The present invention describes a garment comprising a textile layer, in particular made of a knit or woven, made from at least one thread, with an inner side facing a wearer when the garment is worn and an outer side facing away from the skin, and a method for producing a garment.
Different garments, among other things, with different textile layers which have breathable means are known by the applicant. Garments, primarily produced for this, closely contact the skin of a wearer, are particularly form-fitting and may develop their breathable effect based on the direct contact on the skin of the wearer. The breathable means function, for example, to absorb sweat or for targeted dissipation of sweat and partially for thermal insulation of certain body parts. Textile layers made from wovens or knits are thereby preferably selected, as these are extremely flexible and allow sufficient range of motion despite close contact on the skin.
However, there are increasing numbers of users who reject closely-contacting, form-fitting clothing. The classically known breathable means are correspondingly no longer usable, as these are based on direct skin contact of the textile layer or of the breathable regions.
The present invention has the object of creating a textile garment comprising a textile layer which has virtually no direct skin contact with a wearer during use and despite this develops a breathable effect at least in breathable regions of the textile layer or of the garment. An increased thermal insulation and/or a dissipation of sweat from the body surface is/are understood as breathable effects.
The breathable effect of a textile layer not directly contacting the skin of a wearer is achieved by a garment with the features of patent claim 1.
Additional advantageous specific embodiments are listed in the dependent claims.
One preferred exemplary embodiment of the subject matter of the invention is subsequently described in conjunction with the appended drawings.
Garments 0 are shown by way of example in the form of a pair of pants and a t-shirt, which respectively have a textile layer 1. Textile layer 1 comprises an inner side 10 and an outer side 11. When the garment is worn, inner side 10 is arranged facing the skin of the wearer, while outer side 11 is arranged pointing away the side facing away from the skin 3.
Textile layer 1 and thus garment 0 is respectively tailored in such a way that inner side 10 of textile layer 1 does not directly contact skin 3 of a wearer, by which means garment 0 is tailored to be less form-fitting. As no direct contact is present, the breathability may not be carried out using textile sections directly contacting the skin.
Therefore, a plurality of breathable regions 2 are provided on textile layer 1 arranged, in the example of pair of pants 0 or t-shirt 0 according to
As is shown in
Textile layer 1 is shown in
Tentacle sections 200 preferably have the same length d, so that both tentacle sections 200 develop the same capillary effect. Tentacle sections 200 hang more or less freely from textile layer 1 pointing away from inner side 10. In order to achieve breathable regions 2 with optimum effect, thread tentacles 20 are to be distributed as homogenously as possible and are particularly preferably most densely packed.
Thread tentacles 20 may selectively comprise the same thread as textile layer 1 or be produced from another thread, in particular a hydrophilic second thread. In particular, thread tentacles 20 are produced from polyamide, so that a sufficient dissipation of moisture or capillary effect is achieved. Thread tentacles 20 suction moisture up and guide the same away from skin 3, so that a breathability is achievable based on the plurality of thread tentacles 20. The capillary effect may be increased even more by using hollow fibers and/or particularly hydrophilic materials of the thread of the thread tentacles 20.
Due to the angled configuration of tentacle section 200 relative to central section 201, thus substantially U-shaped, moisture may be directed away from skin 3 and may be guided into central section 201 spaced apart from skin 3. Due to tentacle sections 200 extending at a lateral angle from central section 201 and projecting in the direction of skin 3, the space between a loosely tailored garment 0 and skin 3 may be bridged. Because the thread of thread tentacles 20 is bent limply, tentacle sections 200 do not always extend in parallel and their shape may deviate over the course up to the skin surface, even in adjacent threat tentacles 20. Their functions, generation of a distance between an inner side 10 of textile layer 1, creation of channels and potential dissipation of sweat along thread tentacle 20, are ensured despite the limply bent behavior.
Central section 201 is configured to extend here substantially parallel to outer side 11. However, it is also possible that central section 201 is configured as more undulating, with a variable distance from outer side 11. Central section 201 may thereby also be threaded multiple times through textile layer 1.
Tests have shown that length d of tentacle sections 200 projecting from inner side 10 should be between 1 mm and 70 mm, in particular between 2 mm and 10 mm, in order to achieve a sufficient capillary effect and storage of moisture. The thread thickness of thread tentacles 20 should be selected between 0.5 and 10 dtex, in particular between 0.5 and 5 dtex. Length b of central section 201 of thread tentacles 20 preferably lies between 0.5 and 3 millimeters, by which means sufficiently many thread tentacles 20 may be placed in small areas.
Depending on the density of thread tentacles 20 per area, resulting breathable region 2, made of thread tentacles 20 projecting from inner side 10, may also have a heat insulating effect in addition to a sweat dissipating effect. A density of at least four thread tentacles 20 per square centimeter, preferably 10 thread tentacles per square centimeter or more should be selected. A fur-like zone is created in breathable regions 2 by a density of more than four thread tentacles 20 per square centimeter.
Central section 201 and tentacle sections 200 should preferably be selected to be of equal length for thread tentacles 20, by which means identically configured thread tentacles 20 are configured.
When a fur-like zone is created in breathable regions 2 by a sufficiently high density of thread tentacles 20, inner side 10 remains spaced apart from skin 3 and warmed air is enclosed in a plurality of channels between inner side 10 of textile layer 1 and the surface of skin 3. The air is unable to circulate and the heat is retained in breathable region 2. In order to create a particularly good, fur-like structure of breathable region 2, the density should be ten or more thread tentacles 20 per square centimeter that penetrate textile layer 1.
When a fur-like configuration is supposed to be achieved by means of the plurality of thread tentacles 20, the size of at least one breathable region 2 may ultimately be selected in such a way that this completely spans inner side 10 of textile layer 1 of garment 0. Even if approximately 40% or more of the surface of inner side 10 is provided with a breathable region 2 made from a plurality of thread tentacles 20, then a fur-like configuration results with the preferred breathable fur properties.
Thread tentacles 20 are preferably arranged uniformly distributed in breathable regions 2. The distances of central sections 201 of adjacent thread tentacles 20 should be selected to be approximately equal.
Textile layer 1 may selectively be a woven, knit, or warp-knitted fabric. Textile layer 1 is preferably designed as a knit which is industrially produced on a circular knitting machine or a flat knitting machine. If a knit 1 is produced, for example, on a circular knitting machine, then a first knitting thread is used comprising a first yarn thread, from which a textile layer 1 in the form of a knitted textile fabric is generated automatically on the knitting machine by means of a suitable knitting pattern.
During the knitting process, a second yarn thread is knitted in, which extends partially on inner side 10 and partially on outer side 11 of knit 1. The second yarn thread is knitted in during the knitting process, distributed extensively in the regions in which a breathable region 2 is to be subsequently formed.
The subsequent thread tentacles 20 are correspondingly arranged preferably in the circumferential direction or knit direction so that the extension direction of central sections 201 extends in the knit direction. During the knitting process, the second knitting yarn for generating thread tentacles 20 is knitted in, in addition to the first knitting yarn for generating textile layer 1. The second knitting yarn may selectively be identical to the first knitting yarn.
The second knitting yarn is knitted in, and is separated after the knitting using a cutting process in such a way that the plurality of thread tentacles 20 is generated at the locations of the breathable regions. The cutting process should be adjusted in such a way that lengths d of adjacent tentacle sections 200 of a thread tentacle 20 are as identical as possible.
A controllable cutting device is generally integrated into the knitting machine, by means of which cutting device loops, which project from inner side 10, are separated, by which means they become open loops and thus thread tentacles 20. This cutting process also runs automatically, controlled by the control device for the knitting machine, at the locations of textile layer 1, where breathable regions 2 are to be formed. The result is thread tentacles 20, which are formed from the second yarn threads, and have two tentacle sections 200 with ends and a central section 201, as described above.
Optionally, thread tentacles 20 may also be knitted from a corresponding thread, which may be carried out on a corresponding machine in another working process.
Number | Date | Country | Kind |
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01560/17 | Dec 2017 | CH | national |
Filing Document | Filing Date | Country | Kind |
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PCT/EP2018/085619 | 12/18/2018 | WO | 00 |