The present disclosure relates to the technical field of sports equipment, in particular relates to a cycling helmet, and specifically relates to a cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone.
Great injuries may be made to a head by a slip in a cycling process, and safety problems cannot be neglected as well even if a cyclist rides along a bikeway with a flat slope at a low speed. The reason for wearing a cycling helmet is very simple and also very important, that is, protecting the head and reducing injuries. Relevant data indicate that, in more than 500 cases about accidents of cycling death every year, 75% of death is due to a fatal injury on the head. Medical researches discover that 85% of head injuries can be prevented by wearing a helmet when cycling, and an injury degree and the accident death rate can be greatly reduced. A half-helmet type cycling helmet includes a helmet specialized for road (without a brim), a road and mountain dual-purpose helmet (equipped with a detachable brim) and the like.
With an increasing development of science and technology of electronic products, more and more portable communication devices and multimedia mobile terminals appear in the life of people, and a need for communication and music appreciation in the cycling process is particularly urgent. Therefore, it is a popular trend of a current product to provide an earphone for listening a sound and a microphone in a cycling device, which is increasingly appreciated by vast users. In the existing art, the above devices are usually arranged in the cycling helmet, so as to facilitate carrying and use. However, the traditional earphone insulates external sound in a using process, easily causing a potential safety hazard. Meanwhile, as for the microphone, high-speed cycling can cause great wind interference, influencing the communication quality seriously. Therefore, it is urgent to provide a cycling device capable of solving the above problems, so as to bring better user experience to the users.
One object of the present disclosure is to provide a cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone, so as to realize an air conduction sound production in the helmet and increase functions of the helmet.
Another object of the prevent disclosure is to provide a cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone, so that bone conduction sound production and air conduction sound production can be optionally realized, and the user experience is improved.
Another objective of the prevent disclosure is to provide a cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone. Through disposing the bone conduction earphone in the helmet in an injection molding manner, a good contact of the bone conduction oscillator and the helmet is realized, and a sound production effect is ensured.
Another object of the prevent disclosure is to provide a cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone, in which a protective shell and a resonant shell are made of different materials, and sound conduction and a protection function for a wearer are simultaneously realized.
In order to achieve the objects, the present disclosure adopts the following technical solutions:
A cycling helmet capable of switching a sound production guidance mode based on a bone conduction earphone is provided. The cycling helmet includes a helmet body and the bone conduction earphone disposed on the helmet body, the bone conduction earphone includes a magnet, a coil and a bone conduction oscillator, and the bone conduction oscillator can contact the helmet body, so as to cause the helmet body to oscillate to form a sound cavity.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the helmet body includes a resonant shell configured to directly contact the bone conduction oscillator, and the bone conduction earphone is disposed in the resonant shell and is integrally formed with the resonant shell in an injection molding manner.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, a total number of the resonant shells are more than one, the resonant shells are symmetrically arranged in the helmet body, with respect to each of the resonant shells, one bone conduction oscillator is arranged.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the total number of the resonant shells is two, and the two resonant shells are respectively arranged at positions corresponding to ears of a wearer wearing the helmet, on the helmet body.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the helmet body includes a resonant shell capable of directly contacting the bone conduction oscillator, and the bone conduction earphone is rotatably connected with the helmet body, so that the bone conduction oscillator has a first state of contacting the resonant shell and a second state of contacting a head of the wearer wearing the helmet.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the cycling helmet further includes a first rotating arm, the first rotating arm has a first end of the first rotating arm and a second end of the first rotating arm, the first end is connected with the bone conduction earphone, the second end is connected with the helmet body, and the bone conduction earphone is articulated with the helmet body via the first rotating arm.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the helmet body is provided with a containing cavity for containing the bone conduction earphone in the first state, at least one side wall of the containing cavity is a resonant shell, and in the first state, the bone conduction earphone is located in the containing cavity, and the bone conduction oscillator of the bone conduction earphone contacts the resonant shell.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the helmet body further includes a protective shell, a resonant shell is in a hemispheric structure which is suitable for the human head to wear and is disposed at an inner side of the helmet body, the protective shell is disposed outside of the resonant shell, and a side of the resonant shell, which is far away from the protective shell, is provided with a buffer layer.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the cycling helmet further includes a bone conduction microphone and a second rotating arm for connecting the bone conduction microphone and the helmet body, the second rotating arm has a first end of the second rotating arm and a second end of the second rotating arm, the first end is connected with the bone conduction microphone, the second end is connected with the helmet body, and the bone conduction microphone is articulated with the helmet body via the second rotating arm.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone, the first rotating arm and the second rotating arm are in an integrated structure and are articulated with the helmet body via a same articulating apparatus.
The present disclosure has the beneficial effects that: through disposing the bone conduction earphone on the helmet body, a sound playing-out function or a bone-conduction function can be optionally realized, private communication or open-type sound playing is realized, functions of the helmet are increased, and the use safety is improved. In addition, the helmet is served as an oscillation source of the air conduction sound production, so that earplugs are prevented from entering into the ears, thereby improving the use comfort degree of a user.
The present disclosure is further described below in detail according to drawings and embodiments.
References in the drawings:
1, helmet body; 100, protective shell; 200, bone conduction earphone; 300, resonant shell; 400, first rotating arm; 500, rotating shaft; 600, fastening screw; 700, containing cavity; 800, second rotating arm; and 900, bone conduction microphone.
The technical solutions of the present disclosure are further described below in combination with drawings and specific implementation manners.
It should be noted that, reference numerals in different embodiments can be universal.
As shown in
According to the present disclosure, the bone conduction oscillator of the bone conduction earphone 200 contacts the helmet body 1, therefore, under a situation that the bone conduction oscillator oscillates, the oscillation is transmitted from the bone conduction oscillator to the helmet body 1. As a result, the helmet body 1 oscillates to drive the air to oscillate, and the whole helmet is served as a sound production source and forms an air conduction sound production. Therefore, the helmet can realize a sound playing function when being worn on a wearer or being removed from the wearer.
As a technical solution of the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone 200, the helmet body 1 includes a resonant shell 300 for directly contacting the bone conduction oscillator, and the bone conduction earphone 200 is located in the resonant shell 300 and is integrally formed with the resonant shell 300 in an injection molding manner.
In the technical solution of the present disclosure, the resonant shell 300 may be a head protection apparatus integrated with a protective shell 100 of the helmet body 1. The bone conduction earphone 200 is arranged in the helmet body 1 in an injection molding manner, so that a close contact of the bone conduction earphone 200 and the resonant shell 300 which finally oscillates to form the air conduction sound production is realized. Therefore, an unsatisfactory final sound production effect caused by an attenuation phenomenon of oscillation transmission between the bone conduction earphone 200 and the resonant shell 300 can be avoided when the bone conduction earphone 200 is connected with the resonant shell 300 by an external connection structure.
In order to improve the sound effect, the resonant shell 300 is made of a material with good oscillation sound production performance in a specific implementation process.
As shown in
Optionally, there are two resonant shells 300 in the present embodiment, and the two resonant shells 300 are respectively arranged at positions corresponding to ears of a wearer of the helmet, on the helmet body 1.
The basic structure of the present embodiment is the same as that of embodiment I, and a main difference therebetween lies in that: the helmet body in the present embodiment includes the protective shell and the resonant shell, and the resonant shell is in a hemispheric structure which is suitable for a human head to wear and is arranged at an inner side of the helmet body, the protective shell is disposed outside of the resonant shell, and a side of the resonant shell, which is far away from the protective shell, is provided with a buffer layer.
Since materials required for realizing physical protection and oscillation sound production are different, it is inevitable that the physical protection and the oscillation sound production cannot simultaneously achieve the highest requirement when the helmet body is made of a same material. The helmet in the present embodiment is ensured to better realize the purposes of the present disclosure by arranging the protective shell and the resonant shell individually, and adopting a material with better physical impact resistance for the protective shell and adopting a material with good oscillation sound production performance for the resonant shell. Meanwhile, the arrangement of the buffer layer can prevent the resonance shell and the protective shell made of harder materials from directly contacting the head of the wearer, causing an influence on the use comfort degree.
As shown in
The helmet body 1 includes a resonant shell which can directly contact the bone conduction oscillator, and the bone conduction earphone 200 is rotatably connected with the helmet body 1, so that the bone conduction oscillator has a first state of contacting the resonant shell and a second state of contacting the head of the person wearing the helmet.
In the present embodiment, the bone conduction oscillator is configured to be in a state of being rotatably connected with the helmet body 1. When being used, the bone conduction oscillator can be adjusted to a position corresponding to the first state according to the need of a user, so that the resonant shell is driven to oscillate through an oscillation contact between the bone conduction oscillator and the resonant shell, thereby realizing air conduction sound production. Alternatively, the bone conduction oscillator can be adjusted to a second state, so that the bone conduction oscillator is separated from the resonant shell and only contacts the head of the wearer, thereby realizing bond conduction sound production. According to the optional structure, the use flexibility of the helmet can be improved, the user has more options according to different application occasions, and the user experience is improved.
Specifically, the cycling helmet capable of switching the sound production guidance mode based on the bone conduction earphone 200, provided in the present embodiment, further includes a first rotating arm 400. The first rotating arm 400 has a first end connected with the bone conduction earphone 200 and a second end connected with the helmet body 1, and the bone conduction earphone 200 is articulated with the helmet body 1 via the first rotating arm 400.
A rotating shaft 500 is integrally formed on the helmet body 1 in an injection molding manner, a shaft hole matched with the rotating shaft 500 is provided at the second end of the first rotating arm 400, a fixing hole is provided at an end of the rotating shaft 500, and the first rotating arm 400 is axially fixed on the rotating shaft 500 by a fastening screw 600 in a manner of being matched with the fixing hole.
To be sure, the connection manner of the bone conduction earphone 200 and the helmet body 1 is not limited to the articulation form, and other connection manners such as a telescopic connection manner and the like can also be adopted in other embodiments.
As shown in
In the case that the helmet is used for bone conduction sound production by a wearer wearing the helmet, the bone conduction earphone 200 is outside of the containing cavity 700, so as to facilitate contacting a human body. In the case that the air conduction sound production function is adopted, the bone conduction earphone 200 is contained in the containing cavity 700, so that the helmet has a concise and good appearance, and the bone conduction earphone 200 is protected to a certain degree, thereby preventing from damaging the bone conduction earphone due to collision.
As shown in
The containing cavity 700 is also arranged in the present embodiment, and the containing cavity 700 can simultaneously contain the first rotating arm 400 and the second rotating arm 800.
Since the speed is usually high in a cycling process, it is difficult to ensure the communication quality due to the effect of the wind when the traditional microphone is adopted in the cycling process. However, the bone conduction microphone 900 is adopted in the present embodiment, so as to effectively avoid wind interference.
In the descriptions of the text, terms ‘first’ and ‘second’ are only used for distinguishing the descriptions and do not have special meanings.
It should be declared that, the above specific implementation manners are only preferred embodiments and the applied technical principles of the present disclosure, and any change or replacement easily contemplated by those skilled in the art and acquainted with the technical field within the technical scope disclosed by the present disclosure shall be included in the protection scope of the present disclosure.
Number | Date | Country | Kind |
---|---|---|---|
2015 1 0456106 | Jul 2015 | CN | national |
Filing Document | Filing Date | Country | Kind |
---|---|---|---|
PCT/CN2015/097263 | 12/14/2015 | WO | 00 |
Publishing Document | Publishing Date | Country | Kind |
---|---|---|---|
WO2017/016138 | 2/2/2017 | WO | A |
Number | Name | Date | Kind |
---|---|---|---|
5404577 | Zuckerman | Apr 1995 | A |
6456721 | Fukuda | Sep 2002 | B1 |
7010139 | Smeehuyzen | Mar 2006 | B1 |
10064444 | Glezerman | Sep 2018 | B2 |
20040105566 | Matsunaga | Jun 2004 | A1 |
20040261158 | Depew | Dec 2004 | A1 |
20060277664 | Akhtar | Dec 2006 | A1 |
20070098199 | Goldberg | May 2007 | A1 |
20100223706 | Becker et al. | Sep 2010 | A1 |
20130180033 | Uemoto et al. | Jul 2013 | A1 |
20150130945 | Yu | May 2015 | A1 |
Number | Date | Country |
---|---|---|
1976540 | Jun 2007 | CN |
103141116 | Jun 2013 | CN |
203575719 | May 2014 | CN |
203952570 | Nov 2014 | CN |
204070721 | Jan 2015 | CN |
205011455 | Nov 2015 | CN |
204838172 | Dec 2015 | CN |
105394862 | Mar 2016 | CN |
2004032340 | Jan 2004 | JP |
2004173018 | Jun 2004 | JP |
2005248392 | Sep 2005 | JP |
2005535233 | Nov 2005 | JP |
2007051395 | Mar 2007 | JP |
2008236637 | Oct 2008 | JP |
WO-03013300 | Feb 2003 | WO |
2005091670 | Feb 2008 | WO |
2011051009 | May 2011 | WO |
2012039491 | Mar 2012 | WO |
WO-2016094582 | Jun 2016 | WO |
2015064340 | Mar 2017 | WO |
Entry |
---|
International Search Report, International Application No. PCT/CN2015/097263, pp. 1-6, International Filing Date Dec. 14, 2015, dated Apr. 26, 2016. |
Australian Examination Report No. 2 for standard patent application 2015404090; dated Sep. 7, 2018, pp. 1-6. |
Number | Date | Country | |
---|---|---|---|
20180279710 A1 | Oct 2018 | US |