The present invention relates to a glove, particularly to a muscular stress-reducing glove.
Industrial glove is intended for protecting a user's hand from hazardous conditions during an activity. The durability, chemical resistance and abrasion resistance of an industrial glove have to be adequate to serve the function and oftentimes, this would result in a thicker and longer length of the glove. As the thickness and length of the glove increase, the glove is stiffer and harder to don which will further cause discomfort during donning. In usage, a user that experiences hand or muscle fatigue would possibly affect the user's performance in a specific activity. A user may also experience fatigue after a long duration of wearing the glove.
Industrial gloves can be designed to be hand specific or ambidextrous. However, an ambidextrous glove is easier to produce and it is more cost-effective as compared to a hand specific glove. Further, for an ambidextrous glove, it has higher production output with a lower rejection rate than a hand specific glove. The ambidextrous glove is more economical as it can fit both hands. Moreover, the production cost and rejection rate of an ambidextrous former are lower as compared to the hand specific former.
In view of the preceding, it would be advantageous to develop a muscular stress-reducing ambidextrous glove.
The present invention relates to a muscular stress-reducing ambidextrous glove comprising a thumb with thumb ball profile; a plurality of fingers with one or more flattened finger profile to improve the matching of physical profile between the glove and fingers of a glove user; flattened palm and backhand profile to resemble the physical profile of glove user's palm and backhand; a cuff region; a plurality of crotch regions; a plurality of concave profiles to mimic the physical profile of glove user's finger crotches or one or more grooves at the palm and/or backhand region to provide additional flexibility or stretchability for the comfort of glove user.
The present invention will be fully understood from the detailed description given hereinbelow and the accompanying drawings which are given by way of illustration only, and thus are not limitative of the present invention, wherein:
In the appended drawings:
A detailed description of the preferred embodiments of the present invention is disclosed herein. It should be understood, however, that the embodiments are merely exemplary of the present invention, which may be embodied in various forms. Therefore, the details disclosed herein are not to be interpreted as limiting, but merely as the basis for the claims and for teaching one skilled in the art of the invention. The numerical data or ranges used in the specification are not to be construed as limiting. The following detailed description of the preferred embodiments will now be described in accordance with the attached drawings.
The present invention relates to a muscular stress-reducing ambidextrous glove (100) with an ergonomic design. The stress-reducing and ergonomic features are created at selected areas of the glove (100) through modification on a former. As the glove (100) is ambidextrous, these features are introduced on both sides of the glove (100) such that it can be worn for either right hand or left hand. This design eases production, increases output, lowers rejection rate and increases cost efficiency. A user experiences less fatigue and more comfort while performing activities.
The present invention will now be explained in detail. In the preferred embodiment, the glove (100) comprises a thumb (150) having a front surface and a back surface, a plurality of fingers (161-164) with each of the fingers having a front surface and a back surface, a palm region (120), a backhand region (130), a plurality of crotch regions (140), a cuff region (110) and one or more stress-reducing features.
As the glove (100) is ambidextrous, it is understood that the glove (100) can be used for either right hand or left hand. Hence, the front surface and back surface of the thumb (150), fingers (161-164), palm (120) and backhand region (130) of the glove (100) may be interchangeable depending on the hand-fitted. The illustration (
The glove (100) is made from an elastomeric material such as but not limited to nitrile, natural rubber and synthetic rubber. The glove (100) is introduced in four standard sizes, namely small, S, medium, M, large, L and extra large, XL.
In the preferred embodiment, the cuff region (110) refers to a lower end of the glove (100) which an opening is disposed at the bottom for donning. The elasticity of the glove material eases the opening to stretch for donning. When a hand is fitted into the glove (100), the cuff region (110) contains the wrist of a user. The wrist circumference at cuff region (110) is enlarged to have the larger wrist circumference than wrist circumference of a conventional glove to facilitate donning and to reduce discomfort. The upper side of the cuff region (110) is connected to the palm (120) and backhand region (130). Table 1 shows the wrist circumference of the glove (100) in different sizes.
The backhand region (130) refers to a dorsal side of the hand or opposite of the palm (120). The palm (120) and backhand region (130) comprises a flattened profile to resemble a physical profile of a user's palm and backhand. The flattened profile reduces stress at the metacarpophalangeal joint of index, middle, ring and little fingers (161-164) and helps to accommodate the physical profile mismatch between the glove (100) and a user's palm and backhand. Table 2 shows the palm circumference of the glove (100) in different sizes when measured at “P” (referring to
A plurality of crotch regions (140) are disposed at the upper connection between the palm (120) and backhand region (130) whereby they interconnect the thumb (150), the index finger (161), the middle finger (162), the ring finger (163) and the little finger (164). A plurality of concave profiles (145) extend from the tip of each finger crotch to the palm region (120) and/or backhand region (130) wherein the function of the concave profiles (145) are to mimic the physical profile of human finger crotches and thus improving the degree of comfort for glove user while wearing the glove (100). The length of the concave profile (145) from the tip of each finger crotch to the palm region (120) and/or backhand region (130) ranges from 10 mm to 75 mm. The depth of the concave profile (145) gradually decreases from the tip of each finger crotch to the palm (120) and/or backhand region (130). The maximum depth of the concave profile (145) at the tip of each finger crotch is 25 mm.
The thumb (150) and the fingers (161-164) of the glove are slightly spread-out to reduce the stress at fingers when the glove user spreads out his fingers to grasp an object. The horizontal distance between the thumb (150) and little finger (164) is measured on the former as it is inaccurate to be measured on the glove. The horizontal distance between the thumb (150) and the little finger (164) on the former, also known as span width, is tabulated in Table 5.
Referring to
A user evaluation form that focuses on the assessment of different hand sections, including wrist, palm, finger, crotch and knuckle (while grasping) was prepared. Control (ambidextrous nitrile conventional industrial glove), Design 1 (ambidextrous nitrile muscular stress-reducing glove (100) with concave profile (145) of present invention) and Design 2 (ambidextrous nitrile muscular stress-reducing glove (100) with grooves (170) of present invention) gloves were provided to 30 test subjects for evaluation according to the user evaluation form. Test subjects were requested to move their fingers and flex their hand while wearing each type of glove. Stress and discomfort points evaluated by the subject were marked on the glove and recorded in the form. Their comments on each type of glove were recorded in the form as well.
The number of stress and discomfort points were counted and summarized in the following sections.
Design 2 of present invention was selected by 60% of test subjects as their preferred glove, followed by Design 1 of present invention with 27% of the test subjects. Only 13% of the test subjects selected the control sample as their preferred glove.
In conclusion, both Design 1 and Design 2 of the present invention are effective to improve the ambidextrous nitrile industrial glove in terms of the degree of comfort. The majority of the test subjects prefer Design 2 over Design 1 of present invention.
The terminology used herein is for the purpose of describing particular example embodiments only and is not intended to be limiting. As used herein, the singular forms “a”, “an” and “the” may be intended to include the plural forms as well, unless the context clearly indicates otherwise. The terms “comprises”, “comprising”, “including” and “having” are inclusive and therefore specify the presence of stated features, integers, steps, operations, elements and/or components, but do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, components and/or groups therefrom.
The method, steps, processes, and operations described herein are not to be construed as necessarily requiring their performance in the particular order discussed or illustrated, unless specifically identified as an order of performance. It is also to be understood that additional or alternative steps may be employed. The use of the expression “at least” or “at least one” suggests the use of one or more elements, as the use may be in one of the embodiments to achieve one or more of the desired objects or results.
Number | Date | Country | Kind |
---|---|---|---|
PI2019007341 | Dec 2019 | MY | national |