An organic compound containing a group of alcohol and a group of carbon atoms can react with Na. The alcohol reacted with the Na to form the Na alcoholate and release the hydrogen gas, the alcohol reacted with the Na to form the Na phenate and release the hydrogen gas, and the Carboxyl acid reacted with the Na to form the Na Carboxylate and release the hydrogen gas. Read more exciting novels for free
Microorganisms have a protein structure (organic matter). Hypobaric acid (HClO) can react with organic matters containing nitrogen or sulfur. The hydrogen of the bacteria is replaced by hydrogen, and the hydrogen is combined with OH to form hydrogen. Therefore, organic matter would react with hypobaric acid. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
Since the specific chemical formula of the organic matter was not known, it was only known that its mass was 6g. It was impossible to determine the specific product and the specific chemical equation of the reaction with oxygen. If you know the chemical formula of the organic matter, you can calculate it according to the general formula of the reaction between the organic matter and oxygen, such as the amount of oxygen consumed, the amount of carbon dioxide produced, and the amount of water produced. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
Dilute sulfuric acid can react with organic matter. When diluted sulfuric acid reacted with organic matter, it might explode because a large amount of energy would be released during the reaction process. If this energy was released rapidly in a short period of time and could not be evacuated in time in a limited space, it would cause an explosion. In addition, sulfuric acid was oxidisable. When it reacted with certain organic substances, a violent oxido-reduction reaction may occur, resulting in an explosion hazard. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
There were many situations where organic matter did not completely react. The following were some of the relevant manifestations: 1. ** Incomplete combustion reaction ** - The carbon in organic matter (especially in the case of the carbon dioxide) has a negative valency, and it is oxided by oxygen during combustion. When there is insufficient oxygen (incomplete combustion), C will only be oxided to 0, and black carbon (C) will be produced. The products of incomplete combustion can continue to react with oxygen (without adding a catalyst). In addition to the possibility of carbon being produced by incomplete combustion, when organic matter contains elements such as N, the incomplete combustion products may also include NO, N O, etc. 2. ** Incomplete reactions in organic chemistry (side reactions)** - Most organic chemical reactions were complicated and often accompanied by side reactions. For example, under 70 atmospheric pressure, a catalyst, and 170 - 200 ° C, the air was used to produce sulfuric acid, but there were still by-products such as Formic acid and Propionic acid. This indicated that it was often difficult to completely follow the ideal reaction in order to obtain a single product in an organic reaction. There were cases where incomplete reactions led to the formation of multiple products. When writing an organic chemical reaction equation, one couldn't use an equal sign like an organic chemical reaction. Instead, one had to use an arrow because one only needed to write the main products in the reaction, and it was difficult to write all the products. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
There were several types of reactions in organic chemistry: 1. ** Substitution reaction **: Some atoms or atomic groups in organic molecules are replaced by other atoms or atomic groups. For example, they could be substituted by halo, esterfied, dehydrated, nitrated, and Sulfonated. Alkane, alkene, aromatic, alcohol, alcohol, and so on can undergo substitution reaction with the elemental halo; Benz and its homolog, alcohol, and alkyls can undergo nitration reaction; Benz and its derivative can almost all be Sulfonated; Carboxylic acid and alcohol can undergo ester reaction; Halocarbon, ester, glycan, disose, and protein can undergo a cleavage reaction under certain conditions; Alcoholic acid, carbolic acid, and so on could react with active metals such as Na (also a type of substitution reaction). Alcohol could also react with hydrogen Halide (HX), and carbolic acid or alcohol could undergo intermolecular dehydration reactions. 2. ** addition reaction **: The direct combination of the saturated carbon atoms in the organic molecules with other atoms or atomic groups to form a compound. Any compound with a double bond or triple bond in the molecular structure could undergo an addition reaction, such as alkene, diene, alkyne, and its homolog, as well as the compounds of the same class, such as the compounds of the same class, such as the compounds of the same class, and the compounds of the same class. The organic reagents involved in the addition reaction included small molecules such as H <2>, X <2>(X is Cl2, Br2, I), HX, H <2> O, and HCN. However, it should be noted that the carbon-oxygen double bond in the ester group could not undergo an addition reaction. The carbonyls of the alkyls and ketones could only undergo an addition reaction with H <anno data-annotation-id ="0000000 - 4000 - 4000 - 8000 - 9000 - 80000000000"> 2 </anno>. Conjugated diene had two different addition forms. 3. ** Elimination reaction **: Under appropriate conditions, an organic compound will remove a small molecular (such as H <2> O, HX, etc.) from two adjacent carbon atoms of a molecular to form an saturated (double or triple bond) compound. There were two conditions for the elimination reaction to occur. One was that the carbon atom with-Ox (or-X) had an adjacent carbon atom, and the other was that the adjacent carbon atom must also have an H atom. The two common types of organic compounds in middle school were alcohol and substituted alcohol. 4. ** Polymerization reaction **: The combination of many single molecules to form a high molecular compound, including addition and condensation reactions. Polyaddition reaction was the condensation of small molecules to form a high molecular weight. The organic substances that could undergo polyaddition reaction included alkene, dialkene, and substances containing C = C. Polycondensation reaction was the removal of small molecular compounds between organic compounds and the combination of them to form a high molecular compound. Usually, there were condensing reactions between acids, acids, glucose, dibasic alcohol, and dibasic acid. 5. ** Redox reaction **: Redox reactions also exist in organic chemistry, such as the reaction of alcohol. 6. [Pericyclical reaction: This type of reaction has its own special rules to determine whether it can occur. For example, the Woodward-Hoffman rule can be used to determine whether a Pericyclical reaction can occur.] 7. ** Rearrangement reaction **: A type of organic reaction. Many organic reactions are named after the discoverer, including the rearranged reaction. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The dehydration reaction of organic matter was an important knowledge in organic chemistry. The following is a summary of some common types of organic dehydration reactions: 1. ** Dehydrating to ene **: Under the effect of concentrated acid, an alcohol containing a hydrogen atom on the carbon atom adjacent to the carbon atom of the hydrogen atom will undergo an molecular dehydration reaction to form a compound containing a C=C bond. This is an elimination reaction. 2. ** Dewatering to ether **: Dewatering between alcohol molecules will form ether compounds containing O, which is a substitution reaction. 3. ** Dehydrating to Andride **: Under the effect of concentrated H <anno data-annotation-id ="0000004 - 4c64 - 4c64 - 4c64 - 9c6b666c33a"></anno>, the acidic acid will undergo either intermolecular or intermolecular dehydration to form an acid dioxide. 4. ** Dehydrating into Peptides **: The dehydration between the molecules of the ammo acid can form a peptide-like compound containing a peptidic bond. Correspondingly, when a peptide-type compound (including a protein) was subjected to the water digestion, the peptide-bond was always broken to form the corresponding ammo acid. 5. ** Dehydrating into fat **: According to the law of "acid dehydrating alcohol dehydrating", various esters can be formed between the acid and alcohol, or between the molecules of the acid. include that formation of chain ester, ring ester, lactones, and the like. Correspondingly, the ester bond was always broken when the ester was being digested, and the corresponding Carboxyls (or Carboxyates) and Alcohol (or Phen) were formed. 6. ** Dehydrating and carbonizing **: The concentrated sulfuric acid will capture the hydrogen and oxygen atoms in some organic matter in a ratio of 2:1 to carbonize it. In the middle school stage, the elimination reaction could not occur with the alcohol, and not all the alcohol or the substituted alcohol could undergo the elimination reaction. Dewatering reactions included both inner-molecular dehydration (elimination reaction) and intermolecular dehydration (substitution reaction). However, it was important to be precise when describing the types of organic reactions. For example, the reaction between alcohol molecules to form ether was precisely a substitution reaction. It could not simply be called a dehydration reaction. At the same time, it could not be applied to organic reactions using the type of an organic reaction. In addition, the condensation condensation reaction is a reaction between organic compounds containing two functional groups, such as dicarbonic acid and dibasic alcohol, or a reaction between organic compounds containing two functional groups, such as a mixture of both a functional group and a functional group. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The reaction between alcohol and Na is 2Na + 2CH CH ^Ox → 2CH CH ^ONa + H ^^. During the reaction, the Na would sink to the bottom of the alcohol, and the shape would not change. There would be bubbles on the surface, and then it would gradually rise to the surface of the alcohol. The volume would gradually decrease, and finally disappear. Touching the wall of the test tube, one could feel that it was relatively hot. The gas produced by the reaction was tested to be hydrogen. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The amount of organic matter produced represented the total photosynthesis rate. This was because the total photosynthesis rate reflected the total amount of organic matter produced by the plant through photosynthesis, while the net photosynthesis rate was the value of the total photosynthesis rate minus the respiratory rate, indicating the amount of organic matter accumulated by the plant's photosynthesis. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The conditions for the organic matter to undergo an oxidization reaction: first, there must be functional groups that can be oxided (such as a hydrogen radical, a carbon-carbon double bond or triple bond, and an aldo group). Secondly, there must be a suitable oxidiser (the aldo group only needs a weak oxidiser, such as silver amine solution, and copper dioxide; double bonds, triple bonds, or alcohol require a strong oxidiser, such as KMn <anno data-annotation-id ="0444433 - 404a-4666666666677"> O </anno>+ catalyst). The conditions for the reduction reaction of organic matter: In addition to the ester and the ester, it contains an unsaturated bond (such as alkyne, alkyne, and other aromatic compounds, as well as aldol). Under heating conditions, it can be reduced by the use of Ni and H <2>. (This answer only applies to high school organic reactions) <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>
The conditions for different organic substances to react with acid and base were different: - When the organic matter is a ether, it can react with a base. - Carboxic acid can react with bases. - In the water solution, the halalocarbon would react with the alkali-like water, and in the alcohol solution, it would react with the alkali-like alcohol. - Esters can be subjected to the reaction of acid or base. Under base conditions, the reaction is slow when not heated, but the reaction is accelerated when heated. Under acid conditions, it is usually diluted acid and the reaction occurs when heated. - An organic compound with both acid and base functional groups (such as an acid, a protein, etc.) can react with both acid and base. - The silver mirror reaction can occur in the presence of organic substances (such as alkyls) that contain " - The dehydration reaction of alcohol required concentrated sulfuric acid as a catalyst and an absorbing agent, and the reaction was carried out under acidic conditions. - Oils and fats are ester substances, which can undergo a water decomposition reaction under acid or base conditions. - The acidic organic matter and the basic organic matter would undergo a neutralizing reaction. The basic organic matter generally had the characteristic group of an amine group, while the acidic organic matter generally contained a Carboxyl group or a alcoholic group. Some of them only had a alcoholic group, but with the acidic group, they could undergo a neutralizing reaction with other substances (acid and base exchange components to form salt and water). <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>