新疆农业科学 ›› 2022, Vol. 59 ›› Issue (10): 2495-2501.DOI: 10.6048/j.issn.1001-4330.2022.10.018
收稿日期:
2021-11-15
出版日期:
2022-10-20
发布日期:
2022-12-21
通信作者:
赵志永,宋方圆
作者简介:
郭慧静(1993-),女,河南雕县人,助理研究员,硕士,研究方向为果蔬贮藏与加工,(E-mail) 1505442828@qq.com
基金资助:
GUO Huijing(), LI Ziqin, LI Jixin, ZHAO Zhiyong(), SONG Fangyuan()
Received:
2021-11-15
Online:
2022-10-20
Published:
2022-12-21
Correspondence author:
ZHAO Zhiyong, SONG Fangyuan
Supported by:
摘要:
【目的】研究设计并制造一款新型加工番茄果实全自动耐压力测定仪。【方法】以不同品种的新鲜加工番茄果实为试材,分析对测定仪的制造工艺及开展耐压试验的重要性,并比较不同仪器用以验证该仪器的性能。【结果】石番45、亨氏3501与其它4种加工番茄相比品质较高,耐压性较好(13.58 mm/个);单果测定耐压力会受到果实果型指数、单果重、果肉厚度等的影响;全自动耐压测定仪可以准确记录耐压力值及变形值的变化过程,且果实破裂瞬间呈现明显变化,数据清晰且精密度高;测定1次即可得到某品种果实平均耐压力;测试范围宽(0~5 000 N),测试行程远(0~140 mm),运行速度可调节(0~200 mm/min无级变速)。【结论】耐压力测定仪不受环境影响,数据精密度高;可有效用于测定不同品种加工番茄耐压力大小,测定效率高;操作简单、经济实用。
中图分类号:
郭慧静, 李自芹, 李冀新, 赵志永, 宋方圆. 加工番茄全自动耐压测定仪的设计与性能评价[J]. 新疆农业科学, 2022, 59(10): 2495-2501.
GUO Huijing, LI Ziqin, LI Jixin, ZHAO Zhiyong, SONG Fangyuan. Design and Performance Evaluation of Automatic Pressure Tester for Processing Tomato[J]. Xinjiang Agricultural Sciences, 2022, 59(10): 2495-2501.
图1 加工番茄果实耐压测定仪结构示意 注:1为螺旋柄,2为螺杆,3为穿孔,4为滑动压板,5为沙垫或水垫,6为被测果实,7为果实容器,8为称重台称,9为壳体,10为压簧套筒,11为压簧,12为轴承,13为定位筒,14为连接块,15为充气装置,16为缓冲罐,17为进气管,18为活塞,19为进气口,20为放气门,21为气缸,22为拉簧。
Fig.1 Schematic diagram of the structure of tomato fruit pressure tester Note: 1 is the rocking handle, 2 is the screw, 3 is the perforation, 4 is the sliding plate, 5 is the sand pad or water pad, 6 is the fruit to be tested, 7 is the fruit container, 8 is the weighing platform, 9 is the shell, 10 is a compression spring sleeve, 11 is a compression spring, 12 is a bearing, 13 is a positioning cylinder, 14 is a connecting block, 15 is an inflator, 16 is a buffer tank, 17 is an air inlet pipe, 18 is a piston, 19 is an air inlet Port, 20 is the bleed valve, 21 is the cylinder, and 22 is the tension spring.
品种 Variety | 果形指数 Fruit shape index | 肉厚 Pulp thickness (mm) | 单果重 Single fruit weight(g) | 可溶性固形物 Soluble solid (%) | 粘度 Viscosity (cm/30s) | 番茄红素 Lycopene (mg/kg) |
---|---|---|---|---|---|---|
亨氏1015 Heinz1015 | 1.28b | 7.7a | 64.6a | 5.86b | 8. | 105.7c |
亨氏3402 Heinz3402 | 1.32b | 6.3c | 50.2d | 5.21c | 8.1e | 101.4e |
亨氏3501 Heinz3501 | 1.27b | 7.5a | 55.1c | 6.2a | 9.7a | 111.7b |
石番45 Shifan45 | 1.45a | 7.0b | 60.2b | 6. | 8.7b | 119.2a |
石番56 Shifan56 | 1.25b | 6.0d | 59.7b | 5.25c | 8.5bc | 104.6d |
石番58 Shifan58 | 1.08c | 5.4e | 41.3e | 6.0 | 8. | 98.6f |
表1 不同加工番茄品种理化指标对比
Table 1 Determination results of physical and chemical indexes for different varieties of processing tomato
品种 Variety | 果形指数 Fruit shape index | 肉厚 Pulp thickness (mm) | 单果重 Single fruit weight(g) | 可溶性固形物 Soluble solid (%) | 粘度 Viscosity (cm/30s) | 番茄红素 Lycopene (mg/kg) |
---|---|---|---|---|---|---|
亨氏1015 Heinz1015 | 1.28b | 7.7a | 64.6a | 5.86b | 8. | 105.7c |
亨氏3402 Heinz3402 | 1.32b | 6.3c | 50.2d | 5.21c | 8.1e | 101.4e |
亨氏3501 Heinz3501 | 1.27b | 7.5a | 55.1c | 6.2a | 9.7a | 111.7b |
石番45 Shifan45 | 1.45a | 7.0b | 60.2b | 6. | 8.7b | 119.2a |
石番56 Shifan56 | 1.25b | 6.0d | 59.7b | 5.25c | 8.5bc | 104.6d |
石番58 Shifan58 | 1.08c | 5.4e | 41.3e | 6.0 | 8. | 98.6f |
品种 Variety | 硬度 hardness (N) | 单果耐压力 single fruit stress tolerance (N) | 单果耐压力single fruit stress tolerance(N) | |||
---|---|---|---|---|---|---|
横放 Horizontal | 变形值 Deformation value(mm) | 竖放 Upright | 变形值 Deformation value(mm) | |||
亨氏1015Heinz1015 | 18.31b | 58b | 25.78c | 9.32d | 29.85b | 12.02b |
亨氏3402Heinz3402 | 16.43d | 50.5d | 24.80d | 9.62c | 21.42d | 9.46d |
亨氏3501Heinz3501 | 17.25c | 44.3e | 26.36b | 8.75e | 21.18e | 7.64f |
石番45Shifan45 | 19.73a | 61.4a | 31.46a | 11.13a | 31.57a | 12.72a |
石番56Shifan56 | 18.26b | 56c | 25.56c | 10.14b | 28.45c | 11.17c |
石番58Shifan58 | 13.93e | 41f | 12.38e | 6.60f | 16.24f | 8.79e |
表2 不同品种加工番茄单果耐压力对比
Table 2 Test results of single fruit stress tolerance for different varieties of processing tomato
品种 Variety | 硬度 hardness (N) | 单果耐压力 single fruit stress tolerance (N) | 单果耐压力single fruit stress tolerance(N) | |||
---|---|---|---|---|---|---|
横放 Horizontal | 变形值 Deformation value(mm) | 竖放 Upright | 变形值 Deformation value(mm) | |||
亨氏1015Heinz1015 | 18.31b | 58b | 25.78c | 9.32d | 29.85b | 12.02b |
亨氏3402Heinz3402 | 16.43d | 50.5d | 24.80d | 9.62c | 21.42d | 9.46d |
亨氏3501Heinz3501 | 17.25c | 44.3e | 26.36b | 8.75e | 21.18e | 7.64f |
石番45Shifan45 | 19.73a | 61.4a | 31.46a | 11.13a | 31.57a | 12.72a |
石番56Shifan56 | 18.26b | 56c | 25.56c | 10.14b | 28.45c | 11.17c |
石番58Shifan58 | 13.93e | 41f | 12.38e | 6.60f | 16.24f | 8.79e |
品种 Variety | 平均耐压力average stress tolerance | |||
---|---|---|---|---|
变形值 Deformation value (mm) | 烂果率 Rotten fruit rate (%) | 重量损失率 Weight loss rate (%) | 耐压性 Pressure resistance (mm/个) | |
亨氏1015Heinz1015 | 22.6e | 6.32d | 6.0d | 3.58b |
亨氏3402Heinz3402 | 26.0b | 10.28b | 11.18b | 2.53c |
亨氏3501Heinz3501 | 26.3b | 10.17b | 11.63b | 2.59c |
石番45Shifan45 | 27.7a | 2.04e | 2.24e | 13.58a |
石番56Shifan56 | 24.3c | 8.25c | 9.08c | 2.95c |
石番58Shifan58 | 23.1d | 18.92a | 13.51a | 1.22d |
表3 不同加工番茄品种平均耐压力对比
Table 3 Test results of average stress tolerance for different varieties of processing tomato
品种 Variety | 平均耐压力average stress tolerance | |||
---|---|---|---|---|
变形值 Deformation value (mm) | 烂果率 Rotten fruit rate (%) | 重量损失率 Weight loss rate (%) | 耐压性 Pressure resistance (mm/个) | |
亨氏1015Heinz1015 | 22.6e | 6.32d | 6.0d | 3.58b |
亨氏3402Heinz3402 | 26.0b | 10.28b | 11.18b | 2.53c |
亨氏3501Heinz3501 | 26.3b | 10.17b | 11.63b | 2.59c |
石番45Shifan45 | 27.7a | 2.04e | 2.24e | 13.58a |
石番56Shifan56 | 24.3c | 8.25c | 9.08c | 2.95c |
石番58Shifan58 | 23.1d | 18.92a | 13.51a | 1.22d |
图3 加工番茄耐压力测定示意 注:图A为加工番茄单果耐压力测定示意图;图B为加工番茄平均耐压力测定示意图(以亨氏3402为例)
Fig.3 Schematic diagram of test results of processing tomato stress tolerance Note: Picture A is the test result of single tomato stress resistance; Picture B is the test result of average tomato stress resistance (Heinz 3402 as an example)
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