113 results about "Bone augmentation" patented technology

The present invention relates to novel bone substitute compositions and methods of use. It further encompasses the use of these novel bone substitute compositions for bone augmentation and the treatment of disease conditions. The invention also contemplates a kit including bone substitute compositions and a percutaneous delivery device.

Expandable devices and methods for treating and enlarging a tissue, an organ or a cavity. The device is composed of a hollow expanding pouch made of a resorbable material or a perforated material that can be attached to a filling element. The pouch can be filled with a biocompatible materials, one or more times in few days interval, after the insertion of the device. While filling the pouch every few days the tissue expands and the filling material if it is bioactive start to function. The devices allow immediate direct contact between the filling material and the tissue. These devices and methods can be used for example for: horizontal and vertical bone augmentation in the jaws, soft tissue augmentation, fixating bone fractures etc.

Bioresorbable inflatable devices and tunnel incision tool and methods for treating and enlarging a tissue or an organ or a tube or a vessel or a cavity. The device is composed of a hollow expanding pouch made of a resorbable material that can be attached to a filling element. The pouch can be filled with a biocompatible materials, one or more times in few days interval, after the insertion of the device. While filling the pouch every few days the tissue expands and the filling material if it is bioactive start to function. The tunnel incision tool composed of a little blade that emerges from the surface of the tool in order to make shallow incisions in the surrounding tissue therefore enabling easy expansion of the tissue. This device and method can be used for example for: horizontal and vertical bone augmentation in the jaws and the tunnel incision tool is used to make shallow incisions in the periosteum when using the tunnel technique, sinus augmentation when the device is placed beneath the Schneiderian tissue, vessels widening if the pouch become a stent etc.

An injectable mixture for substituting bone tissue in situ comprises: A) a two-component powder/liquid bone cement which upon mixing forms a self-hardening cement paste; and B) a third component consisting of a liquid which essentially is non-miscible with the cement paste and which is suitable to be washed out after hardening of said mixture in situ, resulting in a porous bone substituting material; and C) an X-ray contrast agent which is an organic substance. The injectable bone substitute material for bone augmentation has adaptable mechanical properties, an optimal radio-opacity without any inorganic X-ray contrast agent and therefore good biocompatibility.

The present invention provides muscle-derived progenitor cells that show long-term survival following transplantation into body tissues and which can augment soft tissue following introduction (e.g. via injection, transplantation, or implantation) into a site of soft tissue. Also provided are methods of isolating muscle-derived progenitor cells, and methods of genetically modifying the cells for gene transfer therapy. The invention further provides methods of using compositions comprising muscle-derived progenitor cells for the augmentation and bulking of mammalian, including human, soft tissues in the treatment of various cosmetic or functional conditions, including malformation, injury, weakness, disease, or dysfunction. In particular, the present invention provides treatments and amelioration for dermatological conditions, gastroesophageal reflux, vesico-ureteral reflux, urinary incontinence, fecal incontinence, heart failure, and myocardial infarction.

The present invention provides effective new methods and materials for maxillofacial bone augmentation, particularly alveolar ridge augmentation, that are free of problems associated with prior art methods. In one embodiment, these materials include human recombinant platelet derived growth factor (rhPDGF-BB) and a biocompatible matrix. In another embodiment, these materials include rhPDGF-BB, a deproteinized bone block or calcium phosphate, and a bioresorbable membrane. The use of these materials in the present method is effective in regenerating maxillofacial bones and facilitating achievement of stable osseointegrated implants. The mandible and maxilla are preferred bones for augmentation, and enhancement of the alveolar ridge is a preferred embodiment of the present invention.

Method and apparatus for providing a socket of uniform shape within a bone preparatory to receipt of an anchoring member of an implant or augmentable bone. The tool is placed in a cavity in which a diseased bone or bone portion has been removed. A substantially cylindrical-shaped tool is inserted within the cavity. Grip extenders are selectively projected from the tool to secure the tool in place preparatory to its operation. The side walls and tip are expanded, preferably in a reciprocating fashion, compressing adjacent walls of the cavity modifying their length and width and making the sidewalls more uniform to assure precision placement of an augmented bone while providing a more uniform cavity shape and a more enriched site for a transplant, implant and/or bone augmentation. The resulting socket is scanned and a the scan is employed to prepare the augmented bone whereupon the implant may then be interfaced with the augmented bone in a highly precise manner.

The present invention relates to a biodegradable injectable composition for bone augmentation comprising fibrin, a contrast agent and calcium salt-containing particles, as well as a method for bone augmentation in a patient suffering from a bone disorder comprising injecting said composition into a non-mineralized or hollow portion of said bone.

A bone cement apparatus (20) is provided. In an embodiment, the apparatus includes a syringe (24) and a needle (120). The syringe and needle are interconnected by a connecting tube (32). Various fittings are employed to join the syringe, needle and connecting tube. The connecting tube and fittings present a pathway along which bone cement is carried. The connecting tube, fittings, and needle are all configured such that a substantially uniform pathway is provided from the end of the syringe to the end of the needle.

A stylet-guided balloon vertebroplasty system, as well as methods for bone augmentation using same are provided. In certain embodiments, a pre-curved stylet with an overlying delivery tube may be used to target an approximately centered target site within a bone structure, facilitating direction thereto of an expandable member useful for creating a cavity that may receive curable material to restore bone height and/or to reinforce the bone structure.

A method of harvesting bone marrow, including percutaneously introducing a multi-lumen cannula into a cancellous bone, applying suction through a first passage defined in a first lumen of the cannula, injecting a thick flowable material into the bone from a second passage in a second lumen of the cannula, extruding the thick flowable material through a distal end of the cannula into the cancellous bone in order to displace the bone marrow and other bone fluids, the suction applied through the first passage providing a hydraulic force guiding the displaced bone marrow and collecting the displaced bone marrow for a therapeutic or diagnostic purpose. A thick flowable material for use in harvesting bone marrow in the cancellous portion of a bone and a method for percutaneously preparing a bone with a multi-lumen cannula and an inflatable device are also discussed.

The invention relates to a method for designing and manufacturing a repair-orientated planting bone augmentation guide plate. The method comprises the following steps: shooting CT of a patient to obtain a planting three-dimensional space; carrying out intraoral three-dimensional scanning or scanning a gypsum model to obtain patient data; fusing the two parts of data; designing missing teeth and a tooth long shaft; locating an implant by using the tooth long shaft; adjusting the position and posture of the implant; extracting mesiodistal ortho-tooth half-crown data in the tooth missing region, and increasing the thickness uniformly; measuring the straight line-segment distance between the occlusal surface and the tail end of the implant body; generating a three-dimensional digital model of the planting guide plate; and designing the outer surface of the bone augmentation area after bone graft, increasing the thickness, and reserving a bone grafting material filling hole, thus completing designing and processing. According to the method provided by the invention, the mesiodistal position, the buccolingual position, the torque angle and the shaft inclination degree for oral implantation of the tooth implant can be accurately guided, the accurate bone augmentation operation is realized, the tooth planting risk is reduced, the implant amount and surface form of the allogenic bone augmentation material can be conveniently and accurately controlled, and thus the success rate of the tooth planting operation can be improved.

The invention relates to the technical field of medical treatment, in particular to a titanium mesh implant with personalized alveolar bone augmentation generated by a three-dimensional printing technology. The implant can achieve the best osteoinductive effect according to the best repair effect after reconstruction of alveolar bones and an accurately printed outline of a body of a titanium mesh.The unpredictable performance of a shape after osteogenesis of the alveolar bones is avoided, and the best shape is guided to be formed after the osteogenesis of the alveolar bones, which is beneficial to the later dental implant. By overcoming the pre-bending of the body of the titanium mesh before implantation, the edge of the body of the titanium mesh can precisely fit a remaining bone mass form. The three-dimensional printing technology can accurately print the body of the titanium mesh according to the bone shape in contact with the body of the titanium mesh around a bone defect, adjusting the curved body of the titanium mesh during the operation is completely not needed, a lot of intraoperative time is saved, traumas are reduced, the phone bill of a patient is saved, and the prognosis is improved.