A system and method for the construction of a hemp mat having consistent density whereby the hemp fiber mat may be used to strengthen ice or other entities for any number of applications and different types of construction designed such that it may be sturdy enough to stay bonded when it is transported, unrolled, and soaked during ice road construction but loose enough to break apart during spring to reduce blockage and environmental damage to the waterway on which the ice road was constructed.

An apparatus for delaminating a bamboo into fibers includes a machine frame, a machine seat arranged in a middle of the machine, a machine cover matching with the machine seat, a push plate, a power source, and an elastic member. The machine seat includes multiple grooves formed in a top to respectively receive therein bamboo pieces. The machine cover includes multiple ribs formed on a bottom thereof. The machine cover is slidable relative to the machine seat to have the ribs of the machine cover respectively receivable in and engageable with the grooves of the machine seat so as to sandwich bamboo pieces therebetween. A push plate is driven by the power source to selectively move relative to the machine seat and has a bent end portion that bends and pushes portions of the bamboo pieces to slide on the top of the machine cover.

A continuous processing device for forming bamboo fiber includes a machine rail, a cart guide rail, a cart, and a clamp for clamping a bamboo strip. The cart and the clamp are connected through a connecting plate. The machine rail is formed with a slot along a path of the machine rail. The machine rail includes a head linear rail section, a conical spiral rail section and a tail linear rail section arranged in sequence. The cart guide rail includes a head linear guide rail section, a conical spiral guide rail section and a tail linear guide rail section arranged in sequence. A continuous processing method for forming bamboo fiber using the continuous processing device is disclosed.

A continuous processing device for forming bamboo fiber includes a machine rail, a cart guide rail, a cart, and a clamp for clamping a bamboo strip. The cart and the clamp are connected through a connecting plate. The machine rail is formed with a slot along a path of the machine rail. The machine rail includes a head linear rail section, a conical spiral rail section and a tail linear rail section arranged in sequence. The cart guide rail includes a head linear guide rail section, a conical spiral guide rail section and a tail linear guide rail section arranged in sequence. A continuous processing method for forming bamboo fiber using the continuous processing device is disclosed.

Disclosed is a dean production method for bamboo fibres, comprising the following steps: bamboo pieces are separated into filaments, and the filaments are twisted into ropes to obtain rope-shaped bamboo filaments; the rope-shaped bamboo filaments are refined by means of multiple alternating cold-hot treatments and rolling and rubbing to obtain coarse rope-shaped bamboo fibres (wherein same can be directly put into a drying device and then made into coarse bamboo fibres for a composite material); the coarse rope-shaped bamboo fibres are subjected to continuous biological degumming to obtain the rope-shaped bamboo fibres; the rope-shaped bamboo fibres are fed into a cleaning device for repeated cleaning, rolling and drying are performed, and then spraying-type oiling is performed to obtain thin rope-shaped bamboo fibres; finally, the thin rope-shaped bamboo fibres are subjected to opening and carding to make bamboo fibres for a textile material.

The present disclosure relates to separating fibres from plant straw where the separated fibres retain properties that are favourable for manufacturing textiles. Some embodiments of the present disclosure relate to an apparatus that comprises multiple separation-units for separating the desired fibres from the other constituent components of the plant straw. The apparatus may further comprise a recycling system for fluids used within the one or more separation units. Some embodiments of the present disclosure relate to a method for separating fibres from the other constituent components of the plant straw.

A superfine long bamboo filament production device comprises a bamboo filament processing machine, a baseplate, a material placement box and a material pushing box, wherein the bamboo filament processing machine is arranged on a left side of the baseplate, the material placement box is arranged above the baseplate, two mounting blocks are fixedly connected to front and rear outer side walls symmetrically, and a telescopic rod is fixedly connected to a bottom of each of the mounting blocks; the material pushing box is arranged between the baseplate and the material placement box, a discharge port is formed in a bottom of the material placement box, and is located directly above the material pushing box, a plurality of L-shaped rods are fixedly connected to an outer side wall of the material pushing box symmetrically, and the other end of each of the L-shaped rods is fixedly connected to the baseplate.

Textile fibres and textiles produced from Brassica plants retain properties that are favourable for textile manufacture. Also described are textiles manufactured from the textile fibres produced from the Brassica plants which exhibit properties that are favourable for apparel and domestic applications, as well as industrial applications. Methods for producing the textile fibres from Brassica plants are further described.

Textile fibres and textiles produced from Brassica plants retain properties that are favourable for textile manufacture. Also described are textiles manufactured from the textile fibres produced from the Brassica plants which exhibit properties that are favourable for apparel and domestic applications, as well as industrial applications. Methods for producing the textile fibres from Brassica plants are further described.

The method of the invention comprises the following steps: (i) cutting the maize stalks so as the less leafy stalk segments, higher than 70 cm, stay on the field; (ii) cutting the less leafy stalk segments as close to the ground as possible; (iii) harvesting the less leafy stalk segments cut in step (ii); (iv) cutting the in step (iii) harvested less leafy stalk segments into 5-50 mm stalk sections; (v) providing a mechanical impact to the stalk sections of step (iv) to obtain a mix containing: f1. said spongy cores forming the superabsorbent pellets fraction, f2. said elongated fiber pieces forming the fibrous matter fraction, f3. and said leaf matter forming the leafy fraction,
(vi) separating the 3 fractions from each other;
(vii) recovering the three fractions f1-f2-f3; The invention also pertains to the so obtained products and to their uses in treatments of liquids or gases.