This application is a national stage application of international application no. PCT/EP2019/054026 filed Feb. 19, 2019, entitled “Protective Helmet,” claiming priority to German application no. DE 10 2018 103 657.4 filed Feb. 19, 2018, which are hereby expressly incorporated by reference as part of the present disclosure.
The present disclosure relates to a protective helmet.
Modern protective helmets increasingly have not only mechanical devices and features, such as a visor, a ventilator and turbulators, etc., but also electrical devices, which can also be referred to as electric-powered devices, which are either fixedly arranged on the protective helmet or can be detachably fastened thereto.
There are various ways of changeably fastening such an electrical device to a protective helmet. One way involves fastening such an electrical device to the protective helmet using a strap rigidly connected with the electrical device, specifically by introducing the strap between the outer shell, e.g., made out of expanded polystyrene, and the inner layer, e.g., a pad, at the lower edge of the protective helmet. The advantage to this approach is that no special fastening option need be provided on the protective helmet itself, so that virtually any protective helmet can be used for fastening purposes. The disadvantage on the one hand is that this type of fastening only offers little protection to the electrical device against inadvertently detaching from the protective helmet. Likewise disadvantageous is that this type of fastening is also not possible on any circumferential position of the protective helmet, since for example the areas below the visor would be unsuitable.
Another way involves providing a preconfigured slot on an outer surface of the outer shell of the protective helmet, wherein the electrical device can then be plugged into this slot. In this way, a reliable fastening of the electrical device can be achieved by providing respective devices for fastening to the slot and to the electrical device. However, the disadvantage is that the exterior shape of the outer shell has to be adjusted to provide such a slot, for example so as to deviate from the in itself mechanically advantageous spherical or oval shape. The material thickness of the outer shell also most often does not remain uniform in this variant.
Known from prior art is international published patent application WO 2004/032658 A1, which describes a racing helmet. This racing helmet has a helmet shell, the inside of which is lined with a shock-absorbing material, and which in turn has a recess comprising a viewing field for the helmet wearer, as well as a chinstrap running below the viewing field. The inside of the chinstrap is provided with a pot-shaped structure, which is provided for accommodating an indicator device. As a result of this arrangement, the indicator device is located in the viewing field of the helmet wearer. On the other hand, the indicator device can basically fall out of the recess or otherwise come into contact with the face of the helmet wearer. Furthermore, it is virtually impossible to manually operate the indicator device without taking off the racing helmet. As a whole, this arrangement is not suitable for a device that is not an indicator device.
Also known from prior art is American published patent application US 2013/0176183 A1, which describes an essentially linear dipole antenna for protective helmets having two conductive branches that are connected at one respective end with a wireless device and essentially identically aligned. The wireless device is centrally introduced at a rear end underneath the outer shell in such a way that the two branches of the dipole antenna are arranged essentially symmetrical to the vertical central plane of the protective helmet running in the viewing direction. A suitable alignment with respect to emission behavior is to be achieved in this way. The disadvantage to this prior art is the fact that the positioning at the back of the head hampers the operation or other manipulation of the device positioned there.
Against this backdrop, the object is to develop and improve a protective helmet in such a way that an electrical device can be safely placed on the protective helmet, while minimizing any impairment to the function of the outer shell and maximizing the ability to manually access the electrical device.
According to at least some embodiments, a slot for an electrical device can also be provided in a chin area of the protective helmet, thereby ensuring a good manual accessibility even without taking off the protective helmet. As opposed to an arrangement on the back of the head or generally in a rear area of the protective helmet, no change in gravity of the helmet wearer is required during such a manual access, since the corresponding arm only has to be moved over a short distance. In order to protect against injuries and visual impairment, it is here ensured that a cover covers the received electrical device relative to the visual field.
The protective helmet according to at least some embodiments, which can involve a protective motorcycle helmet, has an outer shell for distributing impact forces, an interior layer accommodated by the outer shell for attenuating impact forces, and a slot for accommodating an electrical device, wherein the outer shell has a chin shell area to cover a chin portion of a protective helmet wearer. This chin shell area can completely or partially cover the chin area of the protective helmet wearer. In the protective helmet according to at least some embodiments, the outer shell forms a viewing port arranged above the chin shell area for the protective helmet wearer to look through. It may be that the protective helmet has a visor for the viewing port that consists for example of polycarbonate.
The protective helmet according to at least some embodiments is characterized in that the slot is arranged on the chin shell area in such a way that the accommodated electrical device is arranged between the chin shell area and the interior layer, wherein the protective helmet has an interior cover for essentially completely covering the accommodated electrical device in the direction of the viewing port. In other words, this interior cover blocks the electrical device from shifting in the direction of the viewing port proceeding from the slot.
The interior cover can basically be configured in such a way as to allow a movement by the electrical device in another direction—or in several. At least one embodiment of the protective helmet is characterized in that the outer shell defines an interior space for accommodating the head of a protective helmet wearer, and that the interior cover essentially completely covers the accommodated electrical device relative to the interior space. In such a case, the electrical device can only be removed from the slot in one direction that leads away from the interior space.
The interior cover can basically involve any device made out of basically any material. However, in at least some embodiments, the interior layer comprises the interior cover. As a consequence, the interior cover also consists of the same material as the interior layer for attenuating impact forces.
In at least some embodiments, the outer shell consists of multiple pieces, and has a cranial area separate from the chin shell area to cover the cranium of a protective helmet wearer, and that the protective helmet has a coupling mechanism to couple the chin shell area with the cranial area. In this way, the chin shell area can be regionally separated from the cranial area, for example to make it easier to put on or take off the helmet. The chin shell area may have two essentially opposing flank areas and a front area arranged between the flank areas. The front area here corresponds to the area of the middle of the chin of a protective helmet wearer, wherein this front area is laterally flanked by the flank areas.
The above coupling mechanism can basically be configured as desired. In at least some embodiments, the coupling mechanism may be set up to swivel the chin shell area relative to the cranial area. This swiveling allows a comfortable separation of the chin shell area from the cranial area. In at least some embodiments, swiveling may take place around a swivel axis that is transverse to a viewing direction of the protective helmet wearer. With the electrical device accommodated in the slot, the electrical device can likewise be swiveled with the chin shell area. This can also facilitate access to the electrical device or the slot.
The guide for the electrical device in the slot can basically be as desired. In this regard, in at least some embodiments of the protective helmet the slot is set up to guide the electrical device being accommodated essentially along an interior side of the chin shell area, so that the accommodated electrical device essentially extends along the interior side of the chin shell area. This results in an ergonomically suitable direction of insertion for the electrical device.
Apart from the outer shell, the protective helmet can also have additional layers. In at least some embodiments, the protective helmet has an interior layer for attenuating impact forces, and that the accommodated electrical device is arranged between the outer shell and the interior layer. This also minimizes the risk of injuries caused by the electrical device.
In at least some embodiments, the chin shell area can be swiveled relative to the cranial area so as to be alternately moved into a first swivel position and into a second swivel position. In at least some embodiments, a contact surface is arranged on the chin shell area, which in the first swivel position is covered by a counter-surface arranged in the cranial area, and in the second swivel position is arranged spaced apart from the counter-surface. Let it be noted that the contact surface and counter surface here need not be part of the outer shell—and hence also not of the chin shell area or cranial area, but rather can also consist of a different material, and arranged on the outer shell, i.e., the chin shell area or cranial area.
In at least some embodiments, the slot has a frame consisting essentially of plastic and arranged on the interior relative to the outer shell for formfittingly accommodating the electrical device, with a frame opening for inserting the electrical device. This permits a safe and precise accommodation of the electrical device, and thus also a reliable electrical contacting. In at least some embodiments, the frame be swiveled with the chin shell area while swiveling the chin shell area. It can here be the case that the electrical device be only partially accommodated by the frame, and thus that a portion of the electrical device protrude from the frame.
It can be the case that the electrical device has activatable operating elements, and for example pushbuttons for operating the electrical device. These can be arranged in such a way that the operating elements protrude from the frame as the frame accommodates the electrical device. The operating elements are set up to be activated by pressing in a direction of insertion of the frame. This ensures that the electrical device accommodated by the slot can be ergonomically operated as well.
In at least some embodiments, the frame borders a lower edge of the chin shell area. Here and in the following, the directional indication “below” relates to a person wearing the protective helmet. The frame opening may be arranged essentially on the lower edge of the outer shell. Alternatively or additionally, the frame opening can essentially be arranged on the contact surface.
In at least some embodiments, the frame extends essentially along the chin shell area proceeding from the frame opening. It may be the case that the electrical device is inserted into the frame in essentially a vertically upper direction. The vertical direction here relates to the position of a protective helmet worn by a protective helmet wearer. As an alternative, the electrical device is inserted into the frame in essentially a horizontal direction. This horizontal direction may also relates to the position of a protective helmet worn by a protective helmet wearer. In at least some embodiments, the vertical direction and/or the horizontal direction relate to the first swivel position.
The electrical device can basically be held in the slot in any manner desired. In at least some embodiments, the slot has a snap device for establishing a formfitting engagement to hold the electrical device, for example, in the frame. This makes it easy to both manufacture the electrical device and securely fasten it in the slot. The snap device may be arranged spaced apart from the frame opening. It may be the case that this spaced apart arrangement is present in such a way that the snap device is covered by an electrical device accommodated by the frame. This prevents the electrical device from inadvertently detaching from the snap device.
In at least some embodiments the slot, for example, the frame, has a wall against which the accommodated electrical device flatly abuts, and that the snap device has at least one hook, wherein this at least one hook adjustably protrudes from the wall for establishing a formfitting engagement to hold the electrical device.
This adjustability may be achieved by an elastic deformability of the snap device or an arm of the snap device. In this variant, the hook may be first moved in the direction of the wall while inserting the electrical device into the slot, and in at least some embodiments during insertion into the frame. Starting at a specific point during the insertion of the electrical device, the hook can snap back and establish the formfitting engagement. In such a case, various approaches are basically conceivable for again releasing this formfitting engagement. For example, it can be provided that the at least one hook be arranged in such a way that it can be pressed into the wall by inserting a releasing device between the wall and the accommodated electrical device, so that the formfitting engagement for holding the electrical device is released. Such a releasing device can have a flat and/or card-like configuration. The snap device can be set up to release the formfitting engagement for holding the electrical device by using the releasing device.
At least some embodiments of the protective helmet provide that the protective helmet has an electrical device, for example, an electrically operable modular device, which may be fixedly fastened to the outer shell and electrically connected with the slot, and that the protective helmet has a pole arrangement for detachably electrically connecting—for example, the modular device—with the accommodated electrical device. The modular device can also be detachably fastened to the outer shell. The electrical connection can be contactless on the one hand, e.g., use magnetic induction. This electrical connection can likewise have a mechanical contacting means, for example, comprising a formfitting connection between the electrical device and the pole arrangement. Accordingly, the pole arrangement can involve a pole contact arrangement for detachable electrical contacting. In this way, an electrical device accommodated by the slot is electrically connected in a reliable manner with the modular device. In at least some embodiments, the pole arrangement has a plurality of individual contacts for respectively contacting the electrical device. In at least some embodiments, the pole contact arrangement has a plurality of individual contacts for respectively contacting the electrical device. The pole arrangement can be fastened to the chin shell area and may be enveloped by the slot. It can likewise be that the pole arrangement is fastened to the cranial area. It may be the case that an electrical device accommodated by the slot is electrically connected with the pole arrangement via the coupling mechanism by swiveling the chin shell area relative to the cranial area.
Both the electrical device and the modular device can each basically involve any kind of electrical device. The modular device can also comprise a voltage source and in at least some embodiments, a battery, or consist of such a voltage source or battery. In at least some embodiments, the modular device can comprise a voltage source or battery for supplying electricity to the electrical device. Conversely, the electrical device can also comprise or consist of a battery or voltage source, for example, for supplying the modular device. It can further be that the electrical device and/or the modular device have or consist of a digital communication device, for example, a Bluetooth communication device. Finally, the electrical device and/or the modular device can have an operating device for such a digital communication device.
It can be the case that the modular device and the electrical device are two components of a common overall device, which only becomes functional as the result of this connection. The electrical device is then a replaceable component of this overall device.
It can be the case that the modular device is fastened to the cranial area of the outer shell. It can then be the case that the protective helmet has a line arrangement for electrically connecting the modular device with the electrical device. If the pole arrangement is also arranged on the cranial area of the outer shell, it then becomes unnecessary to establish the electrical connection from the chin shell area to the cranial area. However, it can also be the case that the line arrangement comprises an electrical connection from the chin shell area to the cranial area. On the one hand, the line arrangement can be guided by the coupling mechanism. On the other hand, the line arrangement can also comprise a line contact arrangement with a first electrical contact on the chin shell area and a second electrical contact on the cranial area, wherein the first electrical contact can be electrically connected with and detached from the second electrical contact via the coupling mechanism by swiveling the chin shell area relative to the cranial area.
In at least some embodiments, the pole arrangement has at least one plug contact for formfitting connection with the electrical device. Alternatively or additionally, it can be the case that the pole arrangement has at least one sliding contact for formfitting-free connection with the electrical device.
In at least some embodiments of the protective helmet, the protective helmet has an electrical device accommodated by the slot.
This summary is not exhaustive of the scope of the present aspects and embodiments. Thus, while certain aspects and embodiments have been presented and/or outlined in this summary, it should be understood that the present aspects and embodiments are not limited to the aspects and embodiments in this summary. Indeed, other aspects and embodiments, which may be similar to and/or different from, the aspects and embodiments presented in this summary, will be apparent from the description, illustrations, and/or claims, which follow.
It should also be understood that any aspects and embodiments that are described in this summary and do not appear in the claims that follow are preserved for later presentation in this application or in one or more continuation patent applications.
Additional configurations may be derived from the following description with reference to the figures. The drawings only illustrate an exemplary, non-limiting embodiment, in which:
The proposed protective helmet shown on
As evident from at least
The modular device 5 is fixedly fastened to the outer shell 1, and connected by means of a line arrangement 19 that runs via the coupling mechanism 12 of the protective helmet with a pole arrangement 22 for purposes of electrical coupling with the electrical device. The pole arrangement 22 consists of both a plug contact and a sliding contact for connection with the electrical device 4.
While the above describes certain embodiments, those skilled in the art should understand that the foregoing description is not intended to limit the spirit or scope of the present disclosure. It should also be understood that the embodiments of the present disclosure described herein are merely exemplary and that a person skilled in the art may make any variations and modification without departing from the spirit and scope of the disclosure. All such variations and modifications, including those discussed above, are intended to be included within the scope of the disclosure.
Number | Date | Country | Kind |
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10 2018 103 657.4 | Feb 2018 | DE | national |
Filing Document | Filing Date | Country | Kind |
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PCT/EP2019/054026 | 2/19/2019 | WO |
Publishing Document | Publishing Date | Country | Kind |
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WO2019/158766 | 8/22/2019 | WO | A |
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