A force that bind molecular crystals together, is the force of attraction. Attraction in the subject of Psychology has many types
Proximity - The vast majority of our friends live close to where we live, or at least where we lived during the time period the friendship developed (Nahemow & Lawton, 1975). Obviously friendships develop after getting to know someone, and this closeness provides the easiest way to accomplish this goal. Having assigned seats in a class or group setting would result in more friends who's last name started with the same letter as yours (Segal, 1974).
Association - We tend to associate our opinions about other people with our current state. In other words, if you meet someone during a class you really enjoy, they may get more 'likeability points' then if you met them during that class you can't stand.
Similarity - On the other hand, imagine that person above agrees with you this particular class is the worse they have taken. The agreement or similarity between the two of you would likely result in more attractiveness (Neimeyer & Mitchell, 1988)
Reciprocal Liking - Simply put, we tend to like those better who also like us back. This may be a result of the feeling we get about ourselves knowing that we are likable. When we feel good when we are around somebody, we tend to report a higher level of attraction toward that person (Forgas, 1992; Zajonc & McIntosh, 1992)
Physical Attractiveness - Physical attraction plays a role in who we choose as friends, although not as much so as in who we choose as a mate. Nonetheless, we tend to choose people who we believe to be attractive and who are close to how we see our own physical attractiveness.
So... the force that binds them together, depends on the type of attraction the crystals show to each other.
The force that holds atoms together is called a chemical bond. This bond is formed when atoms share or exchange electrons to achieve a stable configuration, allowing them to be held together in a molecule or crystal structure.
In a lattice structure, the arrangement of atoms or molecules is held together by strong chemical bonds between neighboring particles. These bonds provide the necessary force to prevent the lattice from collapsing or breaking apart, helping to maintain the integrity and stability of the structure.
sodium :)
The ions are held in the lattice by the electrostatic force of attraction between these positive ions and the delocalised electrons. This attraction extends throughout the lattice and is called metallic bonding.
the force of attraction that holds atoms together is a chemical bond
the attraction between ions of opposite charge do your part and put answers for novanet cmon
The force that holds the lattice structure in place in a crystal is primarily the electrostatic force between the positively charged atomic nuclei and the negatively charged electrons. This force keeps the atoms in a crystal matrix aligned in a specific arrangement, forming the lattice structure characteristic of that particular crystal.
Ionic bond is the force that holds NaCl units together. This bond forms between the positively charged sodium cation and the negatively charged chloride anion. The attraction between these opposite charges creates a strong bond that keeps the ions together in a crystal lattice structure.
lattice energy
*the attractive force between opposite electrical charges
The force that holds atoms together is called a chemical bond. This bond is formed when atoms share or exchange electrons to achieve a stable configuration, allowing them to be held together in a molecule or crystal structure.
Lonci compounds are held together by ionic bonds. These bonds form due to the transfer of electrons from one atom to another, resulting in the attraction between positively and negatively charged ions. This strong electrostatic force holds the lonci compounds together in a stable crystal lattice structure.
In a lattice structure, the arrangement of atoms or molecules is held together by strong chemical bonds between neighboring particles. These bonds provide the necessary force to prevent the lattice from collapsing or breaking apart, helping to maintain the integrity and stability of the structure.
They are held together by an electrostatic force causing an ionic bond.
Electrostatic attraction between the oppositely charged particles. For example consider sodium chloride NaCl. If the compound were to be broken down into its ions it would look like Na+ and a Cl- the opposite charges attract and hold the individual ions together forming a crystal lattice, a solid.
The intermolecular force in AgNO3 is mainly ionic bonding, as silver nitrate is a salt composed of positively charged silver ions (Ag+) and negatively charged nitrate ions (NO3-). This strong electrostatic attraction between the charged ions holds the crystal lattice together.
The ions in sodium chloride are held together by ionic bonds. In this type of bond, the positive sodium ions are attracted to the negative chloride ions, creating a strong electrostatic force that keeps the ions together in a crystal lattice structure.