Goggles

Abstract

A curved eyewear comprising: a front portion positioned in use in front of a user's face, a peripheral portion positioned in use to the side of the user's face, and an inner surface; wherein the front and peripheral portions are each made of an optically transparent or translucent material, and the front and peripheral portions together form a curved eyewear body that in use provides the user with a substantially uninterrupted field of view; and wherein the curved eyewear further comprises a first reflective portion positioned along the curved eyewear body between the front and the peripheral portions, the first reflective portion being positioned and angled relative to the curved eyewear body so that in use the user is provided with an image of the environment behind the user.

Description

Technical Field

[0001] This invention relates to a pair of goggles that provide users with forward and rearward vision. Background Technology

[0002] Typically, eyeglasses (e.g., spectacles, goggles, etc.) consist of clear or semi-transparent lenses through which the user can see the environment in front of them. In some cases, it is also useful for the user to see the environment behind them (e.g., when cycling, boating, running, horseback riding, or for safety purposes). Eyeglasses that provide both forward and rearward vision are particularly useful for cyclists.

[0003] In many situations, it is important to be aware of your surroundings, especially in busy environments. For example, when cycling, particularly in traffic, it is crucial for cyclists to be aware of their surroundings. This includes being able to see everything around them, including behind them, so they can see cars or traffic approaching from behind, or see their fellow cyclists following them.

[0004] In competitive sports, rear-view lenses are generally desired to enable the identification of approaching competitors. Typically, for example, cyclists, rowers, runners, and skaters turn their heads and bodies to see behind them. However, this can lead to imbalance and can be dangerous to competitors and others around them, especially when traveling at high speeds. In competitive sports, single, continuous lenses that cover at least two eyes and are curved (i.e., goggles) are also desired. Such lenses are designed aerodynamically to avoid introducing unwanted drag forces and advantageously help to block debris, wind, and rain from reaching the wearer's face.

[0005] Currently, it is known in the art to provide rearview by modifying eyeglasses to include mirrors or reflective parts. Existing devices can generally be classified into three categories:

[0006] 1) Eyeglasses with one or more mirrors attached to and protruding from the outer frame of the eyeglasses. These mirrors are completely separate from the clear or translucent lenses of the eyeglasses. The problem with these external mirrors is that they increase the size of the eyeglasses, pose a risk of frame breakage, and can be accidentally knocked or displaced from their optimal position. They are also not particularly suitable for the needs and requirements of cyclists or active athletes. This is because the outward-protruding mirrors reduce the wearer's aerodynamics, and windy conditions / high speeds may unintentionally alter the angle at which the mirrors are positioned. Furthermore, impacts or drops may cause the attached mirrors to break, rendering the eyeglasses unusable and potentially posing a danger to the wearer.

[0007] 2) Eyeglasses having a reflective coating applied to the peripheral portion of a typically transparent (transparent or translucent) front-viewing lens, wherein the reflective coating provides the wearer with rearview if the wearer looks in the direction of the reflective coating. These prior art devices are often sold as novelty items and have not yet been found to provide the wearer with sufficiently clear or useful rearview, especially for use in serious activities such as cycling.

[0008] It is known that both types of glasses cause eye strain due to the viewing angle caused by the positioning of the mirror relative to the wearer's eyes.

[0009] 3) The third type of device is a lens with a discontinuity defined as a first portion on the inner side of the discontinuity (closest to the nose in use) and a second portion on the outer side of the discontinuity (farthest from the nose in use). In this design, the second portion has a reflective side that at least partially reflects and is angled relative to the first portion, allowing the user to see forward by looking through the first, forward-looking (transparent or translucent) portion and to see backward by looking through the angled and at least partially reflected second portion. This design eliminates the need for separate mirrors and lenses. The tilt of the second portion relative to the first portion provides an optimal rear view.

[0010] Although Type III lenses are known to work well, it is not possible to simply introduce the discontinuities used in those lenses into goggles, because angling the outer edges of the goggles to create a second section would mean the goggles would no longer fit the wearer. Goggles are designed to be aerodynamic and generally follow the contours of the wearer's face, surrounding the sides of the face. Because of this, discontinuous angles cannot be achieved in curved goggles. For example, achieving the angle required for rearview would mean the goggles would need to be angled away from the face, effectively creating outward-protruding wings. Furthermore, if attempted, the curvature would distort the rearview. Any such discontinuity would also negatively impact the aerodynamics of the goggles. Moreover, it is not possible to simply apply a reflective coating to the goggles, as the curvature of the goggles would result in distorted reflections.

[0011] This disclosure attempts to at least partially mitigate the problems associated with the prior art and / or at least partially resolve the difficulties associated with the prior art. Summary of the Invention

[0012] According to a first aspect of this disclosure, a flexible goggle is provided, comprising:

[0013] It is positioned at the front part in front of the user's face during use;

[0014] During use, it locates the peripheral part of the user's side face;

[0015] Inner surface;

[0016] The front and peripheral portions are each made of optically transparent or translucent material, and together they form the curved goggle body, which, in use, provides the user with a substantially uninterrupted field of vision; and

[0017] The curved goggles also include a first reflective portion, which is positioned along the body of the curved goggles between the front and the peripheral portions. The first reflective portion is positioned and angled relative to the curved goggles so that, during use, it provides the user with an image of the environment behind the user.

[0018] In a second aspect, a curved goggle is provided, comprising a transparent or translucent goggle body extending around a curve substantially symmetrical about a central plane perpendicularly bisecting the goggle body, the goggle body comprising:

[0019] A first embedded portion is disposed in the body of the goggles, the first embedded portion being positioned on one side of the central plane at a distance D from the central plane; and

[0020] The first embedded portion includes a first reflective portion, which is positioned and angled relative to the central plane.

[0021] In a third aspect, a curved goggle is provided, comprising a transparent or translucent goggle body extending around a curve substantially symmetrical about a central plane perpendicularly bisecting the goggle body, the goggle body comprising:

[0022] A first reflective portion is positioned on the inner surface of the goggle body, the first reflective portion being positioned on one side of the central plane at a corresponding distance D from the central plane; and

[0023] The first reflective portion is positioned and angled relative to the central plane.

[0024] In the fourth aspect, racing glasses for helmets are provided, including curved goggles as disclosed herein.

[0025] Features from one or more aspects, or any optional features thereof, can be combined together. Attached Figure Description

[0026] This disclosure can be implemented in various ways, and examples of this disclosure will now be described by way of example with reference to the accompanying drawings, in which:

[0027] Figure 1A schematic example of a front perspective view of a curved goggle according to the present invention is shown.

[0028] Figure 2 A schematic example of a top view of a curved goggle according to the present invention is shown.

[0029] Figure 3 A schematic example of a rear view of a curved goggle according to the present invention is shown.

[0030] Figure 4 A schematic top view shows an alternative embodiment that uses two different types of wedges to position and angle the reflective portion on the inner surface of the goggles. Detailed Implementation

[0031] Orientation descriptors, such as top, bottom, inside, outside, forward, and backward, have been used throughout the following description to refer to exemplary embodiments of the invention that are oriented in a preferred manner during use and as illustrated in the accompanying drawings. However, it will be apparent to those skilled in the art that the embodiments described below may be oriented in a different manner than those shown and described. Therefore, the orientation descriptors are not intended to be limiting, but are for descriptive purposes only.

[0032] Figure 1 The goggle body 10 is shown. The goggle body includes a front portion 1 and a peripheral portion 2. The front portion 1 and the peripheral portion 2 are transparent or translucent. This allows photons to pass through the entire thickness of the front portion 1 and the peripheral portion 2 of the goggle 10, so that in use, the wearer can see the environment in front of and to the sides through the front portion 1 and the peripheral portion 2. For ease of reference, the front portion 1 and the peripheral portion 2 are collectively referred to below as the forward viewing portion. The forward viewing portion may be completely clear or may include a shade or filter (multiple). The forward viewing portion may also provide or facilitate vision correction for users who require clear vision with prescription lenses. The front portion 1 and the peripheral portion 2 together form a curved goggle body and may be integrally formed. In the case of integral formation, there may be no discernible dividing line between the front portion and the peripheral portion.

[0033] Safety goggles are made of flat (or multiple) sheets of material bent into a certain shape to form curved goggles. Therefore, safety goggles can be said to have two sides.

[0034] As used herein, curves, bends, and arcs refer to the shape of the goggles. That is, the shape is typically symmetrical about a vertex and has two endpoints. The curvature may or may not be constant along the entire curve. The curvature may be part of a circle, an oval, or an ellipse. The curve may be a cylindrical curve or a spherical curve. That is, the bend may occur in one direction or in both directions. Thus, the curve may extend from left to right around the width of the wearer's face (e.g., ear to ear). Or the curve may extend from left to right (ear to ear) and from top to bottom around a portion of the height of the wearer's face (e.g., forehead to mouth).

[0035] As used in this article, the front portion is the part that is essentially in front of the wearer's eyes and across the front of the wearer's face during use.

[0036] As used in this article, the peripheral portion is part or all of the side of the wearer's head during use. This area is designed to cover the area that the wearer considers to be the peripheral visual area plus any area beyond that area, extending along the curve of the goggles toward the ears (i.e., the ends) and away from the center (apex) of the curve.

[0037] As used in this article, the inner surface refers to the side of the goggles that is closest to the wearer's face during use. Conversely, the other side of the goggles can be referred to as the outer surface.

[0038] As used in this article, optical transparency refers to the physical property of allowing light to pass through a material without significant light scattering.

[0039] Transparency refers to materials in which some light is scattered or absorbed.

[0040] As used in this article, the reflective part refers to one or more parts of the goggles that have reflective properties. Reflection occurs when light bounces off a surface instead of passing through it (or being absorbed).

[0041] In some embodiments, the reflecting portion is partially reflective, meaning it is not completely reflective. Partial reflection refers to the property of allowing a portion of the incident photons to be reflected and a portion to be transmitted through the reflecting portion. Less than 100% of the photons are reflected.

[0042] A reflective portion can be made reflective by applying a reflective coating to it. The reflective coating can cover the entire reflective portion or only a portion of it. The reflective coating can be applied to the inner or outer surface of the reflective portion.

[0043] Typically, the reflective portion is flat or planar, although providing a curved reflective portion that can magnify the rear view may be useful.

[0044] When looking forward, the one or more reflective portions are located outside the wearer's normal field of vision. This is to avoid obstructing the forward view. The reflective portions are located at the interface between the front and peripheral portions.

[0045] The reflective portion can completely separate the front and the periphery, or alternatively, can only partially interrupt the interface between the front and the periphery.

[0046] The reflective portion may be located within the embedded portion as described herein, or may be formed by or mounted on the inner surface of the goggles as described herein.

[0047] The goggle body extends from a first end 13 to a second end 14. The first and second ends are located approximately near the user's ears during use. A rear plane 6 extends between the first end 13 and the second end 14. It should be understood that the first and second ends may not terminate at the same location without departing from the scope of the invention.

[0048] The goggles extend substantially across and around the user's face during use, that is, at least across the front of the eyes, and also cover the wearer's peripheral visual area during use. The goggles may be a single piece and may extend around the wearer's face to approximately the position of the wearer's ears. It should be understood that the endpoints of the goggles do not need to be ears, and can vary without departing from the spirit of the invention. The goggles 10 have a top edge 11 and a bottom edge 12. In use, the top edge 11 will be located above the user's eyes, approximately in the forehead area (or above), and the bottom edge will be located below the user's eyes, approximately in the cheekbone area (or below).

[0049] The main body of the goggles has a very foremost point called the center point. Figure 2 The above is visible and indicates a point that, if the goggles were positioned on the wearer's face, would be the foremost and most forward point. Typically, this point is approximately directly in front of the wearer's nose. The center point is usually equidistant from the first and second ends. There exists a front plane 7 that is vertical and extends through the center point, and this front plane is parallel to the rear plane 6 and perpendicular to the center plane 8.

[0050] There is a central plane 8, which is vertical when the goggles are in use and bisects the goggles at their center point. The goggles themselves are generally symmetrical about the central plane 8. The central plane is perpendicular to the rear plane 6 and intersects the rear plane at the rear center point 15.

[0051] The distance between the central plane and the first reflecting part is called the distance D.

[0052] The distance between the central plane and the second reflecting part is called the distance D'.

[0053] In some implementations, D and D' are the same. In some embodiments, they may be different to suit the wearer's preference.

[0054] D and D' are based to some extent on the distance between the pupils. On average, the pupils of an adult are 54 mm to 74 mm apart. Regarding the central plane of the goggles, assuming the central plane is exactly halfway between the eyes, this means the pupil will be approximately 27 mm to 37 mm from the central plane. In this invention, D and D' can be offset from each pupil by a range of 10 mm to 100 mm.

[0055] Therefore, D and D', as used herein, are each independently in the range of approximately 37 mm to 137 mm. For example, approximately 35, 40, 45, 50, 55, 60, 70, 80, 90, 100, 110, 120, 130, or 140 mm.

[0056] In one embodiment, the first and second embedded portions 4, 5 are embedded within the goggles 10. Each embedded portion may include reflective portions 17, 18, which may be formed by applying a reflective coating thereon. The embedded portions 4, 5 are positioned between the front portion 1 and the peripheral portion 2 of the goggles 10. The reflective coating does not need to be totally reflective. In fact, it may only be partially reflective, such that a portion of the incident photons is reflected, and a portion is allowed to transmit through the reflective portions and embedded portions 4, 5 of the goggles 10. Similarly, photons from the front of the goggles will transmit through the reflective portions, thereby allowing the wearer to see “through” the reflective portions.

[0057] Optionally, the reflective portions 17 and 18 can be completely reflective, such that essentially all photons are reflected. The reflective portions 17 and 18 may also include, for example, a tint or filter as a coating. This is particularly useful for reducing glare or achieving the same level of brightness for rear-view as for front-view. Optionally, the goggles 10 may consist of only a single embedded portion and a single reflective portion on one side of the goggles.

[0058] An embedding plane 9 extends between the first and second embedding portions 4 and 5, and is aligned with the front portion of the embedding portion. The embedding plane 9 is parallel to the rear plane 6 and the front plane 7, and intersects the center plane 8 at the embedding center point 16. When only one embedding portion is used, the embedding plane 9 is parallel to the rear and front planes and aligned with the front portion of the embedding portion.

[0059] The front and peripheral portions 1 and 2 can be single pieces suitable for covering both eyes of the wearer, wrapping around the peripheral visual area (i.e., the sides of the head). The insert portions 4 and 5 are positioned towards the peripheral area of ​​the goggles 10 and define the point where the front and peripheral portions meet, i.e., the insert portions 4 and 5 are not centered on the goggles and do not obstruct the wearer's field of vision during use. Therefore, when the wearer is looking straight ahead, the wearer will typically see through the front portion 1 of the goggles 10. When the wearer wants to see the environment behind them, they can point their eyes to the reflective coating on the reflective portions 4 and 5 of the goggles 10. If the user wants to see to the side, the wearer can point their eyes to the peripheral portion 2 of the goggles 10. Those skilled in the art will understand that the reflective portions provide specular reflection, rather than diffuse reflection, to provide the wearer with a clear image of the environment behind them. The positions of the embedded parts 4 and 5 and their integration within the front and peripheral parts 1 and 2 are carried out in order to minimize visual interference on the rest of the goggles, especially where the front meets the embedded parts and where the peripheral parts meet the embedded parts, i.e., the goggles parts whose curvature is disrupted by integrating the embedded parts 4 and 5.

[0060] The reflective coating can be applied to the inner surface of the reflective portion (i.e., the surface adjacent to the wearer's face during use) or to the outer surface of the reflective portion. If the reflective coating is applied to the outer surface of the reflective portion, photons will travel through the reflective portion via the last surface of the reflective portion (or the embedded portion of the reflective portion, which is formed by applying the reflective coating directly to the embedded portion) before being reflected back to the wearer's eye. Therefore, the embedded portions 4, 5 can be fabricated to utilize and manipulate the refractive properties of the reflective portion material. This can help optimize the photon path to provide a clear image to the wearer. For example, the reflective portion can be fabricated to provide a focal-tuned magnification (negative or positive) of the image shown in the reflective coating, as seen by the wearer. Furthermore, the reflective portion material can include filters 4, 5, such as polarizing filters, which reduce glare from strong light (e.g., car headlights).

[0061] In the attached diagram Figure 1 In the illustrated examples, the inner surface area of ​​the embedded portions 4 and 5 is approximately 1 to 25% of the total inner surface area of ​​the goggles. However, it will be apparent to those skilled in the art that other proportions would be suitable, and the invention is not intended to be limited in this respect. In particular, the inner surface area of ​​the reflective portion can be as small as 1% of the total surface area of ​​the goggles and as large as approximately 25% of the total inner surface area of ​​the goggles.

[0062] like Figure 1As shown, the embedded portions 4 and 5 are substantially rectangular in shape, although all suitable shapes are foreseeable. The embedded portions are also shown as flat and planar. In alternative embodiments, the embedded portions 4 and 5 may be curved or irregularly shaped. Furthermore, the dimensions of the embedded portions 4 and 5 may vary. For example, the embedded portions 4 and 5 may extend vertically from the top edge 11 to the bottom edge 12 along the vertical height of the goggles. Alternatively, the embedded portions 4 and 5 may be only a portion of the vertical height of the goggles 10, such that at least a portion of the front portion contacts at least a portion of the peripheral portion.

[0063] Embedded parts 4 and 5 can be positioned essentially at the center (e.g.) Figure 1 As shown), that is, in the middle of the vertical line of the goggle body, or it can be positioned closer to the bottom edge 12 of the goggle 10 or closer to the top edge 11 of the goggle 10.

[0064] During use, the embedded portions 4 and 5 can be angled toward the wearer's face, so that the reflective portion and reflective coating face the wearer. Optionally, the embedded portions 4 and 5 can be planar with the embedded plane. When the embedded portion is planar, the reflective portion will be tilted toward the wearer's face. By tilting the reflective portion toward the wearer, incident photons from behind the wearer are reflected back to their eyes, allowing the wearer to see an image of the environment behind them in the reflective portion.

[0065] The embedded portions 4 and 5 (or the reflective portions as described above) are angled relative to a substantially vertical embedded plane that extends through the front of the embedded portion and is parallel to the front plane that extends through the center point of the goggles (i.e., the apex of the curved goggles), and is configured to allow the wearer to look backward.

[0066] The insert portions 4 and 5, as well as the front and peripheral portions 1 and 2, can be integrally formed from a single piece of material into a single goggle. Alternatively, the insert portions 4 and 5, as well as the front and peripheral portions 1 and 2, can be formed separately and joined or fused together at a desired angle. In this way, the insert portions 4 and 5 can be embedded into existing goggles.

[0067] The goggles can be made of any suitable material known to those skilled in the art, such as glass, polycarbonate, Grilamide (TR-90), bio-acetic acid esters, plastic, or plexiglass. Other suitable alternative materials known in the art may be used.

[0068] The embedded and / or reflective parts may be made of the same material, and the goggles may be made of different materials individually.

[0069] Those skilled in the art will understand that suitable means for keeping the goggles against the wearer's face during use can vary. For example, the goggles may be integrated into a helmet, or the goggles may be attached to a frame, and the frame may have arms or elastic (or otherwise adjustable) straps to wrap around the back of the wearer's head during use.

[0070] The angle between the reflective portion and the embedded plane (or front plane) can be at least 100°, at least 105°, at least 110°, at least 115°, at least 120°, at least 125°, at least 130°, at least 135°, at least 140°, at least 145°, at least 150°, at least 155°, at least 160°, at least 165°, at least 170°, or at least 175°.

[0071] The angle between the reflective portion and the embedded plane (or front plane) can be as high as or even exceed 180°. In some embodiments, the angle is in the range of 170° and 180°, such as 171, 172, 173, 174, 175, 176, 177, 178, or 179°. In another embodiment, the angle is about 177°, such as 176.7, 176.8, 176.9, 177.0, 177.1, 177.2, 177.3, 177.4, 177.5, or 177.6°. In yet another embodiment, the angle is approximately 177.2°.

[0072] In another embodiment, the reflective portions 17, 18 may be located inside the goggles, i.e., mounted on or formed from the inner surface of the goggles. The reflective portions 17, 18 may be located on the inner surface of the goggles, i.e., on the side closest to the wearer's face during use, rather than embedded in the inserts 4, 5 within the goggles and located between the front and peripheral portions of the goggles. In other words, the reflective portions 17, 18 are not embedded in the inserts 4, 5, but are applied directly to or formed directly from the inner surface of the goggles to allow rearward vision. In this way, the reflective portions 17, 18 can be retroactively added to existing goggles.

[0073] In this alternative embodiment, the reflective portions 17 and 18 are positioned using a material designed to hold them securely at a desired angle, thereby allowing the wearer to look backward. Any suitable material can be used to hold the lenses in place. This can include, for example, optically clear adhesive, a bracket on the inside of the goggles, or a recess designed to hold the goggles with high precision. No material should distort the user's forward vision; that is, for example, excessive application of adhesive could interfere with the user's forward vision. Furthermore, since the reflective portions 17 and 18 can also be partially reflective, i.e., they allow forward vision in addition to rearward vision, any material used to position the reflective portions should not obstruct forward vision.

[0074] To achieve the desired angle of the reflective portion, this embodiment can employ any suitable means; for example, a wedge can be positioned entirely or partially behind the reflective portion to frame it at the correct angle from the goggles. Any wedge material needs to be selected so as not to distort the view through the reflective portion. The reflective portion itself can be manufactured as a wedge. Figure 4 The numbers 20 and 21 indicate two possible types of wedges.

[0075] Safety goggles can be customized to include photochromic, anti-fog, anti-reflective, polarized, or prescription lenses, depending on the user's needs.

[0076] In the context of this specification, "comprising" should be interpreted as "including".

[0077] The aspects of the invention that include certain elements are also intended to be extended to alternative embodiments that are “composed of related elements” or “essentially composed of related elements”.

[0078] Where technically appropriate, embodiments of the present invention may be combined.

[0079] The embodiments described herein include certain features / elements. This disclosure also extends to individual embodiments that consist of or are substantially composed of said features / elements.

[0080] For example, technical references to patents and applications are incorporated into this paper by way of citation.

[0081] Any embodiment specifically and explicitly described herein may, alone or in combination with one or more embodiments, form the basis for rejection.

[0082] 1. Front section

[0083] 2. Surrounding Area

[0084] 3 -

[0085] 4 Embedded Parts

[0086] 5 Embedded Parts

[0087] 6 Rear Plane

[0088] 7 Front plane

[0089] 8. Central plane

[0090] 9 Embedded Plane

[0091] 10 goggles

[0092] 11 Top edge

[0093] 12 Bottom edge

[0094] 13 First End

[0095] 14 Second End

[0096] 15th Central Point

[0097] 16 Embedded Center Points

[0098] 17 Reflection section

[0099] 18 Reflection Sections

[0100] 19 -

[0101] 20 wedge-shaped pieces

[0102] 21 wedge-shaped parts

Claims

1. A type of flexible goggles, comprising: It is positioned at the front part in front of the user's face during use; During use, it locates the peripheral portion of the user's face. as well as Inner surface; The front and peripheral portions are each made of optically transparent or translucent material, and together they form the curved goggle body, which provides the user with a substantially uninterrupted field of vision during use. and The curved goggles further include a first reflective portion positioned along the body of the curved goggles between the front and peripheral portions. The first reflective portion is positioned and angled relative to the body of the curved goggles, such that during use, it provides the user with an image of the environment behind the user.

2. The curved goggles according to claim 1, wherein, The goggle body extends around an arc, which is substantially symmetrical about a central plane that perpendicularly bisects the goggle body, and wherein the first reflective portion is positioned on one side of the central plane, which is separated from the central plane by a distance D.

3. The curved goggles according to claim 2 further include a second reflective portion, the second reflective portion being positioned on opposite sides of the central plane relative to the first reflective portion, wherein the second reflective portion is separated from the central plane by a distance D'.

4. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portion is embedded in the curved goggle body.

5. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portion is mounted to the inner surface.

6. The curved goggles according to any one of the preceding claims, wherein, The front portion and the peripheral portion are integrally formed.

7. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portions are integrally formed with the front and peripheral portions.

8. The curved goggles according to any one of claims 1 to 6, wherein, The first and / or second reflective portions are not integrally formed with the front portion and the peripheral portion.

9. A curved goggle comprising a transparent or translucent goggle body extending around a curve, the curve being substantially symmetrical about a central plane perpendicularly bisecting the goggle body, the goggle body comprising: A first embedded portion is disposed in the body of the goggles, the first embedded portion being positioned on one side of the central plane at a distance D from the central plane; as well as The first embedded portion includes a first reflective portion, which is positioned and angled relative to the central plane.

10. The curved goggles of claim 9 further include a second embedded portion, the second embedded portion being positioned on opposite sides of the central plane relative to the first embedded portion, wherein the second embedded portion is separated from the central plane by a distance D'.

11. The curved goggles according to claim 10, wherein, The second embedded portion includes a second reflective portion, which is positioned and angled relative to the central plane.

12. A curved goggle comprising a transparent or translucent goggle body extending around a curve substantially symmetrical about a central plane perpendicularly bisecting the goggle body, the goggle body comprising: A first reflective portion, positioned on the inner surface of the goggle body, is located on one side of the central plane at a corresponding distance D from the central plane; and The first reflective portion is positioned and angled relative to the central plane.

13. The curved goggles of claim 12 further include a second reflective portion, the second reflective portion being positioned at a distance D' on opposite sides of the central plane, wherein the second reflective portion is positioned at an angle relative to the central plane.

14. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portion is partially reflective.

15. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portion is partially transparent or semi-transparent.

16. The curved goggles according to any one of the preceding claims, wherein, The first and / or second reflective portions each have an independent diameter of 10 to 200 mm. 2 The area within the specified range.

17. The curved goggles according to any one of the preceding claims, wherein, The surface areas of the first and / or second reflective portions are each independently within the range of 1% and 25% of the surface area of ​​the goggles.

18. The curved goggles according to any one of claims 2 to 17, wherein, The first and / or second reflective portions each form an angle of approximately 170 to 180° relative to the central plane.

19. The curved goggles according to any one of claims 1 to 18, wherein D and D' are each independently about 37 mm to 137 mm.

20. The curved goggles according to any one of the preceding claims, wherein, The goggles include a filter for blocking light of a specific wavelength.

21. The curved goggles according to any one of the preceding claims, wherein, The reflective portion includes a reflective coating.

22. The curved goggles according to claim 21, wherein, The reflective coating is applied to a portion of the inner surface and / or outer surface of the reflective portion.

23. A racing helmet eyewear, comprising the curved goggles of any of the preceding claims.

Images