Your Position: Home - Machinery - Questions to Ask Before Joining a Carbon Program
If you are thinking about joining a forest carbon payments program, here are some things to ask before signing on the dotted line.
In the US, forest carbon offset projects are either sold on the voluntary market or the California-Quebec market. Both markets have been growing consistently for the last decade and are expected to eventually provide more robust compensation for participating landowners in the future. In 2022, sales for nature-based carbon offset projects on the voluntary market ranged anywhere from $3 to $7 per metric ton of CO2e (carbon dioxide and greenhouse gas equivalents). The California-Quebec Carbon Market had CO2e sales approaching $28 per metric ton in November 2021, but the projects on this market don't typically involve family forest owners. The wide range in prices are due to variation in the types of assurances associated with the carbon project and the protocols used to guarantee that a carbon offset has been produced. Payments to landowners provided through voluntary markets can provide some extra income to help reduce management expenses, but to help determine this it is important to have a financial plan.
Contract length is typically determined by the protocols used by the project developer. Protocols accepted on the voluntary market tend to have more flexibility and offer contracts that range from one year to 30 years. Protocols accepted on compliance markets (e.g., California-Quebec market) often have long contracts (100+ years) and typically don't include family forest owners. It is important to consider how the length of contract fits with your forest and your goals for your forest.
The average landowner is over 60, which means it is important to think about what will happen to a forest after the owner passes on. This is especially important given the length of some carbon contracts. Some carbon programs set up commitments that are tied to the deed (like a conservation easement), so the new landowner will have to continue in the carbon program, but they will be the one receiving payments. Other programs may not be tied to the deed. In this case, if the new owner does not continue in the project, then the previous owner (or their estate) may become responsible for paying back all the payments received for storing carbon, as well as a fee for early withdraw. In that case, it may be safer for current owners to require the next owner to stay in the contract but having a lean on the title may also affect property values.
An "accidental release" is when the sequestered carbon sold is unintentionally released into the atmosphere through an act of nature that cannot be prevented or foreseen. Examples include an emerald ash borer outbreak, which kills almost all the ash in an ash-dominated forest. Windstorms and wildfire can also damage stands, which affects how trees grow and the expected amount of carbon stored into the future. In most cases, the project developer keeps a pool of unsold carbon credits to help buffer the impact of accidental release associated with their program in the future. Here the project developer assumes the risk and the landowner is not held responsible. However, not all project developers are able to assume all forms of risk, so some programs may still hold landowners responsible for certain unforeseen events. Be sure to find out how a program defines accidental release and what your responsibilities are.
An "intentional release" is when the landowner knowingly releases carbon in violation of their contract. This could happen when the value of other land uses exceeds the value of the timber and carbon payments (e.g., development). Depending on the contract there may be points in time (e.g., every 6 years) where the landowners can withdraw from the contract with limited contract termination fees. However, owners will be expected to repay the income they received from providing carbon sequestration services.
Some programs are transparent and advertise upfront how much money the landowner will make. Other programs require the owner to invest some time working with their representatives to figure this out. Before signing up, always be sure to establish how much money you will make, or how much you are willing to accept if you are required to place a bid. Also, payments are not always delivered on an annual basis or in a lump sum. This can make it hard to compare different types of contracts because payments made in the future are generally worth less than payments delivered today. For example, a program advertising $300 a credit may be very appealing, but if that is paid over a 100-year contract it may have less value compared to one paying $100 a credit over 10-years. Investors will often use the Equivalent Annual Annuity Approach (EAA) to compare projects with different time periods, payment levels, and interest rates. If you plan on making enrollment decisions based primarily on financial compensation, it may be a good idea to get professional advice.
Most voluntary programs use a third-party auditor to ensure the carbon is actually sequestered. Auditors may use remote-sensing (aerial images from planes or satellites) or have a professional occasionally go into your forest to conduct on the ground measurements. Often by signing up for a project, you are giving permission for the auditor to access your land. So, it is important to understand what your commitment is and to work with the project developer to make sure verification works with your land uses. For example, if you own the forest to hunt deer, you probably do not want an auditor in your forest during deer hunting season.
Most carbon programs are very new. Projects with a weak business plan or few investors could downsize or go bankrupt. It is prudent to understand your responsibilities as an active partner, and how payments could be impacted if the developer goes under.
Data about your land (who owns the land, how the owner manages/intends to manage, and what rights the landowner owns, etc.) can be valuable private information. It is always best to know what is happening to your data, if it is being sold to other companies or how it is safely stored.
The voluntary market is an open market so the buyers could be anyone including corporations, NGOs, government agencies, or private individuals. Some project developers work with specific buyers to supply customized carbon offset projects to meet designated social responsibility goals. Talk to your program representative to determine who receives the carbon credits you help generate.
While forest carbon projects are an appealing new way to generate revenue from a forest and address climate change, it is very important to balance the requirements of the project with goals for your forest. If the program does not line up with your goals, do not sign up for it. The marketplace is changing rapidly, and new programs are coming online almost every day. If current programs do not align with your goals or ethics, a new one may start soon that is a better fit.
The article was produced by the Forest Owner Carbon and Climate Education (FOCCE) program. What do you think? Please take this short survey.
Class 10 chemistry important questions with answers are provided here for Chapter 4 Carbon and its Compounds. These important questions are based on the CBSE board curriculum and correspond to the most recent Class 10 chemistry syllabus. By practising these Class 10 important questions, students will be able to quickly review all of the ideas covered in the chapter and prepare for the Class 10 Annual examinations.
Multiple Choice Type Questions
Q1. C3H8 belongs to the homologous series of
(a ) Alkynes
(b ) Alkenes
(c ) Alkanes
(d ) Cycloalkanes
Answer:
(c ), C3H8 belongs to the homologous series of alkanes.
Q2. Which of the following will undergo an addition reaction?
(a ) CH4
(b ) C3H8
(c ) C2H6
(d ) C2H4
Answer:
(d ) C2H4 is an alkene. Hence it will undergo an addition reaction.
Q3. In a diamond, each carbon atom is bonded to four other carbon atoms to form
(a ) A hexagonal array
(b ) A rigid three-dimensional structure
(c ) A structure in the shape of a football
(d ) A structure of a ring
Answer:
(b ), In a diamond, each carbon atom is bonded to four other carbon atoms to form a rigid three-dimensional structure.
Q4. The allotrope of carbon which is a good conductor of heat and electricity is
(a ) Diamond
(b ) Graphite
(c ) Charcoal
(d ) None of these
Answer:
(b ) The allotrope of carbon which is a good conductor of heat and electricity is graphite.
Q5. How many double bonds are there in a saturated hydrocarbon?
(a ) One
(b ) Two
(c ) Three
(d ) Zero
Answer:
(d ) A saturated hydrocarbon has zero double bonds.
Short Answer Type Questions
Q1. Draw the structural formula of ethyne.
Answer:
Structural Formula: H – C ≡ C – H
Q2. Write the names of the following compounds.
Answer:
(a ) Pentan-1-oic Acid
(b ) But-1-yne
(c ) Heptan-1-al
(d ) Pentan-1-ol
Q3. Identify and name the functional groups present in the following compounds.
Answer:
(a ) Propan-1-ol
(b ) Propan-1-oic Acid
(c ) Pent-3-one
(d ) But-1-ene
Q4. A compound X is formed by the reaction of carboxylic acid C2H4O2 and alcohol in the presence of a few drops of H2SO4. The alcohol on oxidation with alkaline KMnO4 followed by acidification gives the same carboxylic acid as used in this reaction. Give the names and structures of (a) carboxylic acid, (b) alcohol and (c) compound X. Also, write the reaction.
Answer:
Here, the carboxylic acid is ethanoic acid, alcohol is ethanol, and compound X is ethyl ethanoate.
Structure of Ethanoic Acid:
Structure of Ethanol:
Structure of Ethyl Ethanoate:
Reactions Involved:
CH3COOH + CH3CH2COOH → CH3COOC2H5 + H2O
C2H5OH + Alkaline KMnO4 → CH3COOH
Q5. Why are detergents better cleansing agents than soaps? Explain.
Answer:
Detergents are better cleansing agents than soaps because we can use them even with hard water. Detergents have a more decisive cleansing action than soaps and are more soluble in water than soaps. The charged ends of detergents do not form insoluble precipitates with calcium and magnesium ions in hard water. When soap is used for washing clothes with hard water, it reacts with the calcium and magnesium ions of hard water to form an insoluble precipitate called scum. Scum sticks to the cloth to be washed, making cleaning clothes difficult.
Q6. Name the functional groups present in the following compounds
(a ) CH3COCH2CH2CH2CH3
(b ) CH3CH2CH2COOH
(c ) CH3CH2CH2CH2CHO
(d ) CH3CH2OH
Answer:
(a ) A ketone functional group is present in the compound CH3COCH2CH2CH2CH3.
(b ) A carboxylic acid functional group is present in the compound CH3CH2CH2COOH.
(c ) An aldehyde functional group is present in the compound CH3CH2CH2CH2CHO.
(d ) An alcohol functional group is present in the compound CH3CH2OH.
Q7. How is ethene prepared from ethanol? Give the reaction involved in it.
Answer:
Ethanol is heated at 443 k in excess of concentrated sulphuric acid to obtain ethene.
CH3CH2OH + Conc. H2SO4 → CH2 = CH2 + H2O
Q8. Intake of a small quantity of methanol can be lethal. Comment.
Answer:
Intake of a small quantity of Methanol can be lethal as it reacts rapidly with the components of cells. It causes the protoplasm to coagulate. It also affects the optic nerve and causes blindness.
Q9. Gas is evolved when ethanol reacts with sodium. Name the gas evolved and write the balanced chemical equation of the reaction involved.
Answer:
Hydrogen gas is evolved when ethanol reacts with sodium.
2 Na + 2 CH3CH2OH → 2 CH3CH2ONa + H2
Q10. Ethene is formed when ethanol at 443 K is heated with excess concentrated sulphuric acid. What is the role of sulphuric acid in this reaction? Write the balanced chemical equation of this reaction.
Answer:
Concentrated sulphuric acid removes water from ethanol, thereby acting as a dehydrating agent.
CH3CH2OH + Conc H2SO4 → CH2 = CH2 + H2O
Q11. Carbon, the Group (14) element in the Periodic Table, is known to form compounds with many elements. Write an example of a compound formed with
(a ) Chlorine (Group 17 of the periodic table)
(b ) Oxygen (Group 16 of the periodic table)
Answer:
(a ) Carbon tetrachloride (CCl4)
(b ) Carbon dioxide (CO2)
Q12. Crosses or dots in the electron dot structure represent the valence shell electrons.
(a) The atomic number of chlorine is 17. Write its electronic configuration
Answer:
(a ) The electronic configuration of chlorine atom is 2, 8, 7
Q13. Catenation is the ability of an atom to form bonds with other atoms of the same element. Both carbon and silicon exhibit it. Compare the ability of catenation of the two elements. Give reasons.
Answer:
Both carbon and silicon show catenation. But compounds made with silicon are more reactive and less stable. In contrast, bonds formed by carbon are very strong, so organic compounds are more stable than silicon compounds. Thus, we can say that carbon shows better catenation than silicon.
Q14. Unsaturated hydrocarbons contain multiple bonds between the two C-atoms and show addition reactions. Give the test to distinguish ethane from ethene.
Answer:
The bromine water test can be used to distinguish between saturated and unsaturated hydrocarbons. Saturated compounds don’t give an addition reaction. Hence, there won’t be any change in the reaction mixture. In contrast, if an unsaturated hydrocarbon is added to bromine water, its colour will decolourise.
Saturated hydrocarbon + Br₂ → No Reaction (No Colour Change)
Unsaturated hydrocarbon + Br₂ → Reaction will occur (Decolourise)
Q15. Match the reactions given in Column (A) with the names given in column (B).
Column (A) Column (B) CH3OH + CH3COOH + H+ → CH3COOCH3 + H2O Addition reaction CH2 = CH2 + H2 + Ni → H3C – CH3 Substitution reaction CH4 + Cl2 + Sunlight → CH3Cl + HCl Neutralisation reaction CH3COOH + NaOH → CH3COONa + H2O Esterification reactionAnswer:
Column (A) Column (B) CH3OH + CH3COOH + H+ → CH3COOCH3 + H2O Esterification reaction CH2 = CH2 + H2 + Ni → H3C – CH3 Addition reaction CH4 + Cl2 + Sunlight → CH3Cl + HCl Substitution reaction CH3COOH + NaOH → CH3COONa + H2O Neutralisation reactionQ16. Write the structural formulae of all the isomers of hexane.
Answer:
There are five isomers of hexane.
Q17. What is the role of metal or reagents written on arrows in the given chemical reactions?
Answer:
(a ) Ni acts as a catalyst.
(b ) Concentrated H2SO4 acts as a catalyst and a dehydrating agent.
(c ) Alkaline KMnO4 acts as an oxidising agent.
Long Answer Type Questions
Q1. A salt X is formed, and gas is evolved when ethanoic acid reacts with sodium hydrogen carbonate. Name the salt X and the gas evolved. Describe an activity and draw the diagram of the apparatus to prove that the evolved gas is the one you have named. Also, write a chemical equation of the reaction involved.
Answer:
The salt X is sodium ethanoate (CH3COONa), and the evolved gas is carbon dioxide (CO2).
Take a test tube and add ethanoic acid (CH3COOH). Add sodium bicarbonate (NaHCO3) to the acid, close the test tube’s mouth with a cork, and attach a delivery tube.
Take lime water in another test tube and attach it to the delivery tube. The lime water turns milky. This indicates that the evolved gas is carbon dioxide.
Ca(OH)2 + CO2 → CaCO3 + H2O
The milkiness is due to the formation of CaCO3.
Reaction Involved: CH3COOH + NaHCO3 → CH3COONa + H2O + CO2 (g)
Q2. (a ) What are hydrocarbons? Give examples.
(b ) Give the structural differences between saturated and unsaturated hydrocarbons with two examples each.
(c ) What is a functional group? Give examples of four different functional groups.
Answer:
(a ) A hydrocarbon is any of a class of organic compounds made up of carbon and hydrogen. Methane and Ethane are examples of hydrocarbons.
(b )
S. No. Saturated hydrocarbon Unsaturated hydrocarbon 1. Saturated hydrocarbons contain carbon-carbon single bonds. Unsaturated hydrocarbons contain at least one carbon-carbon double or triple bond. 2. They have sp3 hybridised carbon atoms having a general formula CnH2n + 2. They have sp2 or sp hybridised carbon atoms having a general formula CnH2n or CnH2n – 2.(c ) A functional group is the atoms group in a molecule that specifies the chemical behaviour of the molecule. Atoms in a functional group are bonded by the covalent bond.
Q3. Name the reaction which is commonly used in the conversion of vegetable oils to fats. Explain the reaction involved in detail.
Answer:
Vegetable oils generally have long chains of unsaturated carbons, while animal fats have long chains of saturated carbons. An addition reaction is used in the conversion of vegetable oils to fats. It is known as the hydrogenation of oil.
An addition reaction is carried out in the presence of Ni as a catalyst.
Q4. (a ) Write the formula and draw the electron dot structure of carbon tetrachloride.
(b ) What is saponification? Write the reaction involved in this process.
Answer:
(a ) The formula of carbon tetrachloride is CC4.
Electron dot structure of Carbon tetrachloride:
(b ) Saponification is a methodology of manufacturing soap by the hydrolysis of fats or oils with a base like sodium hydroxide.
Reaction: CH3COOC2H5 + NaOH → CH3COONa + C2H5OH
Q5. Esters are sweet-smelling substances and are used in making perfumes. Suggest some activity and reaction in preparing an ester with a well-labelled diagram.
Answer:
Esters are produced by heating carboxylic acids with alcohols in the presence of an acid catalyst. The catalyst that can be used is concentrated sulphuric acid.
CH3COOH + CH3CH2OH + Conc. H2SO4 ⟶ CH3CH2COOCH2CH3 + H2O
Q6. A compound C (molecular formula, C2H4O2) reacts with Na – metal to form a compound R and evolves into a gas which burns with a pop sound. Compound C on treatment with an alcohol A in the presence of an acid forms a sweet-smelling compound S (molecular formula, C3H6O2). On addition of NaOH to C, it also gives R and water. S on treatment with NaOH solution gives back R and A. Identify C, R, A, and S and write down the reactions involved.
Answer:
Here, compound C is ethanoic acid (CH3COOH), compound R is sodium ethanoate (CH3COONa), compound A is ethanol (C2H5OH), and compound S is ethyl ethanoate (CH3COOC2H5).
2 CH3COOH + 2 Na → 2 CH3COONa + H2
CH3COOH + C2H5OH → CH3COOC2H5 + H2O
CH3COOC2H5 + NaOH → CH3COONa + C2H5OH
Thus, compound C is Ethanoic acid.
Q7. Look at Figure 4.1 and answer the following questions
(a ) What change would you observe in the calcium hydroxide solution taken in tube B?
(b ) Write the reaction involved in test tubes A and B.
(c ) Would you expect the same change if ethanol is given instead of ethanoic acid?
(d ) How can a solution of lime water be prepared in the laboratory?
Answer:
(a ) Calcium hydroxide solution in test tube B will become milky due to the formation of calcium carbonate.
(b ) Reaction in test tube A:
CH3COOH + NaHCO3 → CH3COONa + CO2 + H2O
Reaction in test tube B:
Ca(OH)2 + CO2 → CaCO3 + H2O
(c ) If ethanol is given instead of ethanoic acid, similar changes won’t be observed because ethanol does not react with sodium hydrogen carbonate.
(d ) First, take distilled water in a beaker and mix calcium carbonate powder. After stirring entirely, wait till the mixture settles down. Decant the clear liquid from the beaker. This liquid is lime water.
Q8. How would you bring about the following conversions? Name the process and write the
reaction.
(a) Ethanol to Ethene.
(b) Propanol to Propanoic acid.
Answer:
(a) Ethanol is heated at 443 K in the presence of an excess of conc. Sulphuric acid. This reaction is known as dehydrogenation.
CH3CH2OH + Conc. H2SO4 → CH2 = CH2 + H2O.
(b) Propanol is treated with alkaline potassium permanganate or acidified potassium dichromate to get propanoic acid.
CH3CH2CH2OH + Alkaline KMnO4 / Acidified K2Cr2O7 → CH3CH2COOH
Q9. Draw the possible isomers of the compound with the molecular formula C3H6O and give their electron dot structures.
Answer:
The two possible isomers of the compound with the molecular formula C2H6O are
Electron dot structures of the compound with the molecular formula C2H6O are
Q10. Explain the given reactions with the examples
(a) Hydrogenation reaction
(b) Oxidation reaction
(c) Substitution reaction
(d) Saponification reaction
(e) Combustion reaction
Answer:
(a) Addition of hydrogen to an unsaturated hydrocarbon to get a saturated hydrocarbon is known as a hydrogenation reaction.
CH2 = CH2 + H2 + Ni → CH3 − CH3
(b) When oxygen is added to alcohol to make carboxylic acid, it is known as an oxidation reaction.
CH3CH2CH2OH + Alkaline KMnO4 / Acidified K2Cr2O7 → CH3CH2COOH
(c ) A substitution reaction is a class of chemical reactions in which another atom or group substitute an atom or group of atoms.
CH4 + Cl2 + Sunlight → CH3Cl + HCl
(d) Saponification is a methodology of manufacturing soap by the hydrolysis of fats or oils with a base like sodium hydroxide.
Reaction: CH3COOC2H5 + NaOH → CH3COONa + C2H5OH
(e) A combustion reaction is a chemical reaction in which a compound and an oxidant react to form heat and a new product.
Example: Burning of wood.
Q11. An organic compound A on heating with concentrated H2SO4 forms a compound B which on the addition of one mole of hydrogen in presence of Ni forms a compound C. One mole of compound C on combustion forms two moles of CO2 and 3 moles of H2O. Identify the compounds A, B and C and write the chemical equations of the reactions involved.
Answer:
Compound A is ethanol (CH3CH2OH). When it is heated with concentrated sulphuric acid, we get ethene (CH2 = CH2). Thus, compound B is ethene (CH2 = CH2).
CH3CH2OH + Conc.H2SO4 → CH2 = CH2 + H2O
When ethene (CH2 = CH2) is heated in the presence of nickel, we get ethane (CH3 - CH3).
Thus, compound C is ethane (CH3 - CH3).
CH2 = CH2 + Ni → CH3 - CH3
When 1 mole of ethane (CH3 - CH3) is burnt, we get 2 moles of carbon dioxide (CO2) and 3 moles of water (H2O).
2 CH3 - CH3 + 7 O2 → 4 CO2 + 6 H2O
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