Cantaluppi & Partners S.r.l.

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.

A box (1) for fan coil units, which comprises a box-like body (7), arranged vertically when installed, with a substantially parallelepiped shape that defines a removable bottom (8), two longitudinal side walls (9a, 9b) and a top (10), all connected to a flat base (11), and a cover (12);the removable bottom (8) comprises a first breakable zone (18) and a housing (19), fitted with a condensate drain, for a removable trap (21) that cooperates with guide means (24a, 24b) associated proximate to the flat base (11) proximate to the opening (15);the top (10), the longitudinal side walls (9a, 9b) and the flat base (11) have, respectively, second, third and fourth breakable zones (27, 28, 29);the first, the second and the third breakable zones 18, 27, 28 are adapted to accommodate at least delivery (4) and return (5) conduits for refrigerated water or water at high temperatures.

The present invention provides a medical catheter, a surgical instrument, and a medical catheter manufacturing method, which relates to the technical field of medical device. The medical catheter provided by the present invention adopts a structure in which a support tube is installed inside an outer tube body and the support tube extends along the inner wall of the outer tube body. This structure not only allows the medical catheter to bend and easily pass through curved channels, but also maintains good structural strength and support when the outer tube body has a small diameter and thin wall. It is particularly suitable for surgical instruments that need to be inserted through narrow channels.

A machine and method for forming an electrochemical cell, wherein a conveying assembly (1000) is used in the machine and method comprising an idle roller (100) having a geometric axis (X) and an operating surface (101) configured to be engaged at least partially by a strip element (10) adapted to be dragged in a longitudinal direction thereof. The idle roller (100) comprises a shell (120) with a primary portion (120a) having a thickness that is substantially uniform along the geometric axis (X) and not exceeding 1 mm. The shell (120) can be coupled to at least one rotoidal joint member (200) defining an axis of rotation and connecting the idle roller (100 to a support structure (400). The conveying assembly (1000) comprises a support device (500) including two coupling portions (501, 502) configured to couple to the idle roller (100) in a rotatable manner about the geometric axis (X), and at least one sensor device (1001, 1002) connected to one of said coupling portions (501, 502) and to the idle roller (100) and configured to detect a stress mutually transmitted between said coupling portion (501, 502) and the idle roller (100).

A plant (100) and a method (900) for treating an aeriform effluent wherein the plant (100) comprises a delivery conduit line (10) configured to transport an aeriform effluent (F) from at least one combustion station (20), to one or more processing stations arranged in succession. The plant (100) further comprising at least one cooling station (40) arranged along said delivery conduit line (10) configured to perform a cooling of the aeriform effluent to a temperature not exceeding 75°C, and a treatment station (50), arranged along said delivery conduit line (10) downstream of said cooling station (40) and comprising a first section (51) configured to perform a basification of the effluent flowing through it, and a second section (52) arranged downstream of said first section (51) and configured to perform an oxidation of the effluent flowing through it, wherein said first section (51) and said second section (52) are hydraulically independent. The plant (100) further comprises at least one adsorption station arranged along said delivery conduit line (10) downstream of said treatment station (50) and comprising at least one filter element (201) configured to perform an adsorption on the aeriform effluent passing through it.

A plant and method for treating an aeriform effluent, wherein the plant comprises a delivery conduit line (10) configured to transport an aeriform effluent (F) from a combustion station (20), to one or more processing stations arranged in succession, and at least one basification station (30) arranged along said delivery conduit line (10) and configured to perform a first basification of the aeriform effluent (F). The plant further comprises a first cooling station (40) arranged along said delivery conduit line (10) downstream of said basification station (30) and comprising at least one air heat exchanger (41) configured to perform a cooling of the aeriform effluent to a temperature not exceeding 75°C, and a second cooling station (50) arranged along said delivery conduit line (10) downstream of said first cooling station (40) and comprising at least one liquid heat exchanger (51) configured to perform a cooling of the effluent to a temperature not exceeding 50°C. The plant further comprises at least one adsorption station (60) arranged along said delivery conduit line (10) downstream of said second cooling station (50) and comprising at least one filter element (61) configured to perform an adsorption on the aeriform effluent.