answer:If energy is applied to state B, which is in the liquid state, it would adopt the gaseous state (state C). This is because adding heat to a substance usually results in an increase in temperature and a change of state in a process called sublimation.,If energy is applied to state B, which is in the liquid state, it would adopt state C, the gaseous state. Adding energy in the form of heat increases the temperature of the substance, causing the liquid to change into a gas., If energy is applied to state B, it would adopt state C's properties. This is because when heat energy is added to a substance in its liquid state, it typically transitions to a gas state, where the particles have more freedom to move and are less tightly packed.

answer:The first step of the process is the plant roots beginning to grow. When plants find their way into tiny cracks or crevices in rocks, their roots exert pressure as they grow and expand. This helps break apart the rock and initiate the process of erosion and weathering.,The first step of the process mentioned is: The plant roots begin to grow. This is the point where a plant starts to establish its roots in the surrounding environment, often including rocky or hard terrain. As the roots grow and expand, they can penetrate small cracks and crevices in rocks, providing a foundation for the plant to break apart and dissolve parts of the rock., The first step of this process would be the plant roots beginning to grow. This is the initial action that sets off a series of events leading to the rock's breakage and erosion. The plant roots, in their search for water and nutrients, penetrate the rock crevices and exert pressure. This pressure, over time, widens the crevices and cracks in the rock, leading to its physical breakdown. The subsequent steps you mentioned, such as the plant acids dissolving parts of the rock and the rocks breaking into more and more pieces, are all consequences of this initial root growth and subsequent physical force exerted on the rock.

answer:To complete this task, I would need to analyze the information provided and provide an explanation or understanding of the given data. Step 1: Decipher the information 2a. Understand the elements and their respective atomic compositions - tritium (H-3); helium 3 (He-3) 2b. Identify the relevant energy properties - binding energies 3. Extract the respective binding energies - 8.5 and 7.7 MeV Step 2: Perform calculations to gain a better understanding 4. Compare the binding energies of tritium and helium-3 5. Understand the relationship between the two binding energies and energy differences Step 3: Justify my analysis 6. Relate the specific atomic properties of tritium and helium-3 to their respective binding energies 7. Provide an explanation or understanding of the given data The binding energies of tritium (H-3) and helium-3 (He-3) are provided, representing the energy required to split these isotopes into their constituent particles. The binding energy of tritium (containing two neutrons and one proton) is approximately 8.5 MeV, while that of helium-3 (two protons and one neutron) is about 7.7 MeV. As the binding energy of tritium is higher than that of helium-3, this suggests that it takes more energy to break tritium apart than helium-3, implying that tritium is more stable than helium-3. This difference in binding energies is related to the distribution of protons and neutrons within the nucleus, creating differing binding strengths between these isotopes.,To add spaces between words in the given text, I will follow these steps: 1. Identify words by their character sequences. 2. Insert spaces between each identified word. Here is the text with spaces added: The binding energies of the triteron (two neutrons and one proton) and the helium 3 nuclide are about 8.5 and 7.7 MeV, respectively. I identified the individual words and added spaces between them to make the text more readable and understandable., Sure, I'd be happy to help with the task you've given me. The task is to compare the binding energies of the Triton (two neutrons and one proton) and the Helium-3 nuclide. The given binding energies are approximately 8.5 MeV for the Triton and 7.7 MeV for Helium-3. To compare the binding energies of these two nuclides, I will follow these steps: 1. First, I need to understand what binding energy means in this context. Binding energy is the energy required to separate the nucleons (protons and neutrons) in a nucleus. In other words, it is the energy needed to break the nuclear force that holds the nucleus together. 2. Next, I will note that the binding energy for the Triton is higher than that of Helium-3, meaning that it takes more energy to separate the nucleons in the Triton than in Helium-3. 3. This observation suggests that the Triton is more strongly bound than Helium-3, and therefore more stable. In other words, the Triton is less likely to undergo nuclear reactions that would break it apart. 4. In conclusion, based on their binding energies, the Triton is more stable than Helium-3.

answer:There were more troops in the centre column, as it had an additional 5,000 soldiers compared to the left column (30,000 compared to 18,000).,There were more troops in the centre column., There were more troops in the center column (30,000 troops).