Your mom...
No really... the iron in her blood would gladly lend some electrons.
An example of oxidation on rocks is the rusting of iron-rich minerals, such as biotite or olivine, when exposed to oxygen and moisture. This process leads to the formation of iron oxides, which can give rocks a reddish or brownish hue. Over time, oxidation weakens the rock structure and contributes to weathering, making it more susceptible to erosion.
Oxidation happens.
They involve either transfer of electrons, or a change in the oxidation state of some atoms involved.
Alkyl benzene can be more easily oxidized than benzene due to the presence of the alkyl group, which is more reactive than the aromatic ring. The alkyl substituent can donate electrons, enhancing the electrophilic character of the benzene ring and making it more susceptible to oxidation reactions. Additionally, the oxidation of the alkyl group can lead to the formation of more reactive species, further facilitating the overall oxidation process. In contrast, benzene's stable aromatic structure resists oxidation.
PbCl2 is more stable than PbCl4 primarily due to the oxidation states of lead. In PbCl2, lead is in the +2 oxidation state, which is a more stable oxidation state for lead compared to the +4 state found in PbCl4. The +4 oxidation state is less stable because it leads to increased electron-electron repulsion and makes PbCl4 more susceptible to reduction. Additionally, PbCl2 has a stronger ionic character compared to PbCl4, contributing to its greater stability.
Any thing in nature witch can burn by oxidation is susceptible for oxidation. Fat can burn in oxygen so it is susceptible to spoilage by oxygen like all other things. Fat differs from say sodium, as sodium will burn or not burn but fat contain long chain fatty acids (16,18,20 carbon atoms in each of 3 chains.)so it can be oxidized partially making it "spoiled" by oxygen step by step with oxidation of each atom of carbon at a time. So we get more or less spoilage.
Benzaldehyde can undergo auto-oxidation due to the presence of an aldehyde group, which is susceptible to oxidation reactions. The aldehyde group in benzaldehyde can be easily oxidized to form benzoic acid in the presence of air or oxygen.
Dirt and dust.
In all Redox reactions some things are oxidized (meaning those elements lose electrons) and some things are reduced (meaning those elements gain electrons). The phrase to remember is OIL RIG - Oxidation Is Losing Reduction Is Gaining.
The carbon-hydrogen single bond in an aldehyde group is weaker, and therefore easier to break during oxidation, than either carbon-carbon single bond to the carbon atom of a carboxyl group in a ketone.
An example of oxidation on rocks is the rusting of iron-rich minerals, such as biotite or olivine, when exposed to oxygen and moisture. This process leads to the formation of iron oxides, which can give rocks a reddish or brownish hue. Over time, oxidation weakens the rock structure and contributes to weathering, making it more susceptible to erosion.
It shows some oxidation numbers. Generally it shows +4 oxidation numbers.
The oxidation number of Pt (platinum) can vary depending on the compound it is in. In its elemental state, platinum has an oxidation number of 0. In some compounds, such as PtCl4, platinum has an oxidation number of +4.
There is at least one oxidation number shared by all the elements in a periodic table column, but some of the elements may have more than one oxidation number and some of these additional oxidation numbers may not be possible for all the elements in a column.
Mechanical things break because of friction or metal fatigue, and most other things break due to oxidation or free radical damage (such as plastic items sitting in the sun). Some things break or wear out due to abuse or misuse of the object.
The oxidation number of tin can vary depending on the compound it is in. In its elemental form (Sn), tin has an oxidation number of 0. In some compounds, tin can exhibit oxidation numbers of +2 and +4.
Some fuzes are susceptible to electro-magnetic radiation, and transmissions from a cell-phone can cause them to detonate. This is the MOST CORRECT statement about fuzes.