Protective or hazardous duty garments are used in a variety of industries and settings to protect the wearer from hazardous conditions such as heat, smoke, cold, sharp objects, chemicals, liquids, fumes and the like. The protective garments often include a fixed collar to provide further protection to the wearer.
In one embodiment the invention is a coat including a coat body and a fixed collar coupled to the coat body and configured to extend generally circumferentially when the coat is worn, the fixed collar having a fixed collar retaining component. The coat further includes a protective collar that is movable between a retracted position wherein at least part of the protective collar is positioned in the fixed collar, and an extended position wherein less of the protective collar is positioned in the fixed collar than when the protective collar is in the retracted position. The protective collar is configured to move in a generally circumferential direction when moving between the extended position and the retracted position. The protective collar has a protective collar retaining component that is configured to interact with the fixed collar retaining component to releasably retain the protective collar in the extended position.
The coat 10 may include various layers through its thickness to provide various heat, moisture and/or abrasion resistant qualities to the coat 10 so that the coat 10 can be used as a protective, hazardous duty, and/or firefighter garment. For example, with reference to
The outer shell 26 may be made of or include a variety of materials, including a flame, heat and abrasion resistant material such as a compact weave of aramid fibers and/or polybenzamidazole fibers. Commercially available aramid materials include NOMEX and KEVLAR fibers (both trademarks of E.I. DuPont de Nemours & Co., Inc. of Wilmington, Delaware), and commercially available polybenzamidazole fibers include PBI fibers (a trademark of PBI Performance Fabrics of Charlotte, North Carolina). Thus, the outer shell 26 may be an aramid material, a blend of aramid materials, a polybenzamidazole material, a blend of polybenzamidazole fibers, a blend of aramid and polybenzamidazole materials, a poly-phenylene benzobisoxazole (PBO) material, a thermostable organic polymer material, such as KERMEL® material sold by Kermel SAS of Colmar, France, a blend of any of the materials listed above, or other appropriate materials.
If desired, the outer shell 26 may be coated with a polymer, such as a durable, water repellent finish or coating (i.e. a perfluorohydrocarbon finish, such as TEFLON® finish sold by E. I. Du Pont de Nemours and Company of Wilmington, Delaware, or a fluorine free water repellent finish). The materials of the outer shell 26 may have a weight of, for example, between about five and about ten oz./yd2. Moreover, if desired the outer shell 26 may have a self-decontaminating finish or coating applied thereto.
The moisture barrier 28 and thermal barrier 30 may be generally coextensive with the outer shell 26, or spaced slightly inwardly from the outer edges of the outer shell 26 (i.e., spaced slightly inwardly from the outer ends of the sleeves 24, the collar 34 and/or from the lower edge or hem of the coat 10) to provide moisture and thermal protection throughout the coat 10. The moisture barrier 28 may include a semi-permeable membrane layer 28a and a substrate 28b.
The membrane layer 28a may be generally water vapor permeable but generally impermeable to liquid moisture. The membrane layer 28a may be made of or include expanded polytetrafluoroethylene (“PTFE”) such as GORE-TEX or CROSSTECH materials (both of which are trademarks of W.L. Gore & Associates, Inc. of Newark, Delaware), STEDAIR particulate barrier material sold by Stedfast, Inc. located in Quebec Canada, polyurethane-based materials, neoprene-based materials, cross-linked polymers, polyaramid, or other materials. The membrane layer 28a may have microscopic openings that permit moisture vapor (such as water vapor) to pass therethrough, but block liquids (such as liquid water) from passing therethrough. The membrane layer 28a may be made of a microporous material that is either hydrophilic, hydrophobic, or somewhere in between. The membrane layer 28a may also be monolithic and may allow moisture vapor transmission therethrough by molecular diffusion. The membrane layer 28a may also be a combination of microporous and monolithic materials (known as a bicomponent moisture barrier), in which the microporous or monolithic materials are layered or intertwined.
The membrane layer 28a may be bonded, adhered or otherwise coupled to the substrate 28b of a flame and heat resistant material to provide structure and protection to the membrane layer 28a. Thus, either the membrane layer 28a alone, or the membrane layer 28a in combination with the moisture barrier substrate 28b, may be considered to constitute the moisture barrier 28. The substrate 28b may be or include aramid fibers similar to the aramid fibers of the outer shell 26, but may be thinner and lighter in weight. The substrate 28b may be woven, non-woven, spunlace or other materials. In the illustrated embodiment, the membrane layer 28a is located between the outer shell 26 and the substrate 28b. However, the orientation of the moisture barrier 28 may be reversed such that the substrate 28b is located between the outer shell 26 and the membrane layer 28a.
The thermal barrier 30 may be made of nearly any suitable flame resistant material that provides sufficient thermal insulation. In one embodiment, the thermal barrier 30 may include a layer of bulk material 30a in the form of relatively thick (i.e. between about 1/16″- 3/16″) batting, felt or needled non-woven bulk or batting material. The bulk material 30a 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, foam (either open cell or closed cell), or other suitably thermally insulating materials. The bulk material 30a may trap air and possess sufficient loft to provide thermal resistance to the coat 10.
The bulk material 30a may be quilted or otherwise coupled to a thermal barrier face cloth 30b which can be a weave of a lightweight aramid material. Thus, either the bulk material 30a alone, or the bulk material 30a in combination with the thermal barrier face cloth 30b, may be considered to constitute the thermal barrier 30. In the illustrated embodiment, the thermal barrier bulk material 30a is located between the outer shell 26 and the thermal barrier face cloth 30b. However, the orientation of the thermal barrier 30 may be reversed such that the thermal barrier face cloth 30b is located between the outer shell 26 and the bulk layer 30a. If desired, the thermal barrier 30 may be treated with a water-resistant or water-repellent finish. In one embodiment, the thermal barrier 30 (and/or the coat 10 as a whole) may have a thermal protection performance (“TPP”), as specified in the 1986 revision of the National Fire Protection Association (“NFPA”) 1971, Protective Clothing for Structural Fire Fighting Standards, of at least about twenty, and the coat 10 as a whole may have a TPP of at least about thirty-five, although the TPP values can vary.
Although the moisture barrier 28 is shown as being located between the outer shell 26 and the thermal barrier 30, the positions of the moisture barrier 28 and thermal barrier 30 may be reversed such that the thermal barrier 30 is located between the outer shell 26 and the moisture barrier 28, or additional moisture barrier 28 and/or thermal barrier layers 30 can be utilized or various other orientations or configurations may be used.
The face cloth 32 may be the innermost layer of the coat 10, located inside the thermal barrier 30 and moisture barrier 28. The face cloth 32 can provide a comfortable surface for the wearer 45 and protect the thermal barrier 30 and/or moisture barrier 28 from abrasion and wear. The face cloth 32 may be quilted to the adjacent layer (i.e. the thermal barrier 30 in the illustrated embodiment). However, the face cloth 32 is optional and may be excluded if desired. In addition, the coat 10 may not necessarily include the moisture barrier 28 and/or the thermal barrier 30 in certain cases.
Each layer of the coat 10 disclosed herein, including the layers and components described above (including the fixed collar 34 and protective collar 50, 50′), as well as those described below, and the coat 10 as a whole, may meet the National Fire Protection Association (“NFPA”) 1971 standards for protective firefighting garments (“Protective Clothing for Structural Firefighting”), which standards as of the filing date of this application are entirely incorporated by reference herein. The NFPA standards specify various minimum requirements for heat and flame resistance and tear strength. For example, in order to meet the NFPA standards, the outer shell 26, moisture barrier 28, thermal barrier 30 and face cloth 32 must be able to resist igniting, burning, melting, dripping, separation, and/or shrinking more than 10% in any direction after being exposed to a temperature of 500° F. for at least five minutes. Furthermore, in order to meet the NFPA standards, the combined layers of the coat 10 must provide a TPP rating of at least thirty-five.
Alternately or in addition to the NFPA Standard 1971, the coat 10 and other components disclosed herein (including the fixed collar 34 and/or protective collar 50, 50′) may meet standards of other countries or regions, including the European Norm (“EN”) standards for firefighting garments set by the European Committee for Standardization (also known as Comité Européen de Normalisation (“CEN”)). These standards include EN 469:2005 Level 1 and Level 2 certification. The EN standards for firefighter and protective garments in place as of the filing date of this application are entirely incorporated by reference herein.
The coat 10 may include the collar 34, which can also be termed a fixed collar, permanent collar, an outer collar, or simply the collar 34. The fixed collar 34 can be positioned at an upper end of the coat 10 and extend generally circumferentially when the coat 10 is worn and/or in the closed/zipped/fastened configuration. The fixed collar 34 can be permanently, fixedly and non-movably coupled to the body portion 12, and in one case is not extendable or translatable relative to the body portion 12.
The fixed collar 34 can in one case extend about 360° when the coat 10 is in the closed configuration, and in other cases can extend less than 360° (e.g. at least about 330° in one case, or at least about 340° in another case, or at least about 350° in yet another case) thereby defining a gap or discontinuity 44, in one case aligned with or overlapping with the center line 23 of the coat 10. In some cases the fixed collar 34 extends 360 degrees or more, in which case there may be an overlap and thus no gap, but there may be a discontinuity 44, and gap 44 may be introduced where the collar 34 separates during donning or doffing. Thus the collar 34 can be generally “U” shaped or “O” shaped in top view in one embodiment, and had two opposite end portions 34′, 34″ on opposite sides of the gap (when present) or discontinuity 44. One end portion 34′ can be positioned on a first side of the center line 23/gap 44 and the other end portion 34″ can be positioned on a second, opposite side of the center line 23/gap 44. The coat 10 can in one case include only a single fixed collar 34.
In one embodiment, the fixed collar 34 is a two-ply component, including outer ply 34a and inner ply 34b connected to each other along a seam 36 as shown, for example, in
Each ply 34a, 34b can be made of various materials and various combinations of materials, but in one embodiment, as shown in
The plies 34a, 34b of the fixed collar 34 thereby define a cavity 42 therebetween and positioned within the fixed collar 34, extending generally circumferentially. If desired, the outer ply 34a may be simply folded downwardly and remain in place by the folded nature of the collar 34. Alternatively, the outer ply 34a can be secured in place to the body portion 12 and/or inner ply 34b by stitching at a bottom end thereof, or various other fastenings devices or mechanisms such as a zipper, hook and loop fastening material (such as VELCRO®) or the like.
The coat 10 can include a protective collar, movable collar or protective collar component 50 which, in the illustrated embodiment, include or takes the form of a tab 52. The protective collar 50/tab 52 is positionable in a first or retracted or disengaged position (e.g. when the coat 10 is worn and/or the fastener 20 of the coat 10 is fully fastened), as shown in
When in the retracted position, the protective collar 50/tab 52 can be coupled to and/or positioned in and/or positioned adjacent and/or positioned in an overlapping relationship in the radial direction relative to the first portion 34′ of the fixed collar 34, and not the second portion 34″ of the fixed collar 34. In addition, when in the retracted position the protective collar 50/tab 52 can be entirely positioned on a first side of the center line 23 and/or the gap 44. Moreover, when in the retracted position, at least about 50% of the length of the protective collar 50/tab 52 (e.g. in the circumferential direction) and/or at least about 50% the surface area of the protective collar 50/tab 52 is received in the fixed collar 34/cavity 42, and in other embodiments at least about 70%, or at least about 80%, or at least about 90%, and in another case, the entirety of the length and/or surface area of the protective collar 50/tab 52 is positioned in the fixed collar 34/cavity 42 when the protective collar 50/tab 52 is in the retracted position.
The protective collar 50/tab 52 is movable to a second, extended or engaged position or positions (e.g. when the coat 10 is worn and/or when the fastener 20 of the coat 10 is fully fastened), as shown in
In one case the protective collar 50/tab 52 entirely extend across and/or cover the gap 44, if a gap 44 is present, and at least part of the protective collar 50/tab 52 is positioned on second, opposite side of the center line 23. Moreover, when in the extended position, at least about 30% of the length of the protective collar 50/tab 52 (e.g. in the circumferential direction) and/or at least about 30% of the surface area is not received in the fixed collar 34/cavity 42, and in other embodiments at least about 40%, or at least about 50%, or at least about 70%, or at least about 90% of the length and/or surface area of the protective collar 50/tab 52 is not positioned in the fixed collar 34/cavity 42 when the protective collar 50/tab 52 is in the extended position.
When in the extended position the protective collar 50/tab 52 can extend across the throat/neck portion of a wearer 45, and be positioned entirely below the nose, eyes, ears and/or chin of a wearer 45. The protective collar 50/tab 52 is configured to move in a translation motion, in a generally circumferential direction, when moving between the retracted and extended positions. Thus in one case the protective collar 50/tab 52 is not deformed or folded upon itself when in the retracted position as compared to the extended position (or vice versa), and has the same shape/configuration in both positions.
The protective collar 50/tab 52 can be biased to the retracted position by a biasing mechanism 51. In one case the biasing mechanism includes or take the form of an elastic component 54 that is coupled to the protective collar 50/tab 52 and the fixed collar 34. The elastic component 54 may be relaxed or unstretched (or relatively relaxed or unstretched) when the protective collar 50/tab 52 is in the retracted position, and stretched/placed in tension (or more stretched/placed under more tension) when the protective collar 50/tab 52 is in the extended position. The elastic component 54 can be made of a resilient material which can deform or elongate when a force is applied thereto (particularly along its longitudinal direction), and when so deformed is biased to return to its original shape/position. When the force is removed the elastic component 54 returns to its original, undeformed shape.
In this manner, when the protective collar 50/tab 52 is in the extended position, the biasing mechanism 51/elastic component 54 applies a biasing force to return the protective collar 50/tab 52 to the retracted position. As will be described in greater detail below, the protective collar 50/tab 52 and/or collar 34 can include retaining components 57, 59 that cooperate to retain the protective collar 50/tab 52 in the extended position (using cooperating magnets 66 and/or magnetizable components in one particular embodiment). Thus when the retaining components 57, 59 are released, the protective collar 50/tab 52 may automatically return to its retracted position as shown in
When in the extended position, the protective collar 50/tab 52 can provide increased protection to the wearer 45. In particular, the protective collar 50/tab 52 can span the gap 44 which may be present in the coat 10, particularly when the wearer 45 is in a position which tends to pull the panels 14, 16 apart. Thus a gap 44 may not necessarily be present during normal wearing or usage of the coat 10, but can be introduced when the wearer 45 is in a physically stressed situation or external forces are applied to the coat 10. Even if a gap 44 is not present the protective collar 50/tab 52 can provide additional protection to the throat/neck of the wearer 45, which can be a vulnerable body part of the wearer 45.
When in the extended position, at least part of the protective collar 50/tab 52 may remain in the cavity 42/collar portion 34′ to provide more complete protection to the wearer 45. In addition, the protective collar 50/tab 52 may have a vertical height, or dimension extending along a height of the coat 10, that is within about 75% in one case, or about 90% in another case, of the height of the fixed collar 34 and/or the height of the fixed collar 34 at the portions 34′, 34″, such that the protective collar 50/tab 52 can thereby provide the same or similar protection to a wearer 45 as the fixed collar 34 when the protective collar 50/tab 52 is in the extended position.
With reference to
The protective collar 50/tab 52 can have a protective collar retaining component 57 that is, in one case, directly, and not movably, coupled to the protective collar 50/tab 52, and the fixed collar 34 can have a fixed collar retaining component 59 directly, and not movably, coupled to the fixed collar 34. The retaining components 57, 59 can be configured to interact to retain the protective collar 50/tab 52 in the extended position. In one case at least one of the retaining components 57, 59 includes or take the form of one or more magnets 66, and the other of the retaining components 57, 59 includes or take the form of one or more magnet(s) 66 or magnetizable material, such as a ferrous metal. The protective collar retaining component 57 and fixed collar retaining component 59 can be positioned on opposite sides of the gap/discontinuity 44 and/or center line 23 when the collar 50/tab 52 is in the retracted position, and be positioned on the same side when the collar 50/tab 52 is in the extended position.
In the manner, when the retaining components 57, 59 are positioned sufficiently close they magnetically interact, as shown in
When the protective collar retaining component 57 and fixed collar retaining component 59 are both magnets 66, they can be arranged such that when the protective collar 50/tab 52 is in its extended position, inwardly-facing face of the magnet(s) 66 of the protective collar retaining component 57 has an opposite pole orientation to the outwardly-facing face of the magnet(s) 66 of the fixed collar retaining component 59. Thus, when the protective collar 50/tab 52 is moved to its extended positions, the magnets 66 magnetically interact and couple with a force greater than that imparted by the biasing mechanism 51, thereby retaining the protective collar 50/tab 52 in its extended position. If one of the protective collar retaining components 57 or fixed collar retaining components 59 has a magnetizable component instead of a magnet 66, the magnet 66 can be arranged in any desired configuration or orientation.
In the illustrated embodiment, the protective collar retaining component 57 includes or takes the form of two magnets 66 that are spaced apart in the circumferential direction, and the fixed collar retaining component 59 includes or takes the form of two magnets 66 that are also spaced apart in the circumferential direction by a same distance as the magnets 66 of the protective collar retaining component 57. In this manner, when the protective collar 50/tab 52 is in the extended position both sets of magnets 66 can be aligned and magnetically interact to retain the protective collar 50/tab 52 in the extended position, as shown in
Moreover the use of two (or more) magnets 66 can provide flexibility in the use of the retaining components 57, 59. In particular, if desired only one magnet 66/magnetizable component of each retaining component 57, 59 can be aligned and magnetically secured to each other, to enable the protective collar 50/tab 52 to be retained in an alternate, or first supplemental, extended position as shown in
As shown in
With continued reference to
In one embodiment, each magnet 66 is positioned adjacent to/magnetically coupled to an associated backing member or disc 74 that is located in the pouch 70. Each disc 74 can be made of ferrous or magnetizable material in the same manner as outlined above for the magnetizable components. The discs 74 can help in manufacturing/locating of the associated magnet 66 in the desired position. Each disc 74 may also provide a shunting force to direct the magnetic field away from the wearer 45 (in the case of the fixed collar retaining component 59) and/or toward the other magnet 66 or magnetizable component (in the case of the protective collar retaining component 57 and fixed collar retaining component 59) to increase the magnetic attraction. Each disc 74 can have a size and shape (in front view) that generally corresponds to a size and/or shape of the corresponding magnet 66. However, it should be understood that the discs 74 are optional. The magnets 66 and/or discs 74 and/or magnetizable components can be secured in place in the pouches 70 by a variety of methods, such as an adhesive and/or stitching that extends through the pouch 70 and extends around each magnet 66/disc 74/magnetizable component to essentially lock the component in place and limit the motion/travel thereof.
Each of the magnets 66, in the illustrated embodiment, are generally flat and circular in front view, taking the form of “button” magnets, with their poles oriented perpendicular to the flat end surfaces. However, the magnets 66 can have any wide variety of shapes and configurations. The magnets 66 may in one case have a pull force (either magnet-to-magnet or magnet-to-magnetizable component) of between about 10 lbs. and about 20 lbs. at a distance of 0 inches, and between about 0.5 lbs. and about 5 lbs. at a distance of 0.2 inches. In one case, the pull force provided by the magnets 66, when the protective collar 50/tab 52 is in the engaged position, is selected to be similar to the pull force required to open typical hook-and-loop fasteners used in firefighter turnout gear. The magnets 66 can be permanent magnets made of various materials, and in one case are rare earth magnets, such as neodymium magnets (in one case N48 magnets or 48 MGO megagauss oersteds magnets) with a nickel coating.
In addition, it should be understood that the retaining components 57, 59 can include or take the form of various other mechanisms or mechanisms, besides magnets, for securing the protective collar 50/tab 52 and fixed collar 34 to each other and/or retaining the protective collar 50/tab 52 in the extended position, such as hook-and-loop material (e.g. VELCRO® material), snaps, clasps, snaps, buttons or the like. In addition, one or both of the retaining components 57, 59 can include or take the form of material or components, such as hook-and-loop fastening material, that extends continuously or discontinuously in the circumferential direction (e.g. along at least about 10% of the length of the protective collar 50/tab 52 in one case, or at least about 20% in another case, or at least about 40% in yet another case) to provide flexibility in size/fit adjustments when the protective collar 50/tab 52 is engaged, similar to that shown in
In one case, however, the retaining components 57, 59 do not include or take the form of buttons, and in this case the protective collar 50/tab 52 (and tabs 52a, 52b described below) and/or fixed collar 34 can each lack any buttons and/or button holes. In some cases buttons may be too difficult to operate and/or the button holes may undesirably compromise the strength and protection provided by the associated components. In one case the retaining components 57, 59 can be positioned entirely internally to the protective collar 50/tab 52 and/or the tabs 52, 52a, 52b and/or the collar 34, and entirely spaced away and not intersecting the outer surfaces thereof, to enable a smooth, continuous outer surface to be provided to those components to enable smooth sliding thereof and prevent other components or equipment from catching thereon. It should be noted that while
In one case the protective collar 50/tab 52 and/or fixed collar 34 can include various features to guide the movement of the protective collar 50/tab 52 between its extended and retracted positions. In particular, as shown in
In this manner the loops 82 of the protective collar 50/tab 52 can receive the loops 80 of the fixed collar 34 therethrough/thereunder and be secured in place. The inter-engaging loops 80, 82 cooperate to guide and limit the sliding/translation movement of the protective collar 50/tab 52. However, it should be understood that any of a wide variety of guides, inter-engaging shapes or the like can be used to guide the sliding motion of the protective collar 50/tab 52 or, if desired, no guiding structures at all may be utilized. For example, in one case, the elastic component 54 can take the form of a relatively wide elastic component 54 (see
In addition, it should be understood that the biasing mechanism 51 can include or take the form of various other structures or arrangements besides the elastic component 54 to bias or retract the protective collar 50/tab 52 to its retracted position. For example, in one case, as shown in
In the embodiment of
The protective collar 50′ and/or each tab 52a, 52b is positionable in a first, retracted or disengaged position (e.g. when the fastener 20 of the coat 10 is fully fastened), as shown in
The protective collar 50′ and/or each tab 52a, 52b is also movable to a second, extended or engaged position (e.g. when the fastener 20 of the coat 10 is fully fastened), as shown in
When in the extended position, at least part of each tab 52a, 52b may remain in the cavity 42 to provide more complete protection to the wearer 45. In addition, when in the extended position at least part of the protective collar 50′ and/or each tab 52a, 52b is positioned in the front/center of the coat 10, aligned with and/or spanning (in the circumferential direction) the fastener 20 and/or center line 23 in one case.
When the protective collar 50′ (or at least one of the tabs 52a, 52b) is in the extended position, the elastic component 54 (when used as the biasing mechanism 51) is placed in tension and thereby desires to pull or return the protective collar 50′/tabs 52a, 52b to their retracted positions. In this manner, when the retaining components 57, 59 are released, the tabs 52a, 52b may automatically return to their retracted position as shown in
As noted above, in one case each tab 52a, 52b can include a protective collar retaining component 57, such as in the form of a magnet 66 and/or magnetizable portion positioned in each tab 52a, 52b such that each tab 52a, 52b is magnetically attracted to the other tab 52a, 52b to thereby retain the tabs 52a, 52b, and the protective collar 50′, in its extended position. In this case, the tabs 52a, 52b can overlap when in the extended position and when coupled together. In one case, each tab 52a, 52b includes a permanent magnet 66 positioned therein, although if desired only one of the tabs 52a, 52b can include a magnet 66, and the other one of the tabs 52a, 52b can include a magnetizable component (not shown) made of a magnetizable material that is not a permanent magnet, such as ferrous metal. In the illustrated embodiment, each tab 52a, 52b includes only a single magnet 66/magnetizable component, but can include two or more magnets 66/magnetizable components, as described above in the embodiment of
The tabs 52a, 52b can be arranged such that when they are in their extended position, the magnet 66 of the outer tab 52b is configured such that its inwardly-facing face has an opposite pole orientation to the outwardly-facing face of the magnet 66 of the inner tab 52a. Thus, when the tabs 52a, 52b are moved to their extended positions, the magnets 66 magnetically interact and couple with a force greater than that imparted by the elastic component 54 (or other biasing force, if utilized) thereby retaining the tabs 52a, 52b in their extended positions. If one of the tabs 52a, 52b has a magnetizable component instead of a magnet 66, the magnet 66 of the other tab 52a, 52b may be arranged in any desired configuration or orientation.
As shown in
This combination of layers provides sufficient protection to the wearer 45, and can provide protection at least equal to that provided by the fixed collar 34. However by positioning the protective layers of the tabs 52a, 52b in this configuration, there are less layers, and thereby less distance/interference, between the cooperating magnets 66 (or magnet and magnetizable component) positioned in the tabs 52a, 52b to ensure the magnets 66 (or magnetizable component) are properly magnetically engaged to retain the protective collar 50′/tabs 52a, 52b in the extended position. In this manner there are less layers and/or thickness between the inner (facing) side or surfaces of the magnets 66/magnetizable components than on the outer sides or surfaces. Nevertheless it should be understood that each ply 60, 62 of each tab 52a, 52b can have various layers and construction as desired.
With reference to
As shown in
In the embodiment shown in
The protective collar 50, 50′ can provide protection to a wearer 45 of the coat 10 across the front of their throat and span/close the gap 44 to provide continuous protection. The protective collar 50, 50′ is durable, robust and intuitive to use, and can be easily operated by a wearer 45. In addition, the retaining components 57, 59 or other retainer system can be operated without fine motor skills, which can provide ease of use to a wearer 45 who is wearing gloves and/or when time is limited, to ensure sufficient protection.
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.
This application claims priority to U.S. Provisional Patent Application Ser. No. 63/190,530, filed on May 19, 2021, the entire contents of which are hereby incorporated by reference. This application relates to a protective garment, and more particularly, to a protective garment with a collar that can be retracted.
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Number | Date | Country | |
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20220369744 A1 | Nov 2022 | US |
Number | Date | Country | |
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63190530 | May 2021 | US |