We Will Also Recycle Textile Waste

Textile waste is an increasing global problem with a significant environmental impact. Every year, approximately 92 million tons of textiles are discarded, making the textile industry one of the most polluting sectors in the world. This volume is equivalent to a fully loaded garbage truck being dumped every second. A large portion of textile waste ends up in landfills, particularly in developing countries. Synthetic fibers, such as polyester, do not decompose and can remain in landfills for hundreds of years. Another portion of textiles is incinerated, releasing greenhouse gases and toxic substances into the air.

A significant amount of used clothing and textiles is exported from wealthier nations to developing countries in Africa and Asia. However, many of these garments are unsellable and ultimately end up in local landfills. The largest textile waste dumps are located in developing countries, but wealthy nations such as the USA and EU member states also struggle with textile accumulation in landfills. Only a small fraction of textiles is recycled, as materials are often blends of natural and synthetic fibers, making their recycling more difficult.

Microplastics: Synthetic fibers release microplastics during washing, which end up in the oceans, negatively impacting marine life and human health.

The extremely harmful environmental impact of fast fashion waste is no secret. In addition to being responsible for nearly 10% of global carbon emissions, this industry is also notoriously wasteful, consuming massive amounts of resources and sending millions of pieces of clothing to landfills every day.

Here Are 10 Very Interesting Statistics About Textile Waste.

1. 92 million tons of textile waste are produced annually. Out of 100 billion garments manufactured each year, 92 million tons end up in landfills. If this trend continues, fast fashion waste is projected to rise to 134 million tons annually by the end of the decade.

2. Global emissions from the fashion industry will increase by 50% by 2030.

3. The average American consumer discards 81.5 lbs (37 kg) of clothing annually. This equates to 2,150 garments per second across the country.

4. The number of times a garment is worn has decreased by approximately 36% in the last 15 years. Today, many items are only worn seven to ten times before being discarded, marking a 35%+ decline in just 15 years.

5. The fashion industry is responsible for 20% of global wastewater production. Dyeing and finishing—processes that apply colors and chemicals to fabrics—account for 3% of global CO₂ emissions and more than 20% of worldwide water pollution.

6. It takes 20,000 liters of water to produce one kilogram of cotton. A single T-shirt requires about 2,700 liters of water, enough for one person to drink for 900 days. Additionally, 50 to 60 liters of water are used for a single laundry wash.

7. Every year, $500 billion is lost due to underuse of clothing and the inability to recycle garments. Globally, only 12% of the material used for clothing is recycled

8. Nearly 10% of microplastics released into the ocean each year come from textiles. Clothing is a major source of microplastics, releasing 500,000 tons into the ocean annually, equivalent to the plastic pollution from more than 50 billion plastic bottles.

9. In 2020 alone, 2.6 million tons of returned clothing ended up in U.S. landfills. The majority of clothing returned by consumers to retailers is sent directly to landfills. That same year, 16 million tons of CO₂ emissions were generated from online returns in the U.S., equivalent to the annual emissions of 3.5 million cars.

10. Fast Fashion Brands Are Producing Twice as Much Clothing as in 2000 Fast fashion brands now produce twice the amount of clothing compared to the year 2000. Due to excessive fabric cuts during garment production, a significant amount of material goes to waste, with one study estimating that 15% of the fabric used in clothing production is wasted.

After use, 60% of approximately 150 million garments produced worldwide in 2012 were discarded within a year.

 

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Planting Boxes

Planting boxes are not limited to vegetables; they can also be used to grow herbs and various spices. The advantage is that, if necessary, the entire box can be removed and taken to the kitchen. After use, the box can be reinserted into its original place. This also allows plants to be protected from adverse weather conditions, such as frost, etc.

Façade Greenhouse

The entire construction system is a modular kit that allows for high creativity. Similarly, a small greenhouse can be created on the facade to accelerate seed germination and seedling planting. By utilizing the existing substrate box, combining aluminum tubes and food-grade plastic wrap, everything can be easily implemented at almost no cost, extending the growing season.

Material

The material from which the construction elements are made is resistant to water, acids, and other mechanical influences. It is also resistant to plant growth. All construction elements are manufactured using calibrated molds under high pressure. This ensures maximum accuracy of the entire construction system. This allows for building with millimeter precision while maintaining all right angles and flat surfaces.

Calibrated Dimensional Accuracy

All construction elements are manufactured using calibrated molds under high pressure. This ensures maximum accuracy of the entire construction system. This allows for building with millimeter precision while maintaining all right angles and flat surfaces. Thanks to the unique and simple construction system that automatically ensures precision, even a moderately skilled builder can undertake construction using only the building plan.

Connecting Pin

A connecting pin is mainly used for simple walls and partitions with a thickness of 100 mm. It is also used for fencing. The pin also ties the structure horizontally and vertically between individual layers. This is a very strong connection that can be easily disassembled if needed. Due to the properties of these joints, the structure can be easily dismantled and reused to build a new one with a different shape and layout without losing functional properties.

Horizontal Load-Bearing Structures

Horizontal load-bearing structures for floors and ceilings are made of wooden KVH beams or planks, which are firmly mechanically attached to the load-bearing walls using steel beam brackets. The beam brackets are screwed into the body of the wall and secured from the other side. On the load-bearing wooden structures, a cover made from the same material as the construction system can be simply placed.

Technical Elements

The shape of individual modules prevents splashing water from penetrating the structure and stops heat loss. The construction elements interlock and overlap. This shape allows the entire structure to be easily stacked together. When securing screws are used, they are concealed and protected under the protrusion of the second module.

Groove for Pin Insertion

A groove for pin insertion. Individual modules are interconnected using protrusions that precisely fit into the groove. These connections ensure high joint strength and maximum vertical and horizontal precision. The connection is achieved by simple insertion. The joints are extremely strong, tested in practice for hundreds of years, and can be easily disassembled if needed.

Structural Spacer with Openings

A structural spacer with openings for routing electrical distribution, data cables, water, and waste pipes. The spacer also connects the external and internal shells of perimeter and load-bearing walls. The openings are sized up to 110 mm for routing waste pipes with a standard diameter suited for residential houses and medium-sized operations. In cases of higher loads, the situation can be managed with parallel distributions connected outside the building or by utilizing the technical gap in the vertical direction up to a dimension of 250 mm.

Mounting Facade Elements

Mounting facade elements can be easily removed, and the openings can be sealed with plugs. Everything is designed as a simple, mechanically strong system utilizing grooves and special pins. When planning a vertical garden or other elements on the facade, a special module designed for facade elements must be used during the construction of the building’s outer shell.

Exchangeable Substrate Box

An exchangeable substrate box made of vermicompost for growing ornamental plants and food on the facade. It allows for the cultivation of various vegetables, including potatoes. When harvesting individual foods, the box can be easily replaced with a new one containing fresh seedlings, allowing continuous cultivation without affecting other crops. The boxes are made from the same material as the Lisrec construction system. They are resistant to water, acids, and other mechanical influences.

Interior Surface Treatment

Interior surface treatment can be carried out using drywall boards without the need for steel profiles, which significantly reduces costs and shortens the installation time. The wall surfaces are perfectly even, and it is sufficient to simply screw on the boards and finish with gypsum putty. All fixtures such as sockets and switches are easily embedded into drilled openings, just as with drywall, and connected to already prepared electrical wiring.

Structural Openings

Construction openings allow for separate vertical distribution of electricity and data cables without mutual interference. The cables are also protected. Cable routes in the structure are thus fixed, making it possible to calculate and prepare exact lengths of individual cables. This allows the builder to prepare most of the work themselves, leaving only the connection to be done by a specialist.

Technological Penetrations

For horizontal routing of larger water, waste, and electrical distributions, the spacer has openings with diameters of up to 110 mm. Other technologies can also be routed through these openings. Everything is again filled with loose thermal insulation or another material.

Horizontal Distribution

In cases where horizontal distribution of water, waste, and electrical wiring is required, prepared openings are used, which are then filled with loose thermal insulation or another loose material. They can also remain empty for ventilation purposes.

Structural Spacer

The structural spacer connects external and internal construction elements. It is used for load-bearing and perimeter walls. It has openings for electrical distribution, data cables, water, and waste pipes. The openings filled with loose insulation also prevent thermal bridges between the external and internal wall shells. It is connected to other elements by simple mutual insertion.

Technical Gap

The technical gap between the external and internal shells of the perimeter wall is filled with loose thermal insulation or another loose material according to the climate zone to increase thermal resistance. It can also remain empty for additional use in ventilating the building's structure.

Basic Construction Module

The same modules as those used on other surfaces are used on the external side of the load-bearing perimeter wall. The openings in them can be filled with thermal insulation, thereby increasing the overall thermal resistance of the perimeter wall. If additional elements need to be attached to the building's facade, a special module must be used.

Structural Spacer

A short structural spacer is used for zig-zag vertical interconnection of additional spacers to ensure that individual horizontal layers are firmly connected. This prevents any risk of layers not being securely tied together. It is also used for finishing the height of the wall. It connects the external and internal shells of the building wall.

Water and Waste Distribution

Openings in the structural modules allow for vertical distribution of water and waste even in a simple partition wall with a thickness of 100 mm. The gaps between the distributions and the walls are filled with loose thermal insulation or another material, depending on the climate zone. It is also possible to leave the gaps empty and use them for ventilation.

Final surface

In case it is necessary to create a surface on the wall similar to traditional masonry, the wall is primed, and after drying, construction adhesive with reinforcing fabric is applied. The adhesive that penetrates the fabric is smoothed to an even level. Once the surface hardens, the final stucco plaster and paint can be applied.

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Water management

  • Sources and production of drinking water
  • Water purification
  • Water management
  • Water pumping
  • Water storage
  • Greywater utilization
  • Support and implementation of new technologies

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Food Self-Sufficiency:

  • Growing food on the façade
  • Superfoods: spirulina, chlorella, lentein
  • Vermicomposting
  • Construction and sale of vermireactors
  • Purchase and further utilization of substrate
  • Distribution of substrate – product
  • Compressed bio blocks for cultivation
  • Production and sale of biofertilizers
  • Support and utilization of new food raw materials
  • Development of services in the gastronomy sector
  • Support and implementation of new technologies

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Energy Self-Sufficiency:

  • Heating – water heating
  • Cooling – ventilation
  • Water pumping
  • Storage and utilization of harvested energy
  • Electrical self-sufficiency
  • Alternative energy sources
  • Thermal insulation
  • Support and implementation of new technologies