Flexible vibration module for snap in attachment to a grommet embedded in a compression wrap

Abstract

A flexible vibrating module with flexible radiating arms outwardly projecting around the module, with each arm having an associated coin motor which can optionally be operated at high frequency or low frequency or pulsing frequency, is shown in combination with a wrap having a snap in flexible grommet for the module to consistently orient properly the module with respect to a patient's muscles or joints.

Claims

1. A vibration module, comprising: a vibration module housing; said housing comprising a fastener, an internal rigid frame and a flexible cover over-molded onto the internal rigid frame; a rechargeable battery with an on/off switch in said housing; a plurality of flexible arms radiating outwardly from said housing; and each of said plurality of flexible arms having the capability of bending with a wearer's joints terminating in a coin motor which is electrically connected to said rechargeable battery; said vibration module including a molded channel supported by a rigid frame of the housing and a silicone polymer grommet fastener skirt to provide capability of locking said rigid frame of the housing to said silicone polymer grommet fastener skirt to allow said housing to be removably secured to a compression wrap attached to said silicone polymer grommet fastener skirt.

2. The vibrating module of claim 1 wherein the on/off switch has a high frequency vibration setting, a low vibration setting and a pulse setting.

3. The vibration module of claim 2 wherein the rechargeable battery is a lithium ion battery.

4. The vibration module of claim 3 wherein said vibration module housing includes a printed circuit board, electrically connected to said lithium ion battery and said coin motors.

5. The vibration module of claim 4 wherein said flexible cover has an upper top portion and a bottom portion which are fixed together to cover said coin motors, said rechargeable battery and said printed circuit board.

6. The vibration module of claim 5 wherein the upper top portion of the vibration module flexible cover and the bottom portion of said vibration module flexible cover are of different hardness.

7. The vibration module of claim 6 wherein the bottom portion of said module flexible cover is of lesser hardness than the top portion of said vibration module flexible cover.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

(1) FIG. 1 is a top perspective view of the flexible vibration pad.

(2) FIG. 2 is a plan view of the flexible vibration pad.

(3) FIG. 3 is a bottom view of the flexible vibration pad.

(4) FIG. 4 shows an exploded view of how the flexible vibration pad may click into the grommet of a shin wrap.

(5) FIG. 5 shows an exploded view of the component parts of the flexible vibration pad from the top-down perspective.

(6) FIG. 6 shows another exploded view of the component parts of the flexible vibration pad from the bottom-up perspective.

(7) FIG. 7 shows an arm wrap top view with a click-in grommet.

(8) FIG. 8 shows a knee wrap top view with a click-in grommet.

(9) FIG. 9 shows the bottom view of arm wrap of FIG. 7.

(10) FIG. 10 shows the bottom view of the knee wrap of FIG. 8.

(11) FIG. 11 is a side view of the flexible vibration pad clicked in the grommet of the wrap.

(12) FIG. 12 shows a cross sectional view of FIG. 2 along line 12-12 of FIG. 2.

(13) FIG. 13 shows a bottom view of the arm wrap of FIG. 7 with the flexible vibration pad clicked in the grommet of the arm wrap of FIG. 7.

(14) FIG. 14 shows a top view of the arm wrap of FIG. 7 with the pad clicked in the grommet of the shin wrap.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

(15) The invention is generally shown in conjunction with FIGS. 1-6 as it relates to the particulars of construction of vibration pad or module 10. FIG. 7-14 demonstrate the wrap and flexible grommet that allows the vibration module 10 to be snapped into location within the wrap for assurance of proper position with respect to a wearer's muscles and/or joint.

(16) The vibration module 10 is comprised of a housing 12 having an on/off switch 14, and a plurality of radiating flexible arms 16, 18, 20, 22, 24 and 26 that radiate outwardly from housing 12. Terminal ends of arms 16, 18, 20, 22, 24 and 26 house coin motors 28, 30, 32, 34, 36 and 38 which are electrically connected by electrical wire connectors 40, 42, 44, 46, 48 and 50 to printed circuit board (PCB) 70, as is lithium battery 72 which also connects to electrical plug in 75 on printed circuit board 70. Mode switch 14 (push button on/off) allows the frequency to be varied from low to high frequency to vibration pulsing, depending on the number of times on/off switch 14 is pushed.

(17) Vibrating coin motors are known and are available from a variety of sources. One example suitable for use herein are those described in our earlier U.S. Pat. No. 9,775,769A suitable supplier of those is Shenzhen Jingkefa Electronics Company Limited a battery suitable for the vibrating motors is lithium ion batteries such as a 3.7-volt lithium ion battery. Frequencies suitable for the vibration therapy are known and generally have been described as within the range of 20-50 Hz. A desired LED display as shown at 74, 76, 78, and 80 can also be housed within housing 12 used to indicate use mode and on/off.

(18) Thus, to operate the unit one simply turns on the on/off switch 14 by pressing it, and then selects from the mode by how many pushes which is indicated by LED's 74, 76, 78, and 80.

(19) The radiating arms of the vibration pad 16, 18, 20, 22, 24 and 26 are made of a flexible material, usually a polymeric material such as a silicon polymer. Housing 12 is made from thermoplastic elastomeric material, commonly referred to as TPE that is well known to those skilled in the art.

(20) As illustrated, the pad itself is preferably made of two parts of the same material a top 60 and a bottom 62 which are joined together at a midline seam to encapsulate the coin motors (28 to 38) and their electrical wire connectors (40 to 50).

(21) The construction of the top cover 60 utilizes an over molding process to join the flexible silicone cover to a rigid internal frame 59. The internal frame 59 prevents migration or damage of the internally housed central electronics while also adding durability to the molded in FlexLOCK® channel. The use of over molding allows one to seamlessly integrate rigid material 59 into the Pad design while still offering a comfortable and flexible one-piece top cover, 60.

(22) Top cover 60 is created with dual hardness produced by a multi stage molding process allows a firm anchor for the interlocking channel and secure fit of PCB housing interface. Using a multi stage process allows us to control the hardness and flexibility in specific zones of the top housing. Arms of top cover consist of a lower hardness material 80-85 shore A hardness and gradually increases to 85-90 Shore A at the heart of pad, providing a semi-rigid core structure. The Greater hardness provides structure and shape memory to the flexible pad 10. Hard material acts as an isolator that reflects the vibration down towards user's extremity. Hard top cover 60 houses and protects the internal PCB 70 and battery, 72.

(23) Bottom cover 62 is lesser hardness or 70-72 Shore A hardness. The thin walls maximize vibration and flexibility. Soft material with raised surfaces grip to user's extremity and maximizes the translation of vibration to user. The thin walls also allow us to maximize the energy produced by the coin motor in an efficient draw that produces the desired run time 40-45 minutes with a small compact 3.4 v power supply.

(24) Module assembly uses a silicone compatible adhesive coupled with molded interlocking channels to allow for a sanitary sealed channel without the need for additional hardware or assembly. The use of flexible silicone compatible adhesive and molded channels allows for durable assembly without loss in flexibility from additional hardware or fasteners.

(25) As earlier described, this combination of the flexible vibration module 10 and wraps may be used with a variety of differing wraps, many referred to as compression wraps. It can be used in combination for example with a knee wrap, an elbow wrap, a calf or shin wrap, an ankle or foot wrap, upper thigh wraps, lower back wraps, wrist wraps, and shoulder wraps. The wrap is a non-limiting feature as long as it has the snap in grommet as for example illustrated in FIGS. 7-14. The flexible grommet 56 is particularly shown in a snapped in relationship with the vibration module 10 in FIG. 11 and in cross section through the housing in FIG. 12. FIG. 13 illustrates the inside or skin side of the vibration module bottom and snapped in relationship ready for wrapping. FIG. 14 illustrates the top side with only the housing 12 top showing; the interior part is in dotted line relationship for the flexible arm 16, 18, 20, 22, 24, and 26 as lead line 80 demonstrates. As is illustrated in FIG. 11 the housing 12 has rim 15 which snaps into the grommet holding the module in place. Because flexible grommet 56 has flexible edges or skirt 57, it also can be snapped out by simply pushing back. However, it must be held correctly in the desirable orientation position by the snap-in snap-out relation with top of housing 12 of the vibration module 10.

(26) The flexible grommet 56 click-in system consists of a molded channel in the top housing of the vibration module 15 that will lock into the flexible silicone grommet skirt 57. The flexible grommet 56 can be sewn or bonded to a wide variety of fabrics and allows the vibration module to seamlessly integrate into braces, wraps, and clothing. The grommet itself, 56 is highly flexible and capable of flexing and stretching to form around virtually any part of the body without effecting fit or comfort. The “press to lock” system allows the vibration module to be quickly and easily moved to different wraps or parts of the body. The FlexLOCK grommet 56 holds vibration module 10 securely in place during fitting and placement ensuring that the user can easily apply the pad to the treatment area and also prevents migration during use. The FlexLOCK grommet 56 also utilizes a pass-through open face allowing access to the PCB 70 interface and charging port during treatment. Users can easily identify mode and battery life as well as make adjustments without the need to remove the unit.

(27) As illustrated at the ends of the wraps FIGS. 7 and 8 are typical hook and loop fasteners of the Velcro® brand type 82 used to secure the wrap in place on a patient's limb.

(28) In the actual operation the unit works as follows. Operation module 10, or more accurately the top of its housing 12 is pushed through flexible grommet 56 and snapped into place in skirt 57 so that it is removably secured to the wrap for example 52 arm wrap and 54 knee wrap. The wrap is then place on the limb at the desired location with the straps wrapped around and hooked tightly. On/off button 14 is pushed and one of the mode switches 74, 76, 78 selected and vibration begins. Battery 72 is recharged as needed by a recharge receptacle 75.

(29) As best shown in FIGS. 3 and 6 the bottom of the vibration pad 62 exterior surface is textured to assist in place holding against the skin of a patient.

(30) The unit is held securely and cannot rotate freely or move out of position because of the removable but secure holding of grommet 56. It therefore can be seen that the invention accomplishes at least all of its stated objectives.