A light curing dental system comprising a light emitting tray that precisely distributes an optimal amount of curing light energy to internal, external and extra oral portions of the dental arch to cure a dental material. The light curing dental system generally includes a light source, a light emitting dental tray, an activation module and a photocurable dental material.

Dental coating compositions that have one or more of excellent properties including plaque resistance, microbial plaque resistance, strong adhesion, excellent hardness, high wear resistance, and high color resistance are provided. Dental appliance or natural tooth covered by the dental coating compositions, and production methods of the dental coating compositions are also provided. The coating compositions include one or more of a trifunctional or higher multifunctional (meth)acrylate monomer, an inorganic filler, a photoinitiator, and an organic solvent. The coating compositions are substantially free from antibacterial chemical additives.

A dental handheld device (100) for curing a polymer using light, having a laser diode as a first light source (101-1) for outputting light in a first wavelength range; and a second light source (101-2) for outputting light in a second wavelength range.

A holder for a dental crown. The dental crown holder may comprise a handle and a working end, where the working end has at least one extension arm extending therefrom. The dental crown holder may be used by covering the working end of the dental crown holder, including the extension arms, in a curable material; placing the dental crown into the curable material such that at least a portion of the extension arms and at least a portion of the curable material are located inside an interior surface of the dental crown; and curing the curable material. The dental crown holder with cured curable material may thus securely hold the dental crown without any slipping, rotating, or wobbling, allowing the user to make adjustments to the dental crown while holding the handle of the dental crown holder rather than the dental crown itself.

By using techniques to diverge an emitted beam, the same base device may be utilized as either a cutting laser or a curing light. The use of multiple frequency laser modules (312) and a selection of emitter heads (304) allow for systems (300) which may be used for a wide variety of medical and dental procedures. Each system (300) has a plurality of emitter heads (304) to select from either a curing light, a cutting laser, or any other therapeutic energy emission all while utilizing the same laser module (312). Various structures of emitter heads are disclosed, as well as laser modules and connection strategies.

By using techniques to diverge an emitted beam, the same base device may be utilized as either a cutting laser or a curing light. The use of multiple frequency laser modules (312) and a selection of emitter heads (304) allow for systems (300) which may be used for a wide variety of medical and dental procedures. Each system (300) has a plurality of emitter heads (304) to select from either a curing light, a cutting laser, or any other therapeutic energy emission all while utilizing the same laser module (312). Various structures of emitter heads are disclosed, as well as laser modules and connection strategies.

By using techniques to diverge an emitted beam, the same base device may be utilized as either a cutting laser or a curing light. The use of multiple frequency laser modules (312) and a selection of emitter heads (304) allow for systems (300) which may be used for a wide variety of medical and dental procedures. Each system (300) has a plurality of emitter heads (304) to select from either a curing light, a cutting laser, or any other therapeutic energy emission all while utilizing the same laser module (312). Various structures of emitter heads are disclosed, as well as laser modules and connection strategies.

By using techniques to diverge an emitted beam, the same base device may be utilized as either a cutting laser or a curing light. The use of multiple frequency laser modules (312) and a selection of emitter heads (304) allow for systems (300) which may be used for a wide variety of medical and dental procedures. Each system (300) has a plurality of emitter heads (304) to select from either a curing light, a cutting laser, or any other therapeutic energy emission all while utilizing the same laser module (312). Various structures of emitter heads are disclosed, as well as laser modules and connection strategies.

By using techniques to diverge an emitted beam, the same base device may be utilized as either a cutting laser or a curing light. The use of multiple frequency laser modules (312) and a selection of emitter heads (304) allow for systems (300) which may be used for a wide variety of medical and dental procedures. Each system (300) has a plurality of emitter heads (304) to select from either a curing light, a cutting laser, or any other therapeutic energy emission all while utilizing the same laser module (312). Various structures of emitter heads are disclosed, as well as laser modules and connection strategies.

A one-piece dental implant guide pack based on photocuring molding includes: a guide socket for receiving a photosensitive resin at an outer edge of the guide socket, adjusting and positioning the guide socket by the photosensitive resin which is curable by light; a guide slot formed at a side edge of the guide socket, and having a receiving portion at the bottom; a positioning shaft, having a positioning part and a shaft, and the positioning part being socketed into the guide socket, and the shaft penetrating to the bottom of the guide socket; and at least one positioning part, with an end connected to the guide socket and another end connected to and positioning the positioning shaft. This disclosure facilitates the drilling process of subsequent operations and improves the convenience and accuracy of the implant guide plate and the accuracy of the dental implant surgery.