Cantaluppi & Partners S.r.l.

The present application relates to a method for the production of glass tops 1, 1^I, 1^II, 1^III for tables and doors and furnishings and partitions and glass tops 1, 1^I, 1^II, 1^III for tables and doors and furnishings and partitions.The method comprises, also in different sequences, the following steps:- obtaining at least one glass panel 2;- obtaining at least one glass block 19, 19^I provided with a through seat 4, 4^I;- inserting, in the through seat 4, 4^I, a complementarily shaped bushing 8, 8^I, 8^II, 8^III, made of metal or plastic, comprising a head 9, 9^I and a shank 10, 10^II, 10^III, said head 9, 9^I having a first planar upper surface 18, 18^I configured so as to align with a second upper surface 20, 20^I of said glass block 19, 19^I.

An accessory (100) for a crane (10) with a raisable arm (101). The accessory comprises a support member (1) which can be connected to the raisable arm of the crane and a rotating abutment structure (2) which is rotatably supported on the support member. The accessory further including actuation means (3) for the rotating abutment structure and detection means (4) configured to detect a load distribution which bears on the rotating abutment structure.

A computer-implemented method determines a holdover time or allowance time for an aircraft. The method entails receiving METAR/SPECI data for an airport where the aircraft is located, decoding the METAR/SPECI data to extract precipitation conditions, creating a query based on the precipitation conditions, and communicating the query to a holdover/allowance time database. If the holdover time database contains holdover/allowance time data for the precipitation conditions, the method entails verifying that the precipitation conditions map to a predefined precipitation type of the holdover/allowance time application and auto-populating the precipitation conditions in the holdover/allowance time application. If the holdover/allowance time database does not contain holdover/allowance time data for the precipitation conditions, the method entails displaying by the holdover/allowance time application a prompt to receive user input to manually populate the precipitation conditions. The method further includes displaying by the holdover/allowance time application the holdover/allowance time for the precipitation conditions.

A method for providing multilayer tops (1^III, 1^IV) for tables and doors and furnishing accessories and partitions, and multilayer tops (1^III, 1^IV) for tables and doors and furnishing accessories and partitions, that comprises:a step of obtaining a first, upper planar element (2), a step of obtaining a second, lower planar element (3) and a step of obtaining at least one through seat (4) on the second, lower planar element (3);and a step of inserting, into each through seat (4), a complementarily shaped bushing (8^III, 8^IV) having a substantially T-shaped structure and comprising a head (9) with a continuous and flat upper surface (18), a shank (10^III) and an externally threaded portion (16) or a turned male element (17) which protrude axially, at the opposite end with respect to said head (9), from the lower surface (11^III) of said shank (10^III);and a step of coupling the first, upper planar element (2) and the second, lower planar element (3) so as to obtain the multilayer top (1^III, 1^IV).

Bone anchors, expandable intervertebral fusion devices, systems, instruments, and methods thereof. The anchor may include a spherical head and a curved blade extending therefrom. The spherical head may define a non-threaded opening including a vertical slot in communication with an internal spherical pocket, which interfaces with a corresponding non-threaded tip of a single anchor impactor instrument. The anchor may attach to the instrument via a quarter-turn connection, which provides navigation for straight and angled insertion and/or removal of the anchors.

Smart surgical instruments, systems, and methods for correcting a spinal deformity. The smart instruments are configured to sense and measure data, for example, related to screw insertion torque, segmental and global spine stiffness, correction force, rod reduction force, spinal alignment, or other metrics, which provide objective intraoperative data to the surgeon in real time. This data helps ensure that each action taken during the surgery is as precise as possible, minimizing risks and improving the effectiveness of the intervention.

Devices, systems, instruments, and methods for promoting healing and stability for bone fractures. The bone stabilization system may include a periprosthetic plate configured to treat a periprosthetic fracture around an existing prosthesis. The periprosthetic plate may be especially suitable for the fixation of fractures and fragments in the greater trochanter region of the proximal femur. The periprosthetic plating may be used to create a rigid construct with permanent fixation to promote primary healing and stability.

A module (1, 1', 1", 1"') for a partition wall (27), comprising:- a first frame (2) comprising elements that are integrally associated with each other to form a border delimiting a first opening (5);- a second frame (6) comprising elements that are integrally associated with each other to form a border delimiting a second opening (7);- a first plate-like body (8, 8'), integrally associated in a perimetric portion thereof with the first frame (2);- a second plate-like body (9, 9'), integrally associated in a perimetric portion thereof with the second frame (6);- two opposite and parallel posts (10), which are detachably associated with the first frame (2) and the second frame (6), by way of engagement means (11), at the first lateral elements (2c) of the first frame (2) and at the second lateral elements (6c) of the second frame (6);- at least one transverse profiled element (12), at least partially interposed between the posts (10);the engagement means (11) comprise one or more contoured plates (13), which are integrally associated with the first frame (2) and with the second frame (6);the contoured plates (13) are selectively engaged in slots (15), which are provided in the posts (10).

Functional alignment of a 3D image of pelvis includes identifying a reference points on each 2D image of weight-bearing pelvis; identifying corresponding reference points on a 3D image of pelvis in a non-weight bearing position; constructing references on the 2D images based on the reference points on each respective image, constructing a corresponding reference on the 3D image based on the reference points thereon; and aligning the corresponding references of the 3D image with the references of 2D images, to provide a functionally aligned 3D image to more accurately plan placement of an acetabular shell. Another aspect of the invention determines an acetabular center of rotation (CoR) calculations for use in navigation during a THA surgery, including obtaining a point cloud of a surface of an acetabulum with a navigated instrument during the THA surgery; creating an acquired surface of the acetabulum based on the point cloud; extracting an acetabular CoR from the acquired surface for use in alignment and registration.

Custom patient-specific interbody implants, systems, and methods of generating custom implants. The implants may include upper and lower surfaces with an irregular surface topography, which are custom contoured to match the adjacent vertebral endplates of a specific patient. The method may include uploading images of the spine for the patient and processing the images into a virtual three-dimensional model of the spine including topography of individual vertebral bodies. The user may automatically and/or manually manipulate the virtual three-dimensional model to pre-operatively simulate a desired correction to the spine. The virtual implant model may be generated based on the desired correction and the topography of adjacent vertebral bodies.