were chosen to be parents, gradually increasing the frequency of those genes in the rabbit population.
Developing Breeds: Over time, this meticulous selective breeding led to the development of numerous distinct rabbit breeds, each with its own specific fur colors, patterns, and other physical characteristics (like fur length, body size, and ear shape). Examples include pure white rabbits (like New Zealand Whites), black, chocolate, gray, tortoiseshell, chinchilla, and various spotted patterns.
Genetic Basis: We now know that rabbit coat color is determined by a complex interaction of several genes, including genes that control the color base (e.g., black or brown), color density, pattern (like agouti or self), extension of dark pigment, and spotting. Breeders learn about dominant and recessive alleles to predict and achieve desired color outcomes.
In essence, humans bypassed natural selection, which would typically favor camouflage, and instead actively "selected" for traits that they found appealing or useful, resulting in the incredible diversity of rabbit fur colors we see today.
Here's how it generally worked:
Initial Variation: Wild rabbits primarily have an "agouti" or "wild-type" color pattern, which helps them camouflage in their natural environment. However, like all living things, genetic mutations occur naturally, leading to occasional variations in fur color (e.g., solid black, brown, white, or different patterns). In the wild, these unusual colors would often make rabbits more conspicuous to predators and thus less likely to survive and reproduce.
Human Intervention (Domestication): Rabbit domestication is believed to have begun around the 5th to 16th centuries, with early records suggesting French monks played a significant role. Initially, rabbits were kept for practical reasons, primarily as a food source (their meat was even considered permissible during Lent).
Identifying Desirable Traits: As rabbits were kept in controlled environments, humans began to notice and appreciate variations in their fur color. Unlike in the wild, these "deviant" colors didn't put the rabbits at a disadvantage; in fact, they became aesthetically pleasing or potentially useful for specific purposes (like fur production).
Bibliography
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