The present invention relates to razors for shaving and, more particularly, to a wet shave razor having a microprocessor(s) for collecting, storing and wirelessly transferring data.
Razors for shaving, and particularly wet shave razors, have been known and in use by a large percentage of the world population for many years. And, while there have been continued improvements made to razors over the years, the shaving industry has not seen any significant technological improvements to wet shave razors. Even electric razors have not been improved to any significant degree over the last 30 years.
In todays age of wireless communication, smart technology and artificial intelligence, the current state of the art in shave technology is antiquated to say the least. Simple implements, such as glide strips, multiple blades, pivoting action of the blade cartridge and ergonomically shaped handles are touted by razor manufacturers as the latest advancements, making their razors the best a customer can buy in the marketplace. And yet compared to the technology currently available in other industries, the most expensive wet shave razors and electric shave razors in stores today seem old-fashioned and outdated.
Accordingly, there remains an urgent need in the shaving industry for a technologically advanced razor that provides the most up-to-date electronic and wireless technology to best serve the modern consumer.
The present invention is directed to a razor that has microprocessors for collecting, storing and transferring data. The razor includes a blade cartridge with multiple blades that removably and pivotally attaches to a handle. The razor includes a microprocessor embedded within the blade cartridge that allows for unique identification of the cartridge, as well as providing for memory to store data. The handle of the razor includes a microprocessor that allows for bidirectional communication between the handle and the charging base. The handle further contains a rechargeable power source. The razor is placed on a charging base to charge the rechargeable power source in the handle and/or blade cartridge. The charging base is structured to communicate with a smartphone, computer or other electronic device via wireless communication. A microphone in the handle allows for measuring noise of the blade cartridge traveling over the skin surface to calculate wearing of the blades. By sharing this data with a cloud-based service, a notification can be sent to the user indicating that it is time to replace the blade cartridge.
For a fuller understanding of the nature of the present invention, reference should be made to the following detailed description taken in conjunction with the accompanying drawings in which:
Like reference numerals refer to like parts throughout the several views of the drawings.
Referring to the several views of the drawings, the razor of the present invention is shown schematically and is generally indicated as 10. The razor 10 has a blade cartridge 20 that includes at least one blade 22 and preferably multiple blades 22. The razor cartridge is pivotally and removably attached to a handle 30. The razor 10 includes microprocessors for collecting, storing and transferring data. In one embodiment, as shown in
In a further embodiment, as shown in
In yet a further embodiment, as seen in
This allows a razor supply service to trace the supply chain. Because each cartridge has a unique ID, by having the database of those cartridges beforehand, the supply service can always trace them to the end user. This allows a lot of insight to the supply chain and to the shaving habits of the user. For example, a smart phone application can trace how often the user shaves and can remind the user when they need a shave.
Additionally, the user can re-order the blade cartridges either automatically via the smart phone application or manually. Since each blade cartridge has a unique ID, each blade cartridge can be identified to a specific user. The user can then be alerted if they are about to use someone else's blade cartridge, which may be beneficial for sanitary reasons.
In addition to communication, at least one embodiment of the charging base 40 can have HMI (human machine interface). Additionally, the blade cartridges 20 can be heated to sanitize the blades 22 and anneal the blade material because when the blade material is annealed you have better cutting properties. If the charging base 40 is provided with a heater device 44 and is covered, we can controllably heat up/overheat the blades 22 to sanitize the blades 22 by killing the bacteria above 180-200 degrees Fahrenheit (the blades 22 and cartridge 20 could potentially be heated to 300 degrees Fahrenheit because the plastic would not melt up to this temperature). This will prolong the life of the blades 22.
Annealing the metal: aligning all the lattices in the metal. When the metal blades 22 are heated (e.g., above 200 degrees Fahrenheit) and then slowly cooled down, all the lattices in the metal in the structure are aligned, instead of being randomly arranged. The benefit of the lattices aligned is better cutting properties. Instead of being jagged edges on the blade 22, you have smooth edges. Another benefit is it helps to make the blades 22 last longer. Annealing softens it slightly so the lattices will be aligned. Another benefit of heating the blades 22 is killing the bacteria to thereby sanitize the blades and burn away whiskers, skin and oils that remain on the blades surfaces after shaving. This may require heating the blades 22 to 350-400 degrees Fahrenheit. To protect the user, the cover 42 of the charging base 40 can be provided with a safety mechanism which will prevent removal of the cover 42 when the blades 22 are above a certain temperature.
While the present invention has been shown in accordance with several preferred and practical embodiments, it is recognized that departures from the instant disclosure are fully contemplated within the spirit and scope of the present invention which is not to be limited except as defined in the following claims as interpreted under the Doctrine of Equivalents.
This non-provisional patent application is based on provisional patent application Ser. No. 62/832,007 filed on Apr. 10, 2019.
Number | Date | Country | |
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62832007 | Apr 2019 | US |