Abstract: A shield for protecting the eye of a patient who is undergoing treatment of a facial area, such as the nose-bridge, forehead, temple, or an area immediately surrounding the eye. The shield has an outer shell of a formed semi-flexible or rigid metal foil that extends all the way to the edge of the shield, including an adhesive area of the shield that holds the shield around the eye of the patient. The foil layer is combined with one or more layers of polyester to avoid reflection of the light energy on the user or one or more layers of foam to provide for heat insulation, adhesion and patient comfort. The shield is formed at the contact portion to fit over the orbital area of the patient's eye.

Abstract: A shield for protecting the eye of a patient who is undergoing treatment of a facial area, such as the nose-bridge, forehead, temple, or an area immediately surrounding the eye. The shield has an outer shell of a formed semi-flexible or rigid metal foil that extends all the way to the edge of the shield, including an adhesive area of the shield that holds the shield around the eye of the patient. The foil layer is combined with one or more layers of polyester to avoid reflection of the light energy on the user or one or more layers of foam to provide for heat insulation, adhesion and patient comfort. The shield is formed at the contact portion to fit over the orbital area of the patient's eye.

Abstract: External ocular shields for protecting a patient's eyes from medical treatment radiation energy such as a laser during a medical procedure. Each shield has an external surface that absorbs energy that hits the shield. The shields are connected to each other by a nose piece, and the nose piece is connected to each shield by a mounting means. The mounting means are positioned perpendicular to the shields and parallel to each other so that the nose piece can pivot upward towards the user's forehead and downward towards the user's chin without altering the fit of the shields over the user's eyes.

Abstract: External ocular shields for protecting a patient's eyes from medical treatment radiation energy such as a laser during a medical procedure. Each shield has an external surface that absorbs energy that hits the shield. The shields are connected to each other by a nose piece, and the nose piece is connected to each shield by a mounting means. The mounting means are positioned perpendicular to the shields and parallel to each other so that the nose piece can pivot upward towards the user's forehead and downward towards the user's chin without altering the fit of the shields over the user's eyes.

Abstract: Shields for protecting parts of the body during use of lasers or similar high intensity light. One of the shields is a dental shield shaped to conform to the typical dental alignment in the buccal area of the patient. Other shields are for protecting the genital areas of either a male or female patient. The female shield protects the vulva of a female patient. The male genital shield is a penile guard, in the form of a thick tube that is placed around the upper half of the penis when a procedure is performed for removing the hair follicles on the lower half part of the penis. The shields are made of a light color, preferably white, in order to disperse or reflect the energy and avoid the penetration of the laser or other light instruments all the way through the material.

Abstract: Shields for protecting parts of the body during use of lasers or similar high intensity light. One of the shields is a dental shield shaped to conform to the typical dental alignment in the buccal area of the patient. Other shields are for protecting the genital areas of either a male or female patient. The female shield protects the vulva of a female patient. The male genital shield is a penile guard, in the form of a thick tube that is placed around the upper half of the penis when a procedure is performed for removing the hair follicles on the lower half part of the penis. The shields are made of a light color, preferably white, in order to disperse or reflect the energy and avoid the penetration of the laser or other light instruments all the way through the material.

Abstract: The disclosed invention is a protective device for use in combination with an elastic strap. Such straps commonly have hooks or other fasteners mounted on ends of the strap. When stretched and then released, these fasteners may become dangerous projectiles. In order to limit the rate of retraction or recoil of such elastic straps, the present invention discloses tethering the fastener end to the user's arm and/or retarding the motion of the strap with a sheath. In addition, the disclosure demonstrates a shielding apparatus to prevent direct contact with the fastening device or hook.

Abstract: A protective shield shaped to fit either the right or left ocular globe and formed sufficiently large to provide maximum protection of the globe. The shield has a proper vault at the cornea to minimize corneal abrasion and is formed with a flattened area at the edge where the shield will be positioned at the trochlea which is the cartilaginous structure positioned nasally and superiorally relative to the globe. A similar flattened area may also be formed along the edge of the shield at the temporal side where there is a lateral canthal tendon. The shields may be made with a peg or handle positioned to be at the juncture of the lid closure over the globe.

Abstract: An external ocular protective device that has eye shields of non-reflective stainless steel or titanium joined together by an adjustable spring-type nose piece and held tightly over the patient's eyes by use of an adjustable elastic band placed around and behind the patient's head. The members that connect the eye shields and also provide for holding the shields in place around the patient's head are preferably very thin flexible wires that extend away from the patient's head to allow the surgeon to work any of the areas of the face without interference.

Abstract: An orbital implant is provided with a passageway extending from the anterior surface inwardly to receive a peg prior to implantation in the patient. The peg is made of non microporous material so that surrounding tissue will encapsulate the peg without adhering to it. A cap of absorbable bio-material is placed in front of the implant so as to create a cushion between the implant and the ocular prosthesis. The peg provides for later coupling of the ocular prosthesis to the implant without the necessity of a second operative procedure, and also allows the peg to be easily removed surgically if deemed necessary by the surgeon. The implant itself can be of any suitable material, but the implant is preferably made of biodegradable material having a matrix with random voids throughout to enhance tissue ingrowth into the implant.

Abstract: An orbital implant is provided with a passageway extending from the anterior surface inwardly to receive a peg prior to implantation in the patient. The peg is made of non microporous material so that surrounding tissue will encapsulate the peg without adhering to it. This provides for later coupling of the ocular prosthesis to the implant without the necessity of a second operative procedure, and also allows the peg to be easily removed surgically if deemed necessary by the surgeon. The implant itself can be of any suitable material, but the implant is preferably made of biodegradable material having a matrix with random voids throughout to enhance tissue ingrowth into the implant. The matrix can be created by foxing or molding a suitable material, or the matrix can be formed from microporous thread of an inert material that is knitted, crocheted or otherwise formed into the desired size and shape.

Abstract: An orbital implant is provided with a passageway extending from the anterior surface inwardly to receive a peg prior to implantation in the patient. The peg is made of non microporous material so that surrounding tissue will encapsulate the peg without adhering to it. This provides for later coupling of the ocular prosthesis to the implant without the necessity of a second operative procedure, and also allows the peg to be easily removed surgically if deemed necessary by the surgeon. The implant itself can be of any suitable material, but the implant is preferably made of biodegradable material having a matrix with random voids throughout to enhance tissue ingrowth into the implant. The matrix can be created by foaming or molding a suitable material, or the matrix can be formed from microporous thread of an inert material that is knitted, crocheted or otherwise formed into the desired size and shape.