The present invention relates to protective garments and, more particularly, to protective garments having a height that can be adjusted.
Protective or hazardous duty garments are widely used in various industries to protect the wearer from various hazardous conditions, such as heat, smoke, cold, sharp objects, chemicals, liquids, fumes and the like. The protective garments should conform to the height of the wearer. In particular, the protective garment should be long enough to ensure complete protection to the wearer, but should not be so long as to present a tripping hazard, provide a “catch” point for equipment, drag on the floor such that it can absorb materials located on the floor, etc. Additionally if the garment is too long the crotch of the garment may be too low which can impede the climbing and walking of the wearer and present durability issues.
Furthermore, a single protective garment may be desired to be worn by wearers of various sizes. Accordingly, there is a need for a protective garment that is height adjustable, and which has a height that can be quickly and easily adjusted.
In one embodiment, the present invention is a protective garment that has a height or length that can be quickly and easily adjusted. In particular, in one embodiment the invention is a height adjustable protective garment including an outer shell shaped to fit about the chest, torso and legs of a wearer and having a waist portion shaped to be located at or adjacent to a waist of a wearer. The garment further includes an adjusting strip having an attachment portion directly or indirectly coupled to the outer shell and a free end which is generally spaced apart from the attachment portion. The free end is releasably attachable to the outer shell or to the strip of material to adjust the height of the protective garment, and the adjusting strip is located at or adjacent to the waist portion.
In another embodiment the invention is a height adjustable protective garment including an outer shell shaped to fit about the chest, torso and legs of a wearer and being made of abrasion, flame and heat resistant material such that the outer shell can resist igniting, burning, melting, dripping or separation when exposed to a temperature of 500° F. for at least five minutes. The garment further includes a height adjusting system positioned at or adjacent to the waist of the garment such that the height adjusting system can be operated to adjust the height of the protective garment. In yet another embodiment, the height adjusting system includes a first attaching strip extending generally along at least part of the outer shell in a generally closed loop shape and a second attaching strip extending generally along at least part of the outer shell in a generally closed loop shape. The second attaching strip is generally parallel to and spaced apart from the first attaching strip, and the first and second attaching strips are releasably attachable together to adjust the height of the protective garment.
These and other objects and advantages of the present invention will be apparent from the following description, the accompanying drawings and the appended claims.
The garment 10 may include a releasable fastener 22 (such as a zipper or the like) which extends from the ankle 24 of leg 18, up and around the crotch 26, and to the ankle 28 of leg 21. The fastener 22 can be opened to fully open the legs 18, 21 so that the garment 10 can be donned doffed by passing the garment 10 over the head and shoulders of a wearer 20. However, the garment 10 may have any of a wide variety of configurations, openings, fasteners (i.e. slide fastener components, snaps, buttons, hook and loop fastening systems (i.e. VELCRO®), straps, ties and the like) in a variety of locations (i.e., across the chest of the garment 10, along the side of the garment 10, etc.) to enable donning and doffing of the garment 10.
As shown in
The moisture barrier 32 and thermal liner 34 may be generally coextensive with the outer shell 30, or spaced slightly inwardly from the outer edges (i.e., spaced inwardly from the outer ends of the arms 16, legs 18, 21 and collar 38) of the outer shell 30 to provide moisture and thermal protection throughout the garment 10. The moisture barrier 32 may include a semi-permeable membrane layer 40, which may be generally moisture vapor permeable but generally impermeable to liquid moisture.
The membrane layer 40 may be made of or include expanded polytetrafluoroethylene (“PTFE”) such as GORE-TEX or CROSSTECH (both of which are trademarks of W.L. Gore & Associates, Inc.), polyurethane-based materials, neoprene-based materials, cross-linked polymers, polyamid, or other materials. The membrane layer 40 may have microscopic openings that permit moisture vapor to pass therethrough, but block liquids (i.e., water) from passing therethrough. The membrane layer 40 may be made of a microporous material that is either hydrophilic, hydrophobic, or somewhere in between. The membrane layer 40 may also be monolithic and may allow moisture vapor transmission therethrough by molecular diffusion. The membrane layer 40 may also be a combination of microporous and monolithic materials (known as a bicomponent moisture barrier), in which the microporous or monolithic material can be layered or intertwined.
The membrane layer 40 may be bonded or adhered to a substrate 42 of a flame and heat resistant material. The substrate 42 may be aramid fibers similar to the aramid fibers of the outer shell 30, but may be thinner and lighter in weight. The substrate 42 may be woven, non-woven, spunlace or other materials. In the illustrated embodiment, the substrate 42 faces the outer shell 30. However, the orientation of the moisture barrier 32 may be reversed such that the membrane layer 40 faces the outer shell 30.
The thermal liner 34 may be made of any suitable material which provides sufficient thermal insulation. In one embodiment, the thermal liner 34 may include a relatively thick (i.e. typically from 1/16″– 3/16″ thick) batting, felt or needled non-woven material 44 which can include aramid fiber batting (such as NOMEX batting), aramid needlepunch material, an aramid non-woven material, an aramid blend needlepunch material, an aramid blend batting material, an aramid blend non-woven material, or foam (either open or closed cell) materials. The batting 44 preferably traps air and possesses sufficient loft to provide thermal resistance to the garment 10.
The batting 44 is typically quilted to a thermal liner face cloth 46, and the thermal liner face cloth 46 may be a weave of a lightweight aramid material. Thus, either the batting 44 alone, or the batting 44 in combination with the thermal liner face cloth 46, may be considered to be the thermal liner 34. In one embodiment, the thermal liner 34 may have a thermal protection performance (“TPP”) of at least about 20, or of at least about 35. The thermal liner 34 may be treated with a water-resistant material, or may be made of an inherently water-resistant material. In the illustrated embodiment, the thermal liner face cloth 46 faces the moisture barrier 32/outer shell 30. However, the orientation of the thermal liner 34 may be reversed such that the batting 44 faces the moisture barrier 32/outer shell 40.
Although the moisture barrier 32 is shown as being located between the outer shell 30 and the thermal liner 34, the positions of the moisture barrier 32 and thermal liner 34 may be reversed such that the thermal liner 34 is located between the outer shell 30 and the moisture barrier 32.
The face cloth 36 may be the innermost layer of the garment 10 and can provide a comfortable surface for the wearer and protect the batting 44 from abrasion by the wearer. The face cloth 36 may be made of a quilted material as part of a quilt package.
Each layer of the garment 10, and the garment as a whole, may be designed to meet the National Fire Protection Association (“N.F.P.A.”) 1971 standards for protective firefighting garments (“Protective Clothing for Structural Firefighting”). The NFPA standards specify various minimum requirements for heat and flame resistance and tear strength. For example, in order to meet the NFPA standards, an outer shell 30 of a garment must be able to resist igniting, burning, melting, dripping and/or separation when exposed to a temperature of 500° F. for at least five minutes. Furthermore, in order to meet the NFPA standards, all combined layers of the garment 10 must provide a thermal protection performance rating of at least thirty five. However, if desired the garment 10 may have a thermal protection performance of less than thirty five, or may not meet various other NFPA standards, in which case the garment 10 may be sold or marketed as not necessarily meeting NFPA standards. For example, the garment 10 may be a recreational snow suit or have various other uses.
The garment 10 includes a height adjusting system 50 located on and/or coupled to the outer shell 30 to aid in adjusting the height of the garment 10. In particular, the height adjusting system 50 includes a plurality of adjusting strips 52 spaced about the periphery of the garment 10 at the waist 14 of the garment 10. The garment 10 has a central axis A extending generally perpendicular to the waist 14 of the garment 10 (and along the height or length thereof), and each adjusting strip 52 is oriented generally parallel to the central axis A. For example, as shown in
As shown in
The attachment portion 60 may be directly or indirectly coupled to the outer shell 30. For example, in the embodiment shown in
In an alternate embodiment, rather than being indirectly attached to the outer shell 30 (i.e., by the retaining loop 70), the attachment portion 60 of each adjusting strip 52 may be directly coupled to the outer shell (i.e., by stitching, adhesives, bonding or the like). Thus,
The free end 58 and the base portion 56 of each adjusting strip 52 may be releasably attachable together to form the adjusting strip 52 in a generally closed loop. For example, as shown in
In this manner, as shown in
In an alternate embodiment, instead of locating the upper patch 80 of hook-and-loop fastening material on the base portion 56, a patch 80 of hook-and-loop fastening material may be located on the outer shell 30 (i.e., generally adjacent to the base portion 56) as shown in
Thus, the height adjusting system 50 enables the height of the garment 10 to be quickly and easily adjusted. In particular, simply by separating the free end 58 from the base portion 56 of each adjusting strip 52, and reattaching the free end 58 to the base portion 56 at the desired location, the height of the garment 10 can be easily adjusted. Each of the patches 80 of hook-and-loop fastening material may extend along the height of the garment 10 so that the patches 80 can be engaged in a wide variety of configurations (i.e., fully overlapping, various degrees of partially overlapping, etc.) so that the height of the garment 10 can be set to a variety of dimensions. Furthermore, because the free ends 58 can be easily gripped, the height adjusting system 50 can be easily operated by a wearer, even when wearing protective gloves or the like. Finally, the height adjusting system 50 is intuitive and easy to use.
Of course, a wide variety of structures besides the patches 80 of hook-and-loop fastening material may be used to couple the free ends 58 and base portions 56, including but not limited to snaps, clasps, interengaging geometries, cords, ties, zippers, magnets and the like.
The first and second attaching strips 104, 106 are generally parallel, and in the configuration shown in
When the garment 100 is moved to its configuration shown in
In the embodiment shown in
Having described the invention in detail and by reference to the preferred embodiments, it will be apparent that modifications and variations thereof are possible without departing from the scope of the invention.
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