一种自动化泡花碱输送提升设备
Through the improved design of the Z-type bucket elevator, the separate lifting and stable conveying of quartz sand and soda ash were achieved, solving the problems of high cost and product quality in the existing technology, and improving the efficiency and quality of sodium silicate production.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- LIANYUNGANG BAORONG WATER GLASS CO LTD
- Filing Date
- 2025-09-18
- Publication Date
- 2026-07-17
AI Technical Summary
In the current production of sodium silicate, the conveying equipment for quartz sand and soda ash needs to be upgraded separately, resulting in higher costs and affecting product quality.
The Z-type bucket elevator is designed with two independent hoppers. It achieves separate lifting of quartz sand and soda ash through different feed inlets and a tilting gear system. The materials are then tilted and discharged separately at the discharge inlet. The combination of horizontal and vertical moving plates improves the stability of movement.
While saving costs, stable transportation of quartz sand and soda ash was achieved, avoiding sticking and stratification of the mixture in the hopper, thus improving product quality.
Smart Images

Figure CN224512263U_ABST
Abstract
Claims
1. An automated caustic soda delivery hoisting apparatus, a Z-hopper (2) type hoist characterized in that: include The outer shell (1) is "Z" shaped and hollow inside. The bottom horizontal conveying part is the feeding part (11), the middle vertical conveying part is the lifting part (12), and the top horizontal conveying part is the unloading part (13). The sprocket (111) is rotatably connected inside the housing (1) and located at both ends of the feeding part (11), the lifting part (12), and the unloading part (13). It is connected by a chain and driven by a motor. The hopper (2) has rotating rods (21) at both ends. The rotating rods (21) are inserted into the chain and rotated with the chain. The hopper (2) maintains its opening facing upward by its own weight. The hopper (2) is divided into two independent compartments along the axis of the rotating rods (21). There are two feed inlets (3), which are located at the top of the feed section (11). The two feed inlets (3) correspond to the two chambers of the hopper (2) respectively. There are two discharge ports (4), which are located at the bottom of the discharge section (13). The two discharge ports (4) correspond to the two compartments of the hopper (2) respectively. The flip gear (61) is fixed on the outer wall at both ends of the hopper (2), and its central axis is collinear with the central axis of the rotating rod (21); The flip rack (62) is set on the inner side wall of the feeding part (13) and meshes with the bottom of the flip gear (61) of the hopper (2) located above the feeding port (4), and drives the hopper (2) to rotate to the position to discharge the raw material.
2. An automated caustic soda delivery and lifting apparatus according to claim 1, characterized in that: The inner wall of the outer shell (1) is fixed with a translation plate (51) in the area where the hopper (2) moves horizontally. The bottom of the translation plate (51) abuts against the lower surface of the hopper (2). The translation plate (51) is partially offset at the discharge port (4) so that the translation plate (51) can rotate at the discharge port (4).
3. An automated caustic soda delivery and lifting apparatus according to claim 2, characterized in that: The lifting section (12) is divided into an upward channel (121) for the hopper (2) to move upward and a downward channel (122) for the hopper (2) to move downward. Both the upward channel (121) and the downward channel (122) are provided with a set of vertical moving plates (52) on their inner side walls. The vertical moving plates (52) are arranged in groups of four, vertically, and installed in positions directly opposite to the two ends of the hopper (2). The upper surface of the hopper (2) is provided with anti-tipping grooves (22) at both ends for the vertical moving plate (52) to pass through, and one hopper (2) contains four anti-tipping grooves (22).
4. The automated sodium silicate conveying and lifting equipment according to claim 1, characterized in that: A stabilizing ring (53) is fixed on the side wall of the flip gear (61). The central axis of the stabilizing ring (53) is collinear with the central axis of the flip gear (61), and the radius of the stabilizing ring (53) is smaller than the radius of the flip gear (61). The inner wall of the feeding part (13) is fixed with a support plate (54), which abuts against the top of the stabilizing ring (53) and is located above the feeding port (4).
5. An automated caustic soda delivery and lifting apparatus as defined in claim 1, wherein: The bottom of the hopper (2) is provided with a partition groove (23), and the two chambers of the hopper (2) are located on both sides of the partition groove (23); the position between the top of the two discharge ports (4) is extended upward to form a partition plate (41), and when the hopper (2) passes above the discharge port (4), the partition plate (41) is located in the partition groove (23).
6. An automated caustic delivery lift apparatus as defined in claim 5, wherein: Two feed plates (24) are fixedly installed on the upper surface of the hopper (2) above the partition groove (23); During the process of the hopper (2) flipping at the discharge port (4), the two feed plates (24) will move to the positions on both sides of the partition plate (41); As the hopper (2) passes through the feed inlet (3), the feed plate (24) will pass through the space between the two feed inlets (3).
7. An automated caustic delivery lift apparatus as defined in claim 1, wherein: When the hoppers (2) move horizontally, the top edges of adjacent hoppers (2) come into contact with each other.
8. An automated caustic delivery lift apparatus as defined in claim 1, wherein: The hopper (2) first passes through the side wall above the discharge port (4) as the front end, and last passes through the side wall above the discharge port (4) as the rear end. A lower pressure plate (26) is fixed at the bottom of the front end of the hopper (2), and an upper pressure plate (25) is fixed at the top of the rear end of the hopper (2). The upper surface of the lower pressure plate (26) of the hopper (2) abuts against the upper pressure plate (25) of the adjacent hopper (2).