Quarry Ballast Crushing Equipment Fabricator Datasheet
1. APERTURA IMPULSADA POR EL PUNTO DE DOLOR
Are escalating operational costs and unpredictable downtime eroding your quarry's profitability in ballast production? Los desafíos comunes incluyen:
Alto desgaste & Costos de mantenimiento: granito abrasivo, basalto, or limestone rapidly degrades crusher components, leading to frequent shutdowns and high parts replacement expenses.
Gradación de producto inconsistente: Failure to meet strict railway or construction specifications (p.ej., EN 13450) results in product rejection, ciclos de retrituración, and wasted capacity.
Baja eficiencia general del sistema: Bottlenecks between crushing stages, manual adjustments for feed variations, and excessive fines generation directly reduce tonsperhour output.
Consumo excesivo de energía: Inefficient crushing chambers and drives consume disproportionate power per ton of final product, un costo fijo importante.
Is your current crushing circuit a source of constant adjustment and cost, rather than a reliable, activo de alto rendimiento? The solution lies in specifying equipment engineered explicitly for the sustained rigors of ballast production.
2. DESCRIPCIÓN GENERAL DEL PRODUCTO
Our Quarry Ballast Crushing Equipment is engineered as a highcapacity, heavyduty primary or secondary crushing system designed to transform blasted rock into specification railway ballast and construction aggregate. The core workflow integrates:
1. Alimentación controlada: Scalping of subfines prior to crushing to reduce wear and improve efficiency.
2. HighReduction Crushing: Utilization of optimized cavity geometry to fracture rock along natural lines, maximizing yield of the desired 4070mm fraction.
3. Active Setting Regulation: Hydraulic adjustment systems allow quick response to feed changes to maintain consistent output gradation.
4. Descarga eficiente: Optimized discharge conveyor design minimizes recirculation load and chip damage to finished product.
Ámbito de aplicación: Ideal para procesamiento duro, abrasive igneous (granito, basalto) and metamorphic rock for highspecification ballast. Limitaciones: Not designed for highly sticky, claybound materials or very soft sedimentary rock without significant circuit modification.
3. CARACTERÍSTICAS PRINCIPALES
Rotor de servicio pesado & Concave System | Base técnica: Highinertia rotor design with interparticle crushing action | Beneficio operativo: Sustains higher throughput with lower tip speed, reducing wear energy cost by up to 15% en comparación con los diseños convencionales | Impacto del retorno de la inversión: Lower cost per ton through extended liner life and reduced specific energy consumption.
Ajuste de CSS de Hydroset | Base técnica: Hydraulic main shaft positioning system | Beneficio operativo: Permite a los operadores ajustar la configuración del lado cerrado (CSS) en menos 60 seconds for gradation control or to clear a stall | Impacto del retorno de la inversión: Minimizes noncrushing downtime by over 90% for setting changes compared to manual shim systems.
Sistema de monitoreo de desgaste del revestimiento | Base técnica: Ultrasonic sensor array integrated into crusher frame | Beneficio operativo: Provides realtime data on mantle and concave wear profiles, enabling predictive liner changes | Impacto del retorno de la inversión: Eliminates unexpected liner failure downtime and allows full utilization of liner material, reducing waste by an estimated 20%.
Liberación integrada de vagabundos & Claro | Base técnica: Automatic hydraulic overload protection with reversing clearing cycle | Beneficio operativo: Safely passes tramp steel and uncrushable material, then resumes operation without manual intervention | Impacto del retorno de la inversión: Prevents catastrophic damage to crusher components and avoids hours of dangerous manual cavity clearing.
Diseño de revestimiento modular | Base técnica: Segmented concave sections with common bolt patterns | Beneficio operativo: Reduces liner changeout time by utilizing smaller, manageable components; safer for maintenance crews | Impacto del retorno de la inversión: Reduce el tiempo de inactividad por mantenimiento planificado hasta en 40%, aumentar las horas de producción anuales disponibles.
4. VENTAJAS COMPETITIVAS
| Métrica de rendimiento | Estándar de la industria (trituradora de cono promedio) | Nuestra solución de trituración de lastre | Ventaja (% Mejora) |
| : | : | : | : |
| Vida del revestimiento (Granito abrasivo) | 450,000 550,000 montones | 600,000 750,000 montones | +25% a +35% |
| Consumo de energía específico| 0.8 1.1 kWh/tonelada | 0.65 0.85 kWh/tonelada| 20% de término medio |
| Consistencia de gradación (SD of % Pasando el tamiz clave)| Alta variación (±8%)| Control estricto (±3%)| Improved consistency by >60% |
| Tiempo medio entre fallos (MTBF) – Mechanical| ~1200 horas| >1,800 horas| +50% fiabilidad |
5. ESPECIFICACIONES TÉCNICAS
Rango de capacidad: Configurable desde 300 a más 1,200 toneladas métricas por hora de producto de lastre terminado.
Requisitos de energía: Accionamiento principal de la trituradora desde 200 kW hasta 500 kilovatios; total plant auxiliary power dependent on configuration.
Especificaciones de materiales: Constructed from highstrength alloy steel (marco); mantles and concaves available in multiple grades of manganese steel (Mn18Cr2 standard) or optional chromewhiteiron alloys for extreme abrasion.
Feed Size Acceptance: Arriba a 90% of crusher feed opening dimension (typically up to ~250mm).
Dimensiones físicas (Unidad primaria típica): Aprox.. Longitud: ~5m; Ancho: ~3m; Altura: ~3,5 millones; Peso: ~4570 tonnes.
Rango de operación ambiental: Diseñado para temperaturas ambiente de 20°C a +45°C; rodamientos sellados contra el polvo; Paquetes opcionales de calefacción/refrigeración disponibles.
6. ESCENARIOS DE APLICACIÓN
Railway Ballast Production Plant – Scandinavia
Desafío: A granite quarry supplying national rail networks faced excessive wear costs and fines generation exceeding the strict <1% specification with their existing jawcone circuit.
Solución: Implementation of a primary gyratory crusher followed by a secondary cone crusher specifically configured for ballast production.
Resultados: Fines generation was reduced by over 50%, consistently meeting EN spec. La vida útil del revestimiento aumentó en 30%, contribuyendo a un documento 18% reduction in cost per ton of saleable ballast.
Integrated Aggregates & Ballast Quarry – North America
Desafío: Need for flexible production switching between road base aggregates (smaller sizes) and largesize railway ballast led to frequent circuit reconfiguration and lost shifts.
Solución: Installation of a multicylinder cone crusher with rapid Hydroset adjustment capabilities.
Resultados: Changeover between product specifications is now achieved in under 10 minutes via automated settings adjustment versus a previous 4hour mechanical shift change process.
7. CONSIDERACIONES COMERCIALES
Niveles de precios: Equipment is offered in three capability tiers—Standard Duty (for consistent feed), Servicio pesado (para roca altamente abrasiva), y servicio extremo (for maximum uptime requirements)—with corresponding capital investment levels.
Características opcionales: Paquetes de automatización avanzada (ASRi), dust suppression integration kits specialized lubrication cooling systems remote monitoring telematics
Paquetes de servicios: Choose from Basic Warranty Extended Component Assurance Plans or Comprehensive Total Care Agreements covering parts labor scheduled inspections
Opciones de financiación: Flexible capital solutions include equipment leasing longterm rental with service inclusion traditional purchase Project financing support can be arranged
8. Preguntas frecuentes
Q1 Is this equipment compatible with our existing primary jaw crusher screening plant?
Yes Our ballast crushing units are designed as modular replacements or upgrades within existing circuits Standard discharge heights conveyor interface points power connection types ensure integration is straightforward
Q2 What is the typical installation commissioning timeframe?
For a standalone secondary tertiary unit installation commissioning typically requires 1421 days depending on foundation readiness Full plant system integration naturally requires more extensive planning
Q3 How does this solution impact our operational manpower requirements?
The automation reliability features are designed to reduce manual intervention Field data shows clients often reassign one operator role previously dedicated constant crusher monitoring other valueadded tasks
Q4 ¿Cuáles son los plazos de entrega de las condiciones de pago??
Standard commercial terms involve progress payments against manufacturing milestones Lead times range from 26 weeks for standard configurations up 40 weeks fully customized plants subject current order backlog
Q5 Can you provide material testing specific crushability work index data?
Yes Our engineering team can conduct presale analysis your quarry samples provide detailed projections throughput gradation curves wear rates based proprietary simulation models


