A bottle dividing device

Abstract

The invention discloses a bottle distributing device. A plurality of bottle distributing grooves matched with infusion bottle bodies are uniformly distributed in a spaced manner in a bottle distributing dial wheel along the circumferential direction of the bottle distributing dial, and the centers of the bottle distributing grooves are tangent to the center line of a bottle feeding track; a bottle feeding auger is arranged on one side of the bottle feeding track for adjusting the separation distance among the infusion bottles to be equal to pitch of the bottle distributing dial wheel; bottle clamping mechanisms matched with the bottlenecks of the infusion bottles are arranged on the bottle distributing dial wheel, the bottle clamping mechanisms are arranged above the bottle distributing grooves, and one bottle distributing groove spaces two adjacent bottle clamping mechanisms; the bottle distributing dial wheel rotates around the axis, and distributes the infusion bottles to a first bottle conveying track through the bottle distributing bottles and distributes the infusion bottles to a second bottle conveying track through the bottle clamping mechanisms. According to the bottle distributing device disclosed by the invention, by arranging the bottle distributing grooves and the bottle clamping mechanisms, the infusion bottles on the bottle feeding track are distributed orderly to two different bottle conveying tracks, so that the bottle blocking phenomenon is reduced.

Description

technical field [0001] The invention relates to the technical field of medical equipment, and more specifically relates to a bottle dividing device. Background technique [0002] When the energy supply is sufficient, amino acid infusion can enter tissue cells, participate in protein synthesis and metabolism, obtain positive nitrogen balance, and generate enzymes, hormones, antibodies, structural proteins and other physiologically active substances to promote tissue healing and restore normal physiological functions At present, glass bottles occupy a large proportion of the inner packaging materials of large infusion solutions. [0003] The maximum output of a single large infusion bottle vacuum-pumping nitrogen-filling stoppering machine that produces amino acid products for large infusions that requires less residual oxygen is only 120 bottles per minute. Because the output is too low, it cannot meet the production requirements of manufacturers with large outputs. Therefor...

AI Technical Summary

Problems solved by technology

[0003] The maximum output of a single large infusion bottle vacuum-pumping nitrogen-filling stoppering machine that produces amino acid products for large infusions that requires less residual oxygen is only 120 bottles per minute. Because the output is too low, it cannot meet the production requirements of manufacturers with large outputs. Therefore, the manufacturer needs to configure two vacuum-pumped nitrogen-filled cork press machines for simultaneous production, so that in actual production, the bottle in one filling machine needs to be transported to two vacuum-pumped nitrogen-filled stopper press machines. During the conveying process of the bottle infusion track, there is irregular conveying. In the process of conveying from one conveying track to two conveying tracks, some adjacent infusion bottles will contact each other and interfere with each other. Therefore, bottle jams often occur, and a special person needs to be arranged Intervention is required to keep the bottle track running smoothly, and sometimes a stoppage is required to remove the bottle due to a tight bottle jam

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