Proppant
I have found results from1000+products and500+suppliers aboutProppant
Oil Fracturing Ceramic Proppants 52MPa 69MPa for Oil Hydraulica Fracturing
30-50 Mesh Low-Turbidity Proppant HS 68151000 CAS 1344-28-1 Turbidity <100ntu
70-100 Mesh Fine Fracture Sand HS 68151000 CAS 1344-28-1 for Narrow Fractures Ceramic Proppant
16-30 Mesh High-Flow Proppant HS 68151000 CAS 1344-28-1 Heat Resistance 200°C
20-40 Mesh Eco-Friendly Proppant HS 68151000 CAS 1344-28-1 API Certified
20-40 Mesh High-Flow Proppant HS 68151000 CAS 1344-28-1 Superior Conductivit
70-140 Mesh Fine Proppant HS 68159910 CAS 14808-60-7 for Low Permeability Reservoirs
16-30 Mesh Hpht Proppant HS 68151000 CAS 1344-28-1 for Ultra-Deep Wells
40-70 Mesh Low-Damage Proppant HS 68151000 CAS 1344-28-1 Reservoir Friendly
40-70 Mesh Anti-Caking Proppant HS 68151000 CAS 1344-28-1 Anti-Blocking
Durable Proppant for Extended Well Life Production
High Alumina Proppant HS6914900000 CAS1344-28-1 From Bauxite with Al2O3 Content
High-Performance Ceramic Proppant HS6914900000 for Oil & Gas
High Alumina Ceramic Proppant HS6914900000 From Bauxite
Acid Resistant Proppant HS6914900000 CAS1344-28-1 with Solubility <7% for Harsh Environments
16-40 Ceramic Sand Oil Fracturing with Fracturing Proppant Fracture Ceramic Sand
Enhanced Conductivity Resin-Coated Ceramic Proppant
Customized Ceramic Proppant HS6914900000 CAS1344-28-1 with Tailored Specifications
Industrial Grade Ceramic Proppant HS6914900000 CAS1344-28-1 for Various Applications
30/50 Mesh Ceramic Sand Proppant HS6914900000 for Shale Gas Fracturing
40/70 Mesh Fracturing Proppant HS6914900000 for Tight Formations
High-Strength Ceramic Proppant HS6914900000 for Deep Well Use
Acid Resistant Proppant HS6914900000 CAS1344-28-1 with Solubility Below 5%
Proppant with High Wear Resistance HS6914900000 CAS1344-28-1 for Abrasive Environments
Proppant for High Pressure Wells HS6914900000 CAS1344-28-1 with 102MPa Strength for Extreme Depth
Drilling Mud Materials Supplier Fracturing Proppant Ds-206
Sourcing guidance for Proppant
What are the key technical specifications to evaluate when sourcing proppants for hydraulic fracturing?
Buyers must prioritize crush resistance (K-value), which determines the maximum depth and pressure the proppant can withstand. Essential metrics include sphericity and roundness (ideally ≥ 0.7 according to API standards) to ensure optimal fluid conductivity. Additionally, verify the acid solubility (should be < 2% for high-quality ceramic) and turbidity to prevent formation damage. For resin-coated varieties, the curability and bond strength are critical to prevent proppant flowback.
Which international standards and certifications are mandatory for proppant quality assurance?
All proppants must strictly adhere to API RP 19C (ISO 13503-2) standards, which outline the testing procedures for measurement of properties. Ensure the supplier provides a Third-Party Lab Test Report (e.g., from Stim-Lab or PropTester) covering sieve analysis, bulk density, and specific gravity. For international trade, ISO 9001:2015 certification of the manufacturing facility is a baseline requirement to ensure process consistency.
How do usage scenarios dictate the choice between Frac Sand and Ceramic Proppants?
Frac Sand (Natural Silica) is the most economical choice for shallow wells with low closure stress (< 6,000 psi). However, for deep-water or high-pressure reservoirs (> 8,000 psi), Ceramic Proppants are necessary due to their higher thermal stability and superior crush strength. Resin-Coated Proppants (RCP) should be selected when proppant flowback control is a priority or when stress distribution needs to be improved to prevent grain crushing.
What are the logistics and storage requirements for large-scale proppant procurement?
Proppants are high-density bulk materials; therefore, moisture control is vital, especially for resin-coated types which can clump. Sourcing should involve Jumbo Bags (FIBC) with moisture-proof liners or bulk pneumatic tankers. Ensure the supplier has experience with multimodal logistics (rail-to-port-to-sea) to minimize handling breakage, as excessive handling can increase the fines content, reducing well productivity.
Cross-Border Procurement Risks and Strategic Advice for Proppants
How can buyers mitigate the risk of quality degradation during cross-border transit?
Implement a Pre-Shipment Inspection (PSI) specifically focusing on sieve analysis at the port of loading. Even if the factory report is clean, mechanical friction during transport can create 'fines.' Use Made-in-China.com's Secured Trading services to ensure that final payment is only released upon verification of the Bill of Lading and Quality Certificate matching the agreed specifications.
What strategies should be used when negotiating with large-scale proppant manufacturers?
Negotiate based on Total Delivered Cost (TDC) rather than just the EXW price, as logistics can account for 50% of the total expense. Request tiered pricing based on annual volume (e.g., 5,000+ tons) and ask for a fixed-price contract for 6-12 months to hedge against fluctuations in raw material (bauxite/silica) and energy costs.
What are the critical transaction security tips for high-value industrial mineral orders?
Always verify the supplier's export license for minerals and their environmental compliance permits. Use Letter of Credit (L/C) for first-time large orders to protect capital. For smaller trial shipments, utilize the Escrow services provided by Made-in-China.com to guarantee that the funds are protected until the goods reach the destination port and pass basic inspection.
How should shipping and customs be handled for proppants entering North America or the Middle East?
Ensure all packaging is ISPM 15 compliant (treated wood pallets). For the US market, be aware of Anti-Dumping duties that may apply to certain ceramic products; always check the latest Harmonized System (HS) Code (typically 2505.10 or 6914.90) classifications. Work with a freight forwarder experienced in bulk break or containerized mineral logistics to navigate port congestion and specialized offloading requirements.





























