Feeding differential belt device

Abstract

The utility model discloses a feeding differential belt device which comprises a feeding rack, and a first-stage acceleration belt, a second-stage acceleration belt, a third-stage acceleration belt and a fourth-stage acceleration belt are sequentially arranged on the feeding rack. The first-stage acceleration belt, the second-stage acceleration belt, the third-stage acceleration belt and the fourth-stage acceleration belt are all of belt transmission structures, the transmission speeds of the first-stage acceleration belt, the second-stage acceleration belt, the third-stage acceleration belt and the fourth-stage acceleration belt are sequentially increased, and feeding baffle assemblies are installed on the two sides of the first-stage acceleration belt, the two sides of the second-stage acceleration belt, the two sides of the third-stage acceleration belt and the two sides of the fourth-stage acceleration belt. The feed baffle assembly moves the sugar in one direction. The feeding differential belt device is simple in structure and convenient to use. According to the sugar feeding device, the conveying belt is arranged, in the sugar feeding operation, the whole sugar can be kept in order in the conveying process by utilizing the speed difference of different conveying belts, the situation that multiple sugar are stacked in the feeding process is avoided, and it is guaranteed that feeding is conducted in order.

Description

Technical Field

[0001] The utility model belongs to the technical field of sugar production and processing, and specifically relates to a feed differential belt device. Background Art

[0002] In the manufacturing process of sugar, feeding of sugar is often the first step. The quality of feeding sugar on the entire production line directly determines the quality of subsequent production and processing of sugar. Traditional feeding equipment for sugar feeds sugar sequentially through the belt of the existing production line. This feeding method easily causes sugar to slip off the belt, resulting in waste of sugar and increased production costs. At the same time, the belt of the traditional production line often causes sugar to accumulate at the end of the feed, causing a large amount of sugar to be blocked, seriously affecting the further processing of subsequent sugar. Especially in the production and processing process where sugar needs to be fed sequentially and spaced, the existing sugar feeding equipment often feeds sugar through a conveyor belt, which has poor feeding effect and cannot meet relevant requirements. Utility Model Content

[0003] The utility model aims to solve the above problems and provide a feeding differential belt device which has a simple structure, is easy to use and can feed sugar materials by differential transport.

[0004] In order to solve the above technical problems, the technical solution of the utility model is: a feed differential belt device, including a feed frame, on which a first-level acceleration belt, a second-level acceleration belt, a third-level acceleration belt and a fourth-level acceleration belt are arranged in sequence, the first-level acceleration belt, the second-level acceleration belt, the third-level acceleration belt and the fourth-level acceleration belt are all belt transmission structures and the transmission speeds increase in sequence, and feed baffle assemblies are installed on both sides of the first-level acceleration belt, the second-level acceleration belt, the third-level acceleration belt and the fourth-level acceleration belt, and the feed baffle assemblies make the sugar material move in one direction.

[0005] Preferably, the number of the feed racks is two and they are arranged in parallel and symmetrically, the two feed racks are connected, the upper part of the feed rack is concave and has a groove structure, and the first-stage acceleration belt, the second-stage acceleration belt, the third-stage acceleration belt and the fourth-stage acceleration belt are installed in the groove structure in sequence.

[0006] Preferably, a feed rack support is provided on the feed rack, and a feed sensor is installed at the end of the feed rack support, and the feed sensor is used to detect whether the material is qualified.

[0007] Preferably, the feed rack support comprises a feed rack support block, a feed rack support cross bar and a feed rack support connecting rod. The cross section of the feed rack support block is a trapezoidal structure. The number of feed rack support blocks is two and they are arranged in parallel. The two ends of the feed rack support cross bar are respectively connected to the feed rack support blocks. The end of the feed rack support connecting rod is sleeved on the feed rack support cross bar. The other end of the feed rack support connecting rod is connected to the feed sensor.

[0008] Preferably, the feed baffle assembly includes a first feed baffle, a second feed baffle and a third feed baffle, the first feed baffle is arranged in parallel with the second feed baffle and the third feed baffle, the second feed baffle and the third feed baffle are located opposite the first feed baffle, and the length of the first feed baffle is greater than the length of the second feed baffle and the third feed baffle.

[0009] Preferably, the end of the third feed baffle is bent into an "L" shape.

[0010] Preferably, a discharge box is provided on the feed frame, and the discharge box is located between the second-stage acceleration belt and the third-stage acceleration belt. The discharge box is a hollow box structure, and the cross-section of the discharge box is a "7"-shaped structure. A discharge box hole is provided on the discharge box, and the discharge box hole faces the second-stage acceleration belt and the third-stage acceleration belt.

[0011] The beneficial effect of the utility model is that the feeding differential belt device provided by the utility model has a simple structure and is easy to use. In the sugar feeding operation, the speed difference of different conveyor belts can be used to keep the entire sugar in order during transportation, thereby avoiding the stacking of multiple sugars during feeding, and ensuring the orderly feeding. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 The utility model is a structural schematic diagram of a feed differential belt device.

[0013] Explanation of the reference numerals: 10, feed rack; 11, first-stage acceleration belt; 12, second-stage acceleration belt; 13, third-stage acceleration belt; 14, fourth-stage acceleration belt; 15, feed baffle assembly; 101, feed rack support; 102, discharge box; 1011, feed rack support block; 1012, feed rack support cross bar; 1013, feed rack support connecting rod; 151, feed first baffle; 152, feed second baffle; 153, feed third baffle; 1021, discharge box hole. DETAILED DESCRIPTION

[0014] The present invention will be further described below with reference to the accompanying drawings and specific embodiments:

[0015] like Figure 1As shown, a feed differential belt device provided by the utility model includes a feed frame 10, on which a first-stage acceleration belt 11, a second-stage acceleration belt 12, a third-stage acceleration belt 13 and a fourth-stage acceleration belt 14 are sequentially arranged, wherein the first-stage acceleration belt 11, the second-stage acceleration belt 12, the third-stage acceleration belt 13 and the fourth-stage acceleration belt 14 are all belt transmission structures and the transmission speeds increase sequentially, and feed baffle assemblies 15 are installed on both sides of the first-stage acceleration belt 11, the second-stage acceleration belt 12, the third-stage acceleration belt 13 and the fourth-stage acceleration belt 14, and the feed baffle assemblies 15 enable the sugar material to move in one direction.

[0016] There are two feed racks 10 and they are arranged in parallel and symmetrically. The two feed racks 10 are connected. The upper part of the feed rack 10 is concave and has a groove structure. The first-stage acceleration belt 11, the second-stage acceleration belt 12, the third-stage acceleration belt 13 and the fourth-stage acceleration belt 14 are installed in the groove structure in sequence.

[0017] In this embodiment, a motor group is installed on the feed frame 10, and the motor group includes multiple motors. The first acceleration belt 11, the second acceleration belt 12, the third acceleration belt 13 and the fourth acceleration belt 14 are all driven by corresponding motors, and provide different speeds respectively. The first acceleration belt 11, the second acceleration belt 12, the third acceleration belt 13 and the fourth acceleration belt 14 respectively form a belt transmission structure with the corresponding motors, and the belt transmission structure is similar to the existing assembly line belt conveyor.

[0018] A feed frame support 101 is provided on the feed frame 10, and a feed sensor is installed at the end of the feed frame support 101. The feed sensor is used to detect whether the material is qualified. The feed sensor is an existing sensor device.

[0019] The feed rack support 101 includes a feed rack support block 1011, a feed rack support cross bar 1012 and a feed rack support connecting rod 1013. The cross section of the feed rack support block 1011 is a trapezoidal structure. The number of feed rack support blocks 1011 is two and they are arranged in parallel. The two ends of the feed rack support cross bar 1012 are respectively connected to the feed rack support blocks 1011, and the end of the feed rack support connecting rod 1013 is sleeved on the feed rack support cross bar 1012. The other end of the feed rack support connecting rod 1013 is connected to the feed sensor.

[0020] In actual use, the number and position of the feed rack support connecting rods 1013 can be adjusted according to actual use needs.

[0021] The feed baffle assembly 15 includes a first feed baffle 151, a second feed baffle 152 and a third feed baffle 153. The first feed baffle 151 is arranged in parallel with the second feed baffle 152 and the third feed baffle 153. The second feed baffle 152 and the third feed baffle 153 are located opposite to the first feed baffle 151. The length of the first feed baffle 151 is greater than the length of the second feed baffle 152 and the third feed baffle 153. The end of the third feed baffle 153 is bent in an "L" shape.

[0022] A discharge box 102 is provided on the feed frame 10, and the discharge box 102 is located between the second-stage acceleration belt 12 and the third-stage acceleration belt 13. The discharge box 102 is a hollow box structure, and the cross-section of the discharge box 102 is a "7"-shaped structure. A discharge box hole 1021 is provided on the discharge box 102, and the discharge box hole 1021 faces the second-stage acceleration belt 12 and the third-stage acceleration belt 13.

[0023] In this embodiment, a blowing device, such as a blower, is provided in the discharge box 102. The feed sensor is electrically connected to the blowing device, and the blowing device is an existing device. The air flow generated by the blower blows the material out of the corresponding acceleration belt to complete the discharge. If the feed sensor detects that the sugar material does not meet the specified requirements, the blower generates air with a certain pressure, and discharges the corresponding material through the discharge box hole 1021.

[0024] When the utility model is in use, the material in this embodiment is sugar, and the sugar passes through the first acceleration belt 11, the second acceleration belt 12, the third acceleration belt 13 and the fourth acceleration belt 14 in sequence. Due to the different speeds of the first acceleration belt 11, the second acceleration belt 12, the third acceleration belt 13 and the fourth acceleration belt 14, the sugar is fed in sequence.

[0025] Those skilled in the art will appreciate that the embodiments described herein are intended to help readers understand the principles of the present invention, and should be understood that the protection scope of the present invention is not limited to such specific statements and embodiments. Those skilled in the art can make various other specific variations and combinations based on the technical inspirations disclosed in the present invention without departing from the essence of the present invention, and these variations and combinations are still within the protection scope of the present invention.

Claims

1. A feed differential belt device, Features: The invention comprises a feeding frame (10), on which a first-stage acceleration belt (11), a second-stage acceleration belt (12), a third-stage acceleration belt (13) and a fourth-stage acceleration belt (14) are sequentially arranged, wherein the first-stage acceleration belt (11), the second-stage acceleration belt (12), the third-stage acceleration belt (13) and the fourth-stage acceleration belt (14) are all belt transmission structures and the transmission speeds increase in sequence, and feeding baffle assemblies (15) are installed on both sides of the first-stage acceleration belt (11), the second-stage acceleration belt (12), the third-stage acceleration belt (13) and the fourth-stage acceleration belt (14), and the feeding baffle assemblies (15) enable the sugar material to move in one direction.

2. A feed differential belt device according to claim 1, Features: The number of the feed racks (10) is two and they are arranged in parallel and symmetrically. The two feed racks (10) are connected. The upper part of the feed rack (10) is concave and has a groove-shaped structure. The first-stage acceleration belt (11), the second-stage acceleration belt (12), the third-stage acceleration belt (13) and the fourth-stage acceleration belt (14) are sequentially installed in the groove-shaped structure.

3. A feed differential belt device according to claim 1, Features: The feed rack (10) is provided with a feed rack support (101), and a feed sensor is installed at the end of the feed rack support (101), and the feed sensor is used to detect whether the material is qualified.

4. A feed differential belt device according to claim 3, Features: The feed rack support member (101) comprises a feed rack support block (1011), a feed rack support cross bar (1012) and a feed rack support connecting rod (1013); the cross section of the feed rack support block (1011) is a trapezoidal structure; the number of the feed rack support blocks (1011) is two and they are arranged in parallel; the two ends of the feed rack support cross bar (1012) are respectively connected to the feed rack support blocks (1011); the end of the feed rack support connecting rod (1013) is sleeved on the feed rack support cross bar (1012); and the other end of the feed rack support connecting rod (1013) is connected to a feed sensor.

5. A feed differential belt device according to claim 1, Features: The feed baffle assembly (15) comprises a first feed baffle (151), a second feed baffle (152) and a third feed baffle (153); the first feed baffle (151) is arranged in parallel with the second feed baffle (152) and the third feed baffle (153); the second feed baffle (152) and the third feed baffle (153) are located opposite to the first feed baffle (151); and the length of the first feed baffle (151) is greater than the lengths of the second feed baffle (152) and the third feed baffle (153).

6. A feed differential belt device according to claim 5, Features: The end of the third feed baffle (153) is bent into an "L" shape.

7. A feed differential belt device according to claim 1, Features: The feed frame (10) is provided with a discharge box (102), which is located between the second-stage acceleration belt (12) and the third-stage acceleration belt (13). The discharge box (102) is a hollow box structure, and the cross section of the discharge box (102) is a "7"-shaped structure. The discharge box (102) is provided with a discharge box hole (1021), and the discharge box hole (1021) faces the second-stage acceleration belt (12) and the third-stage acceleration belt (13).

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