16 Years manufacturer Fiberglass Cable Puller to St. Petersburg Importers

Assume full responsibility to meet all demands of our clients; achieve continuous advancements by promoting the growth of our clients; become the final permanent cooperative partner of clients and maximize the interests of clients for 16 Years manufacturer Fiberglass Cable Puller to St. Petersburg Importers, We sincerely welcome all guests to set up business relationships with us on the basis of mutual benefits. Please contact us now. You will get our professional reply within 8 hours.


 

Fiberglass Cable Puller

Specification Rod Diameter (mm)  4mm-18mm Fiberglass Cable Puller
Rod Length  (m) 10m-500m (OEM)
Frame Spec. (mm) 1300x450x1330,1200x420x1220,980x350x1000,680x240x700, etc
Wheel Diameter(mm) 300mm
Wall Thickness of Metal Frame 2.2mm
Color blue, yellow, red, white etc
Material Rod Inner Extruded by fiber glass and high strength resin at high temperature
Rod Outer High Density polyethylene coating
Iron Frame Steel with high temperature sprayed plastic or Spray coating
Wheel   Rubber
Brake Yes
Drawing Head Copper
Physical  Characters Density 55g/m
Working Temperature -40°C to +80°C
Breaking tension 600kg
Bending Radius 295mm
Technology Pultrusion
Packaging Inside Plastic woven strip wind around the frame
Outside Carton

 

Product Photos

Fiberglass Fish Tape (1) Fiberglass Fish Tape (3) Fiberglass Fish Tape (4) Fiberglass Fish Tape (5) Fiberglass Fish Tape Loading (1)

 

Other Fish Tapes

fish tape

  • Previous:
  • Next:
    • Others

      Should you need any product or have any question, please do not be hesitate to contact with us.

    • Shipping

      Shipment: All goods can be delivered by Sea and By air or according to your request. Loading Port: Ningbo or Shanghai, China

    • Payment Terms

      Payment terms: TT: 30% deposit and left pay after receive the copy of BL within 7 days

    • Delivery Time

      Sample lead time: about 1-2 days Mass production lead time: about 25 days after getting the deposit




  • Trees Can Help Save the World – Chapter 5

    Watch complete playlist (Chapters 1-7) https://www.youtube.com/playlist?list=PLeR2DZtnlTQtik4SxT9unDrVP5Gu2aEPb

    For more information about the Canadian Agricultural Greenhouse Gases Program, visit: http://agr.gc.ca

    To contact researchers:
    agordon@uoguelph.ca
    nthevath@uoguelph.ca

    Edited Transcript:

    In the previous chapters of this video series you’ve seen how Canadian researchers are quantifying how trees reduce greenhouse gas emissions in farm fields.

    Funded by Canada’s Agricultural Greenhouse Gases Program, the research project focuses on tree- based intercropping systems in Ontario and Quebec. Intercropping involves planting trees in rows and planting farm crops in the alleys between the rows of trees.

    Here at the University of Guelph intercropping site, researchers are busy collecting samples for a number of different research studies.

    Daniel Jefferies is a graduate student at the University of Guelph. He’s here to collect soil samples to study the relationship between soil structure and greenhouse gas emissions. The research focuses on the soil under four tree species: red oak, black walnut, Norway spruce and hybrid poplar.

    X-ray computer tomography is used to closely study the structure of the soil under these trees. Dr. Richard Heck and his team are investigating how pores in the soil can affect the emission of greenhouse gases.

    Dr. Heck: One of the most significant dimensions that structure brings to this equation is the nature of the porosity and whether or not those pores may be filled with air or water thereby determining to what extent aeration is going to be taking place and how quickly organic matter could potentially be turned over.

    Here at the intercropping site, trees and crops are flourishing, thanks to good soil structure. Deep in the soil, there are networks of pores or void spaces that facilitate the flow of air and carbon.

    Jefferies: Soil is seen as a sink for carbon and depending on the access to oxygen organisms may be releasing more carbon than actually is being stored or it could be vice versa. So the void space plays an important role in that relationship.

    Dark void spaces can be clearly seen in these images captured by X-ray computer tomography.

    Jefferies: And so the bright stuff we’re seeing in the image is more dense material, whereas the darker areas are the least dense. And so when I’m referring to void space, I’m referring to the areas that are the darker, black areas and the bright whitish areas, that’s the soil solid phase.

    The bulk of their work is interpreting these images.

    Jefferies: We use software called Imaging J. It’s open source software, so many developers around the world contribute to it. And we use that to identify different aspects of the soil, quantifying the amount of void space, the connectivity of void space. We can look at the variability of the soil in terms of its density for example, which is essentially what the X-Rays are seeing.

    The software produces a three dimensional view of images that were captured using the X-Ray computer tomography machine.

    Jefferies: So we have the X and the Y axes, but we can rotate the sample to also view the Z direction, so down into the sample as if we were digging a hole.

    This research could reveal that more void spaces in the soil can result in lower greenhouse gas emissions

    Jefferies: I think soil void space has a relationship to how carbon is stored in the soil. And perhaps there could be a relationship between a greater void space and carbon sequestration.

    Their research has revealed that the soil under some species of trees has more small void spaces. Jeffries found distinct differences between hybrid poplar and Norway spruce.

    Jefferies: Underneath these trees I’ve found that poplar has a greater proportion of its soil volume represented by void space and also has a greater connectivity in the soil structure.

    The research indicates that the structure of soil can play an important role in reducing greenhouse gas emissions.

    The tree-based intercropping project brings together many scientists working toward a common goal – to quantify how trees can reduce greenhouse gas emissions in farm fields.

    Dr. Heck: As a soil scientist who has spent quite a number of years studying the structure of soils, certainly it is a wonderful opportunity to be able to bring this in a quantitative way into an interdisciplinary study such as this one which has significant implications in greenhouse gas production.

    TOP