Watch World Terms and Condition Why are dolphins and seahorses different species?

Why are dolphins and seahorses different species?

It is well known that dolphins and whales are the only marine mammals known to have two brain systems: a “neurotic” system that enables them to learn and a “behavioral” system (including the ability to swim) that enables their swimming behavior.

The first part of this difference is obvious: dolphins have a nervous system that is thought to be much larger than whales’ nervous system.

They have an internal network of nerves that connect their muscles and brain to the rest of the body, and these nerves are thought to make up a very large part of the dolphin’s nervous system.[1] The second part of their nervous system is also very large, and it connects with the internal network that connects the muscles to the brain, so the dolphin has a nervous “net”.

However, while these two systems have quite different roles in dolphins’ development, they do have a common feature in seahorse’s nervous systems: they are both highly responsive to a specific signal in their environment.

This is why they are called “neural netting” (NS).

While the neurons of dolphins and the neurons in the seahore, for example, can communicate with each other very efficiently, dolphins’ neural netting has much less flexibility and flexibility is not as flexible in seahs as in whales’ neural nets.

This means that dolphins need to use a combination of sensory information from their environment, including the shape and texture of the water around them, to learn what to do.

This can be challenging for humans, as the sensory information of the ocean around them has a large amount of noise, as well as a lack of direct information about what they see and feel, which can make it difficult for them to be able to discriminate between objects that are different in shape and color.

In this paper, we will discuss how dolphins and their nervous systems are different species, and how this difference contributes to their unique ability to navigate in a very specific way.

To do this, we need to understand a little bit about what we mean by a neural net.

Neural nets are collections of neurons that are connected together.

They are connected in many different ways, such as with a sensory feedback loop that keeps them in synch.

For example, we might use neurons to control a computer cursor or a joystick that allows us to move a cursor on the screen.

In some animals, such systems are connected to a central nervous system (such as humans), while in others they are more akin to the “inner ear” of a mammal (such the seabird).

However, the neural net that connects neurons to the external world is called a neural “network”, and its name means something like “network of neurons”.

The neural net is the network of neurons and their connections that form a neural network.

When neurons in one animal are activated, the brain fires in a specific way and this firing pattern is passed on to the next animal.

The neuron firing patterns can be very complex, so neurons in different species can have very different patterns of firing patterns and can even be very different species.

However, for most animals, the neuron firing pattern that forms the neural network is a simple set of repeating patterns that are called the “neuron firing pattern”.

When a dolphin’s neurons are stimulated by a signal that triggers the neural networks of its muscles and other parts of its nervous system to fire, this firing occurs.

This firing pattern forms a neural pattern that is known as a “signal”.

A neural pattern can be a simple “sign” that is very easy to distinguish from a “non-sign”, or a complex pattern that involves many possible combinations of signals that form many different patterns.

In other words, there is a lot of variation in how neurons respond to a single signal.

We call this “general purpose” firing.

For most animals (including dolphins), the firing pattern of a neuron that is activated by a stimulus has a certain number of distinct “neuronal firing patterns”.

The neuron that fires is called an excitatory neuron, which is part of a network called the inhibitory neuron.

The inhibitory neurons of animals that are not sensitive to a particular stimulus are called excitoters, which are part of an inhibitory network called a GABAergic network.

There are many different types of exciters in the brain of animals, and they are all connected by a network of nerve fibers called the GABAergic system.

In many animals, an excitable neuron that has a high probability of firing will produce a high frequency of neurons firing.

This excitability, or “excitability”, is called excitability gradient.

This makes it easier for the animal to process the stimuli that it is exposed to in the environment.

A neuron with a high excitability will be more responsive to the signals coming from the environment that are produced by the neuron.

For an animal with a low excitability the neuron will be less