Diagram of PYS Symons Cone Crusher (Spring Cone Crusher)

Introduction of PYS Symons Cone Crusher (Spring Cone Crusher)
PYS Symons Crusher is also a spring-safe circular crusher. PYS Symons Crusher has created a new concept of crushing materials and is an ideal equipment for more crushing and less grinding. PYS Symons Crusher has the characteristics of high productivity, fine product size, good product shape, light equipment weight, convenient maintenance and easy operation. No matter in terms of output, product particle size uniformity, product fineness, component life, operation rate and production maintenance management costs, the performance of PYS Symons Crusher is better than that of Symons Crusher (spring cone crusher).
Advantages of PYS Symons Cone Crusher (Spring Cone Crusher)
1. High-Efficiency Crushing Performance: PYS Symons Crusher delivers exceptional crushing force through optimized kinematics design, achieving 25-30% higher production capacity compared to conventional models while maintaining energy efficiency.
2. PYS symons cone crusher Dual-Chamber Configuration Flexibility: Featuring standard and short-head chamber configurations, Symons Crusher adapts to various feed sizes (max. 300mm) and product requirements (adjustable discharge 6-38mm), with a throughput range of 45-1270 TPH depending on chamber selection.
3. PYS Symons cone crusher multi level crushing capability: This Spring Cone Crusher's system is equipped with two crusher specifications (B/D), each providing three interchangeable lining profiles, achieving progressive reduction ratios in different stages of crushing applications.
4. PYS Symons spring cone crusher has intelligent Overload Protection system integrates:
5. PYS Symons Crusher has Advanced Lubrication System: Dual-circuit oil filtration;Temperature-controlled circulation (40-55℃ operating range);Flow monitoring sensors; high pumping capacity.
6. Compared with traditional domestic Symons Crusher, PYS Symons Crusher adopts wave pressure locking, hydraulic adjustment, hydraulic cavity cleaning and other devices, and the automation intensity is greatly improved.
7. PYS Symons Crusher has high design and manufacturing quality, long service life, reduction in routine service time, low cost, and all maintenance work can be easily carried out on the upper part of the machine.
8. PYS Strong adaptability: -40℃ to +60℃ ambient operation;Multi-stage air filtration;Corrosion-resistant coating.
9. PYS Good stability and high durability: reliable design, excellent component material, and processing accuracy provide guarantees for the stability and durability of the equipment.
10. PYS Convenient cavity cleaning: The hydraulic cavity cleaning system can quickly clean the crushing cavity and greatly reduce downtime.
11. Complete product and multiple crushing chamber types: PYS has four specifications, each specification has standard type and short head type, and each model is equipped with multiple crushing chamber types, which can better adapt to the needs of medium and fine crushing operations in different crushing processes.
Technical Parameters of PYS symons cone crusher (Spring Cone Crusher)
| PYS Cone crusher | ||||||||
| Model | Crushingfeet (mm) | Diagramof Chamber | Min.Discharge (mm) | Motor | Total Weight (t) | |||
Closed Inlet | Opening Outlet | Type | Power (kW) | |||||
| PYS-B0910 | 3 900 | F | 83 | 102 | 10 | Y315S-6 | 75 | 9.98 |
| PYS-B0917 | C | 159 | 175 | 13 | ||||
| PYS-B0918 | EC | 163 | 178 | 25 | ||||
| PYS-D0904 | 3 900 | F | 13 | 41 | 3 | 10.5 | ||
| PYS-D0906 | F | 33 | 61 | 3 | ||||
| PYS-D0907 | C | 51 | 76 | 6 | ||||
| PYS-B1313 | 41/4 1295 | F | 109 | 137 | 13 | JS126-6 | 155 | 24.2 |
| PYS-B1321 | M | 188 | 210 | 16 | ||||
| PYS-B1324 | C | 216 | 241 | 19 | ||||
| PYS-B1325 | EC | 238 | 259 | 25 | ||||
| PYS-D1306 | 41/4 1295 | F | 29 | 64 | 3 | 24.6 | ||
| PYS-D1308 | M | 54 | 89 | 6 | ||||
| PYS-D1310 | C | 70 | 105 | 10 | ||||
| PYS-D1313 | EC | 98 | 133 | 16 | ||||
| PYS-B1620 | 51/2 1676 | F | 188 | 209 | 16 | JS136-6 | 240 | 45 |
| PYS-B1624 | M | 213 | 241 | 22 | ||||
| PYS-B1626 | C | 241 | 268 | 25 | ||||
| PYS-B1636 | EC | 331 | 368 | 38 | ||||
| PYS-D1607 | 51/2 1676 | F | 35 | 68 | 5 | 45.6 | ||
| PYS-D1608 | M | 54 | 89 | 6 | ||||
| PYS-D1613 | C | 98 | 133 | 10 | ||||
| PYS-D1614 | EC | 117 | 158 | 13 | ||||
| PYS-B2127 | 7 2134 | F | 253 | 278 | 19 | Y400/Y450-6 | 400 | 104 |
| PYS-B2133 | M | 303 | 334 | 25 | ||||
| PYS-B2136 | C | 334 | 369 | 31 | ||||
| PYS-B2146 | EC | 425 | 460 | 38 | ||||
| PYS-D2110 | 7 2134 | F | 51 | 105 | 5 | 105 | ||
| PYS-D2113 | M | 95 | 132 | 10 | ||||
| PYS-D2117 | C | 127 | 178 | 13 | ||||
| PYS-D2120 | EC | 152 | 203 | 16 | ||||
| Note: The above parameter table is for reference only, and the actual production capacity depends on the material type and production conditions | ||||||||
Working principle of PYS Symons Cone Crusher (Spring Cone Crusher)
PYS Symons Crusher operates via a precisely engineered mechanical process that transforms rotational energy into powerful compressive forces.
Symons Crusher operation begins when the electric motor transmits torque through a multi-stage reduction system. This drives the eccentric bushing assembly into a controlled rotation. As a result, the eccentric motion of Symons Crusher makes the main shaft assembly perform a gyratory pendulum movement. Consequently, the movable crushing cone follows a compound rotational path relative to the fixed concave mantle.
Inside the convergently aligned crushing surfaces of Symons Crusher, material comminution takes place through three distinct mechanisms:
1. Progressive Compression of Symons Crusher: In the upper chamber, the material undergoes a gradual reduction due to interparticle compression.
2. Interparticle Impact of Symons Crusher: The material fractures more rapidly as it follows controlled free-fall trajectories.
3. Shear Stressing of Symons Crusher: Eccentric shearing forces cause the material to cleave along its natural fracture planes.
The optimized geometry of Symons Crusher's crushing chamber ensures continuous material processing in the following ways:
- Feed Size Accommodation of Symons Crusher: Spring Cone Crusher cavity gradually reduces in size from the feed opening to the discharge zone.
- Interparticle Attrition of Symons Crusher: There is multi-layered crushing between successive material strata.
- Controlled Retention of Symons Crusher: The dwell time is optimized for progressive size reduction.
The processed aggregates meet the specified granulometry through the following means:
- Dynamic Gap Regulation of Symons Crusher: The clearance of the crushing chamber is adjusted hydraulically.
- Gravity-Assisted Discharge of Symons Crusher: The material flows naturally through the non-restrictive chamber profiles.
- Cycle Optimization of Symons Crusher: A continuous crushing sequence maintains a constant cavity loading.
Symons Crusher system maintains operational efficiency by balancing centrifugal forces and counter rotational inertia. It can achieve high reduction ratios (typically 6:1 to 8:1) and minimize recirculation loads at the same time. The final product gradation is precisely controlled through the synchronized interaction of eccentric throw parameters, the geometry of the crushing chamber, and the hydraulic pressure regulation systems.
Product granularity curve of PYS Symons cone crusher (Spring Cone Crusher)

Application scenarios of PYS Symons Spring Cone Crusher (Spring Cone Crusher)
PYS symons spring cone crusher demonstrates extensive applicability across multiple industrial sectors, including mining, construction materials, transportation infrastructure development, energy production, and chemical processing. PYS Symons spring cone crusher is specifically engineered for processing medium-to-high hardness materials, exhibiting exceptional performance in size reduction of ferrous and non-ferrous metal ores such as iron and copper, as well as various mineral aggregates.
PYS Symons Spring Cone Crusher optimized design enables efficient processing of diverse geological materials, including but not limited to:
*Metallic ores: iron, copper, and other non-ferrous metal deposits
*Igneous formations: granite and quartz-based rock structures
*Sedimentary materials: limestone, sandstone, and conglomerate formations
*Metamorphic rocks: quartzite and similar crystalline structures
*Alluvial deposits: river pebbles and other rounded aggregates
PYS Symons Crusher is particularly effective in secondary and tertiary crushing applications, PYS symons cone crusher achieves optimal particle size reduction while maintaining operational efficiency in demanding industrial environments. PYS Symons Crusher is advanced crushing chamber geometry and hydraulic adjustment system ensure consistent product gradation across various feed materials and production requirements. PYS symons cone crusher is always worth your choice.
Our Service of Symons Spring Cone Crusher
1. Customized Consultation of Symons Cone Crusher
Needs Assessment: Our technical team will conduct in-depth communication with you to understand your project requirements, including daily output expectations, material characteristics (hardness, particle size of iron ore, granite, basalt, etc.), and crushing stage (secondary or tertiary crushing), so as to recommend the most suitable Symons Spring Cone Crusher model and configuration.
2. Professional Support of Symons Cone Crusher
Production Progress Tracking: After order confirmation, we will regularly update you on the manufacturing progress of the equipment, including the production status of core components (crushing cone, mortar wall, spring system) and the estimated delivery time, keeping you fully informed.
3. Logistics & Packaging Guarantee of Symons Cone Crusher
We cooperate with trustworthy international logistics providers to offer flexible transportation solutions (FOB, CIF, etc.) to ensure it is delivered to your designated site intact and on time.
4. We provide of Symons Cone Crusher's technical documents, including operation manuals, installation diagrams, and troubleshooting guides, which specify the equipment's working principle, operation steps, discharge port adjustment methods, and common problem solutions (such as spring overload, uneven crushing) for your reference.