Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers

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Quick Details Type: Digital Printer Condition: New Plate Type: Economical Star fire head digital inkjet textile clothing printer Place of Origin: Zhejiang, China (Mainland) Brand Name: Economical Star fire head digital inkjet textile clothing printer Model Number: CO-1024 Usage: Cloths Printer, All the textile fabric like Cotton, Polyester, Silk, linen etc Automatic Grade: Automatic Color & Page: Multicolor Voltage: 220V±10%,15A50HZ Gross Power: 1200W Dimensions(L*W*H): 3950(L)*1900(W)*1...


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Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers Detail:

Quick Details

  • Type: Digital Printer
  • Condition: New
  • Plate Type: Economical Star fire head digital inkjet textile clothing printer
  • Place of Origin: Zhejiang, China (Mainland)
  • Brand Name: Economical Star fire head digital inkjet textile clothing printer
  • Model Number: CO-1024
  • Usage: Cloths Printer, All the textile fabric like Cotton, Polyester, Silk, linen etc
  • Automatic Grade: Automatic
  • Color & Page: Multicolor
  • Voltage: 220V±10%,15A50HZ
  • Gross Power: 1200W
  • Dimensions(L*W*H): 3950(L)*1900(W)*1820(H)MM
  • Weight: 1500KG
  • Certification: CE
  • After-sales Service Provided: Engineers available to service machinery overseas
  • Name: Economical Star fire head digital inkjet textile clothing printer
  • Ink type: acidity,reactive,disperse,coating ink all compatibility
  • Print speed: 4PASS 85m2/h
  • Printing Material: All the textile fabric like Cotton, Polyester, Silk, linen etc
  • Print head: starfire print head
  • Printing width: 1800mm
  • Warranty: 12 Months
  • Color: Customized Colors
  • Software: Wasatch
  • Application: Textile

Packaging & Delivery

Packaging Details: INDIVIDUAL WOODEN BOX PACKING (EXPORT STANDARD)
3950(L)*1900(W)*1820(H)MM 1500kg
Delivery Detail: Shipped in 15 days after payment

Product detail pictures:

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures

Good Quality Economical Star fire head digital inkjet textile clothing printer to Tunisia Manufacturers detail pictures


Related Product Guide:
Understanding the Basics of Digital Textile Printers
Do You Know the Printing in China?

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  • This video describes research at NC State to convert 2D patterns into 3D shapes using only light to trigger self-folding of polymer sheets patterned by a desktop printer.

    An additional video may be found here: https://www.youtube.com/watch?v=NKRWZG67dtQ

    We are grateful to the DOE and to the NSF for supporting this work.

    Transcript: This video describes a simple way to convert two dimensional patterns into three-dimensional shapes. There are many conventional 2D patterning techniques that are simple, inexpensive, and readily available. For example, screen printing is used to print t-shirts. Roll-to-roll printing and inkjet printing are used to print paper. Photolithography is employed in the manufacture of computer chips. All these methods are inherently two-dimensional. Yet, they can be used in conjunction with folding to generate 3D shapes. In this process patterning is employed to define regions on the 2D sheet that will undergo folding. The final 3D shape will be derived from appropriately arranged 2D patterns.

    A classic example of folding is the ancient Japanese art of origami, which describes folding (“ori”) of paper (“gami”). Folding also plays an important role in Nature and has found application in various fields of science and technology. For example, there is protein folding, architecture, textiles, engineering, electronics and communication, industrial design, and remote deployment of satellites and solar sails.

    A team of researchers at NC State has found a simple approach for converting 2D patterns into 3D objects. The approach is simple and inexpensive. The process requires a pre-strained polymer sheet, which is commercially available. Patterns are drawn on a computer and printed onto the polymer sheet using an ordinary deskjet printer. These sheets can be cut by hand using scissors. The polymer sheets shrink when heated above the glass transition temperature. When we place these sheets under a lamp, the black ink from the printer selectively absorbs the light and converts it into heat locally in the hinge regions. The heat increases the temperature of the sheet under the printed ink. Because black ink absorbs light well, many types of light sources may be utilized including infrared lamps or halogen bulbs.

    This video provides visual representation of this thermal process. It shows a cross sectional view of the sheet and it is apparent the sheet gets warmer starting from the top. The portion of the sheet that does not have ink does not get hot. With time the temperature in the sheet underneath the ink increases progressively deeper into the sheet (as well as in areas outside the inked regions). When the temperature inside the film exceeds a certain critical value, the stored strain gets released, which causes the sheet to shrink. Because of the geometry of heating the strain relaxation occurs gradually (starting in the region close to the ink), the sheet folds in the direction towards the heat source. This process is capable of converting a single sheet of polymer into a number of shapes depending on the shape and location of the hinges, as shown in these examples.

    In summary, this video describes a simple way to convert 2D patterns into 3D shapes using light and inexpensive commercial polymers. This new approach to self-folding is compatible with low-tech 2D patterning techniques as well as soft materials. This method can be also extended to different sources of light and different substrates. The technique may be useful for both low-tech and high-tech applications including packaging, assembly, electronics, and remote deployment.



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