
Udeesha Tomar
AVP - Strategy and Solutions
Leading procurement research solutions across chemicals, materials, and food & beverages, with expertise in price forecasting and market analytics.
The report provides detailed analysis essential for establishing a cyclopropylamine production plant. It encompasses all critical aspects necessary for cyclopropylamine production, including the cost of cyclopropylamine production, cyclopropylamine plant cost, cyclopropylamine production costs, and the overall cyclopropylamine production plant cost. Additionally, the study covers specific expenditures associated with setting up and operating a cyclopropylamine production plant. These encompass production processes, raw material requirements, utility requirements, infrastructure needs, machinery and technology requirements, manpower requirements, packaging requirements, transportation requirements, and more.
Cyclopropylamine is a small primary amine with a three-membered ring. It is mainly used as an intermediate in pharmaceutical & agrochemical production. Commercial material is usually a clear, colorless to pale yellow liquid with a strong amine odor. It boils at a low temperature and mixes easily with water. The product needs closed handling as it is highly flammable and corrosive. Most buyers use it to make higher-value intermediates or active ingredients rather than adding it directly to a finished product.
Commercial buyers include pharmaceutical intermediate manufacturers, API producers, pesticide companies, contract manufacturers, and fine-chemical laboratories. Demand comes from fluoroquinolone chemistry, triazine insecticides, herbicide intermediates, and medicinal chemistry & custom synthesis. Supply is handled by dedicated intermediate plants, multipurpose amine producers, exporters, and laboratory reagent companies. China is an important production & export center. India, Europe, Japan, and North America also have regular users and specialist suppliers. A plant investor needs to check cyclopropanecarboxamide supply, hypochlorite strength, caustic quality, reaction yield & distillation recovery, and customer approval time. Buyers also look at assay, water, color, chloride, related amines, residual salts, and batch consistency.
Cyclopropylamine has the molecular formula C3H7N and a molecular weight of 57.09 g/mol. It is also known as cyclopropanamine or aminocyclopropane. Its structure consists of a three-membered carbon ring attached to an amino group. It is a volatile liquid that boils at around 50 degree Celsius and mixes completely with water. Suppliers offer cyclopropylamine at different purity levels for industrial synthesis, pharmaceutical intermediates, and custom synthesis & laboratory research. Common quality checks include appearance, identity, assay by gas chromatography or titration, water content, color, and refractive index. Depending on the production route and customer requirements, testing may also cover chloride, residual cyclopropanecarboxamide, related amines & metals, non-volatile residue, and unidentified organic impurities. Laboratory quantities are generally supplied in sealed bottles, while bulk packaging is selected according to the supplier’s specifications and the requirements for handling a highly flammable & corrosive liquid.
Pharmaceutical intermediates take a large share of commercial cyclopropylamine. The cyclopropyl group is added to molecules to change biological activity, metabolic stability, or binding behavior. The amine is used in fluoroquinolone production and medicinal chemistry work. Agrochemical companies buy it for cyclopropylamino triazines and insect growth regulators such as cyromazine. Fine-chemical laboratories use smaller packs for route development & reference work, and custom nitrogen compounds. The grade depends on the application. Large-volume intermediate production may use a controlled industrial specification, whereas regulated pharmaceutical work usually needs tighter impurity records, traceability, change control & retained samples.
Pharmaceutical production is a major end-use market for cyclopropylamine. It is used as a small amine building block in the manufacture of drug intermediates and active pharmaceutical ingredients. Fluoroquinolone production is a well-known application, and cyclopropylamino groups are also studied in compounds for several therapeutic areas. Buyers generally check assay, moisture, appearance, color, identity, and batch consistency. Depending on the production route, specifications may also include related amines, chloride, and residual cyclopropanecarboxamide. Changes in impurity levels can affect later reactions, purification requirements, and the quality of the final API. Consistent supply is important because the material is often consumed in planned production campaigns and may not be easily replaced in an established production process.
Agrochemicals are another important use. Cyclopropylamine reacts with chlorinated triazines and related intermediates to produce insect growth regulators, veterinary ectoparasiticides, herbicide intermediates, and other crop-protection chemicals. Cyromazine is one of its best-known applications, with cyclopropylamine providing the cyclopropylamino group in the molecule. Aqueous or low-water grades may be selected depending on the reaction and purification system used by the manufacturer. Product requirements may cover active content, water, chloride, residual amide, color, and packaging. Orders can vary during the year because many agrochemical products are manufactured in scheduled or seasonal campaigns.
Custom synthesis, medicinal chemistry, and laboratory research consume smaller quantities in many cases, though customers often require high-purity material. Cyclopropylamine is used to prepare amides, ureas, sulfonamides & heterocyclic compounds, pharmaceutical screening molecules, and some metal complexes. The material is volatile, hygroscopic, highly flammable, strongly basic, and corrosive. Reagent suppliers normally pack it in tightly sealed containers, and some grades are stored under inert gas. Laboratory customers may require a certificate of analysis, identity data, safety documentation, and consistent limits on impurities. Plants serving industrial and laboratory customers may need separate packing arrangements, careful line clearance, and suitable systems for filling drums and smaller bottles.
Demand comes mainly from a small number of pharmaceutical and agrochemical products. Orders can fall if an active ingredient goes out of demand, a customer moves production, or another synthesis route is chosen. Campaign buying also causes irregular plant loading. Sales to a few large customers may make up a major part of sales, so losing one approval may leave capacity unused. Cyclopropylamine is also competing with protected cyclopropyl building blocks and pathways that install the ring at a different stage. Customers do not switch suppliers quickly because a different profile of impurity may carry into a regulated product. Supplier qualification is time-consuming and adds cost.
The main production risks are linked to hypochlorite handling, heat generation during the Hofmann reaction, salt buildup, and the recovery of volatile cyclopropylamine. Poor temperature control may increase amide hydrolysis or lead to urea formation. Incorrect hypochlorite concentration or an uneven feed rate can reduce conversion and leave reactive intermediates in the batch. Product losses may also occur through vents, condensers, transfer lines, and sampling points. A high water content in the distillate increases the burden on the final rectification step. The product may be rejected if it contains chloride, caustic residues, unwanted color, or related amine impurities. The process also generates a large volume of salt-rich wastewater. Closed equipment, nitrogen blanketing & explosion-proof systems, corrosion-resistant materials, proper ventilation, and reliable emergency controls are required during storage and filling.
The Cyclopropylamine production plant report covers the complete production process and provides cost details for Hofmann degradation, caustic treatment, distillation, rectification, testing, storage, and packing.
The production begins with preparing an aqueous solution of cyclopropanecarboxamide. Then, sodium hypochlorite is added gradually while the temperature is controlled to manage the reaction heat & limit unwanted reactions. This step generates an N-chlorinated intermediate. Then, concentrated sodium hydroxide is added, and the mixture is heated to complete the Hofmann rearrangement and produce cyclopropylamine. The cyclopropylamine is separated from the alkaline mixture by distillation. Most of the product may be collected first as a fraction containing very little water. A later water-rich fraction may be returned for further distillation or treated separately. Continuous reaction and distillation systems may be used where consistent product quality is required. The purified cyclopropylamine is collected in closed tanks, tested, and filled under controlled conditions. Amide purity, hypochlorite strength, sodium hydroxide concentration, reaction temperature & reflux control, condenser efficiency, and product recovery affect the final yield and production cost.
When the plant buys the intermediate, cyclopropanecarboxamide is usually the largest direct raw-material expense. Its price depends on cyclopropanecarboxylate supply, ammonia cost, purity, and contract size. Sodium hypochlorite and sodium hydroxide are also used in sizable quantities. They add to raw-material cost and create a salt-rich wastewater stream. Mineral acid, nitrogen, antifoam, treatment chemicals, and packaging add further expense. Chilled water or refrigeration is needed in the early reaction stage. Steam and electricity are used for distillation, rectification, pumping, cooling & ventilation. Low conversion, overhead loss, or too much water in the crude distillate raises the cost of every kilogram of finished product.
Costs also depend on the plant integration, batch size, operating rate, and the grade sold. An integrated producer can produce cyclopropanecarboxamide from gamma-butyrolactone or a chlorobutyrate ester. This adds ring opening, esterification & cyclization, ammonolysis, recovery of solvent, and extra equipment. A stand-alone Hofmann unit is easier to operate but requires the purchase of an amide. Energy prices influence reaction cooling and rectification. Wastewater can be expensive to treat because it contains sodium chloride, carbonate & excess caustic, and organic traces. Pharmaceutical-intermediate grade needs more testing, documentation, cleaning, and change control than general industrial material. Small research packs carry a much higher filling and distribution cost per kilogram.
Cyclopropanecarboxamide is the direct feed used in the common final conversion route. Buyers usually specify assay, water, cyclopropanecarboxylic acid, ester residue, color, insoluble matter, and related amides. It can be purchased as a dry solid or sent as an aqueous stream from an integrated unit. Sodium hypochlorite needs a known active-chlorine content, since heat, light, storage time, metals, and contamination reduce its strength. Sodium hydroxide may be bought as concentrated liquid or solid caustic, depending on plant design. Carbonate, chloride, iron, and actual concentration can affect the reaction and equipment corrosion. Reliable process water, nitrogen, steam, and cooling are also needed because product recovery depends on good temperature and distillation control.
An integrated plant may begin with gamma-butyrolactone. It is converted to 4-chlorobutyric acid, esterified, cyclized to a cyclopropanecarboxylate, and then reacted with ammonia to form cyclopropanecarboxamide. This route also needs hydrochloric acid, alcohol, alkoxide or hydroxide, ammonia, solvent, and catalysts. Solvent recovery and unreacted ester recovery have a direct effect on economics. The cheapest amide does not always give the lowest amine cost. High water, acid, or ester residue can reduce throughput or upset the Hofmann step. Weak hypochlorite can increase chemical use and salt generation. Procurement should be judged on usable active content and conversion performance, not only the invoice price.
Purchase contracts should cover identity, assay, impurity limits, water, color, packaging, batch size, and change notification. Hypochlorite deliveries need active-chlorine testing and storage conditions that slow decomposition. Caustic tanks require compatible materials and protection from carbon dioxide pickup. Cyclopropanecarboxamide lots should be checked for purity and dissolution behavior before release. Finished-product packaging must limit vapor loss, moisture entry, and leakage in transit. Long-term agreements with upstream suppliers can reduce interruptions between campaigns. Plants using imported feedstocks also need enough safety stock for port delays, dangerous-goods transport, and supplier maintenance shutdowns.
The main environmental load comes from the salt-bearing aqueous stream left after Hofmann degradation. Better conversion, accurate hypochlorite dosing, more concentrated reaction conditions, and recovery of amine from water-rich fractions can reduce waste per unit. Closed condensers and vapor-recovery systems also limit emissions and product loss. An integrated plant may recover solvent, alcohol, and unreacted cyclopropanecarboxylate. Wastewater treatment needs to handle pH, residual oxidant, chloride, carbonate, ammonia, and organic load. Keeping the high-salt stream separate from general plant effluent can make treatment and disposal easier.
Cyclopropylamine is handled as a highly flammable, corrosive, and harmful chemical. Transport requires dangerous-goods classification, approved containers, correct labels, and trained carriers. The plant needs explosion-protected equipment, grounded transfer lines, closed sampling, emergency showers, fire-water coverage, and corrosion-resistant piping. Exposure controls are important because the liquid & vapor can harm the skin, eyes, and respiratory system. Producers supplying pharmaceutical or agrochemical customers also need traceability, certificates, controlled specifications, deviation records, and change notification. Local rules may cover chemical registration, worker safety & transport, emissions, and waste discharge. Customer audits may also review the quality system and emergency response arrangements.
Plant investment includes solution vessels, cooled reactors, hypochlorite metering, caustic handling, degradation reactors, gas disengagement, crude distillation, fine rectification, condensers, reflux drums, receivers, product tanks, pumps & closed filling equipment. Integrated sites also need equipment for ring opening, esterification, cyclization, ammonolysis, filtration, solvent recovery, and intermediate drying. Utility systems cover chilled and cooling water, steam, electricity, nitrogen, compressed air, scrubbers, ventilation, fire protection, and high-salt wastewater handling. The laboratory normally needs gas chromatography, titration, water, color, density, refractive index, chloride, and impurity testing. Civil work includes bunded tank areas, separate oxidizer and caustic storage, production buildings, warehouses, and dangerous-goods loading points. The Cyclopropylamine plant setup cost depends on capacity, integration, reaction cooling, column design, vapor recovery, automation, storage & effluent facilities. Feedstocks, hypochlorite, caustic, acid, utilities, labor, maintenance, testing, packaging, waste treatment, and freight all add to cyclopropylamine production cost. Unit production cost is mainly affected by amide price, active-chlorine and caustic use, yield, water load, rectification energy, vent loss, labor, and packaging. Product grade, campaign size & location, compliance work, and operating efficiency also matter.
A suitable site needs dependable access to cyclopropanecarboxamide or upstream feedstocks, sodium hypochlorite, sodium hydroxide, utilities, and dangerous-goods transport. A chemical cluster may offer shared effluent treatment, fire services, hazardous-waste facilities, laboratories, and trained operators. Strong cooling and reliable power are important because loss of agitation or condensation can affect safety and yield. Road and port access matter when customers are spread across several regions. Hypochlorite storage must remain away from acids and organic materials. Cyclopropylamine tanks need ventilation, nitrogen blanketing, bunding, and proper fire separation.
Investors need to choose between a final-stage Hofmann unit and an integrated plant that also makes cyclopropanecarboxamide. Integration gives more control over feedstock supply, but it also raises capital cost, solvent inventory, process risk, and working capital. A multipurpose plant can share reactors and columns, though cleaning and production scheduling must prevent carryover. Continuous reaction and two-stage rectification may improve recovery when demand supports regular operation. Smaller batch plants offer more flexibility, but labor and energy cost per kilogram may be higher. Payback depends on customer contracts, plant loading, amide sourcing, conversion, wastewater charges, product grade, and approval time.
China is an important production & export region for cyclopropylamine, supported by pharmaceutical intermediates, agrochemical production, and cyclopropane chemistry. Chinese suppliers sell industrial quantities as well as smaller export packs. India has a large pharmaceutical and pesticide base and buys the material for production, development, and resale. Western Europe remains an important market for regulated pharmaceutical and fine-chemical grades. Japan supplies high-purity laboratory material and uses cyclopropyl building blocks in research and specialty synthesis. North America has pharmaceutical, agrochemical & research demand, with supply moving through domestic and international distributors. Industrial production is often carried out in multipurpose intermediate plants, while testing, repacking, and distribution may take place closer to the customer. The Cyclopropylamine production plant project report analyzes the availability of feedstock, Hofmann degradation, distillation, plant capacity, quality requirements, utilities, labor, equipment, storage & wastewater treatment. Industrial production economics primarily depend on amide cost, oxidant and caustic consumption, recovery, plant use, and the grade sold.
Zhejiang Shaxing Pharmaceutical & Chemical Co., Ltd.
Tokyo Chemical Industry Co., Ltd.
Merck KGaA, Sigma-Aldrich
FUJIFILM Wako Pure Chemical Corporation
Apollo Scientific Ltd.
Hangzhou Keying Chem Co., Ltd.
Cyclopropylamine Production Cost Report

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| Particulars | Details |
|---|---|
| Product Name | Cyclopropylamine |
| Scope | Production Process: Process Flow, Material Flow, Material Balance Raw Material and Product Specifications: Raw Material Consumption, Product and Co-product Generation Land and Site Cost: Offsites/Civil Works, Equipment Cost, Auxiliary Equipment Costs, Contingency, Engineering and Consulting Charges, Working Capital Variable Cost: Raw Material, Utilities, Other Variable Costs Fixed Cost: Labor Requirements and Wages, Overhead Expenses, Maintenance Charges, Other Fixed Costs Financing Costs: Interest on Working Capital, Interest on Loans Other Costs: Depreciation Charges, General Sales and Admin Cost |
| Currency | US$ (Data can also be provided in the local currency) | Customization Scope | The report can be customized as per the requirement of the customer |
| Post-Sale Analysts Report | 10-12 weeks of post-purchase analyst support after report delivery for any queries from the deliverable |
| Delivery Format | PDF and Excel format through email (editable version in PPT/Word format of the report can be also provided on special request) |
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AVP - Strategy and Solutions
Leading procurement research solutions across chemicals, materials, and food & beverages, with expertise in price forecasting and market analytics.
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