1814 results about "Rigid structure" patented technology

The present invention is directed to disposable composite downhole tool formed of a resin-coated fiber. The fiber is formed of a degradable polymer, such as a poly(lactide) or polyanhydride. The resin is formed of the same degradable polymer as the fiber. It chemically bonds to the fiber, thereby making a strong rigid structure once cured. The fiber may be formed into a fabric before being coated with the resin. Alternatively, the fiber is formed of a non-biodegradable material.

A knotless suture anchor provides a method for securing soft tissue to a rigid structure such as bone. The anchor has an inner member that receives suture thread and rotates within an outer tubular member. As the inner member rotates, the suture thread is wrapped onto the inner member thereby increasing contact with the outer tubular member which applies pressure to the wrapped suture thread to retain it in position on the inner member while simultaneously and adjustably tensioning the suture thread. A ratchet prevents undesirable counter-rotation, although the ratchet can be released to permit loosening of the suture thread. Also described is a suture bridge and suture platform for providing further stabilization of a tendon. A method for repairing rotator cuff tears is also described.

An insertion tool is used to implant a knotless suture anchor to secure soft tissue to a rigid structure such as bone. The anchor has an inner member that receives suture thread and rotates within an outer tubular member. An inner shaft on the insertion tool engages the inner tubular member and is used to rotate the inner tubular member so that the suture thread is wrapped onto the inner tubular member thereby increasing contact with the outer tubular member of the anchor which applies pressure to the wrapped suture thread to retain it in position on the inner tubular member while simultaneously and adjustably tensioning the suture thread. The insertion tool has an outer shaft that engages the outer tubular member of the anchor and prevents the outer tubular member from rotating as the inner shaft on the insertion tool rotates the inner tubular member on the anchor.

A hinged ankle brace having a semi-rigid ankle cuff and a semi-rigid foot bed rotatably connected by a medial hinge and a lateral hinge provides enhanced stability and support to a wearer's ankle. The medial hinge of the ankle brace may be higher than the lateral hinge to accurately replicate the bending motion of an ankle. The ankle brace also includes ratchetably interconnected semi-rigid straps. These semi-rigid straps provide a semi-rigid structure encircling the ankle of a wearer for enhanced support. The ratchet mechanism may include a curved window that enables angular adjustment of the ratchting straps. The ankle brace may also include a soft inner liner and a soft outer sleeve. The outer sleeve is configured to provide compression to the semi-rigid shell, which in turn provides additional compression to the ankle. The semi-rigid foot bed may include posterior extensions that cup and support the wearer's heel, and a posterior cut-out portion that receives the wearer's heel.

The present invention provides a device and methodology for use in spinal fusion surgeries. An implant is proved for forming a rigid structure between adjoining vertebrae in a patient. The implant is a cage defined by at least a first end, second end, first side, and second side surface, wherein first and second side surfaces extend substantially parallel to each other to span a space between adjoining vertebrae and first and second ends interconnect said first side surface and second side surface. The cage incorporates one or more flexible joints that allow the cage to be deformed for insertion into a patient. The ability to deform the cage allows a greater ease and flexibility in inserting and positioning the implant.

A robot arm (50) of the present invention includes, as a direct acting extensible/retractable joint (J3), an arm section (2) constituted by an upper structure group (20) and a lower structure group (21). Groups (20) and (21), having an arrangement in which structures are connected in series, partially engage so as to form a direct rigid combined structure, and are separated so as to release the rigid structure. An arm length can be adjusted arbitrarily. Section (2) can have a plane surface having no gap to prevent entry of a finger/dust. Separation of Groups (20) and (21) allows an upper structure (22) and a lower structure (23) to rotate around their rotational axes, to realize compact storage inside a robot arm supporting member (1). It is thus possible to prevent significantly entry of a finger/dust, and provide a compact direct acting extensible and retractable arm mechanism.

Disclosed herein is flexible packaging with a relative rigid structure portion, and an efficient method for manufacturing the same, that provides flexible packaging with an interior support that is able to contain products such as snacks, confections, pet foods, and liquids. The present invention provides for shearing and reinforcing portions of a primary web to form a bag. A supportive structure is also sheared and configured into a predetermined shape. The supportive structure is affixed inside the lower portion of the bag and provides form and support to the bag. The bag may also have a reclosable top portion that encloses the contents of the packaging.

An improved prosthetic implant for forming a rigid structure between adjoining vertebrae in a spinal column. The prosthetic implant includes a cage having a top, bottom, front end, back end, first side and second side walls. The first side wall has an arcuate surface. The top and bottom wall include one or more ridges to engage a surface of an adjacent vertebrae. The top and bottom wall also include an opening to receive packing material such as medicine, human tissue and the like. The top and bottom walls also incline simultaneously in two directions.

A barrier vehicle system for an amusement race track is formed from a chain of pivotally coupled barrier modules. Each barrier module has a top and a bottom link separated by a spacer structurally joined with the top and bottom links to create a rigid structure when assembled. A pin extends through the top and bottom links, to one side of the spacer. An resilient, deformable barrel is journalled on the pin. To assist in attenuating high energy impacts, an extendable, energy-absorbing mechanism is attached to one end of the barrier, and the other end of the barrier is anchored to the ground.

Described herein is a device and method used to effectively remove volume inside a patient in various types of surgeries, such as spinal surgeries (e.g. laminotomy), neurosurgeries (various types of craniotomy), ENT surgeries (e.g. tumor removal), and orthopedic surgeries (bone removal). Robotic assistance linked with a navigation system and medical imaging it can shorten surgery time, make the surgery safer and free surgeon from doing repetitive and laborious tasks. In certain embodiments, the disclosed technology includes a surgical instrument holder for use with a robotic surgical system. In certain embodiments, the surgical instrument holder is attached to or is part of an end effector of a robotic arm, and provides a rigid structure that allows for precise removal of a target volume in a patient.

A body part protector for being custom-fitted to a body part, including at least two protective pad inserts, each of the pad inserts having an initially flexible protective layer formed of a support material impregnated with a moisture-curable resin which hardens upon curing to form a rigid structure which retains a body part-defined shape into which it is molded during curing. The protective pad inserts are stored in moisture-proof conditions until use to prevent hardening. A pad encloses the at least two protective pad inserts, and is conformable to the molded shape of the pad inserts. A hard shell outer protector is adapted for receiving and carrying on an inner, concave surface thereof the pad and the at least two protective pad inserts positioned therein in protective position on the leg between the leg and the outer protector, the outer protector and the pad having complementary fastening elements for releasably securing the pad to the outer protector. Fasteners are carried by the hard shell outer protector for securing the molded and assembled body part protector to the body part to be protected.

A chair includes a first leg, a second leg pivotally mounted on the first leg, and a seat frame mounted on the first leg and the second leg by a plurality of detachable connecting members. Thus, the first leg, the second leg and the seat frame are assembled and disassembled easily and conveniently, thereby facilitating the user mounting the chair. In addition, the seat frame is combined with the first leg and the second leg by the connecting members, thereby simplifying the working procedure.

An electric energy generating module is shaped to take on a desired two dimensional profile to match a non-flat surface or architectural element such as corrugated roofing. The module includes an electric energy generating film sealed between a top layer of encapsulant material and a bottom layer of encapsulant material. The type and quantity of the encapsulant materials are such that the shape of the encapsulant materials can be altered when a high temperature and/or pressure is applied to the module, but where the encapsulant materials provide a rigid structure around the electric energy generating film under ordinary (i.e., naturally occurring) temperature and pressure conditions. The module can therefore be shaped by applying a suitable pressure and/or a high temperature but, once placed under ordinary temperature and pressure conditions, the module has a rigid structure.

Rigid structural members, profiles, joints, and forms added to structural sandwich panels to provide higher strength, integral joining joint, and single facing sheet manufacturing. Facing sheets (20) and (22), rigid structural members (24) and (26), latch side and pin side cam-locks (34) and (32), fabricated wire truss assembly (48), and rigid structural headers (28) and (30) and an integrated top plate (29) are positioned into containment form assembly (58) in the proper position. Facing sheets (20) and (22) are placed in position in the containment form assembly (58) forming a structural sandwich panel assembly. A foam resin core material (40) is injected into the structural sandwich panel assembly and allowed to cure. The resultant structural sandwich panel includes rigid structural members (24) and (26) and elongated recesses (36) and (38) which also form a joint for joining abutting structural sandwich panels together and cam-locks (32) and (34) used to secure adjoining panels together. Comer and angle panels have a comer rigid structural assembly (44).

A carpal tunnel splint for being custom-fitted to a hand and wrist to be supported, and comprising an elongate, narrow flexible inner cushion layer for being placed on and conformed to the shape of the hand and wrist, an initially flexible intermediate layer overlying the inner cushion layer and an intermediate layer comprised of a fabric impregnated with a moisture-curable resin which hardens upon curing to form a rigid structure of the fabric which retains a shape into which it is molded during curing, thereby also holding the flexible inner cushion layer in a conforming shape against the hand and wrist. A flexible protective outer layer overlies the intermediate layer and is attached to the inner cushion layer for enclosing the intermediate layer and forming the inner layer, intermediate layer and outer layer into a single, integrated elongated, narrow splint structure.

A wound dressing for a body member including a sealed casing formed of a flexible, air impermeable material configured and dimensioned to accommodate and enclose a body member, a compactible filler material disposed in the interior of the casing, and a valve communicating with the interior of the casing for evacuating air therefrom, whereupon the filler material interengages to combine with the casing to form a rigid structure conforming to a body member.

A bump shear test is disclosed for evaluating the mechanical integrity of low-k interconnect stacks in an integrated circuit which includes a die test structure (11) having a stiff structural component (501, 502) positioned above and affixed to a conductive metal pad (103) formed in a last metal layer (104). The die test structure (11) may also include a dedicated support structure (41) below the conductive metal pad which includes a predetermined pattern of metal lines formed in the interconnect layers (18, 22, 26). After mounting the integrated circuit in a test device, a shear knife (601) is positioned for lateral movement to cause the shear knife to contact the stiff structural component (501). Any damage to the die test structure caused by the lateral movement of the shear knife may be assessed to evaluate the mechanical integrity of the interconnect stack.

An erectable and collapsible container including a plurality of side walls joined along a plurality of wall hinges providing articulation between the side walls. A bottom wall is attached to the side walls at edge hinges providing articulation between the side walls and the bottom wall. At least one flexible gusset portion is provided extending between one or more of the side walls and the bottom wall, and the gusset portion is movable with the bottom wall in response to movement of the side walls and the bottom wall between collapsed and erected configurations. Structure is provided for maintaining the side walls in the erected configuration such that the side walls define a generally rigid or semi-rigid structure. A pair of opposed flexible panels extend from the side walls and define a bag-like upper portion extending from the support structure and forming a sealable opening for the container.

A radio frequency identification (RFID) tag is adapted to operate with a wideband or multiple band of frequencies, such as 860-960 MHz. The RFID tag includes a flexible antenna inlay structure that can be integrated into a rigid structure to form a rigid RFID tag. The antenna inlay structure can be folded to provide a compact rigid RFID tag. The antenna inlay structure may also be used in a smart label. The antenna inlay structure can work with RFID chips operating under Gen 2, ISO, or other protocol. The RFID tag can be provided with a metallized label that operates to shield the antenna inlay structure against electromagnetic effects of an object (such as a metallic object) having the RFID tag affixed thereon.