Overview
| displacement | Wheelbase | ||
| speed | Track gauge | ||
| Delivery distance | lift | ||
| voltage | current | ||
| Number of poles | granularity | ||
| amplitude | horsepower | ||
| stroke | Net weight | ||
| Gradient | productivity | ||
| Transmission | Shelf life | ||
| Gas consumption | Recovery amount | ||
| Flatness | Excitation force | ||
| Balancing weight | Track width/rear | ||
| Track width/front | Discharge method | ||
| Number of impellers | New and old degree | ||
| Pump shaft position | Loading height | ||
| Aggregate size | Number of trips | ||
| Customized or not | Processing customization | ||
| Degree of crushing | control mode | ||
| Pitch angle | Leg span | ||
| Rotation method | Working radius | ||
| Cement silo | Discharge speed | ||
| Feed speed | Climbing ability | ||
| Front wheel axle | service life | ||
| Applicable models | Loading quality | ||
| Composition structure | Conveying pipe diameter | ||
| Water pump flow rate | Aggregate size | ||
| processing capacity | Stone size | ||
| Cross slope error | Directional control method | ||
| Paving width | Compacted thickness | ||
| Traveling mechanism | Paving thickness | ||
| Mixing cylinder capacity | Discharge capacity | ||
| Effective lifespan | Mixing depth | ||
| Conveying distance | Concrete slump | ||
| Rod head length | Sieve size | ||
| Independent height | End hose | ||
| Conveying pipe diameter | Tower body section | ||
| System flow | system pressure | ||
| Fabric radius | Delivery pressure | ||
| Is it the original factory | Is it customizable | ||
| Concrete pipe diameter | Mixer model | ||
| Cement screw machine | Inclination angle of mixing drum | ||
| Discharge residual rate | Auxiliary brake | ||
| Mixing drum length | Applicable water cement ratio | ||
| Inner diameter of conveying pipe | Rotor capacity increase | ||
| Feed inlet height | Outlet height | ||
| Storage hopper capacity | High work efficiency | ||
| Climb box spacing | Hopper lifting speed | ||
| Maximum aggregate size | Rated feed capacity | ||
| Horizontal length of boom | Supporting host model | ||
| Aggregate conveying capacity | Sand conveying capacity | ||
| Accelerator additive | Dust concentration during operation | ||
| Type of concrete machinery | Fabric spreader | Concrete outlet pressure | |
| Mixing tank conveying capacity | Continuous adjustable injection volume | ||
| Number of vibrations per minute | Theoretical conveying capacity of concrete | ||
| Theoretical concrete conveying capacity | Water pump model of water supply system | ||
| Measurement accuracy of asphalt powder | Maximum outlet pressure of concrete | ||
| Height of the upper opening of the feeding hopper from the ground | Continuously adjustable dosage of accelerator | ||
| brand | Jinyi | model | Type 100 |
| Motor power | 2.2+0.75+1.5 | Overall dimensions | 7700 * 1600 * 1700mm |
| Overall weight | 1500kg | specifications | 100, 80, 60, 120 |
Product Details
In the production of automated production line equipment for cement concrete distribution machines/using small prefabricated components, the mold containing concrete prefabricated components is usually manually overturned and supported on square wooden strips. Then, a rubber hammer is used to strike the four corners of the bottom surface of the mold to separate the small prefabricated components from the mold and achieve the purpose of demolding. The disadvantage of this is that more rubber hammers are used to strike the mold, and the force generated by knocking can easily cause damage to the edges and corners of small prefabricated components, with a damage rate of over 10%. In severe cases, it directly becomes waste and wastes engineering costs. Over time, the mold will also slowly deform due to knocking, causing uneven small pits on the surface of small prefabricated components, seriously affecting the appearance of the finished prefabricated components; In addition, this demolding process requires the cooperation of two people, and the demolding time of each component is long, which seriously restricts the turnover and use of the mold and affects the production efficiency of prefabricated parts. Therefore, there are problems in the production of ordinary prefabricated component molds, such as low qualification rate of concrete components, low demolding efficiency, and difficulty in ensuring the appearance of concrete components. Therefore, previous molds did not achieve the expected goals well
