The present invention relates to an absorbent article manufacturing device.
An absorbent article manufacturing device is known that is formed by mutually combining a plurality of processing units (see PLT 1). In this manufacturing device, the processing units are dimensioned that allow them to be housed in a shipping container, thereby enabling the manufacturing device to be easily relocated.
However, in the case processing units are dimensioned as described for the aforementioned manufacturing device, the processing space of the processing units is not necessarily large. As a result, it is difficult to secure space for product-related articles such as materials, intermediate products and finished products, and manufacturing-related articles such as adhesive lines or electrical wiring.
In order to solve this problem, it may be considered to utilize space above and below the processing units. However, if a non-woven fabric web is transported in the upper space, for example, the transport distance of the non-woven fabric web increases resulting in the risk of snaking of the non-woven fabric web. In addition, if an adhesive line, for example, is arranged in the upper space, it is necessary to increase the feed pressure of the adhesive in order to feed the adhesive to the upper space, thereby resulting in the risk of the appropriate adhesive pressure deviating from the proper value. Alternatively, in the case a problem occurs in materials and so forth, a worker is required to acquire a ladder and the like and climb up the ladder to perform work, thereby resulting in the risk of preventing maintenance from being performed easily and rapidly.
According to the present invention, an absorbent article manufacturing device is provided that is formed by mutually combining a plurality of processing units, wherein spacers are provided on the bottom of at least one processing unit to form a lower space between the installation plane on which the processing unit is installed and the processing unit, and product-related articles are moved or manufacturing-related articles are arranged within the lower space.
Space can be secured for product-related articles or manufacturing-related articles while ensuring favorable manufacturing of absorbent articles.
With reference to
In the embodiment shown in
Worker movement spaces SWF and SWR are provided respectively adjacent to a front surface 2F and back surface 2B of the main unit assembly 2M and/or the processing units 2. A worker accesses the processing units 2 from the front surface 2F or back surface 2R by moving through the worker movement spaces SWF and SWR.
The manufacturing device 1 is further provided with a subunit assembly 2S comprised of at least one processing unit 2, and the subunit assembly 2S is arranged at a distance from the main unit assembly 2M by a distance equal to the worker movement spaces SWF and SWR. In the embodiment shown in
In the processing units 2, processing such as transporting, unwinding or winding, joining, sealing, temporarily holding, cutting, overlapping, compressing or stretching, folding, heating or cooling, or applying an adhesive or pressure-sensitive adhesive, is carried out on product-related articles such as materials, intermediate products or finished products, to thereby produce an absorbent article. In this case, product-related articles IPR are respectively moved between the processing units 2 and between the main unit assembly 2M and the subunit assembly 2S. Note that materials include non-woven fabric, plastic film, pulp and fibrous or sheet-like elastic bodies, and the like.
In addition, manufacturing-related articles such as lines for fluids such as adhesive, hydraulic fluid or air and electrical wiring for power lines or signal lines, are arranged so as to extend between the processing units, between the main unit assembly 2M and the subunit assembly 2S, or between the processing units 2 and the outside.
Each processing unit 2 is dimensioned enabling it to be housed in a shipping container that complies with Japanese Industrial Standards (JIS) or the International Organization for Standardization (ISO). As a result, the processing units 2 can be moved while housed in a shipping container without having to disassemble the processing units 2. Thus, the manufacturing device 1 can be easily relocated.
Examples of shipping containers that can be used for housing the processing units 2 include 20 ft dry containers or 40 ft high cube containers. The outer dimensions of a 20 ft dry container are 20′ (6096 mm) long×8′ (2438 mm) wide×8′6″ (2591 mm) high, while the outer dimensions of a 40 ft high cube container are 40′ (12192 mm) long×8′ (2438 mm) wide×9′6″ (2895 mm) high.
When considering that the processing units 2 are packaged before housing in a container, the maximum possible dimensions of the processing units 2 in the case of using a 20 ft container are as follows:
Total weight of 3 tons or less 5680×2070×1850
Total weight of 3 to 6 tons 5600×2030×1750
Total weight of 6 tons or more 5540×2010×1600
Similarly, the maximum possible dimensions of the processing units 2 in the case of using a 40 ft high cube container are as follows:
Total weight of 3 tons or less 11810×2070×2190
Total weight of 3 to 6 tons 11730×2030×2120
Total weight of 6 tons or more 11670×2010×1970
With reference to
As shown in
A panel 4 extending in the vertical direction is provided within a processing space SP defined above the base frame 3, and the panel 4 is supported by the vertical frame 3V and the transverse portion 3BT of the base frame 3 of the processing unit 2. As shown in
On the other hand, behind the processing unit 2, an electrical control panel 5 for electrically controlling the manufacturing device 1 is supported by the vertical frame 3V. A worker can operate the electrical control panel 5 by accessing the electrical control panel 5 from the worker movement space SWR. In this case, as can be understood from
As is shown in
This allows that product-related articles are moved within the lower space SL. In addition, manufacturing-related articles can be arranged within the lower space SL. In this case, since the heights at which the product-related articles and manufacturing-related articles are positioned are low, a worker can easily access the product-related articles and manufacturing-related articles, and maintenance can be performed easily. There is also no need to increase the feed pressure of an adhesive and the like. Note that the spacers 6 need not be provided for all of the processing units 2. Namely, the spacers 6 are provided for at least one of the processing units 2.
The height H of the lower space SL is set to, for example, 185 mm. Note that, when considering the dimensions of product-related articles to be moved within the lower space SL or the dimensions of manufacturing-related articles to be arranged within the lower space SL, the height H of the lower space SL is preferably 50 mm or more. In this manner, the lower space SL differs from a simple gap formed below the processing unit 2.
Bolts 7 are fixed to the bottom of the base frame 3B, and the spacers 6 are attached to the processing unit 2 by engaging with these bolts 7. As a result, the locations of the spacers 6 relative to the processing unit 2 can be adjusted, thereby enabling the size of the lower space SL to be adjusted. In this case, the adjusted amount of the spacers 6 can be made to be ±25 mm.
The peripheral surface of the lower space SL respectively includes an open front portion OPF, an open rear portion OPR and open side portions OPS, and the lower space SL and the outside space are mutually communicated through the open front portion OPF, open rear portion OPR and open side portions OPS. Thus, product-related articles and manufacturing-related articles are able to reach the lower space SL from the outside space or are able to reach the outside space from the lower space SL by passing through the open front portion OPF, the open rear portion OPR and the open side portions OPS.
In addition, the upper surface of the lower space SL also includes an open upper portion OPU that is open, and the lower space SL and the processing space SP are mutually communicated through this open upper portion OPU. Thus, product-related articles and manufacturing-related articles are able to reach the lower space SL from the processing space SP or are able to reach the processing space SP from the lower space SL by passing through the open upper space OPU. With respect to this point, the base frame 3 can also be interpreted as being constituted so as to form the open upper portion OPU.
In the embodiment shown in
Note that, in the embodiment shown in
In addition, in the embodiment shown in
The guide rollers 8 and 9 may also be attached to the base frame 3 or the spacers 6. In addition, the holder 10 may also be attached to the panel 4 or the spacers 6. Note that the spacers 6 are not shown in
Number | Date | Country | Kind |
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2010-064065 | Mar 2010 | JP | national |
Filing Document | Filing Date | Country | Kind | 371c Date |
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PCT/JP2011/052971 | 2/7/2011 | WO | 00 | 9/14/2012 |