This invention relates to neckties and menswear and more particularly relates to detachable synthetic neckties.
Neckties are well known in the art and have become a staple of common business attire. Conventional neckties comprise an elongated strip of fabric commonly tied at the neck using knots known to those of skill in the art, including the Windsor knot, the Christensen knot, the Merovingian knot, the small knot, and the like. Other types of neckties also proliferate in the art, including bowties.
Neckties have evolved slowly over centuries and continue to evolve with provision of the present invention. Roman soldiers adorned themselves in scarfs and neckwear as part of their uniforms and the concept of the necktie in menswear grew slowly through Europe subsequently. In medieval battles, including the Thirty Years' War and the Battle of Steenkerque, officers commonly wrapped cravats around their necks and twisted the ends of the fabric cravats together, passing the twisted portions through a buttonhole. These cravats were sometimes used in the battlefield as tourniquets.
With the industrial revolution, cravats gave way to leather collars and finally to more traditional neckties arraying a series of knots and styles. These traditional neckties are not entirely efficient, however. Traditional neckties still include the collar band, which is uncomfortable particularly in the heat, and are difficult and time consuming to tie. The collar band is useless and not even visible under the collar. It can be difficult to interchange traditional neckties and these inefficiencies have given way to abandonment of the necktie altogether by some professionals in hot or casual business environments.
Previous attempts to remedy these inefficiencies have been made in the art, including with the evolution of “clip-on” neckties, which eliminate the neckband of the tie and provide alternate means of collar attachment which simulates the Windsor knot. Clip-on neckties often show the clip, do not allow interchange of the elongated fabric portion of the tie, do not allow customizable knots, and do not include simulated knots beyond those previously known in the art. As the art, stylistic preferences of wearers, and manufacturing technologies continue to evolve, so too do neckties.
It is desirable to provide to the modern man a more efficient necktie with modularized, rapidly-interchangeable components adaptable to meet a variety of stylistic and aesthetic preferences, which makes use of improved manufacturing and design technologies.
The present invention provides a modular necktie comprising: a simulated knot having a declined rearward surface, the declined rearward surface defining a recess for receiving a magnetic element, the simulated knot defining a non-cylindrical attachment channel for receiving a fabric stem, the simulated knot affixable to one of a shirt collar and collar band; a fabric stem adapted to affix at a distal end to an elongated necktie and a proximal end to the knot enclosure, the fabric stem comprising: a non-cylindrical proximal head adapted to engage the attachment channel, the proximal head comprising attachment means; a shank; a terminal fastener adapted to fasten to a fabric tie.
The fabric stem may further comprise a plurality of bulbous flanges. The proximal head of fabric stem may further comprise magnetic element for forming a magnetic dipole bond with a cooperating magnetic element in the knot enclosure.
The knot enclosure may further comprise, in some embodiments, a magnetic element for forming a magnetic dipole bond with a cooperating magnetic element in the fabric stem. An exterior surface of the knot enclosure may be faceted. The knot enclosure may define a cylindrical attachment recess. A floor of the cylindrical attachment recess may define a magnetic attachment recess. The modular necktie may further comprise an elongated strip of fabric forming a tie affixed to the fabric stem.
The modular necktie, in some embodiments, may further comprise: an internal power supply; a microphone; and a transmitter for wirelessly transmitting audio data received via the microphone; wherein the modular necktie is adapted to receive spoken audio data via the microphone and transmit said spoken audio to a receiver. The modular necktie may be adapted to wirelessly relay digital audio information using Bluetooth® protocols.
The modular necktie may comprise: a simulated knot having a declined rearward surface, the declined rearward surface, the simulated knot affixable to one of a shirt collar and collar band using attachment means, the simulating knot detachably affixable to one of a fabric stem and a tie using attachment means; an internal power supply; a microphone; and a transmitter for wirelessly transmitting audio data received via the microphone.
A second modular necktie is provided comprising: a simulated knot having a declined rearward surface, the simulated knot defining a non-cylindrical attachment channel for receiving a fabric stem, the simulated knot affixable to one of a shirt collar and collar band; a fabric stem adapted to affix at a distal end to an elongated necktie and a proximal end to the knot enclosure, the fabric stem comprising: a non-cylindrical proximal head adapted to engage the attachment channel, the proximal head comprising attachment means; a shank; attachment means for affixing to a fabric tie.
The modular necktie may further comprise: an internal power supply; a microphone; and a transmitter for wirelessly transmitting audio data received via the microphone; wherein the modular necktie is adapted to receive spoken audio data via the microphone and transmit said spoken audio to a receiver. The modular necktie may be adapted to wirelessly relay digital audio information using Bluetooth® protocols.
These features and advantages of the present invention will become more fully apparent from the following description and appended claims, or may be learned by the practice of the invention as set forth hereinafter.
In order that the advantages of the invention will be readily understood, a more particular description of the invention briefly described above will be rendered by reference to specific embodiments that are illustrated in the appended drawings. Understanding that these drawings depict only typical embodiments of the invention and are not therefore to be considered to be limiting of its scope, the invention will be described and explained with additional specificity and detail through the use of the accompanying drawings, in which:
Reference throughout this specification to “one embodiment,” “an embodiment,” or similar language means that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment of the present invention. Thus, appearances of the phrases “in one embodiment,” “in an embodiment,” and similar language throughout this specification may, but do not necessarily, all refer to the same embodiment.
Furthermore, the described features, structures, or characteristics of the invention may be combined in any suitable manner in one or more embodiments. In the following description, numerous specific details are provided to provide a thorough understanding of embodiments of the invention. One skilled in the relevant art will recognize, however, that the invention may be practiced without one or more of the specific details, or with other methods, components, materials, and so forth. In other instances, well-known structures, materials, or operations are not shown or described in detail to avoid obscuring aspects of the invention.
Knot enclosure 100 may be formed from any polymeric, metallic, fabric or organic material known to those of skill in the art, including Titanium, Aluminum, metal alloy, nylon, leather, woven silk, and the like. Knot enclosure 100 may comprise any decorative exterior surfacing or colors.
In embodiments that employ magnetic elements, the first magnet element may be plated so as to help prevent corrosion and/or to help strengthen the magnet material. In one embodiment, a neodymium magnet is coated with nickel or plastic, yet other options for coatings include zinc, tin, copper, epoxy, silver, and gold, for example.
A cooperating second magnetic element is disposed or positioned on a collar band which may comprise another magnet having an opposite polarity than the first magnetic element. The second magnetic element may comprise a metallic article that is magnetically attracted to the first magnetic element. The first and second magnetic elements may have the same size and shape. In the shown embodiments, the first magnetic element is disc-shaped. One of ordinary skill will recognize that a variety of sizes and/or shapes may be used for the first and second magnetic elements and that the sizes and/or shapes of the two magnetic elements need not be identical.
An attachment channel 108 or socket extends vertically within knot enclosure 100 and forms an opening at bottom edge 111. As shown, attachment channel 108 may also form a rearward facing opening that extends vertically along bottom rear surface 122b. In some embodiments, attachment channel 108 is not cylindrical so as to prevent axial rotation of a fabric stem 200 (see
Fabric stem 200 comprises cylindrical shank 204 and terminal fastener 206 at the distal end of shank 204 for enabling affixation of fabric stem 200 with a tie portion of elongated fabric material. Shank 204 may comprise a plurality of bulbous flanges 208a-b as shown for further facilitating engagement with the tie portion.
Lateral collar wings 1302a and 1302b engage knot enclosure 1300 using attachment means 1310 as shown. Attachment means 1310 may be a magnet which couples to a corresponding magnet contained in knot enclosure 1300 or another type of fastener such as a friction fit fastener, snap-fit fastener, screws, etc.
As shown in
In various embodiments, audio input 1530 is received by microphone 1510 and spoken by a wearer. This audio may be retransmitted using protocols and means known to those of skill in the art, including BlueTooth® to a remote data processing device (DPD) such as a tablet computer, smart phone, server, personal computer, amplifier, and the like. In various embodiments, the remote DPD is in wireless connectivity with knot enclosure 1500 via a local area network (LAN) or wide area network (WAN). The data output is noticed at 1532.
Knot enclosure 1500 may comprise means for relaying electrical signals enabling device-to-device communication (meaning wireless transmission of media). Knot enclosure 1500 may be configured to make use of the Bluetooth® protocols and procedures enabling device-to-device intercommunication connectivity. This functionality may be provided by incorporating the Bluetooth Intercom Profile® and/or the Bluetooth Telephony Profile®, or other wireless technologies known to those of skill in the art.
This communication may be in accordance with core specifications of one or more subsets of Bluetooth® profiles, wherein the core specifications comprise one or more of: the Cordless Telephony Profile (CTP), the Device ID Profile (DIP), the Dial-up Networking Profile (DUN), the File Transfer Profile (FTP), the Hands-Free Profile (HFP), the Human Interface Device Profile (HID), the Headset Profile (HSP), and the Intercom Profile (ICP), the Proximity Profile (PXP).
As shown, a magnet 1621a can be incorporated into proximal head 1621. A corresponding magnet 108 can be incorporated into the top surface of attachment channel 108 so that fabric stem 1620 will be held securely within attachment channel 108.
Each of lateral collar wings 1302a also includes an outer surface 1653 that extends downwardly beyond protrusion 1652 and aligns with the corresponding side 111 or 112 of knot enclosure 1300. A channel 1652a is formed between outer surface 1653 and protrusion 1652. A portion of top rear surface 122a inserts into channel 1652a when lateral collar wings 1302a and 1302b are coupled to knot enclosure 1300 to thereby reinforce the coupling.
To secure ratcheting strips 1702 to the wearer's shirt, a receptacle 1701 can be secured under the collar on both sides of the shirt. Receptacle 1701 can include an attachment portion 1701a that faces inwardly and is configured to attached to the shirt via stitching, glue, or any other suitable mechanism. Receptacle 1701 also includes a ratcheting structure 1701b through which the corresponding ratcheting strip 1701 inserts. Ridges 1702a on ratcheting strip 1702 interface with ratcheting structure 1701b to prevent ratcheting strip 1702 from withdrawing from receptacle 1701 without disengaging release lever 1701b1. Accordingly, the wearer can insert ratcheting strips 1701 through receptacles 1701 to an appropriate distance to position and secure knot enclosure 1300 at the desired location. Because receptacles 1701 can be coupled under the wearer's collar, they will not be visible while the collar is folded down.
As best seen in
Straps 1802a and 1802b connect at one end to lateral collar wing 1801a and 1801b respectively. The opposite ends of straps 1802a and 1802b are configured to interconnect in an adjustable manner thereby allowing the diameter of the collar band to be adjusted. In particular, the end of strap 1802a forms a buckle-like structure 1803 and channel 1804. The end of strap 1802b can be inserted through channel 1804 to a desired distance to form a loop. Straps 1802a and 1802b can then be secured together by inserting a pin (not visible) formed on buckle-like structure 1803 into one of notches 1805 that are formed along the end of strap 1802b. The pin on buckle-like structure 1803 can be oriented outwardly so that the end of strap 1802b inserts inwardly through channel 1804 thereby ensuring that the end of straps 1802a and 1802b will lie flat under the collar.
Knot enclosure 1910 includes a convex front surface 1911 similar to the previously described knot enclosures. Channel 1912 is formed on the rear side of knot enclosure 1910 and is configured to receive insert 1930. An inner surface of channel 1912 can form a shelve 1914 that is positioned towards a bottom of knot enclosure 1910. When insert 1930 is placed within channel 1912, a bottom surface 1932 of insert 1930 will rest on shelve 1914 and substantially align a top rear surface 1931 of insert 1930 with the surrounding surfaces of knot enclosure 1910. A bottom portion 1915 of knot enclosure extends downwardly beyond shelve 1914.
To secure insert 1930 within channel 1912, interlocking members 1913 can be formed on the inner surface of channel 1912 and corresponding interlocking member 1933a can be formed on an outer surface 1933 of insert 1930. Interlocking members 1913 and 1933a can be configured to interlock when insert 1930 is seated on shelve 1914. In the depicted embodiment, interlocking members 1913, which may be formed on opposing sides of channel 1912, may be configured as rounded indents, while interlocking members 1933a, which may also be formed on opposing sides of insert 1930, may be configured as rounded protrusions having the same general shape and size as the rounded indents. Of course, interlocking members 1913 and 1933a could alternatively be configured as protrusions and indents respectively. Forming the interlocking members as rounded indents and protrusions can facilitate separating insert 1930 from channel 1912 when desired while also preventing insert 1930 from separating from channel 1912 unintentionally. Interlocking members 1913 and 1933a may preferably be employed with embodiments of modular necktie 1900 that are made of metal.
Insert 1930 includes a pocket 1934 that is positioned below top rear surface 1931 and that forms a rear-facing opening. A notch 1931a can be formed in top rear surface 1931 and extends upwardly/forwardly from a rear edge of top rear surface 1931. Notch 1931a accommodates the threads of the top button of a wearer's shirt when the top button is slid into pocket 1934 to thereby couple modular necktie 1900 to the wearer's shirt.
Insert 1930 also includes a pocket 1935 that is positioned at and opens towards the bottom of insert 1930. Pocket 1935 is configured to receive proximal head 1922 of fabric stem 1920. An upper face 1923 of proximal head 1922 can be rearwardly angled to match the angle of the upper surface of pocket 1935. Insert 1930 can also include a pocket 1936 that is positioned between pockets 1934 and 1935 and that opens towards the front of insert 1930. To secure fabric stem 1920 within pocket 1935, a magnet (not shown) can be placed within pocket 1936 to attract a corresponding magnet (not shown) contained within pocket 1923a formed in proximal head 1922. The thin wall between pockets 1935 and 1936 will ensure that a sufficient magnetic force exists to prevent fabric stem 1920 from unintentionally separating from pocket 1935.
A recessed portion 1924 of fabric stem 1920 is formed between proximal head 1922 and terminal fastener 1921. A tie portion (e.g., tie portion 502) can be wrapped around and secured to fabric stem 1920 in the location of recessed portion 1924 (similar to what is shown in
The present invention may be embodied in other specific forms without departing from its spirit or essential characteristics. The described embodiments are to be considered in all respects only as illustrative and not restrictive. The scope of the invention is, therefore, indicated by the appended claims rather than by the foregoing description. All changes which come within the meaning and range of equivalency of the claims are to be embraced within their scope.
This application is a continuation-in-part of U.S. patent application Ser. No. 15/849,451, filed on Dec. 20, 2017, which is a continuation-in-part of U.S. patent application Ser. No. 15/822,142 filed on Nov. 25, 2017.
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Modern Tie, New @RyderCupUSA interchangeable ties!, Twitter, Sep. 25, 2018, online, <https://twitter.com/themoderntie>. |
Number | Date | Country | |
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20190159536 A1 | May 2019 | US |
Number | Date | Country | |
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Parent | 15849451 | Dec 2017 | US |
Child | 16123785 | US | |
Parent | 15822142 | Nov 2017 | US |
Child | 15849451 | US |